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The patient nobody liked
CASE: He bares it all
Police have arrested Mr. L, age 62, 3 times in 36 hours after spotting him walking naked in public. With the county jail jammed to capacity, police bring him each time to our hospital’s emergency room.
After his first arrest, Mr. L matter-of-factly tells us, “I want to walk naked and starve myself to death.” His self-harm exhortations amplify with each visit until—at the third presentation—he reports that he has not eaten for at least 2 days.
Mr. L had been living on the streets for nearly 1 month. Before that, he had been in jail for approximately 1 month after attacking a nursing home patient. He has been hospitalized twice in 5 months for severe depression and personality disorder and has engaged in numerous disruptive behavioral episodes and feeble suicide attempts. At this latest presentation, he appears disheveled and lacks judgment and insight into his condition.
The authors’ observations
We readmitted Mr. L with working diagnoses of:
- major depressive disorder with psychotic features, based on his suicide threats and complaints of depression
- personality disorder not otherwise specified, based on his behavioral episodes, apparent desire to be cared for (Table 1), and refusal to “get better” during 2 recent hospitalizations.
A troubled life: Mr. L’s history
Period | Mr. L’s difficulties |
---|---|
Childhood | Has no friends in school; his mother—Mr. L’s sole source of emotional support—continues to wash his laundry, buy his food and clothes into his 20s |
Adult life | Keeps ‘goofing off’ at work and has trouble staying employed; depends on wife to manage his life |
2 years ago | Shows depressive symptoms (amotivation, lack of concentration, increased fatigue, decreased appetite) after shoulder injury Develops irrational fear that household appliances will malfunction Becomes hostile toward his wife of 34 years |
5 months ago | Hospitalized after threatening to kill wife; has depressive symptoms and is disruptive during month-long hospitalization |
4 months ago | Discharged from hospital to homeless shelter because estranged wife won’t allow him back home; is readmitted after shelter staff find him banging his head on an iron gate; again behaves disruptively |
3 months ago | Discharged from second month-long hospitalization to nursing home |
2 months ago | Attacks patient at nursing home; police arrest and incarcerate him on disorderly conduct charge |
Past month | Released from jail after 1 month and spends weeks on the streets; lands in ER after police repeatedly catch him walking naked in public |
HISTORY: His best friends
As a child, Mr. L had no friends. His father was physically present but emotionally distant, so he relied on his mother for emotional support. Throughout his teens and early adulthood, his mother continued to do his laundry, buy his food and clothes, and run his life. When he married in his early 20s, his wife assumed this role.
Mr. L avoided psychiatric care for most of his life but did not socialize outside the house, lacked ambition, and seemed content to depend on his wife. He worked primarily as a janitor or housekeeper but was constantly getting fired and drifted from job to job. His wife told us that when he was supposed to be working, he spent hours staring at the walls and watching TV.
As the shoulder pain intensified, Mr. L quit his job. While out of work, he stopped attending physical therapy sessions when his depressive symptoms began to offset the shoulder pain. He suffered loss of concentration and motivation, increased fatigue with hypersomnia, and decreased appetite. He lost 10 to 12 lb in 1 year.
Mr. L also started having trouble “focusing on reality” and developed obsessive fears of malfunctions around the house, such as the furnace blowing up, the stove catching fire, or the toilet backing up. At one point, he began urinating and defecating in his pants to avoid using the toilet. He began to feel hopeless and several times tried to suffocate himself by placing a plastic bag over his head.
He also grew irritable, angry, and aggressive—mostly toward his wife, who increasingly feared him. He started blaming her for “everything wrong in my life” and began contemplating stabbing her to death or striking her head with a hammer.
Five months ago, Mr. L was involuntarily hospitalized for depressive symptoms, suicidality, and continued homicidal thoughts toward his wife. The attending psychiatrist started olanzapine, 5 mg nightly, for psychotic features, and citalopram, 10 mg/d, for depression and anxiety, and ordered one-on-one observation to prevent additional suicide attempts. Mr. L’s shoulder pain had resolved by this time.
Three days later, Mr. L began refusing to eat. The psychiatrist then increased citalopram to 20 mg/d and olanzapine to 5 mg bid and asked a hospital internist to evaluate for malnutrition and a psychologist to gauge cognitive and intellectual function.
During the psychologist’s evaluation, Mr. L showed average global intellectual functioning but delays in visual-motor speed, visual working memory, and alertness to his environment. These findings, however, did not explain the patient’s lower functioning at home or in the hospital.
We ruled out organic causes for Mr. L’s cognitive deficits after receiving normal brain MRI, urinalysis, rapid plasma reagin titer, and thyroid-stimulating hormone test results. We also ruled out malnutrition because vitamin B12 and folate levels were normal but ordered a dietary consult to help Mr. L regain weight.
Staff and family registered Mr. L for Medicare and Medicaid benefits so that he could become more independent, but his behavior soon regressed. He complained that staff and family were ignoring him and started urinating outside the bathroom, eating and smearing his feces, and bothering other patients. Staff directed Mr. L’s wife to ignore his verbal abuse over the phone and encourage him to stay motivated for treatment.
Mr. L’s disruptive behavior stopped after the psychologist tried individual therapy with behavior modification. The psychologist helped him devise a cleanliness plan and encouraged him to express his anger verbally rather than acting out. When Mr. L smeared his feces, he was to scrub the area with soap and water, take a 5-minute cold shower, put on clean clothes, and write and read an apology to hospital staff.
DISCHARGE: Nowhere to go
One month after admission, Mr. L was free of suicidal and homicidal thoughts and other symptoms. Staff prepared him for discharge, but his wife was contemplating divorce and refused to allow him back home. He also declined community outpatient treatment because he wanted his life to return to “normal” and was unaware that he was harming himself and others.
With no other disposition options, we discharged Mr. L to a homeless shelter. Later that day, shelter staff brought him back to the ER after they found him banging his head against an iron gate. We readmitted him to the psychiatric unit, at which point he endorsed suicidal thinking.
READMISSION: ‘Cold’ case
During this second hospitalization, Mr. L was again eating his feces as well as coloring himself with green markers, writing obscenities on the wall, and tearing up other patients’ papers. He repeatedly took 15-minute cold showers and told staff as they urged him out of the shower that he wanted to die by inducing hypothermia. During these episodes, he often called his estranged wife and told her what he was doing.
After the treatment team had Mr. L civilly committed, the attending psychiatrist titrated citalopram to 60 mg/d, discontinued olanzapine, and added aripiprazole to target the patient’s underlying depressive symptoms. Aripiprazole was started at 5 mg nightly and eventually titrated to 10 mg nightly. On 3 occasions during the month-long hospitalization, Mr. L refused to take his medications because he felt he did not belong in the hospital.
The attending psychiatrist diagnosed “dependent, passive-aggressive behaviors” and noted that Mr. L was “not amenable” to psychiatric hospitalization. The treatment team and outpatient community mental health department decided the patient had a personality disorder and that continued hospitalization would prevent him from attaining autonomy.
We then discharged Mr. L to a nursing home. There, he demanded a transfer back to the hospital or to jail because he feared he could not afford nursing home care and believed he could receive more attention elsewhere. His request was rejected after our ER psychiatrist found him medically and mentally fit to stay at the nursing home.
About 1 month later, Mr. L tried to smother a female patient by holding a pillow over her face but stopped when she began to struggle. After he told the nurses what he had done, staff immediately called police, who arrested Mr. L and transferred him to the county jail.
Because police and nursing home staff viewed the incident as a cry for help rather than a cold-blooded attack, police charged Mr. L with disorderly conduct. One month later, police dropped the charge and released him to the streets.
The authors’ observations
Mr. L triggered hateful reactions among several treatment team members, many of whom felt vindicated by his arrest. Clinicians might react this way if they feel a patient is wasting their time, manipulating them, not recognizing their narcissistic need for the patient to change, or ignoring their treatment plans.1
Acknowledging the staff’s—and your own—reaction to a difficult patient is critical. Not doing so can lead to treatment decisions based on emotions rather than evidence. In a busy clinical setting, it’s easy to lose sight of this.
The following strategies can help you manage hateful countertransference, cope with a patient’s offensive behaviors, and make appropriate decisions:
- Allow staff members to discuss their feelings. Encourage them to acknowledge and discuss their feelings during team meetings or daily treatment discussions. This helped members of our team recognize that their identification with Mr. L’s self-rejection fueled their desire to “reject” him by discharging him to police or the homeless shelter.
- Joke about the patient’s behavior when appropriate. Humor is a mature and potentially healing defense mechanism. When not treating Mr. L, for example, we joked among ourselves about publishing a case report titled, “The case of the poop-eater.” Never joke about the patient in the therapeutic milieu, where it can be disruptive.
- See the behavior as a defense mechanism. Viewing patients’ reactions as defense mechanisms—rather than effects of a psychiatric disorder—can help you better understand the patient’s underlying pathophysiology.
READMISSION: More bad behavior
After his 3 arrests for public nudity, we readmit Mr. L, restart citalopram at 20 mg/d, and titrate it back to 60 mg/d to target his depression. We also switch back to olanzapine, 10 mg nightly, because the patient has seen little clinical benefit from aripiprazole and feels that olanzapine had improved his sleep.
In the psychiatric ward, Mr. L is once again disturbing patients, smearing and eating feces, and making half-hearted suicide attempts. Upset that staff is “ignoring” him, he enters other patients’ rooms without invitation and urinates in places other than the bathroom.
The authors’ observations
After 3 hospital admissions, Mr. L’s diagnosis remained unclear (Table 2). At his first admission, his symptoms suggested major depression with psychotic features. With his subsequent behaviors in the inpatient psychiatric unit—including primitive suicide attempts and smearing and eating feces—Mr. L showed a strong desire to be cared for. This and his past dependence on his wife and mother suggested a severe dependent personality disorder.
At his first discharge, Mr. L was diagnosed with a personality disorder with significant passive-aggressive traits. His lifelong dysphoria and lack of ambition also suggested dysthymia.
With discharge from this latest hospitalization pending, we searched for options. We considered Mr. L’s ongoing suicidality, persistent acting out, and aggression. Treatment team members discussed his use of “primitive defenses”2 stemming from his limited coping skills in the face of severe depression.
Table 2
Mr. L’s differential diagnosis
Possible diagnosis | Mr. L’s symptoms |
---|---|
Major depression |
|
Personality disorder |
|
Depression with psychotic features |
|
TREATMENT: A different course
One week after admission, Mr. L’s inpatient psychiatrist recommends electroconvulsive therapy (ECT) to target the patient’s presumed severe depressive episodes and disruptive behaviors. The psychiatrist is experienced in performing ECT, which in clinical trials3 has shown efficacy in treatment-refractory major depression.
After giving informed consent, Mr. L receives 8 bilateral ECT treatments in 3 weeks. Also, the hospital psychologist performs behavioral modification similar to the previous cleanliness plan and again encourages Mr. L to express his anger and anxiety verbally.
By the second week of ECT, Mr. L’s disruptive behaviors have ceased. By the end of week 3, his mood and motivation have improved to the point where he shows interest in becoming independent. He says he wants to show his estranged wife he can care for himself and eventually reunite with her.
As Mr. L continues to improve, we discharge him to outpatient community mental health services and continue citalopram, 60 mg/d, and olanzapine, 5 mg nightly.
Nearly 2 years later, Mr. L is living independently. He has been regularly seeing his psychiatrist at the community mental health center and is maintained on citalopram and olanzapine. He continues trying to make amends with his wife but is still out of work and receives Social Security disability benefits.
The authors’ observations
Mr. L was fortunate that his inpatient psychiatrist could re-evaluate the diagnosis after identifying the staff’s significantly hateful countertransference. This allowed staff to offer ECT, which—despite its documented efficacy for major depression—is not widely available in the United States.
If no ECT providers were available, we would have considered medication change and long-term treatment in a state mental hospital until Mr. L showed he could care for himself.
Related resources
- Nagera H. Countertransference (PowerPoint presentation). Tampa, FL: The Carter Jenkins Center; 2003. www.thecjc.org/ppoint/ppoint/ct.ppt.
- MayoClinic.com video: Electroconvulsive therapy (ECT): One woman’s journey. Click on “Video” at top, then scroll to title.
- Aripiprazole • Abilify
- Olanzapine • Zyprexa
- Citalopram • Celexa
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Green LB. The value of hate in the countertransference. Clin Soc Work J 2006;34:188-99.
2. Vaillant GE. Ego mechanisms of defense and personality psychopathology. J Abnorm Psychol 1994;103:44-50.
3. Pagnin D, de Queiroz V, Pini S, Cassano GB. Efficacy of ECT in depression: a meta-analytic review. J ECT 2004;20:13-20.
CASE: He bares it all
Police have arrested Mr. L, age 62, 3 times in 36 hours after spotting him walking naked in public. With the county jail jammed to capacity, police bring him each time to our hospital’s emergency room.
After his first arrest, Mr. L matter-of-factly tells us, “I want to walk naked and starve myself to death.” His self-harm exhortations amplify with each visit until—at the third presentation—he reports that he has not eaten for at least 2 days.
Mr. L had been living on the streets for nearly 1 month. Before that, he had been in jail for approximately 1 month after attacking a nursing home patient. He has been hospitalized twice in 5 months for severe depression and personality disorder and has engaged in numerous disruptive behavioral episodes and feeble suicide attempts. At this latest presentation, he appears disheveled and lacks judgment and insight into his condition.
The authors’ observations
We readmitted Mr. L with working diagnoses of:
- major depressive disorder with psychotic features, based on his suicide threats and complaints of depression
- personality disorder not otherwise specified, based on his behavioral episodes, apparent desire to be cared for (Table 1), and refusal to “get better” during 2 recent hospitalizations.
A troubled life: Mr. L’s history
Period | Mr. L’s difficulties |
---|---|
Childhood | Has no friends in school; his mother—Mr. L’s sole source of emotional support—continues to wash his laundry, buy his food and clothes into his 20s |
Adult life | Keeps ‘goofing off’ at work and has trouble staying employed; depends on wife to manage his life |
2 years ago | Shows depressive symptoms (amotivation, lack of concentration, increased fatigue, decreased appetite) after shoulder injury Develops irrational fear that household appliances will malfunction Becomes hostile toward his wife of 34 years |
5 months ago | Hospitalized after threatening to kill wife; has depressive symptoms and is disruptive during month-long hospitalization |
4 months ago | Discharged from hospital to homeless shelter because estranged wife won’t allow him back home; is readmitted after shelter staff find him banging his head on an iron gate; again behaves disruptively |
3 months ago | Discharged from second month-long hospitalization to nursing home |
2 months ago | Attacks patient at nursing home; police arrest and incarcerate him on disorderly conduct charge |
Past month | Released from jail after 1 month and spends weeks on the streets; lands in ER after police repeatedly catch him walking naked in public |
HISTORY: His best friends
As a child, Mr. L had no friends. His father was physically present but emotionally distant, so he relied on his mother for emotional support. Throughout his teens and early adulthood, his mother continued to do his laundry, buy his food and clothes, and run his life. When he married in his early 20s, his wife assumed this role.
Mr. L avoided psychiatric care for most of his life but did not socialize outside the house, lacked ambition, and seemed content to depend on his wife. He worked primarily as a janitor or housekeeper but was constantly getting fired and drifted from job to job. His wife told us that when he was supposed to be working, he spent hours staring at the walls and watching TV.
As the shoulder pain intensified, Mr. L quit his job. While out of work, he stopped attending physical therapy sessions when his depressive symptoms began to offset the shoulder pain. He suffered loss of concentration and motivation, increased fatigue with hypersomnia, and decreased appetite. He lost 10 to 12 lb in 1 year.
Mr. L also started having trouble “focusing on reality” and developed obsessive fears of malfunctions around the house, such as the furnace blowing up, the stove catching fire, or the toilet backing up. At one point, he began urinating and defecating in his pants to avoid using the toilet. He began to feel hopeless and several times tried to suffocate himself by placing a plastic bag over his head.
He also grew irritable, angry, and aggressive—mostly toward his wife, who increasingly feared him. He started blaming her for “everything wrong in my life” and began contemplating stabbing her to death or striking her head with a hammer.
Five months ago, Mr. L was involuntarily hospitalized for depressive symptoms, suicidality, and continued homicidal thoughts toward his wife. The attending psychiatrist started olanzapine, 5 mg nightly, for psychotic features, and citalopram, 10 mg/d, for depression and anxiety, and ordered one-on-one observation to prevent additional suicide attempts. Mr. L’s shoulder pain had resolved by this time.
Three days later, Mr. L began refusing to eat. The psychiatrist then increased citalopram to 20 mg/d and olanzapine to 5 mg bid and asked a hospital internist to evaluate for malnutrition and a psychologist to gauge cognitive and intellectual function.
During the psychologist’s evaluation, Mr. L showed average global intellectual functioning but delays in visual-motor speed, visual working memory, and alertness to his environment. These findings, however, did not explain the patient’s lower functioning at home or in the hospital.
We ruled out organic causes for Mr. L’s cognitive deficits after receiving normal brain MRI, urinalysis, rapid plasma reagin titer, and thyroid-stimulating hormone test results. We also ruled out malnutrition because vitamin B12 and folate levels were normal but ordered a dietary consult to help Mr. L regain weight.
Staff and family registered Mr. L for Medicare and Medicaid benefits so that he could become more independent, but his behavior soon regressed. He complained that staff and family were ignoring him and started urinating outside the bathroom, eating and smearing his feces, and bothering other patients. Staff directed Mr. L’s wife to ignore his verbal abuse over the phone and encourage him to stay motivated for treatment.
Mr. L’s disruptive behavior stopped after the psychologist tried individual therapy with behavior modification. The psychologist helped him devise a cleanliness plan and encouraged him to express his anger verbally rather than acting out. When Mr. L smeared his feces, he was to scrub the area with soap and water, take a 5-minute cold shower, put on clean clothes, and write and read an apology to hospital staff.
DISCHARGE: Nowhere to go
One month after admission, Mr. L was free of suicidal and homicidal thoughts and other symptoms. Staff prepared him for discharge, but his wife was contemplating divorce and refused to allow him back home. He also declined community outpatient treatment because he wanted his life to return to “normal” and was unaware that he was harming himself and others.
With no other disposition options, we discharged Mr. L to a homeless shelter. Later that day, shelter staff brought him back to the ER after they found him banging his head against an iron gate. We readmitted him to the psychiatric unit, at which point he endorsed suicidal thinking.
READMISSION: ‘Cold’ case
During this second hospitalization, Mr. L was again eating his feces as well as coloring himself with green markers, writing obscenities on the wall, and tearing up other patients’ papers. He repeatedly took 15-minute cold showers and told staff as they urged him out of the shower that he wanted to die by inducing hypothermia. During these episodes, he often called his estranged wife and told her what he was doing.
After the treatment team had Mr. L civilly committed, the attending psychiatrist titrated citalopram to 60 mg/d, discontinued olanzapine, and added aripiprazole to target the patient’s underlying depressive symptoms. Aripiprazole was started at 5 mg nightly and eventually titrated to 10 mg nightly. On 3 occasions during the month-long hospitalization, Mr. L refused to take his medications because he felt he did not belong in the hospital.
The attending psychiatrist diagnosed “dependent, passive-aggressive behaviors” and noted that Mr. L was “not amenable” to psychiatric hospitalization. The treatment team and outpatient community mental health department decided the patient had a personality disorder and that continued hospitalization would prevent him from attaining autonomy.
We then discharged Mr. L to a nursing home. There, he demanded a transfer back to the hospital or to jail because he feared he could not afford nursing home care and believed he could receive more attention elsewhere. His request was rejected after our ER psychiatrist found him medically and mentally fit to stay at the nursing home.
About 1 month later, Mr. L tried to smother a female patient by holding a pillow over her face but stopped when she began to struggle. After he told the nurses what he had done, staff immediately called police, who arrested Mr. L and transferred him to the county jail.
Because police and nursing home staff viewed the incident as a cry for help rather than a cold-blooded attack, police charged Mr. L with disorderly conduct. One month later, police dropped the charge and released him to the streets.
The authors’ observations
Mr. L triggered hateful reactions among several treatment team members, many of whom felt vindicated by his arrest. Clinicians might react this way if they feel a patient is wasting their time, manipulating them, not recognizing their narcissistic need for the patient to change, or ignoring their treatment plans.1
Acknowledging the staff’s—and your own—reaction to a difficult patient is critical. Not doing so can lead to treatment decisions based on emotions rather than evidence. In a busy clinical setting, it’s easy to lose sight of this.
The following strategies can help you manage hateful countertransference, cope with a patient’s offensive behaviors, and make appropriate decisions:
- Allow staff members to discuss their feelings. Encourage them to acknowledge and discuss their feelings during team meetings or daily treatment discussions. This helped members of our team recognize that their identification with Mr. L’s self-rejection fueled their desire to “reject” him by discharging him to police or the homeless shelter.
- Joke about the patient’s behavior when appropriate. Humor is a mature and potentially healing defense mechanism. When not treating Mr. L, for example, we joked among ourselves about publishing a case report titled, “The case of the poop-eater.” Never joke about the patient in the therapeutic milieu, where it can be disruptive.
- See the behavior as a defense mechanism. Viewing patients’ reactions as defense mechanisms—rather than effects of a psychiatric disorder—can help you better understand the patient’s underlying pathophysiology.
READMISSION: More bad behavior
After his 3 arrests for public nudity, we readmit Mr. L, restart citalopram at 20 mg/d, and titrate it back to 60 mg/d to target his depression. We also switch back to olanzapine, 10 mg nightly, because the patient has seen little clinical benefit from aripiprazole and feels that olanzapine had improved his sleep.
In the psychiatric ward, Mr. L is once again disturbing patients, smearing and eating feces, and making half-hearted suicide attempts. Upset that staff is “ignoring” him, he enters other patients’ rooms without invitation and urinates in places other than the bathroom.
The authors’ observations
After 3 hospital admissions, Mr. L’s diagnosis remained unclear (Table 2). At his first admission, his symptoms suggested major depression with psychotic features. With his subsequent behaviors in the inpatient psychiatric unit—including primitive suicide attempts and smearing and eating feces—Mr. L showed a strong desire to be cared for. This and his past dependence on his wife and mother suggested a severe dependent personality disorder.
At his first discharge, Mr. L was diagnosed with a personality disorder with significant passive-aggressive traits. His lifelong dysphoria and lack of ambition also suggested dysthymia.
With discharge from this latest hospitalization pending, we searched for options. We considered Mr. L’s ongoing suicidality, persistent acting out, and aggression. Treatment team members discussed his use of “primitive defenses”2 stemming from his limited coping skills in the face of severe depression.
Table 2
Mr. L’s differential diagnosis
Possible diagnosis | Mr. L’s symptoms |
---|---|
Major depression |
|
Personality disorder |
|
Depression with psychotic features |
|
TREATMENT: A different course
One week after admission, Mr. L’s inpatient psychiatrist recommends electroconvulsive therapy (ECT) to target the patient’s presumed severe depressive episodes and disruptive behaviors. The psychiatrist is experienced in performing ECT, which in clinical trials3 has shown efficacy in treatment-refractory major depression.
After giving informed consent, Mr. L receives 8 bilateral ECT treatments in 3 weeks. Also, the hospital psychologist performs behavioral modification similar to the previous cleanliness plan and again encourages Mr. L to express his anger and anxiety verbally.
By the second week of ECT, Mr. L’s disruptive behaviors have ceased. By the end of week 3, his mood and motivation have improved to the point where he shows interest in becoming independent. He says he wants to show his estranged wife he can care for himself and eventually reunite with her.
As Mr. L continues to improve, we discharge him to outpatient community mental health services and continue citalopram, 60 mg/d, and olanzapine, 5 mg nightly.
Nearly 2 years later, Mr. L is living independently. He has been regularly seeing his psychiatrist at the community mental health center and is maintained on citalopram and olanzapine. He continues trying to make amends with his wife but is still out of work and receives Social Security disability benefits.
The authors’ observations
Mr. L was fortunate that his inpatient psychiatrist could re-evaluate the diagnosis after identifying the staff’s significantly hateful countertransference. This allowed staff to offer ECT, which—despite its documented efficacy for major depression—is not widely available in the United States.
If no ECT providers were available, we would have considered medication change and long-term treatment in a state mental hospital until Mr. L showed he could care for himself.
Related resources
- Nagera H. Countertransference (PowerPoint presentation). Tampa, FL: The Carter Jenkins Center; 2003. www.thecjc.org/ppoint/ppoint/ct.ppt.
- MayoClinic.com video: Electroconvulsive therapy (ECT): One woman’s journey. Click on “Video” at top, then scroll to title.
- Aripiprazole • Abilify
- Olanzapine • Zyprexa
- Citalopram • Celexa
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
CASE: He bares it all
Police have arrested Mr. L, age 62, 3 times in 36 hours after spotting him walking naked in public. With the county jail jammed to capacity, police bring him each time to our hospital’s emergency room.
After his first arrest, Mr. L matter-of-factly tells us, “I want to walk naked and starve myself to death.” His self-harm exhortations amplify with each visit until—at the third presentation—he reports that he has not eaten for at least 2 days.
Mr. L had been living on the streets for nearly 1 month. Before that, he had been in jail for approximately 1 month after attacking a nursing home patient. He has been hospitalized twice in 5 months for severe depression and personality disorder and has engaged in numerous disruptive behavioral episodes and feeble suicide attempts. At this latest presentation, he appears disheveled and lacks judgment and insight into his condition.
The authors’ observations
We readmitted Mr. L with working diagnoses of:
- major depressive disorder with psychotic features, based on his suicide threats and complaints of depression
- personality disorder not otherwise specified, based on his behavioral episodes, apparent desire to be cared for (Table 1), and refusal to “get better” during 2 recent hospitalizations.
A troubled life: Mr. L’s history
Period | Mr. L’s difficulties |
---|---|
Childhood | Has no friends in school; his mother—Mr. L’s sole source of emotional support—continues to wash his laundry, buy his food and clothes into his 20s |
Adult life | Keeps ‘goofing off’ at work and has trouble staying employed; depends on wife to manage his life |
2 years ago | Shows depressive symptoms (amotivation, lack of concentration, increased fatigue, decreased appetite) after shoulder injury Develops irrational fear that household appliances will malfunction Becomes hostile toward his wife of 34 years |
5 months ago | Hospitalized after threatening to kill wife; has depressive symptoms and is disruptive during month-long hospitalization |
4 months ago | Discharged from hospital to homeless shelter because estranged wife won’t allow him back home; is readmitted after shelter staff find him banging his head on an iron gate; again behaves disruptively |
3 months ago | Discharged from second month-long hospitalization to nursing home |
2 months ago | Attacks patient at nursing home; police arrest and incarcerate him on disorderly conduct charge |
Past month | Released from jail after 1 month and spends weeks on the streets; lands in ER after police repeatedly catch him walking naked in public |
HISTORY: His best friends
As a child, Mr. L had no friends. His father was physically present but emotionally distant, so he relied on his mother for emotional support. Throughout his teens and early adulthood, his mother continued to do his laundry, buy his food and clothes, and run his life. When he married in his early 20s, his wife assumed this role.
Mr. L avoided psychiatric care for most of his life but did not socialize outside the house, lacked ambition, and seemed content to depend on his wife. He worked primarily as a janitor or housekeeper but was constantly getting fired and drifted from job to job. His wife told us that when he was supposed to be working, he spent hours staring at the walls and watching TV.
As the shoulder pain intensified, Mr. L quit his job. While out of work, he stopped attending physical therapy sessions when his depressive symptoms began to offset the shoulder pain. He suffered loss of concentration and motivation, increased fatigue with hypersomnia, and decreased appetite. He lost 10 to 12 lb in 1 year.
Mr. L also started having trouble “focusing on reality” and developed obsessive fears of malfunctions around the house, such as the furnace blowing up, the stove catching fire, or the toilet backing up. At one point, he began urinating and defecating in his pants to avoid using the toilet. He began to feel hopeless and several times tried to suffocate himself by placing a plastic bag over his head.
He also grew irritable, angry, and aggressive—mostly toward his wife, who increasingly feared him. He started blaming her for “everything wrong in my life” and began contemplating stabbing her to death or striking her head with a hammer.
Five months ago, Mr. L was involuntarily hospitalized for depressive symptoms, suicidality, and continued homicidal thoughts toward his wife. The attending psychiatrist started olanzapine, 5 mg nightly, for psychotic features, and citalopram, 10 mg/d, for depression and anxiety, and ordered one-on-one observation to prevent additional suicide attempts. Mr. L’s shoulder pain had resolved by this time.
Three days later, Mr. L began refusing to eat. The psychiatrist then increased citalopram to 20 mg/d and olanzapine to 5 mg bid and asked a hospital internist to evaluate for malnutrition and a psychologist to gauge cognitive and intellectual function.
During the psychologist’s evaluation, Mr. L showed average global intellectual functioning but delays in visual-motor speed, visual working memory, and alertness to his environment. These findings, however, did not explain the patient’s lower functioning at home or in the hospital.
We ruled out organic causes for Mr. L’s cognitive deficits after receiving normal brain MRI, urinalysis, rapid plasma reagin titer, and thyroid-stimulating hormone test results. We also ruled out malnutrition because vitamin B12 and folate levels were normal but ordered a dietary consult to help Mr. L regain weight.
Staff and family registered Mr. L for Medicare and Medicaid benefits so that he could become more independent, but his behavior soon regressed. He complained that staff and family were ignoring him and started urinating outside the bathroom, eating and smearing his feces, and bothering other patients. Staff directed Mr. L’s wife to ignore his verbal abuse over the phone and encourage him to stay motivated for treatment.
Mr. L’s disruptive behavior stopped after the psychologist tried individual therapy with behavior modification. The psychologist helped him devise a cleanliness plan and encouraged him to express his anger verbally rather than acting out. When Mr. L smeared his feces, he was to scrub the area with soap and water, take a 5-minute cold shower, put on clean clothes, and write and read an apology to hospital staff.
DISCHARGE: Nowhere to go
One month after admission, Mr. L was free of suicidal and homicidal thoughts and other symptoms. Staff prepared him for discharge, but his wife was contemplating divorce and refused to allow him back home. He also declined community outpatient treatment because he wanted his life to return to “normal” and was unaware that he was harming himself and others.
With no other disposition options, we discharged Mr. L to a homeless shelter. Later that day, shelter staff brought him back to the ER after they found him banging his head against an iron gate. We readmitted him to the psychiatric unit, at which point he endorsed suicidal thinking.
READMISSION: ‘Cold’ case
During this second hospitalization, Mr. L was again eating his feces as well as coloring himself with green markers, writing obscenities on the wall, and tearing up other patients’ papers. He repeatedly took 15-minute cold showers and told staff as they urged him out of the shower that he wanted to die by inducing hypothermia. During these episodes, he often called his estranged wife and told her what he was doing.
After the treatment team had Mr. L civilly committed, the attending psychiatrist titrated citalopram to 60 mg/d, discontinued olanzapine, and added aripiprazole to target the patient’s underlying depressive symptoms. Aripiprazole was started at 5 mg nightly and eventually titrated to 10 mg nightly. On 3 occasions during the month-long hospitalization, Mr. L refused to take his medications because he felt he did not belong in the hospital.
The attending psychiatrist diagnosed “dependent, passive-aggressive behaviors” and noted that Mr. L was “not amenable” to psychiatric hospitalization. The treatment team and outpatient community mental health department decided the patient had a personality disorder and that continued hospitalization would prevent him from attaining autonomy.
We then discharged Mr. L to a nursing home. There, he demanded a transfer back to the hospital or to jail because he feared he could not afford nursing home care and believed he could receive more attention elsewhere. His request was rejected after our ER psychiatrist found him medically and mentally fit to stay at the nursing home.
About 1 month later, Mr. L tried to smother a female patient by holding a pillow over her face but stopped when she began to struggle. After he told the nurses what he had done, staff immediately called police, who arrested Mr. L and transferred him to the county jail.
Because police and nursing home staff viewed the incident as a cry for help rather than a cold-blooded attack, police charged Mr. L with disorderly conduct. One month later, police dropped the charge and released him to the streets.
The authors’ observations
Mr. L triggered hateful reactions among several treatment team members, many of whom felt vindicated by his arrest. Clinicians might react this way if they feel a patient is wasting their time, manipulating them, not recognizing their narcissistic need for the patient to change, or ignoring their treatment plans.1
Acknowledging the staff’s—and your own—reaction to a difficult patient is critical. Not doing so can lead to treatment decisions based on emotions rather than evidence. In a busy clinical setting, it’s easy to lose sight of this.
The following strategies can help you manage hateful countertransference, cope with a patient’s offensive behaviors, and make appropriate decisions:
- Allow staff members to discuss their feelings. Encourage them to acknowledge and discuss their feelings during team meetings or daily treatment discussions. This helped members of our team recognize that their identification with Mr. L’s self-rejection fueled their desire to “reject” him by discharging him to police or the homeless shelter.
- Joke about the patient’s behavior when appropriate. Humor is a mature and potentially healing defense mechanism. When not treating Mr. L, for example, we joked among ourselves about publishing a case report titled, “The case of the poop-eater.” Never joke about the patient in the therapeutic milieu, where it can be disruptive.
- See the behavior as a defense mechanism. Viewing patients’ reactions as defense mechanisms—rather than effects of a psychiatric disorder—can help you better understand the patient’s underlying pathophysiology.
READMISSION: More bad behavior
After his 3 arrests for public nudity, we readmit Mr. L, restart citalopram at 20 mg/d, and titrate it back to 60 mg/d to target his depression. We also switch back to olanzapine, 10 mg nightly, because the patient has seen little clinical benefit from aripiprazole and feels that olanzapine had improved his sleep.
In the psychiatric ward, Mr. L is once again disturbing patients, smearing and eating feces, and making half-hearted suicide attempts. Upset that staff is “ignoring” him, he enters other patients’ rooms without invitation and urinates in places other than the bathroom.
The authors’ observations
After 3 hospital admissions, Mr. L’s diagnosis remained unclear (Table 2). At his first admission, his symptoms suggested major depression with psychotic features. With his subsequent behaviors in the inpatient psychiatric unit—including primitive suicide attempts and smearing and eating feces—Mr. L showed a strong desire to be cared for. This and his past dependence on his wife and mother suggested a severe dependent personality disorder.
At his first discharge, Mr. L was diagnosed with a personality disorder with significant passive-aggressive traits. His lifelong dysphoria and lack of ambition also suggested dysthymia.
With discharge from this latest hospitalization pending, we searched for options. We considered Mr. L’s ongoing suicidality, persistent acting out, and aggression. Treatment team members discussed his use of “primitive defenses”2 stemming from his limited coping skills in the face of severe depression.
Table 2
Mr. L’s differential diagnosis
Possible diagnosis | Mr. L’s symptoms |
---|---|
Major depression |
|
Personality disorder |
|
Depression with psychotic features |
|
TREATMENT: A different course
One week after admission, Mr. L’s inpatient psychiatrist recommends electroconvulsive therapy (ECT) to target the patient’s presumed severe depressive episodes and disruptive behaviors. The psychiatrist is experienced in performing ECT, which in clinical trials3 has shown efficacy in treatment-refractory major depression.
After giving informed consent, Mr. L receives 8 bilateral ECT treatments in 3 weeks. Also, the hospital psychologist performs behavioral modification similar to the previous cleanliness plan and again encourages Mr. L to express his anger and anxiety verbally.
By the second week of ECT, Mr. L’s disruptive behaviors have ceased. By the end of week 3, his mood and motivation have improved to the point where he shows interest in becoming independent. He says he wants to show his estranged wife he can care for himself and eventually reunite with her.
As Mr. L continues to improve, we discharge him to outpatient community mental health services and continue citalopram, 60 mg/d, and olanzapine, 5 mg nightly.
Nearly 2 years later, Mr. L is living independently. He has been regularly seeing his psychiatrist at the community mental health center and is maintained on citalopram and olanzapine. He continues trying to make amends with his wife but is still out of work and receives Social Security disability benefits.
The authors’ observations
Mr. L was fortunate that his inpatient psychiatrist could re-evaluate the diagnosis after identifying the staff’s significantly hateful countertransference. This allowed staff to offer ECT, which—despite its documented efficacy for major depression—is not widely available in the United States.
If no ECT providers were available, we would have considered medication change and long-term treatment in a state mental hospital until Mr. L showed he could care for himself.
Related resources
- Nagera H. Countertransference (PowerPoint presentation). Tampa, FL: The Carter Jenkins Center; 2003. www.thecjc.org/ppoint/ppoint/ct.ppt.
- MayoClinic.com video: Electroconvulsive therapy (ECT): One woman’s journey. Click on “Video” at top, then scroll to title.
- Aripiprazole • Abilify
- Olanzapine • Zyprexa
- Citalopram • Celexa
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Green LB. The value of hate in the countertransference. Clin Soc Work J 2006;34:188-99.
2. Vaillant GE. Ego mechanisms of defense and personality psychopathology. J Abnorm Psychol 1994;103:44-50.
3. Pagnin D, de Queiroz V, Pini S, Cassano GB. Efficacy of ECT in depression: a meta-analytic review. J ECT 2004;20:13-20.
1. Green LB. The value of hate in the countertransference. Clin Soc Work J 2006;34:188-99.
2. Vaillant GE. Ego mechanisms of defense and personality psychopathology. J Abnorm Psychol 1994;103:44-50.
3. Pagnin D, de Queiroz V, Pini S, Cassano GB. Efficacy of ECT in depression: a meta-analytic review. J ECT 2004;20:13-20.
One patient’s ‘shot’ at redemption
CASE: A ‘purification’
Mr. B, age 61, is in the ICU after shooting himself in the abdomen. The trauma team asks our psychiatry consultation/liaison service to determine if he needs special observation to prevent further self-harm.
Two days ago, Mr. B stood in the parking lot of a nearby hospital, aimed his rifle toward the left upper part of his abdomen, and fired. Bleeding profusely, he dragged himself to the hospital’s emergency room. ER staff stabilized him hemodynamically, then transferred him to our hospital’s regional trauma center, where surgeons performed an emergency laparotomy and found 2 sigmoid colon perforations, with feces floating outside the bowel.
After a partial colectomy and colostomy, Mr. B received broad-spectrum antibiotics, narcotic pain medication, and bowel rest in the ICU. When the trauma team called us, the patient’s condition was stable and he had awakened enough to communicate, although he still needed frequent monitoring.
We visit Mr. B in the ICU and ask him why he shot himself. He denies he was attempting suicide but adds that for months he has been feeling depressed, stressed, and guilty about “all the bad things I’ve done in my life.” Shooting himself helped him forget these negative thoughts.
A devout Roman Catholic, Mr. B has been researching flagellation and other forms of physical penance and considers the shooting a purification. He says he shot himself in the abdomen 2 previous times and felt better for months or years after each shooting.
Four years ago, Mr. B donated his left kidney to an unknown recipient. He does not equate the kidney donation with the shootings but says he felt happy while recuperating. He was later disappointed, however, because the procedure did not help him attract the “attention” he had hoped for.
Mr. B says he had been considering the latest shooting for at least 8 months and had carefully planned it. After studying anatomy textbooks, he figured he could fire into the left upper portion of his abdomen without striking a vital organ.
For several evenings, Mr. B aimed his rifle toward his abdomen but could not bring himself to pull the trigger. On the night of the shooting, he said, he “accidentally” fired at a more damaging angle than he had planned.
Cognitive examination results are mostly normal, although Mr. B has trouble interpreting similarities and proverbs. He appears pale but well-nourished, well-groomed, and serene. He speaks softly, often closing his eyes or staring into the distance. He says he feels “relieved” and “happy” after the shooting but did not anticipate such a severe injury. He denies suicidal thoughts and—because of his current euphoric mood—he hopes he never “needs” to shoot himself again.
The authors’ observations
We first considered delusional disorder and major depressive disorder with psychotic features. Mr. B’s belief that shooting himself would solve his problems seemed delusional, although he did not appear psychotic otherwise. Confusingly, Mr. B’s pre-admission symptoms seemed to suggest major depressive disorder, but he was happy in the ICU.
We explored other diagnoses, such as an odd form of OCD and a personality disorder (especially cluster A, given his strange beliefs), though at this point we had too little information for either diagnosis.
The authors’ observations
Mr. B was recovering from major abdominal surgery, was taking nothing orally, and claimed to feel fine psychologically. Because he was not grossly psychotic and did not endorse anxiety or depression, we decided against medication but recommended a chaplain consult and planned to visit Mr. B daily to gather more history.
We considered Mr. B a low suicide risk—especially while hospitalized—after he said his “need” to shoot himself had dissipated. He also endorsed no suicidal thoughts or other depressive symptoms, and the nursing staff viewed him as pleasant and compliant. We noted this evidence in the chart and continued to reassess him daily.
HISTORY: Dreams, nightmares
Over the next week, Mr. B shares his life story. He says his parents divorced when he was age 5, and around that time he spent approximately 2 weeks in the hospital after being hit by a truck. He considers those 2 weeks a bright spot in an otherwise turbulent childhood because his parents did not fight and he was showered with gifts and attention.
Soon after, Mr. B lived with his mother. When he was 9, he heard his divorced parents arguing during a family gathering and prayed for his own death.
Throughout his childhood, Mr. B dreamed of becoming a priest and a war hero. In his early teens, he attended a church youth program where he and other youths were taught that masturbation is a mortal sin. Through high school, Mr. B’s inability to stop masturbating shook his faith and discouraged him from pursuing the priesthood.
In high school, Mr. B did not use alcohol or drugs and excelled academically but had few friends. After graduating, he enlisted in the U.S. Army and hoped to serve in Vietnam, but basic training became too stressful. The relentless harangues from drill instructors reminded him of his parents’ frequent shouting matches during his childhood.
Approximately 2 weeks into basic training, Mr. B shot himself in the abdomen and injured his liver. He underwent laparotomy and cholecystectomy and was discharged from the military. His anxiety dissipated as he recovered, though he later regretted not serving in Vietnam.
Mr. B married at age 44 and was divorced 13 years later. Throughout the marriage, he says, he verbally abused his wife and was emotionally unsupportive. After the divorce, he felt remorse over having mistreated her. His guilt disappeared after he donated his left kidney to an unknown recipient, but the guilt soon returned and drove him to shoot himself a second time in 2005.
Mr. B worked as a special education teacher for 20 years before retiring 4 years ago and has since been pursuing a similar position because he misses going to work. His inability to find a permanent job has led to anxiety, insomnia, increased guilt, and decreased appetite. He says these feelings fueled his desire to shoot himself a third time.
Since his divorce, Mr. B has lived alone and has no family or friends nearby. He feels isolated and is hurt that his family has not acknowledged the cards and notes he sent to them but adds that he did not include his return address on the mailings.
FOLLOW-UP: No relief
Eleven days after admission, Mr. B says shooting himself has not relieved his negative feelings, and his impending discharge makes him feel anxious with some suicidal thoughts. The surgical team delays discharge after Mr. B develops ileus with nausea and vomiting. The trauma team’s attending physician prescribes an antiemetic, and ileus resolves after 4 days. Mr. B then is discharged in stable condition after he denies intention to harm himself.
- Nonbizarre delusions (involving situations that occur in real life) lasting ≥1 month.
- Criterion A for schizophrenia has never been met. (Note: Tactile and olfactory hallucinations may be present in delusional disorder if they are related to the delusional disorder.)
- Apart from the impact or ramifications of the delusion(s), functioning is not markedly impaired and behavior is not obviously odd or bizarre.
- If mood episodes have occurred concurrently with delusions, their total duration has been brief relative to the duration of the delusional periods.
- The disturbance is not due to the direct physiologic effects of a substance or a general medical condition.
Source:Reference 6. Reprinted with permission
The authors’ observations
Some of Mr. B’s symptoms suggested OCD, including thought-related anxiety that is relieved after performing an action—in his case shooting himself. Whereas obsessions and/or compulsions occur daily in OCD, Mr. B would perform the action and then feel fine for months to years before his anxiety resurfaced. Also, he did not consider his thoughts wrong or obtrusive.
- Intentional production or feigning of physical or psychological signs or symptoms.
- The motivation for the behavior is to assume the sick role.
- External incentives for the behavior are absent.
Source:Reference 6. Reprinted with permission
- cluster A (odd ideas, solitary lifestyle)
- cluster B (self-harm, narcissistic tendencies)
- and cluster C (avoiding his relatives, dependence on others to meet his needs).
Mr. B’s intentional production of physical symptoms strongly suggested malingering, but we instead diagnosed factitious disorder because he was clearly motivated to play the sick role despite lack of a secondary gain (Box 2). The patient admitted causing the gunshot wound and clearly connected his subsequent emotional relief with both his positive childhood experience in the hospital and his satisfaction after donating a kidney.
Researchers have tried to distinguish between factitious disorder and other types of self-harm. Claes and Vandereycken4 would consider Mr. B’s behavior “self-mutilation” rather than factitious. Turner calls DSM-IV-TR criteria for factitious disorder nebulous and says that lying about symptoms or their origin should be a necessary criterion.5 If so, then Mr. B’s condition might fit no DSM diagnosis.6
The authors’ observations
Although Mr. B’s diagnosis remained elusive, he needed a treatment plan before discharge to prevent another shooting and save his life.
Although we did not diagnose a major depressive or anxiety-spectrum disorder, we felt an SSRI such as citalopram could help. According to some investigators, SSRIs might benefit patients with over-valued ideas that are not as persistent as delusions.7,8
Additionally, we felt supportive therapy could help Mr. B establish a therapeutic relationship with a provider to whom he could turn during future crises. Should Mr. B contemplate self-harm, the therapist could suggest medications, hospitalization, or other interventions. We also recommended pastoral counseling to increase his support within his faith.
OUTCOME Another shot?
Before discharge, we start citalopram, 10 mg/d, and schedule a follow-up appointment within 2 weeks. We also suggest that Mr. B:
- move into an apartment near his outpatient doctors
- get involved with the local Catholic community to build his support network.
Mr. B calls his recent hospitalization upsetting because “I did not get the attention I wanted.” He endorses no immediate plan to shoot himself but voices concern that when his physical problems resolve, he might shoot Himself in the liver—as he had done 40 years ago—to bring himself full circle. “There’s still something attractive about this,” he says.
The authors’ observations
Patients with factitious illness commonly refuse mental health treatment.9
We feel Mr. B needs frequent ongoing appointments in a medical clinic where doctors can provide sufficient attention to counter his persistent self-harm urges. Regular appointments with a primary care physician—regardless of whether Mr. B is medically ill—could help him feel supported.
Related resources
- Feldman MD, Eisendrath SJ, eds. The spectrum of factitious disorders. Washington, DC: American Psychiatric Press; 1996.
- Sutton J, Martinson D. Self-injury Web site: What self-injury is.www.palace.net/~llama/psych/fwhat.html.
- Citalopram • Celexa
- Omeprazole • Prilosec
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. The mysteries of Opus Dei. US News and World Report; December 14, 2003 (health section). Available at: http://www.usnews.com/usnews/culture/articles/031222/22jesus.b.htm. Accessed December 10, 2007.
2. Toke LA. transcribed by Potter DJ Flagellants. In: Catholic encyclopedia, vol. 6. New York: Robert Appleton Co.; 1909. Available at: http://www.newadvent.org/cathen/06089c.htm. Accessed December 10, 2007.
3. Glucklich A. Sacred pain: hurting the body for the sake of the soul. New York: Oxford University Press; 2001.
4. Claes L, Vandereycken W. Self-injurious behavior: differential diagnosis and functional differentiation. Compr Psychiatry 2007;48:137-44.
5. Turner MA. Factitious disorders: reformulating the DSM-IV criteria. Psychosomatics 2006;47:23-32.
6. Diagnostic and statistical manual of mental disorders. 4th ed. text rev. Washington, DC: American Psychiatric Association; 2000.
7. Veale D. Over-valued ideas: a conceptual analysis. Behav Res Ther 2002;40:383-400.
8. Jones E, Watson JP. Delusion, the overvalued idea and religious beliefs: a comparative analysis of their characteristics. Br J Psychiatry 1997;170:381-6.
9. Sutherland AJ, Rodin GM. Factitious disorders in a general hospital setting: clinical features and a review of the literature. Psychosomatics 1990;31:392-9.
CASE: A ‘purification’
Mr. B, age 61, is in the ICU after shooting himself in the abdomen. The trauma team asks our psychiatry consultation/liaison service to determine if he needs special observation to prevent further self-harm.
Two days ago, Mr. B stood in the parking lot of a nearby hospital, aimed his rifle toward the left upper part of his abdomen, and fired. Bleeding profusely, he dragged himself to the hospital’s emergency room. ER staff stabilized him hemodynamically, then transferred him to our hospital’s regional trauma center, where surgeons performed an emergency laparotomy and found 2 sigmoid colon perforations, with feces floating outside the bowel.
After a partial colectomy and colostomy, Mr. B received broad-spectrum antibiotics, narcotic pain medication, and bowel rest in the ICU. When the trauma team called us, the patient’s condition was stable and he had awakened enough to communicate, although he still needed frequent monitoring.
We visit Mr. B in the ICU and ask him why he shot himself. He denies he was attempting suicide but adds that for months he has been feeling depressed, stressed, and guilty about “all the bad things I’ve done in my life.” Shooting himself helped him forget these negative thoughts.
A devout Roman Catholic, Mr. B has been researching flagellation and other forms of physical penance and considers the shooting a purification. He says he shot himself in the abdomen 2 previous times and felt better for months or years after each shooting.
Four years ago, Mr. B donated his left kidney to an unknown recipient. He does not equate the kidney donation with the shootings but says he felt happy while recuperating. He was later disappointed, however, because the procedure did not help him attract the “attention” he had hoped for.
Mr. B says he had been considering the latest shooting for at least 8 months and had carefully planned it. After studying anatomy textbooks, he figured he could fire into the left upper portion of his abdomen without striking a vital organ.
For several evenings, Mr. B aimed his rifle toward his abdomen but could not bring himself to pull the trigger. On the night of the shooting, he said, he “accidentally” fired at a more damaging angle than he had planned.
Cognitive examination results are mostly normal, although Mr. B has trouble interpreting similarities and proverbs. He appears pale but well-nourished, well-groomed, and serene. He speaks softly, often closing his eyes or staring into the distance. He says he feels “relieved” and “happy” after the shooting but did not anticipate such a severe injury. He denies suicidal thoughts and—because of his current euphoric mood—he hopes he never “needs” to shoot himself again.
The authors’ observations
We first considered delusional disorder and major depressive disorder with psychotic features. Mr. B’s belief that shooting himself would solve his problems seemed delusional, although he did not appear psychotic otherwise. Confusingly, Mr. B’s pre-admission symptoms seemed to suggest major depressive disorder, but he was happy in the ICU.
We explored other diagnoses, such as an odd form of OCD and a personality disorder (especially cluster A, given his strange beliefs), though at this point we had too little information for either diagnosis.
The authors’ observations
Mr. B was recovering from major abdominal surgery, was taking nothing orally, and claimed to feel fine psychologically. Because he was not grossly psychotic and did not endorse anxiety or depression, we decided against medication but recommended a chaplain consult and planned to visit Mr. B daily to gather more history.
We considered Mr. B a low suicide risk—especially while hospitalized—after he said his “need” to shoot himself had dissipated. He also endorsed no suicidal thoughts or other depressive symptoms, and the nursing staff viewed him as pleasant and compliant. We noted this evidence in the chart and continued to reassess him daily.
HISTORY: Dreams, nightmares
Over the next week, Mr. B shares his life story. He says his parents divorced when he was age 5, and around that time he spent approximately 2 weeks in the hospital after being hit by a truck. He considers those 2 weeks a bright spot in an otherwise turbulent childhood because his parents did not fight and he was showered with gifts and attention.
Soon after, Mr. B lived with his mother. When he was 9, he heard his divorced parents arguing during a family gathering and prayed for his own death.
Throughout his childhood, Mr. B dreamed of becoming a priest and a war hero. In his early teens, he attended a church youth program where he and other youths were taught that masturbation is a mortal sin. Through high school, Mr. B’s inability to stop masturbating shook his faith and discouraged him from pursuing the priesthood.
In high school, Mr. B did not use alcohol or drugs and excelled academically but had few friends. After graduating, he enlisted in the U.S. Army and hoped to serve in Vietnam, but basic training became too stressful. The relentless harangues from drill instructors reminded him of his parents’ frequent shouting matches during his childhood.
Approximately 2 weeks into basic training, Mr. B shot himself in the abdomen and injured his liver. He underwent laparotomy and cholecystectomy and was discharged from the military. His anxiety dissipated as he recovered, though he later regretted not serving in Vietnam.
Mr. B married at age 44 and was divorced 13 years later. Throughout the marriage, he says, he verbally abused his wife and was emotionally unsupportive. After the divorce, he felt remorse over having mistreated her. His guilt disappeared after he donated his left kidney to an unknown recipient, but the guilt soon returned and drove him to shoot himself a second time in 2005.
Mr. B worked as a special education teacher for 20 years before retiring 4 years ago and has since been pursuing a similar position because he misses going to work. His inability to find a permanent job has led to anxiety, insomnia, increased guilt, and decreased appetite. He says these feelings fueled his desire to shoot himself a third time.
Since his divorce, Mr. B has lived alone and has no family or friends nearby. He feels isolated and is hurt that his family has not acknowledged the cards and notes he sent to them but adds that he did not include his return address on the mailings.
FOLLOW-UP: No relief
Eleven days after admission, Mr. B says shooting himself has not relieved his negative feelings, and his impending discharge makes him feel anxious with some suicidal thoughts. The surgical team delays discharge after Mr. B develops ileus with nausea and vomiting. The trauma team’s attending physician prescribes an antiemetic, and ileus resolves after 4 days. Mr. B then is discharged in stable condition after he denies intention to harm himself.
- Nonbizarre delusions (involving situations that occur in real life) lasting ≥1 month.
- Criterion A for schizophrenia has never been met. (Note: Tactile and olfactory hallucinations may be present in delusional disorder if they are related to the delusional disorder.)
- Apart from the impact or ramifications of the delusion(s), functioning is not markedly impaired and behavior is not obviously odd or bizarre.
- If mood episodes have occurred concurrently with delusions, their total duration has been brief relative to the duration of the delusional periods.
- The disturbance is not due to the direct physiologic effects of a substance or a general medical condition.
Source:Reference 6. Reprinted with permission
The authors’ observations
Some of Mr. B’s symptoms suggested OCD, including thought-related anxiety that is relieved after performing an action—in his case shooting himself. Whereas obsessions and/or compulsions occur daily in OCD, Mr. B would perform the action and then feel fine for months to years before his anxiety resurfaced. Also, he did not consider his thoughts wrong or obtrusive.
- Intentional production or feigning of physical or psychological signs or symptoms.
- The motivation for the behavior is to assume the sick role.
- External incentives for the behavior are absent.
Source:Reference 6. Reprinted with permission
- cluster A (odd ideas, solitary lifestyle)
- cluster B (self-harm, narcissistic tendencies)
- and cluster C (avoiding his relatives, dependence on others to meet his needs).
Mr. B’s intentional production of physical symptoms strongly suggested malingering, but we instead diagnosed factitious disorder because he was clearly motivated to play the sick role despite lack of a secondary gain (Box 2). The patient admitted causing the gunshot wound and clearly connected his subsequent emotional relief with both his positive childhood experience in the hospital and his satisfaction after donating a kidney.
Researchers have tried to distinguish between factitious disorder and other types of self-harm. Claes and Vandereycken4 would consider Mr. B’s behavior “self-mutilation” rather than factitious. Turner calls DSM-IV-TR criteria for factitious disorder nebulous and says that lying about symptoms or their origin should be a necessary criterion.5 If so, then Mr. B’s condition might fit no DSM diagnosis.6
The authors’ observations
Although Mr. B’s diagnosis remained elusive, he needed a treatment plan before discharge to prevent another shooting and save his life.
Although we did not diagnose a major depressive or anxiety-spectrum disorder, we felt an SSRI such as citalopram could help. According to some investigators, SSRIs might benefit patients with over-valued ideas that are not as persistent as delusions.7,8
Additionally, we felt supportive therapy could help Mr. B establish a therapeutic relationship with a provider to whom he could turn during future crises. Should Mr. B contemplate self-harm, the therapist could suggest medications, hospitalization, or other interventions. We also recommended pastoral counseling to increase his support within his faith.
OUTCOME Another shot?
Before discharge, we start citalopram, 10 mg/d, and schedule a follow-up appointment within 2 weeks. We also suggest that Mr. B:
- move into an apartment near his outpatient doctors
- get involved with the local Catholic community to build his support network.
Mr. B calls his recent hospitalization upsetting because “I did not get the attention I wanted.” He endorses no immediate plan to shoot himself but voices concern that when his physical problems resolve, he might shoot Himself in the liver—as he had done 40 years ago—to bring himself full circle. “There’s still something attractive about this,” he says.
The authors’ observations
Patients with factitious illness commonly refuse mental health treatment.9
We feel Mr. B needs frequent ongoing appointments in a medical clinic where doctors can provide sufficient attention to counter his persistent self-harm urges. Regular appointments with a primary care physician—regardless of whether Mr. B is medically ill—could help him feel supported.
Related resources
- Feldman MD, Eisendrath SJ, eds. The spectrum of factitious disorders. Washington, DC: American Psychiatric Press; 1996.
- Sutton J, Martinson D. Self-injury Web site: What self-injury is.www.palace.net/~llama/psych/fwhat.html.
- Citalopram • Celexa
- Omeprazole • Prilosec
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
CASE: A ‘purification’
Mr. B, age 61, is in the ICU after shooting himself in the abdomen. The trauma team asks our psychiatry consultation/liaison service to determine if he needs special observation to prevent further self-harm.
Two days ago, Mr. B stood in the parking lot of a nearby hospital, aimed his rifle toward the left upper part of his abdomen, and fired. Bleeding profusely, he dragged himself to the hospital’s emergency room. ER staff stabilized him hemodynamically, then transferred him to our hospital’s regional trauma center, where surgeons performed an emergency laparotomy and found 2 sigmoid colon perforations, with feces floating outside the bowel.
After a partial colectomy and colostomy, Mr. B received broad-spectrum antibiotics, narcotic pain medication, and bowel rest in the ICU. When the trauma team called us, the patient’s condition was stable and he had awakened enough to communicate, although he still needed frequent monitoring.
We visit Mr. B in the ICU and ask him why he shot himself. He denies he was attempting suicide but adds that for months he has been feeling depressed, stressed, and guilty about “all the bad things I’ve done in my life.” Shooting himself helped him forget these negative thoughts.
A devout Roman Catholic, Mr. B has been researching flagellation and other forms of physical penance and considers the shooting a purification. He says he shot himself in the abdomen 2 previous times and felt better for months or years after each shooting.
Four years ago, Mr. B donated his left kidney to an unknown recipient. He does not equate the kidney donation with the shootings but says he felt happy while recuperating. He was later disappointed, however, because the procedure did not help him attract the “attention” he had hoped for.
Mr. B says he had been considering the latest shooting for at least 8 months and had carefully planned it. After studying anatomy textbooks, he figured he could fire into the left upper portion of his abdomen without striking a vital organ.
For several evenings, Mr. B aimed his rifle toward his abdomen but could not bring himself to pull the trigger. On the night of the shooting, he said, he “accidentally” fired at a more damaging angle than he had planned.
Cognitive examination results are mostly normal, although Mr. B has trouble interpreting similarities and proverbs. He appears pale but well-nourished, well-groomed, and serene. He speaks softly, often closing his eyes or staring into the distance. He says he feels “relieved” and “happy” after the shooting but did not anticipate such a severe injury. He denies suicidal thoughts and—because of his current euphoric mood—he hopes he never “needs” to shoot himself again.
The authors’ observations
We first considered delusional disorder and major depressive disorder with psychotic features. Mr. B’s belief that shooting himself would solve his problems seemed delusional, although he did not appear psychotic otherwise. Confusingly, Mr. B’s pre-admission symptoms seemed to suggest major depressive disorder, but he was happy in the ICU.
We explored other diagnoses, such as an odd form of OCD and a personality disorder (especially cluster A, given his strange beliefs), though at this point we had too little information for either diagnosis.
The authors’ observations
Mr. B was recovering from major abdominal surgery, was taking nothing orally, and claimed to feel fine psychologically. Because he was not grossly psychotic and did not endorse anxiety or depression, we decided against medication but recommended a chaplain consult and planned to visit Mr. B daily to gather more history.
We considered Mr. B a low suicide risk—especially while hospitalized—after he said his “need” to shoot himself had dissipated. He also endorsed no suicidal thoughts or other depressive symptoms, and the nursing staff viewed him as pleasant and compliant. We noted this evidence in the chart and continued to reassess him daily.
HISTORY: Dreams, nightmares
Over the next week, Mr. B shares his life story. He says his parents divorced when he was age 5, and around that time he spent approximately 2 weeks in the hospital after being hit by a truck. He considers those 2 weeks a bright spot in an otherwise turbulent childhood because his parents did not fight and he was showered with gifts and attention.
Soon after, Mr. B lived with his mother. When he was 9, he heard his divorced parents arguing during a family gathering and prayed for his own death.
Throughout his childhood, Mr. B dreamed of becoming a priest and a war hero. In his early teens, he attended a church youth program where he and other youths were taught that masturbation is a mortal sin. Through high school, Mr. B’s inability to stop masturbating shook his faith and discouraged him from pursuing the priesthood.
In high school, Mr. B did not use alcohol or drugs and excelled academically but had few friends. After graduating, he enlisted in the U.S. Army and hoped to serve in Vietnam, but basic training became too stressful. The relentless harangues from drill instructors reminded him of his parents’ frequent shouting matches during his childhood.
Approximately 2 weeks into basic training, Mr. B shot himself in the abdomen and injured his liver. He underwent laparotomy and cholecystectomy and was discharged from the military. His anxiety dissipated as he recovered, though he later regretted not serving in Vietnam.
Mr. B married at age 44 and was divorced 13 years later. Throughout the marriage, he says, he verbally abused his wife and was emotionally unsupportive. After the divorce, he felt remorse over having mistreated her. His guilt disappeared after he donated his left kidney to an unknown recipient, but the guilt soon returned and drove him to shoot himself a second time in 2005.
Mr. B worked as a special education teacher for 20 years before retiring 4 years ago and has since been pursuing a similar position because he misses going to work. His inability to find a permanent job has led to anxiety, insomnia, increased guilt, and decreased appetite. He says these feelings fueled his desire to shoot himself a third time.
Since his divorce, Mr. B has lived alone and has no family or friends nearby. He feels isolated and is hurt that his family has not acknowledged the cards and notes he sent to them but adds that he did not include his return address on the mailings.
FOLLOW-UP: No relief
Eleven days after admission, Mr. B says shooting himself has not relieved his negative feelings, and his impending discharge makes him feel anxious with some suicidal thoughts. The surgical team delays discharge after Mr. B develops ileus with nausea and vomiting. The trauma team’s attending physician prescribes an antiemetic, and ileus resolves after 4 days. Mr. B then is discharged in stable condition after he denies intention to harm himself.
- Nonbizarre delusions (involving situations that occur in real life) lasting ≥1 month.
- Criterion A for schizophrenia has never been met. (Note: Tactile and olfactory hallucinations may be present in delusional disorder if they are related to the delusional disorder.)
- Apart from the impact or ramifications of the delusion(s), functioning is not markedly impaired and behavior is not obviously odd or bizarre.
- If mood episodes have occurred concurrently with delusions, their total duration has been brief relative to the duration of the delusional periods.
- The disturbance is not due to the direct physiologic effects of a substance or a general medical condition.
Source:Reference 6. Reprinted with permission
The authors’ observations
Some of Mr. B’s symptoms suggested OCD, including thought-related anxiety that is relieved after performing an action—in his case shooting himself. Whereas obsessions and/or compulsions occur daily in OCD, Mr. B would perform the action and then feel fine for months to years before his anxiety resurfaced. Also, he did not consider his thoughts wrong or obtrusive.
- Intentional production or feigning of physical or psychological signs or symptoms.
- The motivation for the behavior is to assume the sick role.
- External incentives for the behavior are absent.
Source:Reference 6. Reprinted with permission
- cluster A (odd ideas, solitary lifestyle)
- cluster B (self-harm, narcissistic tendencies)
- and cluster C (avoiding his relatives, dependence on others to meet his needs).
Mr. B’s intentional production of physical symptoms strongly suggested malingering, but we instead diagnosed factitious disorder because he was clearly motivated to play the sick role despite lack of a secondary gain (Box 2). The patient admitted causing the gunshot wound and clearly connected his subsequent emotional relief with both his positive childhood experience in the hospital and his satisfaction after donating a kidney.
Researchers have tried to distinguish between factitious disorder and other types of self-harm. Claes and Vandereycken4 would consider Mr. B’s behavior “self-mutilation” rather than factitious. Turner calls DSM-IV-TR criteria for factitious disorder nebulous and says that lying about symptoms or their origin should be a necessary criterion.5 If so, then Mr. B’s condition might fit no DSM diagnosis.6
The authors’ observations
Although Mr. B’s diagnosis remained elusive, he needed a treatment plan before discharge to prevent another shooting and save his life.
Although we did not diagnose a major depressive or anxiety-spectrum disorder, we felt an SSRI such as citalopram could help. According to some investigators, SSRIs might benefit patients with over-valued ideas that are not as persistent as delusions.7,8
Additionally, we felt supportive therapy could help Mr. B establish a therapeutic relationship with a provider to whom he could turn during future crises. Should Mr. B contemplate self-harm, the therapist could suggest medications, hospitalization, or other interventions. We also recommended pastoral counseling to increase his support within his faith.
OUTCOME Another shot?
Before discharge, we start citalopram, 10 mg/d, and schedule a follow-up appointment within 2 weeks. We also suggest that Mr. B:
- move into an apartment near his outpatient doctors
- get involved with the local Catholic community to build his support network.
Mr. B calls his recent hospitalization upsetting because “I did not get the attention I wanted.” He endorses no immediate plan to shoot himself but voices concern that when his physical problems resolve, he might shoot Himself in the liver—as he had done 40 years ago—to bring himself full circle. “There’s still something attractive about this,” he says.
The authors’ observations
Patients with factitious illness commonly refuse mental health treatment.9
We feel Mr. B needs frequent ongoing appointments in a medical clinic where doctors can provide sufficient attention to counter his persistent self-harm urges. Regular appointments with a primary care physician—regardless of whether Mr. B is medically ill—could help him feel supported.
Related resources
- Feldman MD, Eisendrath SJ, eds. The spectrum of factitious disorders. Washington, DC: American Psychiatric Press; 1996.
- Sutton J, Martinson D. Self-injury Web site: What self-injury is.www.palace.net/~llama/psych/fwhat.html.
- Citalopram • Celexa
- Omeprazole • Prilosec
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. The mysteries of Opus Dei. US News and World Report; December 14, 2003 (health section). Available at: http://www.usnews.com/usnews/culture/articles/031222/22jesus.b.htm. Accessed December 10, 2007.
2. Toke LA. transcribed by Potter DJ Flagellants. In: Catholic encyclopedia, vol. 6. New York: Robert Appleton Co.; 1909. Available at: http://www.newadvent.org/cathen/06089c.htm. Accessed December 10, 2007.
3. Glucklich A. Sacred pain: hurting the body for the sake of the soul. New York: Oxford University Press; 2001.
4. Claes L, Vandereycken W. Self-injurious behavior: differential diagnosis and functional differentiation. Compr Psychiatry 2007;48:137-44.
5. Turner MA. Factitious disorders: reformulating the DSM-IV criteria. Psychosomatics 2006;47:23-32.
6. Diagnostic and statistical manual of mental disorders. 4th ed. text rev. Washington, DC: American Psychiatric Association; 2000.
7. Veale D. Over-valued ideas: a conceptual analysis. Behav Res Ther 2002;40:383-400.
8. Jones E, Watson JP. Delusion, the overvalued idea and religious beliefs: a comparative analysis of their characteristics. Br J Psychiatry 1997;170:381-6.
9. Sutherland AJ, Rodin GM. Factitious disorders in a general hospital setting: clinical features and a review of the literature. Psychosomatics 1990;31:392-9.
1. The mysteries of Opus Dei. US News and World Report; December 14, 2003 (health section). Available at: http://www.usnews.com/usnews/culture/articles/031222/22jesus.b.htm. Accessed December 10, 2007.
2. Toke LA. transcribed by Potter DJ Flagellants. In: Catholic encyclopedia, vol. 6. New York: Robert Appleton Co.; 1909. Available at: http://www.newadvent.org/cathen/06089c.htm. Accessed December 10, 2007.
3. Glucklich A. Sacred pain: hurting the body for the sake of the soul. New York: Oxford University Press; 2001.
4. Claes L, Vandereycken W. Self-injurious behavior: differential diagnosis and functional differentiation. Compr Psychiatry 2007;48:137-44.
5. Turner MA. Factitious disorders: reformulating the DSM-IV criteria. Psychosomatics 2006;47:23-32.
6. Diagnostic and statistical manual of mental disorders. 4th ed. text rev. Washington, DC: American Psychiatric Association; 2000.
7. Veale D. Over-valued ideas: a conceptual analysis. Behav Res Ther 2002;40:383-400.
8. Jones E, Watson JP. Delusion, the overvalued idea and religious beliefs: a comparative analysis of their characteristics. Br J Psychiatry 1997;170:381-6.
9. Sutherland AJ, Rodin GM. Factitious disorders in a general hospital setting: clinical features and a review of the literature. Psychosomatics 1990;31:392-9.
A young man’s ‘trips’ to heaven and hell
CASE: The man from Betelgeuse
Mr. F, age 33, has been hospitalized repeatedly for psychotic episodes after abuse of dextromethorphan in cold medications.
Approximately 1 week before presenting to us, Mr. F stormed out of his house after his father, with whom he lived, confronted him about spending his allowance on cold medications. He spent the week living on the streets, abusing dextromethorphan whenever he could get it.
One night, Mr. F approached a police officer at an accident scene and exclaimed, “Dude, I’m from the planet Betelgeuse.” He appeared disorganized as police questioned him, and officers transported him to the county hospital’s psychiatric emergency service.
At presentation, Mr. F is at times silly, irritable, and sleepy, and chants incantations during the intake interview. Alternately, he hears Jesus Christ and aliens from Betelgeuse telling him “everything is going to be cool” and voices of aliens threatening to abduct him.
We admit Mr. F to the inpatient psychiatric unit, start risperidone at 2 mg nightly, and titrate it to 6 mg nightly over 3 days, after which he is significantly more organized with reduced auditory hallucinations. At discharge 6 days later, he still occasionally hears Jesus but has partial insight into his obsession with aliens and no paranoid delusions. We continue risperidone, 6 mg nightly, and refer him to an outpatient mental health program. He visits the clinic once but avoids the attending psychiatrist.
Five days later, Mr. F begins hallucinating at home and his father brings him back to the emergency psychiatry unit. At presentation, the patient claims to be an agent of Satan and waves his arms wildly while performing “black magic.” He believes he is damned and that previous messages he thought came from Jesus and extraterrestrials were instead from the devil.
Mr. F’s father reports that over the weekend his son ingested 6 boxes of cold medicine—each with 16 tablets containing 30 mg of dextromethorphan. Peeling skin on the lower part of Mr. F’s forehead, the bridge of his nose, and under his eyes suggests chronic cold tablet abuse. We re-admit the patient after extended urine drug screen shows traces of chlorpheniramine.
The authors’ observations
Routine urine drug screens based on radio-immunoassay detect many substances, but an extended or comprehensive urine drug screen based on gas chromatography-mass spectrometry is needed to detect dextromethorphan.1 Tertiary hospitals and reference laboratories usually offer these tests.
An extended urine screen will not detect dextromethorphan 24 hours after use because the agent has a 3- to 11-hour half-life. The test can, however, detect other active cold preparation compounds with longer half-lives, such as chlorpheniramine.
If extended urine screening is not available, clinical findings discussed later in this article can confirm recent cold medication abuse. Blood testing can reveal dextromethorphan levels, but a 3- to 6-mL sample may be needed.
HISTORY: ‘Sick’ at 16
Mr. F began abusing dextromethorphan at age 16, when friends would “turn him on” to 8-ounce bottles of cough syrup every other week. He later tried marijuana, cocaine, phencyclidine, methamphetamine, morphine, and LSD. Soon after graduating from high school, he stopped using substances and remained clean for several years.
Mr. F worked as a restaurant manager for about 4 months but found the job stressful and constantly argued with staff. He resumed abusing cough syrup to relieve his stress but soon became hooked on its dissociative and hallucinogenic effects. One night he ingested enough cough syrup to remain “high” until the next morning. He was hallucinating when he reported to work that day and was fired.
Since then, Mr. F’s cold medication abuse has escalated from biweekly to almost daily at presentation. He switched to tablets because the syrup induced cold symptoms and he finds the “buzz” from the tablets easier to control.
He typically dresses in black (in keeping with his satanic obsessions) and wears a long black overcoat with several pockets, that allows him to carry boxes of cold capsules, books, and other items.
Mr. F’s father has repeatedly tried to stop his son’s cold tablet abuse by cutting off his allowance. Dextromethorphan-containing cold medications are inexpensive, however—a box of 16 30-mg tablets costs as little as $1.50. Also, Mr. F often would get money for cold capsules by going to malls and participating in market research surveys.
In the past year, Mr. F was hospitalized 6 times after dextromethorphan-induced psychotic decompensations. He has been unemployed for more than 5 years, has not been in a serious romantic relationship since college, and depends on his father for financial support. He is not abusing other substances.
The authors’ observations
As many as 80% of patients with schizophrenia also have a substance abuse disorder.2 Access to psychoactive substances, kindling associated with schizophrenia, and attempts to stop hallucinations with alcohol or illicit drugs may explain this high prevalence.2 Also, genetic or phenotypic vulnerability in schizophrenia might alter the mesolimbic dopamine system that moderates reward.
Compared with patients with schizophrenia who are substance-free, comorbid substance abuse in schizophrenia increases:
- severity of psychotic symptoms
- likelihood of emergency service use
- risk of suicide, illness, injury, hospitalization, or incarceration.3
How does dextromethorphan cause hallucinations and/or psychosis, and at what doses can these effects occur?
Dextromethorphan, a synthetic dextroisomer of codeine, exerts antitussigenic effects via the sigma opioid receptor but lacks other opioid activity.
In patients age ≥12, dextromethorphan in cold medications is well tolerated at 60 to 120 mg/d in divided doses, with mostly benign adverse reactions such as drowsiness, dizziness, upset stomach, nervousness, and restlessness.7
Hallucinogenic effects surface at 160 to ≥300 mg and psychosis often occurs at >600 mg.8 Nonsuicidal use of 3,600 mg has been described.9
Hallucinogenic effects are caused by dextrorphan, a metabolite of dextromethorphan resulting from degradation by the cytochrome P-450 2D6 isoenzyme. Dextrorphan is serotonergic and blocks N-methyl-D-aspartate glutamate receptors.10
Patients who are extensive metabolizers of CYP-450 2D6 substrates show higher blood dextrorphan and increased potential to abuse dextromethorphan for its dissociative and hallucinogenic effects.10,11
Mr. F responded well to risperidone when he wasn’t abusing cold tablets. After his last hospitalization, we referred him to a comprehensive outpatient program that could have addressed his cold medicine abuse and reintegrated him into the workplace. He avoided seeing the clinic psychiatrist, however, after promising his case manager that he would stop abusing dextromethorphan.
TREATMENT: Back to Betelgeuse
Upon re-admission, we restart risperidone, 6 mg nightly. Mr. F shows extreme somnolence caused by massive cold capsule use and is minimally cooperative with the psychiatrist’s follow-up interview. Over 36 hours, he awakens only for meals and medication and to use the bathroom. Once the somnolence passes, he cannot fall asleep at night.
Six days after admission, Mr. F is organized and hears voices mostly from Jesus with some demonic delusions. Extended urine drug screen taken 3 days after admission shows traces of chlorpheniramine but no dextromethorphan.
By day 7, Mr. F is nearly free of delusions and is discharged the next day. We continue risperidone, 6 mg nightly, to prevent the “voices,” and add diphenhydramine, 50 mg nightly, to regulate his sleep. We arrange follow-up care at an outpatient clinic, but Mr. F again avoids the clinic psychiatrist.
The authors’ observations
Mr. F’s “robo” binge triggered a profound and prolonged psychotic decompensation.
Dextrorphan—a pharmacologically active metabolite of dextromethorphan— might have disrupted cortical and sub-cortical glutamatergic neurotransmission,6 leading to florid psychosis and delayed recovery. Induction of the cytochrome P-450 2D6 isoenzyme, which metabolizes dextromethorphan, also could have prolonged Mr. F’s psychosis (Box 1).7-11
RELAPSE: Return visits
Three weeks after discharge, Mr. F fights with police officers after they find him hallucinating in the streets. Police charge him with disorderly conduct and resisting arrest and bring him back to the psychiatric ER. We again resolve his auditory hallucinations with risperidone, 6 mg nightly. After 8 days we discharge him to police, who then transport him to jail and later release him on bail.
Six months later, Mr. F is hospitalized twice in 2 months after dextromethorphan-induced decompensations. He recovers quickly both times but lacks insight into his mental illness and his “robo” problem.
The authors’ observations
Dextromethorphan, known by many street names (Box 2), is contained in more than 100 OTC preparations, and is sold on the Internet in powder form.
13 Numerous factors explain this increase:
- Most people do not know that dextromethorphan-laced medications are dangerous if misused.
- These preparations can be purchased at many stores or snatched from the medicine chest.
- Several Web sites describe how to “safely” abuse dextromethorphan.13
medical consequences
Many dextromethorphan-laced preparations contain other active compounds—such as pseudoephedrine, acetaminophen, chlorpheniramine, guaifenesin, or bromide—that can cause serious adverse effects at above-normal doses. Abuse of medications containing both chlorpheniramine and dextromethorphan leads to hallucinogenic euphoria and dissociation, followed by hours of intense somnolence.
Dextromethorphan can cause serotonin syndrome when taken with serotonergic drugs such as amphetamines, cocaine, monoamine oxidase inhibitors, or selective serotonin reuptake inhibitors. Symptoms include tachycardia, hypertension, diaphoresis, mydriasis, myoclonus, agitation, and seizures.
Street names
CCC, triple C, DM, DXM, skittles, tuss, robo, poor man’s PCP
Dosing forms
Liquid, capsules, liquid gelatin capsules, lozenge tablets, powder
Most commonly abused OTC preparations
Coricidin, Robitussin
The authors’ observations
Physical and psychiatric symptoms, patient history, and collateral information together can confirm dextromethorphan abuse in patients who present with mainly visual and tactile hallucinations. The signs are easy to miss in patients with schizophrenia because schizophrenia is believed to be causing the psychosis.
Psychiatric/physical symptoms. Psychiatric symptoms of “robo” intoxication include euphoria, altered time perception, disorientation, and tactile, visual and auditory hallucinations.7 Physical symptoms include excitation, nystagmus, tachycardia, hypertension, hyperthermia, vomiting, urinary retention, drowsiness, and rash. Extreme dextromethorphan withdrawal can cause dysphoria, insomnia, vomiting, diaphoresis, abdominal pain, and diarrhea.7
Also watch for dermatitis on the forehead, nose, or cheeks, which can result from chronic abuse of preparations containing dextromethorphan plus bromide or chlorpheniramine.
Patient history. Has the patient abused dextromethorphan before? If so, how often? When was he last treated for decompensation after cold medication abuse?
Also check for abuse of other substances, and ask teenage patients if their friends use cold preparations recreationally.
Collateral information. Ask family members to search the patient’s room for supplies of cold medicine and for empty boxes and capsule cards, check the medicine chest regularly to see if cold medications are missing, and check the patient’s jacket or coat pockets for cold tablets or cough syrup.
Treating ‘robo’ abuse
Convincing the patient and family that dextromethorphan abuse can cause severe harm is critical to promoting a positive outcome. Referral to a substance abuse rehabilitation program or 12-step group can help.
Related resources
- U.S. Department of Justice, National Drug Intelligence Center. Intelligence bulletin: DXM (dextromethorphan). www.usdoj.gov/ndic/pubs11/11563/index.htm.
- Partnership for a Drug-Free America. Resource for parents. www.drugfree.org/Parent. Click on “Cough Medicine Abuse” under “Special Drug Reports.”
- U.S. Food and Drug Administraton. FDA warns against abuse of dextromethorphan (DXM). www.fda.gov, enter “dextromethorphan” in search field.
- Risperidone • Risperdal
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Cherkes JK, Friedman JH. Dextromethorphan-induced neurologic illness in a patient with negative toxicology findings. Neurology 2006;66:1952-3.
2. Westermeyer J. Comorbid schizophrenia and substance abuse: a review of epidemiology and course. Am J Addict 2006;15:345-55.
3. Winklbaur B, Ebner N, Sachs G, et al. Substance abuse in patients with schizophrenia. Dialogues Clin Neurosci 2006;8:37-43.
4. Orrell MW, Campbell PG. Dependence on dextromethorphan hydrobromyde. Br Med J 1986;293:1242-3.
5. Iaboni RP, Aronowitz JS. Dextromethorphan abuse in a dually diagnosed patient. J Nerv Ment Dis 1995;183:341-2.
6. Krystal JH, D’Souza DC, Mathalon D, et al. NMDA receptor antagonist effects, cortical glutamatergic function, and schizophrenia: toward a paradigm shift in medication development. Psychopharmacology (Berl). 2003;169:215-33.
7. Wolfe TR, Caravati EM. Massive dextromethorphan ingestion and abuse. Am J Emerg Med 1995;13:174-6.
8. Cranston JW, Yoast R. Abuse of dextromethorphan. Arch Fam Med 1999;8:99-100.
9. Schadel M, Sellers EM. Psychosis with Vicks Formula 44-D abuse. CMAJ 1992;147:843-4.
10. Miller SC. Dextromethorphan psychosis, dependence and physical withdrawal. Addict Biol 2005;10:325-7.
11. Zawertailo LA, Kaplan HL, Busto UE, et al. Psychotropic effects of dextromethorphan are altered by the CYP2D6 polymorphism: a pilot study. J Clin Psychopharmacol 1998;18:332-7.
12. Ball JK, Albright V. Emergency department visits involving dextromethorphan. Drug Abuse Warning Network Report 2006;32:1-4.
13. Bryner JK, Wang UK, Hui JW, et al. Dextromethorphan abuse in adolescence: an increasing trend: 1999-2004. Arch Pediatr Adolesc Med 2006;160:1217-22.
14. Tuominen HJ, Tiihonen J, Wahlbeck K. Glutamatergic drugs for schizophrenia: a systematic review and meta-analysis. Schizophr Res 2005;72:225-34.
15. Andersen JD, Pouzet B. Spatial memory deficits induced by perinatal treatment of rats with PCP and reversal effect of Dserine. Neuropsychopharmacology 2004;29:1080-90.
CASE: The man from Betelgeuse
Mr. F, age 33, has been hospitalized repeatedly for psychotic episodes after abuse of dextromethorphan in cold medications.
Approximately 1 week before presenting to us, Mr. F stormed out of his house after his father, with whom he lived, confronted him about spending his allowance on cold medications. He spent the week living on the streets, abusing dextromethorphan whenever he could get it.
One night, Mr. F approached a police officer at an accident scene and exclaimed, “Dude, I’m from the planet Betelgeuse.” He appeared disorganized as police questioned him, and officers transported him to the county hospital’s psychiatric emergency service.
At presentation, Mr. F is at times silly, irritable, and sleepy, and chants incantations during the intake interview. Alternately, he hears Jesus Christ and aliens from Betelgeuse telling him “everything is going to be cool” and voices of aliens threatening to abduct him.
We admit Mr. F to the inpatient psychiatric unit, start risperidone at 2 mg nightly, and titrate it to 6 mg nightly over 3 days, after which he is significantly more organized with reduced auditory hallucinations. At discharge 6 days later, he still occasionally hears Jesus but has partial insight into his obsession with aliens and no paranoid delusions. We continue risperidone, 6 mg nightly, and refer him to an outpatient mental health program. He visits the clinic once but avoids the attending psychiatrist.
Five days later, Mr. F begins hallucinating at home and his father brings him back to the emergency psychiatry unit. At presentation, the patient claims to be an agent of Satan and waves his arms wildly while performing “black magic.” He believes he is damned and that previous messages he thought came from Jesus and extraterrestrials were instead from the devil.
Mr. F’s father reports that over the weekend his son ingested 6 boxes of cold medicine—each with 16 tablets containing 30 mg of dextromethorphan. Peeling skin on the lower part of Mr. F’s forehead, the bridge of his nose, and under his eyes suggests chronic cold tablet abuse. We re-admit the patient after extended urine drug screen shows traces of chlorpheniramine.
The authors’ observations
Routine urine drug screens based on radio-immunoassay detect many substances, but an extended or comprehensive urine drug screen based on gas chromatography-mass spectrometry is needed to detect dextromethorphan.1 Tertiary hospitals and reference laboratories usually offer these tests.
An extended urine screen will not detect dextromethorphan 24 hours after use because the agent has a 3- to 11-hour half-life. The test can, however, detect other active cold preparation compounds with longer half-lives, such as chlorpheniramine.
If extended urine screening is not available, clinical findings discussed later in this article can confirm recent cold medication abuse. Blood testing can reveal dextromethorphan levels, but a 3- to 6-mL sample may be needed.
HISTORY: ‘Sick’ at 16
Mr. F began abusing dextromethorphan at age 16, when friends would “turn him on” to 8-ounce bottles of cough syrup every other week. He later tried marijuana, cocaine, phencyclidine, methamphetamine, morphine, and LSD. Soon after graduating from high school, he stopped using substances and remained clean for several years.
Mr. F worked as a restaurant manager for about 4 months but found the job stressful and constantly argued with staff. He resumed abusing cough syrup to relieve his stress but soon became hooked on its dissociative and hallucinogenic effects. One night he ingested enough cough syrup to remain “high” until the next morning. He was hallucinating when he reported to work that day and was fired.
Since then, Mr. F’s cold medication abuse has escalated from biweekly to almost daily at presentation. He switched to tablets because the syrup induced cold symptoms and he finds the “buzz” from the tablets easier to control.
He typically dresses in black (in keeping with his satanic obsessions) and wears a long black overcoat with several pockets, that allows him to carry boxes of cold capsules, books, and other items.
Mr. F’s father has repeatedly tried to stop his son’s cold tablet abuse by cutting off his allowance. Dextromethorphan-containing cold medications are inexpensive, however—a box of 16 30-mg tablets costs as little as $1.50. Also, Mr. F often would get money for cold capsules by going to malls and participating in market research surveys.
In the past year, Mr. F was hospitalized 6 times after dextromethorphan-induced psychotic decompensations. He has been unemployed for more than 5 years, has not been in a serious romantic relationship since college, and depends on his father for financial support. He is not abusing other substances.
The authors’ observations
As many as 80% of patients with schizophrenia also have a substance abuse disorder.2 Access to psychoactive substances, kindling associated with schizophrenia, and attempts to stop hallucinations with alcohol or illicit drugs may explain this high prevalence.2 Also, genetic or phenotypic vulnerability in schizophrenia might alter the mesolimbic dopamine system that moderates reward.
Compared with patients with schizophrenia who are substance-free, comorbid substance abuse in schizophrenia increases:
- severity of psychotic symptoms
- likelihood of emergency service use
- risk of suicide, illness, injury, hospitalization, or incarceration.3
How does dextromethorphan cause hallucinations and/or psychosis, and at what doses can these effects occur?
Dextromethorphan, a synthetic dextroisomer of codeine, exerts antitussigenic effects via the sigma opioid receptor but lacks other opioid activity.
In patients age ≥12, dextromethorphan in cold medications is well tolerated at 60 to 120 mg/d in divided doses, with mostly benign adverse reactions such as drowsiness, dizziness, upset stomach, nervousness, and restlessness.7
Hallucinogenic effects surface at 160 to ≥300 mg and psychosis often occurs at >600 mg.8 Nonsuicidal use of 3,600 mg has been described.9
Hallucinogenic effects are caused by dextrorphan, a metabolite of dextromethorphan resulting from degradation by the cytochrome P-450 2D6 isoenzyme. Dextrorphan is serotonergic and blocks N-methyl-D-aspartate glutamate receptors.10
Patients who are extensive metabolizers of CYP-450 2D6 substrates show higher blood dextrorphan and increased potential to abuse dextromethorphan for its dissociative and hallucinogenic effects.10,11
Mr. F responded well to risperidone when he wasn’t abusing cold tablets. After his last hospitalization, we referred him to a comprehensive outpatient program that could have addressed his cold medicine abuse and reintegrated him into the workplace. He avoided seeing the clinic psychiatrist, however, after promising his case manager that he would stop abusing dextromethorphan.
TREATMENT: Back to Betelgeuse
Upon re-admission, we restart risperidone, 6 mg nightly. Mr. F shows extreme somnolence caused by massive cold capsule use and is minimally cooperative with the psychiatrist’s follow-up interview. Over 36 hours, he awakens only for meals and medication and to use the bathroom. Once the somnolence passes, he cannot fall asleep at night.
Six days after admission, Mr. F is organized and hears voices mostly from Jesus with some demonic delusions. Extended urine drug screen taken 3 days after admission shows traces of chlorpheniramine but no dextromethorphan.
By day 7, Mr. F is nearly free of delusions and is discharged the next day. We continue risperidone, 6 mg nightly, to prevent the “voices,” and add diphenhydramine, 50 mg nightly, to regulate his sleep. We arrange follow-up care at an outpatient clinic, but Mr. F again avoids the clinic psychiatrist.
The authors’ observations
Mr. F’s “robo” binge triggered a profound and prolonged psychotic decompensation.
Dextrorphan—a pharmacologically active metabolite of dextromethorphan— might have disrupted cortical and sub-cortical glutamatergic neurotransmission,6 leading to florid psychosis and delayed recovery. Induction of the cytochrome P-450 2D6 isoenzyme, which metabolizes dextromethorphan, also could have prolonged Mr. F’s psychosis (Box 1).7-11
RELAPSE: Return visits
Three weeks after discharge, Mr. F fights with police officers after they find him hallucinating in the streets. Police charge him with disorderly conduct and resisting arrest and bring him back to the psychiatric ER. We again resolve his auditory hallucinations with risperidone, 6 mg nightly. After 8 days we discharge him to police, who then transport him to jail and later release him on bail.
Six months later, Mr. F is hospitalized twice in 2 months after dextromethorphan-induced decompensations. He recovers quickly both times but lacks insight into his mental illness and his “robo” problem.
The authors’ observations
Dextromethorphan, known by many street names (Box 2), is contained in more than 100 OTC preparations, and is sold on the Internet in powder form.
13 Numerous factors explain this increase:
- Most people do not know that dextromethorphan-laced medications are dangerous if misused.
- These preparations can be purchased at many stores or snatched from the medicine chest.
- Several Web sites describe how to “safely” abuse dextromethorphan.13
medical consequences
Many dextromethorphan-laced preparations contain other active compounds—such as pseudoephedrine, acetaminophen, chlorpheniramine, guaifenesin, or bromide—that can cause serious adverse effects at above-normal doses. Abuse of medications containing both chlorpheniramine and dextromethorphan leads to hallucinogenic euphoria and dissociation, followed by hours of intense somnolence.
Dextromethorphan can cause serotonin syndrome when taken with serotonergic drugs such as amphetamines, cocaine, monoamine oxidase inhibitors, or selective serotonin reuptake inhibitors. Symptoms include tachycardia, hypertension, diaphoresis, mydriasis, myoclonus, agitation, and seizures.
Street names
CCC, triple C, DM, DXM, skittles, tuss, robo, poor man’s PCP
Dosing forms
Liquid, capsules, liquid gelatin capsules, lozenge tablets, powder
Most commonly abused OTC preparations
Coricidin, Robitussin
The authors’ observations
Physical and psychiatric symptoms, patient history, and collateral information together can confirm dextromethorphan abuse in patients who present with mainly visual and tactile hallucinations. The signs are easy to miss in patients with schizophrenia because schizophrenia is believed to be causing the psychosis.
Psychiatric/physical symptoms. Psychiatric symptoms of “robo” intoxication include euphoria, altered time perception, disorientation, and tactile, visual and auditory hallucinations.7 Physical symptoms include excitation, nystagmus, tachycardia, hypertension, hyperthermia, vomiting, urinary retention, drowsiness, and rash. Extreme dextromethorphan withdrawal can cause dysphoria, insomnia, vomiting, diaphoresis, abdominal pain, and diarrhea.7
Also watch for dermatitis on the forehead, nose, or cheeks, which can result from chronic abuse of preparations containing dextromethorphan plus bromide or chlorpheniramine.
Patient history. Has the patient abused dextromethorphan before? If so, how often? When was he last treated for decompensation after cold medication abuse?
Also check for abuse of other substances, and ask teenage patients if their friends use cold preparations recreationally.
Collateral information. Ask family members to search the patient’s room for supplies of cold medicine and for empty boxes and capsule cards, check the medicine chest regularly to see if cold medications are missing, and check the patient’s jacket or coat pockets for cold tablets or cough syrup.
Treating ‘robo’ abuse
Convincing the patient and family that dextromethorphan abuse can cause severe harm is critical to promoting a positive outcome. Referral to a substance abuse rehabilitation program or 12-step group can help.
Related resources
- U.S. Department of Justice, National Drug Intelligence Center. Intelligence bulletin: DXM (dextromethorphan). www.usdoj.gov/ndic/pubs11/11563/index.htm.
- Partnership for a Drug-Free America. Resource for parents. www.drugfree.org/Parent. Click on “Cough Medicine Abuse” under “Special Drug Reports.”
- U.S. Food and Drug Administraton. FDA warns against abuse of dextromethorphan (DXM). www.fda.gov, enter “dextromethorphan” in search field.
- Risperidone • Risperdal
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
CASE: The man from Betelgeuse
Mr. F, age 33, has been hospitalized repeatedly for psychotic episodes after abuse of dextromethorphan in cold medications.
Approximately 1 week before presenting to us, Mr. F stormed out of his house after his father, with whom he lived, confronted him about spending his allowance on cold medications. He spent the week living on the streets, abusing dextromethorphan whenever he could get it.
One night, Mr. F approached a police officer at an accident scene and exclaimed, “Dude, I’m from the planet Betelgeuse.” He appeared disorganized as police questioned him, and officers transported him to the county hospital’s psychiatric emergency service.
At presentation, Mr. F is at times silly, irritable, and sleepy, and chants incantations during the intake interview. Alternately, he hears Jesus Christ and aliens from Betelgeuse telling him “everything is going to be cool” and voices of aliens threatening to abduct him.
We admit Mr. F to the inpatient psychiatric unit, start risperidone at 2 mg nightly, and titrate it to 6 mg nightly over 3 days, after which he is significantly more organized with reduced auditory hallucinations. At discharge 6 days later, he still occasionally hears Jesus but has partial insight into his obsession with aliens and no paranoid delusions. We continue risperidone, 6 mg nightly, and refer him to an outpatient mental health program. He visits the clinic once but avoids the attending psychiatrist.
Five days later, Mr. F begins hallucinating at home and his father brings him back to the emergency psychiatry unit. At presentation, the patient claims to be an agent of Satan and waves his arms wildly while performing “black magic.” He believes he is damned and that previous messages he thought came from Jesus and extraterrestrials were instead from the devil.
Mr. F’s father reports that over the weekend his son ingested 6 boxes of cold medicine—each with 16 tablets containing 30 mg of dextromethorphan. Peeling skin on the lower part of Mr. F’s forehead, the bridge of his nose, and under his eyes suggests chronic cold tablet abuse. We re-admit the patient after extended urine drug screen shows traces of chlorpheniramine.
The authors’ observations
Routine urine drug screens based on radio-immunoassay detect many substances, but an extended or comprehensive urine drug screen based on gas chromatography-mass spectrometry is needed to detect dextromethorphan.1 Tertiary hospitals and reference laboratories usually offer these tests.
An extended urine screen will not detect dextromethorphan 24 hours after use because the agent has a 3- to 11-hour half-life. The test can, however, detect other active cold preparation compounds with longer half-lives, such as chlorpheniramine.
If extended urine screening is not available, clinical findings discussed later in this article can confirm recent cold medication abuse. Blood testing can reveal dextromethorphan levels, but a 3- to 6-mL sample may be needed.
HISTORY: ‘Sick’ at 16
Mr. F began abusing dextromethorphan at age 16, when friends would “turn him on” to 8-ounce bottles of cough syrup every other week. He later tried marijuana, cocaine, phencyclidine, methamphetamine, morphine, and LSD. Soon after graduating from high school, he stopped using substances and remained clean for several years.
Mr. F worked as a restaurant manager for about 4 months but found the job stressful and constantly argued with staff. He resumed abusing cough syrup to relieve his stress but soon became hooked on its dissociative and hallucinogenic effects. One night he ingested enough cough syrup to remain “high” until the next morning. He was hallucinating when he reported to work that day and was fired.
Since then, Mr. F’s cold medication abuse has escalated from biweekly to almost daily at presentation. He switched to tablets because the syrup induced cold symptoms and he finds the “buzz” from the tablets easier to control.
He typically dresses in black (in keeping with his satanic obsessions) and wears a long black overcoat with several pockets, that allows him to carry boxes of cold capsules, books, and other items.
Mr. F’s father has repeatedly tried to stop his son’s cold tablet abuse by cutting off his allowance. Dextromethorphan-containing cold medications are inexpensive, however—a box of 16 30-mg tablets costs as little as $1.50. Also, Mr. F often would get money for cold capsules by going to malls and participating in market research surveys.
In the past year, Mr. F was hospitalized 6 times after dextromethorphan-induced psychotic decompensations. He has been unemployed for more than 5 years, has not been in a serious romantic relationship since college, and depends on his father for financial support. He is not abusing other substances.
The authors’ observations
As many as 80% of patients with schizophrenia also have a substance abuse disorder.2 Access to psychoactive substances, kindling associated with schizophrenia, and attempts to stop hallucinations with alcohol or illicit drugs may explain this high prevalence.2 Also, genetic or phenotypic vulnerability in schizophrenia might alter the mesolimbic dopamine system that moderates reward.
Compared with patients with schizophrenia who are substance-free, comorbid substance abuse in schizophrenia increases:
- severity of psychotic symptoms
- likelihood of emergency service use
- risk of suicide, illness, injury, hospitalization, or incarceration.3
How does dextromethorphan cause hallucinations and/or psychosis, and at what doses can these effects occur?
Dextromethorphan, a synthetic dextroisomer of codeine, exerts antitussigenic effects via the sigma opioid receptor but lacks other opioid activity.
In patients age ≥12, dextromethorphan in cold medications is well tolerated at 60 to 120 mg/d in divided doses, with mostly benign adverse reactions such as drowsiness, dizziness, upset stomach, nervousness, and restlessness.7
Hallucinogenic effects surface at 160 to ≥300 mg and psychosis often occurs at >600 mg.8 Nonsuicidal use of 3,600 mg has been described.9
Hallucinogenic effects are caused by dextrorphan, a metabolite of dextromethorphan resulting from degradation by the cytochrome P-450 2D6 isoenzyme. Dextrorphan is serotonergic and blocks N-methyl-D-aspartate glutamate receptors.10
Patients who are extensive metabolizers of CYP-450 2D6 substrates show higher blood dextrorphan and increased potential to abuse dextromethorphan for its dissociative and hallucinogenic effects.10,11
Mr. F responded well to risperidone when he wasn’t abusing cold tablets. After his last hospitalization, we referred him to a comprehensive outpatient program that could have addressed his cold medicine abuse and reintegrated him into the workplace. He avoided seeing the clinic psychiatrist, however, after promising his case manager that he would stop abusing dextromethorphan.
TREATMENT: Back to Betelgeuse
Upon re-admission, we restart risperidone, 6 mg nightly. Mr. F shows extreme somnolence caused by massive cold capsule use and is minimally cooperative with the psychiatrist’s follow-up interview. Over 36 hours, he awakens only for meals and medication and to use the bathroom. Once the somnolence passes, he cannot fall asleep at night.
Six days after admission, Mr. F is organized and hears voices mostly from Jesus with some demonic delusions. Extended urine drug screen taken 3 days after admission shows traces of chlorpheniramine but no dextromethorphan.
By day 7, Mr. F is nearly free of delusions and is discharged the next day. We continue risperidone, 6 mg nightly, to prevent the “voices,” and add diphenhydramine, 50 mg nightly, to regulate his sleep. We arrange follow-up care at an outpatient clinic, but Mr. F again avoids the clinic psychiatrist.
The authors’ observations
Mr. F’s “robo” binge triggered a profound and prolonged psychotic decompensation.
Dextrorphan—a pharmacologically active metabolite of dextromethorphan— might have disrupted cortical and sub-cortical glutamatergic neurotransmission,6 leading to florid psychosis and delayed recovery. Induction of the cytochrome P-450 2D6 isoenzyme, which metabolizes dextromethorphan, also could have prolonged Mr. F’s psychosis (Box 1).7-11
RELAPSE: Return visits
Three weeks after discharge, Mr. F fights with police officers after they find him hallucinating in the streets. Police charge him with disorderly conduct and resisting arrest and bring him back to the psychiatric ER. We again resolve his auditory hallucinations with risperidone, 6 mg nightly. After 8 days we discharge him to police, who then transport him to jail and later release him on bail.
Six months later, Mr. F is hospitalized twice in 2 months after dextromethorphan-induced decompensations. He recovers quickly both times but lacks insight into his mental illness and his “robo” problem.
The authors’ observations
Dextromethorphan, known by many street names (Box 2), is contained in more than 100 OTC preparations, and is sold on the Internet in powder form.
13 Numerous factors explain this increase:
- Most people do not know that dextromethorphan-laced medications are dangerous if misused.
- These preparations can be purchased at many stores or snatched from the medicine chest.
- Several Web sites describe how to “safely” abuse dextromethorphan.13
medical consequences
Many dextromethorphan-laced preparations contain other active compounds—such as pseudoephedrine, acetaminophen, chlorpheniramine, guaifenesin, or bromide—that can cause serious adverse effects at above-normal doses. Abuse of medications containing both chlorpheniramine and dextromethorphan leads to hallucinogenic euphoria and dissociation, followed by hours of intense somnolence.
Dextromethorphan can cause serotonin syndrome when taken with serotonergic drugs such as amphetamines, cocaine, monoamine oxidase inhibitors, or selective serotonin reuptake inhibitors. Symptoms include tachycardia, hypertension, diaphoresis, mydriasis, myoclonus, agitation, and seizures.
Street names
CCC, triple C, DM, DXM, skittles, tuss, robo, poor man’s PCP
Dosing forms
Liquid, capsules, liquid gelatin capsules, lozenge tablets, powder
Most commonly abused OTC preparations
Coricidin, Robitussin
The authors’ observations
Physical and psychiatric symptoms, patient history, and collateral information together can confirm dextromethorphan abuse in patients who present with mainly visual and tactile hallucinations. The signs are easy to miss in patients with schizophrenia because schizophrenia is believed to be causing the psychosis.
Psychiatric/physical symptoms. Psychiatric symptoms of “robo” intoxication include euphoria, altered time perception, disorientation, and tactile, visual and auditory hallucinations.7 Physical symptoms include excitation, nystagmus, tachycardia, hypertension, hyperthermia, vomiting, urinary retention, drowsiness, and rash. Extreme dextromethorphan withdrawal can cause dysphoria, insomnia, vomiting, diaphoresis, abdominal pain, and diarrhea.7
Also watch for dermatitis on the forehead, nose, or cheeks, which can result from chronic abuse of preparations containing dextromethorphan plus bromide or chlorpheniramine.
Patient history. Has the patient abused dextromethorphan before? If so, how often? When was he last treated for decompensation after cold medication abuse?
Also check for abuse of other substances, and ask teenage patients if their friends use cold preparations recreationally.
Collateral information. Ask family members to search the patient’s room for supplies of cold medicine and for empty boxes and capsule cards, check the medicine chest regularly to see if cold medications are missing, and check the patient’s jacket or coat pockets for cold tablets or cough syrup.
Treating ‘robo’ abuse
Convincing the patient and family that dextromethorphan abuse can cause severe harm is critical to promoting a positive outcome. Referral to a substance abuse rehabilitation program or 12-step group can help.
Related resources
- U.S. Department of Justice, National Drug Intelligence Center. Intelligence bulletin: DXM (dextromethorphan). www.usdoj.gov/ndic/pubs11/11563/index.htm.
- Partnership for a Drug-Free America. Resource for parents. www.drugfree.org/Parent. Click on “Cough Medicine Abuse” under “Special Drug Reports.”
- U.S. Food and Drug Administraton. FDA warns against abuse of dextromethorphan (DXM). www.fda.gov, enter “dextromethorphan” in search field.
- Risperidone • Risperdal
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Cherkes JK, Friedman JH. Dextromethorphan-induced neurologic illness in a patient with negative toxicology findings. Neurology 2006;66:1952-3.
2. Westermeyer J. Comorbid schizophrenia and substance abuse: a review of epidemiology and course. Am J Addict 2006;15:345-55.
3. Winklbaur B, Ebner N, Sachs G, et al. Substance abuse in patients with schizophrenia. Dialogues Clin Neurosci 2006;8:37-43.
4. Orrell MW, Campbell PG. Dependence on dextromethorphan hydrobromyde. Br Med J 1986;293:1242-3.
5. Iaboni RP, Aronowitz JS. Dextromethorphan abuse in a dually diagnosed patient. J Nerv Ment Dis 1995;183:341-2.
6. Krystal JH, D’Souza DC, Mathalon D, et al. NMDA receptor antagonist effects, cortical glutamatergic function, and schizophrenia: toward a paradigm shift in medication development. Psychopharmacology (Berl). 2003;169:215-33.
7. Wolfe TR, Caravati EM. Massive dextromethorphan ingestion and abuse. Am J Emerg Med 1995;13:174-6.
8. Cranston JW, Yoast R. Abuse of dextromethorphan. Arch Fam Med 1999;8:99-100.
9. Schadel M, Sellers EM. Psychosis with Vicks Formula 44-D abuse. CMAJ 1992;147:843-4.
10. Miller SC. Dextromethorphan psychosis, dependence and physical withdrawal. Addict Biol 2005;10:325-7.
11. Zawertailo LA, Kaplan HL, Busto UE, et al. Psychotropic effects of dextromethorphan are altered by the CYP2D6 polymorphism: a pilot study. J Clin Psychopharmacol 1998;18:332-7.
12. Ball JK, Albright V. Emergency department visits involving dextromethorphan. Drug Abuse Warning Network Report 2006;32:1-4.
13. Bryner JK, Wang UK, Hui JW, et al. Dextromethorphan abuse in adolescence: an increasing trend: 1999-2004. Arch Pediatr Adolesc Med 2006;160:1217-22.
14. Tuominen HJ, Tiihonen J, Wahlbeck K. Glutamatergic drugs for schizophrenia: a systematic review and meta-analysis. Schizophr Res 2005;72:225-34.
15. Andersen JD, Pouzet B. Spatial memory deficits induced by perinatal treatment of rats with PCP and reversal effect of Dserine. Neuropsychopharmacology 2004;29:1080-90.
1. Cherkes JK, Friedman JH. Dextromethorphan-induced neurologic illness in a patient with negative toxicology findings. Neurology 2006;66:1952-3.
2. Westermeyer J. Comorbid schizophrenia and substance abuse: a review of epidemiology and course. Am J Addict 2006;15:345-55.
3. Winklbaur B, Ebner N, Sachs G, et al. Substance abuse in patients with schizophrenia. Dialogues Clin Neurosci 2006;8:37-43.
4. Orrell MW, Campbell PG. Dependence on dextromethorphan hydrobromyde. Br Med J 1986;293:1242-3.
5. Iaboni RP, Aronowitz JS. Dextromethorphan abuse in a dually diagnosed patient. J Nerv Ment Dis 1995;183:341-2.
6. Krystal JH, D’Souza DC, Mathalon D, et al. NMDA receptor antagonist effects, cortical glutamatergic function, and schizophrenia: toward a paradigm shift in medication development. Psychopharmacology (Berl). 2003;169:215-33.
7. Wolfe TR, Caravati EM. Massive dextromethorphan ingestion and abuse. Am J Emerg Med 1995;13:174-6.
8. Cranston JW, Yoast R. Abuse of dextromethorphan. Arch Fam Med 1999;8:99-100.
9. Schadel M, Sellers EM. Psychosis with Vicks Formula 44-D abuse. CMAJ 1992;147:843-4.
10. Miller SC. Dextromethorphan psychosis, dependence and physical withdrawal. Addict Biol 2005;10:325-7.
11. Zawertailo LA, Kaplan HL, Busto UE, et al. Psychotropic effects of dextromethorphan are altered by the CYP2D6 polymorphism: a pilot study. J Clin Psychopharmacol 1998;18:332-7.
12. Ball JK, Albright V. Emergency department visits involving dextromethorphan. Drug Abuse Warning Network Report 2006;32:1-4.
13. Bryner JK, Wang UK, Hui JW, et al. Dextromethorphan abuse in adolescence: an increasing trend: 1999-2004. Arch Pediatr Adolesc Med 2006;160:1217-22.
14. Tuominen HJ, Tiihonen J, Wahlbeck K. Glutamatergic drugs for schizophrenia: a systematic review and meta-analysis. Schizophr Res 2005;72:225-34.
15. Andersen JD, Pouzet B. Spatial memory deficits induced by perinatal treatment of rats with PCP and reversal effect of Dserine. Neuropsychopharmacology 2004;29:1080-90.
Is she being abused or ‘acting out’?
HISTORY: ‘Unusual behavior’
Ms. L, age 44, has severe cerebral palsy and has used a wheelchair since childhood. Her mother, who had been her primary caretaker, died 12 years ago, and her stepsister has been caring for her since.
Ms. L’s primary care physician reports that the patient has been “acting out” lately and asks us to evaluate her “unusual behavior.” Six months ago, the physician prescribed escitalopram, 30 mg/d, to treat depressive symptoms stemming from her chronic neurologic disorder.
We interview Ms. L and her stepsister together. The patient says she has been depressed, irritable, and moody, and her stepsister confirms this. The patient shows no signs of distress during the interview, and her answers appear short and guarded.
The stepsister says she typically spends her day turning Ms. L to prevent bedsores, feeding and bathing her, replacing her urinary catheter and emptying her urinary bag, and helping her to the bathroom. At day’s end, the stepsister has little time to spend with her husband or for other activities. She says at times she resents tending to Ms. L’s constant needs and feels “stressed out.”
We diagnose Ms. L with a mood disorder caused by a general medical condition. We continue escitalopram, 30 mg/d, and add oxcarbazepine, 150 mg bid, to treat her irritability and lability.
FOLLOW-UP: ‘She’s abusing me’
At Ms. L’s follow-up visit 2 weeks later, we ask her stepsister to leave the examination room and interview the patient alone to gauge her emotional condition and insight.
Seconds later, Ms. L starts crying hysterically, then reports that for 12 years her stepsister has been beating her, usually after she requests something. Yesterday, she says, her stepsister started punching her after she asked to be taken to the park.
Ms. L says the abuse is escalating and now occurs daily. She says she is covered with bruises from the last beating, although no bruises are visible at first glance. Afraid to go home with her stepsister, she pleads for help.
- call the primary care physician for collateral information
- examine Ms. L for bruises
- get the stepsister’s side of the story
- contact state protective services
- all of the above
The authors’ observations
Is Ms. L being physically abused, or is a psychiatric condition driving her to fabricate these allegations?
We saw nothing suspicious during the first interview with the stepsister, although she acknowledged difficulty coping with Ms. L’s constant requests (Box 1).1 Caring for a severely disabled person day in and day out can be trying for both the caregiver and her family, and the stepsister could be taking her frustrations out on Ms. L.
Until proven otherwise, we must assume Ms. L is being harmed and seek more information. We also must watch for signs of a delusional or factitious disorder or malingering—any of which would suggest the allegations are false.
Is often a family member
Experiences stress brought on by the strain of caregiving coupled with marital problems, lack of money, overcrowded living conditions, or lack of needed health or social services
Often abuses alcohol and/or drugs
Might have emotional problems:
- Caregiver often resents patient’s dependency
- If patient is caregiver’s parent, caregiver might be retaliating for past mistreatment
Depends on vulnerable adult for basic needs such as money or housing
Might come from a family where abusive behavior is normal
Source: Reference 1
HISTORY: A second opinion
We ask Ms. L if we can discuss the allegations with her and her stepsister, but she fears retaliation and insists that we not speak to the caretaker.
We then call Ms. L’s primary care physician, who has been managing her care for several years. He says the patient has begged him numerous times for protection from her stepsister, but adds he has found no evidence of abuse. He notes that he has witnessed tension between the 2 women during office visits and cannot dismiss the possibility of abuse.
The attending psychiatrist performs a brief physical exam with the resident looking on but finds no bruises, excoriations, or unusual scarring on her arms and legs. Because our outpatient clinic lacks an examination room, we do not perform a whole-body exam.
We then notify state protective services. There, an agent tells us that in the past year, Ms. L has made 4 allegations of caretaker abuse, none of which were substantiated after extensive investigation. The agent says her office will assign a case worker but considers the case a low priority.
When we inform Ms. L of our findings, she frantically insists that her caretaker is beating her once a week and that the abuse has gone undetected. We become skeptical, recalling that Ms. L earlier said the beatings were daily.
Ms. L says she is afraid to go home and wonders where she can stay. Having no friends or other family members nearby, she requests hospitalization.
At this point, I would:
- discharge Ms. L to a safe house with close follow-up
- hospitalize her for safety and diagnostic clarification
- discharge her to her stepsister with close follow-up
The authors’ observations
Ms. L’s allegations pose a medical, ethical, and legal challenge. Physical examination and input from a protective services officer suggest Ms. L is fabricating the allegations. On the other hand, if the accusations are true, sending Ms. L home with her stepsister would endanger her.
We could hospitalize the patient and substantiate the allegations later, but we cannot justify taxing limited hospital resources when the need is questionable. We cannot send her to a safe house because of her severe physical disability, nor can we discuss the allegations with her stepsister because Ms. L instructed us not to.
- Caregiver.com (online magazine)
www.caregiver.com - Caring Today
www.caringtoday.com - National Alliance for Caregiving
www.caregiving.org - National Alliance on Mental Illness
www.nami.org (Click on “Find Support,” then “Education, Training, and Peer Support Programs”)
DISPOSITION: Going home
After meeting with hospital officials and clinic staff, we decide that Ms. L does not meet admission criteria. We discharge her to her stepsister and see the patient again the next day.
The authors’ observations
Legal duty. Our legal duty to protect a suspected abuse victim depends on the jurisdiction in which treatment is delivered.
Many states do not require physicians to report suspected abuse, but this complicates the decision process. If the suspicion is correct, not reporting it might constitute malpractice or negligence and could provoke future lawsuits or complaints to the state medical board. Worse, the abuse may escalate and cause irreparable harm to the patient. Conversely, reporting unfounded suspicions of abuse can destroy the doctor-patient relationship, prompt the caregiver to retaliate against the patient, or inspire patients or caregivers to sue the physician.
If you suspect patient abuse and your state mandates reporting, contact the state protective services agency at once (seeRelated Resources,). Base your report on a thorough history and physical, psychiatric evaluation, and—when available—collateral information.
If your state does not mandate reporting, obtain the patient’s consent to file a complaint with state protective services. By providing informed consent, the patient gives permission to disclose protected health information, and confidentiality is not breached.
Be careful when obtaining informed consent, especially when the patient is ambivalent about reporting because of:
- fear of retaliation from the abuser
- fear of the social stigma associated with abuse
- or the patient’s false belief that she deserves the abuse.
Ethical responsibility. Even if our legal responsibility is minimal, we should go further to do what is best for the patient.
Texas, for example, does not require physicians to hospitalize or find a safe environment for a suspected abuse victim.2 But if you see evidence of abuse, notify authorities and offer the patient information about local safe houses, support groups, and social services—even if not mandated by law. If resources are available, consider hospitalizing the patient and work with his or her social worker, therapist, or clergy to orchestrate outpatient services.
Whether or not abuse has occurred, empathizing with the caretaker about the difficulty of caring for the patient could diminish the caretaker’s stress and reduce the risk of abuse.
FOLLOW-UP: Truth or delusion?
At her appointment the next day, Ms. L says things are fine at home and does not bring up the abuse allegations. We then see her every 3 days for 2 weeks, weekly for 4 weeks, and every 3 weeks thereafter as the apparent risk of abuse diminishes. At each visit, she says her caretaker is not beating her but occasionally complains that she is verbally abusive.
Three weeks after her first follow-up, Ms. L enters the examination room agitated and frightened; she says another patient in the waiting room has just tried to strangle her for no apparent reason. Upon questioning, office staff say they saw no attack and note that the accused patient is a feeble woman with no history of violence; we doubt she assaulted Ms. L.
Ms. L suffers from:
- repeated physical abuse
- delusional disorder
- factitious disorder
- malingering
The authors’ observations
Although Ms. L clearly was not assaulted in the waiting room, this complaint is key to understanding her case. Although whether she is being abused at home remains unclear, evidence increasingly suggests that she suffers from delusions.
Delusions are beliefs that are fixed, false, and not ordinarily accepted by others in a patient’s culture or subculture.3 Delusional disorder is characterized by nonbizarre delusions lasting >1 month (>3 months according to ICD-10 criteria)4 with relatively preserved functioning and without prominent hallucinations. DSM-IV-TR defines bizarre delusions as “clearly implausible, not understandable, and not derived from ordinary life experience.”4,5
Ms. L most likely has a paranoid or persecutory type delusional disorder in which she is convinced she is being harmed. Her delusional thoughts might yield mood symptoms such as anger and irritability, and she might become assaultive. Often, such patients are extraordinarily determined to succeed against “the conspirators” and frequently appeal to the legal system or law enforcement.3
Differentiating between a patient’s delusions and reality can be difficult, leading clinicians to seek collateral information from family, past medical records, or providers to establish a diagnosis. The delusions might become less circumscribed over time, or additional information might clear the clinical picture.
Ms. L’s psychological makeup might help us rule out other diagnoses. Her request for hospitalization, for example, could suggest factitious illness, but she is disabled enough to play the sick role without manufacturing symptoms. Also, she seeks hospitalization because she has no family or friends to turn to. We rule out malingering because Ms. L has nothing to gain by accusing a stranger of choking her in the waiting room.
Treating delusional disorder
Pharmacotherapy and psychotherapy typically are used together to treat delusional disorder.
Pharmacotherapy. Antipsychotics such as olanzapine, 5 to 10 mg nightly, or risperidone, 1 to 2 mg nightly, can decrease the delusional thoughts’ intensity and frequency, allowing patients to function more appropriately.3 If 2 or more antipsychotic trials do not control delusional thoughts, consider starting clozapine at 300 mg/d and titrating to 900 mg/d.
Add an antidepressant if delusional thinking causes depression or anxiety. Selective serotonin reuptake inhibitors (SSRIs) such as paroxetine, 10 to 20 mg/d, or fluoxetine, 20 to 40 mg/d, are a good starting point. Consider other antidepressant types if SSRIs do not work.
Adjunctive benzodiazepines such as clonazepam, 1 to 2 mg/d, or lorazepam, 1 to 2 mg bid as needed, can help manage acute anxiety or agitation stemming from delusions.
Once rapport is established, consider challenging delusional beliefs by having the patient list evidence supporting or refuting the delusions. Be careful not to confront delusional thinking too quickly or aggressively, as this approach often does not change the patient’s beliefs and weakens the therapeutic alliance.3
TREATMENT: Fewer complaints
We still see Ms. L every 3 weeks for supportive psychotherapy and medication management. We continue oxcarbazepine, 150 mg bid, and escitalopram, 30 mg/d, and add risperidone, 1 mg at bedtime, to target her delusional thinking, lability, and irritability.
Over 6 months, Ms. L’s complaints of abuse become less emphatic. She endorses the abuse less frequently—every 3 to 4 visits—and only if the clinician specifically asks about it. Most often, she denies abuse is occurring but says it happened previously. At each visit, we document her statements and explain in her chart why we have not notified adult protective services or police.
- National Adult Protective Services Association. Links to adult protection agencies nationwide. www.apsnetwork.org.
- National Center on Elder Abuse. www.elderabusecenter.org.
Drug brand names
- Clonazepam • Klonopin
- Clozapine • Clozaril
- Escitalopram • Lexapro
- Fluoxetine • Prozac
- Lorazepam • Ativan
- Olanzapine • Zyprexa
- Oxcarbazepine • Trileptal
- Paroxetine • Paxil
- Risperidone • Risperdal
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Fairfax County, VA (June 15, 2006). Adult Protection Services. Available at: http://www.fairfaxcounty.gov/aaa/ombud/abuse.htm. Accessed October 26, 2007.
2. Texas medical jurisprudence manual, 15th ed. Austin, TX: Texas Medical Association; 2004;454–6.
3. Fennig S, Fochtman L, Bromet E. Chapter 12.16c Delusional disorder and shared psychotic disorder. In: Sadock B, Sadock V, eds. Kaplan & Sadock’s comprehensive textbook of psychiatry, 8th ed. Philadelphia: Lippincott Williams & Wilkins; 2005;1525–32.
4. International Classification of Diseases, 10th rev. Geneva, Switzerland: World Health Organization; 1992.
5. Diagnostic and statistical of mental disorders, 4th ed, text revision. Washington, DC: American Psychiatric Association; 2000.
HISTORY: ‘Unusual behavior’
Ms. L, age 44, has severe cerebral palsy and has used a wheelchair since childhood. Her mother, who had been her primary caretaker, died 12 years ago, and her stepsister has been caring for her since.
Ms. L’s primary care physician reports that the patient has been “acting out” lately and asks us to evaluate her “unusual behavior.” Six months ago, the physician prescribed escitalopram, 30 mg/d, to treat depressive symptoms stemming from her chronic neurologic disorder.
We interview Ms. L and her stepsister together. The patient says she has been depressed, irritable, and moody, and her stepsister confirms this. The patient shows no signs of distress during the interview, and her answers appear short and guarded.
The stepsister says she typically spends her day turning Ms. L to prevent bedsores, feeding and bathing her, replacing her urinary catheter and emptying her urinary bag, and helping her to the bathroom. At day’s end, the stepsister has little time to spend with her husband or for other activities. She says at times she resents tending to Ms. L’s constant needs and feels “stressed out.”
We diagnose Ms. L with a mood disorder caused by a general medical condition. We continue escitalopram, 30 mg/d, and add oxcarbazepine, 150 mg bid, to treat her irritability and lability.
FOLLOW-UP: ‘She’s abusing me’
At Ms. L’s follow-up visit 2 weeks later, we ask her stepsister to leave the examination room and interview the patient alone to gauge her emotional condition and insight.
Seconds later, Ms. L starts crying hysterically, then reports that for 12 years her stepsister has been beating her, usually after she requests something. Yesterday, she says, her stepsister started punching her after she asked to be taken to the park.
Ms. L says the abuse is escalating and now occurs daily. She says she is covered with bruises from the last beating, although no bruises are visible at first glance. Afraid to go home with her stepsister, she pleads for help.
- call the primary care physician for collateral information
- examine Ms. L for bruises
- get the stepsister’s side of the story
- contact state protective services
- all of the above
The authors’ observations
Is Ms. L being physically abused, or is a psychiatric condition driving her to fabricate these allegations?
We saw nothing suspicious during the first interview with the stepsister, although she acknowledged difficulty coping with Ms. L’s constant requests (Box 1).1 Caring for a severely disabled person day in and day out can be trying for both the caregiver and her family, and the stepsister could be taking her frustrations out on Ms. L.
Until proven otherwise, we must assume Ms. L is being harmed and seek more information. We also must watch for signs of a delusional or factitious disorder or malingering—any of which would suggest the allegations are false.
Is often a family member
Experiences stress brought on by the strain of caregiving coupled with marital problems, lack of money, overcrowded living conditions, or lack of needed health or social services
Often abuses alcohol and/or drugs
Might have emotional problems:
- Caregiver often resents patient’s dependency
- If patient is caregiver’s parent, caregiver might be retaliating for past mistreatment
Depends on vulnerable adult for basic needs such as money or housing
Might come from a family where abusive behavior is normal
Source: Reference 1
HISTORY: A second opinion
We ask Ms. L if we can discuss the allegations with her and her stepsister, but she fears retaliation and insists that we not speak to the caretaker.
We then call Ms. L’s primary care physician, who has been managing her care for several years. He says the patient has begged him numerous times for protection from her stepsister, but adds he has found no evidence of abuse. He notes that he has witnessed tension between the 2 women during office visits and cannot dismiss the possibility of abuse.
The attending psychiatrist performs a brief physical exam with the resident looking on but finds no bruises, excoriations, or unusual scarring on her arms and legs. Because our outpatient clinic lacks an examination room, we do not perform a whole-body exam.
We then notify state protective services. There, an agent tells us that in the past year, Ms. L has made 4 allegations of caretaker abuse, none of which were substantiated after extensive investigation. The agent says her office will assign a case worker but considers the case a low priority.
When we inform Ms. L of our findings, she frantically insists that her caretaker is beating her once a week and that the abuse has gone undetected. We become skeptical, recalling that Ms. L earlier said the beatings were daily.
Ms. L says she is afraid to go home and wonders where she can stay. Having no friends or other family members nearby, she requests hospitalization.
At this point, I would:
- discharge Ms. L to a safe house with close follow-up
- hospitalize her for safety and diagnostic clarification
- discharge her to her stepsister with close follow-up
The authors’ observations
Ms. L’s allegations pose a medical, ethical, and legal challenge. Physical examination and input from a protective services officer suggest Ms. L is fabricating the allegations. On the other hand, if the accusations are true, sending Ms. L home with her stepsister would endanger her.
We could hospitalize the patient and substantiate the allegations later, but we cannot justify taxing limited hospital resources when the need is questionable. We cannot send her to a safe house because of her severe physical disability, nor can we discuss the allegations with her stepsister because Ms. L instructed us not to.
- Caregiver.com (online magazine)
www.caregiver.com - Caring Today
www.caringtoday.com - National Alliance for Caregiving
www.caregiving.org - National Alliance on Mental Illness
www.nami.org (Click on “Find Support,” then “Education, Training, and Peer Support Programs”)
DISPOSITION: Going home
After meeting with hospital officials and clinic staff, we decide that Ms. L does not meet admission criteria. We discharge her to her stepsister and see the patient again the next day.
The authors’ observations
Legal duty. Our legal duty to protect a suspected abuse victim depends on the jurisdiction in which treatment is delivered.
Many states do not require physicians to report suspected abuse, but this complicates the decision process. If the suspicion is correct, not reporting it might constitute malpractice or negligence and could provoke future lawsuits or complaints to the state medical board. Worse, the abuse may escalate and cause irreparable harm to the patient. Conversely, reporting unfounded suspicions of abuse can destroy the doctor-patient relationship, prompt the caregiver to retaliate against the patient, or inspire patients or caregivers to sue the physician.
If you suspect patient abuse and your state mandates reporting, contact the state protective services agency at once (seeRelated Resources,). Base your report on a thorough history and physical, psychiatric evaluation, and—when available—collateral information.
If your state does not mandate reporting, obtain the patient’s consent to file a complaint with state protective services. By providing informed consent, the patient gives permission to disclose protected health information, and confidentiality is not breached.
Be careful when obtaining informed consent, especially when the patient is ambivalent about reporting because of:
- fear of retaliation from the abuser
- fear of the social stigma associated with abuse
- or the patient’s false belief that she deserves the abuse.
Ethical responsibility. Even if our legal responsibility is minimal, we should go further to do what is best for the patient.
Texas, for example, does not require physicians to hospitalize or find a safe environment for a suspected abuse victim.2 But if you see evidence of abuse, notify authorities and offer the patient information about local safe houses, support groups, and social services—even if not mandated by law. If resources are available, consider hospitalizing the patient and work with his or her social worker, therapist, or clergy to orchestrate outpatient services.
Whether or not abuse has occurred, empathizing with the caretaker about the difficulty of caring for the patient could diminish the caretaker’s stress and reduce the risk of abuse.
FOLLOW-UP: Truth or delusion?
At her appointment the next day, Ms. L says things are fine at home and does not bring up the abuse allegations. We then see her every 3 days for 2 weeks, weekly for 4 weeks, and every 3 weeks thereafter as the apparent risk of abuse diminishes. At each visit, she says her caretaker is not beating her but occasionally complains that she is verbally abusive.
Three weeks after her first follow-up, Ms. L enters the examination room agitated and frightened; she says another patient in the waiting room has just tried to strangle her for no apparent reason. Upon questioning, office staff say they saw no attack and note that the accused patient is a feeble woman with no history of violence; we doubt she assaulted Ms. L.
Ms. L suffers from:
- repeated physical abuse
- delusional disorder
- factitious disorder
- malingering
The authors’ observations
Although Ms. L clearly was not assaulted in the waiting room, this complaint is key to understanding her case. Although whether she is being abused at home remains unclear, evidence increasingly suggests that she suffers from delusions.
Delusions are beliefs that are fixed, false, and not ordinarily accepted by others in a patient’s culture or subculture.3 Delusional disorder is characterized by nonbizarre delusions lasting >1 month (>3 months according to ICD-10 criteria)4 with relatively preserved functioning and without prominent hallucinations. DSM-IV-TR defines bizarre delusions as “clearly implausible, not understandable, and not derived from ordinary life experience.”4,5
Ms. L most likely has a paranoid or persecutory type delusional disorder in which she is convinced she is being harmed. Her delusional thoughts might yield mood symptoms such as anger and irritability, and she might become assaultive. Often, such patients are extraordinarily determined to succeed against “the conspirators” and frequently appeal to the legal system or law enforcement.3
Differentiating between a patient’s delusions and reality can be difficult, leading clinicians to seek collateral information from family, past medical records, or providers to establish a diagnosis. The delusions might become less circumscribed over time, or additional information might clear the clinical picture.
Ms. L’s psychological makeup might help us rule out other diagnoses. Her request for hospitalization, for example, could suggest factitious illness, but she is disabled enough to play the sick role without manufacturing symptoms. Also, she seeks hospitalization because she has no family or friends to turn to. We rule out malingering because Ms. L has nothing to gain by accusing a stranger of choking her in the waiting room.
Treating delusional disorder
Pharmacotherapy and psychotherapy typically are used together to treat delusional disorder.
Pharmacotherapy. Antipsychotics such as olanzapine, 5 to 10 mg nightly, or risperidone, 1 to 2 mg nightly, can decrease the delusional thoughts’ intensity and frequency, allowing patients to function more appropriately.3 If 2 or more antipsychotic trials do not control delusional thoughts, consider starting clozapine at 300 mg/d and titrating to 900 mg/d.
Add an antidepressant if delusional thinking causes depression or anxiety. Selective serotonin reuptake inhibitors (SSRIs) such as paroxetine, 10 to 20 mg/d, or fluoxetine, 20 to 40 mg/d, are a good starting point. Consider other antidepressant types if SSRIs do not work.
Adjunctive benzodiazepines such as clonazepam, 1 to 2 mg/d, or lorazepam, 1 to 2 mg bid as needed, can help manage acute anxiety or agitation stemming from delusions.
Once rapport is established, consider challenging delusional beliefs by having the patient list evidence supporting or refuting the delusions. Be careful not to confront delusional thinking too quickly or aggressively, as this approach often does not change the patient’s beliefs and weakens the therapeutic alliance.3
TREATMENT: Fewer complaints
We still see Ms. L every 3 weeks for supportive psychotherapy and medication management. We continue oxcarbazepine, 150 mg bid, and escitalopram, 30 mg/d, and add risperidone, 1 mg at bedtime, to target her delusional thinking, lability, and irritability.
Over 6 months, Ms. L’s complaints of abuse become less emphatic. She endorses the abuse less frequently—every 3 to 4 visits—and only if the clinician specifically asks about it. Most often, she denies abuse is occurring but says it happened previously. At each visit, we document her statements and explain in her chart why we have not notified adult protective services or police.
- National Adult Protective Services Association. Links to adult protection agencies nationwide. www.apsnetwork.org.
- National Center on Elder Abuse. www.elderabusecenter.org.
Drug brand names
- Clonazepam • Klonopin
- Clozapine • Clozaril
- Escitalopram • Lexapro
- Fluoxetine • Prozac
- Lorazepam • Ativan
- Olanzapine • Zyprexa
- Oxcarbazepine • Trileptal
- Paroxetine • Paxil
- Risperidone • Risperdal
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
HISTORY: ‘Unusual behavior’
Ms. L, age 44, has severe cerebral palsy and has used a wheelchair since childhood. Her mother, who had been her primary caretaker, died 12 years ago, and her stepsister has been caring for her since.
Ms. L’s primary care physician reports that the patient has been “acting out” lately and asks us to evaluate her “unusual behavior.” Six months ago, the physician prescribed escitalopram, 30 mg/d, to treat depressive symptoms stemming from her chronic neurologic disorder.
We interview Ms. L and her stepsister together. The patient says she has been depressed, irritable, and moody, and her stepsister confirms this. The patient shows no signs of distress during the interview, and her answers appear short and guarded.
The stepsister says she typically spends her day turning Ms. L to prevent bedsores, feeding and bathing her, replacing her urinary catheter and emptying her urinary bag, and helping her to the bathroom. At day’s end, the stepsister has little time to spend with her husband or for other activities. She says at times she resents tending to Ms. L’s constant needs and feels “stressed out.”
We diagnose Ms. L with a mood disorder caused by a general medical condition. We continue escitalopram, 30 mg/d, and add oxcarbazepine, 150 mg bid, to treat her irritability and lability.
FOLLOW-UP: ‘She’s abusing me’
At Ms. L’s follow-up visit 2 weeks later, we ask her stepsister to leave the examination room and interview the patient alone to gauge her emotional condition and insight.
Seconds later, Ms. L starts crying hysterically, then reports that for 12 years her stepsister has been beating her, usually after she requests something. Yesterday, she says, her stepsister started punching her after she asked to be taken to the park.
Ms. L says the abuse is escalating and now occurs daily. She says she is covered with bruises from the last beating, although no bruises are visible at first glance. Afraid to go home with her stepsister, she pleads for help.
- call the primary care physician for collateral information
- examine Ms. L for bruises
- get the stepsister’s side of the story
- contact state protective services
- all of the above
The authors’ observations
Is Ms. L being physically abused, or is a psychiatric condition driving her to fabricate these allegations?
We saw nothing suspicious during the first interview with the stepsister, although she acknowledged difficulty coping with Ms. L’s constant requests (Box 1).1 Caring for a severely disabled person day in and day out can be trying for both the caregiver and her family, and the stepsister could be taking her frustrations out on Ms. L.
Until proven otherwise, we must assume Ms. L is being harmed and seek more information. We also must watch for signs of a delusional or factitious disorder or malingering—any of which would suggest the allegations are false.
Is often a family member
Experiences stress brought on by the strain of caregiving coupled with marital problems, lack of money, overcrowded living conditions, or lack of needed health or social services
Often abuses alcohol and/or drugs
Might have emotional problems:
- Caregiver often resents patient’s dependency
- If patient is caregiver’s parent, caregiver might be retaliating for past mistreatment
Depends on vulnerable adult for basic needs such as money or housing
Might come from a family where abusive behavior is normal
Source: Reference 1
HISTORY: A second opinion
We ask Ms. L if we can discuss the allegations with her and her stepsister, but she fears retaliation and insists that we not speak to the caretaker.
We then call Ms. L’s primary care physician, who has been managing her care for several years. He says the patient has begged him numerous times for protection from her stepsister, but adds he has found no evidence of abuse. He notes that he has witnessed tension between the 2 women during office visits and cannot dismiss the possibility of abuse.
The attending psychiatrist performs a brief physical exam with the resident looking on but finds no bruises, excoriations, or unusual scarring on her arms and legs. Because our outpatient clinic lacks an examination room, we do not perform a whole-body exam.
We then notify state protective services. There, an agent tells us that in the past year, Ms. L has made 4 allegations of caretaker abuse, none of which were substantiated after extensive investigation. The agent says her office will assign a case worker but considers the case a low priority.
When we inform Ms. L of our findings, she frantically insists that her caretaker is beating her once a week and that the abuse has gone undetected. We become skeptical, recalling that Ms. L earlier said the beatings were daily.
Ms. L says she is afraid to go home and wonders where she can stay. Having no friends or other family members nearby, she requests hospitalization.
At this point, I would:
- discharge Ms. L to a safe house with close follow-up
- hospitalize her for safety and diagnostic clarification
- discharge her to her stepsister with close follow-up
The authors’ observations
Ms. L’s allegations pose a medical, ethical, and legal challenge. Physical examination and input from a protective services officer suggest Ms. L is fabricating the allegations. On the other hand, if the accusations are true, sending Ms. L home with her stepsister would endanger her.
We could hospitalize the patient and substantiate the allegations later, but we cannot justify taxing limited hospital resources when the need is questionable. We cannot send her to a safe house because of her severe physical disability, nor can we discuss the allegations with her stepsister because Ms. L instructed us not to.
- Caregiver.com (online magazine)
www.caregiver.com - Caring Today
www.caringtoday.com - National Alliance for Caregiving
www.caregiving.org - National Alliance on Mental Illness
www.nami.org (Click on “Find Support,” then “Education, Training, and Peer Support Programs”)
DISPOSITION: Going home
After meeting with hospital officials and clinic staff, we decide that Ms. L does not meet admission criteria. We discharge her to her stepsister and see the patient again the next day.
The authors’ observations
Legal duty. Our legal duty to protect a suspected abuse victim depends on the jurisdiction in which treatment is delivered.
Many states do not require physicians to report suspected abuse, but this complicates the decision process. If the suspicion is correct, not reporting it might constitute malpractice or negligence and could provoke future lawsuits or complaints to the state medical board. Worse, the abuse may escalate and cause irreparable harm to the patient. Conversely, reporting unfounded suspicions of abuse can destroy the doctor-patient relationship, prompt the caregiver to retaliate against the patient, or inspire patients or caregivers to sue the physician.
If you suspect patient abuse and your state mandates reporting, contact the state protective services agency at once (seeRelated Resources,). Base your report on a thorough history and physical, psychiatric evaluation, and—when available—collateral information.
If your state does not mandate reporting, obtain the patient’s consent to file a complaint with state protective services. By providing informed consent, the patient gives permission to disclose protected health information, and confidentiality is not breached.
Be careful when obtaining informed consent, especially when the patient is ambivalent about reporting because of:
- fear of retaliation from the abuser
- fear of the social stigma associated with abuse
- or the patient’s false belief that she deserves the abuse.
Ethical responsibility. Even if our legal responsibility is minimal, we should go further to do what is best for the patient.
Texas, for example, does not require physicians to hospitalize or find a safe environment for a suspected abuse victim.2 But if you see evidence of abuse, notify authorities and offer the patient information about local safe houses, support groups, and social services—even if not mandated by law. If resources are available, consider hospitalizing the patient and work with his or her social worker, therapist, or clergy to orchestrate outpatient services.
Whether or not abuse has occurred, empathizing with the caretaker about the difficulty of caring for the patient could diminish the caretaker’s stress and reduce the risk of abuse.
FOLLOW-UP: Truth or delusion?
At her appointment the next day, Ms. L says things are fine at home and does not bring up the abuse allegations. We then see her every 3 days for 2 weeks, weekly for 4 weeks, and every 3 weeks thereafter as the apparent risk of abuse diminishes. At each visit, she says her caretaker is not beating her but occasionally complains that she is verbally abusive.
Three weeks after her first follow-up, Ms. L enters the examination room agitated and frightened; she says another patient in the waiting room has just tried to strangle her for no apparent reason. Upon questioning, office staff say they saw no attack and note that the accused patient is a feeble woman with no history of violence; we doubt she assaulted Ms. L.
Ms. L suffers from:
- repeated physical abuse
- delusional disorder
- factitious disorder
- malingering
The authors’ observations
Although Ms. L clearly was not assaulted in the waiting room, this complaint is key to understanding her case. Although whether she is being abused at home remains unclear, evidence increasingly suggests that she suffers from delusions.
Delusions are beliefs that are fixed, false, and not ordinarily accepted by others in a patient’s culture or subculture.3 Delusional disorder is characterized by nonbizarre delusions lasting >1 month (>3 months according to ICD-10 criteria)4 with relatively preserved functioning and without prominent hallucinations. DSM-IV-TR defines bizarre delusions as “clearly implausible, not understandable, and not derived from ordinary life experience.”4,5
Ms. L most likely has a paranoid or persecutory type delusional disorder in which she is convinced she is being harmed. Her delusional thoughts might yield mood symptoms such as anger and irritability, and she might become assaultive. Often, such patients are extraordinarily determined to succeed against “the conspirators” and frequently appeal to the legal system or law enforcement.3
Differentiating between a patient’s delusions and reality can be difficult, leading clinicians to seek collateral information from family, past medical records, or providers to establish a diagnosis. The delusions might become less circumscribed over time, or additional information might clear the clinical picture.
Ms. L’s psychological makeup might help us rule out other diagnoses. Her request for hospitalization, for example, could suggest factitious illness, but she is disabled enough to play the sick role without manufacturing symptoms. Also, she seeks hospitalization because she has no family or friends to turn to. We rule out malingering because Ms. L has nothing to gain by accusing a stranger of choking her in the waiting room.
Treating delusional disorder
Pharmacotherapy and psychotherapy typically are used together to treat delusional disorder.
Pharmacotherapy. Antipsychotics such as olanzapine, 5 to 10 mg nightly, or risperidone, 1 to 2 mg nightly, can decrease the delusional thoughts’ intensity and frequency, allowing patients to function more appropriately.3 If 2 or more antipsychotic trials do not control delusional thoughts, consider starting clozapine at 300 mg/d and titrating to 900 mg/d.
Add an antidepressant if delusional thinking causes depression or anxiety. Selective serotonin reuptake inhibitors (SSRIs) such as paroxetine, 10 to 20 mg/d, or fluoxetine, 20 to 40 mg/d, are a good starting point. Consider other antidepressant types if SSRIs do not work.
Adjunctive benzodiazepines such as clonazepam, 1 to 2 mg/d, or lorazepam, 1 to 2 mg bid as needed, can help manage acute anxiety or agitation stemming from delusions.
Once rapport is established, consider challenging delusional beliefs by having the patient list evidence supporting or refuting the delusions. Be careful not to confront delusional thinking too quickly or aggressively, as this approach often does not change the patient’s beliefs and weakens the therapeutic alliance.3
TREATMENT: Fewer complaints
We still see Ms. L every 3 weeks for supportive psychotherapy and medication management. We continue oxcarbazepine, 150 mg bid, and escitalopram, 30 mg/d, and add risperidone, 1 mg at bedtime, to target her delusional thinking, lability, and irritability.
Over 6 months, Ms. L’s complaints of abuse become less emphatic. She endorses the abuse less frequently—every 3 to 4 visits—and only if the clinician specifically asks about it. Most often, she denies abuse is occurring but says it happened previously. At each visit, we document her statements and explain in her chart why we have not notified adult protective services or police.
- National Adult Protective Services Association. Links to adult protection agencies nationwide. www.apsnetwork.org.
- National Center on Elder Abuse. www.elderabusecenter.org.
Drug brand names
- Clonazepam • Klonopin
- Clozapine • Clozaril
- Escitalopram • Lexapro
- Fluoxetine • Prozac
- Lorazepam • Ativan
- Olanzapine • Zyprexa
- Oxcarbazepine • Trileptal
- Paroxetine • Paxil
- Risperidone • Risperdal
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Fairfax County, VA (June 15, 2006). Adult Protection Services. Available at: http://www.fairfaxcounty.gov/aaa/ombud/abuse.htm. Accessed October 26, 2007.
2. Texas medical jurisprudence manual, 15th ed. Austin, TX: Texas Medical Association; 2004;454–6.
3. Fennig S, Fochtman L, Bromet E. Chapter 12.16c Delusional disorder and shared psychotic disorder. In: Sadock B, Sadock V, eds. Kaplan & Sadock’s comprehensive textbook of psychiatry, 8th ed. Philadelphia: Lippincott Williams & Wilkins; 2005;1525–32.
4. International Classification of Diseases, 10th rev. Geneva, Switzerland: World Health Organization; 1992.
5. Diagnostic and statistical of mental disorders, 4th ed, text revision. Washington, DC: American Psychiatric Association; 2000.
1. Fairfax County, VA (June 15, 2006). Adult Protection Services. Available at: http://www.fairfaxcounty.gov/aaa/ombud/abuse.htm. Accessed October 26, 2007.
2. Texas medical jurisprudence manual, 15th ed. Austin, TX: Texas Medical Association; 2004;454–6.
3. Fennig S, Fochtman L, Bromet E. Chapter 12.16c Delusional disorder and shared psychotic disorder. In: Sadock B, Sadock V, eds. Kaplan & Sadock’s comprehensive textbook of psychiatry, 8th ed. Philadelphia: Lippincott Williams & Wilkins; 2005;1525–32.
4. International Classification of Diseases, 10th rev. Geneva, Switzerland: World Health Organization; 1992.
5. Diagnostic and statistical of mental disorders, 4th ed, text revision. Washington, DC: American Psychiatric Association; 2000.
After the ‘pink clouds,’ he sees red
HISTORY: Depressed and sick
Mr. T, age 53, was diagnosed last year with hepatitis C and for 20 years has battled recurrent major depression with euthymia between episodes. His hepatologist asks us to evaluate his recent depressed mood and erratic behavior.
Less than 2 months ago, the hepatologist prescribed ribavirin, 1,000 mg bid, and peginterferon alfa-2B, 10 million IU/1.0 mL weekly, for hepatitis C. Soon afterward, Mr. T became irritable, especially toward his wife. He now refuses to leave his house most days because of overwhelming sadness and hopelessness. Once an avid motorcycle enthusiast, Mr. T has stopped riding and complains of fatigue, “fuzzy” thinking, and diminished concentration, but he denies suicidal thoughts or intent. He weighs 232 lb but has lost 15 lb in the last 6 weeks.
Five weeks ago, the hepatologist added bupropion XL, 150 mg/d, for Mr. T’s depressive symptoms, but the patient complained that the antidepressant “amped me up” and “made my mind race.” After 3 weeks, the hepatologist switched to escitalopram, 10 mg/d, but Mr. T’s agitation continued.
Several days after starting escitalopram, Mr. T experienced what he calls a “pink cloud” period—intensely pleasurable episodes that he says began in late childhood, usually last about 4 days, and occur 6 times annually. During these episodes, his thoughts race, his speech is mildly pressured, and he sleeps 5 hours or less nightly. While euphoric, he drives his motorcycle at 100 mph, starts several projects at once, and is distractible.
Once the “pink clouds” clear, Mr. T feels fatigued and “let down” as he does now. He says he has never reported these euphoric periods because he usually enjoys them.
Mr. T also has longstanding anxiety. Most days he is “on edge” and restless, feels muscle tension in his neck, and has trouble falling and staying sleep. After changing jobs last year, he began having panic attacks triggered by excessive worry. He denies anticipatory fear or avoidance, so we rule out panic disorder.
Additionally, Mr. T has been engaging in weekly binge-eating episodes during which he consumes nearly 50 large-sized cookies and 2 to 3 2-ounce bags of potato chips in 2 hours. He is wracked with guilt after bingeing and often feels embarrassed about being overweight (body mass index, 31 kg/m2). He does not purge but moderately restricts his diet between binges. He says he started bingeing at age 20, and at one point was bingeing 3 times a week.
Mr. T also complains that ribavirin and peginterferon are causing headaches, fatigue, and myalgias. He also takes hydrochlorothiazide, 25 mg/d, for hypertension, and is allergic to sulfonamides. He denies using alcohol and drugs but smokes 2 packs of cigarettes per day.
We diagnose bipolar II disorder based on Mr. T’s extreme mood shifts, history of major depressive episodes, recent hypomania, lack of manic or mixed episodes, and significant distress. His hypomania episodes last <1 week; episodes that last ≥1 week or require hospitalization would signal bipolar I disorder.
We rule out interferon-induced depression and hypomania1 because Mr. T showed signs of mood dysfunction long before he contracted hepatitis C. We also diagnose generalized anxiety disorder and eating disorder, not otherwise specified.
The authors’ observations
Diagnosing and managing bipolar disorder is challenging, especially when hypomania is not readily apparent.2
After we discuss treatment options with Mr. T, he chooses lamotrigine because it causes relatively few side effects and is less likely than valproic acid and other mood-stabilizing anticonvulsants to cause hepatotoxicity or pancreatitis.3 Lamotrigine also might reduce Mr. T’s anxiety.4
We do not try lithium because Mr. T is taking a diuretic (hydrochlorothiazide), which can cause lithium toxicity when used concomitantly. Also, lithium requires close laboratory monitoring, interacts with many medications, and can cause drowsiness, dry mouth, blurry vision, and fatigue.5 These
factors contraindicate lithium for Mr. T, who is taking several medications and suffers side effects from ribavirin and interferon.
Olanzapine might control Mr. T’s mood swings, but the neuroleptic can cause weight gain and metabolic syndrome6 and might complicate his eating disorder.
TREATMENT: A ‘rash’ reaction
We add lamotrigine, 25 mg/d, for 2 weeks and then increase to 50 mg/d.
Two days after the lamotrigine increase, Mr. T reports a rash on the left side of his trunk and left hip, buttock, and elbow (Figure). He also complains of mild chills and night sweats, although these symptoms emerged several weeks ago. He denies blistering, fevers, dysuria, nausea, or vomiting. We see no signs of lymphadenopathy, and mucosae are unaffected. Since he started lamotrigine, he says, he has not tried unfamiliar brands of shampoos, laundry detergents, or shower gels that might irritate his skin.
Figure: Did lamotrigine cause Mr. T’s rash?
Folliculocentric pustules around patient’s left elbow and throughout his left side.We have Mr. T come in that day for an emergency physical examination. At presentation, the rash appears infectious with isolated pustules throughout. We refer him to a dermatologist for same-day evaluation.
The authors’ observations
A rash is an immunologic reaction to an offending agent. If lamotrigine were causing the rash, lowering the dosage would not mitigate it.
We continued lamotrigine because the dermatologist could examine the rash within 24 hours of Mr. T’s complaint. Also, the agent was decreasing the patient’s mood, irritability, and anger. If we believed lamotrigine was causing the rash and could not obtain an immediate dermatology consult, we would have stopped the medication.
FOLLOW-UP: ‘Hot’ findings
During the patient history interview, the dermatologist discovers that Mr. T recently installed a whirlpool bath, and that the eruption occurred 3 to 5 days after the patient first used it. Physical examination shows groups of discrete folliculocentric pustules with surrounding erythema mainly on his extensor surfaces and left buttock. These findings and Mr. T’s history suggest a skin infection.
The dermatologist diagnoses hot tub folliculitis, an infection caused by exposure to contaminated whirlpools, hot tubs, or water slides. Cultures obtained that day grow Pseudomonas aeruginosa, confirming the diagnosis. The dermatologist tells Mr. T to stop using his whirlpool bath and prescribes topical gentamicin and ciprofloxacin, 500 mg bid for 10 days. We continue lamotrigine based on the dermatologist’s recommendation.
Two weeks later, Mr. T’s eruption resolves, and we increase lamotrigine to 100 mg/d, which improves his mood and achieves steady-state effectiveness.7 We continue escitalopram, 10 mg/d, then increase to 20 mg/d to treat his generalized anxiety. Mr. T begins experiencing anorgasmia 1 week after the escitalopram increase, so we switch to buspirone, 15 mg bid. After another 4 weeks, his anger, irritability, panic attacks, anxiety, and depression have diminished.
After 3 months, Mr. T’s hepatologist stops ribavirin and peginterferon because they are not helping his hepatitis C infection. Days later, Mr. T’s chills, sweats, and fatigue remit.
The hepatologist considers an experimental hepatitis C
medication.
We see Mr. T once monthly for supportive psychotherapy and medication management. Despite divorce proceedings and persistent mild depression he is optimistic, enjoys work, and rides his motorcycle safely twice a week.
The authors’ observations
Although Mr. T’s presentation and patient history clearly suggested an independent skin infection, distinguishing between an infection and anticonvulsant-induced rash can be difficult.
Lamotrigine and other antiepileptics (Table 1)8 have been associated with morbilliform eruptions, anticonvulsant hypersensitivity syndrome, erythema multiforme, Stevens-Johnson syndrome (SJS), and toxic epidermal necrolysis (TEN), a severe form of SJS with a 20% to 30% mortality rate.9,10
Table 1
Estimated risk of severe rash among first-time antiepileptic users*
Drug | Total new users† | Total SJS/TEN cases | Risk per 10,000 new users |
---|---|---|---|
Carbamazepine | 286,360 | 39 | 1.4 |
Lamotrigine | 55,154 | 14 | 2.5 |
Phenobarbital | 8,659 | 7 | 8.1 |
Phenytoin | 36,171 | 30 | 8.3 |
Valproic acid | 103,150 | 4 | 0.4 |
* Researchers reviewed records of patients hospitalized between 1998 and 2001 with SJS or TEN after using an anticonvulsant. | |||
† Estimates based on number of dispensed prescriptions, average prescribed dosages, and duration of anticonvulsant use as recorded in Germany’s Mediplus database. | |||
SJS: Stevens-Johnson syndrome; TEN: toxic epidermal necrolysis | |||
Source: Adapted from reference 8 |
Although most lamotrigine-induced cutaneous eruptions are mild or self-limited, some are severe and potentially fatal. In clinical trials, approximately 10% of patients receiving lamotrigine for epilepsy developed cutaneous reactions.11 Among 3,348 patients with epilepsy who received lamotrigine, 11 (0.3%) required hospitalization for SJS or TEN.11
Anticonvulsant hypersensitivity syndrome, estimated to occur once per 1,000 to 10,000 exposures to anticonvulsants,12 can lead to fever, lymphadenopathy, hepatomegaly, and arthralgias. Although hypersensitivity to aromatic anticonvulsants such as phenytoin, carbamazepine, or phenobarbital is most common, hypersensitivity to lamotrigine also has been reported.13,14
Roughly 90% of patients with anticonvulsant hypersensitivity syndrome develop leukocytosis with eosinophilia, and some develop leukocytosis with agranulocytosis.15-17 Fulminant hepatitis can occur, which leads to most deaths associated with this syndrome.
4 steps to gauging rash
Taking a thorough history, examining the eruption, ordering liver function tests (LFTs) and a complete blood count (CBC), and referring the patient to a dermatologist are key to determining the seriousness of an eruption and planning treatment in patients taking anticonvulsants (Table 2). See the patient within 12 hours after he reports the rash, as SJS and TEN often progress rapidly.
Table 2
4 steps to determining rash severity and cause
Take a thorough history | Find out when eruption occurred and when patient started the anticonvulsant |
Ask about past rashes, other medicines, and family history of reactions to medications | |
Find out if patient has had fever/chills, malaise, lymphadenopathy, or mucosal symptoms such as photophobia or dysuria | |
Examine the eruption | Examine for mucosal involvement, facial edema, and blistering; describe the symmetry and extent of involvement |
Look for systemic findings such as fever, chills, lymphadenopathy, and organomegaly | |
Photograph the eruption for the dermatologist if possible | |
Order laboratory tests | Order liver function tests and complete blood count with differentials; assess for eosinophilia |
Closely monitor patient | Stop anticonvulsant if history, physical findings suggest a drug-induced eruption |
Refer patient to a dermatologist |
STEP 1: Take a thorough history
Ask the patient:
What medications are you taking? Because more than 100 medications could cause SJS or TEN, a detailed drug history is critical to determining whether a medication has induced the eruption.
When did you start taking the potentially offending medication? True lamotrigine-induced eruptions usually occur 5 days to 8 weeks after the first dose.10 SJS and TEN generally take 1 to 2 weeks to develop.
What is your current dosage? Has it increased or decreased recently? Rapid lamotrigine dosage escalations or use of lamotrigine with valproic acid can cause severe rash.9,10,18 Valproic acid increases serum lamotrigine by inhibiting its hepatic metabolism, thereby raising side-effect risk. In clinical trials, 30% of patients who received both anticonvulsants developed a rash.10
Have any family members had rashes after taking an anticonvulsant? Compared with the general population, siblings and first-degree relatives of patients with anticonvulsant-related eruptions are at higher risk for this complication.19 Decreased epoxide hydrolase activity might negate these patients’ ability to detoxify the arene oxide metabolite, which can cause adverse effects if it accumulates.
Do you have other medical problems? Hepatitis C, for example, can theoretically increase lamotrigine’s half-life, thereby elevating side-effect risk.11
Watch for anticonvulsant-related adverse events in patients with hepatic insufficiency because hepatitis might hinder anticonvulsant metabolism.20 Other medical comorbidities—such as HIV infection and systemic lupus erythematosus—also could increase the risk of antiepileptic-induced rash.10
Have you had fever, chills, or other symptoms? Patients with SJS and TEN usually present with systemic symptoms such as malaise, rash, lymphadenopathy, mucosal lesions, and/or symptoms such as photophobia, difficulty swallowing, rectal erosions, or dysuria. Patients with anticonvulsant hypersensitivity syndrome typically have fever and associated arthralgias, skin pain, lymphadenopathy, or a burning sensation on their skin. These symptoms generally are absent in localized cutaneous infections.
STEP 2: Examine the eruption
Cutaneous SJS and TEN findings usually include abrupt onset of erythematous macules—which progress to targetoid lesions containing central bullae—followed by extensive epidermal necrosis. Superficial lip and mouth necrosis occur early, leading to severe stomatitis.
TEN and SJS can appear similar clinically, but TEN
covers >30% of body surface area, whereas SJS covers <10%.
Rashes that cover 10% to 30% of body surface suggest SJS-TEN overlap syndrome.
Anticonvulsant hypersensitivity syndrome usually manifests as
a morbilliform eruption on the face, arms, and/or torso. The
lesions might become edematous and progress to exfoliation or vesiculobullae. Facial edema is a hallmark of anticonvulsant hypersensitivity,15,16 and pustules and/or erythroderma might also appear. Other warning signs include symmetrical widespread eruption and organomegaly.
STEP 3: Order laboratory tests
Check liver function and order a CBC with differential to measure eosinophils. Eosinophilia and abnormal LFT results can signal anticonvulsant hypersensitivity.
Eosinophils. A normal eosinophil count ranges between 0% and 5% of peripheral blood leukocytes in adults, at a count of 350 to 650/cm. Although upper limits of normal vary, values >500/cm suggest hypereosinophilia.21
LFTs. Normal aspartate aminotransferase and alanine aminotransferase levels are 0 to 42 U/L and 0 to 48 U/L, respectively. Any LFT elevation could signal anticonvulsant hypersensitivity syndrome.
STEP 4: Closely monitor the patient
Discontinue the anticonvulsant if findings suggest a cutaneous drug reaction, and contact the patient’s primary care physician or dermatologist immediately. Early consultation with a dermatologist can help determine the eruption’s cause and reveal therapeutic options.
Dr. Pejic is chief resident in the adult psychiatry residency program, Louisiana State University Health Sciences Center and Ochsner Clinic Foundation, New Orleans.
Dr. Klinger is a third-year dermatology resident, Dr. Conrad is assistant professor of clinical psychiatry, and Dr. Nesbitt is chairman, department of dermatology, Louisiana State University Health Sciences Center.
Related Resources
- High WA. Stevens-Johnson syndrome and toxic epidermal necrolysis in adults. UpToDate Online (version 15.1); June 9, 2007. www.uptodate.com.
- Martin KA, Krahn LE, Rosati MJ, Balan V. Hepatitis C: How to manage mood during interferon treatment. Current Psychiatry 2006;5(11):69-80. http://www.currentpsychiatry.com/article_pages.asp?AID=4553.
Drug Brand Names
- Bupropion • Wellbutrin
- Buspirone • BuSpar
- Carbamazepine • Tegretol, Equetro, others
- Ciprofloxacin • Cipro, Proquin
- Escitalopram • Lexapro
- Hydrochlorothiazide • various
- Lamotrigine • Lamictal
- Lithium • Eskalith, others
- Olanzapine • Zyprexa
- Peginterferon alfa-2B • PEG-Intron
- Phenytoin • Dilantin
- Ribavirin • Copegus, Rebetol, others
- Valproic acid • Depakote
Disclosure
Dr. Conrad receives research/grant support from AstraZeneca, Bristol-Myers Squibb, Forest Pharmaceuticals, GlaxoSmithKline, and Wyeth.
Drs. Pejic, Nesbitt, and Klinger report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Crone CC, Gabriel GM, Wise TN. Managing the neuropsychiatric side effects of interferon-based therapy for hepatitis C. Cleve Clin J Med 2004;71(suppl 3):S27-S32.
2. Phelps JR, Ghaemi SN. Improving the diagnosis of bipolar disorder: predictive value of screening tests. J Affect Disord 2006;92:141-8.
3. Lacerda G, Krummel T, Sabourdy C, et al. Optimizing therapy of seizures in patients with renal or hepatic dysfunction. Neurology 2006;67(suppl 4):S28-S33.
4. Yumru M, Savas HA, Kurt E, et al. Atypical antipsychotics related metabolic syndrome in bipolar patients. J Affect Disord 2007;98:247-52.
5. Finley PR, Warner MD, Peabody CA. Clinical relevance of drug interactions with lithium. Clin Pharmacokinet 1995;3:172-91.
6. Keck PE, Jr, Strawn JR, McElroy SL. Pharmacologic treatment considerations in co-occurring bipolar and anxiety disorders. J Clin Psychiatry 2006;67(suppl 1):S8-S15.
7. Sachs GS, Printz DJ, Kahn DA, et al. The expert consensus guidelines: medication treatment of bipolar disorder 2000. A postgraduate medicine special report. New York: McGraw-Hill; 2000:24.
8. Mockenhaupt M, Messenheimer J, Tennis P, Schlingmann J. Risk of Stevens-Johnson syndrome and toxic epidermal necrolysis in new users of antiepileptics. Neurology 2005;64:1134-8.
9. Schlienger RG, Shapiro LE, Shear NH. Lamotrigine-induced severe cutaneous adverse reactions. Epilepsia 1998;29(suppl 7):S22-S26.
10. Calabrese JR, Sullivan JR, Bowden CL, et al. Rash in multicenter trials of lamotrigine in mood disorders: clinical relevance and management. J Clin Psychiatry 2002;63:1012-19.
11. Physicians’ desk reference. 61st ed. Montvale, NJ: Thomson PDR; 2007:1483-4, 1488.
12. Knowles SR, Shapiro LE, Shear NH. Anticonvulsant hypersensitivity syndrome: incidence, prevention and management. Drug Saf 1999;21:489-501.
13. Tennis P, Stern RS. Risk of serious cutaneous disorders after initiation of use of phenytoin, carbamazepine, or sodium valproate: a record linkage study. Neurology 1997;49:542-6.
14. Knowles SR, Shapiro LE, Shear NH. Anticonvulsant hypersensitivity syndrome: incidence, prevention and management. Drug Saf 1999;21:489-501.
15. Chang DK, Shear NH. Cutaneous reactions to anticonvulsants. Semin Neurol 1992;12:329-7.
16. Vittorio CC, Muglia JJ. Anticonvulsant hypersensitivity syndrome. Arch Intern Med 1995;155:2285-90.
17. Callot V, Roujeau JC, Bagot M, et al. Drug induced pseudo-lymphoma and hypersensitivity syndrome. Two different clinical entities. Arch Dermatol 1996;132:1315-21.
18. Yalcin B, Karaduman A. Stevens-Johnson syndrome associated with concomitant use of lamotrigine and valproic acid. J Am Acad Dermatol 2000;43:898-9.
19. Gennis MA, Vemuri R, Burns EA, et al. Familial occurrence of hypersensitivity to phenytoin. Am J Med 1991;91:631-4.
20. McLaren KD, Marangell LB. Special considerations in the treatment of patients with bipolar disorder and medical comorbidities. Ann Gen Hosp Psychiatry 2004;3:7.-
21. Valencak J, Ortiz-Urda S, Heere-Ress E, et al. Carbamazepine-induced DRESS syndrome with recurrent fever and exanthema. Int J Dermatol 2004;43:51-4.
HISTORY: Depressed and sick
Mr. T, age 53, was diagnosed last year with hepatitis C and for 20 years has battled recurrent major depression with euthymia between episodes. His hepatologist asks us to evaluate his recent depressed mood and erratic behavior.
Less than 2 months ago, the hepatologist prescribed ribavirin, 1,000 mg bid, and peginterferon alfa-2B, 10 million IU/1.0 mL weekly, for hepatitis C. Soon afterward, Mr. T became irritable, especially toward his wife. He now refuses to leave his house most days because of overwhelming sadness and hopelessness. Once an avid motorcycle enthusiast, Mr. T has stopped riding and complains of fatigue, “fuzzy” thinking, and diminished concentration, but he denies suicidal thoughts or intent. He weighs 232 lb but has lost 15 lb in the last 6 weeks.
Five weeks ago, the hepatologist added bupropion XL, 150 mg/d, for Mr. T’s depressive symptoms, but the patient complained that the antidepressant “amped me up” and “made my mind race.” After 3 weeks, the hepatologist switched to escitalopram, 10 mg/d, but Mr. T’s agitation continued.
Several days after starting escitalopram, Mr. T experienced what he calls a “pink cloud” period—intensely pleasurable episodes that he says began in late childhood, usually last about 4 days, and occur 6 times annually. During these episodes, his thoughts race, his speech is mildly pressured, and he sleeps 5 hours or less nightly. While euphoric, he drives his motorcycle at 100 mph, starts several projects at once, and is distractible.
Once the “pink clouds” clear, Mr. T feels fatigued and “let down” as he does now. He says he has never reported these euphoric periods because he usually enjoys them.
Mr. T also has longstanding anxiety. Most days he is “on edge” and restless, feels muscle tension in his neck, and has trouble falling and staying sleep. After changing jobs last year, he began having panic attacks triggered by excessive worry. He denies anticipatory fear or avoidance, so we rule out panic disorder.
Additionally, Mr. T has been engaging in weekly binge-eating episodes during which he consumes nearly 50 large-sized cookies and 2 to 3 2-ounce bags of potato chips in 2 hours. He is wracked with guilt after bingeing and often feels embarrassed about being overweight (body mass index, 31 kg/m2). He does not purge but moderately restricts his diet between binges. He says he started bingeing at age 20, and at one point was bingeing 3 times a week.
Mr. T also complains that ribavirin and peginterferon are causing headaches, fatigue, and myalgias. He also takes hydrochlorothiazide, 25 mg/d, for hypertension, and is allergic to sulfonamides. He denies using alcohol and drugs but smokes 2 packs of cigarettes per day.
We diagnose bipolar II disorder based on Mr. T’s extreme mood shifts, history of major depressive episodes, recent hypomania, lack of manic or mixed episodes, and significant distress. His hypomania episodes last <1 week; episodes that last ≥1 week or require hospitalization would signal bipolar I disorder.
We rule out interferon-induced depression and hypomania1 because Mr. T showed signs of mood dysfunction long before he contracted hepatitis C. We also diagnose generalized anxiety disorder and eating disorder, not otherwise specified.
The authors’ observations
Diagnosing and managing bipolar disorder is challenging, especially when hypomania is not readily apparent.2
After we discuss treatment options with Mr. T, he chooses lamotrigine because it causes relatively few side effects and is less likely than valproic acid and other mood-stabilizing anticonvulsants to cause hepatotoxicity or pancreatitis.3 Lamotrigine also might reduce Mr. T’s anxiety.4
We do not try lithium because Mr. T is taking a diuretic (hydrochlorothiazide), which can cause lithium toxicity when used concomitantly. Also, lithium requires close laboratory monitoring, interacts with many medications, and can cause drowsiness, dry mouth, blurry vision, and fatigue.5 These
factors contraindicate lithium for Mr. T, who is taking several medications and suffers side effects from ribavirin and interferon.
Olanzapine might control Mr. T’s mood swings, but the neuroleptic can cause weight gain and metabolic syndrome6 and might complicate his eating disorder.
TREATMENT: A ‘rash’ reaction
We add lamotrigine, 25 mg/d, for 2 weeks and then increase to 50 mg/d.
Two days after the lamotrigine increase, Mr. T reports a rash on the left side of his trunk and left hip, buttock, and elbow (Figure). He also complains of mild chills and night sweats, although these symptoms emerged several weeks ago. He denies blistering, fevers, dysuria, nausea, or vomiting. We see no signs of lymphadenopathy, and mucosae are unaffected. Since he started lamotrigine, he says, he has not tried unfamiliar brands of shampoos, laundry detergents, or shower gels that might irritate his skin.
Figure: Did lamotrigine cause Mr. T’s rash?
Folliculocentric pustules around patient’s left elbow and throughout his left side.We have Mr. T come in that day for an emergency physical examination. At presentation, the rash appears infectious with isolated pustules throughout. We refer him to a dermatologist for same-day evaluation.
The authors’ observations
A rash is an immunologic reaction to an offending agent. If lamotrigine were causing the rash, lowering the dosage would not mitigate it.
We continued lamotrigine because the dermatologist could examine the rash within 24 hours of Mr. T’s complaint. Also, the agent was decreasing the patient’s mood, irritability, and anger. If we believed lamotrigine was causing the rash and could not obtain an immediate dermatology consult, we would have stopped the medication.
FOLLOW-UP: ‘Hot’ findings
During the patient history interview, the dermatologist discovers that Mr. T recently installed a whirlpool bath, and that the eruption occurred 3 to 5 days after the patient first used it. Physical examination shows groups of discrete folliculocentric pustules with surrounding erythema mainly on his extensor surfaces and left buttock. These findings and Mr. T’s history suggest a skin infection.
The dermatologist diagnoses hot tub folliculitis, an infection caused by exposure to contaminated whirlpools, hot tubs, or water slides. Cultures obtained that day grow Pseudomonas aeruginosa, confirming the diagnosis. The dermatologist tells Mr. T to stop using his whirlpool bath and prescribes topical gentamicin and ciprofloxacin, 500 mg bid for 10 days. We continue lamotrigine based on the dermatologist’s recommendation.
Two weeks later, Mr. T’s eruption resolves, and we increase lamotrigine to 100 mg/d, which improves his mood and achieves steady-state effectiveness.7 We continue escitalopram, 10 mg/d, then increase to 20 mg/d to treat his generalized anxiety. Mr. T begins experiencing anorgasmia 1 week after the escitalopram increase, so we switch to buspirone, 15 mg bid. After another 4 weeks, his anger, irritability, panic attacks, anxiety, and depression have diminished.
After 3 months, Mr. T’s hepatologist stops ribavirin and peginterferon because they are not helping his hepatitis C infection. Days later, Mr. T’s chills, sweats, and fatigue remit.
The hepatologist considers an experimental hepatitis C
medication.
We see Mr. T once monthly for supportive psychotherapy and medication management. Despite divorce proceedings and persistent mild depression he is optimistic, enjoys work, and rides his motorcycle safely twice a week.
The authors’ observations
Although Mr. T’s presentation and patient history clearly suggested an independent skin infection, distinguishing between an infection and anticonvulsant-induced rash can be difficult.
Lamotrigine and other antiepileptics (Table 1)8 have been associated with morbilliform eruptions, anticonvulsant hypersensitivity syndrome, erythema multiforme, Stevens-Johnson syndrome (SJS), and toxic epidermal necrolysis (TEN), a severe form of SJS with a 20% to 30% mortality rate.9,10
Table 1
Estimated risk of severe rash among first-time antiepileptic users*
Drug | Total new users† | Total SJS/TEN cases | Risk per 10,000 new users |
---|---|---|---|
Carbamazepine | 286,360 | 39 | 1.4 |
Lamotrigine | 55,154 | 14 | 2.5 |
Phenobarbital | 8,659 | 7 | 8.1 |
Phenytoin | 36,171 | 30 | 8.3 |
Valproic acid | 103,150 | 4 | 0.4 |
* Researchers reviewed records of patients hospitalized between 1998 and 2001 with SJS or TEN after using an anticonvulsant. | |||
† Estimates based on number of dispensed prescriptions, average prescribed dosages, and duration of anticonvulsant use as recorded in Germany’s Mediplus database. | |||
SJS: Stevens-Johnson syndrome; TEN: toxic epidermal necrolysis | |||
Source: Adapted from reference 8 |
Although most lamotrigine-induced cutaneous eruptions are mild or self-limited, some are severe and potentially fatal. In clinical trials, approximately 10% of patients receiving lamotrigine for epilepsy developed cutaneous reactions.11 Among 3,348 patients with epilepsy who received lamotrigine, 11 (0.3%) required hospitalization for SJS or TEN.11
Anticonvulsant hypersensitivity syndrome, estimated to occur once per 1,000 to 10,000 exposures to anticonvulsants,12 can lead to fever, lymphadenopathy, hepatomegaly, and arthralgias. Although hypersensitivity to aromatic anticonvulsants such as phenytoin, carbamazepine, or phenobarbital is most common, hypersensitivity to lamotrigine also has been reported.13,14
Roughly 90% of patients with anticonvulsant hypersensitivity syndrome develop leukocytosis with eosinophilia, and some develop leukocytosis with agranulocytosis.15-17 Fulminant hepatitis can occur, which leads to most deaths associated with this syndrome.
4 steps to gauging rash
Taking a thorough history, examining the eruption, ordering liver function tests (LFTs) and a complete blood count (CBC), and referring the patient to a dermatologist are key to determining the seriousness of an eruption and planning treatment in patients taking anticonvulsants (Table 2). See the patient within 12 hours after he reports the rash, as SJS and TEN often progress rapidly.
Table 2
4 steps to determining rash severity and cause
Take a thorough history | Find out when eruption occurred and when patient started the anticonvulsant |
Ask about past rashes, other medicines, and family history of reactions to medications | |
Find out if patient has had fever/chills, malaise, lymphadenopathy, or mucosal symptoms such as photophobia or dysuria | |
Examine the eruption | Examine for mucosal involvement, facial edema, and blistering; describe the symmetry and extent of involvement |
Look for systemic findings such as fever, chills, lymphadenopathy, and organomegaly | |
Photograph the eruption for the dermatologist if possible | |
Order laboratory tests | Order liver function tests and complete blood count with differentials; assess for eosinophilia |
Closely monitor patient | Stop anticonvulsant if history, physical findings suggest a drug-induced eruption |
Refer patient to a dermatologist |
STEP 1: Take a thorough history
Ask the patient:
What medications are you taking? Because more than 100 medications could cause SJS or TEN, a detailed drug history is critical to determining whether a medication has induced the eruption.
When did you start taking the potentially offending medication? True lamotrigine-induced eruptions usually occur 5 days to 8 weeks after the first dose.10 SJS and TEN generally take 1 to 2 weeks to develop.
What is your current dosage? Has it increased or decreased recently? Rapid lamotrigine dosage escalations or use of lamotrigine with valproic acid can cause severe rash.9,10,18 Valproic acid increases serum lamotrigine by inhibiting its hepatic metabolism, thereby raising side-effect risk. In clinical trials, 30% of patients who received both anticonvulsants developed a rash.10
Have any family members had rashes after taking an anticonvulsant? Compared with the general population, siblings and first-degree relatives of patients with anticonvulsant-related eruptions are at higher risk for this complication.19 Decreased epoxide hydrolase activity might negate these patients’ ability to detoxify the arene oxide metabolite, which can cause adverse effects if it accumulates.
Do you have other medical problems? Hepatitis C, for example, can theoretically increase lamotrigine’s half-life, thereby elevating side-effect risk.11
Watch for anticonvulsant-related adverse events in patients with hepatic insufficiency because hepatitis might hinder anticonvulsant metabolism.20 Other medical comorbidities—such as HIV infection and systemic lupus erythematosus—also could increase the risk of antiepileptic-induced rash.10
Have you had fever, chills, or other symptoms? Patients with SJS and TEN usually present with systemic symptoms such as malaise, rash, lymphadenopathy, mucosal lesions, and/or symptoms such as photophobia, difficulty swallowing, rectal erosions, or dysuria. Patients with anticonvulsant hypersensitivity syndrome typically have fever and associated arthralgias, skin pain, lymphadenopathy, or a burning sensation on their skin. These symptoms generally are absent in localized cutaneous infections.
STEP 2: Examine the eruption
Cutaneous SJS and TEN findings usually include abrupt onset of erythematous macules—which progress to targetoid lesions containing central bullae—followed by extensive epidermal necrosis. Superficial lip and mouth necrosis occur early, leading to severe stomatitis.
TEN and SJS can appear similar clinically, but TEN
covers >30% of body surface area, whereas SJS covers <10%.
Rashes that cover 10% to 30% of body surface suggest SJS-TEN overlap syndrome.
Anticonvulsant hypersensitivity syndrome usually manifests as
a morbilliform eruption on the face, arms, and/or torso. The
lesions might become edematous and progress to exfoliation or vesiculobullae. Facial edema is a hallmark of anticonvulsant hypersensitivity,15,16 and pustules and/or erythroderma might also appear. Other warning signs include symmetrical widespread eruption and organomegaly.
STEP 3: Order laboratory tests
Check liver function and order a CBC with differential to measure eosinophils. Eosinophilia and abnormal LFT results can signal anticonvulsant hypersensitivity.
Eosinophils. A normal eosinophil count ranges between 0% and 5% of peripheral blood leukocytes in adults, at a count of 350 to 650/cm. Although upper limits of normal vary, values >500/cm suggest hypereosinophilia.21
LFTs. Normal aspartate aminotransferase and alanine aminotransferase levels are 0 to 42 U/L and 0 to 48 U/L, respectively. Any LFT elevation could signal anticonvulsant hypersensitivity syndrome.
STEP 4: Closely monitor the patient
Discontinue the anticonvulsant if findings suggest a cutaneous drug reaction, and contact the patient’s primary care physician or dermatologist immediately. Early consultation with a dermatologist can help determine the eruption’s cause and reveal therapeutic options.
Dr. Pejic is chief resident in the adult psychiatry residency program, Louisiana State University Health Sciences Center and Ochsner Clinic Foundation, New Orleans.
Dr. Klinger is a third-year dermatology resident, Dr. Conrad is assistant professor of clinical psychiatry, and Dr. Nesbitt is chairman, department of dermatology, Louisiana State University Health Sciences Center.
Related Resources
- High WA. Stevens-Johnson syndrome and toxic epidermal necrolysis in adults. UpToDate Online (version 15.1); June 9, 2007. www.uptodate.com.
- Martin KA, Krahn LE, Rosati MJ, Balan V. Hepatitis C: How to manage mood during interferon treatment. Current Psychiatry 2006;5(11):69-80. http://www.currentpsychiatry.com/article_pages.asp?AID=4553.
Drug Brand Names
- Bupropion • Wellbutrin
- Buspirone • BuSpar
- Carbamazepine • Tegretol, Equetro, others
- Ciprofloxacin • Cipro, Proquin
- Escitalopram • Lexapro
- Hydrochlorothiazide • various
- Lamotrigine • Lamictal
- Lithium • Eskalith, others
- Olanzapine • Zyprexa
- Peginterferon alfa-2B • PEG-Intron
- Phenytoin • Dilantin
- Ribavirin • Copegus, Rebetol, others
- Valproic acid • Depakote
Disclosure
Dr. Conrad receives research/grant support from AstraZeneca, Bristol-Myers Squibb, Forest Pharmaceuticals, GlaxoSmithKline, and Wyeth.
Drs. Pejic, Nesbitt, and Klinger report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
HISTORY: Depressed and sick
Mr. T, age 53, was diagnosed last year with hepatitis C and for 20 years has battled recurrent major depression with euthymia between episodes. His hepatologist asks us to evaluate his recent depressed mood and erratic behavior.
Less than 2 months ago, the hepatologist prescribed ribavirin, 1,000 mg bid, and peginterferon alfa-2B, 10 million IU/1.0 mL weekly, for hepatitis C. Soon afterward, Mr. T became irritable, especially toward his wife. He now refuses to leave his house most days because of overwhelming sadness and hopelessness. Once an avid motorcycle enthusiast, Mr. T has stopped riding and complains of fatigue, “fuzzy” thinking, and diminished concentration, but he denies suicidal thoughts or intent. He weighs 232 lb but has lost 15 lb in the last 6 weeks.
Five weeks ago, the hepatologist added bupropion XL, 150 mg/d, for Mr. T’s depressive symptoms, but the patient complained that the antidepressant “amped me up” and “made my mind race.” After 3 weeks, the hepatologist switched to escitalopram, 10 mg/d, but Mr. T’s agitation continued.
Several days after starting escitalopram, Mr. T experienced what he calls a “pink cloud” period—intensely pleasurable episodes that he says began in late childhood, usually last about 4 days, and occur 6 times annually. During these episodes, his thoughts race, his speech is mildly pressured, and he sleeps 5 hours or less nightly. While euphoric, he drives his motorcycle at 100 mph, starts several projects at once, and is distractible.
Once the “pink clouds” clear, Mr. T feels fatigued and “let down” as he does now. He says he has never reported these euphoric periods because he usually enjoys them.
Mr. T also has longstanding anxiety. Most days he is “on edge” and restless, feels muscle tension in his neck, and has trouble falling and staying sleep. After changing jobs last year, he began having panic attacks triggered by excessive worry. He denies anticipatory fear or avoidance, so we rule out panic disorder.
Additionally, Mr. T has been engaging in weekly binge-eating episodes during which he consumes nearly 50 large-sized cookies and 2 to 3 2-ounce bags of potato chips in 2 hours. He is wracked with guilt after bingeing and often feels embarrassed about being overweight (body mass index, 31 kg/m2). He does not purge but moderately restricts his diet between binges. He says he started bingeing at age 20, and at one point was bingeing 3 times a week.
Mr. T also complains that ribavirin and peginterferon are causing headaches, fatigue, and myalgias. He also takes hydrochlorothiazide, 25 mg/d, for hypertension, and is allergic to sulfonamides. He denies using alcohol and drugs but smokes 2 packs of cigarettes per day.
We diagnose bipolar II disorder based on Mr. T’s extreme mood shifts, history of major depressive episodes, recent hypomania, lack of manic or mixed episodes, and significant distress. His hypomania episodes last <1 week; episodes that last ≥1 week or require hospitalization would signal bipolar I disorder.
We rule out interferon-induced depression and hypomania1 because Mr. T showed signs of mood dysfunction long before he contracted hepatitis C. We also diagnose generalized anxiety disorder and eating disorder, not otherwise specified.
The authors’ observations
Diagnosing and managing bipolar disorder is challenging, especially when hypomania is not readily apparent.2
After we discuss treatment options with Mr. T, he chooses lamotrigine because it causes relatively few side effects and is less likely than valproic acid and other mood-stabilizing anticonvulsants to cause hepatotoxicity or pancreatitis.3 Lamotrigine also might reduce Mr. T’s anxiety.4
We do not try lithium because Mr. T is taking a diuretic (hydrochlorothiazide), which can cause lithium toxicity when used concomitantly. Also, lithium requires close laboratory monitoring, interacts with many medications, and can cause drowsiness, dry mouth, blurry vision, and fatigue.5 These
factors contraindicate lithium for Mr. T, who is taking several medications and suffers side effects from ribavirin and interferon.
Olanzapine might control Mr. T’s mood swings, but the neuroleptic can cause weight gain and metabolic syndrome6 and might complicate his eating disorder.
TREATMENT: A ‘rash’ reaction
We add lamotrigine, 25 mg/d, for 2 weeks and then increase to 50 mg/d.
Two days after the lamotrigine increase, Mr. T reports a rash on the left side of his trunk and left hip, buttock, and elbow (Figure). He also complains of mild chills and night sweats, although these symptoms emerged several weeks ago. He denies blistering, fevers, dysuria, nausea, or vomiting. We see no signs of lymphadenopathy, and mucosae are unaffected. Since he started lamotrigine, he says, he has not tried unfamiliar brands of shampoos, laundry detergents, or shower gels that might irritate his skin.
Figure: Did lamotrigine cause Mr. T’s rash?
Folliculocentric pustules around patient’s left elbow and throughout his left side.We have Mr. T come in that day for an emergency physical examination. At presentation, the rash appears infectious with isolated pustules throughout. We refer him to a dermatologist for same-day evaluation.
The authors’ observations
A rash is an immunologic reaction to an offending agent. If lamotrigine were causing the rash, lowering the dosage would not mitigate it.
We continued lamotrigine because the dermatologist could examine the rash within 24 hours of Mr. T’s complaint. Also, the agent was decreasing the patient’s mood, irritability, and anger. If we believed lamotrigine was causing the rash and could not obtain an immediate dermatology consult, we would have stopped the medication.
FOLLOW-UP: ‘Hot’ findings
During the patient history interview, the dermatologist discovers that Mr. T recently installed a whirlpool bath, and that the eruption occurred 3 to 5 days after the patient first used it. Physical examination shows groups of discrete folliculocentric pustules with surrounding erythema mainly on his extensor surfaces and left buttock. These findings and Mr. T’s history suggest a skin infection.
The dermatologist diagnoses hot tub folliculitis, an infection caused by exposure to contaminated whirlpools, hot tubs, or water slides. Cultures obtained that day grow Pseudomonas aeruginosa, confirming the diagnosis. The dermatologist tells Mr. T to stop using his whirlpool bath and prescribes topical gentamicin and ciprofloxacin, 500 mg bid for 10 days. We continue lamotrigine based on the dermatologist’s recommendation.
Two weeks later, Mr. T’s eruption resolves, and we increase lamotrigine to 100 mg/d, which improves his mood and achieves steady-state effectiveness.7 We continue escitalopram, 10 mg/d, then increase to 20 mg/d to treat his generalized anxiety. Mr. T begins experiencing anorgasmia 1 week after the escitalopram increase, so we switch to buspirone, 15 mg bid. After another 4 weeks, his anger, irritability, panic attacks, anxiety, and depression have diminished.
After 3 months, Mr. T’s hepatologist stops ribavirin and peginterferon because they are not helping his hepatitis C infection. Days later, Mr. T’s chills, sweats, and fatigue remit.
The hepatologist considers an experimental hepatitis C
medication.
We see Mr. T once monthly for supportive psychotherapy and medication management. Despite divorce proceedings and persistent mild depression he is optimistic, enjoys work, and rides his motorcycle safely twice a week.
The authors’ observations
Although Mr. T’s presentation and patient history clearly suggested an independent skin infection, distinguishing between an infection and anticonvulsant-induced rash can be difficult.
Lamotrigine and other antiepileptics (Table 1)8 have been associated with morbilliform eruptions, anticonvulsant hypersensitivity syndrome, erythema multiforme, Stevens-Johnson syndrome (SJS), and toxic epidermal necrolysis (TEN), a severe form of SJS with a 20% to 30% mortality rate.9,10
Table 1
Estimated risk of severe rash among first-time antiepileptic users*
Drug | Total new users† | Total SJS/TEN cases | Risk per 10,000 new users |
---|---|---|---|
Carbamazepine | 286,360 | 39 | 1.4 |
Lamotrigine | 55,154 | 14 | 2.5 |
Phenobarbital | 8,659 | 7 | 8.1 |
Phenytoin | 36,171 | 30 | 8.3 |
Valproic acid | 103,150 | 4 | 0.4 |
* Researchers reviewed records of patients hospitalized between 1998 and 2001 with SJS or TEN after using an anticonvulsant. | |||
† Estimates based on number of dispensed prescriptions, average prescribed dosages, and duration of anticonvulsant use as recorded in Germany’s Mediplus database. | |||
SJS: Stevens-Johnson syndrome; TEN: toxic epidermal necrolysis | |||
Source: Adapted from reference 8 |
Although most lamotrigine-induced cutaneous eruptions are mild or self-limited, some are severe and potentially fatal. In clinical trials, approximately 10% of patients receiving lamotrigine for epilepsy developed cutaneous reactions.11 Among 3,348 patients with epilepsy who received lamotrigine, 11 (0.3%) required hospitalization for SJS or TEN.11
Anticonvulsant hypersensitivity syndrome, estimated to occur once per 1,000 to 10,000 exposures to anticonvulsants,12 can lead to fever, lymphadenopathy, hepatomegaly, and arthralgias. Although hypersensitivity to aromatic anticonvulsants such as phenytoin, carbamazepine, or phenobarbital is most common, hypersensitivity to lamotrigine also has been reported.13,14
Roughly 90% of patients with anticonvulsant hypersensitivity syndrome develop leukocytosis with eosinophilia, and some develop leukocytosis with agranulocytosis.15-17 Fulminant hepatitis can occur, which leads to most deaths associated with this syndrome.
4 steps to gauging rash
Taking a thorough history, examining the eruption, ordering liver function tests (LFTs) and a complete blood count (CBC), and referring the patient to a dermatologist are key to determining the seriousness of an eruption and planning treatment in patients taking anticonvulsants (Table 2). See the patient within 12 hours after he reports the rash, as SJS and TEN often progress rapidly.
Table 2
4 steps to determining rash severity and cause
Take a thorough history | Find out when eruption occurred and when patient started the anticonvulsant |
Ask about past rashes, other medicines, and family history of reactions to medications | |
Find out if patient has had fever/chills, malaise, lymphadenopathy, or mucosal symptoms such as photophobia or dysuria | |
Examine the eruption | Examine for mucosal involvement, facial edema, and blistering; describe the symmetry and extent of involvement |
Look for systemic findings such as fever, chills, lymphadenopathy, and organomegaly | |
Photograph the eruption for the dermatologist if possible | |
Order laboratory tests | Order liver function tests and complete blood count with differentials; assess for eosinophilia |
Closely monitor patient | Stop anticonvulsant if history, physical findings suggest a drug-induced eruption |
Refer patient to a dermatologist |
STEP 1: Take a thorough history
Ask the patient:
What medications are you taking? Because more than 100 medications could cause SJS or TEN, a detailed drug history is critical to determining whether a medication has induced the eruption.
When did you start taking the potentially offending medication? True lamotrigine-induced eruptions usually occur 5 days to 8 weeks after the first dose.10 SJS and TEN generally take 1 to 2 weeks to develop.
What is your current dosage? Has it increased or decreased recently? Rapid lamotrigine dosage escalations or use of lamotrigine with valproic acid can cause severe rash.9,10,18 Valproic acid increases serum lamotrigine by inhibiting its hepatic metabolism, thereby raising side-effect risk. In clinical trials, 30% of patients who received both anticonvulsants developed a rash.10
Have any family members had rashes after taking an anticonvulsant? Compared with the general population, siblings and first-degree relatives of patients with anticonvulsant-related eruptions are at higher risk for this complication.19 Decreased epoxide hydrolase activity might negate these patients’ ability to detoxify the arene oxide metabolite, which can cause adverse effects if it accumulates.
Do you have other medical problems? Hepatitis C, for example, can theoretically increase lamotrigine’s half-life, thereby elevating side-effect risk.11
Watch for anticonvulsant-related adverse events in patients with hepatic insufficiency because hepatitis might hinder anticonvulsant metabolism.20 Other medical comorbidities—such as HIV infection and systemic lupus erythematosus—also could increase the risk of antiepileptic-induced rash.10
Have you had fever, chills, or other symptoms? Patients with SJS and TEN usually present with systemic symptoms such as malaise, rash, lymphadenopathy, mucosal lesions, and/or symptoms such as photophobia, difficulty swallowing, rectal erosions, or dysuria. Patients with anticonvulsant hypersensitivity syndrome typically have fever and associated arthralgias, skin pain, lymphadenopathy, or a burning sensation on their skin. These symptoms generally are absent in localized cutaneous infections.
STEP 2: Examine the eruption
Cutaneous SJS and TEN findings usually include abrupt onset of erythematous macules—which progress to targetoid lesions containing central bullae—followed by extensive epidermal necrosis. Superficial lip and mouth necrosis occur early, leading to severe stomatitis.
TEN and SJS can appear similar clinically, but TEN
covers >30% of body surface area, whereas SJS covers <10%.
Rashes that cover 10% to 30% of body surface suggest SJS-TEN overlap syndrome.
Anticonvulsant hypersensitivity syndrome usually manifests as
a morbilliform eruption on the face, arms, and/or torso. The
lesions might become edematous and progress to exfoliation or vesiculobullae. Facial edema is a hallmark of anticonvulsant hypersensitivity,15,16 and pustules and/or erythroderma might also appear. Other warning signs include symmetrical widespread eruption and organomegaly.
STEP 3: Order laboratory tests
Check liver function and order a CBC with differential to measure eosinophils. Eosinophilia and abnormal LFT results can signal anticonvulsant hypersensitivity.
Eosinophils. A normal eosinophil count ranges between 0% and 5% of peripheral blood leukocytes in adults, at a count of 350 to 650/cm. Although upper limits of normal vary, values >500/cm suggest hypereosinophilia.21
LFTs. Normal aspartate aminotransferase and alanine aminotransferase levels are 0 to 42 U/L and 0 to 48 U/L, respectively. Any LFT elevation could signal anticonvulsant hypersensitivity syndrome.
STEP 4: Closely monitor the patient
Discontinue the anticonvulsant if findings suggest a cutaneous drug reaction, and contact the patient’s primary care physician or dermatologist immediately. Early consultation with a dermatologist can help determine the eruption’s cause and reveal therapeutic options.
Dr. Pejic is chief resident in the adult psychiatry residency program, Louisiana State University Health Sciences Center and Ochsner Clinic Foundation, New Orleans.
Dr. Klinger is a third-year dermatology resident, Dr. Conrad is assistant professor of clinical psychiatry, and Dr. Nesbitt is chairman, department of dermatology, Louisiana State University Health Sciences Center.
Related Resources
- High WA. Stevens-Johnson syndrome and toxic epidermal necrolysis in adults. UpToDate Online (version 15.1); June 9, 2007. www.uptodate.com.
- Martin KA, Krahn LE, Rosati MJ, Balan V. Hepatitis C: How to manage mood during interferon treatment. Current Psychiatry 2006;5(11):69-80. http://www.currentpsychiatry.com/article_pages.asp?AID=4553.
Drug Brand Names
- Bupropion • Wellbutrin
- Buspirone • BuSpar
- Carbamazepine • Tegretol, Equetro, others
- Ciprofloxacin • Cipro, Proquin
- Escitalopram • Lexapro
- Hydrochlorothiazide • various
- Lamotrigine • Lamictal
- Lithium • Eskalith, others
- Olanzapine • Zyprexa
- Peginterferon alfa-2B • PEG-Intron
- Phenytoin • Dilantin
- Ribavirin • Copegus, Rebetol, others
- Valproic acid • Depakote
Disclosure
Dr. Conrad receives research/grant support from AstraZeneca, Bristol-Myers Squibb, Forest Pharmaceuticals, GlaxoSmithKline, and Wyeth.
Drs. Pejic, Nesbitt, and Klinger report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Crone CC, Gabriel GM, Wise TN. Managing the neuropsychiatric side effects of interferon-based therapy for hepatitis C. Cleve Clin J Med 2004;71(suppl 3):S27-S32.
2. Phelps JR, Ghaemi SN. Improving the diagnosis of bipolar disorder: predictive value of screening tests. J Affect Disord 2006;92:141-8.
3. Lacerda G, Krummel T, Sabourdy C, et al. Optimizing therapy of seizures in patients with renal or hepatic dysfunction. Neurology 2006;67(suppl 4):S28-S33.
4. Yumru M, Savas HA, Kurt E, et al. Atypical antipsychotics related metabolic syndrome in bipolar patients. J Affect Disord 2007;98:247-52.
5. Finley PR, Warner MD, Peabody CA. Clinical relevance of drug interactions with lithium. Clin Pharmacokinet 1995;3:172-91.
6. Keck PE, Jr, Strawn JR, McElroy SL. Pharmacologic treatment considerations in co-occurring bipolar and anxiety disorders. J Clin Psychiatry 2006;67(suppl 1):S8-S15.
7. Sachs GS, Printz DJ, Kahn DA, et al. The expert consensus guidelines: medication treatment of bipolar disorder 2000. A postgraduate medicine special report. New York: McGraw-Hill; 2000:24.
8. Mockenhaupt M, Messenheimer J, Tennis P, Schlingmann J. Risk of Stevens-Johnson syndrome and toxic epidermal necrolysis in new users of antiepileptics. Neurology 2005;64:1134-8.
9. Schlienger RG, Shapiro LE, Shear NH. Lamotrigine-induced severe cutaneous adverse reactions. Epilepsia 1998;29(suppl 7):S22-S26.
10. Calabrese JR, Sullivan JR, Bowden CL, et al. Rash in multicenter trials of lamotrigine in mood disorders: clinical relevance and management. J Clin Psychiatry 2002;63:1012-19.
11. Physicians’ desk reference. 61st ed. Montvale, NJ: Thomson PDR; 2007:1483-4, 1488.
12. Knowles SR, Shapiro LE, Shear NH. Anticonvulsant hypersensitivity syndrome: incidence, prevention and management. Drug Saf 1999;21:489-501.
13. Tennis P, Stern RS. Risk of serious cutaneous disorders after initiation of use of phenytoin, carbamazepine, or sodium valproate: a record linkage study. Neurology 1997;49:542-6.
14. Knowles SR, Shapiro LE, Shear NH. Anticonvulsant hypersensitivity syndrome: incidence, prevention and management. Drug Saf 1999;21:489-501.
15. Chang DK, Shear NH. Cutaneous reactions to anticonvulsants. Semin Neurol 1992;12:329-7.
16. Vittorio CC, Muglia JJ. Anticonvulsant hypersensitivity syndrome. Arch Intern Med 1995;155:2285-90.
17. Callot V, Roujeau JC, Bagot M, et al. Drug induced pseudo-lymphoma and hypersensitivity syndrome. Two different clinical entities. Arch Dermatol 1996;132:1315-21.
18. Yalcin B, Karaduman A. Stevens-Johnson syndrome associated with concomitant use of lamotrigine and valproic acid. J Am Acad Dermatol 2000;43:898-9.
19. Gennis MA, Vemuri R, Burns EA, et al. Familial occurrence of hypersensitivity to phenytoin. Am J Med 1991;91:631-4.
20. McLaren KD, Marangell LB. Special considerations in the treatment of patients with bipolar disorder and medical comorbidities. Ann Gen Hosp Psychiatry 2004;3:7.-
21. Valencak J, Ortiz-Urda S, Heere-Ress E, et al. Carbamazepine-induced DRESS syndrome with recurrent fever and exanthema. Int J Dermatol 2004;43:51-4.
1. Crone CC, Gabriel GM, Wise TN. Managing the neuropsychiatric side effects of interferon-based therapy for hepatitis C. Cleve Clin J Med 2004;71(suppl 3):S27-S32.
2. Phelps JR, Ghaemi SN. Improving the diagnosis of bipolar disorder: predictive value of screening tests. J Affect Disord 2006;92:141-8.
3. Lacerda G, Krummel T, Sabourdy C, et al. Optimizing therapy of seizures in patients with renal or hepatic dysfunction. Neurology 2006;67(suppl 4):S28-S33.
4. Yumru M, Savas HA, Kurt E, et al. Atypical antipsychotics related metabolic syndrome in bipolar patients. J Affect Disord 2007;98:247-52.
5. Finley PR, Warner MD, Peabody CA. Clinical relevance of drug interactions with lithium. Clin Pharmacokinet 1995;3:172-91.
6. Keck PE, Jr, Strawn JR, McElroy SL. Pharmacologic treatment considerations in co-occurring bipolar and anxiety disorders. J Clin Psychiatry 2006;67(suppl 1):S8-S15.
7. Sachs GS, Printz DJ, Kahn DA, et al. The expert consensus guidelines: medication treatment of bipolar disorder 2000. A postgraduate medicine special report. New York: McGraw-Hill; 2000:24.
8. Mockenhaupt M, Messenheimer J, Tennis P, Schlingmann J. Risk of Stevens-Johnson syndrome and toxic epidermal necrolysis in new users of antiepileptics. Neurology 2005;64:1134-8.
9. Schlienger RG, Shapiro LE, Shear NH. Lamotrigine-induced severe cutaneous adverse reactions. Epilepsia 1998;29(suppl 7):S22-S26.
10. Calabrese JR, Sullivan JR, Bowden CL, et al. Rash in multicenter trials of lamotrigine in mood disorders: clinical relevance and management. J Clin Psychiatry 2002;63:1012-19.
11. Physicians’ desk reference. 61st ed. Montvale, NJ: Thomson PDR; 2007:1483-4, 1488.
12. Knowles SR, Shapiro LE, Shear NH. Anticonvulsant hypersensitivity syndrome: incidence, prevention and management. Drug Saf 1999;21:489-501.
13. Tennis P, Stern RS. Risk of serious cutaneous disorders after initiation of use of phenytoin, carbamazepine, or sodium valproate: a record linkage study. Neurology 1997;49:542-6.
14. Knowles SR, Shapiro LE, Shear NH. Anticonvulsant hypersensitivity syndrome: incidence, prevention and management. Drug Saf 1999;21:489-501.
15. Chang DK, Shear NH. Cutaneous reactions to anticonvulsants. Semin Neurol 1992;12:329-7.
16. Vittorio CC, Muglia JJ. Anticonvulsant hypersensitivity syndrome. Arch Intern Med 1995;155:2285-90.
17. Callot V, Roujeau JC, Bagot M, et al. Drug induced pseudo-lymphoma and hypersensitivity syndrome. Two different clinical entities. Arch Dermatol 1996;132:1315-21.
18. Yalcin B, Karaduman A. Stevens-Johnson syndrome associated with concomitant use of lamotrigine and valproic acid. J Am Acad Dermatol 2000;43:898-9.
19. Gennis MA, Vemuri R, Burns EA, et al. Familial occurrence of hypersensitivity to phenytoin. Am J Med 1991;91:631-4.
20. McLaren KD, Marangell LB. Special considerations in the treatment of patients with bipolar disorder and medical comorbidities. Ann Gen Hosp Psychiatry 2004;3:7.-
21. Valencak J, Ortiz-Urda S, Heere-Ress E, et al. Carbamazepine-induced DRESS syndrome with recurrent fever and exanthema. Int J Dermatol 2004;43:51-4.
Unhappy feet: One woman’s severe akathisia
HISTORY: ‘Bizarre’ days
Ms. K, age 45, is brought to the ER by her brother, who reports she has been acting “bizarre and crazy” for 3 days. He says his sister—who has bipolar I disorder— has had trouble sleeping, is restless, hears voices, and is contemplating suicide. He adds she was discharged from a psychiatric hospital 2 weeks ago after a 3-month stay.
Risperidone, 2 mg nightly, was controlling Ms. K’s mania until this recent episode. According to her brother, she also has developed continuous involuntary leg and arm movements and cannot sit or stand still. When she tries to sleep, her feet sway back and forth in bed for hours.
We admit Ms. K to the psychiatric inpatient unit because of her suicidality and hallucinations. She is restless and agitated during initial evaluation, pacing around the room or rocking her feet while standing or sitting. Her speech is pressured and the “voices” are urging her to kill herself.
Ms. K is dysphoric and severely distraught about her “nervousness” and continuous urges to move. She says she would rather die than live with incessantly “jittery” legs and arms, yet she wants to be discharged and denies that she is mentally ill. She believes decreased sleep is causing her symptoms and requests a “sleeping pill.”
she habitually views her medications as useless and stops taking them.
The patient has been hospitalized at least 4 times with severe manic and psychotic symptoms. She does not use illicit drugs and is medically healthy.
The authors’ observations
Ms. K’s involuntary movements suggest akathisia, a common extrapyramidal side effect of antipsychotics and other psychotropics (Table).1
Akathisia is characterized by strong feelings of inner restlessness that manifest as excessive walking or pacing and difficulty remaining still. Ms. K’s movements met at least 2 of 5 DSM-IV-TR criteria for acute akathisia (Box). ,2
Akathisia is characterized by at least 5 subtypes: 3
- Acute akathisia begins hours or days after starting the offending medication and lasts
- Tardive is similar to acute akathisia but can arise within 3 to 4 months of starting the offending medication and persists for years.
- Chronic akathisia lasts ≥3 months and usually has no temporal correlation with antipsychotic initiation or dosage increase.4
- Withdrawal akathisia begins within 6 weeks of discontinuing a medication or significantly reducing the dosage.
- Pseudo akathisia consists of objective symptoms of movement without subjective awareness or distress. This subtype usually is seen in older patients.
history of medication nonadherence strongly suggest akathisia secondary to risperidone withdrawal.5 Several
cases of akathisia after risperidone cessation have been reported.5
We know risperidone is not causing acute akathisia because Ms. K responded well to the medication during her last hospitalization with no adverse effects. Also, her family confirmed that she stopped taking risperidone after her most recent discharge.
Mania also can fuel incessant movement and increase physical activity, but patients often do not realize they have a problem while in a manic phase. Also, swinging and rocking of legs is rarely seen in mania. By contrast, Ms. K was morbidly distraught over her akathisia.
Table
Drugs that can cause akathisia
|
The authors’ observations
Numerous treatments are available for akathisia:
Beta blockers such as propranolol are most widely used because of their rapid onset of action and overall effectiveness in akathisia.3 Researchers believe these drugs reduce extrapyramidal symptoms (EPS) by blocking the adrenergic system. Propranolol can be used at a maximum 120 mg/d in divided doses.
Beta blockers, however, can cause bradycardia, hypotension, or respiratory distress. Use beta blockers with caution, and monitor for these adverse effects.
Benzodiazepines. Clonazepam, which enhances the inhibitory effect of GABA in the brain, is commonly used for akathisia because of its effectiveness and long elimination half-life3 (30 to 40 hours), which decreases the risk of medication withdrawal.
and disinhibition-induced aggression in all patients.
Anticholinergics such as trihexyphenidyl are more commonly used for EPS associated with parkinsonian symptoms or side effects but can be partially effective for akathisia.3 Anticholinergics block the CNS cholinergic activity that causes parkinsonian symptoms.
Cyproheptadine, clonidine, and mianserin have shown some positive results against akathisia in clinical trials.6-8 Iron, nicotine patches, and amantadine have shown limited effectiveness against akathisia in research studies and case reports.3,9
Restarting risperidone at a lower dosage—rather than adding a medication— might have resolved Ms. K’s akathisia, but because she was morbidly despondent over her akathisia, we felt we had no time to experiment. We also believed Ms. K’s would respond well to a neuroleptic with a lower EPS risk—such as quetiapine.1,10
A. Subjective complaints of restlessness after exposure to neuroleptics
B. At least 1 of the following is observed:
- Fidgety movements or swinging of the legs
- Rocking from foot to foot while standing
- Pacing to relieve restlessness
- Inability to sit or stand still for at least several minutes
C. Symptoms develop within 4 weeks of starting or raising the dosage of a neuroleptic or after reducing a medication used to treat extrapyramidal symptoms
D. Criterion A symptoms are not better accounted for by a mental disorder
E. Criterion A symptoms are not caused by a nonneuroleptic or a general medical condition
Source: Adapted from reference 2 with permission
TREATMENT: Trying trials
We perform a complete medical workup to rule out an underlying medical problem. We then start valproic acid, 500 mg bid, for Ms. K’s mania; quetiapine, 50 mg bid, for psychosis and mania; and propranolol, 30 mg bid, for akathisia.
We titrate quetiapine by 100 mg/d every 2 days to 400 mg/d, but after 10 days her akathisia, irritable mood, decreased sleep, and suicidal thoughts persist. We cannot increase propranolol because her blood pressure is 90/60 mm Hg, and adding lorazepam, 0.5 mg tid, does not control her movements. Three days later, we add trihexyphenidyl, 5 mg bid.
Fifteen days after admission, Ms. K remains akathisic, dysphoric, and suicidal despite a 5-drug regimen. Her “nervousness” prevents her from attending groups or other unit activities, and her uncontrollable foot swaying still keeps her awake at night.
The authors’ observations
Neither propranolol, clonazepam, nor trihexyphenidyl alleviated Ms. K’s akathisia. Switching to another neuroleptic with a relatively low EPS risk—such as olanzapine—might help. Olanzapine reduced akathisia in 3 case reports,11 and we hope its strong anticholinergic and antiserotonergic action will help resolve Ms. K’s akathisia.
with patients receiving therapeutic dosages of risperidone.12 In another study, olanzapine showed anticholinergic activity at therapeutic doses but risperidone did not.13 Researchers believe these features reduce olanzapine’s EPS risk compared with other antipsychotics.
TREATMENT: Drug works, but …
Three weeks after Ms. K’s presentation, we stop all psychotropics, start olanzapine, 10 mg nightly, for psychosis and mania, and continue propranolol, 30 mg bid, for akathisia. Within 2 days, Ms. K’s akathisia improves significantly.
We also start lithium, 150 mg bid, for mania, and increase it 4 days later to 300 mg bid to maintain serum lithium at approximately 1 mEq/L. We check serum lithium every 3 days after dosage adjustment. Although lithium can induce akathisia, we thought it would most effectively control her mania.
Six days after we started the new medications, Ms. K’s mania and psychosis begin to improve and she becomes euthymic. She is able to sit calmly during group therapy and community meetings.
Ten days after we start olanzapine and lithium, Ms. K appears bloated. Weight check shows an approximate 5-lb weight gain since starting the medications, both of which can cause weight gain and other metabolic side effects.
At Ms. K’s request, we stop olanzapine and start aripiprazole, 5 mg/d, to try to control her weight gain. We continue lithium and propranolol, which have been controlling her mood and akathisia. The next day—after 1 dose of aripiprazole—her akathisia returns.
The authors’ observations
Because aripiprazole was started as soon as olanzapine was discontinued, it is unclear which action aggravated Ms. K’s akathisia or if both were to blame.
Akathisia’s underlying cause is uncertain. Researchers believe dopamine receptor blockade in the mesocortical dopamine system might be responsible.3 Positron-emission tomography studies suggest that D2 receptor occupancy in the striatum contributes to akathisia, and noradrenergic and serotonergic systems also play a role.3,14
Antipsychotics, antidepressants, and sympathomimetics all have been implicated in akathisia, but antipsychotics that are potent serotonin (5HT) receptor antagonists—such as olanzapine and clozapine—show a lower incidence compared with other psychotropic agents.3
Aripiprazole—a partial D2 and 5HT1A receptor agonist and 5HT2 receptor antagonist—could have caused Ms. K’s akathisia. In 1 study, 11% of patients receiving aripiprazole, 15 to 30 mg/d, for acute mania reported akathisia symptoms.15
Olanzapine cessation could have caused Ms. K’s akathisia, although no cases of akathisia secondary to olanzapine withdrawal have been reported. Alternatively, olanzapine could have interacted with lithium to block lithium’s ability to induce akathisia.
TREATMENT: Back to olanzapine
After we thoroughly discuss olanzapine’s risks and benefits with Ms. K, she consents to switch back to olanzapine, 10 mg/d. We also instruct her to exercise daily and strictly control her diet after discharge.
Ms. K’s akathisia improves dramatically within 1 to 2 days, and her psychosis and mania improve gradually. Her persistent delusions and hallucinations are less intense, although she is still concocting grandiose get-rich-quick schemes.
Ten days after this latest dosage change, we discharge Ms. K on olanzapine, 10 mg/d, and lithium, 300 mg bid. She has no akathisia symptoms, and we arrange placement in an adult home where a psychiatrist sees her regularly. Three years later, she has been lost to follow-up.
Related resource
- AkathisiaSupport.org. Online resource offers links to articles describing causes of and treatments for akathisia subtypes. www.akathisiasupport.org.
- Aripiprazole • Abilify
- Carbidopa/levodopa • Stalevo, Parcopa
- Clonazepam • Klonopin
- Clonidine • Catapres
- Cyproheptadine • Periactin
- Ethosuximide • Zarontin
- Lithium • Eskalith, others
- Lorazepam • Ativan
- Metoclopramide • Reglan
- Olanzapine • Zyprexa
- Quetiapine • Seroquel
- Reserpine • various
- Risperidone • Risperdal
- Trihexyphenidyl • Artane
- Valproic acid • Depakote
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Sadock BJ, Sadock VA. Biological therapies (chapter 36). Kaplan & Sadock’s synopsis of psychiatry: behaviorial sciences/clinical psychiatry, 9th ed. Philadelphia: Lippincott Williams & Wilkins; 2003:1110.
2. Diagnostic and statistical manual of mental disorders, 4th ed, text revision. Washington, DC: American Psychiatric Association; 2000.
3. Nelson DE. Akathisia—a brief review. Scott Med J 2001;46:133-4.
4. Sachdev P. The epidemiology of drug-induced akathisia: part II. Chronic, tardive and withdrawal akathisias. Schizophr Bull 1995;21:451-60.
5. Bertolín Guillén JM, Martínez Franco L, Juni Anahuja J. Akathisia due to risperidone withdrawal: two clinical cases [in Spanish]. Actas Esp Psiquiatr 2002;30:195-7.
6. Weiss D, Aizenberg D, Hermesh H, et al. Cyproheptadine treatment in neuroleptic-induced akathisia. Br J Psychiatry 1995;167:483-6.
7. Poyurovsky M, Kreinin A, Modai I, Weizman A. Lithium-induced akathisia responds to low-dose mianserin: case report. Int Clin Psychopharmacol 1995;10:261-3.
8. Poyurovsky M, Shardorodsky M, Fuchs C, et al. Treatment of neuroleptic induced akathisia with the 5HT2 antagonist mianserin. Double-blind, placebo-controlled study. Br J Psychiatry 1999;174:238-42.
9. Anfang MK, Pope HG Jr. Treatment of neuroleptic-induced akathisia with nicotine patches. Psychopharmacology (Berl) 1997;134:153-6.
10. Hong WW, Arvanitis LA, Miller BG. ‘Seroquel’ (ICI 204,636): not different from placebo for EPS or prolactin. Biol Psychiatry 1996;39:598.-
11. Yousaf F, Fialho A, Warden M. Akathisia treated with olanzapine: three case reports. Int J Psychiatry Clin Pract 2004;8:123-5(3).
12. Lavalaye J, Booij J, Linszen DH, et al. Higher occupancy of muscarinic receptors by olanzapine than risperidone in patients with schizophrenia. A[123I]-IDEX SPECT study. Psychopharmacology (Berl) 2001;156:53-7.
13. Chew ML, Mulsant BH, Pollock BG, et al. A model of anticholinergic activity of atypical antipsychotic medications. Schizophr Res 2006;88:63-72.
14. Chung WS, Chiu HP. Drug-induced akathisia revisited. Br J Clin Pract 1996;50:270-8.
15. Keck P, Marcus R, Tourkodimitris S, et al. A placebo-controlled, double-blind study of the efficacy and safety of aripriprazole in patients with acute bipolar mania. Am J Psychiatry 2003;160:1651-8.
HISTORY: ‘Bizarre’ days
Ms. K, age 45, is brought to the ER by her brother, who reports she has been acting “bizarre and crazy” for 3 days. He says his sister—who has bipolar I disorder— has had trouble sleeping, is restless, hears voices, and is contemplating suicide. He adds she was discharged from a psychiatric hospital 2 weeks ago after a 3-month stay.
Risperidone, 2 mg nightly, was controlling Ms. K’s mania until this recent episode. According to her brother, she also has developed continuous involuntary leg and arm movements and cannot sit or stand still. When she tries to sleep, her feet sway back and forth in bed for hours.
We admit Ms. K to the psychiatric inpatient unit because of her suicidality and hallucinations. She is restless and agitated during initial evaluation, pacing around the room or rocking her feet while standing or sitting. Her speech is pressured and the “voices” are urging her to kill herself.
Ms. K is dysphoric and severely distraught about her “nervousness” and continuous urges to move. She says she would rather die than live with incessantly “jittery” legs and arms, yet she wants to be discharged and denies that she is mentally ill. She believes decreased sleep is causing her symptoms and requests a “sleeping pill.”
she habitually views her medications as useless and stops taking them.
The patient has been hospitalized at least 4 times with severe manic and psychotic symptoms. She does not use illicit drugs and is medically healthy.
The authors’ observations
Ms. K’s involuntary movements suggest akathisia, a common extrapyramidal side effect of antipsychotics and other psychotropics (Table).1
Akathisia is characterized by strong feelings of inner restlessness that manifest as excessive walking or pacing and difficulty remaining still. Ms. K’s movements met at least 2 of 5 DSM-IV-TR criteria for acute akathisia (Box). ,2
Akathisia is characterized by at least 5 subtypes: 3
- Acute akathisia begins hours or days after starting the offending medication and lasts
- Tardive is similar to acute akathisia but can arise within 3 to 4 months of starting the offending medication and persists for years.
- Chronic akathisia lasts ≥3 months and usually has no temporal correlation with antipsychotic initiation or dosage increase.4
- Withdrawal akathisia begins within 6 weeks of discontinuing a medication or significantly reducing the dosage.
- Pseudo akathisia consists of objective symptoms of movement without subjective awareness or distress. This subtype usually is seen in older patients.
history of medication nonadherence strongly suggest akathisia secondary to risperidone withdrawal.5 Several
cases of akathisia after risperidone cessation have been reported.5
We know risperidone is not causing acute akathisia because Ms. K responded well to the medication during her last hospitalization with no adverse effects. Also, her family confirmed that she stopped taking risperidone after her most recent discharge.
Mania also can fuel incessant movement and increase physical activity, but patients often do not realize they have a problem while in a manic phase. Also, swinging and rocking of legs is rarely seen in mania. By contrast, Ms. K was morbidly distraught over her akathisia.
Table
Drugs that can cause akathisia
|
The authors’ observations
Numerous treatments are available for akathisia:
Beta blockers such as propranolol are most widely used because of their rapid onset of action and overall effectiveness in akathisia.3 Researchers believe these drugs reduce extrapyramidal symptoms (EPS) by blocking the adrenergic system. Propranolol can be used at a maximum 120 mg/d in divided doses.
Beta blockers, however, can cause bradycardia, hypotension, or respiratory distress. Use beta blockers with caution, and monitor for these adverse effects.
Benzodiazepines. Clonazepam, which enhances the inhibitory effect of GABA in the brain, is commonly used for akathisia because of its effectiveness and long elimination half-life3 (30 to 40 hours), which decreases the risk of medication withdrawal.
and disinhibition-induced aggression in all patients.
Anticholinergics such as trihexyphenidyl are more commonly used for EPS associated with parkinsonian symptoms or side effects but can be partially effective for akathisia.3 Anticholinergics block the CNS cholinergic activity that causes parkinsonian symptoms.
Cyproheptadine, clonidine, and mianserin have shown some positive results against akathisia in clinical trials.6-8 Iron, nicotine patches, and amantadine have shown limited effectiveness against akathisia in research studies and case reports.3,9
Restarting risperidone at a lower dosage—rather than adding a medication— might have resolved Ms. K’s akathisia, but because she was morbidly despondent over her akathisia, we felt we had no time to experiment. We also believed Ms. K’s would respond well to a neuroleptic with a lower EPS risk—such as quetiapine.1,10
A. Subjective complaints of restlessness after exposure to neuroleptics
B. At least 1 of the following is observed:
- Fidgety movements or swinging of the legs
- Rocking from foot to foot while standing
- Pacing to relieve restlessness
- Inability to sit or stand still for at least several minutes
C. Symptoms develop within 4 weeks of starting or raising the dosage of a neuroleptic or after reducing a medication used to treat extrapyramidal symptoms
D. Criterion A symptoms are not better accounted for by a mental disorder
E. Criterion A symptoms are not caused by a nonneuroleptic or a general medical condition
Source: Adapted from reference 2 with permission
TREATMENT: Trying trials
We perform a complete medical workup to rule out an underlying medical problem. We then start valproic acid, 500 mg bid, for Ms. K’s mania; quetiapine, 50 mg bid, for psychosis and mania; and propranolol, 30 mg bid, for akathisia.
We titrate quetiapine by 100 mg/d every 2 days to 400 mg/d, but after 10 days her akathisia, irritable mood, decreased sleep, and suicidal thoughts persist. We cannot increase propranolol because her blood pressure is 90/60 mm Hg, and adding lorazepam, 0.5 mg tid, does not control her movements. Three days later, we add trihexyphenidyl, 5 mg bid.
Fifteen days after admission, Ms. K remains akathisic, dysphoric, and suicidal despite a 5-drug regimen. Her “nervousness” prevents her from attending groups or other unit activities, and her uncontrollable foot swaying still keeps her awake at night.
The authors’ observations
Neither propranolol, clonazepam, nor trihexyphenidyl alleviated Ms. K’s akathisia. Switching to another neuroleptic with a relatively low EPS risk—such as olanzapine—might help. Olanzapine reduced akathisia in 3 case reports,11 and we hope its strong anticholinergic and antiserotonergic action will help resolve Ms. K’s akathisia.
with patients receiving therapeutic dosages of risperidone.12 In another study, olanzapine showed anticholinergic activity at therapeutic doses but risperidone did not.13 Researchers believe these features reduce olanzapine’s EPS risk compared with other antipsychotics.
TREATMENT: Drug works, but …
Three weeks after Ms. K’s presentation, we stop all psychotropics, start olanzapine, 10 mg nightly, for psychosis and mania, and continue propranolol, 30 mg bid, for akathisia. Within 2 days, Ms. K’s akathisia improves significantly.
We also start lithium, 150 mg bid, for mania, and increase it 4 days later to 300 mg bid to maintain serum lithium at approximately 1 mEq/L. We check serum lithium every 3 days after dosage adjustment. Although lithium can induce akathisia, we thought it would most effectively control her mania.
Six days after we started the new medications, Ms. K’s mania and psychosis begin to improve and she becomes euthymic. She is able to sit calmly during group therapy and community meetings.
Ten days after we start olanzapine and lithium, Ms. K appears bloated. Weight check shows an approximate 5-lb weight gain since starting the medications, both of which can cause weight gain and other metabolic side effects.
At Ms. K’s request, we stop olanzapine and start aripiprazole, 5 mg/d, to try to control her weight gain. We continue lithium and propranolol, which have been controlling her mood and akathisia. The next day—after 1 dose of aripiprazole—her akathisia returns.
The authors’ observations
Because aripiprazole was started as soon as olanzapine was discontinued, it is unclear which action aggravated Ms. K’s akathisia or if both were to blame.
Akathisia’s underlying cause is uncertain. Researchers believe dopamine receptor blockade in the mesocortical dopamine system might be responsible.3 Positron-emission tomography studies suggest that D2 receptor occupancy in the striatum contributes to akathisia, and noradrenergic and serotonergic systems also play a role.3,14
Antipsychotics, antidepressants, and sympathomimetics all have been implicated in akathisia, but antipsychotics that are potent serotonin (5HT) receptor antagonists—such as olanzapine and clozapine—show a lower incidence compared with other psychotropic agents.3
Aripiprazole—a partial D2 and 5HT1A receptor agonist and 5HT2 receptor antagonist—could have caused Ms. K’s akathisia. In 1 study, 11% of patients receiving aripiprazole, 15 to 30 mg/d, for acute mania reported akathisia symptoms.15
Olanzapine cessation could have caused Ms. K’s akathisia, although no cases of akathisia secondary to olanzapine withdrawal have been reported. Alternatively, olanzapine could have interacted with lithium to block lithium’s ability to induce akathisia.
TREATMENT: Back to olanzapine
After we thoroughly discuss olanzapine’s risks and benefits with Ms. K, she consents to switch back to olanzapine, 10 mg/d. We also instruct her to exercise daily and strictly control her diet after discharge.
Ms. K’s akathisia improves dramatically within 1 to 2 days, and her psychosis and mania improve gradually. Her persistent delusions and hallucinations are less intense, although she is still concocting grandiose get-rich-quick schemes.
Ten days after this latest dosage change, we discharge Ms. K on olanzapine, 10 mg/d, and lithium, 300 mg bid. She has no akathisia symptoms, and we arrange placement in an adult home where a psychiatrist sees her regularly. Three years later, she has been lost to follow-up.
Related resource
- AkathisiaSupport.org. Online resource offers links to articles describing causes of and treatments for akathisia subtypes. www.akathisiasupport.org.
- Aripiprazole • Abilify
- Carbidopa/levodopa • Stalevo, Parcopa
- Clonazepam • Klonopin
- Clonidine • Catapres
- Cyproheptadine • Periactin
- Ethosuximide • Zarontin
- Lithium • Eskalith, others
- Lorazepam • Ativan
- Metoclopramide • Reglan
- Olanzapine • Zyprexa
- Quetiapine • Seroquel
- Reserpine • various
- Risperidone • Risperdal
- Trihexyphenidyl • Artane
- Valproic acid • Depakote
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
HISTORY: ‘Bizarre’ days
Ms. K, age 45, is brought to the ER by her brother, who reports she has been acting “bizarre and crazy” for 3 days. He says his sister—who has bipolar I disorder— has had trouble sleeping, is restless, hears voices, and is contemplating suicide. He adds she was discharged from a psychiatric hospital 2 weeks ago after a 3-month stay.
Risperidone, 2 mg nightly, was controlling Ms. K’s mania until this recent episode. According to her brother, she also has developed continuous involuntary leg and arm movements and cannot sit or stand still. When she tries to sleep, her feet sway back and forth in bed for hours.
We admit Ms. K to the psychiatric inpatient unit because of her suicidality and hallucinations. She is restless and agitated during initial evaluation, pacing around the room or rocking her feet while standing or sitting. Her speech is pressured and the “voices” are urging her to kill herself.
Ms. K is dysphoric and severely distraught about her “nervousness” and continuous urges to move. She says she would rather die than live with incessantly “jittery” legs and arms, yet she wants to be discharged and denies that she is mentally ill. She believes decreased sleep is causing her symptoms and requests a “sleeping pill.”
she habitually views her medications as useless and stops taking them.
The patient has been hospitalized at least 4 times with severe manic and psychotic symptoms. She does not use illicit drugs and is medically healthy.
The authors’ observations
Ms. K’s involuntary movements suggest akathisia, a common extrapyramidal side effect of antipsychotics and other psychotropics (Table).1
Akathisia is characterized by strong feelings of inner restlessness that manifest as excessive walking or pacing and difficulty remaining still. Ms. K’s movements met at least 2 of 5 DSM-IV-TR criteria for acute akathisia (Box). ,2
Akathisia is characterized by at least 5 subtypes: 3
- Acute akathisia begins hours or days after starting the offending medication and lasts
- Tardive is similar to acute akathisia but can arise within 3 to 4 months of starting the offending medication and persists for years.
- Chronic akathisia lasts ≥3 months and usually has no temporal correlation with antipsychotic initiation or dosage increase.4
- Withdrawal akathisia begins within 6 weeks of discontinuing a medication or significantly reducing the dosage.
- Pseudo akathisia consists of objective symptoms of movement without subjective awareness or distress. This subtype usually is seen in older patients.
history of medication nonadherence strongly suggest akathisia secondary to risperidone withdrawal.5 Several
cases of akathisia after risperidone cessation have been reported.5
We know risperidone is not causing acute akathisia because Ms. K responded well to the medication during her last hospitalization with no adverse effects. Also, her family confirmed that she stopped taking risperidone after her most recent discharge.
Mania also can fuel incessant movement and increase physical activity, but patients often do not realize they have a problem while in a manic phase. Also, swinging and rocking of legs is rarely seen in mania. By contrast, Ms. K was morbidly distraught over her akathisia.
Table
Drugs that can cause akathisia
|
The authors’ observations
Numerous treatments are available for akathisia:
Beta blockers such as propranolol are most widely used because of their rapid onset of action and overall effectiveness in akathisia.3 Researchers believe these drugs reduce extrapyramidal symptoms (EPS) by blocking the adrenergic system. Propranolol can be used at a maximum 120 mg/d in divided doses.
Beta blockers, however, can cause bradycardia, hypotension, or respiratory distress. Use beta blockers with caution, and monitor for these adverse effects.
Benzodiazepines. Clonazepam, which enhances the inhibitory effect of GABA in the brain, is commonly used for akathisia because of its effectiveness and long elimination half-life3 (30 to 40 hours), which decreases the risk of medication withdrawal.
and disinhibition-induced aggression in all patients.
Anticholinergics such as trihexyphenidyl are more commonly used for EPS associated with parkinsonian symptoms or side effects but can be partially effective for akathisia.3 Anticholinergics block the CNS cholinergic activity that causes parkinsonian symptoms.
Cyproheptadine, clonidine, and mianserin have shown some positive results against akathisia in clinical trials.6-8 Iron, nicotine patches, and amantadine have shown limited effectiveness against akathisia in research studies and case reports.3,9
Restarting risperidone at a lower dosage—rather than adding a medication— might have resolved Ms. K’s akathisia, but because she was morbidly despondent over her akathisia, we felt we had no time to experiment. We also believed Ms. K’s would respond well to a neuroleptic with a lower EPS risk—such as quetiapine.1,10
A. Subjective complaints of restlessness after exposure to neuroleptics
B. At least 1 of the following is observed:
- Fidgety movements or swinging of the legs
- Rocking from foot to foot while standing
- Pacing to relieve restlessness
- Inability to sit or stand still for at least several minutes
C. Symptoms develop within 4 weeks of starting or raising the dosage of a neuroleptic or after reducing a medication used to treat extrapyramidal symptoms
D. Criterion A symptoms are not better accounted for by a mental disorder
E. Criterion A symptoms are not caused by a nonneuroleptic or a general medical condition
Source: Adapted from reference 2 with permission
TREATMENT: Trying trials
We perform a complete medical workup to rule out an underlying medical problem. We then start valproic acid, 500 mg bid, for Ms. K’s mania; quetiapine, 50 mg bid, for psychosis and mania; and propranolol, 30 mg bid, for akathisia.
We titrate quetiapine by 100 mg/d every 2 days to 400 mg/d, but after 10 days her akathisia, irritable mood, decreased sleep, and suicidal thoughts persist. We cannot increase propranolol because her blood pressure is 90/60 mm Hg, and adding lorazepam, 0.5 mg tid, does not control her movements. Three days later, we add trihexyphenidyl, 5 mg bid.
Fifteen days after admission, Ms. K remains akathisic, dysphoric, and suicidal despite a 5-drug regimen. Her “nervousness” prevents her from attending groups or other unit activities, and her uncontrollable foot swaying still keeps her awake at night.
The authors’ observations
Neither propranolol, clonazepam, nor trihexyphenidyl alleviated Ms. K’s akathisia. Switching to another neuroleptic with a relatively low EPS risk—such as olanzapine—might help. Olanzapine reduced akathisia in 3 case reports,11 and we hope its strong anticholinergic and antiserotonergic action will help resolve Ms. K’s akathisia.
with patients receiving therapeutic dosages of risperidone.12 In another study, olanzapine showed anticholinergic activity at therapeutic doses but risperidone did not.13 Researchers believe these features reduce olanzapine’s EPS risk compared with other antipsychotics.
TREATMENT: Drug works, but …
Three weeks after Ms. K’s presentation, we stop all psychotropics, start olanzapine, 10 mg nightly, for psychosis and mania, and continue propranolol, 30 mg bid, for akathisia. Within 2 days, Ms. K’s akathisia improves significantly.
We also start lithium, 150 mg bid, for mania, and increase it 4 days later to 300 mg bid to maintain serum lithium at approximately 1 mEq/L. We check serum lithium every 3 days after dosage adjustment. Although lithium can induce akathisia, we thought it would most effectively control her mania.
Six days after we started the new medications, Ms. K’s mania and psychosis begin to improve and she becomes euthymic. She is able to sit calmly during group therapy and community meetings.
Ten days after we start olanzapine and lithium, Ms. K appears bloated. Weight check shows an approximate 5-lb weight gain since starting the medications, both of which can cause weight gain and other metabolic side effects.
At Ms. K’s request, we stop olanzapine and start aripiprazole, 5 mg/d, to try to control her weight gain. We continue lithium and propranolol, which have been controlling her mood and akathisia. The next day—after 1 dose of aripiprazole—her akathisia returns.
The authors’ observations
Because aripiprazole was started as soon as olanzapine was discontinued, it is unclear which action aggravated Ms. K’s akathisia or if both were to blame.
Akathisia’s underlying cause is uncertain. Researchers believe dopamine receptor blockade in the mesocortical dopamine system might be responsible.3 Positron-emission tomography studies suggest that D2 receptor occupancy in the striatum contributes to akathisia, and noradrenergic and serotonergic systems also play a role.3,14
Antipsychotics, antidepressants, and sympathomimetics all have been implicated in akathisia, but antipsychotics that are potent serotonin (5HT) receptor antagonists—such as olanzapine and clozapine—show a lower incidence compared with other psychotropic agents.3
Aripiprazole—a partial D2 and 5HT1A receptor agonist and 5HT2 receptor antagonist—could have caused Ms. K’s akathisia. In 1 study, 11% of patients receiving aripiprazole, 15 to 30 mg/d, for acute mania reported akathisia symptoms.15
Olanzapine cessation could have caused Ms. K’s akathisia, although no cases of akathisia secondary to olanzapine withdrawal have been reported. Alternatively, olanzapine could have interacted with lithium to block lithium’s ability to induce akathisia.
TREATMENT: Back to olanzapine
After we thoroughly discuss olanzapine’s risks and benefits with Ms. K, she consents to switch back to olanzapine, 10 mg/d. We also instruct her to exercise daily and strictly control her diet after discharge.
Ms. K’s akathisia improves dramatically within 1 to 2 days, and her psychosis and mania improve gradually. Her persistent delusions and hallucinations are less intense, although she is still concocting grandiose get-rich-quick schemes.
Ten days after this latest dosage change, we discharge Ms. K on olanzapine, 10 mg/d, and lithium, 300 mg bid. She has no akathisia symptoms, and we arrange placement in an adult home where a psychiatrist sees her regularly. Three years later, she has been lost to follow-up.
Related resource
- AkathisiaSupport.org. Online resource offers links to articles describing causes of and treatments for akathisia subtypes. www.akathisiasupport.org.
- Aripiprazole • Abilify
- Carbidopa/levodopa • Stalevo, Parcopa
- Clonazepam • Klonopin
- Clonidine • Catapres
- Cyproheptadine • Periactin
- Ethosuximide • Zarontin
- Lithium • Eskalith, others
- Lorazepam • Ativan
- Metoclopramide • Reglan
- Olanzapine • Zyprexa
- Quetiapine • Seroquel
- Reserpine • various
- Risperidone • Risperdal
- Trihexyphenidyl • Artane
- Valproic acid • Depakote
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Sadock BJ, Sadock VA. Biological therapies (chapter 36). Kaplan & Sadock’s synopsis of psychiatry: behaviorial sciences/clinical psychiatry, 9th ed. Philadelphia: Lippincott Williams & Wilkins; 2003:1110.
2. Diagnostic and statistical manual of mental disorders, 4th ed, text revision. Washington, DC: American Psychiatric Association; 2000.
3. Nelson DE. Akathisia—a brief review. Scott Med J 2001;46:133-4.
4. Sachdev P. The epidemiology of drug-induced akathisia: part II. Chronic, tardive and withdrawal akathisias. Schizophr Bull 1995;21:451-60.
5. Bertolín Guillén JM, Martínez Franco L, Juni Anahuja J. Akathisia due to risperidone withdrawal: two clinical cases [in Spanish]. Actas Esp Psiquiatr 2002;30:195-7.
6. Weiss D, Aizenberg D, Hermesh H, et al. Cyproheptadine treatment in neuroleptic-induced akathisia. Br J Psychiatry 1995;167:483-6.
7. Poyurovsky M, Kreinin A, Modai I, Weizman A. Lithium-induced akathisia responds to low-dose mianserin: case report. Int Clin Psychopharmacol 1995;10:261-3.
8. Poyurovsky M, Shardorodsky M, Fuchs C, et al. Treatment of neuroleptic induced akathisia with the 5HT2 antagonist mianserin. Double-blind, placebo-controlled study. Br J Psychiatry 1999;174:238-42.
9. Anfang MK, Pope HG Jr. Treatment of neuroleptic-induced akathisia with nicotine patches. Psychopharmacology (Berl) 1997;134:153-6.
10. Hong WW, Arvanitis LA, Miller BG. ‘Seroquel’ (ICI 204,636): not different from placebo for EPS or prolactin. Biol Psychiatry 1996;39:598.-
11. Yousaf F, Fialho A, Warden M. Akathisia treated with olanzapine: three case reports. Int J Psychiatry Clin Pract 2004;8:123-5(3).
12. Lavalaye J, Booij J, Linszen DH, et al. Higher occupancy of muscarinic receptors by olanzapine than risperidone in patients with schizophrenia. A[123I]-IDEX SPECT study. Psychopharmacology (Berl) 2001;156:53-7.
13. Chew ML, Mulsant BH, Pollock BG, et al. A model of anticholinergic activity of atypical antipsychotic medications. Schizophr Res 2006;88:63-72.
14. Chung WS, Chiu HP. Drug-induced akathisia revisited. Br J Clin Pract 1996;50:270-8.
15. Keck P, Marcus R, Tourkodimitris S, et al. A placebo-controlled, double-blind study of the efficacy and safety of aripriprazole in patients with acute bipolar mania. Am J Psychiatry 2003;160:1651-8.
1. Sadock BJ, Sadock VA. Biological therapies (chapter 36). Kaplan & Sadock’s synopsis of psychiatry: behaviorial sciences/clinical psychiatry, 9th ed. Philadelphia: Lippincott Williams & Wilkins; 2003:1110.
2. Diagnostic and statistical manual of mental disorders, 4th ed, text revision. Washington, DC: American Psychiatric Association; 2000.
3. Nelson DE. Akathisia—a brief review. Scott Med J 2001;46:133-4.
4. Sachdev P. The epidemiology of drug-induced akathisia: part II. Chronic, tardive and withdrawal akathisias. Schizophr Bull 1995;21:451-60.
5. Bertolín Guillén JM, Martínez Franco L, Juni Anahuja J. Akathisia due to risperidone withdrawal: two clinical cases [in Spanish]. Actas Esp Psiquiatr 2002;30:195-7.
6. Weiss D, Aizenberg D, Hermesh H, et al. Cyproheptadine treatment in neuroleptic-induced akathisia. Br J Psychiatry 1995;167:483-6.
7. Poyurovsky M, Kreinin A, Modai I, Weizman A. Lithium-induced akathisia responds to low-dose mianserin: case report. Int Clin Psychopharmacol 1995;10:261-3.
8. Poyurovsky M, Shardorodsky M, Fuchs C, et al. Treatment of neuroleptic induced akathisia with the 5HT2 antagonist mianserin. Double-blind, placebo-controlled study. Br J Psychiatry 1999;174:238-42.
9. Anfang MK, Pope HG Jr. Treatment of neuroleptic-induced akathisia with nicotine patches. Psychopharmacology (Berl) 1997;134:153-6.
10. Hong WW, Arvanitis LA, Miller BG. ‘Seroquel’ (ICI 204,636): not different from placebo for EPS or prolactin. Biol Psychiatry 1996;39:598.-
11. Yousaf F, Fialho A, Warden M. Akathisia treated with olanzapine: three case reports. Int J Psychiatry Clin Pract 2004;8:123-5(3).
12. Lavalaye J, Booij J, Linszen DH, et al. Higher occupancy of muscarinic receptors by olanzapine than risperidone in patients with schizophrenia. A[123I]-IDEX SPECT study. Psychopharmacology (Berl) 2001;156:53-7.
13. Chew ML, Mulsant BH, Pollock BG, et al. A model of anticholinergic activity of atypical antipsychotic medications. Schizophr Res 2006;88:63-72.
14. Chung WS, Chiu HP. Drug-induced akathisia revisited. Br J Clin Pract 1996;50:270-8.
15. Keck P, Marcus R, Tourkodimitris S, et al. A placebo-controlled, double-blind study of the efficacy and safety of aripriprazole in patients with acute bipolar mania. Am J Psychiatry 2003;160:1651-8.
A young man’s affair of the heart
Case: You’re a ‘freak’
A local mental health agency refers Mr. Z, age 23, to our inpatient psychiatry service because of increasing suicidality and psychosis. He began receiving care from the mental health agency 3 years ago, after a psychiatrist diagnosed paranoid schizophrenia.
At presentation, Mr. Z is delusionally preoccupied with a brief relationship he had with a young woman at college 2 years ago. He feels embarrassed about his conduct toward her during a psychotic episode and her subsequent response. He believes strangers are ridiculing him, and he hears voices calling him a “freak” and making crude references to the encounter. He is also contemplating suicide and endorses a suicide plan.
Mr. Z was hospitalized for 1 month last year with schizophrenia symptoms. He is medically healthy and does not abuse alcohol or drugs.
We admit Mr. Z because of his suicidality. Four weeks later, he remains suicidal and hears voices telling him to “rape” and “kill.” Successive 2-week trials of risperidone, 1 mg/d titrated to 5 mg/d, and quetiapine, 200 mg/d titrated to 700 mg/d, cause intolerable akathisia. We try adding propranolol, 20 mg every 8 hours, to alleviate akathisia, but to no avail. Previous trials of olanzapine, 30 mg/d, and haloperidol, dosage unknown, were unsuccessful or caused akathisia.
The authors’ observations
Substantial evidence supports clozapine’s efficacy in treatment-resistant schizophrenia, and this second-generation antipsychotic (SGA) also might reduce suicidality.1,2 Clinicians often combine antipsychotics, switch to an antidepressant, or add a mood stabilizer for treatment-resistant schizophrenia,3 but little evidence supports these options.
Mr. Z had failed at least 4 antipsychotic trials. We consider clozapine for patients with severe psychosis who have failed 2 or 3 antipsychotic trials or cannot tolerate these medications. Severity of psychosis and presence of suicidality warrant use of clozapine in treatment-resistant cases.
If Mr. Z had tolerated risperidone or quetiapine, we would have waited as long as 8 weeks before switching to clozapine. In inpatients, improvement should be seen 2 to 4 weeks after starting an antipsychotic.
Perform blood tests weekly during the first 6 months of clozapine therapy and bi-weekly thereafter to check for abnormally low white blood cell counts that might suggest agranulocytosis.
Myocarditis is a potentially fatal inflammation of the myocardium that can result from a viral infection, toxins, medications, or hypersensitive immune reactions.
Data on myocarditis prevalence are scarce because no relatively noninvasive assessment tools exist. Among 2,200 patients with unexplained heart failure occurring over 5
An FDA-mandated “black box” in clozapine’s package insert describes an “increased risk of fatal myocarditis, especially during—but not limited to—the first month of therapy.”6 Proposed explanations of how clozapine causes myocarditis include:
- direct toxic effect on cardiac myocytes related to impaired clozapine metabolism in some patients7,8
- myocardial damage mediated by clozapine blockade of a muscarinic M2 receptor subtype9
- selenium deficiency or presence of reactive clozapine nitrenium metabolites contributing to myocardial toxicity.10,11
The common presence of peripheral eosinophilia on autopsy—including diffuse eosinophilic infiltrates in myocardial and perivascular areas—might suggest a hypereosinophilic syndrome or a type II hypersensitive immune reaction mediated by clozapine.7,12 Similar immune-mediated conditions of acute, progressive myocarditis have been noted after exposure to other medications such as penicillin or sulfonamides.13
Noting that clozapine increases inflammatory cytokines, some authors believe TNF-alpha and other inflammatory cytokines contribute to myocarditis.14
TREATMENT: New regimen
After discussing clozapine’s risks and benefits with Mr. Z and his parents, we start the medication at 25 mg/d to gauge tolerability, then titrate to 300 mg/d over 10 days. Mr. Z tolerates clozapine well, with some sedation and sialorrhea. A blood test taken 7 days after we start clozapine shows a normal white blood cell count.
After 10 days on clozapine, Mr. Z’s delusions and hallucinations are considerably less intense. He is no longer suicidal and visits his former college with his parents without thinking about his past acquaintance. We discharge him on clozapine, 300 mg/d, and refer him to the local mental health agency.
Two days later, Mr. Z’s parents report that since discharge their son has had extreme fatigue, shortness of breath, leg edema, and chest pain. We advise them to immediately take their son to the ER for cardiac workup.
The authors’ observations
Mr. Z’s sudden-onset physical symptoms suggest myocarditis, a rare but potentially fatal side effect of clozapine whose specific cause is unclear (Box 1).5-14 Myocarditis has been reported in 0.02% to 0.18% of patients exposed to clozapine,15-18 with incidence as high as 1.3% per 235 patients.19
Affected patients typically have been taking clozapine at therapeutic dosages (100 to 450 mg/d).7 Clozapine use is most prevalent among men ages 20 to 40, who tend to have more severe schizophrenia and lower cardiac risk than other populations. Correspondingly, clozapine-induced myocarditis is most prevalent in younger men,20 although what specifically causes this susceptibility is unknown.
Nonspecific symptoms such as dyspnea, tachycardia, chest pain, or fever can signal myocarditis (Table)7,21 and can surface within 4 to 8 weeks of starting clozapine.22 Haas et al20 reported other symptoms—such as leukocytosis—in young (median age 30), predominantly male patients with clozapine-induced myocarditis. Symptoms that typically occur during clozapine titration—such as fever and tachycardia—can mask “subclinical” myocarditis.22
Mr. Z’s nonspecific symptoms could signal clozapine-induced agranulocytosis or a viral syndrome, or could be delusional. The patient’s acute, sudden symptom onset strongly suggests a cardiac cause. Also, his delusions subsided, and normal blood readings helped us rule out agranulocytosis.
Coulter et al23 associated myocarditis and cardiomyopathy, a noninflammatory heart muscle disease, with several antipsychotics—including clozapine, chlorpromazine, fluphenazine, haloperidol, and risperidone—as well as lithium. More research is needed to confirm this association.
Order a cardiology consult and workup including:
- serum electrolytes
- complete blood count
- ECG21
- tests for myocardial damage including creatine kinase with MB fractionation (CK-MB) and testing for serum troponin I,25 lactic dehydrogenase, and aspartate transaminase (SGOT)21
- assessment for immune activation and peripheral eosinophilia.25
Table
Symptoms that could signal myocarditis in patients taking clozapine
|
Source: Reference 7 |
TESTING: ‘Is this necessary?’
We contact the ER physician to request the above-mentioned tests, but he questions the need for such extensive and costly testing in a psychiatric patient with nonspecific symptoms.
After several phone conversations to review our recommendations, the emergency physician suggests sending Mr. Z home on a watch-and-wait protocol. We politely but firmly emphasize that Mr. Z needs a full cardiac workup, after which the physician consents to the tests (Box 2).
FINDINGS: suspicious readings
Mr. Z’s cardiac imaging results suggest a cardiopathy:
- echocardiogram shows mild ventricular enlargement with a decreased ejection fraction of 45% (normal reading, 55% to 60%)
- ECG shows normal sinus rhythm with low-voltage diffuse T-wave flattening throughout all leads without ST elevation
- creatine phosphokinase (CPK) and CKMB are within normal ranges
- troponin I is 0.33 ng/mL, a high-normal reading.
Based on these readings, the cardiology service admits Mr. Z with a presumptive diagnosis of clozapine-induced cardiomyopathy. The attending cardiologist stops clozapine and starts the angiotensin-converting enzyme inhibitor enalapril, 2.5 mg bid, for ventricular remodeling. Medical workup includes cytologic testing to rule out immunologic or viral disease.
Five days later, Mr. Z’s cardiac symptoms have resolved. The cardiology unit discharges him on enalapril, 2.5 mg bid, and schedules a cardiac ultrasound for 2 weeks after discharge to confirm progress.
The authors’ observations
Maintain high clinical suspicion while using clozapine. Similar to other patients with a clozapine-induced cardiopathy,16 Mr. Z showed rapid symptomatic changes after a benign initial course and experienced fairly vague symptoms that raised limited clinical concern at first.
Before starting clozapine therapy, screen all patients for pre-existing cardiac disease, which contraindicates this medication. Alert patients and caregivers to the risks and symptoms that require close monitoring early in treatment.
Many researchers suggest monitoring for myocarditis during the first month of therapy and ordering ECG at baseline and 2 and 4 weeks after starting clozapine.21,22 Berk et al26 suggest more aggressive monitoring, including:
- baseline ECG
- transthoracic echocardiogram
- baseline troponin/CK-MB
- ECG and troponin/CK-MB at 7 and 14 days
- echocardiogram at 6 and 12 months and then annually.
RELAPSE: Return of the ‘freak’
Immediately after Mr. Z’s discharge from the cardiology unit, we readmit him to inpatient psychiatry. His parents and case manager say he is again becoming preoccupied with his brief college relationship. He has been off clozapine for 5 days.
The authors’ observations
The American Psychiatric Association27 (see http://www.psych.org/psych_pract/treatg/pg/SchizPG-Complete-Feb04.pdf) recommends maximizing 1 medication for at least 2 to 4 weeks to assess schizophrenia symptom response and urges clinicians to consider adverse effects, medical comorbidities, and patient preference before continuing the medication.
These recommendations highlight the challenges of treating medication-resistant schizophrenia. Relapse is common after a serious reaction to clozapine, and combining 2 or more other antipsychotics could lead to significantly greater side effects. A time-limited trial with an antipsychotic and an adjunctive agent might be attempted while carefully weighing the combination’s risks and benefits.27
Clozapine reduced Mr. Z’s psychosis, but rechallenge would likely cause his potentially fatal cardiomyopathy to re-emerge. His sensitivity to adverse antipsychotic effects discourages polypharmacy and further complicates our decision.
How to convince other specialists
Many physicians are reluctant to pursue additional tests or procedures—and risk a confrontation with a consultant, insurer, or ER physician—especially when the risk of abnormality is extremely low. Advocating for cardiac workup in patients with vague symptoms is challenging, particularly if the suspected side effect is rare.
Taking the path of least resistance can increase the risk of a serious—albeit rare—adverse event. Failure to test could prolong a potentially harmful treatment, and the test results—even if negative—could be critical to planning care.
Calmly but firmly spell out the risks of missing a suspected cardiac problem (death, proceeding with potentially harmful treatment). Tell the ER manager or consultant, “I realize this is a very rare side effect, but not catching it could be life-threatening.”
Be circumspect when pleading your case—an overaggressive approach might cause the ER doctor to “dig in his heels” and reject your request. Use a medically focused response such as, “This is a known complication of this medicine with this common time course and presentation.”
TREATMENT: Another trial
We start olanzapine, 5 mg/d, and titrate to 20 mg/d over 1 week. We add sustained-release bupropion, 200 mg bid, for associated dysphoria.
Mr. Z’s symptoms and paranoia gradually decline, and he tolerates off-unit passes with friends and family before discharge. Staff works closely with him to develop cognitive-behavioral strategies to manage residual paranoia and hallucinations, such as assessing evidence for his delusional beliefs and developing tools to distract him from remaining “voices.” He reports no cardiac symptoms and continues taking enalapril, 2.5 mg bid.
We discharge Mr. Z after 1 week, at which point he shows no suicidal or homicidal thoughts. Follow-up echocardiogram 2 weeks later shows ejection fraction has improved to 60%, suggesting absence of cardiomyopathy.
Related resource
- Clozapine safety information.
www.clozaril.com/.
- Bupropion • Wellbutrin
- Chlorpromazine • Thorazine
- Clozapine • Clozaril
- Enalapril • Vasotec
- Fluphenazine • Prolixin, Permitil
- Haloperidol • Haldol
- Lithium • Eskalith, others
- Olanzapine • Zyprexa
- Propranolol • Inderal
- Quetiapine • Seroquel
- Risperidone • Risperdal
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Kane J, Honigfeld G, Singer J, Meltzer H. Clozapine for the treatment-resistant schizophrenic: a double-blind comparison with chlorpromazine. Arch Gen Psychiatry 1988;45:789-96.
2. Meltzer HY, Alphs L, Green AI, et al. International Suicide Prevention Trial Study Group. Clozapine treatment for suicidality in schizophrenia: International Suicide Prevention Trial (InterSePT). Arch Gen Psychiatry 2003;60:82-91.
3. Stahl SM. Antipsychotic polypharmacy, part 1: therapeutic option or dirty little secret? J Clin Psychiatry 1999;60:425-6.
4. Clozaril monograph. Novartis Phamaceuticals Corp.; April 12, 2006. Available at http://www.novartis.ca/downloads/en/products/clozaril_scrip_e.pdf. Accessed August 13, 2007.
5. Mason JW, O’Connell JB, Herskowitz A, et al. A clinical trial of immunosuppressive therapy for myocarditis. N Engl J Med 1995;333:269.-
6. Physicians’ desk reference. 61st ed. Montvale, NJ: Thomson PDR; 2007.
7. Merrill DB, Dec GW, Goff DC. Adverse cardiac effects associated with clozapine. J Clin Psychopharmacol 2005;25:32-41.
8. Jenie LE. Cardiovascular toxicity with clozapine therapy. Riverview Hospital Pharmacy Newsletter 2002;22:1-3.
9. Devarajan S, Kutcher SP, Dursun SM. Clozapine and sudden death. Lancet 2000;355:841.-
10. Vaddadi KS, Soosai E, Vaddadi G. Low blood selenium concentrations in schizophrenic patients on clozapine. Br J Clin Pharmacol 2003;55:307-9.
11. Williams DP, O’Donnell CJ, Maggs JL, et al. Bioactivation of clozapine by murine cardiac tissue in vivo and in vitro. Chem Res Toxicol 2003;16:1359-64.
12. Fineschi V, Neri M, Riezzo I, Turillazzi E. Sudden cardiac death due to hypersensitivity myocarditis during clozapine treatment. Int J Legal Med 2004;118:307-9.
13. Kendell KR, Day JD, Hruban RH, et al. Intimate association of eosinophils to collagen bundles in eosinophilic myocarditis and ranitidine induced hypersensitivity myocarditis. Arch Pathol Lab Med 1995;119:1154-60.
14. Pollmacher T, Schuld A, Kraus T, et al. On the clinical relevance of clozapine-triggered release of cytokines and soluble cytokine-receptors [in German]. Fortschr Neurol Psychiatr 2001;69(suppl 2):S65-S74.
15. Killian JG, Kerr K, Lawrence C, Celermajer DS. Myocarditis and cardiomyopathy associated with clozapine. Lancet 1999;354:1841-5.
16. Committee on Safety of Medicines Myocarditis with antipsychotics: recent cases with clozapine (Clozaril). Curr Probl Pharmacovigilance 1993;19:9.-
17. Degner D, Bleich S, Grohmann R, et al. Myocarditis associated with clozapine treatment. Aust NZ J Psychiatry 2000;34:880.-
18. La Grenade L, Graham D, Trontell A. Myocarditis and cardiomyopathy associated with clozapine use in the United States (letter). N Engl J Med 2001;345:224-5.
19. Reinders J, Parsonage W, Lange D, et al. Clozapinerelated myocarditis and cardiomyopathy in an Australian metropolitan psychiatric service. Aust NZ J Psychiatry 2004;38:915-22.
20. Haas SJ, Hill R, Krum H, et al. Clozapine-associated myocarditis: a review of 116 cases of suspected myocarditis associated with the use of clozapine in Australia during 1993-2003. Drug Saf 2007;30:47-57.
21. Wehmeier PM, Heiser P, Remschmidt H. Myocarditis, pericarditis and cardiomyopathy in patients treated with clozapine. J Clin Pharm Ther 2005;30:91-6.
22. Merrill DB, Ahmari SE, Bradford JM, Lieberman JA. Myocarditis during clozapine treatment. Am J Psychiatry 2006;163:204-8. Erratum in Am J Psychiatry 2006;163:556.-
23. Coulter DM, Bate A, Meyboom RH, et al. Antipsychotic drugs and heart muscle disorder in international pharmacovigilance: data mining study. BMJ 2001;322:1207-9.
24. Wooltorton E. Antipsychotic clozapine (Clozaril): myocarditis and cardiovascular toxicity. CMAJ 2002;166:1185-6.
25. Kay SE, Doery J, Sholl D. Clozapine associated pericarditis and elevated troponin I. Aust NZ J Psychiatry 2002;36:143-4.
26. Berk M, Fitzsimons J, Lambert T, et al. Monitoring the safe use of clozapine: a consensus view from Victoria, Australia. CNS Drugs 2007;21:117-27.
27. American Psychiatric Association Work Group on Schizophrenia, Lehman AF, chair. Practice guideline for the treatment of patients with schizophrenia, 2nd ed, 2004. Available at: http://www.psych.org/psych_pract/treatg/pg/SchizPG-Complete-Feb04.pdf. Accessed August 15, 2007.
Case: You’re a ‘freak’
A local mental health agency refers Mr. Z, age 23, to our inpatient psychiatry service because of increasing suicidality and psychosis. He began receiving care from the mental health agency 3 years ago, after a psychiatrist diagnosed paranoid schizophrenia.
At presentation, Mr. Z is delusionally preoccupied with a brief relationship he had with a young woman at college 2 years ago. He feels embarrassed about his conduct toward her during a psychotic episode and her subsequent response. He believes strangers are ridiculing him, and he hears voices calling him a “freak” and making crude references to the encounter. He is also contemplating suicide and endorses a suicide plan.
Mr. Z was hospitalized for 1 month last year with schizophrenia symptoms. He is medically healthy and does not abuse alcohol or drugs.
We admit Mr. Z because of his suicidality. Four weeks later, he remains suicidal and hears voices telling him to “rape” and “kill.” Successive 2-week trials of risperidone, 1 mg/d titrated to 5 mg/d, and quetiapine, 200 mg/d titrated to 700 mg/d, cause intolerable akathisia. We try adding propranolol, 20 mg every 8 hours, to alleviate akathisia, but to no avail. Previous trials of olanzapine, 30 mg/d, and haloperidol, dosage unknown, were unsuccessful or caused akathisia.
The authors’ observations
Substantial evidence supports clozapine’s efficacy in treatment-resistant schizophrenia, and this second-generation antipsychotic (SGA) also might reduce suicidality.1,2 Clinicians often combine antipsychotics, switch to an antidepressant, or add a mood stabilizer for treatment-resistant schizophrenia,3 but little evidence supports these options.
Mr. Z had failed at least 4 antipsychotic trials. We consider clozapine for patients with severe psychosis who have failed 2 or 3 antipsychotic trials or cannot tolerate these medications. Severity of psychosis and presence of suicidality warrant use of clozapine in treatment-resistant cases.
If Mr. Z had tolerated risperidone or quetiapine, we would have waited as long as 8 weeks before switching to clozapine. In inpatients, improvement should be seen 2 to 4 weeks after starting an antipsychotic.
Perform blood tests weekly during the first 6 months of clozapine therapy and bi-weekly thereafter to check for abnormally low white blood cell counts that might suggest agranulocytosis.
Myocarditis is a potentially fatal inflammation of the myocardium that can result from a viral infection, toxins, medications, or hypersensitive immune reactions.
Data on myocarditis prevalence are scarce because no relatively noninvasive assessment tools exist. Among 2,200 patients with unexplained heart failure occurring over 5
An FDA-mandated “black box” in clozapine’s package insert describes an “increased risk of fatal myocarditis, especially during—but not limited to—the first month of therapy.”6 Proposed explanations of how clozapine causes myocarditis include:
- direct toxic effect on cardiac myocytes related to impaired clozapine metabolism in some patients7,8
- myocardial damage mediated by clozapine blockade of a muscarinic M2 receptor subtype9
- selenium deficiency or presence of reactive clozapine nitrenium metabolites contributing to myocardial toxicity.10,11
The common presence of peripheral eosinophilia on autopsy—including diffuse eosinophilic infiltrates in myocardial and perivascular areas—might suggest a hypereosinophilic syndrome or a type II hypersensitive immune reaction mediated by clozapine.7,12 Similar immune-mediated conditions of acute, progressive myocarditis have been noted after exposure to other medications such as penicillin or sulfonamides.13
Noting that clozapine increases inflammatory cytokines, some authors believe TNF-alpha and other inflammatory cytokines contribute to myocarditis.14
TREATMENT: New regimen
After discussing clozapine’s risks and benefits with Mr. Z and his parents, we start the medication at 25 mg/d to gauge tolerability, then titrate to 300 mg/d over 10 days. Mr. Z tolerates clozapine well, with some sedation and sialorrhea. A blood test taken 7 days after we start clozapine shows a normal white blood cell count.
After 10 days on clozapine, Mr. Z’s delusions and hallucinations are considerably less intense. He is no longer suicidal and visits his former college with his parents without thinking about his past acquaintance. We discharge him on clozapine, 300 mg/d, and refer him to the local mental health agency.
Two days later, Mr. Z’s parents report that since discharge their son has had extreme fatigue, shortness of breath, leg edema, and chest pain. We advise them to immediately take their son to the ER for cardiac workup.
The authors’ observations
Mr. Z’s sudden-onset physical symptoms suggest myocarditis, a rare but potentially fatal side effect of clozapine whose specific cause is unclear (Box 1).5-14 Myocarditis has been reported in 0.02% to 0.18% of patients exposed to clozapine,15-18 with incidence as high as 1.3% per 235 patients.19
Affected patients typically have been taking clozapine at therapeutic dosages (100 to 450 mg/d).7 Clozapine use is most prevalent among men ages 20 to 40, who tend to have more severe schizophrenia and lower cardiac risk than other populations. Correspondingly, clozapine-induced myocarditis is most prevalent in younger men,20 although what specifically causes this susceptibility is unknown.
Nonspecific symptoms such as dyspnea, tachycardia, chest pain, or fever can signal myocarditis (Table)7,21 and can surface within 4 to 8 weeks of starting clozapine.22 Haas et al20 reported other symptoms—such as leukocytosis—in young (median age 30), predominantly male patients with clozapine-induced myocarditis. Symptoms that typically occur during clozapine titration—such as fever and tachycardia—can mask “subclinical” myocarditis.22
Mr. Z’s nonspecific symptoms could signal clozapine-induced agranulocytosis or a viral syndrome, or could be delusional. The patient’s acute, sudden symptom onset strongly suggests a cardiac cause. Also, his delusions subsided, and normal blood readings helped us rule out agranulocytosis.
Coulter et al23 associated myocarditis and cardiomyopathy, a noninflammatory heart muscle disease, with several antipsychotics—including clozapine, chlorpromazine, fluphenazine, haloperidol, and risperidone—as well as lithium. More research is needed to confirm this association.
Order a cardiology consult and workup including:
- serum electrolytes
- complete blood count
- ECG21
- tests for myocardial damage including creatine kinase with MB fractionation (CK-MB) and testing for serum troponin I,25 lactic dehydrogenase, and aspartate transaminase (SGOT)21
- assessment for immune activation and peripheral eosinophilia.25
Table
Symptoms that could signal myocarditis in patients taking clozapine
|
Source: Reference 7 |
TESTING: ‘Is this necessary?’
We contact the ER physician to request the above-mentioned tests, but he questions the need for such extensive and costly testing in a psychiatric patient with nonspecific symptoms.
After several phone conversations to review our recommendations, the emergency physician suggests sending Mr. Z home on a watch-and-wait protocol. We politely but firmly emphasize that Mr. Z needs a full cardiac workup, after which the physician consents to the tests (Box 2).
FINDINGS: suspicious readings
Mr. Z’s cardiac imaging results suggest a cardiopathy:
- echocardiogram shows mild ventricular enlargement with a decreased ejection fraction of 45% (normal reading, 55% to 60%)
- ECG shows normal sinus rhythm with low-voltage diffuse T-wave flattening throughout all leads without ST elevation
- creatine phosphokinase (CPK) and CKMB are within normal ranges
- troponin I is 0.33 ng/mL, a high-normal reading.
Based on these readings, the cardiology service admits Mr. Z with a presumptive diagnosis of clozapine-induced cardiomyopathy. The attending cardiologist stops clozapine and starts the angiotensin-converting enzyme inhibitor enalapril, 2.5 mg bid, for ventricular remodeling. Medical workup includes cytologic testing to rule out immunologic or viral disease.
Five days later, Mr. Z’s cardiac symptoms have resolved. The cardiology unit discharges him on enalapril, 2.5 mg bid, and schedules a cardiac ultrasound for 2 weeks after discharge to confirm progress.
The authors’ observations
Maintain high clinical suspicion while using clozapine. Similar to other patients with a clozapine-induced cardiopathy,16 Mr. Z showed rapid symptomatic changes after a benign initial course and experienced fairly vague symptoms that raised limited clinical concern at first.
Before starting clozapine therapy, screen all patients for pre-existing cardiac disease, which contraindicates this medication. Alert patients and caregivers to the risks and symptoms that require close monitoring early in treatment.
Many researchers suggest monitoring for myocarditis during the first month of therapy and ordering ECG at baseline and 2 and 4 weeks after starting clozapine.21,22 Berk et al26 suggest more aggressive monitoring, including:
- baseline ECG
- transthoracic echocardiogram
- baseline troponin/CK-MB
- ECG and troponin/CK-MB at 7 and 14 days
- echocardiogram at 6 and 12 months and then annually.
RELAPSE: Return of the ‘freak’
Immediately after Mr. Z’s discharge from the cardiology unit, we readmit him to inpatient psychiatry. His parents and case manager say he is again becoming preoccupied with his brief college relationship. He has been off clozapine for 5 days.
The authors’ observations
The American Psychiatric Association27 (see http://www.psych.org/psych_pract/treatg/pg/SchizPG-Complete-Feb04.pdf) recommends maximizing 1 medication for at least 2 to 4 weeks to assess schizophrenia symptom response and urges clinicians to consider adverse effects, medical comorbidities, and patient preference before continuing the medication.
These recommendations highlight the challenges of treating medication-resistant schizophrenia. Relapse is common after a serious reaction to clozapine, and combining 2 or more other antipsychotics could lead to significantly greater side effects. A time-limited trial with an antipsychotic and an adjunctive agent might be attempted while carefully weighing the combination’s risks and benefits.27
Clozapine reduced Mr. Z’s psychosis, but rechallenge would likely cause his potentially fatal cardiomyopathy to re-emerge. His sensitivity to adverse antipsychotic effects discourages polypharmacy and further complicates our decision.
How to convince other specialists
Many physicians are reluctant to pursue additional tests or procedures—and risk a confrontation with a consultant, insurer, or ER physician—especially when the risk of abnormality is extremely low. Advocating for cardiac workup in patients with vague symptoms is challenging, particularly if the suspected side effect is rare.
Taking the path of least resistance can increase the risk of a serious—albeit rare—adverse event. Failure to test could prolong a potentially harmful treatment, and the test results—even if negative—could be critical to planning care.
Calmly but firmly spell out the risks of missing a suspected cardiac problem (death, proceeding with potentially harmful treatment). Tell the ER manager or consultant, “I realize this is a very rare side effect, but not catching it could be life-threatening.”
Be circumspect when pleading your case—an overaggressive approach might cause the ER doctor to “dig in his heels” and reject your request. Use a medically focused response such as, “This is a known complication of this medicine with this common time course and presentation.”
TREATMENT: Another trial
We start olanzapine, 5 mg/d, and titrate to 20 mg/d over 1 week. We add sustained-release bupropion, 200 mg bid, for associated dysphoria.
Mr. Z’s symptoms and paranoia gradually decline, and he tolerates off-unit passes with friends and family before discharge. Staff works closely with him to develop cognitive-behavioral strategies to manage residual paranoia and hallucinations, such as assessing evidence for his delusional beliefs and developing tools to distract him from remaining “voices.” He reports no cardiac symptoms and continues taking enalapril, 2.5 mg bid.
We discharge Mr. Z after 1 week, at which point he shows no suicidal or homicidal thoughts. Follow-up echocardiogram 2 weeks later shows ejection fraction has improved to 60%, suggesting absence of cardiomyopathy.
Related resource
- Clozapine safety information.
www.clozaril.com/.
- Bupropion • Wellbutrin
- Chlorpromazine • Thorazine
- Clozapine • Clozaril
- Enalapril • Vasotec
- Fluphenazine • Prolixin, Permitil
- Haloperidol • Haldol
- Lithium • Eskalith, others
- Olanzapine • Zyprexa
- Propranolol • Inderal
- Quetiapine • Seroquel
- Risperidone • Risperdal
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
Case: You’re a ‘freak’
A local mental health agency refers Mr. Z, age 23, to our inpatient psychiatry service because of increasing suicidality and psychosis. He began receiving care from the mental health agency 3 years ago, after a psychiatrist diagnosed paranoid schizophrenia.
At presentation, Mr. Z is delusionally preoccupied with a brief relationship he had with a young woman at college 2 years ago. He feels embarrassed about his conduct toward her during a psychotic episode and her subsequent response. He believes strangers are ridiculing him, and he hears voices calling him a “freak” and making crude references to the encounter. He is also contemplating suicide and endorses a suicide plan.
Mr. Z was hospitalized for 1 month last year with schizophrenia symptoms. He is medically healthy and does not abuse alcohol or drugs.
We admit Mr. Z because of his suicidality. Four weeks later, he remains suicidal and hears voices telling him to “rape” and “kill.” Successive 2-week trials of risperidone, 1 mg/d titrated to 5 mg/d, and quetiapine, 200 mg/d titrated to 700 mg/d, cause intolerable akathisia. We try adding propranolol, 20 mg every 8 hours, to alleviate akathisia, but to no avail. Previous trials of olanzapine, 30 mg/d, and haloperidol, dosage unknown, were unsuccessful or caused akathisia.
The authors’ observations
Substantial evidence supports clozapine’s efficacy in treatment-resistant schizophrenia, and this second-generation antipsychotic (SGA) also might reduce suicidality.1,2 Clinicians often combine antipsychotics, switch to an antidepressant, or add a mood stabilizer for treatment-resistant schizophrenia,3 but little evidence supports these options.
Mr. Z had failed at least 4 antipsychotic trials. We consider clozapine for patients with severe psychosis who have failed 2 or 3 antipsychotic trials or cannot tolerate these medications. Severity of psychosis and presence of suicidality warrant use of clozapine in treatment-resistant cases.
If Mr. Z had tolerated risperidone or quetiapine, we would have waited as long as 8 weeks before switching to clozapine. In inpatients, improvement should be seen 2 to 4 weeks after starting an antipsychotic.
Perform blood tests weekly during the first 6 months of clozapine therapy and bi-weekly thereafter to check for abnormally low white blood cell counts that might suggest agranulocytosis.
Myocarditis is a potentially fatal inflammation of the myocardium that can result from a viral infection, toxins, medications, or hypersensitive immune reactions.
Data on myocarditis prevalence are scarce because no relatively noninvasive assessment tools exist. Among 2,200 patients with unexplained heart failure occurring over 5
An FDA-mandated “black box” in clozapine’s package insert describes an “increased risk of fatal myocarditis, especially during—but not limited to—the first month of therapy.”6 Proposed explanations of how clozapine causes myocarditis include:
- direct toxic effect on cardiac myocytes related to impaired clozapine metabolism in some patients7,8
- myocardial damage mediated by clozapine blockade of a muscarinic M2 receptor subtype9
- selenium deficiency or presence of reactive clozapine nitrenium metabolites contributing to myocardial toxicity.10,11
The common presence of peripheral eosinophilia on autopsy—including diffuse eosinophilic infiltrates in myocardial and perivascular areas—might suggest a hypereosinophilic syndrome or a type II hypersensitive immune reaction mediated by clozapine.7,12 Similar immune-mediated conditions of acute, progressive myocarditis have been noted after exposure to other medications such as penicillin or sulfonamides.13
Noting that clozapine increases inflammatory cytokines, some authors believe TNF-alpha and other inflammatory cytokines contribute to myocarditis.14
TREATMENT: New regimen
After discussing clozapine’s risks and benefits with Mr. Z and his parents, we start the medication at 25 mg/d to gauge tolerability, then titrate to 300 mg/d over 10 days. Mr. Z tolerates clozapine well, with some sedation and sialorrhea. A blood test taken 7 days after we start clozapine shows a normal white blood cell count.
After 10 days on clozapine, Mr. Z’s delusions and hallucinations are considerably less intense. He is no longer suicidal and visits his former college with his parents without thinking about his past acquaintance. We discharge him on clozapine, 300 mg/d, and refer him to the local mental health agency.
Two days later, Mr. Z’s parents report that since discharge their son has had extreme fatigue, shortness of breath, leg edema, and chest pain. We advise them to immediately take their son to the ER for cardiac workup.
The authors’ observations
Mr. Z’s sudden-onset physical symptoms suggest myocarditis, a rare but potentially fatal side effect of clozapine whose specific cause is unclear (Box 1).5-14 Myocarditis has been reported in 0.02% to 0.18% of patients exposed to clozapine,15-18 with incidence as high as 1.3% per 235 patients.19
Affected patients typically have been taking clozapine at therapeutic dosages (100 to 450 mg/d).7 Clozapine use is most prevalent among men ages 20 to 40, who tend to have more severe schizophrenia and lower cardiac risk than other populations. Correspondingly, clozapine-induced myocarditis is most prevalent in younger men,20 although what specifically causes this susceptibility is unknown.
Nonspecific symptoms such as dyspnea, tachycardia, chest pain, or fever can signal myocarditis (Table)7,21 and can surface within 4 to 8 weeks of starting clozapine.22 Haas et al20 reported other symptoms—such as leukocytosis—in young (median age 30), predominantly male patients with clozapine-induced myocarditis. Symptoms that typically occur during clozapine titration—such as fever and tachycardia—can mask “subclinical” myocarditis.22
Mr. Z’s nonspecific symptoms could signal clozapine-induced agranulocytosis or a viral syndrome, or could be delusional. The patient’s acute, sudden symptom onset strongly suggests a cardiac cause. Also, his delusions subsided, and normal blood readings helped us rule out agranulocytosis.
Coulter et al23 associated myocarditis and cardiomyopathy, a noninflammatory heart muscle disease, with several antipsychotics—including clozapine, chlorpromazine, fluphenazine, haloperidol, and risperidone—as well as lithium. More research is needed to confirm this association.
Order a cardiology consult and workup including:
- serum electrolytes
- complete blood count
- ECG21
- tests for myocardial damage including creatine kinase with MB fractionation (CK-MB) and testing for serum troponin I,25 lactic dehydrogenase, and aspartate transaminase (SGOT)21
- assessment for immune activation and peripheral eosinophilia.25
Table
Symptoms that could signal myocarditis in patients taking clozapine
|
Source: Reference 7 |
TESTING: ‘Is this necessary?’
We contact the ER physician to request the above-mentioned tests, but he questions the need for such extensive and costly testing in a psychiatric patient with nonspecific symptoms.
After several phone conversations to review our recommendations, the emergency physician suggests sending Mr. Z home on a watch-and-wait protocol. We politely but firmly emphasize that Mr. Z needs a full cardiac workup, after which the physician consents to the tests (Box 2).
FINDINGS: suspicious readings
Mr. Z’s cardiac imaging results suggest a cardiopathy:
- echocardiogram shows mild ventricular enlargement with a decreased ejection fraction of 45% (normal reading, 55% to 60%)
- ECG shows normal sinus rhythm with low-voltage diffuse T-wave flattening throughout all leads without ST elevation
- creatine phosphokinase (CPK) and CKMB are within normal ranges
- troponin I is 0.33 ng/mL, a high-normal reading.
Based on these readings, the cardiology service admits Mr. Z with a presumptive diagnosis of clozapine-induced cardiomyopathy. The attending cardiologist stops clozapine and starts the angiotensin-converting enzyme inhibitor enalapril, 2.5 mg bid, for ventricular remodeling. Medical workup includes cytologic testing to rule out immunologic or viral disease.
Five days later, Mr. Z’s cardiac symptoms have resolved. The cardiology unit discharges him on enalapril, 2.5 mg bid, and schedules a cardiac ultrasound for 2 weeks after discharge to confirm progress.
The authors’ observations
Maintain high clinical suspicion while using clozapine. Similar to other patients with a clozapine-induced cardiopathy,16 Mr. Z showed rapid symptomatic changes after a benign initial course and experienced fairly vague symptoms that raised limited clinical concern at first.
Before starting clozapine therapy, screen all patients for pre-existing cardiac disease, which contraindicates this medication. Alert patients and caregivers to the risks and symptoms that require close monitoring early in treatment.
Many researchers suggest monitoring for myocarditis during the first month of therapy and ordering ECG at baseline and 2 and 4 weeks after starting clozapine.21,22 Berk et al26 suggest more aggressive monitoring, including:
- baseline ECG
- transthoracic echocardiogram
- baseline troponin/CK-MB
- ECG and troponin/CK-MB at 7 and 14 days
- echocardiogram at 6 and 12 months and then annually.
RELAPSE: Return of the ‘freak’
Immediately after Mr. Z’s discharge from the cardiology unit, we readmit him to inpatient psychiatry. His parents and case manager say he is again becoming preoccupied with his brief college relationship. He has been off clozapine for 5 days.
The authors’ observations
The American Psychiatric Association27 (see http://www.psych.org/psych_pract/treatg/pg/SchizPG-Complete-Feb04.pdf) recommends maximizing 1 medication for at least 2 to 4 weeks to assess schizophrenia symptom response and urges clinicians to consider adverse effects, medical comorbidities, and patient preference before continuing the medication.
These recommendations highlight the challenges of treating medication-resistant schizophrenia. Relapse is common after a serious reaction to clozapine, and combining 2 or more other antipsychotics could lead to significantly greater side effects. A time-limited trial with an antipsychotic and an adjunctive agent might be attempted while carefully weighing the combination’s risks and benefits.27
Clozapine reduced Mr. Z’s psychosis, but rechallenge would likely cause his potentially fatal cardiomyopathy to re-emerge. His sensitivity to adverse antipsychotic effects discourages polypharmacy and further complicates our decision.
How to convince other specialists
Many physicians are reluctant to pursue additional tests or procedures—and risk a confrontation with a consultant, insurer, or ER physician—especially when the risk of abnormality is extremely low. Advocating for cardiac workup in patients with vague symptoms is challenging, particularly if the suspected side effect is rare.
Taking the path of least resistance can increase the risk of a serious—albeit rare—adverse event. Failure to test could prolong a potentially harmful treatment, and the test results—even if negative—could be critical to planning care.
Calmly but firmly spell out the risks of missing a suspected cardiac problem (death, proceeding with potentially harmful treatment). Tell the ER manager or consultant, “I realize this is a very rare side effect, but not catching it could be life-threatening.”
Be circumspect when pleading your case—an overaggressive approach might cause the ER doctor to “dig in his heels” and reject your request. Use a medically focused response such as, “This is a known complication of this medicine with this common time course and presentation.”
TREATMENT: Another trial
We start olanzapine, 5 mg/d, and titrate to 20 mg/d over 1 week. We add sustained-release bupropion, 200 mg bid, for associated dysphoria.
Mr. Z’s symptoms and paranoia gradually decline, and he tolerates off-unit passes with friends and family before discharge. Staff works closely with him to develop cognitive-behavioral strategies to manage residual paranoia and hallucinations, such as assessing evidence for his delusional beliefs and developing tools to distract him from remaining “voices.” He reports no cardiac symptoms and continues taking enalapril, 2.5 mg bid.
We discharge Mr. Z after 1 week, at which point he shows no suicidal or homicidal thoughts. Follow-up echocardiogram 2 weeks later shows ejection fraction has improved to 60%, suggesting absence of cardiomyopathy.
Related resource
- Clozapine safety information.
www.clozaril.com/.
- Bupropion • Wellbutrin
- Chlorpromazine • Thorazine
- Clozapine • Clozaril
- Enalapril • Vasotec
- Fluphenazine • Prolixin, Permitil
- Haloperidol • Haldol
- Lithium • Eskalith, others
- Olanzapine • Zyprexa
- Propranolol • Inderal
- Quetiapine • Seroquel
- Risperidone • Risperdal
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Kane J, Honigfeld G, Singer J, Meltzer H. Clozapine for the treatment-resistant schizophrenic: a double-blind comparison with chlorpromazine. Arch Gen Psychiatry 1988;45:789-96.
2. Meltzer HY, Alphs L, Green AI, et al. International Suicide Prevention Trial Study Group. Clozapine treatment for suicidality in schizophrenia: International Suicide Prevention Trial (InterSePT). Arch Gen Psychiatry 2003;60:82-91.
3. Stahl SM. Antipsychotic polypharmacy, part 1: therapeutic option or dirty little secret? J Clin Psychiatry 1999;60:425-6.
4. Clozaril monograph. Novartis Phamaceuticals Corp.; April 12, 2006. Available at http://www.novartis.ca/downloads/en/products/clozaril_scrip_e.pdf. Accessed August 13, 2007.
5. Mason JW, O’Connell JB, Herskowitz A, et al. A clinical trial of immunosuppressive therapy for myocarditis. N Engl J Med 1995;333:269.-
6. Physicians’ desk reference. 61st ed. Montvale, NJ: Thomson PDR; 2007.
7. Merrill DB, Dec GW, Goff DC. Adverse cardiac effects associated with clozapine. J Clin Psychopharmacol 2005;25:32-41.
8. Jenie LE. Cardiovascular toxicity with clozapine therapy. Riverview Hospital Pharmacy Newsletter 2002;22:1-3.
9. Devarajan S, Kutcher SP, Dursun SM. Clozapine and sudden death. Lancet 2000;355:841.-
10. Vaddadi KS, Soosai E, Vaddadi G. Low blood selenium concentrations in schizophrenic patients on clozapine. Br J Clin Pharmacol 2003;55:307-9.
11. Williams DP, O’Donnell CJ, Maggs JL, et al. Bioactivation of clozapine by murine cardiac tissue in vivo and in vitro. Chem Res Toxicol 2003;16:1359-64.
12. Fineschi V, Neri M, Riezzo I, Turillazzi E. Sudden cardiac death due to hypersensitivity myocarditis during clozapine treatment. Int J Legal Med 2004;118:307-9.
13. Kendell KR, Day JD, Hruban RH, et al. Intimate association of eosinophils to collagen bundles in eosinophilic myocarditis and ranitidine induced hypersensitivity myocarditis. Arch Pathol Lab Med 1995;119:1154-60.
14. Pollmacher T, Schuld A, Kraus T, et al. On the clinical relevance of clozapine-triggered release of cytokines and soluble cytokine-receptors [in German]. Fortschr Neurol Psychiatr 2001;69(suppl 2):S65-S74.
15. Killian JG, Kerr K, Lawrence C, Celermajer DS. Myocarditis and cardiomyopathy associated with clozapine. Lancet 1999;354:1841-5.
16. Committee on Safety of Medicines Myocarditis with antipsychotics: recent cases with clozapine (Clozaril). Curr Probl Pharmacovigilance 1993;19:9.-
17. Degner D, Bleich S, Grohmann R, et al. Myocarditis associated with clozapine treatment. Aust NZ J Psychiatry 2000;34:880.-
18. La Grenade L, Graham D, Trontell A. Myocarditis and cardiomyopathy associated with clozapine use in the United States (letter). N Engl J Med 2001;345:224-5.
19. Reinders J, Parsonage W, Lange D, et al. Clozapinerelated myocarditis and cardiomyopathy in an Australian metropolitan psychiatric service. Aust NZ J Psychiatry 2004;38:915-22.
20. Haas SJ, Hill R, Krum H, et al. Clozapine-associated myocarditis: a review of 116 cases of suspected myocarditis associated with the use of clozapine in Australia during 1993-2003. Drug Saf 2007;30:47-57.
21. Wehmeier PM, Heiser P, Remschmidt H. Myocarditis, pericarditis and cardiomyopathy in patients treated with clozapine. J Clin Pharm Ther 2005;30:91-6.
22. Merrill DB, Ahmari SE, Bradford JM, Lieberman JA. Myocarditis during clozapine treatment. Am J Psychiatry 2006;163:204-8. Erratum in Am J Psychiatry 2006;163:556.-
23. Coulter DM, Bate A, Meyboom RH, et al. Antipsychotic drugs and heart muscle disorder in international pharmacovigilance: data mining study. BMJ 2001;322:1207-9.
24. Wooltorton E. Antipsychotic clozapine (Clozaril): myocarditis and cardiovascular toxicity. CMAJ 2002;166:1185-6.
25. Kay SE, Doery J, Sholl D. Clozapine associated pericarditis and elevated troponin I. Aust NZ J Psychiatry 2002;36:143-4.
26. Berk M, Fitzsimons J, Lambert T, et al. Monitoring the safe use of clozapine: a consensus view from Victoria, Australia. CNS Drugs 2007;21:117-27.
27. American Psychiatric Association Work Group on Schizophrenia, Lehman AF, chair. Practice guideline for the treatment of patients with schizophrenia, 2nd ed, 2004. Available at: http://www.psych.org/psych_pract/treatg/pg/SchizPG-Complete-Feb04.pdf. Accessed August 15, 2007.
1. Kane J, Honigfeld G, Singer J, Meltzer H. Clozapine for the treatment-resistant schizophrenic: a double-blind comparison with chlorpromazine. Arch Gen Psychiatry 1988;45:789-96.
2. Meltzer HY, Alphs L, Green AI, et al. International Suicide Prevention Trial Study Group. Clozapine treatment for suicidality in schizophrenia: International Suicide Prevention Trial (InterSePT). Arch Gen Psychiatry 2003;60:82-91.
3. Stahl SM. Antipsychotic polypharmacy, part 1: therapeutic option or dirty little secret? J Clin Psychiatry 1999;60:425-6.
4. Clozaril monograph. Novartis Phamaceuticals Corp.; April 12, 2006. Available at http://www.novartis.ca/downloads/en/products/clozaril_scrip_e.pdf. Accessed August 13, 2007.
5. Mason JW, O’Connell JB, Herskowitz A, et al. A clinical trial of immunosuppressive therapy for myocarditis. N Engl J Med 1995;333:269.-
6. Physicians’ desk reference. 61st ed. Montvale, NJ: Thomson PDR; 2007.
7. Merrill DB, Dec GW, Goff DC. Adverse cardiac effects associated with clozapine. J Clin Psychopharmacol 2005;25:32-41.
8. Jenie LE. Cardiovascular toxicity with clozapine therapy. Riverview Hospital Pharmacy Newsletter 2002;22:1-3.
9. Devarajan S, Kutcher SP, Dursun SM. Clozapine and sudden death. Lancet 2000;355:841.-
10. Vaddadi KS, Soosai E, Vaddadi G. Low blood selenium concentrations in schizophrenic patients on clozapine. Br J Clin Pharmacol 2003;55:307-9.
11. Williams DP, O’Donnell CJ, Maggs JL, et al. Bioactivation of clozapine by murine cardiac tissue in vivo and in vitro. Chem Res Toxicol 2003;16:1359-64.
12. Fineschi V, Neri M, Riezzo I, Turillazzi E. Sudden cardiac death due to hypersensitivity myocarditis during clozapine treatment. Int J Legal Med 2004;118:307-9.
13. Kendell KR, Day JD, Hruban RH, et al. Intimate association of eosinophils to collagen bundles in eosinophilic myocarditis and ranitidine induced hypersensitivity myocarditis. Arch Pathol Lab Med 1995;119:1154-60.
14. Pollmacher T, Schuld A, Kraus T, et al. On the clinical relevance of clozapine-triggered release of cytokines and soluble cytokine-receptors [in German]. Fortschr Neurol Psychiatr 2001;69(suppl 2):S65-S74.
15. Killian JG, Kerr K, Lawrence C, Celermajer DS. Myocarditis and cardiomyopathy associated with clozapine. Lancet 1999;354:1841-5.
16. Committee on Safety of Medicines Myocarditis with antipsychotics: recent cases with clozapine (Clozaril). Curr Probl Pharmacovigilance 1993;19:9.-
17. Degner D, Bleich S, Grohmann R, et al. Myocarditis associated with clozapine treatment. Aust NZ J Psychiatry 2000;34:880.-
18. La Grenade L, Graham D, Trontell A. Myocarditis and cardiomyopathy associated with clozapine use in the United States (letter). N Engl J Med 2001;345:224-5.
19. Reinders J, Parsonage W, Lange D, et al. Clozapinerelated myocarditis and cardiomyopathy in an Australian metropolitan psychiatric service. Aust NZ J Psychiatry 2004;38:915-22.
20. Haas SJ, Hill R, Krum H, et al. Clozapine-associated myocarditis: a review of 116 cases of suspected myocarditis associated with the use of clozapine in Australia during 1993-2003. Drug Saf 2007;30:47-57.
21. Wehmeier PM, Heiser P, Remschmidt H. Myocarditis, pericarditis and cardiomyopathy in patients treated with clozapine. J Clin Pharm Ther 2005;30:91-6.
22. Merrill DB, Ahmari SE, Bradford JM, Lieberman JA. Myocarditis during clozapine treatment. Am J Psychiatry 2006;163:204-8. Erratum in Am J Psychiatry 2006;163:556.-
23. Coulter DM, Bate A, Meyboom RH, et al. Antipsychotic drugs and heart muscle disorder in international pharmacovigilance: data mining study. BMJ 2001;322:1207-9.
24. Wooltorton E. Antipsychotic clozapine (Clozaril): myocarditis and cardiovascular toxicity. CMAJ 2002;166:1185-6.
25. Kay SE, Doery J, Sholl D. Clozapine associated pericarditis and elevated troponin I. Aust NZ J Psychiatry 2002;36:143-4.
26. Berk M, Fitzsimons J, Lambert T, et al. Monitoring the safe use of clozapine: a consensus view from Victoria, Australia. CNS Drugs 2007;21:117-27.
27. American Psychiatric Association Work Group on Schizophrenia, Lehman AF, chair. Practice guideline for the treatment of patients with schizophrenia, 2nd ed, 2004. Available at: http://www.psych.org/psych_pract/treatg/pg/SchizPG-Complete-Feb04.pdf. Accessed August 15, 2007.
A life of drugs and ‘downtime’
CASE: Near-fatal combination
Inpatient psychiatry refers Mr. B, age 50, to our outpatient psychiatry clinic. Two weeks earlier, he tried to kill himself by sitting on a stepladder, tying a noose around his neck, and consuming large amounts of quetiapine, trazodone, and vodka. His wife found him unconscious on the floor with facial abrasions, empty pill bottles, and the noose lying next to him.
Emergency medical personnel brought Mr. B to the ER. His total Glasgow Coma Scale score of 3 indicated he was comatose. Pulse was 65 bpm (low-normal), and blood alcohol level was 106 mg/dL, suggesting he had ingested hazardous amounts of vodka. Quetiapine and trazodone blood levels were not measured.
Gastric lavage was unsuccessful because the orogastric tube became curled in the distal esophagus. Mr. B was successfully intubated and admitted to the intensive care unit. After 2 days, he was medically stable and regained consciousness, though he was delirious. He was transferred to inpatient psychiatry, where the attending psychiatrist diagnosed major depression and alcohol abuse disorder.
Before presentation, Mr. B had been taking venlafaxine, 75 mg/d, and mirtazapine, 30 mg at bedtime. His previous outpatient psychiatrist had added methylphenidate, 40 mg/d, to augment the antidepressants—which were not alleviating his depression—and the attending continued all 3 medications. Prior trials of sertraline, bupropion, trazodone, quetiapine, and aripiprazole were ineffective.
By the time Mr. B is transferred to us, his suicidal thoughts have remitted but he is still notably depressed. He is anergic, feels hopeless about the future, has markedly diminished self-worth, feels excessively guilty over past actions, is socially withdrawn, and shows a blunted, depressed affect. He also complains of insomnia despite taking mirtazapine at bedtime.
HISTORY: Depression and drugs
Mr. B says he has felt depressed on and off since his teens, and his current episode has been continuously severe for 1½ years. He began abusing alcohol and benzodiazepines during this episode but says he has been clean and sober for 2 weeks. He tried to kill himself 2 other times over 6 months by overdosing on alprazolam and was hospitalized after both attempts. He has no history of mania or psychosis.
Mr. B also abused opioids. In college, he was prescribed codeine for back pain after a sports injury. He experienced profound relief from depression after his first dose and soon began abusing codeine and other opioids for mood effects, including diphenoxylate/atropine and “cough syrup.” He says he has never used heroin.
Twenty years of illicit opioid use destroyed Mr. B’s occupational and social functioning, leaving him unable to work in his chosen field. During that period, he was frequently unemployed, socially isolated, and unable to sustain romantic relationships.
At age 40, Mr. B entered a methadone program, began working steadily, and got married. Five years later, he tapered off methadone and to our knowledge remained continuously opioid-free until presentation. Mr. B’s depression persisted while using opioids and worsened after stopping methadone. He also completed an 8-week residential substance abuse treatment program several months before presentation.
HISTORY: Family problems
Mr. B says he was emotionally abused as a child and described his father as excessively rageful. He says he entered a highly skilled profession to please his father but did not enjoy it and has not worked in the field since his early 30s. He has been unemployed for 1 year because his depression makes him feel “unworthy” to work.
The patient’s marriage of 10 years has been riddled with conflict. His depression, substance abuse, suicidality, and unemployment have fueled his wife’s resentment and anger.
The authors’ observations
Mr. B’s depression is challenging because of its severity and many possible causes and perpetuating factors. In addition to acute psychological stress and recent alcohol and benzodiazepine abuse, he has endured long-term opioid addiction. Although he had stayed opioid-free for 5 years, his past addiction contributed to his depression.
Whether Mr. B’s depression or opioid dependence came first is unclear. Either way, past opioid dependence can worsen depression prognosis.1 Opioid dependence might cause a withdrawal state that lasts years after acute withdrawal has subsided, although some researchers dispute this concept.2 According to Gold et al,3 long-term opioid use can cause endogenous opioid system derangements and depression after exogenous opioid use has ceased.
Depression is difficult to diagnose unambiguously in patients who have been using alcohol or anxiolytics because these CNS depressants’ effects might mimic depression. Patients whose symptoms suggest dual disorders commonly alternate between traditional psychiatric interventions and chemical dependence treatment.
As with Mr. B, a patient who abstains from 1 substance might start abusing another. This “replacement” is part of an “addiction interaction” theory that recognizes multiple substance and/or behavioral addictions in a patient.4 “Replacement” addiction indicates that substance abuse therapy is not adequately addressing some issues.
Coordinating concurrent depression and substance abuse treatment is critical. Although Mr. B’s ongoing psychosocial stress was addressed to varying degrees, endogenous opioid system derangements and/or prolonged opioid withdrawal may have been missed.
TREATMENT: Medication change
We discontinue methylphenidate because it is causing anxiety while leaving Mr. B’s depression unabated. Also, methylphenidate can be addictive.
Over several weeks, we titrate venlafaxine to 300 mg/d and continue mirtazapine, 30 mg at bedtime. We start weekly individual psychotherapy and encourage Mr. B to regularly attend Alcoholics Anonymous (AA) meetings, which he had been attending intermittently for years.
After 1 month, Mr. B’s depression improves marginally, but his depressed mood, anergia, and flat affect persist. He has not relapsed into alcohol or benzodiazepine dependence but reports occasional cravings for opioids and longs for the profound antidepressant effect they once gave him.
The authors’ observations
Sublingual buprenorphine is not FDA-approved to treat depression, although several small studies have described its antidepressant efficacy.5-7 How exogenous opioids reduce depressive symptoms is unknown, although some researchers believe that endogenous opioids:
- work with the mesolimbic dopaminergic system to mediate pleasure and reward
- modulate the mesolimbic system
- or have the same attenuating effect on both psychic and physical pain.
Buprenorphine also is a kappa receptor antagonist, which might explain its antidepressant efficacy.11 Whereas full mu agonism mediates euphoria, kappa receptor agonism results in dysphoria. By contrast, kappa receptor antagonism might cause a more stable, noneuphoric antidepressant effect.
Based on Mr. B’s clinical status, we ask him to consider sublingual buprenorphine/naloxone to treat depression and prevent relapse to opioid addiction.
The authors’ observations
Mr. B’s opioid addiction history and type of depression support buprenorphine augmentation. Whereas switching antidepressants or starting ECT would address only his persistent depression, buprenorphine also would target his opioid craving.
Numerous conventional psychotropics have not alleviated Mr. B’s depression, and changing antidepressants might nullify his small gains over the past month. We might consider ECT if buprenorphine does not reduce his depression.
Doctors need to obtain a waiver from the Drug Enforcement Administration (DEA) before using buprenorphine to treat opioid dependence—its approved indication (Box 1). This waiver is not necessary for off-label buprenorphine use. We needed the DEA waiver for Mr. B because we were using buprenorphine to treat opioid relapse prevention as well as depression. To prescribe buprenorphine without a DEA waiver, document that you are using the drug only for the off-label purpose.
The Drug Enforcement Administration (DEA) requires physicians to obtain a waiver to use buprenorphine to treat opioid dependence in outpatients. This waiver exempts outpatient practitioners from the DEA requirement that only specially licensed opioid treatment programs—such as methadone clinics—can dispense opioid medications.
To obtain the waiver, a physician must:
- show competency to use buprenorphine—usually by completing an 8-hour training course
- certify that he/she can conveniently refer patients for psychosocial treatment.
To receive DEA-approved buprenorphine training, in person or online, contact:
- American Society of Addiction Medicine. (888) 362-6784, www.asam.org/BuprenorphineCME.html
- American Academy of Addiction Psychiatry. (401) 524-3076, www.aaap.org/buprenorphine/buprenorphine.htm
- American Psychiatric Association. (703) 907-7300, www.psych.org/edu/bup_training.cfm
- American Osteopathic Academy of Addiction Medicine. (800) 621-1773, ext. 8163, www.aoaam.org.
For information on obtaining the waiver, visit www.buprenorphine.samhsa.gov.
Buprenorphine risks
Overdose. Buprenorphine can be abused by grinding and dissolving tablets, then injecting them intravenously. Doing this while under the influence of benzodiazepines or other sedatives can cause respiratory depression, leading to coma or death.
Combination buprenorphine/naloxone carries a much lower risk of IV overdose than buprenorphine alone because naloxone blocks mu opioid receptors. This formulation was created specifically to prevent buprenorphine misuse. Because naloxone is metabolized hepatically, it is not pharmacologically active when taken orally and will not block buprenorphine’s effect when buprenorphine/naloxone is taken as prescribed.
Physical dependence and withdrawal. Long-term buprenorphine use can cause physical dependence. Abrupt discontinuation or excessively high doses can precipitate withdrawal. How withdrawal is precipitated is unclear, although some believe the drug displaces itself from mu receptors when doses are too high. Myalgia, headache, abdominal discomfort, rhinorrhea, anxiety, and irritability are common buprenorphine withdrawal symptoms. The dosage at which the drug precipitates withdrawal varies with each patient’s tolerance for opioids.
When stopping buprenorphine therapy, taper the medication gradually to minimize withdrawal discomfort and relapse risk. Start tapering by 2 mg per month, then taper more rapidly or slowly based on the patient’s subjective experience.
TREATMENT: An opioid option
After discussing the risks and benefits with Mr. B and his wife, we add buprenorphine/naloxone, 8 mg/d, then increase it to 16 mg/d the next day. He tolerates the medication, and within 1 week his anergia disappears and he feels more motivated and productive. He reports no euphoria from buprenorphine but says it decreases his craving for alcohol, benzodiazepines, and opioids.
We continue buprenorphine/naloxone, 16 mg/d, and mirtazapine, 30 mg at bedtime, and reduce venlafaxine to 225 mg/d to mitigate sexual side effects. During weekly individual psychotherapy, we target Mr. B’s marital conflict and low self-esteem, and instruct him on overcoming life obstacles such as unemployment. He is looking for work and attends AA approximately 5 times a week.
Remember these 8 steps
- Address depression and substance abuse concurrently
- Communicate regularly with other providers about progress on depression and substance abuse issues
- Recommend and support involvement in 12-step programs such as AA
- Use medications for both depression—such as antidepressants—and relapse prevention—such as naltrexone, acamprosate, or buprenorphine/naloxone
- Explore family history of addiction and how this affected the patient developmentally. Find out if depression and substance abuse had common causes; this helps the patient realize that he/she did not become depressed or addicted by choice
- Ask about and discuss multiple addictions that were not initially reported
- Help the patient express, tolerate, and experience difficult feelings rather than avoid them
- Empathize with the patient; express understanding that factors out of the patient’s control caused depression and addiction
The authors’ observations
Considering the tumultuousness of Mr. B’s life, his willingness to enter psychotherapy and address underlying issues is significant. Adding buprenorphine to his antidepressant regimen helped stabilize his mood and make psychotherapy possible.
Psychotropics have not induced total remission of Mr. B’s depression, which is multifactorial and requires multimodal treatment. Still, we consider buprenorphine therapy at least partially successful—he has gone 6 months without attempting suicide or requiring psychiatric hospitalization.
Some clinicians consider buprenorphine’s potential for physical dependence a drawback to depression therapy. Physical dependence on a psychotropic does not necessarily outweigh its benefit in severe depression. Indeed, patients with depression can experience discontinuation symptoms from selective serotonin reuptake inhibitors and withdrawal from benzodiazepines.2,12
FOLLOW-UP: ‘Bup’ stigma
Mr. B feels stigmatized about buprenorphine use, partly because his wife shames him for his history of addiction and views buprenorphine as a constant reminder of his “failures.”
Mrs. B’s dysfunctional attitude leaves Mr. B too ashamed to tell his fellow AA members that he takes buprenorphine. His inability to share these feelings also diminishes his sense of belonging in the 12-step fellowship. Even so, he feels that buprenorphine has helped him tremendously and wants to continue taking it.
During psychotherapy, we address Mr. B’s buprenorphine-related stigma and pervasive shame stemming from his history of mental illness, addiction, inability to work in his chosen field, and past employment failures. We encourage him to overcome his shame by pointing out his strengths—such as the skills he can offer potential employers—and by emphasizing that he did not choose to become depressed and addicted.
The authors’ observations
Most patients addicted to opiates feel much less stigmatized by buprenorphine therapy than by methadone. Patients who feel shame while taking buprenorphine usually are reacting to past opioid addiction rather than current therapy. Mr. B’s buprenorphine-related shame stems from his personality structure.
Shame, however, could create negative expectations of buprenorphine therapy, and can lower some patients’ self-esteem to the point that they feel they do not deserve to get better. Some patients stop buprenorphine prematurely because they believe they have beaten the addiction, but this often leads to relapse to the previous opioid of choice.
Help patients work through the shame of past addiction and encourage them to view buprenorphine therapy as a positive step toward recovery (Box 2). As mental health professionals, we must not collude with society to shame people with past chemical addiction. Creatively yet responsibly broadening our perspective toward psychiatric intervention can help patients such as Mr. B receive optimal treatment.
Although members of a 12-step group might harbor an idiosyncratic position on medications or treatment, cooperation with professionals is the program’s mainstream stance. Ideally, combination pharmacotherapy, psychotherapy, and guidance for optimal use of support groups can provide a stable foundation for recovery from both psychiatric and addictive disorders.
Related resources
- U.S. Department of Health and Human Services, Substance Abuse and Mental Health Services Administration, Center for Substance Abuse Treatment Knowledge Application Program, Treatment Improvement Protocol Series. www.kap.samhsa.gov/products/manuals/tips/index.htm.
- Acamprosate • Campral
- Alprazolam • Xanax
- Aripiprazole • Abilify
- Buprenorphine • Subutex
- Buprenorphine/naloxone • Suboxone
- Bupropion • Wellbutrin
- Diphenoxylate/atropine • Lomotil
- Methadone • Dolophine
- Methylphenidate • Ritalin, Concerta
- Mirtazapine • Remeron
- Naltrexone • ReVia, Vivitrol
- Quetiapine • Seroquel
- Sertraline • Zoloft
- Trazodone • Desyrel
- Venlafaxine • Effexor
Dr. Roth is a speaker for Reckitt Benckiser.
Drs. Eiger and Tan report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Nunes EV, Sullivan MA, Levin FR. Treatment of depression in patients with opiate dependence. Biol Psychiatry 2004;56:793-802.
2. Graham AW, Schultz TK, Mayo-Smith MF, et al, eds. Principles of addiction medicine. 3rd ed. Chevy Chase, MD: American Society of Addiction Medicine; 2003.
3. Gold MS, Pottash AL, Extein I, et al. Evidence for an endorphin dysfunction in methadone addicts: lack of ACTH response to naloxone. Drug Alcohol Depend 1981;8:257-62.
4. Carnes PJ, Murray RE, Charpentier L. Addiction interaction disorder. In: Coombs RH, ed. Handbook of addictive disorders: a practical guide to diagnosis and treatment. Hoboken, NJ: John Wiley & Sons 2004:31-59.
5. Kosten TR, Morgan C, Kosten TA. Depressive symptoms during buprenorphine treatment of opioid abusers. J Subst Abuse Treat. 1990;7:51-4.
6. Dean AJ, Bell J, Christie MJ, Mattick RP. Depressive symptoms during buprenorphine vs. methadone maintenance: findings from a randomized, controlled trial in opioid dependence. Eur Psychiatry. 2004;19:510-13.
7. Bodkin JA, Zornberg GL, Lukas SE, Cole JO. Buprenorphine treatment of refractory depression. J Clin Psychopharmacol. 1995;15:49-57.
8. Jaffe JH, Jaffe AB. Neurobiology of opioids. In: Galanter M, Kleber HD, eds. Textbook of substance abuse treatment.. 3rd ed. Washington, DC: American Psychiatric Publishing; 2004:17-30.
9. Jones HE. Practical considerations for the clinical use of buprenorphine. NIDA Sci Pract Perspectives. 2004;2:4-20.
10. Geppert CM, Toney GB, Siracusano D, Thorius M. Outpatient buprenorphine treatment for opioid dependence. Fed Practitioner. 2005;22:9-40.
11. Mague SD, Pliakas AM, Todtenkopf MS, et al. Antidepressant-like effects of kappa-opioid receptor antagonists in the forced swim test in rats. J Pharmacol Exp Ther. 2003;305:323-30.
12. Van Geffen EC, Hugtenburg JG, Heerdink ER, et al. Discontinuation symptoms in users of selective serotonin reuptake inhibitors in clinical practice: tapering versus abrupt continuation. Eur J Clin Pharmacol. 2005;61:303-7.
CASE: Near-fatal combination
Inpatient psychiatry refers Mr. B, age 50, to our outpatient psychiatry clinic. Two weeks earlier, he tried to kill himself by sitting on a stepladder, tying a noose around his neck, and consuming large amounts of quetiapine, trazodone, and vodka. His wife found him unconscious on the floor with facial abrasions, empty pill bottles, and the noose lying next to him.
Emergency medical personnel brought Mr. B to the ER. His total Glasgow Coma Scale score of 3 indicated he was comatose. Pulse was 65 bpm (low-normal), and blood alcohol level was 106 mg/dL, suggesting he had ingested hazardous amounts of vodka. Quetiapine and trazodone blood levels were not measured.
Gastric lavage was unsuccessful because the orogastric tube became curled in the distal esophagus. Mr. B was successfully intubated and admitted to the intensive care unit. After 2 days, he was medically stable and regained consciousness, though he was delirious. He was transferred to inpatient psychiatry, where the attending psychiatrist diagnosed major depression and alcohol abuse disorder.
Before presentation, Mr. B had been taking venlafaxine, 75 mg/d, and mirtazapine, 30 mg at bedtime. His previous outpatient psychiatrist had added methylphenidate, 40 mg/d, to augment the antidepressants—which were not alleviating his depression—and the attending continued all 3 medications. Prior trials of sertraline, bupropion, trazodone, quetiapine, and aripiprazole were ineffective.
By the time Mr. B is transferred to us, his suicidal thoughts have remitted but he is still notably depressed. He is anergic, feels hopeless about the future, has markedly diminished self-worth, feels excessively guilty over past actions, is socially withdrawn, and shows a blunted, depressed affect. He also complains of insomnia despite taking mirtazapine at bedtime.
HISTORY: Depression and drugs
Mr. B says he has felt depressed on and off since his teens, and his current episode has been continuously severe for 1½ years. He began abusing alcohol and benzodiazepines during this episode but says he has been clean and sober for 2 weeks. He tried to kill himself 2 other times over 6 months by overdosing on alprazolam and was hospitalized after both attempts. He has no history of mania or psychosis.
Mr. B also abused opioids. In college, he was prescribed codeine for back pain after a sports injury. He experienced profound relief from depression after his first dose and soon began abusing codeine and other opioids for mood effects, including diphenoxylate/atropine and “cough syrup.” He says he has never used heroin.
Twenty years of illicit opioid use destroyed Mr. B’s occupational and social functioning, leaving him unable to work in his chosen field. During that period, he was frequently unemployed, socially isolated, and unable to sustain romantic relationships.
At age 40, Mr. B entered a methadone program, began working steadily, and got married. Five years later, he tapered off methadone and to our knowledge remained continuously opioid-free until presentation. Mr. B’s depression persisted while using opioids and worsened after stopping methadone. He also completed an 8-week residential substance abuse treatment program several months before presentation.
HISTORY: Family problems
Mr. B says he was emotionally abused as a child and described his father as excessively rageful. He says he entered a highly skilled profession to please his father but did not enjoy it and has not worked in the field since his early 30s. He has been unemployed for 1 year because his depression makes him feel “unworthy” to work.
The patient’s marriage of 10 years has been riddled with conflict. His depression, substance abuse, suicidality, and unemployment have fueled his wife’s resentment and anger.
The authors’ observations
Mr. B’s depression is challenging because of its severity and many possible causes and perpetuating factors. In addition to acute psychological stress and recent alcohol and benzodiazepine abuse, he has endured long-term opioid addiction. Although he had stayed opioid-free for 5 years, his past addiction contributed to his depression.
Whether Mr. B’s depression or opioid dependence came first is unclear. Either way, past opioid dependence can worsen depression prognosis.1 Opioid dependence might cause a withdrawal state that lasts years after acute withdrawal has subsided, although some researchers dispute this concept.2 According to Gold et al,3 long-term opioid use can cause endogenous opioid system derangements and depression after exogenous opioid use has ceased.
Depression is difficult to diagnose unambiguously in patients who have been using alcohol or anxiolytics because these CNS depressants’ effects might mimic depression. Patients whose symptoms suggest dual disorders commonly alternate between traditional psychiatric interventions and chemical dependence treatment.
As with Mr. B, a patient who abstains from 1 substance might start abusing another. This “replacement” is part of an “addiction interaction” theory that recognizes multiple substance and/or behavioral addictions in a patient.4 “Replacement” addiction indicates that substance abuse therapy is not adequately addressing some issues.
Coordinating concurrent depression and substance abuse treatment is critical. Although Mr. B’s ongoing psychosocial stress was addressed to varying degrees, endogenous opioid system derangements and/or prolonged opioid withdrawal may have been missed.
TREATMENT: Medication change
We discontinue methylphenidate because it is causing anxiety while leaving Mr. B’s depression unabated. Also, methylphenidate can be addictive.
Over several weeks, we titrate venlafaxine to 300 mg/d and continue mirtazapine, 30 mg at bedtime. We start weekly individual psychotherapy and encourage Mr. B to regularly attend Alcoholics Anonymous (AA) meetings, which he had been attending intermittently for years.
After 1 month, Mr. B’s depression improves marginally, but his depressed mood, anergia, and flat affect persist. He has not relapsed into alcohol or benzodiazepine dependence but reports occasional cravings for opioids and longs for the profound antidepressant effect they once gave him.
The authors’ observations
Sublingual buprenorphine is not FDA-approved to treat depression, although several small studies have described its antidepressant efficacy.5-7 How exogenous opioids reduce depressive symptoms is unknown, although some researchers believe that endogenous opioids:
- work with the mesolimbic dopaminergic system to mediate pleasure and reward
- modulate the mesolimbic system
- or have the same attenuating effect on both psychic and physical pain.
Buprenorphine also is a kappa receptor antagonist, which might explain its antidepressant efficacy.11 Whereas full mu agonism mediates euphoria, kappa receptor agonism results in dysphoria. By contrast, kappa receptor antagonism might cause a more stable, noneuphoric antidepressant effect.
Based on Mr. B’s clinical status, we ask him to consider sublingual buprenorphine/naloxone to treat depression and prevent relapse to opioid addiction.
The authors’ observations
Mr. B’s opioid addiction history and type of depression support buprenorphine augmentation. Whereas switching antidepressants or starting ECT would address only his persistent depression, buprenorphine also would target his opioid craving.
Numerous conventional psychotropics have not alleviated Mr. B’s depression, and changing antidepressants might nullify his small gains over the past month. We might consider ECT if buprenorphine does not reduce his depression.
Doctors need to obtain a waiver from the Drug Enforcement Administration (DEA) before using buprenorphine to treat opioid dependence—its approved indication (Box 1). This waiver is not necessary for off-label buprenorphine use. We needed the DEA waiver for Mr. B because we were using buprenorphine to treat opioid relapse prevention as well as depression. To prescribe buprenorphine without a DEA waiver, document that you are using the drug only for the off-label purpose.
The Drug Enforcement Administration (DEA) requires physicians to obtain a waiver to use buprenorphine to treat opioid dependence in outpatients. This waiver exempts outpatient practitioners from the DEA requirement that only specially licensed opioid treatment programs—such as methadone clinics—can dispense opioid medications.
To obtain the waiver, a physician must:
- show competency to use buprenorphine—usually by completing an 8-hour training course
- certify that he/she can conveniently refer patients for psychosocial treatment.
To receive DEA-approved buprenorphine training, in person or online, contact:
- American Society of Addiction Medicine. (888) 362-6784, www.asam.org/BuprenorphineCME.html
- American Academy of Addiction Psychiatry. (401) 524-3076, www.aaap.org/buprenorphine/buprenorphine.htm
- American Psychiatric Association. (703) 907-7300, www.psych.org/edu/bup_training.cfm
- American Osteopathic Academy of Addiction Medicine. (800) 621-1773, ext. 8163, www.aoaam.org.
For information on obtaining the waiver, visit www.buprenorphine.samhsa.gov.
Buprenorphine risks
Overdose. Buprenorphine can be abused by grinding and dissolving tablets, then injecting them intravenously. Doing this while under the influence of benzodiazepines or other sedatives can cause respiratory depression, leading to coma or death.
Combination buprenorphine/naloxone carries a much lower risk of IV overdose than buprenorphine alone because naloxone blocks mu opioid receptors. This formulation was created specifically to prevent buprenorphine misuse. Because naloxone is metabolized hepatically, it is not pharmacologically active when taken orally and will not block buprenorphine’s effect when buprenorphine/naloxone is taken as prescribed.
Physical dependence and withdrawal. Long-term buprenorphine use can cause physical dependence. Abrupt discontinuation or excessively high doses can precipitate withdrawal. How withdrawal is precipitated is unclear, although some believe the drug displaces itself from mu receptors when doses are too high. Myalgia, headache, abdominal discomfort, rhinorrhea, anxiety, and irritability are common buprenorphine withdrawal symptoms. The dosage at which the drug precipitates withdrawal varies with each patient’s tolerance for opioids.
When stopping buprenorphine therapy, taper the medication gradually to minimize withdrawal discomfort and relapse risk. Start tapering by 2 mg per month, then taper more rapidly or slowly based on the patient’s subjective experience.
TREATMENT: An opioid option
After discussing the risks and benefits with Mr. B and his wife, we add buprenorphine/naloxone, 8 mg/d, then increase it to 16 mg/d the next day. He tolerates the medication, and within 1 week his anergia disappears and he feels more motivated and productive. He reports no euphoria from buprenorphine but says it decreases his craving for alcohol, benzodiazepines, and opioids.
We continue buprenorphine/naloxone, 16 mg/d, and mirtazapine, 30 mg at bedtime, and reduce venlafaxine to 225 mg/d to mitigate sexual side effects. During weekly individual psychotherapy, we target Mr. B’s marital conflict and low self-esteem, and instruct him on overcoming life obstacles such as unemployment. He is looking for work and attends AA approximately 5 times a week.
Remember these 8 steps
- Address depression and substance abuse concurrently
- Communicate regularly with other providers about progress on depression and substance abuse issues
- Recommend and support involvement in 12-step programs such as AA
- Use medications for both depression—such as antidepressants—and relapse prevention—such as naltrexone, acamprosate, or buprenorphine/naloxone
- Explore family history of addiction and how this affected the patient developmentally. Find out if depression and substance abuse had common causes; this helps the patient realize that he/she did not become depressed or addicted by choice
- Ask about and discuss multiple addictions that were not initially reported
- Help the patient express, tolerate, and experience difficult feelings rather than avoid them
- Empathize with the patient; express understanding that factors out of the patient’s control caused depression and addiction
The authors’ observations
Considering the tumultuousness of Mr. B’s life, his willingness to enter psychotherapy and address underlying issues is significant. Adding buprenorphine to his antidepressant regimen helped stabilize his mood and make psychotherapy possible.
Psychotropics have not induced total remission of Mr. B’s depression, which is multifactorial and requires multimodal treatment. Still, we consider buprenorphine therapy at least partially successful—he has gone 6 months without attempting suicide or requiring psychiatric hospitalization.
Some clinicians consider buprenorphine’s potential for physical dependence a drawback to depression therapy. Physical dependence on a psychotropic does not necessarily outweigh its benefit in severe depression. Indeed, patients with depression can experience discontinuation symptoms from selective serotonin reuptake inhibitors and withdrawal from benzodiazepines.2,12
FOLLOW-UP: ‘Bup’ stigma
Mr. B feels stigmatized about buprenorphine use, partly because his wife shames him for his history of addiction and views buprenorphine as a constant reminder of his “failures.”
Mrs. B’s dysfunctional attitude leaves Mr. B too ashamed to tell his fellow AA members that he takes buprenorphine. His inability to share these feelings also diminishes his sense of belonging in the 12-step fellowship. Even so, he feels that buprenorphine has helped him tremendously and wants to continue taking it.
During psychotherapy, we address Mr. B’s buprenorphine-related stigma and pervasive shame stemming from his history of mental illness, addiction, inability to work in his chosen field, and past employment failures. We encourage him to overcome his shame by pointing out his strengths—such as the skills he can offer potential employers—and by emphasizing that he did not choose to become depressed and addicted.
The authors’ observations
Most patients addicted to opiates feel much less stigmatized by buprenorphine therapy than by methadone. Patients who feel shame while taking buprenorphine usually are reacting to past opioid addiction rather than current therapy. Mr. B’s buprenorphine-related shame stems from his personality structure.
Shame, however, could create negative expectations of buprenorphine therapy, and can lower some patients’ self-esteem to the point that they feel they do not deserve to get better. Some patients stop buprenorphine prematurely because they believe they have beaten the addiction, but this often leads to relapse to the previous opioid of choice.
Help patients work through the shame of past addiction and encourage them to view buprenorphine therapy as a positive step toward recovery (Box 2). As mental health professionals, we must not collude with society to shame people with past chemical addiction. Creatively yet responsibly broadening our perspective toward psychiatric intervention can help patients such as Mr. B receive optimal treatment.
Although members of a 12-step group might harbor an idiosyncratic position on medications or treatment, cooperation with professionals is the program’s mainstream stance. Ideally, combination pharmacotherapy, psychotherapy, and guidance for optimal use of support groups can provide a stable foundation for recovery from both psychiatric and addictive disorders.
Related resources
- U.S. Department of Health and Human Services, Substance Abuse and Mental Health Services Administration, Center for Substance Abuse Treatment Knowledge Application Program, Treatment Improvement Protocol Series. www.kap.samhsa.gov/products/manuals/tips/index.htm.
- Acamprosate • Campral
- Alprazolam • Xanax
- Aripiprazole • Abilify
- Buprenorphine • Subutex
- Buprenorphine/naloxone • Suboxone
- Bupropion • Wellbutrin
- Diphenoxylate/atropine • Lomotil
- Methadone • Dolophine
- Methylphenidate • Ritalin, Concerta
- Mirtazapine • Remeron
- Naltrexone • ReVia, Vivitrol
- Quetiapine • Seroquel
- Sertraline • Zoloft
- Trazodone • Desyrel
- Venlafaxine • Effexor
Dr. Roth is a speaker for Reckitt Benckiser.
Drs. Eiger and Tan report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
CASE: Near-fatal combination
Inpatient psychiatry refers Mr. B, age 50, to our outpatient psychiatry clinic. Two weeks earlier, he tried to kill himself by sitting on a stepladder, tying a noose around his neck, and consuming large amounts of quetiapine, trazodone, and vodka. His wife found him unconscious on the floor with facial abrasions, empty pill bottles, and the noose lying next to him.
Emergency medical personnel brought Mr. B to the ER. His total Glasgow Coma Scale score of 3 indicated he was comatose. Pulse was 65 bpm (low-normal), and blood alcohol level was 106 mg/dL, suggesting he had ingested hazardous amounts of vodka. Quetiapine and trazodone blood levels were not measured.
Gastric lavage was unsuccessful because the orogastric tube became curled in the distal esophagus. Mr. B was successfully intubated and admitted to the intensive care unit. After 2 days, he was medically stable and regained consciousness, though he was delirious. He was transferred to inpatient psychiatry, where the attending psychiatrist diagnosed major depression and alcohol abuse disorder.
Before presentation, Mr. B had been taking venlafaxine, 75 mg/d, and mirtazapine, 30 mg at bedtime. His previous outpatient psychiatrist had added methylphenidate, 40 mg/d, to augment the antidepressants—which were not alleviating his depression—and the attending continued all 3 medications. Prior trials of sertraline, bupropion, trazodone, quetiapine, and aripiprazole were ineffective.
By the time Mr. B is transferred to us, his suicidal thoughts have remitted but he is still notably depressed. He is anergic, feels hopeless about the future, has markedly diminished self-worth, feels excessively guilty over past actions, is socially withdrawn, and shows a blunted, depressed affect. He also complains of insomnia despite taking mirtazapine at bedtime.
HISTORY: Depression and drugs
Mr. B says he has felt depressed on and off since his teens, and his current episode has been continuously severe for 1½ years. He began abusing alcohol and benzodiazepines during this episode but says he has been clean and sober for 2 weeks. He tried to kill himself 2 other times over 6 months by overdosing on alprazolam and was hospitalized after both attempts. He has no history of mania or psychosis.
Mr. B also abused opioids. In college, he was prescribed codeine for back pain after a sports injury. He experienced profound relief from depression after his first dose and soon began abusing codeine and other opioids for mood effects, including diphenoxylate/atropine and “cough syrup.” He says he has never used heroin.
Twenty years of illicit opioid use destroyed Mr. B’s occupational and social functioning, leaving him unable to work in his chosen field. During that period, he was frequently unemployed, socially isolated, and unable to sustain romantic relationships.
At age 40, Mr. B entered a methadone program, began working steadily, and got married. Five years later, he tapered off methadone and to our knowledge remained continuously opioid-free until presentation. Mr. B’s depression persisted while using opioids and worsened after stopping methadone. He also completed an 8-week residential substance abuse treatment program several months before presentation.
HISTORY: Family problems
Mr. B says he was emotionally abused as a child and described his father as excessively rageful. He says he entered a highly skilled profession to please his father but did not enjoy it and has not worked in the field since his early 30s. He has been unemployed for 1 year because his depression makes him feel “unworthy” to work.
The patient’s marriage of 10 years has been riddled with conflict. His depression, substance abuse, suicidality, and unemployment have fueled his wife’s resentment and anger.
The authors’ observations
Mr. B’s depression is challenging because of its severity and many possible causes and perpetuating factors. In addition to acute psychological stress and recent alcohol and benzodiazepine abuse, he has endured long-term opioid addiction. Although he had stayed opioid-free for 5 years, his past addiction contributed to his depression.
Whether Mr. B’s depression or opioid dependence came first is unclear. Either way, past opioid dependence can worsen depression prognosis.1 Opioid dependence might cause a withdrawal state that lasts years after acute withdrawal has subsided, although some researchers dispute this concept.2 According to Gold et al,3 long-term opioid use can cause endogenous opioid system derangements and depression after exogenous opioid use has ceased.
Depression is difficult to diagnose unambiguously in patients who have been using alcohol or anxiolytics because these CNS depressants’ effects might mimic depression. Patients whose symptoms suggest dual disorders commonly alternate between traditional psychiatric interventions and chemical dependence treatment.
As with Mr. B, a patient who abstains from 1 substance might start abusing another. This “replacement” is part of an “addiction interaction” theory that recognizes multiple substance and/or behavioral addictions in a patient.4 “Replacement” addiction indicates that substance abuse therapy is not adequately addressing some issues.
Coordinating concurrent depression and substance abuse treatment is critical. Although Mr. B’s ongoing psychosocial stress was addressed to varying degrees, endogenous opioid system derangements and/or prolonged opioid withdrawal may have been missed.
TREATMENT: Medication change
We discontinue methylphenidate because it is causing anxiety while leaving Mr. B’s depression unabated. Also, methylphenidate can be addictive.
Over several weeks, we titrate venlafaxine to 300 mg/d and continue mirtazapine, 30 mg at bedtime. We start weekly individual psychotherapy and encourage Mr. B to regularly attend Alcoholics Anonymous (AA) meetings, which he had been attending intermittently for years.
After 1 month, Mr. B’s depression improves marginally, but his depressed mood, anergia, and flat affect persist. He has not relapsed into alcohol or benzodiazepine dependence but reports occasional cravings for opioids and longs for the profound antidepressant effect they once gave him.
The authors’ observations
Sublingual buprenorphine is not FDA-approved to treat depression, although several small studies have described its antidepressant efficacy.5-7 How exogenous opioids reduce depressive symptoms is unknown, although some researchers believe that endogenous opioids:
- work with the mesolimbic dopaminergic system to mediate pleasure and reward
- modulate the mesolimbic system
- or have the same attenuating effect on both psychic and physical pain.
Buprenorphine also is a kappa receptor antagonist, which might explain its antidepressant efficacy.11 Whereas full mu agonism mediates euphoria, kappa receptor agonism results in dysphoria. By contrast, kappa receptor antagonism might cause a more stable, noneuphoric antidepressant effect.
Based on Mr. B’s clinical status, we ask him to consider sublingual buprenorphine/naloxone to treat depression and prevent relapse to opioid addiction.
The authors’ observations
Mr. B’s opioid addiction history and type of depression support buprenorphine augmentation. Whereas switching antidepressants or starting ECT would address only his persistent depression, buprenorphine also would target his opioid craving.
Numerous conventional psychotropics have not alleviated Mr. B’s depression, and changing antidepressants might nullify his small gains over the past month. We might consider ECT if buprenorphine does not reduce his depression.
Doctors need to obtain a waiver from the Drug Enforcement Administration (DEA) before using buprenorphine to treat opioid dependence—its approved indication (Box 1). This waiver is not necessary for off-label buprenorphine use. We needed the DEA waiver for Mr. B because we were using buprenorphine to treat opioid relapse prevention as well as depression. To prescribe buprenorphine without a DEA waiver, document that you are using the drug only for the off-label purpose.
The Drug Enforcement Administration (DEA) requires physicians to obtain a waiver to use buprenorphine to treat opioid dependence in outpatients. This waiver exempts outpatient practitioners from the DEA requirement that only specially licensed opioid treatment programs—such as methadone clinics—can dispense opioid medications.
To obtain the waiver, a physician must:
- show competency to use buprenorphine—usually by completing an 8-hour training course
- certify that he/she can conveniently refer patients for psychosocial treatment.
To receive DEA-approved buprenorphine training, in person or online, contact:
- American Society of Addiction Medicine. (888) 362-6784, www.asam.org/BuprenorphineCME.html
- American Academy of Addiction Psychiatry. (401) 524-3076, www.aaap.org/buprenorphine/buprenorphine.htm
- American Psychiatric Association. (703) 907-7300, www.psych.org/edu/bup_training.cfm
- American Osteopathic Academy of Addiction Medicine. (800) 621-1773, ext. 8163, www.aoaam.org.
For information on obtaining the waiver, visit www.buprenorphine.samhsa.gov.
Buprenorphine risks
Overdose. Buprenorphine can be abused by grinding and dissolving tablets, then injecting them intravenously. Doing this while under the influence of benzodiazepines or other sedatives can cause respiratory depression, leading to coma or death.
Combination buprenorphine/naloxone carries a much lower risk of IV overdose than buprenorphine alone because naloxone blocks mu opioid receptors. This formulation was created specifically to prevent buprenorphine misuse. Because naloxone is metabolized hepatically, it is not pharmacologically active when taken orally and will not block buprenorphine’s effect when buprenorphine/naloxone is taken as prescribed.
Physical dependence and withdrawal. Long-term buprenorphine use can cause physical dependence. Abrupt discontinuation or excessively high doses can precipitate withdrawal. How withdrawal is precipitated is unclear, although some believe the drug displaces itself from mu receptors when doses are too high. Myalgia, headache, abdominal discomfort, rhinorrhea, anxiety, and irritability are common buprenorphine withdrawal symptoms. The dosage at which the drug precipitates withdrawal varies with each patient’s tolerance for opioids.
When stopping buprenorphine therapy, taper the medication gradually to minimize withdrawal discomfort and relapse risk. Start tapering by 2 mg per month, then taper more rapidly or slowly based on the patient’s subjective experience.
TREATMENT: An opioid option
After discussing the risks and benefits with Mr. B and his wife, we add buprenorphine/naloxone, 8 mg/d, then increase it to 16 mg/d the next day. He tolerates the medication, and within 1 week his anergia disappears and he feels more motivated and productive. He reports no euphoria from buprenorphine but says it decreases his craving for alcohol, benzodiazepines, and opioids.
We continue buprenorphine/naloxone, 16 mg/d, and mirtazapine, 30 mg at bedtime, and reduce venlafaxine to 225 mg/d to mitigate sexual side effects. During weekly individual psychotherapy, we target Mr. B’s marital conflict and low self-esteem, and instruct him on overcoming life obstacles such as unemployment. He is looking for work and attends AA approximately 5 times a week.
Remember these 8 steps
- Address depression and substance abuse concurrently
- Communicate regularly with other providers about progress on depression and substance abuse issues
- Recommend and support involvement in 12-step programs such as AA
- Use medications for both depression—such as antidepressants—and relapse prevention—such as naltrexone, acamprosate, or buprenorphine/naloxone
- Explore family history of addiction and how this affected the patient developmentally. Find out if depression and substance abuse had common causes; this helps the patient realize that he/she did not become depressed or addicted by choice
- Ask about and discuss multiple addictions that were not initially reported
- Help the patient express, tolerate, and experience difficult feelings rather than avoid them
- Empathize with the patient; express understanding that factors out of the patient’s control caused depression and addiction
The authors’ observations
Considering the tumultuousness of Mr. B’s life, his willingness to enter psychotherapy and address underlying issues is significant. Adding buprenorphine to his antidepressant regimen helped stabilize his mood and make psychotherapy possible.
Psychotropics have not induced total remission of Mr. B’s depression, which is multifactorial and requires multimodal treatment. Still, we consider buprenorphine therapy at least partially successful—he has gone 6 months without attempting suicide or requiring psychiatric hospitalization.
Some clinicians consider buprenorphine’s potential for physical dependence a drawback to depression therapy. Physical dependence on a psychotropic does not necessarily outweigh its benefit in severe depression. Indeed, patients with depression can experience discontinuation symptoms from selective serotonin reuptake inhibitors and withdrawal from benzodiazepines.2,12
FOLLOW-UP: ‘Bup’ stigma
Mr. B feels stigmatized about buprenorphine use, partly because his wife shames him for his history of addiction and views buprenorphine as a constant reminder of his “failures.”
Mrs. B’s dysfunctional attitude leaves Mr. B too ashamed to tell his fellow AA members that he takes buprenorphine. His inability to share these feelings also diminishes his sense of belonging in the 12-step fellowship. Even so, he feels that buprenorphine has helped him tremendously and wants to continue taking it.
During psychotherapy, we address Mr. B’s buprenorphine-related stigma and pervasive shame stemming from his history of mental illness, addiction, inability to work in his chosen field, and past employment failures. We encourage him to overcome his shame by pointing out his strengths—such as the skills he can offer potential employers—and by emphasizing that he did not choose to become depressed and addicted.
The authors’ observations
Most patients addicted to opiates feel much less stigmatized by buprenorphine therapy than by methadone. Patients who feel shame while taking buprenorphine usually are reacting to past opioid addiction rather than current therapy. Mr. B’s buprenorphine-related shame stems from his personality structure.
Shame, however, could create negative expectations of buprenorphine therapy, and can lower some patients’ self-esteem to the point that they feel they do not deserve to get better. Some patients stop buprenorphine prematurely because they believe they have beaten the addiction, but this often leads to relapse to the previous opioid of choice.
Help patients work through the shame of past addiction and encourage them to view buprenorphine therapy as a positive step toward recovery (Box 2). As mental health professionals, we must not collude with society to shame people with past chemical addiction. Creatively yet responsibly broadening our perspective toward psychiatric intervention can help patients such as Mr. B receive optimal treatment.
Although members of a 12-step group might harbor an idiosyncratic position on medications or treatment, cooperation with professionals is the program’s mainstream stance. Ideally, combination pharmacotherapy, psychotherapy, and guidance for optimal use of support groups can provide a stable foundation for recovery from both psychiatric and addictive disorders.
Related resources
- U.S. Department of Health and Human Services, Substance Abuse and Mental Health Services Administration, Center for Substance Abuse Treatment Knowledge Application Program, Treatment Improvement Protocol Series. www.kap.samhsa.gov/products/manuals/tips/index.htm.
- Acamprosate • Campral
- Alprazolam • Xanax
- Aripiprazole • Abilify
- Buprenorphine • Subutex
- Buprenorphine/naloxone • Suboxone
- Bupropion • Wellbutrin
- Diphenoxylate/atropine • Lomotil
- Methadone • Dolophine
- Methylphenidate • Ritalin, Concerta
- Mirtazapine • Remeron
- Naltrexone • ReVia, Vivitrol
- Quetiapine • Seroquel
- Sertraline • Zoloft
- Trazodone • Desyrel
- Venlafaxine • Effexor
Dr. Roth is a speaker for Reckitt Benckiser.
Drs. Eiger and Tan report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Nunes EV, Sullivan MA, Levin FR. Treatment of depression in patients with opiate dependence. Biol Psychiatry 2004;56:793-802.
2. Graham AW, Schultz TK, Mayo-Smith MF, et al, eds. Principles of addiction medicine. 3rd ed. Chevy Chase, MD: American Society of Addiction Medicine; 2003.
3. Gold MS, Pottash AL, Extein I, et al. Evidence for an endorphin dysfunction in methadone addicts: lack of ACTH response to naloxone. Drug Alcohol Depend 1981;8:257-62.
4. Carnes PJ, Murray RE, Charpentier L. Addiction interaction disorder. In: Coombs RH, ed. Handbook of addictive disorders: a practical guide to diagnosis and treatment. Hoboken, NJ: John Wiley & Sons 2004:31-59.
5. Kosten TR, Morgan C, Kosten TA. Depressive symptoms during buprenorphine treatment of opioid abusers. J Subst Abuse Treat. 1990;7:51-4.
6. Dean AJ, Bell J, Christie MJ, Mattick RP. Depressive symptoms during buprenorphine vs. methadone maintenance: findings from a randomized, controlled trial in opioid dependence. Eur Psychiatry. 2004;19:510-13.
7. Bodkin JA, Zornberg GL, Lukas SE, Cole JO. Buprenorphine treatment of refractory depression. J Clin Psychopharmacol. 1995;15:49-57.
8. Jaffe JH, Jaffe AB. Neurobiology of opioids. In: Galanter M, Kleber HD, eds. Textbook of substance abuse treatment.. 3rd ed. Washington, DC: American Psychiatric Publishing; 2004:17-30.
9. Jones HE. Practical considerations for the clinical use of buprenorphine. NIDA Sci Pract Perspectives. 2004;2:4-20.
10. Geppert CM, Toney GB, Siracusano D, Thorius M. Outpatient buprenorphine treatment for opioid dependence. Fed Practitioner. 2005;22:9-40.
11. Mague SD, Pliakas AM, Todtenkopf MS, et al. Antidepressant-like effects of kappa-opioid receptor antagonists in the forced swim test in rats. J Pharmacol Exp Ther. 2003;305:323-30.
12. Van Geffen EC, Hugtenburg JG, Heerdink ER, et al. Discontinuation symptoms in users of selective serotonin reuptake inhibitors in clinical practice: tapering versus abrupt continuation. Eur J Clin Pharmacol. 2005;61:303-7.
1. Nunes EV, Sullivan MA, Levin FR. Treatment of depression in patients with opiate dependence. Biol Psychiatry 2004;56:793-802.
2. Graham AW, Schultz TK, Mayo-Smith MF, et al, eds. Principles of addiction medicine. 3rd ed. Chevy Chase, MD: American Society of Addiction Medicine; 2003.
3. Gold MS, Pottash AL, Extein I, et al. Evidence for an endorphin dysfunction in methadone addicts: lack of ACTH response to naloxone. Drug Alcohol Depend 1981;8:257-62.
4. Carnes PJ, Murray RE, Charpentier L. Addiction interaction disorder. In: Coombs RH, ed. Handbook of addictive disorders: a practical guide to diagnosis and treatment. Hoboken, NJ: John Wiley & Sons 2004:31-59.
5. Kosten TR, Morgan C, Kosten TA. Depressive symptoms during buprenorphine treatment of opioid abusers. J Subst Abuse Treat. 1990;7:51-4.
6. Dean AJ, Bell J, Christie MJ, Mattick RP. Depressive symptoms during buprenorphine vs. methadone maintenance: findings from a randomized, controlled trial in opioid dependence. Eur Psychiatry. 2004;19:510-13.
7. Bodkin JA, Zornberg GL, Lukas SE, Cole JO. Buprenorphine treatment of refractory depression. J Clin Psychopharmacol. 1995;15:49-57.
8. Jaffe JH, Jaffe AB. Neurobiology of opioids. In: Galanter M, Kleber HD, eds. Textbook of substance abuse treatment.. 3rd ed. Washington, DC: American Psychiatric Publishing; 2004:17-30.
9. Jones HE. Practical considerations for the clinical use of buprenorphine. NIDA Sci Pract Perspectives. 2004;2:4-20.
10. Geppert CM, Toney GB, Siracusano D, Thorius M. Outpatient buprenorphine treatment for opioid dependence. Fed Practitioner. 2005;22:9-40.
11. Mague SD, Pliakas AM, Todtenkopf MS, et al. Antidepressant-like effects of kappa-opioid receptor antagonists in the forced swim test in rats. J Pharmacol Exp Ther. 2003;305:323-30.
12. Van Geffen EC, Hugtenburg JG, Heerdink ER, et al. Discontinuation symptoms in users of selective serotonin reuptake inhibitors in clinical practice: tapering versus abrupt continuation. Eur J Clin Pharmacol. 2005;61:303-7.
Conquering his fears, one step at a time
CASE: The big freeze
Mr. Q, age 34, is afraid to cross the street. As he steps off the curb, his legs “cramp up.” As the cramping intensifies and his feet stiffen, his heart races, he begins to sweat, and he turns back for fear his legs will buckle in the street. While on the sidewalk, he stays within reach of a building or car in case he falls.
Six months before presentation, Mr. Q walked to church during a blizzard, only to find the church closed because of the storm. He returned home and shoveled snow for 1 hour, during which he repeatedly leaned forward and backward to dump the snow.
The following Sunday, Mr. Q’s legs started to “hurt” as he crossed the street. Thinking he had severely injured himself while shoveling, he began to fear street crossings. At work, he asked coworkers to help him cross over to the subway. By spring, he had become so humiliated by his dependence that he stopped working. His phobia intensified until he presented to us at his family’s urging.
During evaluation, Mr. Q says he can cross only side streets and holds on to his father while crossing. His father, who is retired, spends much of his day helping his son get around.
Complete physical exam by Mr. Q’s primary care physician reveals a possible pulled muscle in his right leg but no other medical problems. Neurologic exam results are normal, ruling out nerve damage.
Later in the evaluation, Mr. Q mentions that at age 10 he was struck by a car. The impact fractured the left side of his skull and left leg, and he temporarily lost consciousness.
Shortly after the accident, Mr. Q developed mild memory and concentration impairments and a moderate stutter. He also experienced nightmares, but they disappeared within days. He says he never received speech therapy or other psychiatric treatment because his family did not have medical insurance.
Mr. Q did not lose function after the accident, but in college his stuttering led to difficulty speaking in class and interacting socially. He suffered panic attacks while on the telephone or during job interviews. He now mostly stays home, where he lives with his parents and a nephew. He interacts only with family members.
During the evaluation, Mr. Q effortlessly walks around the therapist’s office and reports no trouble walking at home. He says the cramps almost never surface at home because he feels “calm” with walls close by. When trying to cross the street, he manages to turn back without falling despite the cramps.
Upon considering this conflict, Mr. Q seems to realize that his fear of street crossings protects him from social situations. His stuttering, however, confounds the evaluation because he has trouble communicating his symptoms.
Mr. Q’s affect is constricted as he describes his anxiety and fear. He says he feels limited and at times depressed by his inability to cross streets, yet shows little dysphoric affect or mourning and seems unusually calm when discussing the problem. He appears relaxed knowing that he can keep avoiding social situations.
The authors’ observations
Mr. Q’s history of fearing interviews and telephone conversations suggests social anxiety, and his fear and avoidance of street crossings suggest a specific phobia. Panic disorder with agoraphobia is not present because the patient never experienced spontaneous panic attacks.
Anxiety is more prevalent among persons who stutter than in fl uent speakers.1,2
Persons who stutter:
- more commonly report speech anxiety3
- are significantly more uneasy in social situations and tend to avoid them4,5
- might not be motivated to eliminate barriers that thwart social interaction.
Worse, his stuttering makes it difficult to ascertain his symptoms or plan treatment because it takes him so long to finish a sentence.
EVALUATION: Flashing back
Later in the evaluation, Mr. Q says that whenever he considers or tries crossing a street, he recalls his childhood vehicular injury and fears he will be struck again. He has nightmares of being run over, and these nightmares and flashbacks have been occurring twice weekly since the snowstorm.
During the mental status examination, Mr. Q is well related with fair to poor eye contact, probably because of his stutter; he looks away from the speaker when his stuttering intensifies. His nightmares and flashbacks suggest comorbid posttraumatic stress disorder (PTSD), although he has no persistent symptoms of increased arousal. He also shows no evidence of acute mood disorder, psychosis, or cognitive disturbance.
The authors’ observations
PTSD symptoms can develop months to years after a precipitating incident,6,7 and repeated trauma can make patients more susceptible.
Interestingly, Mr. Q briefly suffered PTSD symptoms after the childhood accident but had no full-blown symptoms until adulthood. In addition to triggering avoidance behaviors, the muscle pull apparently reignited long-dormant PTSD symptoms (fl ashbacks, nightmares).
Mr. Q suffered no other PTSD symptoms. His stuttering might have signaled a psychogenic anxiety disorder, rather than being an incidental finding that developed after acute brain trauma at age 10.
Stuttering also might have contained Mr. Q’s PTSD symptoms for 24 years, until his snow-shoveling injury shattered that containment. Further, while shoveling in the street amid slippery conditions, he might have subconsciously feared he would have trouble eluding an oncoming vehicle.
The authors’ observations
We must address Mr. Q’s stuttering, phobia, and PTSD simultaneously to restore function. If we were to target his street-crossing phobia alone, we would face considerable resistance while exposing the underlying social phobia.
Supportive psychotherapy and exposure therapy—which would involve taking Mr. Q to an intersection and guiding him across—could help him overcome his fear of being run over. Cognitive-behavioral therapy (CBT) alone or with medications also could help.8,9
Mr. Q’s anxiety, however, is severe enough to keep him from trying exposure therapy. Because staying home is his shield from social contact, he is not motivated to leave his apartment. Although he presented voluntarily, like many patients he is ambivalent toward exposure therapy.
Also, Mr. Q’s stutter makes it difficult to engage him in conversation. His stuttering is so severe that we have trouble doing an adequate CBT case formulation. At times his speech is almost incomprehensible.
Improving Mr. Q’s speech is crucial to completing an assessment, decreasing his social anxiety, and motivating him to conquer his fear of crossing streets. By addressing his stuttering and phobia simultaneously, we can treat his anxiety on 2 fronts:
- the stuttering that stemmed from his car accident at age 10
- the street-crossing phobia that developed after he pulled a leg muscle as an adult.
Week 1—After much coaxing and encouragement, Mr. Q works through a leg cramp and takes 1 step off the curb, first with the therapist and then alone.
Week 2—Mr. Q takes 2 steps into the street—first with the therapist and then alone—after repeated coaxing and despite leg cramping.
Month 1—Patient proceeds 4 steps into the street unaccompanied. When his legs cramp, he intensifies the cramp and releases, then says ‘I can do this.’
Month 2—Patient walks 6 steps into the street, first with the therapist, then alone.
Month 3—Mr. Q walks 8 steps into the street, first with the therapist, then alone.
Month 4—Patient begins crossing 1-way streets alone. After the therapist guides him to the center of a 2-way street, he walks the rest of the way by himself.
Month 5—Patient crosses a 2-way street unassisted.
Month 6—Mr. Q crosses busy intersections near his church, where the cramping began.
TREATMENT: 5-step approach
Negative medical results convince Mr. Q that anxiety is holding him back. This allows us to target his anxiety with CBT, in vivo exposure, deep breathing/relaxation, speech therapy, and pharmacotherapy, all of which we start immediately.
As part of Mr. Q’s psychoeducation, we reiterate his negative physical examination results and point out that his childhood vehicular injuries might be perpetuating his fears. We work on getting him to recognize that leg tightness does not predict falling and getting hit by a car.
- Medications, which help him ‘feel calm’
- Relaxation breathing
- Saying ‘I can do it. I feel calm’ when legs cramp up in the street
- Soaking legs in warm water for 10 minutes twice daily
- Progressive muscle relaxation
- Cognitive intervention: internalizing that anxiety—not a medical problem —is holding him back
- Self empowerment exercise: further cramping his legs, then releasing them when they cramp up
When his legs cramp up while trying to cross, we have him say out loud, “I can do it. I feel calm;” this helps him proceed across the street. We also teach self-empowerment by having him purposely cramp up his legs, then release them to stop the cramping.
Deep breathing/relaxation. We teach Mr. Q progressive muscle relaxation and slow rhythmic breathing exercises, which he does before crossing streets to reduce his anxiety. For homework, he practices these exercises and soaks his legs in warm water for 10 minutes twice daily to relax his muscles and prevent cramping.
Speech therapy. The primary therapist devotes 20 minutes of each session to speech therapy. She employs relaxation training and therapy techniques such as Easy Onset,10 in which the patient stretches each sound, syllable, or word for up to 2 seconds, allowing him to speak at a smooth, slow rate. Mr. Q also practices these speech exercises at home.
After 6 weeks, Mr. Q’s stutter improves slightly but he still has trouble communicating. We refer him to a consulting speech therapist, who sees him twice weekly and leads Easy Onset and relaxation exercises. This gives us more time for supportive psychotherapy.
As his speech becomes more fluent, Mr. Q’s social anxiety and fear of street crossings decreases.
Pharmacotherapy. We instruct Mr. Q to take paroxetine, 20 mg/d, and clonazepam, 0.25 mg bid, 30 minutes before in vivo work to manage his anxiety. We titrate clonazepam to 0.5 mg bid over 1 month. He responds well to this regimen but fears he will become dependent on it.
During therapy, Mr. Q and the therapist rank the above interventions from most to least therapeutic (Box 2) so that we can effectively treat him should he relapse.
The authors’ observations
Although Mr. Q’s case is unusual, we feel our diagnostic and treatment methods can be applied to similar cases. His stutter, however, prevented us from conducting a structured diagnostic interview—which would have uncovered his symptoms more quickly—or performing standard manualized therapy.
Some data11 suggest that combination psychotropics and relaxation therapy can compromise long-term exposure therapy outcomes, as the patient’s fear could return once medication is stopped. Mr. Q’s anxiety was crippling, however, and had to be addressed before we could consider exposure therapy.
More research is needed on overcoming patient communication barriers that can hamper treatment. Rapport with patients often makes or breaks psychiatric treatment, and communication problems can prevent that connection. As clinicians, we must watch for linguistic, cognitive, and cultural impediments to treatment.
FOLLOW-UP: ‘I can cross’
Six months after presentation, Mr. Q crosses all types of streets—from 1-way streets to 6-lane intersections—with minimal anxiety. He has resumed his previous level of functioning and is searching for work. His stutter, though greatly improved, is still audible.
We see Mr. Q monthly. We stop paroxetine after 8 months but continue clonazepam to address his many underlying social anxieties. By November—approximately 1½ years after presentation—we have reduced clonazepam to 0.5 mg each morning. We try reducing the morning dose to 0.25 mg, but Mr. Q’s debilitating anxiety resurfaces.
In December, we increase clonazepam to 0.5 mg bid, then reduce it to 0.5 mg each morning 2 months later. In April, we cut clonazepam to 0.25 mg each morning. So far, Mr. Q is functioning well.
The authors’ observations
Patients who begin antistuttering intervention as adults have a poorer speech improvement prognosis than those who start speech therapy in childhood.12 In leaving his stuttering untreated for 24 years, Mr. Q likely sacrificed quality of life. Speech intervention at an earlier age might have improved his speech and prognosis early on.
Related resources
- Anxiety Disorders Association of America. www.adaa.org.
- Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
- Leahy RL, Holland SJ. Treatment plans and interventions for depression and anxiety disorders. New York: Guilford Press; 2000.
- Clonazepam • Klonopin
- Paroxetine • Paxil
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
Acknowledgment
The authors thank Michael Garret, MD, for his assistance in preparing this article.
1. Ezrati-Vinacour R, Levin I. The relationship between anxiety and stuttering: a multidimensional approach. J Fluency Disord 2004;29:135-48.
2. Craig A, Hancock K, Tran Y, Craig M. Anxiety levels in people who stutter: a randomized population study. J Speech Lang Hearing Res 2003;46:1197-206.
3. Cabel RM, Colcord RD, Petrosino L. Self-reported anxiety of adults who do and do not stutter. Perceptual Motor Skills 2002;94:775-84.
4. Kraaimaat FW, Vanryckeghem M, Van Dam-Baggen R. Stuttering and social anxiety. J Fluency Disord 2002;27:319-31.
5. Stein MB, Baird A, Walker JR. Social phobia in adults with stuttering. Am J Psychiatry 1996;153:278-80.
6. Carty J, O’Donnell ML, Creamer M. Delayed-onset PTSD: a prospective study of injury survivors. J Affect Disord 2006;90:257-61.
7. Schnurr PP, Lunney CA, Sengupta A, Waelde LC. A descriptive analysis of PTSD chronicity in Vietnam veterans. J Trauma Stress 2003;6:545-53.
8. Beck AT. Cognitive therapy and the emotional disorders. New York: International University Press; 1976.
9. Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
10. Hood SB ed. Stuttering words, 3rd ed.. Memphis, TN: Stuttering Foundation of America; 1999.
11. Otto MW, Smits JA, Reese HE. Cognitive-behavioral therapy for the treatment of anxiety disorders. J Clin Psychiatry 2004;65(suppl 5):34-41.
12. Curlee RF, Nielson M, Andrews G. Stuttering and related disorders of fluency. New York: Thieme Medical Publishers; 1993.
Dr. Stein is a fourth-year psychiatric resident, Dr. Friedman is professor of clinical psychiatry, and Dr. Elmouchtari is assistant professor of psychiatry, department of psychiatry, State University of New York Downstate Medical Center, Brooklyn.
CASE: The big freeze
Mr. Q, age 34, is afraid to cross the street. As he steps off the curb, his legs “cramp up.” As the cramping intensifies and his feet stiffen, his heart races, he begins to sweat, and he turns back for fear his legs will buckle in the street. While on the sidewalk, he stays within reach of a building or car in case he falls.
Six months before presentation, Mr. Q walked to church during a blizzard, only to find the church closed because of the storm. He returned home and shoveled snow for 1 hour, during which he repeatedly leaned forward and backward to dump the snow.
The following Sunday, Mr. Q’s legs started to “hurt” as he crossed the street. Thinking he had severely injured himself while shoveling, he began to fear street crossings. At work, he asked coworkers to help him cross over to the subway. By spring, he had become so humiliated by his dependence that he stopped working. His phobia intensified until he presented to us at his family’s urging.
During evaluation, Mr. Q says he can cross only side streets and holds on to his father while crossing. His father, who is retired, spends much of his day helping his son get around.
Complete physical exam by Mr. Q’s primary care physician reveals a possible pulled muscle in his right leg but no other medical problems. Neurologic exam results are normal, ruling out nerve damage.
Later in the evaluation, Mr. Q mentions that at age 10 he was struck by a car. The impact fractured the left side of his skull and left leg, and he temporarily lost consciousness.
Shortly after the accident, Mr. Q developed mild memory and concentration impairments and a moderate stutter. He also experienced nightmares, but they disappeared within days. He says he never received speech therapy or other psychiatric treatment because his family did not have medical insurance.
Mr. Q did not lose function after the accident, but in college his stuttering led to difficulty speaking in class and interacting socially. He suffered panic attacks while on the telephone or during job interviews. He now mostly stays home, where he lives with his parents and a nephew. He interacts only with family members.
During the evaluation, Mr. Q effortlessly walks around the therapist’s office and reports no trouble walking at home. He says the cramps almost never surface at home because he feels “calm” with walls close by. When trying to cross the street, he manages to turn back without falling despite the cramps.
Upon considering this conflict, Mr. Q seems to realize that his fear of street crossings protects him from social situations. His stuttering, however, confounds the evaluation because he has trouble communicating his symptoms.
Mr. Q’s affect is constricted as he describes his anxiety and fear. He says he feels limited and at times depressed by his inability to cross streets, yet shows little dysphoric affect or mourning and seems unusually calm when discussing the problem. He appears relaxed knowing that he can keep avoiding social situations.
The authors’ observations
Mr. Q’s history of fearing interviews and telephone conversations suggests social anxiety, and his fear and avoidance of street crossings suggest a specific phobia. Panic disorder with agoraphobia is not present because the patient never experienced spontaneous panic attacks.
Anxiety is more prevalent among persons who stutter than in fl uent speakers.1,2
Persons who stutter:
- more commonly report speech anxiety3
- are significantly more uneasy in social situations and tend to avoid them4,5
- might not be motivated to eliminate barriers that thwart social interaction.
Worse, his stuttering makes it difficult to ascertain his symptoms or plan treatment because it takes him so long to finish a sentence.
EVALUATION: Flashing back
Later in the evaluation, Mr. Q says that whenever he considers or tries crossing a street, he recalls his childhood vehicular injury and fears he will be struck again. He has nightmares of being run over, and these nightmares and flashbacks have been occurring twice weekly since the snowstorm.
During the mental status examination, Mr. Q is well related with fair to poor eye contact, probably because of his stutter; he looks away from the speaker when his stuttering intensifies. His nightmares and flashbacks suggest comorbid posttraumatic stress disorder (PTSD), although he has no persistent symptoms of increased arousal. He also shows no evidence of acute mood disorder, psychosis, or cognitive disturbance.
The authors’ observations
PTSD symptoms can develop months to years after a precipitating incident,6,7 and repeated trauma can make patients more susceptible.
Interestingly, Mr. Q briefly suffered PTSD symptoms after the childhood accident but had no full-blown symptoms until adulthood. In addition to triggering avoidance behaviors, the muscle pull apparently reignited long-dormant PTSD symptoms (fl ashbacks, nightmares).
Mr. Q suffered no other PTSD symptoms. His stuttering might have signaled a psychogenic anxiety disorder, rather than being an incidental finding that developed after acute brain trauma at age 10.
Stuttering also might have contained Mr. Q’s PTSD symptoms for 24 years, until his snow-shoveling injury shattered that containment. Further, while shoveling in the street amid slippery conditions, he might have subconsciously feared he would have trouble eluding an oncoming vehicle.
The authors’ observations
We must address Mr. Q’s stuttering, phobia, and PTSD simultaneously to restore function. If we were to target his street-crossing phobia alone, we would face considerable resistance while exposing the underlying social phobia.
Supportive psychotherapy and exposure therapy—which would involve taking Mr. Q to an intersection and guiding him across—could help him overcome his fear of being run over. Cognitive-behavioral therapy (CBT) alone or with medications also could help.8,9
Mr. Q’s anxiety, however, is severe enough to keep him from trying exposure therapy. Because staying home is his shield from social contact, he is not motivated to leave his apartment. Although he presented voluntarily, like many patients he is ambivalent toward exposure therapy.
Also, Mr. Q’s stutter makes it difficult to engage him in conversation. His stuttering is so severe that we have trouble doing an adequate CBT case formulation. At times his speech is almost incomprehensible.
Improving Mr. Q’s speech is crucial to completing an assessment, decreasing his social anxiety, and motivating him to conquer his fear of crossing streets. By addressing his stuttering and phobia simultaneously, we can treat his anxiety on 2 fronts:
- the stuttering that stemmed from his car accident at age 10
- the street-crossing phobia that developed after he pulled a leg muscle as an adult.
Week 1—After much coaxing and encouragement, Mr. Q works through a leg cramp and takes 1 step off the curb, first with the therapist and then alone.
Week 2—Mr. Q takes 2 steps into the street—first with the therapist and then alone—after repeated coaxing and despite leg cramping.
Month 1—Patient proceeds 4 steps into the street unaccompanied. When his legs cramp, he intensifies the cramp and releases, then says ‘I can do this.’
Month 2—Patient walks 6 steps into the street, first with the therapist, then alone.
Month 3—Mr. Q walks 8 steps into the street, first with the therapist, then alone.
Month 4—Patient begins crossing 1-way streets alone. After the therapist guides him to the center of a 2-way street, he walks the rest of the way by himself.
Month 5—Patient crosses a 2-way street unassisted.
Month 6—Mr. Q crosses busy intersections near his church, where the cramping began.
TREATMENT: 5-step approach
Negative medical results convince Mr. Q that anxiety is holding him back. This allows us to target his anxiety with CBT, in vivo exposure, deep breathing/relaxation, speech therapy, and pharmacotherapy, all of which we start immediately.
As part of Mr. Q’s psychoeducation, we reiterate his negative physical examination results and point out that his childhood vehicular injuries might be perpetuating his fears. We work on getting him to recognize that leg tightness does not predict falling and getting hit by a car.
- Medications, which help him ‘feel calm’
- Relaxation breathing
- Saying ‘I can do it. I feel calm’ when legs cramp up in the street
- Soaking legs in warm water for 10 minutes twice daily
- Progressive muscle relaxation
- Cognitive intervention: internalizing that anxiety—not a medical problem —is holding him back
- Self empowerment exercise: further cramping his legs, then releasing them when they cramp up
When his legs cramp up while trying to cross, we have him say out loud, “I can do it. I feel calm;” this helps him proceed across the street. We also teach self-empowerment by having him purposely cramp up his legs, then release them to stop the cramping.
Deep breathing/relaxation. We teach Mr. Q progressive muscle relaxation and slow rhythmic breathing exercises, which he does before crossing streets to reduce his anxiety. For homework, he practices these exercises and soaks his legs in warm water for 10 minutes twice daily to relax his muscles and prevent cramping.
Speech therapy. The primary therapist devotes 20 minutes of each session to speech therapy. She employs relaxation training and therapy techniques such as Easy Onset,10 in which the patient stretches each sound, syllable, or word for up to 2 seconds, allowing him to speak at a smooth, slow rate. Mr. Q also practices these speech exercises at home.
After 6 weeks, Mr. Q’s stutter improves slightly but he still has trouble communicating. We refer him to a consulting speech therapist, who sees him twice weekly and leads Easy Onset and relaxation exercises. This gives us more time for supportive psychotherapy.
As his speech becomes more fluent, Mr. Q’s social anxiety and fear of street crossings decreases.
Pharmacotherapy. We instruct Mr. Q to take paroxetine, 20 mg/d, and clonazepam, 0.25 mg bid, 30 minutes before in vivo work to manage his anxiety. We titrate clonazepam to 0.5 mg bid over 1 month. He responds well to this regimen but fears he will become dependent on it.
During therapy, Mr. Q and the therapist rank the above interventions from most to least therapeutic (Box 2) so that we can effectively treat him should he relapse.
The authors’ observations
Although Mr. Q’s case is unusual, we feel our diagnostic and treatment methods can be applied to similar cases. His stutter, however, prevented us from conducting a structured diagnostic interview—which would have uncovered his symptoms more quickly—or performing standard manualized therapy.
Some data11 suggest that combination psychotropics and relaxation therapy can compromise long-term exposure therapy outcomes, as the patient’s fear could return once medication is stopped. Mr. Q’s anxiety was crippling, however, and had to be addressed before we could consider exposure therapy.
More research is needed on overcoming patient communication barriers that can hamper treatment. Rapport with patients often makes or breaks psychiatric treatment, and communication problems can prevent that connection. As clinicians, we must watch for linguistic, cognitive, and cultural impediments to treatment.
FOLLOW-UP: ‘I can cross’
Six months after presentation, Mr. Q crosses all types of streets—from 1-way streets to 6-lane intersections—with minimal anxiety. He has resumed his previous level of functioning and is searching for work. His stutter, though greatly improved, is still audible.
We see Mr. Q monthly. We stop paroxetine after 8 months but continue clonazepam to address his many underlying social anxieties. By November—approximately 1½ years after presentation—we have reduced clonazepam to 0.5 mg each morning. We try reducing the morning dose to 0.25 mg, but Mr. Q’s debilitating anxiety resurfaces.
In December, we increase clonazepam to 0.5 mg bid, then reduce it to 0.5 mg each morning 2 months later. In April, we cut clonazepam to 0.25 mg each morning. So far, Mr. Q is functioning well.
The authors’ observations
Patients who begin antistuttering intervention as adults have a poorer speech improvement prognosis than those who start speech therapy in childhood.12 In leaving his stuttering untreated for 24 years, Mr. Q likely sacrificed quality of life. Speech intervention at an earlier age might have improved his speech and prognosis early on.
Related resources
- Anxiety Disorders Association of America. www.adaa.org.
- Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
- Leahy RL, Holland SJ. Treatment plans and interventions for depression and anxiety disorders. New York: Guilford Press; 2000.
- Clonazepam • Klonopin
- Paroxetine • Paxil
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
Acknowledgment
The authors thank Michael Garret, MD, for his assistance in preparing this article.
CASE: The big freeze
Mr. Q, age 34, is afraid to cross the street. As he steps off the curb, his legs “cramp up.” As the cramping intensifies and his feet stiffen, his heart races, he begins to sweat, and he turns back for fear his legs will buckle in the street. While on the sidewalk, he stays within reach of a building or car in case he falls.
Six months before presentation, Mr. Q walked to church during a blizzard, only to find the church closed because of the storm. He returned home and shoveled snow for 1 hour, during which he repeatedly leaned forward and backward to dump the snow.
The following Sunday, Mr. Q’s legs started to “hurt” as he crossed the street. Thinking he had severely injured himself while shoveling, he began to fear street crossings. At work, he asked coworkers to help him cross over to the subway. By spring, he had become so humiliated by his dependence that he stopped working. His phobia intensified until he presented to us at his family’s urging.
During evaluation, Mr. Q says he can cross only side streets and holds on to his father while crossing. His father, who is retired, spends much of his day helping his son get around.
Complete physical exam by Mr. Q’s primary care physician reveals a possible pulled muscle in his right leg but no other medical problems. Neurologic exam results are normal, ruling out nerve damage.
Later in the evaluation, Mr. Q mentions that at age 10 he was struck by a car. The impact fractured the left side of his skull and left leg, and he temporarily lost consciousness.
Shortly after the accident, Mr. Q developed mild memory and concentration impairments and a moderate stutter. He also experienced nightmares, but they disappeared within days. He says he never received speech therapy or other psychiatric treatment because his family did not have medical insurance.
Mr. Q did not lose function after the accident, but in college his stuttering led to difficulty speaking in class and interacting socially. He suffered panic attacks while on the telephone or during job interviews. He now mostly stays home, where he lives with his parents and a nephew. He interacts only with family members.
During the evaluation, Mr. Q effortlessly walks around the therapist’s office and reports no trouble walking at home. He says the cramps almost never surface at home because he feels “calm” with walls close by. When trying to cross the street, he manages to turn back without falling despite the cramps.
Upon considering this conflict, Mr. Q seems to realize that his fear of street crossings protects him from social situations. His stuttering, however, confounds the evaluation because he has trouble communicating his symptoms.
Mr. Q’s affect is constricted as he describes his anxiety and fear. He says he feels limited and at times depressed by his inability to cross streets, yet shows little dysphoric affect or mourning and seems unusually calm when discussing the problem. He appears relaxed knowing that he can keep avoiding social situations.
The authors’ observations
Mr. Q’s history of fearing interviews and telephone conversations suggests social anxiety, and his fear and avoidance of street crossings suggest a specific phobia. Panic disorder with agoraphobia is not present because the patient never experienced spontaneous panic attacks.
Anxiety is more prevalent among persons who stutter than in fl uent speakers.1,2
Persons who stutter:
- more commonly report speech anxiety3
- are significantly more uneasy in social situations and tend to avoid them4,5
- might not be motivated to eliminate barriers that thwart social interaction.
Worse, his stuttering makes it difficult to ascertain his symptoms or plan treatment because it takes him so long to finish a sentence.
EVALUATION: Flashing back
Later in the evaluation, Mr. Q says that whenever he considers or tries crossing a street, he recalls his childhood vehicular injury and fears he will be struck again. He has nightmares of being run over, and these nightmares and flashbacks have been occurring twice weekly since the snowstorm.
During the mental status examination, Mr. Q is well related with fair to poor eye contact, probably because of his stutter; he looks away from the speaker when his stuttering intensifies. His nightmares and flashbacks suggest comorbid posttraumatic stress disorder (PTSD), although he has no persistent symptoms of increased arousal. He also shows no evidence of acute mood disorder, psychosis, or cognitive disturbance.
The authors’ observations
PTSD symptoms can develop months to years after a precipitating incident,6,7 and repeated trauma can make patients more susceptible.
Interestingly, Mr. Q briefly suffered PTSD symptoms after the childhood accident but had no full-blown symptoms until adulthood. In addition to triggering avoidance behaviors, the muscle pull apparently reignited long-dormant PTSD symptoms (fl ashbacks, nightmares).
Mr. Q suffered no other PTSD symptoms. His stuttering might have signaled a psychogenic anxiety disorder, rather than being an incidental finding that developed after acute brain trauma at age 10.
Stuttering also might have contained Mr. Q’s PTSD symptoms for 24 years, until his snow-shoveling injury shattered that containment. Further, while shoveling in the street amid slippery conditions, he might have subconsciously feared he would have trouble eluding an oncoming vehicle.
The authors’ observations
We must address Mr. Q’s stuttering, phobia, and PTSD simultaneously to restore function. If we were to target his street-crossing phobia alone, we would face considerable resistance while exposing the underlying social phobia.
Supportive psychotherapy and exposure therapy—which would involve taking Mr. Q to an intersection and guiding him across—could help him overcome his fear of being run over. Cognitive-behavioral therapy (CBT) alone or with medications also could help.8,9
Mr. Q’s anxiety, however, is severe enough to keep him from trying exposure therapy. Because staying home is his shield from social contact, he is not motivated to leave his apartment. Although he presented voluntarily, like many patients he is ambivalent toward exposure therapy.
Also, Mr. Q’s stutter makes it difficult to engage him in conversation. His stuttering is so severe that we have trouble doing an adequate CBT case formulation. At times his speech is almost incomprehensible.
Improving Mr. Q’s speech is crucial to completing an assessment, decreasing his social anxiety, and motivating him to conquer his fear of crossing streets. By addressing his stuttering and phobia simultaneously, we can treat his anxiety on 2 fronts:
- the stuttering that stemmed from his car accident at age 10
- the street-crossing phobia that developed after he pulled a leg muscle as an adult.
Week 1—After much coaxing and encouragement, Mr. Q works through a leg cramp and takes 1 step off the curb, first with the therapist and then alone.
Week 2—Mr. Q takes 2 steps into the street—first with the therapist and then alone—after repeated coaxing and despite leg cramping.
Month 1—Patient proceeds 4 steps into the street unaccompanied. When his legs cramp, he intensifies the cramp and releases, then says ‘I can do this.’
Month 2—Patient walks 6 steps into the street, first with the therapist, then alone.
Month 3—Mr. Q walks 8 steps into the street, first with the therapist, then alone.
Month 4—Patient begins crossing 1-way streets alone. After the therapist guides him to the center of a 2-way street, he walks the rest of the way by himself.
Month 5—Patient crosses a 2-way street unassisted.
Month 6—Mr. Q crosses busy intersections near his church, where the cramping began.
TREATMENT: 5-step approach
Negative medical results convince Mr. Q that anxiety is holding him back. This allows us to target his anxiety with CBT, in vivo exposure, deep breathing/relaxation, speech therapy, and pharmacotherapy, all of which we start immediately.
As part of Mr. Q’s psychoeducation, we reiterate his negative physical examination results and point out that his childhood vehicular injuries might be perpetuating his fears. We work on getting him to recognize that leg tightness does not predict falling and getting hit by a car.
- Medications, which help him ‘feel calm’
- Relaxation breathing
- Saying ‘I can do it. I feel calm’ when legs cramp up in the street
- Soaking legs in warm water for 10 minutes twice daily
- Progressive muscle relaxation
- Cognitive intervention: internalizing that anxiety—not a medical problem —is holding him back
- Self empowerment exercise: further cramping his legs, then releasing them when they cramp up
When his legs cramp up while trying to cross, we have him say out loud, “I can do it. I feel calm;” this helps him proceed across the street. We also teach self-empowerment by having him purposely cramp up his legs, then release them to stop the cramping.
Deep breathing/relaxation. We teach Mr. Q progressive muscle relaxation and slow rhythmic breathing exercises, which he does before crossing streets to reduce his anxiety. For homework, he practices these exercises and soaks his legs in warm water for 10 minutes twice daily to relax his muscles and prevent cramping.
Speech therapy. The primary therapist devotes 20 minutes of each session to speech therapy. She employs relaxation training and therapy techniques such as Easy Onset,10 in which the patient stretches each sound, syllable, or word for up to 2 seconds, allowing him to speak at a smooth, slow rate. Mr. Q also practices these speech exercises at home.
After 6 weeks, Mr. Q’s stutter improves slightly but he still has trouble communicating. We refer him to a consulting speech therapist, who sees him twice weekly and leads Easy Onset and relaxation exercises. This gives us more time for supportive psychotherapy.
As his speech becomes more fluent, Mr. Q’s social anxiety and fear of street crossings decreases.
Pharmacotherapy. We instruct Mr. Q to take paroxetine, 20 mg/d, and clonazepam, 0.25 mg bid, 30 minutes before in vivo work to manage his anxiety. We titrate clonazepam to 0.5 mg bid over 1 month. He responds well to this regimen but fears he will become dependent on it.
During therapy, Mr. Q and the therapist rank the above interventions from most to least therapeutic (Box 2) so that we can effectively treat him should he relapse.
The authors’ observations
Although Mr. Q’s case is unusual, we feel our diagnostic and treatment methods can be applied to similar cases. His stutter, however, prevented us from conducting a structured diagnostic interview—which would have uncovered his symptoms more quickly—or performing standard manualized therapy.
Some data11 suggest that combination psychotropics and relaxation therapy can compromise long-term exposure therapy outcomes, as the patient’s fear could return once medication is stopped. Mr. Q’s anxiety was crippling, however, and had to be addressed before we could consider exposure therapy.
More research is needed on overcoming patient communication barriers that can hamper treatment. Rapport with patients often makes or breaks psychiatric treatment, and communication problems can prevent that connection. As clinicians, we must watch for linguistic, cognitive, and cultural impediments to treatment.
FOLLOW-UP: ‘I can cross’
Six months after presentation, Mr. Q crosses all types of streets—from 1-way streets to 6-lane intersections—with minimal anxiety. He has resumed his previous level of functioning and is searching for work. His stutter, though greatly improved, is still audible.
We see Mr. Q monthly. We stop paroxetine after 8 months but continue clonazepam to address his many underlying social anxieties. By November—approximately 1½ years after presentation—we have reduced clonazepam to 0.5 mg each morning. We try reducing the morning dose to 0.25 mg, but Mr. Q’s debilitating anxiety resurfaces.
In December, we increase clonazepam to 0.5 mg bid, then reduce it to 0.5 mg each morning 2 months later. In April, we cut clonazepam to 0.25 mg each morning. So far, Mr. Q is functioning well.
The authors’ observations
Patients who begin antistuttering intervention as adults have a poorer speech improvement prognosis than those who start speech therapy in childhood.12 In leaving his stuttering untreated for 24 years, Mr. Q likely sacrificed quality of life. Speech intervention at an earlier age might have improved his speech and prognosis early on.
Related resources
- Anxiety Disorders Association of America. www.adaa.org.
- Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
- Leahy RL, Holland SJ. Treatment plans and interventions for depression and anxiety disorders. New York: Guilford Press; 2000.
- Clonazepam • Klonopin
- Paroxetine • Paxil
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
Acknowledgment
The authors thank Michael Garret, MD, for his assistance in preparing this article.
1. Ezrati-Vinacour R, Levin I. The relationship between anxiety and stuttering: a multidimensional approach. J Fluency Disord 2004;29:135-48.
2. Craig A, Hancock K, Tran Y, Craig M. Anxiety levels in people who stutter: a randomized population study. J Speech Lang Hearing Res 2003;46:1197-206.
3. Cabel RM, Colcord RD, Petrosino L. Self-reported anxiety of adults who do and do not stutter. Perceptual Motor Skills 2002;94:775-84.
4. Kraaimaat FW, Vanryckeghem M, Van Dam-Baggen R. Stuttering and social anxiety. J Fluency Disord 2002;27:319-31.
5. Stein MB, Baird A, Walker JR. Social phobia in adults with stuttering. Am J Psychiatry 1996;153:278-80.
6. Carty J, O’Donnell ML, Creamer M. Delayed-onset PTSD: a prospective study of injury survivors. J Affect Disord 2006;90:257-61.
7. Schnurr PP, Lunney CA, Sengupta A, Waelde LC. A descriptive analysis of PTSD chronicity in Vietnam veterans. J Trauma Stress 2003;6:545-53.
8. Beck AT. Cognitive therapy and the emotional disorders. New York: International University Press; 1976.
9. Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
10. Hood SB ed. Stuttering words, 3rd ed.. Memphis, TN: Stuttering Foundation of America; 1999.
11. Otto MW, Smits JA, Reese HE. Cognitive-behavioral therapy for the treatment of anxiety disorders. J Clin Psychiatry 2004;65(suppl 5):34-41.
12. Curlee RF, Nielson M, Andrews G. Stuttering and related disorders of fluency. New York: Thieme Medical Publishers; 1993.
Dr. Stein is a fourth-year psychiatric resident, Dr. Friedman is professor of clinical psychiatry, and Dr. Elmouchtari is assistant professor of psychiatry, department of psychiatry, State University of New York Downstate Medical Center, Brooklyn.
1. Ezrati-Vinacour R, Levin I. The relationship between anxiety and stuttering: a multidimensional approach. J Fluency Disord 2004;29:135-48.
2. Craig A, Hancock K, Tran Y, Craig M. Anxiety levels in people who stutter: a randomized population study. J Speech Lang Hearing Res 2003;46:1197-206.
3. Cabel RM, Colcord RD, Petrosino L. Self-reported anxiety of adults who do and do not stutter. Perceptual Motor Skills 2002;94:775-84.
4. Kraaimaat FW, Vanryckeghem M, Van Dam-Baggen R. Stuttering and social anxiety. J Fluency Disord 2002;27:319-31.
5. Stein MB, Baird A, Walker JR. Social phobia in adults with stuttering. Am J Psychiatry 1996;153:278-80.
6. Carty J, O’Donnell ML, Creamer M. Delayed-onset PTSD: a prospective study of injury survivors. J Affect Disord 2006;90:257-61.
7. Schnurr PP, Lunney CA, Sengupta A, Waelde LC. A descriptive analysis of PTSD chronicity in Vietnam veterans. J Trauma Stress 2003;6:545-53.
8. Beck AT. Cognitive therapy and the emotional disorders. New York: International University Press; 1976.
9. Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
10. Hood SB ed. Stuttering words, 3rd ed.. Memphis, TN: Stuttering Foundation of America; 1999.
11. Otto MW, Smits JA, Reese HE. Cognitive-behavioral therapy for the treatment of anxiety disorders. J Clin Psychiatry 2004;65(suppl 5):34-41.
12. Curlee RF, Nielson M, Andrews G. Stuttering and related disorders of fluency. New York: Thieme Medical Publishers; 1993.
Dr. Stein is a fourth-year psychiatric resident, Dr. Friedman is professor of clinical psychiatry, and Dr. Elmouchtari is assistant professor of psychiatry, department of psychiatry, State University of New York Downstate Medical Center, Brooklyn.
Getting to the heart of his ‘shocking’ trauma
CASE: ‘Like a sledgehammer’
Mr. J, age 54, is admitted to the cardiac critical care unit after repeated tachycardia episodes over 3 years. He also has depressive symptoms including social isolation, passive suicidal thoughts, lack of interest in sex, weight loss, difficulty sleeping, sadness, and decreased appetite, energy, and ability to concentrate. The psychiatry consult team subsequently evaluates him.
Shortly after retiring as a police officer, Mr. J started having 10-second episodes of loss of consciousness and suffered 30 episodes within 1 year. After diagnosing chronic idiopathic ventricular tachycardia, a cardiologist ablated an aberrant left ventricular pathway and inserted a single-lead implantable cardioverter-defibrillator (ICD). He also prescribed the antiarrhythmic amiodarone, but Mr. J could not tolerate the medication’s side effects.
Mr. J’s tachycardia persisted, and repeated episodes triggered an estimated 13 electrical shocks from the ICD over 5 months. At this point, the cardiologist performed a second ablation, removed the single-lead ICD, and implanted a two-lead ICD, which he hoped would more accurately discern between lethal and nonlethal fast heart rhythms.
In addition, the cardiologist prescribed the antiarrhythmic sotalol—which did not suppress the arrhythmia—before switching to flecainide, 100 mg bid, which did. However, Mr. J still suffered fatigue, exercise intolerance, near-syncope, and chest heaviness.
One week after receiving the first ICD, Mr. J recalls, he felt his first shock while out for a walk. He said the shock lasted 5 to 10 seconds and “felt like somebody took a sledgehammer to my chest.” Another time, he suffered 6 successive shocks that threw him to the ground. Motorists pulled over to assist him, which made him feel ashamed.
Before long, Mr. J became increasingly afraid of repeat discharges. As soon as he began a task, he would feel a “thumping” in the back of his neck and start panicking, fearful that a heart rate increase would trigger another shock.
The stress forced Mr. J to abandon his favorite retirement hobbies—remodeling houses and yard work—and to spend his days lying around watching television. Fearing another discharge in public, he has stopped seeing friends and going to church. He has also stopped driving and depends on his female partner of 14 years for daily visits, grocery shopping, and rides to medical appointments. She feels frustrated by his debility.
The authors’ observations
By delivering electrical shocks when ventricles beat too quickly, an ICD shocks the heart back into a normal rhythm. Based on our observation, Mr. J probably had both anxiety-induced tachycardia and recurrent atrial fibrillation.
Although ICDs have prolonged survival for patients with potentially fatal ventricular arrhythmias,1,2 painful discharges can occur without warning. Patients liken the discharge to an electric shock or to being kicked or punched in the chest.3
Depending on the patient’s activity level, cardiologists routinely program ICDs to discharge at approximately 10 beats per minute above expected heart rates during typical activities. Because ICD leads cannot differentiate between ventricular and supraventricular rhythm disturbances, a rapid supraventricular rhythm might precipitate a discharge intended to treat a more serious ventricular rhythm disturbance.
Frequent ICD discharges could indicate:
- the patient needs a more effective antiarrhythmic
- the device needs to be set at a higher rate to avoid discharge during periods of anxiety/exertion
- or the device is defective.
ICD-induced psychopathology
Depression or tachycardia could have caused Mr. J’s fatigue. Either way, he showed numerous other depressive symptoms.
Fear of implant discharge or malfunction often induces psychiatric disorders, particularly in patients who have experienced discharge. As many as 87% of ICD patients suffer anxiety, depression, or other psychiatric symptoms after implantation,5 and 13% to 38% meet DSM-IV-TR criteria for an anxiety spectrum disorder.6
Multiple psychological theories explain iatrogenic anxiety disorders resulting from ICD firing. Behaviorally, ICD discharge represents an initially unconditioned stimulus that the patient associates with the activity he was engaging in when shocked. The shock discourages the patient from that activity—however benign—for fear it triggered the discharge and could cause future shocks.
ICD recipients often fear the device will malfunction or discharge while they are in public, driving, or operating machinery—leading some to become homebound and cease activities of daily living. The discharge’s unpredictability shatters a patient’s perception of control over his or her life and might induce a learned helplessness7 that can strain relationships, as it did with Mr. J and his partner. The patient also could develop anticipatory anxiety, mistaking benign body symptoms or increasing shock frequency for signs of a potentially fatal heart problem.8
Whether quality of life diminishes as ICD firings become more frequent is uncertain.9 The Canadian Implantable Defibrillator Study (N=317) found greater quality of life improvements with ICD therapy than with amiodarone—200 to 400 mg/d maintenance therapy—but the improvements were lost in patients who experienced ≥5 shocks over 12 months.10 Pauli et al7 found misinterpretation of the reason for increasing shocks to be more emotionally destructive than shock frequency, however.
Detecting ICD maladjustment
Patients with ICD maladjustment typically show anticipatory anxiety and negative cognitive attributions, and many engage in fruitless maneuvers to prevent device firing.5 Nervousness, dizziness, weakness, and fear are common responses to shock by ICD.11
Most patients with new-onset, post-ICD anxiety disorders have no pre-implant psychiatric history.12 Only one trial assessing state and trait anxiety before and after ICD placement reported increased trait anxiety in some patients before implantation.13
HISTORY: Nights in the cornfield
During psychiatric evaluation, Mr. J reveals that his parents physically and emotionally abused him as a child. He says his father frequently beat him with farm tools, and sometimes the beatings were so severe that his parents kept him home from school to prevent teachers from noticing his bruises. He never received medical treatment for his injuries.
For Mr. J, the inescapable threat of painful, unannounced ICD discharges has brought back the anticipatory terror and helplessness of his childhood. Just as he feared his father’s sudden rages, the specter of repeat ICD shocks now haunts him. He says he’d rather have the ICD removed and risk death from tachycardia than live another minute in fear.
The authors’ observations
Mr. J meets DSM-IV-TR criteria for PTSD. He associates ICD discharge with childhood abuse and experiences new-onset flashbacks, hyperarousal, and avoidance behavior.
To our knowledge, ICD shock-induced flashbacks to pre-implant trauma have not been reported, although some data associate ICDs with posttraumatic stress related to heart disease and treatment.14-16 In one case series,14 patients showed:
- cluster B re-experiencing symptoms (cognitive preoccupation with trauma or psychophysiologic reactivity to reminders of the ICD and heart disease)
- cluster C avoidance symptoms (avoiding activities they thought might activate the ICD)
- cluster D hyperarousal symptoms (insomnia, decreased concentration, hypervigilance, and irritability).
The authors’ observations
Treating comorbid anxiety or depression in ICD recipients is critical. A number of psychiatric interventions might alleviate behavioral and psychological effects of body-device interactions.
CBT. In a retrospective study17 of 36 ICD recipients, those who received 9 months of CBT reported decreased depression, anxiety, distress, and sexual problems compared with those who did not. Interestingly, more CBT-group patients (11 of 18) suffered ICD shocks than did controls (6 of 18).
Peer support groups. Out of 58 ICD recipients who answered a post-implant questionnaire, 23 (39%) attended a peer support group.18 Of these, 22 (96%) found the group helpful and were happier, less hostile, and more sociable after participating. Peer group participants also were more likely to return to work than nonparticipants.
How would you handle a patient’s request to deactivate an implantable cardioverter-defibrillator (ICD) or other life-preserving device that is causing debilitating mental anguish? Physicians dealing with such requests will find themselves in an ethical wilderness.
Pinski22 offers guidelines in line with withdrawal of other life-extending technologies in terminally ill patients. “Deactivation of an ICD is appropriate when the device is believed to be prolonging patient suffering,” he writes, adding that preventing ICD shocks induced by frequent or agonal arrhythmias “will not only hasten but also permit a peaceful death.” Disabling the ICD function that responds to bradycardia will prevent agonal pacing and—as a result—shocks.
The literature, however, offers little guidance on responding to patient requests for ICD deactivation and few precedents on which to base such decisions for the terminally ill.
Even less guidance exists when mental illness resulting from ICD complications induces unbearable suffering. The underlying psychiatric condition should be optimally treated before clinicians entertain ICD removal. Mr. J, for example, decided to keep the implant once his crippling anxiety resolved and he was assured that his tachycardia finally was under control.
12 attributes reduction of ICD-induced anxiety to combination individual psychotherapy and unspecified dosages of benzodiazepines. Two patients also received adjunctive fluoxetine or paroxetine, dosages unspecified.
In a double-blind, placebo-controlled crossover study, implantable atrial defibrillator recipients reported decreased pain and anxiety while taking the short-acting benzodiazepine triazolam, 0.375 mg, before patient-activated shock.19
We recommend trying a combination regimen that acts acutely and subacutely. A long-acting benzodiazepine such as clonazepam can calm acute, overwhelming anxiety, and a selective serotonin reuptake inhibitor (SSRI) such as fluoxetine or paroxetine can help manage chronic depressive and generalized anxiety symptoms.
SSRIs are relatively benign but more research on their cardiac safety is needed.20,21 Tricyclic antidepressants, which prolong cardiac conduction, should be avoided.
In addition to psychotropics, concomitant psychotherapy can reduce chronic symptoms.
The authors’ observations
Preparing patients for ICD problems. Anxiety after an ICD shock and the dread of repeat shocks are normal; the goal is to prevent that anxiety from destroying quality of life.
As with Mr. J, many ICD recipients are emotionally unprepared for device-related complications. Most cardiologists do not screen patients for pre-existing anxiety before ICD placement, nor do many adequately address ICD-induced anxiety once the device has been placed.
Psychological screening before implantation can help detect and manage preexisting anxiety disorders. Small-scale evaluations have used anxiety scales to continuously measure anxiety before and after ICD placement.13,23
Increased patient education on how ICDs work can help patients decide whether to proceed with implantation and tolerate discharges should they occur. Psychological screening and brief, routine communication between providers and patients about psychosocial issues can help patients adjust and identify those who need extended psychological services.4
- develop a plan for how a shock would be handled
- perform relaxation exercises immediately after the shock
- resume activities they were involved with when the shock occurred to prevent avoidance.24
TREATMENT: Third attempt
The cardiology team discontinues flecainide and performs a third radioablation, which eradicates ectopic ventricular activity.
Acting on the psychiatry consult team’s advice, Mr. J is transferred to the inpatient mood disorders unit to aggressively treat his PTSD. He undergoes 4 days of intensive CBT designed to explore the connection between his response to the discharges and his father’s abuse. We prescribe clonazepam, 0.5 mg bid, to reduce Mr. J’s agitation and anxiety, and recommend outpatient counseling to help manage his stress—particularly his anxious response to stimuli that remind him of the ICD discharge.
Mr. J is discharged after 12 days in the cardiac and psychiatric units. He has no suicidal thoughts, his sadness has decreased, and his energy, concentration, sleep, and outlook on his future have improved. He also is resolving relationship issues with his partner.
As Mr. J’s anxiety declines and he is increasingly reassured that his arrhythmias are under control, he decides to keep the ICD. His function gradually improves with continued cardiac rehabilitation, although he does not continue psychotherapy.
Related resources
- Stutts LA, Cross NJ, Conti JB, Sears SF. Examination of research trends on patient factors in patients with implantable cardioverter defibrillators. Clin Cardiol 2007;30:64-8.
- Sears SF, Shea JB, Conti JB. How to respond to an implantable cardioverter-defibrillator shock. Circulation 2005;111;380-2. http://circ.ahajournals.org/cgi/reprint/111/23/e380.
- Pauli P, Wiedemann G, Dengler W, et al. Anxiety in patients with an automatic implantable cardioverter defibrillator: what differentiates them from panic patients? Psychosom Med 1999;61:69-76. www.psychosomaticmedicine.org/cgi/reprint/61/1/69.
- Amiodarone • Cordarone
- Clonazepam • Klonopin
- Flecainide • Tambocor
- Fluoxetine • Prozac
- Paroxetine • Paxil
- Sotalol • Betapace
- Triazolam • Halcion, others
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Morris PL, Badger J, Chmielewski C, et al. Psychiatric morbidity following implantation of the automatic implantable cardioverter defibrillator. Psychosomatics 1991;32:58-64.
2. Conti JB, Sears SF, Jr. Understanding and managing the psychological impact of the ICD. Card Electrophysiol Rev 2001;5:128-32.
3. Pelletier D, Gallagher R, Mitten-Lewis S, et al. Australian implantable cardiac defibrillator recipients: quality-of-life issues. Int J Nursing Pract 2002;8:68-74.
4. Eads AS, Sears SF, Jr, Sotile WM, Conti JB. Supportive communication with implantable cardioverter defibrillator patients: seven principles to facilitate psychosocial adjustment. J Cardiopulm Rehab 2000;20:109-14.
5. Sola CL, Bostwick JM. Implantable cardioverter-defibrillators, induced anxiety, and quality of life. Mayo Clin Proc 2005;80:232-7.
6. Sears SF, Jr, Todaro JF, Lewis TS, et al. Examining the psychosocial impact of implantable cardioverter defibrillators: a literature review. Clin Cardiol 1999;22:481-9.
7. Goodman M, Hess B. Could implantable cardioverter defibrillators provide a human model supporting the learned helplessness theory of depression? Gen Hosp Psychiatry 1999;21:382-5.
8. Pauli P, Wiedemann G, Dengler W, et al. Anxiety in patients with an automatic implantable cardioverter defibrillator: what differentiates them from panic patients? Psychosom Med 1999;61:69-76.
9. Godemann F, Ahrens B, Behrens S, et al. Classic conditioning and dysfunctional cognitions in patients with panic disorder and agoraphobia treated with an implantable cardioverter/defibrillator. Psychosom Med 2001;63:231-8.
10. Irvine J, Dorian P, Baker B, et al. Quality of life in the Canadian Implantable Defibrillator Study (CIDS). Am Heart J 2002;144:282-9.
11. Dunbar SB, Warner CD, Purcell JA. Internal cardioverter defibrillator device discharge: experiences of patients and family members. Heart Lung 1993;22:494-501.
12. Bourke JP, Turkington D, Thomas G, et al. Florid psychopathology in patients receiving shocks from implanted cardioverter-defibrillators. Heart 1997;78:581-3.
13. Vlay SC, Olson LC, Fricchione GL, Friedman R. Anxiety and anger in patients with ventricular tachyarrhythmias: responses after automatic internal cardioverter defibrillator implantation. Pacing Clin Electrophysiol 1989;12:366-73.
14. Hamner M, Hunt N, Gee J, et al. PTSD and automatic implantable cardioverter defibrillators. Psychosomatics 1998;40:82-5.
15. Friccione GL, Vlay LC, Vlay SC. Cardiac psychiatry and the management of malignant ventricular arrhythmias with the internal cardioverter-defibrillator. Am Heart J 1994;128:1050-9.
16. Friccione GL, Vlay SC. Psychiatric aspects of the implantable cardioverter-defibrillator. In: Estes NAM, Menolis AS, Want PG, eds. Implantable cardioverter-defibrillators. A comprehensive textbook. New York: Marcel Dekker; 1994:405-23.
17. Kohn CS, Petrucci RJ, Baesser C, et al. The effect of psychological intervention on patients’ long-term adjustment to the ICD: a prospective study. Pacing Clin Electrophysiol 2000;23(4 pt 1):450-6.
18. Heller SS, Ormont MA, Lidagoster L, et al. Psychosocial outcome after ICD implantation: a current perspective. Pacing Clin Electrophysiol 1998;21:1207-15.
19. Fabian TJ, Schwartzman DS, Ujhelyi MR, et al. Decreasing pain and anxiety associated with patient-activated atrial shock: a placebo-controlled study of adjunctive sedation with oral triazolam. J Cardivasc Electrophysiol 2006;17:391-5.
20. Sala M, Coppa F, Cappucciati C, et al. Antidepressants: their effects on cardiac channels, QT prolongation and Torsade de Pointes. Curr Opin Investig Drugs 2006;7:256-63.
21. Swenson JR, Doucette S, Fergusson D. Adverse cardiovascular events in antidepressant trials involving high-risk patients: a systematic review of randomized trials. Can J Psychiatry 2006;51:923-9.
22. Pinski SL. Emergencies related to implantable cardioverter-defibrillators. Crit Care Med 2000;28(10 suppl):N174-N180.
23. Kuhl EA, Dixit NK, Walker RL, et al. Measurement of patient fears about implantable cardioverter defibrillator shock: an initial evaluation of the Florida Shock Anxiety Scale. Pacing Clin Electrophysiol 2006;29:614-18.
24. Sears SF, Shea JB, Conti JB. How to respond to an implantable cardioverter-defibrillator shock. Circulation 2005;111:380-2.
CASE: ‘Like a sledgehammer’
Mr. J, age 54, is admitted to the cardiac critical care unit after repeated tachycardia episodes over 3 years. He also has depressive symptoms including social isolation, passive suicidal thoughts, lack of interest in sex, weight loss, difficulty sleeping, sadness, and decreased appetite, energy, and ability to concentrate. The psychiatry consult team subsequently evaluates him.
Shortly after retiring as a police officer, Mr. J started having 10-second episodes of loss of consciousness and suffered 30 episodes within 1 year. After diagnosing chronic idiopathic ventricular tachycardia, a cardiologist ablated an aberrant left ventricular pathway and inserted a single-lead implantable cardioverter-defibrillator (ICD). He also prescribed the antiarrhythmic amiodarone, but Mr. J could not tolerate the medication’s side effects.
Mr. J’s tachycardia persisted, and repeated episodes triggered an estimated 13 electrical shocks from the ICD over 5 months. At this point, the cardiologist performed a second ablation, removed the single-lead ICD, and implanted a two-lead ICD, which he hoped would more accurately discern between lethal and nonlethal fast heart rhythms.
In addition, the cardiologist prescribed the antiarrhythmic sotalol—which did not suppress the arrhythmia—before switching to flecainide, 100 mg bid, which did. However, Mr. J still suffered fatigue, exercise intolerance, near-syncope, and chest heaviness.
One week after receiving the first ICD, Mr. J recalls, he felt his first shock while out for a walk. He said the shock lasted 5 to 10 seconds and “felt like somebody took a sledgehammer to my chest.” Another time, he suffered 6 successive shocks that threw him to the ground. Motorists pulled over to assist him, which made him feel ashamed.
Before long, Mr. J became increasingly afraid of repeat discharges. As soon as he began a task, he would feel a “thumping” in the back of his neck and start panicking, fearful that a heart rate increase would trigger another shock.
The stress forced Mr. J to abandon his favorite retirement hobbies—remodeling houses and yard work—and to spend his days lying around watching television. Fearing another discharge in public, he has stopped seeing friends and going to church. He has also stopped driving and depends on his female partner of 14 years for daily visits, grocery shopping, and rides to medical appointments. She feels frustrated by his debility.
The authors’ observations
By delivering electrical shocks when ventricles beat too quickly, an ICD shocks the heart back into a normal rhythm. Based on our observation, Mr. J probably had both anxiety-induced tachycardia and recurrent atrial fibrillation.
Although ICDs have prolonged survival for patients with potentially fatal ventricular arrhythmias,1,2 painful discharges can occur without warning. Patients liken the discharge to an electric shock or to being kicked or punched in the chest.3
Depending on the patient’s activity level, cardiologists routinely program ICDs to discharge at approximately 10 beats per minute above expected heart rates during typical activities. Because ICD leads cannot differentiate between ventricular and supraventricular rhythm disturbances, a rapid supraventricular rhythm might precipitate a discharge intended to treat a more serious ventricular rhythm disturbance.
Frequent ICD discharges could indicate:
- the patient needs a more effective antiarrhythmic
- the device needs to be set at a higher rate to avoid discharge during periods of anxiety/exertion
- or the device is defective.
ICD-induced psychopathology
Depression or tachycardia could have caused Mr. J’s fatigue. Either way, he showed numerous other depressive symptoms.
Fear of implant discharge or malfunction often induces psychiatric disorders, particularly in patients who have experienced discharge. As many as 87% of ICD patients suffer anxiety, depression, or other psychiatric symptoms after implantation,5 and 13% to 38% meet DSM-IV-TR criteria for an anxiety spectrum disorder.6
Multiple psychological theories explain iatrogenic anxiety disorders resulting from ICD firing. Behaviorally, ICD discharge represents an initially unconditioned stimulus that the patient associates with the activity he was engaging in when shocked. The shock discourages the patient from that activity—however benign—for fear it triggered the discharge and could cause future shocks.
ICD recipients often fear the device will malfunction or discharge while they are in public, driving, or operating machinery—leading some to become homebound and cease activities of daily living. The discharge’s unpredictability shatters a patient’s perception of control over his or her life and might induce a learned helplessness7 that can strain relationships, as it did with Mr. J and his partner. The patient also could develop anticipatory anxiety, mistaking benign body symptoms or increasing shock frequency for signs of a potentially fatal heart problem.8
Whether quality of life diminishes as ICD firings become more frequent is uncertain.9 The Canadian Implantable Defibrillator Study (N=317) found greater quality of life improvements with ICD therapy than with amiodarone—200 to 400 mg/d maintenance therapy—but the improvements were lost in patients who experienced ≥5 shocks over 12 months.10 Pauli et al7 found misinterpretation of the reason for increasing shocks to be more emotionally destructive than shock frequency, however.
Detecting ICD maladjustment
Patients with ICD maladjustment typically show anticipatory anxiety and negative cognitive attributions, and many engage in fruitless maneuvers to prevent device firing.5 Nervousness, dizziness, weakness, and fear are common responses to shock by ICD.11
Most patients with new-onset, post-ICD anxiety disorders have no pre-implant psychiatric history.12 Only one trial assessing state and trait anxiety before and after ICD placement reported increased trait anxiety in some patients before implantation.13
HISTORY: Nights in the cornfield
During psychiatric evaluation, Mr. J reveals that his parents physically and emotionally abused him as a child. He says his father frequently beat him with farm tools, and sometimes the beatings were so severe that his parents kept him home from school to prevent teachers from noticing his bruises. He never received medical treatment for his injuries.
For Mr. J, the inescapable threat of painful, unannounced ICD discharges has brought back the anticipatory terror and helplessness of his childhood. Just as he feared his father’s sudden rages, the specter of repeat ICD shocks now haunts him. He says he’d rather have the ICD removed and risk death from tachycardia than live another minute in fear.
The authors’ observations
Mr. J meets DSM-IV-TR criteria for PTSD. He associates ICD discharge with childhood abuse and experiences new-onset flashbacks, hyperarousal, and avoidance behavior.
To our knowledge, ICD shock-induced flashbacks to pre-implant trauma have not been reported, although some data associate ICDs with posttraumatic stress related to heart disease and treatment.14-16 In one case series,14 patients showed:
- cluster B re-experiencing symptoms (cognitive preoccupation with trauma or psychophysiologic reactivity to reminders of the ICD and heart disease)
- cluster C avoidance symptoms (avoiding activities they thought might activate the ICD)
- cluster D hyperarousal symptoms (insomnia, decreased concentration, hypervigilance, and irritability).
The authors’ observations
Treating comorbid anxiety or depression in ICD recipients is critical. A number of psychiatric interventions might alleviate behavioral and psychological effects of body-device interactions.
CBT. In a retrospective study17 of 36 ICD recipients, those who received 9 months of CBT reported decreased depression, anxiety, distress, and sexual problems compared with those who did not. Interestingly, more CBT-group patients (11 of 18) suffered ICD shocks than did controls (6 of 18).
Peer support groups. Out of 58 ICD recipients who answered a post-implant questionnaire, 23 (39%) attended a peer support group.18 Of these, 22 (96%) found the group helpful and were happier, less hostile, and more sociable after participating. Peer group participants also were more likely to return to work than nonparticipants.
How would you handle a patient’s request to deactivate an implantable cardioverter-defibrillator (ICD) or other life-preserving device that is causing debilitating mental anguish? Physicians dealing with such requests will find themselves in an ethical wilderness.
Pinski22 offers guidelines in line with withdrawal of other life-extending technologies in terminally ill patients. “Deactivation of an ICD is appropriate when the device is believed to be prolonging patient suffering,” he writes, adding that preventing ICD shocks induced by frequent or agonal arrhythmias “will not only hasten but also permit a peaceful death.” Disabling the ICD function that responds to bradycardia will prevent agonal pacing and—as a result—shocks.
The literature, however, offers little guidance on responding to patient requests for ICD deactivation and few precedents on which to base such decisions for the terminally ill.
Even less guidance exists when mental illness resulting from ICD complications induces unbearable suffering. The underlying psychiatric condition should be optimally treated before clinicians entertain ICD removal. Mr. J, for example, decided to keep the implant once his crippling anxiety resolved and he was assured that his tachycardia finally was under control.
12 attributes reduction of ICD-induced anxiety to combination individual psychotherapy and unspecified dosages of benzodiazepines. Two patients also received adjunctive fluoxetine or paroxetine, dosages unspecified.
In a double-blind, placebo-controlled crossover study, implantable atrial defibrillator recipients reported decreased pain and anxiety while taking the short-acting benzodiazepine triazolam, 0.375 mg, before patient-activated shock.19
We recommend trying a combination regimen that acts acutely and subacutely. A long-acting benzodiazepine such as clonazepam can calm acute, overwhelming anxiety, and a selective serotonin reuptake inhibitor (SSRI) such as fluoxetine or paroxetine can help manage chronic depressive and generalized anxiety symptoms.
SSRIs are relatively benign but more research on their cardiac safety is needed.20,21 Tricyclic antidepressants, which prolong cardiac conduction, should be avoided.
In addition to psychotropics, concomitant psychotherapy can reduce chronic symptoms.
The authors’ observations
Preparing patients for ICD problems. Anxiety after an ICD shock and the dread of repeat shocks are normal; the goal is to prevent that anxiety from destroying quality of life.
As with Mr. J, many ICD recipients are emotionally unprepared for device-related complications. Most cardiologists do not screen patients for pre-existing anxiety before ICD placement, nor do many adequately address ICD-induced anxiety once the device has been placed.
Psychological screening before implantation can help detect and manage preexisting anxiety disorders. Small-scale evaluations have used anxiety scales to continuously measure anxiety before and after ICD placement.13,23
Increased patient education on how ICDs work can help patients decide whether to proceed with implantation and tolerate discharges should they occur. Psychological screening and brief, routine communication between providers and patients about psychosocial issues can help patients adjust and identify those who need extended psychological services.4
- develop a plan for how a shock would be handled
- perform relaxation exercises immediately after the shock
- resume activities they were involved with when the shock occurred to prevent avoidance.24
TREATMENT: Third attempt
The cardiology team discontinues flecainide and performs a third radioablation, which eradicates ectopic ventricular activity.
Acting on the psychiatry consult team’s advice, Mr. J is transferred to the inpatient mood disorders unit to aggressively treat his PTSD. He undergoes 4 days of intensive CBT designed to explore the connection between his response to the discharges and his father’s abuse. We prescribe clonazepam, 0.5 mg bid, to reduce Mr. J’s agitation and anxiety, and recommend outpatient counseling to help manage his stress—particularly his anxious response to stimuli that remind him of the ICD discharge.
Mr. J is discharged after 12 days in the cardiac and psychiatric units. He has no suicidal thoughts, his sadness has decreased, and his energy, concentration, sleep, and outlook on his future have improved. He also is resolving relationship issues with his partner.
As Mr. J’s anxiety declines and he is increasingly reassured that his arrhythmias are under control, he decides to keep the ICD. His function gradually improves with continued cardiac rehabilitation, although he does not continue psychotherapy.
Related resources
- Stutts LA, Cross NJ, Conti JB, Sears SF. Examination of research trends on patient factors in patients with implantable cardioverter defibrillators. Clin Cardiol 2007;30:64-8.
- Sears SF, Shea JB, Conti JB. How to respond to an implantable cardioverter-defibrillator shock. Circulation 2005;111;380-2. http://circ.ahajournals.org/cgi/reprint/111/23/e380.
- Pauli P, Wiedemann G, Dengler W, et al. Anxiety in patients with an automatic implantable cardioverter defibrillator: what differentiates them from panic patients? Psychosom Med 1999;61:69-76. www.psychosomaticmedicine.org/cgi/reprint/61/1/69.
- Amiodarone • Cordarone
- Clonazepam • Klonopin
- Flecainide • Tambocor
- Fluoxetine • Prozac
- Paroxetine • Paxil
- Sotalol • Betapace
- Triazolam • Halcion, others
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
CASE: ‘Like a sledgehammer’
Mr. J, age 54, is admitted to the cardiac critical care unit after repeated tachycardia episodes over 3 years. He also has depressive symptoms including social isolation, passive suicidal thoughts, lack of interest in sex, weight loss, difficulty sleeping, sadness, and decreased appetite, energy, and ability to concentrate. The psychiatry consult team subsequently evaluates him.
Shortly after retiring as a police officer, Mr. J started having 10-second episodes of loss of consciousness and suffered 30 episodes within 1 year. After diagnosing chronic idiopathic ventricular tachycardia, a cardiologist ablated an aberrant left ventricular pathway and inserted a single-lead implantable cardioverter-defibrillator (ICD). He also prescribed the antiarrhythmic amiodarone, but Mr. J could not tolerate the medication’s side effects.
Mr. J’s tachycardia persisted, and repeated episodes triggered an estimated 13 electrical shocks from the ICD over 5 months. At this point, the cardiologist performed a second ablation, removed the single-lead ICD, and implanted a two-lead ICD, which he hoped would more accurately discern between lethal and nonlethal fast heart rhythms.
In addition, the cardiologist prescribed the antiarrhythmic sotalol—which did not suppress the arrhythmia—before switching to flecainide, 100 mg bid, which did. However, Mr. J still suffered fatigue, exercise intolerance, near-syncope, and chest heaviness.
One week after receiving the first ICD, Mr. J recalls, he felt his first shock while out for a walk. He said the shock lasted 5 to 10 seconds and “felt like somebody took a sledgehammer to my chest.” Another time, he suffered 6 successive shocks that threw him to the ground. Motorists pulled over to assist him, which made him feel ashamed.
Before long, Mr. J became increasingly afraid of repeat discharges. As soon as he began a task, he would feel a “thumping” in the back of his neck and start panicking, fearful that a heart rate increase would trigger another shock.
The stress forced Mr. J to abandon his favorite retirement hobbies—remodeling houses and yard work—and to spend his days lying around watching television. Fearing another discharge in public, he has stopped seeing friends and going to church. He has also stopped driving and depends on his female partner of 14 years for daily visits, grocery shopping, and rides to medical appointments. She feels frustrated by his debility.
The authors’ observations
By delivering electrical shocks when ventricles beat too quickly, an ICD shocks the heart back into a normal rhythm. Based on our observation, Mr. J probably had both anxiety-induced tachycardia and recurrent atrial fibrillation.
Although ICDs have prolonged survival for patients with potentially fatal ventricular arrhythmias,1,2 painful discharges can occur without warning. Patients liken the discharge to an electric shock or to being kicked or punched in the chest.3
Depending on the patient’s activity level, cardiologists routinely program ICDs to discharge at approximately 10 beats per minute above expected heart rates during typical activities. Because ICD leads cannot differentiate between ventricular and supraventricular rhythm disturbances, a rapid supraventricular rhythm might precipitate a discharge intended to treat a more serious ventricular rhythm disturbance.
Frequent ICD discharges could indicate:
- the patient needs a more effective antiarrhythmic
- the device needs to be set at a higher rate to avoid discharge during periods of anxiety/exertion
- or the device is defective.
ICD-induced psychopathology
Depression or tachycardia could have caused Mr. J’s fatigue. Either way, he showed numerous other depressive symptoms.
Fear of implant discharge or malfunction often induces psychiatric disorders, particularly in patients who have experienced discharge. As many as 87% of ICD patients suffer anxiety, depression, or other psychiatric symptoms after implantation,5 and 13% to 38% meet DSM-IV-TR criteria for an anxiety spectrum disorder.6
Multiple psychological theories explain iatrogenic anxiety disorders resulting from ICD firing. Behaviorally, ICD discharge represents an initially unconditioned stimulus that the patient associates with the activity he was engaging in when shocked. The shock discourages the patient from that activity—however benign—for fear it triggered the discharge and could cause future shocks.
ICD recipients often fear the device will malfunction or discharge while they are in public, driving, or operating machinery—leading some to become homebound and cease activities of daily living. The discharge’s unpredictability shatters a patient’s perception of control over his or her life and might induce a learned helplessness7 that can strain relationships, as it did with Mr. J and his partner. The patient also could develop anticipatory anxiety, mistaking benign body symptoms or increasing shock frequency for signs of a potentially fatal heart problem.8
Whether quality of life diminishes as ICD firings become more frequent is uncertain.9 The Canadian Implantable Defibrillator Study (N=317) found greater quality of life improvements with ICD therapy than with amiodarone—200 to 400 mg/d maintenance therapy—but the improvements were lost in patients who experienced ≥5 shocks over 12 months.10 Pauli et al7 found misinterpretation of the reason for increasing shocks to be more emotionally destructive than shock frequency, however.
Detecting ICD maladjustment
Patients with ICD maladjustment typically show anticipatory anxiety and negative cognitive attributions, and many engage in fruitless maneuvers to prevent device firing.5 Nervousness, dizziness, weakness, and fear are common responses to shock by ICD.11
Most patients with new-onset, post-ICD anxiety disorders have no pre-implant psychiatric history.12 Only one trial assessing state and trait anxiety before and after ICD placement reported increased trait anxiety in some patients before implantation.13
HISTORY: Nights in the cornfield
During psychiatric evaluation, Mr. J reveals that his parents physically and emotionally abused him as a child. He says his father frequently beat him with farm tools, and sometimes the beatings were so severe that his parents kept him home from school to prevent teachers from noticing his bruises. He never received medical treatment for his injuries.
For Mr. J, the inescapable threat of painful, unannounced ICD discharges has brought back the anticipatory terror and helplessness of his childhood. Just as he feared his father’s sudden rages, the specter of repeat ICD shocks now haunts him. He says he’d rather have the ICD removed and risk death from tachycardia than live another minute in fear.
The authors’ observations
Mr. J meets DSM-IV-TR criteria for PTSD. He associates ICD discharge with childhood abuse and experiences new-onset flashbacks, hyperarousal, and avoidance behavior.
To our knowledge, ICD shock-induced flashbacks to pre-implant trauma have not been reported, although some data associate ICDs with posttraumatic stress related to heart disease and treatment.14-16 In one case series,14 patients showed:
- cluster B re-experiencing symptoms (cognitive preoccupation with trauma or psychophysiologic reactivity to reminders of the ICD and heart disease)
- cluster C avoidance symptoms (avoiding activities they thought might activate the ICD)
- cluster D hyperarousal symptoms (insomnia, decreased concentration, hypervigilance, and irritability).
The authors’ observations
Treating comorbid anxiety or depression in ICD recipients is critical. A number of psychiatric interventions might alleviate behavioral and psychological effects of body-device interactions.
CBT. In a retrospective study17 of 36 ICD recipients, those who received 9 months of CBT reported decreased depression, anxiety, distress, and sexual problems compared with those who did not. Interestingly, more CBT-group patients (11 of 18) suffered ICD shocks than did controls (6 of 18).
Peer support groups. Out of 58 ICD recipients who answered a post-implant questionnaire, 23 (39%) attended a peer support group.18 Of these, 22 (96%) found the group helpful and were happier, less hostile, and more sociable after participating. Peer group participants also were more likely to return to work than nonparticipants.
How would you handle a patient’s request to deactivate an implantable cardioverter-defibrillator (ICD) or other life-preserving device that is causing debilitating mental anguish? Physicians dealing with such requests will find themselves in an ethical wilderness.
Pinski22 offers guidelines in line with withdrawal of other life-extending technologies in terminally ill patients. “Deactivation of an ICD is appropriate when the device is believed to be prolonging patient suffering,” he writes, adding that preventing ICD shocks induced by frequent or agonal arrhythmias “will not only hasten but also permit a peaceful death.” Disabling the ICD function that responds to bradycardia will prevent agonal pacing and—as a result—shocks.
The literature, however, offers little guidance on responding to patient requests for ICD deactivation and few precedents on which to base such decisions for the terminally ill.
Even less guidance exists when mental illness resulting from ICD complications induces unbearable suffering. The underlying psychiatric condition should be optimally treated before clinicians entertain ICD removal. Mr. J, for example, decided to keep the implant once his crippling anxiety resolved and he was assured that his tachycardia finally was under control.
12 attributes reduction of ICD-induced anxiety to combination individual psychotherapy and unspecified dosages of benzodiazepines. Two patients also received adjunctive fluoxetine or paroxetine, dosages unspecified.
In a double-blind, placebo-controlled crossover study, implantable atrial defibrillator recipients reported decreased pain and anxiety while taking the short-acting benzodiazepine triazolam, 0.375 mg, before patient-activated shock.19
We recommend trying a combination regimen that acts acutely and subacutely. A long-acting benzodiazepine such as clonazepam can calm acute, overwhelming anxiety, and a selective serotonin reuptake inhibitor (SSRI) such as fluoxetine or paroxetine can help manage chronic depressive and generalized anxiety symptoms.
SSRIs are relatively benign but more research on their cardiac safety is needed.20,21 Tricyclic antidepressants, which prolong cardiac conduction, should be avoided.
In addition to psychotropics, concomitant psychotherapy can reduce chronic symptoms.
The authors’ observations
Preparing patients for ICD problems. Anxiety after an ICD shock and the dread of repeat shocks are normal; the goal is to prevent that anxiety from destroying quality of life.
As with Mr. J, many ICD recipients are emotionally unprepared for device-related complications. Most cardiologists do not screen patients for pre-existing anxiety before ICD placement, nor do many adequately address ICD-induced anxiety once the device has been placed.
Psychological screening before implantation can help detect and manage preexisting anxiety disorders. Small-scale evaluations have used anxiety scales to continuously measure anxiety before and after ICD placement.13,23
Increased patient education on how ICDs work can help patients decide whether to proceed with implantation and tolerate discharges should they occur. Psychological screening and brief, routine communication between providers and patients about psychosocial issues can help patients adjust and identify those who need extended psychological services.4
- develop a plan for how a shock would be handled
- perform relaxation exercises immediately after the shock
- resume activities they were involved with when the shock occurred to prevent avoidance.24
TREATMENT: Third attempt
The cardiology team discontinues flecainide and performs a third radioablation, which eradicates ectopic ventricular activity.
Acting on the psychiatry consult team’s advice, Mr. J is transferred to the inpatient mood disorders unit to aggressively treat his PTSD. He undergoes 4 days of intensive CBT designed to explore the connection between his response to the discharges and his father’s abuse. We prescribe clonazepam, 0.5 mg bid, to reduce Mr. J’s agitation and anxiety, and recommend outpatient counseling to help manage his stress—particularly his anxious response to stimuli that remind him of the ICD discharge.
Mr. J is discharged after 12 days in the cardiac and psychiatric units. He has no suicidal thoughts, his sadness has decreased, and his energy, concentration, sleep, and outlook on his future have improved. He also is resolving relationship issues with his partner.
As Mr. J’s anxiety declines and he is increasingly reassured that his arrhythmias are under control, he decides to keep the ICD. His function gradually improves with continued cardiac rehabilitation, although he does not continue psychotherapy.
Related resources
- Stutts LA, Cross NJ, Conti JB, Sears SF. Examination of research trends on patient factors in patients with implantable cardioverter defibrillators. Clin Cardiol 2007;30:64-8.
- Sears SF, Shea JB, Conti JB. How to respond to an implantable cardioverter-defibrillator shock. Circulation 2005;111;380-2. http://circ.ahajournals.org/cgi/reprint/111/23/e380.
- Pauli P, Wiedemann G, Dengler W, et al. Anxiety in patients with an automatic implantable cardioverter defibrillator: what differentiates them from panic patients? Psychosom Med 1999;61:69-76. www.psychosomaticmedicine.org/cgi/reprint/61/1/69.
- Amiodarone • Cordarone
- Clonazepam • Klonopin
- Flecainide • Tambocor
- Fluoxetine • Prozac
- Paroxetine • Paxil
- Sotalol • Betapace
- Triazolam • Halcion, others
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Morris PL, Badger J, Chmielewski C, et al. Psychiatric morbidity following implantation of the automatic implantable cardioverter defibrillator. Psychosomatics 1991;32:58-64.
2. Conti JB, Sears SF, Jr. Understanding and managing the psychological impact of the ICD. Card Electrophysiol Rev 2001;5:128-32.
3. Pelletier D, Gallagher R, Mitten-Lewis S, et al. Australian implantable cardiac defibrillator recipients: quality-of-life issues. Int J Nursing Pract 2002;8:68-74.
4. Eads AS, Sears SF, Jr, Sotile WM, Conti JB. Supportive communication with implantable cardioverter defibrillator patients: seven principles to facilitate psychosocial adjustment. J Cardiopulm Rehab 2000;20:109-14.
5. Sola CL, Bostwick JM. Implantable cardioverter-defibrillators, induced anxiety, and quality of life. Mayo Clin Proc 2005;80:232-7.
6. Sears SF, Jr, Todaro JF, Lewis TS, et al. Examining the psychosocial impact of implantable cardioverter defibrillators: a literature review. Clin Cardiol 1999;22:481-9.
7. Goodman M, Hess B. Could implantable cardioverter defibrillators provide a human model supporting the learned helplessness theory of depression? Gen Hosp Psychiatry 1999;21:382-5.
8. Pauli P, Wiedemann G, Dengler W, et al. Anxiety in patients with an automatic implantable cardioverter defibrillator: what differentiates them from panic patients? Psychosom Med 1999;61:69-76.
9. Godemann F, Ahrens B, Behrens S, et al. Classic conditioning and dysfunctional cognitions in patients with panic disorder and agoraphobia treated with an implantable cardioverter/defibrillator. Psychosom Med 2001;63:231-8.
10. Irvine J, Dorian P, Baker B, et al. Quality of life in the Canadian Implantable Defibrillator Study (CIDS). Am Heart J 2002;144:282-9.
11. Dunbar SB, Warner CD, Purcell JA. Internal cardioverter defibrillator device discharge: experiences of patients and family members. Heart Lung 1993;22:494-501.
12. Bourke JP, Turkington D, Thomas G, et al. Florid psychopathology in patients receiving shocks from implanted cardioverter-defibrillators. Heart 1997;78:581-3.
13. Vlay SC, Olson LC, Fricchione GL, Friedman R. Anxiety and anger in patients with ventricular tachyarrhythmias: responses after automatic internal cardioverter defibrillator implantation. Pacing Clin Electrophysiol 1989;12:366-73.
14. Hamner M, Hunt N, Gee J, et al. PTSD and automatic implantable cardioverter defibrillators. Psychosomatics 1998;40:82-5.
15. Friccione GL, Vlay LC, Vlay SC. Cardiac psychiatry and the management of malignant ventricular arrhythmias with the internal cardioverter-defibrillator. Am Heart J 1994;128:1050-9.
16. Friccione GL, Vlay SC. Psychiatric aspects of the implantable cardioverter-defibrillator. In: Estes NAM, Menolis AS, Want PG, eds. Implantable cardioverter-defibrillators. A comprehensive textbook. New York: Marcel Dekker; 1994:405-23.
17. Kohn CS, Petrucci RJ, Baesser C, et al. The effect of psychological intervention on patients’ long-term adjustment to the ICD: a prospective study. Pacing Clin Electrophysiol 2000;23(4 pt 1):450-6.
18. Heller SS, Ormont MA, Lidagoster L, et al. Psychosocial outcome after ICD implantation: a current perspective. Pacing Clin Electrophysiol 1998;21:1207-15.
19. Fabian TJ, Schwartzman DS, Ujhelyi MR, et al. Decreasing pain and anxiety associated with patient-activated atrial shock: a placebo-controlled study of adjunctive sedation with oral triazolam. J Cardivasc Electrophysiol 2006;17:391-5.
20. Sala M, Coppa F, Cappucciati C, et al. Antidepressants: their effects on cardiac channels, QT prolongation and Torsade de Pointes. Curr Opin Investig Drugs 2006;7:256-63.
21. Swenson JR, Doucette S, Fergusson D. Adverse cardiovascular events in antidepressant trials involving high-risk patients: a systematic review of randomized trials. Can J Psychiatry 2006;51:923-9.
22. Pinski SL. Emergencies related to implantable cardioverter-defibrillators. Crit Care Med 2000;28(10 suppl):N174-N180.
23. Kuhl EA, Dixit NK, Walker RL, et al. Measurement of patient fears about implantable cardioverter defibrillator shock: an initial evaluation of the Florida Shock Anxiety Scale. Pacing Clin Electrophysiol 2006;29:614-18.
24. Sears SF, Shea JB, Conti JB. How to respond to an implantable cardioverter-defibrillator shock. Circulation 2005;111:380-2.
1. Morris PL, Badger J, Chmielewski C, et al. Psychiatric morbidity following implantation of the automatic implantable cardioverter defibrillator. Psychosomatics 1991;32:58-64.
2. Conti JB, Sears SF, Jr. Understanding and managing the psychological impact of the ICD. Card Electrophysiol Rev 2001;5:128-32.
3. Pelletier D, Gallagher R, Mitten-Lewis S, et al. Australian implantable cardiac defibrillator recipients: quality-of-life issues. Int J Nursing Pract 2002;8:68-74.
4. Eads AS, Sears SF, Jr, Sotile WM, Conti JB. Supportive communication with implantable cardioverter defibrillator patients: seven principles to facilitate psychosocial adjustment. J Cardiopulm Rehab 2000;20:109-14.
5. Sola CL, Bostwick JM. Implantable cardioverter-defibrillators, induced anxiety, and quality of life. Mayo Clin Proc 2005;80:232-7.
6. Sears SF, Jr, Todaro JF, Lewis TS, et al. Examining the psychosocial impact of implantable cardioverter defibrillators: a literature review. Clin Cardiol 1999;22:481-9.
7. Goodman M, Hess B. Could implantable cardioverter defibrillators provide a human model supporting the learned helplessness theory of depression? Gen Hosp Psychiatry 1999;21:382-5.
8. Pauli P, Wiedemann G, Dengler W, et al. Anxiety in patients with an automatic implantable cardioverter defibrillator: what differentiates them from panic patients? Psychosom Med 1999;61:69-76.
9. Godemann F, Ahrens B, Behrens S, et al. Classic conditioning and dysfunctional cognitions in patients with panic disorder and agoraphobia treated with an implantable cardioverter/defibrillator. Psychosom Med 2001;63:231-8.
10. Irvine J, Dorian P, Baker B, et al. Quality of life in the Canadian Implantable Defibrillator Study (CIDS). Am Heart J 2002;144:282-9.
11. Dunbar SB, Warner CD, Purcell JA. Internal cardioverter defibrillator device discharge: experiences of patients and family members. Heart Lung 1993;22:494-501.
12. Bourke JP, Turkington D, Thomas G, et al. Florid psychopathology in patients receiving shocks from implanted cardioverter-defibrillators. Heart 1997;78:581-3.
13. Vlay SC, Olson LC, Fricchione GL, Friedman R. Anxiety and anger in patients with ventricular tachyarrhythmias: responses after automatic internal cardioverter defibrillator implantation. Pacing Clin Electrophysiol 1989;12:366-73.
14. Hamner M, Hunt N, Gee J, et al. PTSD and automatic implantable cardioverter defibrillators. Psychosomatics 1998;40:82-5.
15. Friccione GL, Vlay LC, Vlay SC. Cardiac psychiatry and the management of malignant ventricular arrhythmias with the internal cardioverter-defibrillator. Am Heart J 1994;128:1050-9.
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