Noninvasive Imaging: Report From the Mount Sinai Fall Symposium

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Color Wheel Approach to Diagnosing Skin Cancer: Report From the Mount Sinai Fall Symposium

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Color Wheel Approach to Diagnosing Skin Cancer: Report From the Mount Sinai Fall Symposium

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Burnout for Dermatologists: Report From the Mount Sinai Fall Symposium

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Burnout for Dermatologists: Report From the Mount Sinai Fall Symposium

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New Uses for Botulinum Toxins: Report From the Mount Sinai Fall Symposium

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New Uses for Botulinum Toxins: Report From the Mount Sinai Fall Symposium

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Branch duct intraductal papillar mucinous neoplasms confer increased malignancy risk

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Patients with branch duct intraductal papillary mucinous neoplasms were about 19 times more likely to develop malignancies over 5 years compared with the general population, although they lacked worrisome features of malignancy at baseline.

Body

The appropriate surveillance strategy for branch duct IPMNs is a point of debate, and numerous guidelines have offered recommendations for managing these potentially malignant neoplasms. Among the contested topics is the appropriateness of ceasing imaging surveillance of lesions that are stable over years. In 2015, an American Gastroenterological Association guideline made a conditional recommendation for cessation of imaging surveillance of pancreatic cysts that have remained stable after 5 years, noting that only very low-quality evidence was available. Given the paucity of data on this topic, this recommendation has been debated. 

Dr. Pergolini and colleagues shed new light on this question with this retrospective review. Their study demonstrates that a dramatically increased risk of developing pancreatic malignancy persists even when a branch duct IPMN demonstrates no worrisome features or growth after 5 years of imaging surveillance. In fact, in their cohort, the risk of malignancy not only persisted among patients with branch duct IPMNs compared to population-based controls, but in fact, the risk was even greater after 5 years of follow-up. The risk persisted even after 10 years of follow-up. This study lends credibility to the opinion that branch duct type IPMNs should undergo ongoing surveillance even after 5 years of stability on imaging. Furthermore, it invites further study on smaller (less than 1.5 cm) branch duct IPMNs that remain stable over 5 years, as they appear to be very low risk and may represent a category of IPMNs that do not require indefinite surveillance.

Anthony Gamboa, MD, is assistant professor of medicine, program director of advanced endoscopy fellowship, division of gastroenterology, hepatology and nutrition, Vanderbilt University, Nashville, Tenn. He has no conflicts of interest.

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The appropriate surveillance strategy for branch duct IPMNs is a point of debate, and numerous guidelines have offered recommendations for managing these potentially malignant neoplasms. Among the contested topics is the appropriateness of ceasing imaging surveillance of lesions that are stable over years. In 2015, an American Gastroenterological Association guideline made a conditional recommendation for cessation of imaging surveillance of pancreatic cysts that have remained stable after 5 years, noting that only very low-quality evidence was available. Given the paucity of data on this topic, this recommendation has been debated. 

Dr. Pergolini and colleagues shed new light on this question with this retrospective review. Their study demonstrates that a dramatically increased risk of developing pancreatic malignancy persists even when a branch duct IPMN demonstrates no worrisome features or growth after 5 years of imaging surveillance. In fact, in their cohort, the risk of malignancy not only persisted among patients with branch duct IPMNs compared to population-based controls, but in fact, the risk was even greater after 5 years of follow-up. The risk persisted even after 10 years of follow-up. This study lends credibility to the opinion that branch duct type IPMNs should undergo ongoing surveillance even after 5 years of stability on imaging. Furthermore, it invites further study on smaller (less than 1.5 cm) branch duct IPMNs that remain stable over 5 years, as they appear to be very low risk and may represent a category of IPMNs that do not require indefinite surveillance.

Anthony Gamboa, MD, is assistant professor of medicine, program director of advanced endoscopy fellowship, division of gastroenterology, hepatology and nutrition, Vanderbilt University, Nashville, Tenn. He has no conflicts of interest.

Body

The appropriate surveillance strategy for branch duct IPMNs is a point of debate, and numerous guidelines have offered recommendations for managing these potentially malignant neoplasms. Among the contested topics is the appropriateness of ceasing imaging surveillance of lesions that are stable over years. In 2015, an American Gastroenterological Association guideline made a conditional recommendation for cessation of imaging surveillance of pancreatic cysts that have remained stable after 5 years, noting that only very low-quality evidence was available. Given the paucity of data on this topic, this recommendation has been debated. 

Dr. Pergolini and colleagues shed new light on this question with this retrospective review. Their study demonstrates that a dramatically increased risk of developing pancreatic malignancy persists even when a branch duct IPMN demonstrates no worrisome features or growth after 5 years of imaging surveillance. In fact, in their cohort, the risk of malignancy not only persisted among patients with branch duct IPMNs compared to population-based controls, but in fact, the risk was even greater after 5 years of follow-up. The risk persisted even after 10 years of follow-up. This study lends credibility to the opinion that branch duct type IPMNs should undergo ongoing surveillance even after 5 years of stability on imaging. Furthermore, it invites further study on smaller (less than 1.5 cm) branch duct IPMNs that remain stable over 5 years, as they appear to be very low risk and may represent a category of IPMNs that do not require indefinite surveillance.

Anthony Gamboa, MD, is assistant professor of medicine, program director of advanced endoscopy fellowship, division of gastroenterology, hepatology and nutrition, Vanderbilt University, Nashville, Tenn. He has no conflicts of interest.

 

Patients with branch duct intraductal papillary mucinous neoplasms were about 19 times more likely to develop malignancies over 5 years compared with the general population, although they lacked worrisome features of malignancy at baseline.

 

Patients with branch duct intraductal papillary mucinous neoplasms were about 19 times more likely to develop malignancies over 5 years compared with the general population, although they lacked worrisome features of malignancy at baseline.

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Key clinical point: Branch duct intraductal papillary mucinous neoplasms conferred a markedly increased risk of malignancy even when they lacked worrisome features at baseline.

Major finding: At 5 years, the standardized incidence ratio for malignancy was 18.8 compared with the general population.

Data source: A retrospective study of 577 patients with suspected branch duct intraductal papillary mucinous neoplasms.

Disclosures: The investigators did not disclose external funding sources. They reported having no relevant conflicts of interest.

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Innovations: Quality, patient safety, and technology initiatives

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A new infection composite score; Palliative care consultations; The deprescribing trend

 

Measuring hospital-acquired infection in a new way

Every day, hospitalists struggle with health care–associated infections, which 1 in 25 patients experiences, according to the Centers for Disease Control and Prevention.

These infections are often discussed in terms of the standardized infection ratio (SIR), but that measure may not assess overall performance, according to a study suggesting a new measure that could help large hospital systems better evaluate their infection outcomes by comparing them with those of their peers.

Dr. Mohamad G. Fakih
The researchers piloted an infection composite score (ICS) in 82 hospitals under a single health system. The ICS is a combined score for central line–associated bloodstream infections, catheter-associated urinary tract infections, colon and abdominal hysterectomy surgical site infections, and hospital-onset methicillin-resistant Staphylococcus aureus bacteremia and Clostridium difficile infections. The researchers calculated individual facility ICS scores and compared them with system scores for baseline and performance.

This gives hospitals a more current picture of how they’re doing, compared with the SIR, said Mohamad G. Fakih, MD, MPH, of Ascension Health, Grosse Pointe Woods, Mich., lead author of the study. “The SIR is a ratio based on a baseline that’s usually a few years prior; it’s not the year directly before. So, when we published this paper, some of the infections had a baseline of 2006 through 2008 for the central line infections.”

Another difference is that the ICS gives the six infections the same weight, rather than combining them. “So, if you add them up together and then you divide by six, you get a score that tells you how you’re doing for infection, compared [with] the whole system. If they have a problem that’s related to many infections, then you know the culture of infection prevention in that hospital is much worse. It’s not just one product. There’s something much more worrisome for that hospital.”

This simple score can be adjusted according to a particular hospital’s needs. “Let’s say you want to focus on additional infections that are publicly reported. You can add them to that score,” Dr. Fakih says. “And you can change the weight in a way depending on what you want to focus on, or, if you want to focus on something more than others, you can increase the weight.”
 

References

1. Centers for Disease Control and Prevention. Healthcare-associated infections. https://www.cdc.gov/hai/surveillance/. Accessed April 10, 2017.

2. Fakih MG, Skierczynski B, Bufalino A, et al. Taking advantage of public reporting: An infection composite score to assist evaluating hospital performance for infection prevention efforts. American Journal of Infection Control. (2016);44(12):1578-81.

Hospitalists lead in palliative care

According to a recent report, hospitalists made nearly half (48%) of all palliative care referrals in hospitals in 2015. The report comes from the Center to Advance Palliative Care and the National Palliative Care Research Center.

“The most important finding from this analysis is the near doubling of the number of people receiving palliative care services in U.S. hospital palliative care programs, from an average of 2.7% in 2009 to an average of 4.8% in 2015,” said Diane Meier, MD, director of the Center to Advance Palliative Care. “This suggests increasing recognition of the benefits of palliative care by health professionals and greater likelihood that those living with serious illness will receive state-of-the-art care.”

The report shows that hospitalists are the No. 1 source of referral to palliative care teams. “They see up close the suffering of their patients and families, their need for comprehensive whole-person care, and the beneficial impact of the added layer of support that palliative care provides,” she said.

“Hospitalists should work alongside their palliative care colleagues to develop standardized screening tools so that all patients and families who could benefit have access to the best quality of care during serious and complex illness,” Dr. Meier said. Hospitalists can also gain skills in communicating about prognosis and conducting family meetings, as well as safe and effective symptom management, through the online clinical training curriculum available at capc.org.
 

Reference

1. National Palliative Care Registry. How We Work: Trends and Insights in Hospital Palliative Care. https://registry.capc.org/wp-content/uploads/2017/02/How-We-Work-Trends-and-Insights-in-Hospital-Palliative-Care-2009-2015.pdf. Accessed April 7, 2017.

Improving outcomes for children with chronic conditions

Cincinnati Children’s Hospital Medical Center improved outcomes for 50% of pediatric patients by redesigning the way it cares for children with active chronic conditions, according to a new study.

The hospital implemented a Condition Outcomes Improvement Initiative, in which specialized clinical teams applied quality improvement principles to improve outcomes for pediatric patients with chronic illnesses.

Each improvement team focused on a specific chronic condition, such as juvenile arthritis, asthma, chronic kidney disease, or sickle cell disease. The improvement processes implemented included reviewing evidence to choose which outcomes to measure, developing condition-specific patient registries and data collection tools, classifying patients into defined risk groups, planning care before and after visits, and providing self-management and caregiver/parent support for patients and their families.

Study lead author Jennifer Lail, MD, FAAP, analyzed data from more than 27,000 pediatric patients from 18 improvement teams. Following implementation of the changes, half of patients had an improved outcome, and 11 of the 18 chronic condition teams achieved the goal of 20% improvement in their chosen clinical outcome, suggesting that clinical teams implementing quality improvement methods with multidisciplinary support can improve outcomes for populations with chronic conditions.
 

 

 

Reference

1. Lail J, et al. Applying the Chronic Care Model to Improve Care and Outcomes at a Pediatric Medical Center. Joint Commission Journal on Quality and Patient Safety. 2017;43(3):101-112.

FDA approves two new antibiotic tests

Hospitalists have two new FDA-approved tools available to help them make antibiotic treatment decisions.

The first is the expanded use of the Vidas Brahms PCT Assay, intended to be used in the hospital or emergency room. The test uses – for the first time – procalcitonin (PCT), a protein associated with the body’s response to a bacterial infection, as a biomarker that can help hospitalists make antibiotic management decisions in patients with those conditions. The results can help them determine if antibiotic treatment should be started or stopped in patients with lower respiratory tract infections (such as community-acquired pneumonia) and stopped in patients with sepsis.

The FDA has also allowed marketing of the PhenoTest BC Kit. This one is another first, the first test to identify organisms causing bloodstream infections and provide information about the antibiotics to which the organism is likely to respond.

The test can identify bacteria or yeast from a positive blood culture in approximately 1.5 hours (compared with traditional identification and antibiotic susceptibility tests, which can take one to two days). The test can identify 14 different species of bacteria and two species of yeast that cause bloodstream infections. It also provides antibiotic sensitivity information on 18 antibiotics. In addition, the test will identify the presence of two indicators of antibiotic resistance.
 

Quick byte

About a third of adverse events during hospitalizations involve a drug-related harm, resulting in longer hospital stays and increased costs, according to the New York Times. “The Institute of Medicine estimated that there are 400,000 preventable adverse drug events in hospitals each year, costing $3.5 billion. One-fifth of patients discharged from the hospital have a drug-related complication after returning home, many of which are preventable.”

Reference

1 Frakt A. How Many Pills Are Too Many? The New York Times. 2017 Apr 10. https://www.nytimes.com/2017/04/10/upshot/how-many-pills-are-too-many.html?rref=collection%2Fsectioncollection%2Fhealth&action=click&contentCollection=health&region=stream&module=stream_unit&version=latest&contentPlacement=6&pgtype=sectionfront&_r=0. Accessed April 9, 2017.

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A new infection composite score; Palliative care consultations; The deprescribing trend
A new infection composite score; Palliative care consultations; The deprescribing trend

 

Measuring hospital-acquired infection in a new way

Every day, hospitalists struggle with health care–associated infections, which 1 in 25 patients experiences, according to the Centers for Disease Control and Prevention.

These infections are often discussed in terms of the standardized infection ratio (SIR), but that measure may not assess overall performance, according to a study suggesting a new measure that could help large hospital systems better evaluate their infection outcomes by comparing them with those of their peers.

Dr. Mohamad G. Fakih
The researchers piloted an infection composite score (ICS) in 82 hospitals under a single health system. The ICS is a combined score for central line–associated bloodstream infections, catheter-associated urinary tract infections, colon and abdominal hysterectomy surgical site infections, and hospital-onset methicillin-resistant Staphylococcus aureus bacteremia and Clostridium difficile infections. The researchers calculated individual facility ICS scores and compared them with system scores for baseline and performance.

This gives hospitals a more current picture of how they’re doing, compared with the SIR, said Mohamad G. Fakih, MD, MPH, of Ascension Health, Grosse Pointe Woods, Mich., lead author of the study. “The SIR is a ratio based on a baseline that’s usually a few years prior; it’s not the year directly before. So, when we published this paper, some of the infections had a baseline of 2006 through 2008 for the central line infections.”

Another difference is that the ICS gives the six infections the same weight, rather than combining them. “So, if you add them up together and then you divide by six, you get a score that tells you how you’re doing for infection, compared [with] the whole system. If they have a problem that’s related to many infections, then you know the culture of infection prevention in that hospital is much worse. It’s not just one product. There’s something much more worrisome for that hospital.”

This simple score can be adjusted according to a particular hospital’s needs. “Let’s say you want to focus on additional infections that are publicly reported. You can add them to that score,” Dr. Fakih says. “And you can change the weight in a way depending on what you want to focus on, or, if you want to focus on something more than others, you can increase the weight.”
 

References

1. Centers for Disease Control and Prevention. Healthcare-associated infections. https://www.cdc.gov/hai/surveillance/. Accessed April 10, 2017.

2. Fakih MG, Skierczynski B, Bufalino A, et al. Taking advantage of public reporting: An infection composite score to assist evaluating hospital performance for infection prevention efforts. American Journal of Infection Control. (2016);44(12):1578-81.

Hospitalists lead in palliative care

According to a recent report, hospitalists made nearly half (48%) of all palliative care referrals in hospitals in 2015. The report comes from the Center to Advance Palliative Care and the National Palliative Care Research Center.

“The most important finding from this analysis is the near doubling of the number of people receiving palliative care services in U.S. hospital palliative care programs, from an average of 2.7% in 2009 to an average of 4.8% in 2015,” said Diane Meier, MD, director of the Center to Advance Palliative Care. “This suggests increasing recognition of the benefits of palliative care by health professionals and greater likelihood that those living with serious illness will receive state-of-the-art care.”

The report shows that hospitalists are the No. 1 source of referral to palliative care teams. “They see up close the suffering of their patients and families, their need for comprehensive whole-person care, and the beneficial impact of the added layer of support that palliative care provides,” she said.

“Hospitalists should work alongside their palliative care colleagues to develop standardized screening tools so that all patients and families who could benefit have access to the best quality of care during serious and complex illness,” Dr. Meier said. Hospitalists can also gain skills in communicating about prognosis and conducting family meetings, as well as safe and effective symptom management, through the online clinical training curriculum available at capc.org.
 

Reference

1. National Palliative Care Registry. How We Work: Trends and Insights in Hospital Palliative Care. https://registry.capc.org/wp-content/uploads/2017/02/How-We-Work-Trends-and-Insights-in-Hospital-Palliative-Care-2009-2015.pdf. Accessed April 7, 2017.

Improving outcomes for children with chronic conditions

Cincinnati Children’s Hospital Medical Center improved outcomes for 50% of pediatric patients by redesigning the way it cares for children with active chronic conditions, according to a new study.

The hospital implemented a Condition Outcomes Improvement Initiative, in which specialized clinical teams applied quality improvement principles to improve outcomes for pediatric patients with chronic illnesses.

Each improvement team focused on a specific chronic condition, such as juvenile arthritis, asthma, chronic kidney disease, or sickle cell disease. The improvement processes implemented included reviewing evidence to choose which outcomes to measure, developing condition-specific patient registries and data collection tools, classifying patients into defined risk groups, planning care before and after visits, and providing self-management and caregiver/parent support for patients and their families.

Study lead author Jennifer Lail, MD, FAAP, analyzed data from more than 27,000 pediatric patients from 18 improvement teams. Following implementation of the changes, half of patients had an improved outcome, and 11 of the 18 chronic condition teams achieved the goal of 20% improvement in their chosen clinical outcome, suggesting that clinical teams implementing quality improvement methods with multidisciplinary support can improve outcomes for populations with chronic conditions.
 

 

 

Reference

1. Lail J, et al. Applying the Chronic Care Model to Improve Care and Outcomes at a Pediatric Medical Center. Joint Commission Journal on Quality and Patient Safety. 2017;43(3):101-112.

FDA approves two new antibiotic tests

Hospitalists have two new FDA-approved tools available to help them make antibiotic treatment decisions.

The first is the expanded use of the Vidas Brahms PCT Assay, intended to be used in the hospital or emergency room. The test uses – for the first time – procalcitonin (PCT), a protein associated with the body’s response to a bacterial infection, as a biomarker that can help hospitalists make antibiotic management decisions in patients with those conditions. The results can help them determine if antibiotic treatment should be started or stopped in patients with lower respiratory tract infections (such as community-acquired pneumonia) and stopped in patients with sepsis.

The FDA has also allowed marketing of the PhenoTest BC Kit. This one is another first, the first test to identify organisms causing bloodstream infections and provide information about the antibiotics to which the organism is likely to respond.

The test can identify bacteria or yeast from a positive blood culture in approximately 1.5 hours (compared with traditional identification and antibiotic susceptibility tests, which can take one to two days). The test can identify 14 different species of bacteria and two species of yeast that cause bloodstream infections. It also provides antibiotic sensitivity information on 18 antibiotics. In addition, the test will identify the presence of two indicators of antibiotic resistance.
 

Quick byte

About a third of adverse events during hospitalizations involve a drug-related harm, resulting in longer hospital stays and increased costs, according to the New York Times. “The Institute of Medicine estimated that there are 400,000 preventable adverse drug events in hospitals each year, costing $3.5 billion. One-fifth of patients discharged from the hospital have a drug-related complication after returning home, many of which are preventable.”

Reference

1 Frakt A. How Many Pills Are Too Many? The New York Times. 2017 Apr 10. https://www.nytimes.com/2017/04/10/upshot/how-many-pills-are-too-many.html?rref=collection%2Fsectioncollection%2Fhealth&action=click&contentCollection=health&region=stream&module=stream_unit&version=latest&contentPlacement=6&pgtype=sectionfront&_r=0. Accessed April 9, 2017.

 

Measuring hospital-acquired infection in a new way

Every day, hospitalists struggle with health care–associated infections, which 1 in 25 patients experiences, according to the Centers for Disease Control and Prevention.

These infections are often discussed in terms of the standardized infection ratio (SIR), but that measure may not assess overall performance, according to a study suggesting a new measure that could help large hospital systems better evaluate their infection outcomes by comparing them with those of their peers.

Dr. Mohamad G. Fakih
The researchers piloted an infection composite score (ICS) in 82 hospitals under a single health system. The ICS is a combined score for central line–associated bloodstream infections, catheter-associated urinary tract infections, colon and abdominal hysterectomy surgical site infections, and hospital-onset methicillin-resistant Staphylococcus aureus bacteremia and Clostridium difficile infections. The researchers calculated individual facility ICS scores and compared them with system scores for baseline and performance.

This gives hospitals a more current picture of how they’re doing, compared with the SIR, said Mohamad G. Fakih, MD, MPH, of Ascension Health, Grosse Pointe Woods, Mich., lead author of the study. “The SIR is a ratio based on a baseline that’s usually a few years prior; it’s not the year directly before. So, when we published this paper, some of the infections had a baseline of 2006 through 2008 for the central line infections.”

Another difference is that the ICS gives the six infections the same weight, rather than combining them. “So, if you add them up together and then you divide by six, you get a score that tells you how you’re doing for infection, compared [with] the whole system. If they have a problem that’s related to many infections, then you know the culture of infection prevention in that hospital is much worse. It’s not just one product. There’s something much more worrisome for that hospital.”

This simple score can be adjusted according to a particular hospital’s needs. “Let’s say you want to focus on additional infections that are publicly reported. You can add them to that score,” Dr. Fakih says. “And you can change the weight in a way depending on what you want to focus on, or, if you want to focus on something more than others, you can increase the weight.”
 

References

1. Centers for Disease Control and Prevention. Healthcare-associated infections. https://www.cdc.gov/hai/surveillance/. Accessed April 10, 2017.

2. Fakih MG, Skierczynski B, Bufalino A, et al. Taking advantage of public reporting: An infection composite score to assist evaluating hospital performance for infection prevention efforts. American Journal of Infection Control. (2016);44(12):1578-81.

Hospitalists lead in palliative care

According to a recent report, hospitalists made nearly half (48%) of all palliative care referrals in hospitals in 2015. The report comes from the Center to Advance Palliative Care and the National Palliative Care Research Center.

“The most important finding from this analysis is the near doubling of the number of people receiving palliative care services in U.S. hospital palliative care programs, from an average of 2.7% in 2009 to an average of 4.8% in 2015,” said Diane Meier, MD, director of the Center to Advance Palliative Care. “This suggests increasing recognition of the benefits of palliative care by health professionals and greater likelihood that those living with serious illness will receive state-of-the-art care.”

The report shows that hospitalists are the No. 1 source of referral to palliative care teams. “They see up close the suffering of their patients and families, their need for comprehensive whole-person care, and the beneficial impact of the added layer of support that palliative care provides,” she said.

“Hospitalists should work alongside their palliative care colleagues to develop standardized screening tools so that all patients and families who could benefit have access to the best quality of care during serious and complex illness,” Dr. Meier said. Hospitalists can also gain skills in communicating about prognosis and conducting family meetings, as well as safe and effective symptom management, through the online clinical training curriculum available at capc.org.
 

Reference

1. National Palliative Care Registry. How We Work: Trends and Insights in Hospital Palliative Care. https://registry.capc.org/wp-content/uploads/2017/02/How-We-Work-Trends-and-Insights-in-Hospital-Palliative-Care-2009-2015.pdf. Accessed April 7, 2017.

Improving outcomes for children with chronic conditions

Cincinnati Children’s Hospital Medical Center improved outcomes for 50% of pediatric patients by redesigning the way it cares for children with active chronic conditions, according to a new study.

The hospital implemented a Condition Outcomes Improvement Initiative, in which specialized clinical teams applied quality improvement principles to improve outcomes for pediatric patients with chronic illnesses.

Each improvement team focused on a specific chronic condition, such as juvenile arthritis, asthma, chronic kidney disease, or sickle cell disease. The improvement processes implemented included reviewing evidence to choose which outcomes to measure, developing condition-specific patient registries and data collection tools, classifying patients into defined risk groups, planning care before and after visits, and providing self-management and caregiver/parent support for patients and their families.

Study lead author Jennifer Lail, MD, FAAP, analyzed data from more than 27,000 pediatric patients from 18 improvement teams. Following implementation of the changes, half of patients had an improved outcome, and 11 of the 18 chronic condition teams achieved the goal of 20% improvement in their chosen clinical outcome, suggesting that clinical teams implementing quality improvement methods with multidisciplinary support can improve outcomes for populations with chronic conditions.
 

 

 

Reference

1. Lail J, et al. Applying the Chronic Care Model to Improve Care and Outcomes at a Pediatric Medical Center. Joint Commission Journal on Quality and Patient Safety. 2017;43(3):101-112.

FDA approves two new antibiotic tests

Hospitalists have two new FDA-approved tools available to help them make antibiotic treatment decisions.

The first is the expanded use of the Vidas Brahms PCT Assay, intended to be used in the hospital or emergency room. The test uses – for the first time – procalcitonin (PCT), a protein associated with the body’s response to a bacterial infection, as a biomarker that can help hospitalists make antibiotic management decisions in patients with those conditions. The results can help them determine if antibiotic treatment should be started or stopped in patients with lower respiratory tract infections (such as community-acquired pneumonia) and stopped in patients with sepsis.

The FDA has also allowed marketing of the PhenoTest BC Kit. This one is another first, the first test to identify organisms causing bloodstream infections and provide information about the antibiotics to which the organism is likely to respond.

The test can identify bacteria or yeast from a positive blood culture in approximately 1.5 hours (compared with traditional identification and antibiotic susceptibility tests, which can take one to two days). The test can identify 14 different species of bacteria and two species of yeast that cause bloodstream infections. It also provides antibiotic sensitivity information on 18 antibiotics. In addition, the test will identify the presence of two indicators of antibiotic resistance.
 

Quick byte

About a third of adverse events during hospitalizations involve a drug-related harm, resulting in longer hospital stays and increased costs, according to the New York Times. “The Institute of Medicine estimated that there are 400,000 preventable adverse drug events in hospitals each year, costing $3.5 billion. One-fifth of patients discharged from the hospital have a drug-related complication after returning home, many of which are preventable.”

Reference

1 Frakt A. How Many Pills Are Too Many? The New York Times. 2017 Apr 10. https://www.nytimes.com/2017/04/10/upshot/how-many-pills-are-too-many.html?rref=collection%2Fsectioncollection%2Fhealth&action=click&contentCollection=health&region=stream&module=stream_unit&version=latest&contentPlacement=6&pgtype=sectionfront&_r=0. Accessed April 9, 2017.

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Many years on metformin linked to anemia risk

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– People with type 2 diabetes who take metformin for many years are more likely to develop anemia than are those who do not, according to the results of a large analysis of data from an observational, population-based study with 20 years of follow-up.

“Metformin treatment was associated with a 6% higher risk of anemia for every cumulative year of metformin exposure,” Louise Donnelly, PhD, and her associates reported in a poster presentation at the annual meeting of the European Association for the Study of Diabetes. 

In an interview, Dr. Donnelly, a postdoctoral research assistant at the University of Dundee (Scotland), explained why they looked at the use of metformin and anemia risk in people with type 2 diabetes.

“The Diabetes Prevention Program (DPP) study showed that long-term metformin use in individuals with impaired glucose tolerance was associated with an increased risk of anemia, and this was independent of vitamin B12 status,” she said (J Clin Endocrinol Metab. 2016;101:1754-61). “Anemia is a common finding in people with type 2 diabetes, but the impact of long-term metformin use on anemia hasn’t been studied.”

Dr. Donnelly and her associates obtained detailed information on metformin prescribing and hematology measures from electronic patient medical records from the Genetics of Diabetes Audit and Research in Tayside and Scotland (GoDARTS) cohort, based in Scotland. This database contains information on individuals with type 2 diabetes and matching controls and is available to researchers worldwide.

For the analysis, the team looked for people diagnosed from 1996 onward who had a baseline hemoglobin measurement. Of 6,440 individuals with type 2 diabetes in the GoDARTS cohort, just over half had a hemoglobin measurement.

“We used a definition of ‘moderate’ anemia and we excluded patients with mild anemia or worse at diabetes diagnosis,” Dr. Donnelly observed. Anemia was considered to be a hemoglobin level of less than 12 g/dL in women and less than 13 g/dL in men. In all, 280 individuals with anemia were excluded from further analysis as the aim was to follow people until they developed anemia, died, left the area, or until the end of the follow-up period, which was set at September 30, 2015. A discrete-time failure analysis was used to model the effect of cumulative metformin exposure on anemia risk.

After a median follow-up of 8 years and a median number of 11 hemoglobin measurements per patient, 2,487 study subjects (71%) had some exposure to metformin and 1,458 of the whole sample (41.8%) had become anemic. Of those who developed anemia, 745 (51%) were current metformin users, 194 (13%) were former users, and 519 (36%) had never taken metformin.

“Cumulative metformin use was independently associated with an increased risk of anemia,” Dr. Donnelly noted (odds ratio [OR], 1.06; 95% confidence interval [CI], 1.02-1.09; P = .0006). This association was not seen when they examined the data based on sulfonylurea use (OR 1.0; 95% CI 0.97-1.04, P = .8), she added.

“Anemia risk was higher with age at diagnosis, duration of diabetes, lower hemoglobin at baseline, and lower eGFR [estimated glomerular filtration rate],” she observed. ORs for first anemia event were 1.03 (95% CI, 1.02-1.04) for every year of increasing age, 1.05 (95% CI, 1.03-1.08) for every additional year since diabetes diagnosis, 0.70 (95% CI, 0.66-0.74) per 1 g/dL of hemoglobin at diagnosis, and eGFR 0.98 (95% CI, 0.98-1.01) per additional 1 mL/min per 1.732 (P less than .0001 for all).

Why cumulative metformin use is associated with an increased of anemia is unclear, however, and Dr. Donnelly noted that this needs further investigation. “We do have data from two other clinical trials now, showing similar results, and maybe through those data we might be able to untangle it.”

The team does not think the anemia is related to B12 deficiency, however, as people who developed anemia while taking metformin were more likely to develop microcytic (12% vs. 7.3%) than macrocytic (7.6% vs. 12.3%), anemia, compared with people with anemia who were not exposed to metformin (P less than .0001).

“In terms of mechanism, we can only conjecture,” Ewan Pearson, MB, senior author of the study and professor of medicine at the University of Dundee, said during a discussion at the poster presentation. “It is important to stress that metformin is a great drug and we shouldn’t stop it because of a potentially increased risk of anemia.”

The Medical Research Council supported the work. Dr. Donnelly reported having no financial disclosures.
 

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– People with type 2 diabetes who take metformin for many years are more likely to develop anemia than are those who do not, according to the results of a large analysis of data from an observational, population-based study with 20 years of follow-up.

“Metformin treatment was associated with a 6% higher risk of anemia for every cumulative year of metformin exposure,” Louise Donnelly, PhD, and her associates reported in a poster presentation at the annual meeting of the European Association for the Study of Diabetes. 

In an interview, Dr. Donnelly, a postdoctoral research assistant at the University of Dundee (Scotland), explained why they looked at the use of metformin and anemia risk in people with type 2 diabetes.

“The Diabetes Prevention Program (DPP) study showed that long-term metformin use in individuals with impaired glucose tolerance was associated with an increased risk of anemia, and this was independent of vitamin B12 status,” she said (J Clin Endocrinol Metab. 2016;101:1754-61). “Anemia is a common finding in people with type 2 diabetes, but the impact of long-term metformin use on anemia hasn’t been studied.”

Dr. Donnelly and her associates obtained detailed information on metformin prescribing and hematology measures from electronic patient medical records from the Genetics of Diabetes Audit and Research in Tayside and Scotland (GoDARTS) cohort, based in Scotland. This database contains information on individuals with type 2 diabetes and matching controls and is available to researchers worldwide.

For the analysis, the team looked for people diagnosed from 1996 onward who had a baseline hemoglobin measurement. Of 6,440 individuals with type 2 diabetes in the GoDARTS cohort, just over half had a hemoglobin measurement.

“We used a definition of ‘moderate’ anemia and we excluded patients with mild anemia or worse at diabetes diagnosis,” Dr. Donnelly observed. Anemia was considered to be a hemoglobin level of less than 12 g/dL in women and less than 13 g/dL in men. In all, 280 individuals with anemia were excluded from further analysis as the aim was to follow people until they developed anemia, died, left the area, or until the end of the follow-up period, which was set at September 30, 2015. A discrete-time failure analysis was used to model the effect of cumulative metformin exposure on anemia risk.

After a median follow-up of 8 years and a median number of 11 hemoglobin measurements per patient, 2,487 study subjects (71%) had some exposure to metformin and 1,458 of the whole sample (41.8%) had become anemic. Of those who developed anemia, 745 (51%) were current metformin users, 194 (13%) were former users, and 519 (36%) had never taken metformin.

“Cumulative metformin use was independently associated with an increased risk of anemia,” Dr. Donnelly noted (odds ratio [OR], 1.06; 95% confidence interval [CI], 1.02-1.09; P = .0006). This association was not seen when they examined the data based on sulfonylurea use (OR 1.0; 95% CI 0.97-1.04, P = .8), she added.

“Anemia risk was higher with age at diagnosis, duration of diabetes, lower hemoglobin at baseline, and lower eGFR [estimated glomerular filtration rate],” she observed. ORs for first anemia event were 1.03 (95% CI, 1.02-1.04) for every year of increasing age, 1.05 (95% CI, 1.03-1.08) for every additional year since diabetes diagnosis, 0.70 (95% CI, 0.66-0.74) per 1 g/dL of hemoglobin at diagnosis, and eGFR 0.98 (95% CI, 0.98-1.01) per additional 1 mL/min per 1.732 (P less than .0001 for all).

Why cumulative metformin use is associated with an increased of anemia is unclear, however, and Dr. Donnelly noted that this needs further investigation. “We do have data from two other clinical trials now, showing similar results, and maybe through those data we might be able to untangle it.”

The team does not think the anemia is related to B12 deficiency, however, as people who developed anemia while taking metformin were more likely to develop microcytic (12% vs. 7.3%) than macrocytic (7.6% vs. 12.3%), anemia, compared with people with anemia who were not exposed to metformin (P less than .0001).

“In terms of mechanism, we can only conjecture,” Ewan Pearson, MB, senior author of the study and professor of medicine at the University of Dundee, said during a discussion at the poster presentation. “It is important to stress that metformin is a great drug and we shouldn’t stop it because of a potentially increased risk of anemia.”

The Medical Research Council supported the work. Dr. Donnelly reported having no financial disclosures.
 

 

– People with type 2 diabetes who take metformin for many years are more likely to develop anemia than are those who do not, according to the results of a large analysis of data from an observational, population-based study with 20 years of follow-up.

“Metformin treatment was associated with a 6% higher risk of anemia for every cumulative year of metformin exposure,” Louise Donnelly, PhD, and her associates reported in a poster presentation at the annual meeting of the European Association for the Study of Diabetes. 

In an interview, Dr. Donnelly, a postdoctoral research assistant at the University of Dundee (Scotland), explained why they looked at the use of metformin and anemia risk in people with type 2 diabetes.

“The Diabetes Prevention Program (DPP) study showed that long-term metformin use in individuals with impaired glucose tolerance was associated with an increased risk of anemia, and this was independent of vitamin B12 status,” she said (J Clin Endocrinol Metab. 2016;101:1754-61). “Anemia is a common finding in people with type 2 diabetes, but the impact of long-term metformin use on anemia hasn’t been studied.”

Dr. Donnelly and her associates obtained detailed information on metformin prescribing and hematology measures from electronic patient medical records from the Genetics of Diabetes Audit and Research in Tayside and Scotland (GoDARTS) cohort, based in Scotland. This database contains information on individuals with type 2 diabetes and matching controls and is available to researchers worldwide.

For the analysis, the team looked for people diagnosed from 1996 onward who had a baseline hemoglobin measurement. Of 6,440 individuals with type 2 diabetes in the GoDARTS cohort, just over half had a hemoglobin measurement.

“We used a definition of ‘moderate’ anemia and we excluded patients with mild anemia or worse at diabetes diagnosis,” Dr. Donnelly observed. Anemia was considered to be a hemoglobin level of less than 12 g/dL in women and less than 13 g/dL in men. In all, 280 individuals with anemia were excluded from further analysis as the aim was to follow people until they developed anemia, died, left the area, or until the end of the follow-up period, which was set at September 30, 2015. A discrete-time failure analysis was used to model the effect of cumulative metformin exposure on anemia risk.

After a median follow-up of 8 years and a median number of 11 hemoglobin measurements per patient, 2,487 study subjects (71%) had some exposure to metformin and 1,458 of the whole sample (41.8%) had become anemic. Of those who developed anemia, 745 (51%) were current metformin users, 194 (13%) were former users, and 519 (36%) had never taken metformin.

“Cumulative metformin use was independently associated with an increased risk of anemia,” Dr. Donnelly noted (odds ratio [OR], 1.06; 95% confidence interval [CI], 1.02-1.09; P = .0006). This association was not seen when they examined the data based on sulfonylurea use (OR 1.0; 95% CI 0.97-1.04, P = .8), she added.

“Anemia risk was higher with age at diagnosis, duration of diabetes, lower hemoglobin at baseline, and lower eGFR [estimated glomerular filtration rate],” she observed. ORs for first anemia event were 1.03 (95% CI, 1.02-1.04) for every year of increasing age, 1.05 (95% CI, 1.03-1.08) for every additional year since diabetes diagnosis, 0.70 (95% CI, 0.66-0.74) per 1 g/dL of hemoglobin at diagnosis, and eGFR 0.98 (95% CI, 0.98-1.01) per additional 1 mL/min per 1.732 (P less than .0001 for all).

Why cumulative metformin use is associated with an increased of anemia is unclear, however, and Dr. Donnelly noted that this needs further investigation. “We do have data from two other clinical trials now, showing similar results, and maybe through those data we might be able to untangle it.”

The team does not think the anemia is related to B12 deficiency, however, as people who developed anemia while taking metformin were more likely to develop microcytic (12% vs. 7.3%) than macrocytic (7.6% vs. 12.3%), anemia, compared with people with anemia who were not exposed to metformin (P less than .0001).

“In terms of mechanism, we can only conjecture,” Ewan Pearson, MB, senior author of the study and professor of medicine at the University of Dundee, said during a discussion at the poster presentation. “It is important to stress that metformin is a great drug and we shouldn’t stop it because of a potentially increased risk of anemia.”

The Medical Research Council supported the work. Dr. Donnelly reported having no financial disclosures.
 

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Key clinical point: Cumulative metformin use was associated with an increased risk for anemia in patients with type 2 diabetes.

Major finding: For every additional year of metformin use, there was a 6% increase in the risk for anemia.

Data source: Data analysis of 3,435 individuals with type 2 diabetes who participated in a large observational, population-based study with almost 20 years of follow-up.

Disclosures: The Medical Research Council supported the work. Dr. Donnelly reported having no financial disclosures.

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VIDEO: When to consider systemic exposure in patients with contact dermatitis

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SAN FRANCISCO– When patients with contact dermatitis who have had a patch test positive to an allergen and are not improving despite avoiding cutaneous exposure, it’s important to consider the possibility of systemic exposure, according to Nina Botto, MD, of the department of dermatology, at the University of California, San Francisco.

“Theoretically, any allergen can cause a systemic contact dermatitis. The ones that we think about and encounter more frequently are earth metals like nickel and balsam of Peru, which is a component of many fragrances and flavorings,” she said in a video interview at the annual meeting of the Pacific Dermatologic Association.

In the interview, Dr. Botto, who is codirector of the Occupational and Contact Dermatitis Clinic at UCSF, provides recommendations on how to approach patients with systemic contact dermatitis, including dietary avoidance. But following these diets can be challenging. She recommends starting with avoiding cutaneous exposure to the suspected allergen. For patients not improving after two months of avoidance, “it may be reasonable to consider a diet,”she advised.

Dr. Botto cited the following two publications with tables and guidelines for diets as helpful resources for patients: Dermatitis. 2013 Jul-Aug;24(4):153-60 (for a diet low in balsam of Peru); and Dermatitis. 2013 Jul-Aug; 24(4):190-5 (for a diet low in nickel).

Another useful resource is the American Contact Dermatitis Society website, which produces a customized list of safe products for patients after they enter the allergen into the system.

Dr. Botto had no disclosures.

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SAN FRANCISCO– When patients with contact dermatitis who have had a patch test positive to an allergen and are not improving despite avoiding cutaneous exposure, it’s important to consider the possibility of systemic exposure, according to Nina Botto, MD, of the department of dermatology, at the University of California, San Francisco.

“Theoretically, any allergen can cause a systemic contact dermatitis. The ones that we think about and encounter more frequently are earth metals like nickel and balsam of Peru, which is a component of many fragrances and flavorings,” she said in a video interview at the annual meeting of the Pacific Dermatologic Association.

In the interview, Dr. Botto, who is codirector of the Occupational and Contact Dermatitis Clinic at UCSF, provides recommendations on how to approach patients with systemic contact dermatitis, including dietary avoidance. But following these diets can be challenging. She recommends starting with avoiding cutaneous exposure to the suspected allergen. For patients not improving after two months of avoidance, “it may be reasonable to consider a diet,”she advised.

Dr. Botto cited the following two publications with tables and guidelines for diets as helpful resources for patients: Dermatitis. 2013 Jul-Aug;24(4):153-60 (for a diet low in balsam of Peru); and Dermatitis. 2013 Jul-Aug; 24(4):190-5 (for a diet low in nickel).

Another useful resource is the American Contact Dermatitis Society website, which produces a customized list of safe products for patients after they enter the allergen into the system.

Dr. Botto had no disclosures.

SAN FRANCISCO– When patients with contact dermatitis who have had a patch test positive to an allergen and are not improving despite avoiding cutaneous exposure, it’s important to consider the possibility of systemic exposure, according to Nina Botto, MD, of the department of dermatology, at the University of California, San Francisco.

“Theoretically, any allergen can cause a systemic contact dermatitis. The ones that we think about and encounter more frequently are earth metals like nickel and balsam of Peru, which is a component of many fragrances and flavorings,” she said in a video interview at the annual meeting of the Pacific Dermatologic Association.

In the interview, Dr. Botto, who is codirector of the Occupational and Contact Dermatitis Clinic at UCSF, provides recommendations on how to approach patients with systemic contact dermatitis, including dietary avoidance. But following these diets can be challenging. She recommends starting with avoiding cutaneous exposure to the suspected allergen. For patients not improving after two months of avoidance, “it may be reasonable to consider a diet,”she advised.

Dr. Botto cited the following two publications with tables and guidelines for diets as helpful resources for patients: Dermatitis. 2013 Jul-Aug;24(4):153-60 (for a diet low in balsam of Peru); and Dermatitis. 2013 Jul-Aug; 24(4):190-5 (for a diet low in nickel).

Another useful resource is the American Contact Dermatitis Society website, which produces a customized list of safe products for patients after they enter the allergen into the system.

Dr. Botto had no disclosures.

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Personal models of illness

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Cognitive reappraisal is a top-down emotional regulation skill associated with resilience – the capacity to adaptively overcome adversity.

A person with this ability, also known as cognitive flexibility or reframing, monitors negative thoughts or situations and intentionally changes the way he or she views them. This reframing can involve retaining a positive outlook, trying to create meaning from a difficult situation, or finding ways to exert control over specific circumstances (Front Behav Neurosci. 2013 Feb 15;7:10). Some individuals cope with their mental illness by creating their own models of their illness (Achieving Cultural Competency: A Case-Based Approach to Training Health Professionals, Hoboken, N.J.: Wiley-Blackwell Publishing, 2009).

Creating a model of illness is a type of reframing to help explain what’s happening to an individual by placing the locus of control either inside our ourselves, adjacent, or far away and uncontrollable. Depending on the model, there might be choice that results in action taken to face the mental illness. Sometimes, there is surrender, either to the illness or the treatment.

Dr. Jacqueline Posada
For me, cognitive reappraisal helps interpret the narrative crafted by both patients and the people in my life to understand their own lives. If we all have 1,000 stories to tell, which ones do we string together to create a cohesive narrative that explains our identity and lives? I listen for these models in stories I hear about mental illness.

In one of my weekly phone conversations with my mother in Texas, she told me that Ricardo, the husband of close family friend, had sunk into a deep depression to the point where he could no longer leave the house for work. Ricardo is an unauthorized immigrant, having crossed the border from Mexico into Texas 17 years ago with his wife and 2-year-old son. He lives a story common to many families in Texas: two undocumented parents working in local businesses, one child with a DACA (Deferred Action for Childhood Arrivals) permit and their second child born in the United States, all assimilated into American culture. With Ricardo’s descent into personal darkness, their American dream was fraying. Family and neighbors were gossiping about what could have happened – had Ricardo gotten into trouble with drugs and alcohol? Perhaps his wife had bewitched him; perhaps this was a godly test that only prayer could overcome.

I called his wife to see if I could offer her help navigating the local mental health system. She recounted a story of severe depression, and, most worryingly, a recent self-aborted hanging. Because of cultural beliefs, stigma of mental illness, and his immigration status, Ricardo would not call the local mental health authority for assessment and treatment.

So I made a trip to Texas to see Ricardo as a friend and psychiatrist, despite not quite knowing how to navigate the moral and legal ambiguity of this situation. I could at least offer a comprehensive psychiatric assessment and provide him with some understanding of his illness to help guide his decisions. My conversation with Ricardo found a man helpless and confused as to how and why he lost all drive, energy, and desire to live. We spoke about his and my understanding of depression. I tried to help Ricardo by shifting his perception of his illness from fear of an unknown specter to the idea that his current state of mind could be attributed to a treatable brain disease.

The trip to Texas was also an opportunity to see my older brother’s newly purchased home. This was a serious achievement, following 2 years where he had lived with our parents to save money for a down payment. He had initially been forced to live at home because of legal consequences related to his struggles with addiction and depression, both backdrops to his life as a devoted math teacher. In the car ride to his new house, he told me about his twice weekly, state-mandated addiction counseling group sessions. He has benefited from the instruction to fill his sober time with positive forces, telling me that he could not have bought his house and started working a second, part-time job without his sobriety.

Yet, he disagrees when the counselor tells his class that addiction is a disease that compromises his free will, and compared to his peers, he has less control over his mind when exposed to alcohol. He says it’s a mixed message – be proactive and take control over a new sober life, but be careful, your brain is too weak and diseased to ever have a healthy relationship with alcohol.

I was affected when he told me that he was afraid to ever drink again; that he cannot trust himself. He is afraid to fail and lose the life he is building for himself. Now he lives in conflict between two models of his illness: the determinism of addiction versus free will to overcome his abusive relationship with alcohol. To overcome this conflict, he has surrendered himself to a self-designed treatment program, working two jobs to fill his days and nights, and guarantee fatigue and sleep by the end of the day. No time to think or drink; just time to work and sleep.

The night before I flew to Texas, I had an overnight call in the emergency department. I encountered a young woman whom I’ll call Laura. She was in her mid 30s with HIV/AIDS with a CD4 count of less than 30, and had not taken medication for her HIV in years. Mostly, she lived in and out of hospitals, both psychiatric and medical wards. I was called to assess her suicidal ideation with a stated plan to slip and fall in her shower in order to hit her head and die. She was cachectic, tired, withdrawn, disheveled, buried under a heap of blankets.

Our interview was an awkward dance around why she could not and would not take medications for either her HIV/AIDS or posttraumatic stress disorder and depression. No money, no transport, intermittently homeless, no desire to live nor a future to live for.

In our conversation, I searched for reasons for Laura to live, and she countered with reasons why it was easier to die. It was a level of apathy I have encountered with other severely ill AIDS patients – the brain is so immunocompromised and muddled, the body so tired, the spirit so damaged. Her three children living with a sister had lost their potency as motivation to desire recovery of her physical and mental health. I doubted the active nature of her suicidality, and her apathy and physical deterioration made me question her ability to act on a plan. Nonetheless, I admitted Laura to the psychiatric unit for safety. Two weeks later, I learned she had died in hospital of AIDS-related sepsis. She had 10 days of treatment on the psychiatric unit with no movement in her depressive symptoms and apathy. Eventually, she physically crashed and was sent to the ICU, where she died.

As psychiatrists, we create our own models of what mental illness and treatments are, and we apply some version of the model to each patient. With the concepts of cultural psychiatry and therapeutic alliance, we learn to work within our patients’ models of disease to enhance their response to treatment. My initial reaction to Laura’s death was surprise, fear, and guilt that maybe I had missed a pressing medical issue that contributed to her death. Then I just felt resigned to her death, probably as she did. She told me in the emergency department she was set on dying, and her actions, well before this last admission, had indirectly ensured an early death. We psychiatrists feel failure when we are unable to prevent a suicide. What was Laura’s death: Was it a suicide by apathy that a psychiatrist could have prevented? Or just an expected complication of an untreated chronic illness? Many residents had done their job by admitting her again and again for either psychiatric or medical illness. Yet none of us could understand why she refused to treat her HIV/AIDS, and none of us was able to address the model she had created of her illness. Her model, that her HIV was a death sentence, was anathema to our training.

Because of that dissonance, it was difficult to understand her narrative, let alone find a way to help her reframe it. Her model of illness was misunderstood by a wide swathe of medical professionals, and together we were unable to tailor a treatment to her needs. Since, I’ve worked to reframe her death in my own mind as a way to better understand models of illness, learning from her as well as from my brother and my friend Ricardo. Both the patient’s and physician’s conceptualization of illness affects prognosis of whether to surrender to a treatment or the illness. As psychiatrists, we must strive to understand all models of illness, so we can plan and implement our treatment intervention accordingly.
 
 

 

I asked my friend from home and my brother for their permission and sent them this piece to make sure they approved. I changed certain details about Ricardo’s story to protect his identity. With my brother, there was no way to change his identity, but he was touched and happy to be included. I also changed key facts about the patient I called Laura.



Dr. Posada is a third-year resident in the psychiatry and behavioral sciences department at George Washington University, Washington. She completed a bachelor’s degree at George Washington University. For 2 years after her undergraduate education, she worked at the National Institutes of Allergy and Infectious Diseases studying HIV pathogenesis. Dr. Posada completed her medical degree at the University of Texas Medical Branch in Galveston. Her interests include public psychiatry, health care policy, and health disparities, and she plans to pursue a fellowship in consult liaison psychiatry.

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Cognitive reappraisal is a top-down emotional regulation skill associated with resilience – the capacity to adaptively overcome adversity.

A person with this ability, also known as cognitive flexibility or reframing, monitors negative thoughts or situations and intentionally changes the way he or she views them. This reframing can involve retaining a positive outlook, trying to create meaning from a difficult situation, or finding ways to exert control over specific circumstances (Front Behav Neurosci. 2013 Feb 15;7:10). Some individuals cope with their mental illness by creating their own models of their illness (Achieving Cultural Competency: A Case-Based Approach to Training Health Professionals, Hoboken, N.J.: Wiley-Blackwell Publishing, 2009).

Creating a model of illness is a type of reframing to help explain what’s happening to an individual by placing the locus of control either inside our ourselves, adjacent, or far away and uncontrollable. Depending on the model, there might be choice that results in action taken to face the mental illness. Sometimes, there is surrender, either to the illness or the treatment.

Dr. Jacqueline Posada
For me, cognitive reappraisal helps interpret the narrative crafted by both patients and the people in my life to understand their own lives. If we all have 1,000 stories to tell, which ones do we string together to create a cohesive narrative that explains our identity and lives? I listen for these models in stories I hear about mental illness.

In one of my weekly phone conversations with my mother in Texas, she told me that Ricardo, the husband of close family friend, had sunk into a deep depression to the point where he could no longer leave the house for work. Ricardo is an unauthorized immigrant, having crossed the border from Mexico into Texas 17 years ago with his wife and 2-year-old son. He lives a story common to many families in Texas: two undocumented parents working in local businesses, one child with a DACA (Deferred Action for Childhood Arrivals) permit and their second child born in the United States, all assimilated into American culture. With Ricardo’s descent into personal darkness, their American dream was fraying. Family and neighbors were gossiping about what could have happened – had Ricardo gotten into trouble with drugs and alcohol? Perhaps his wife had bewitched him; perhaps this was a godly test that only prayer could overcome.

I called his wife to see if I could offer her help navigating the local mental health system. She recounted a story of severe depression, and, most worryingly, a recent self-aborted hanging. Because of cultural beliefs, stigma of mental illness, and his immigration status, Ricardo would not call the local mental health authority for assessment and treatment.

So I made a trip to Texas to see Ricardo as a friend and psychiatrist, despite not quite knowing how to navigate the moral and legal ambiguity of this situation. I could at least offer a comprehensive psychiatric assessment and provide him with some understanding of his illness to help guide his decisions. My conversation with Ricardo found a man helpless and confused as to how and why he lost all drive, energy, and desire to live. We spoke about his and my understanding of depression. I tried to help Ricardo by shifting his perception of his illness from fear of an unknown specter to the idea that his current state of mind could be attributed to a treatable brain disease.

The trip to Texas was also an opportunity to see my older brother’s newly purchased home. This was a serious achievement, following 2 years where he had lived with our parents to save money for a down payment. He had initially been forced to live at home because of legal consequences related to his struggles with addiction and depression, both backdrops to his life as a devoted math teacher. In the car ride to his new house, he told me about his twice weekly, state-mandated addiction counseling group sessions. He has benefited from the instruction to fill his sober time with positive forces, telling me that he could not have bought his house and started working a second, part-time job without his sobriety.

Yet, he disagrees when the counselor tells his class that addiction is a disease that compromises his free will, and compared to his peers, he has less control over his mind when exposed to alcohol. He says it’s a mixed message – be proactive and take control over a new sober life, but be careful, your brain is too weak and diseased to ever have a healthy relationship with alcohol.

I was affected when he told me that he was afraid to ever drink again; that he cannot trust himself. He is afraid to fail and lose the life he is building for himself. Now he lives in conflict between two models of his illness: the determinism of addiction versus free will to overcome his abusive relationship with alcohol. To overcome this conflict, he has surrendered himself to a self-designed treatment program, working two jobs to fill his days and nights, and guarantee fatigue and sleep by the end of the day. No time to think or drink; just time to work and sleep.

The night before I flew to Texas, I had an overnight call in the emergency department. I encountered a young woman whom I’ll call Laura. She was in her mid 30s with HIV/AIDS with a CD4 count of less than 30, and had not taken medication for her HIV in years. Mostly, she lived in and out of hospitals, both psychiatric and medical wards. I was called to assess her suicidal ideation with a stated plan to slip and fall in her shower in order to hit her head and die. She was cachectic, tired, withdrawn, disheveled, buried under a heap of blankets.

Our interview was an awkward dance around why she could not and would not take medications for either her HIV/AIDS or posttraumatic stress disorder and depression. No money, no transport, intermittently homeless, no desire to live nor a future to live for.

In our conversation, I searched for reasons for Laura to live, and she countered with reasons why it was easier to die. It was a level of apathy I have encountered with other severely ill AIDS patients – the brain is so immunocompromised and muddled, the body so tired, the spirit so damaged. Her three children living with a sister had lost their potency as motivation to desire recovery of her physical and mental health. I doubted the active nature of her suicidality, and her apathy and physical deterioration made me question her ability to act on a plan. Nonetheless, I admitted Laura to the psychiatric unit for safety. Two weeks later, I learned she had died in hospital of AIDS-related sepsis. She had 10 days of treatment on the psychiatric unit with no movement in her depressive symptoms and apathy. Eventually, she physically crashed and was sent to the ICU, where she died.

As psychiatrists, we create our own models of what mental illness and treatments are, and we apply some version of the model to each patient. With the concepts of cultural psychiatry and therapeutic alliance, we learn to work within our patients’ models of disease to enhance their response to treatment. My initial reaction to Laura’s death was surprise, fear, and guilt that maybe I had missed a pressing medical issue that contributed to her death. Then I just felt resigned to her death, probably as she did. She told me in the emergency department she was set on dying, and her actions, well before this last admission, had indirectly ensured an early death. We psychiatrists feel failure when we are unable to prevent a suicide. What was Laura’s death: Was it a suicide by apathy that a psychiatrist could have prevented? Or just an expected complication of an untreated chronic illness? Many residents had done their job by admitting her again and again for either psychiatric or medical illness. Yet none of us could understand why she refused to treat her HIV/AIDS, and none of us was able to address the model she had created of her illness. Her model, that her HIV was a death sentence, was anathema to our training.

Because of that dissonance, it was difficult to understand her narrative, let alone find a way to help her reframe it. Her model of illness was misunderstood by a wide swathe of medical professionals, and together we were unable to tailor a treatment to her needs. Since, I’ve worked to reframe her death in my own mind as a way to better understand models of illness, learning from her as well as from my brother and my friend Ricardo. Both the patient’s and physician’s conceptualization of illness affects prognosis of whether to surrender to a treatment or the illness. As psychiatrists, we must strive to understand all models of illness, so we can plan and implement our treatment intervention accordingly.
 
 

 

I asked my friend from home and my brother for their permission and sent them this piece to make sure they approved. I changed certain details about Ricardo’s story to protect his identity. With my brother, there was no way to change his identity, but he was touched and happy to be included. I also changed key facts about the patient I called Laura.



Dr. Posada is a third-year resident in the psychiatry and behavioral sciences department at George Washington University, Washington. She completed a bachelor’s degree at George Washington University. For 2 years after her undergraduate education, she worked at the National Institutes of Allergy and Infectious Diseases studying HIV pathogenesis. Dr. Posada completed her medical degree at the University of Texas Medical Branch in Galveston. Her interests include public psychiatry, health care policy, and health disparities, and she plans to pursue a fellowship in consult liaison psychiatry.

 

Cognitive reappraisal is a top-down emotional regulation skill associated with resilience – the capacity to adaptively overcome adversity.

A person with this ability, also known as cognitive flexibility or reframing, monitors negative thoughts or situations and intentionally changes the way he or she views them. This reframing can involve retaining a positive outlook, trying to create meaning from a difficult situation, or finding ways to exert control over specific circumstances (Front Behav Neurosci. 2013 Feb 15;7:10). Some individuals cope with their mental illness by creating their own models of their illness (Achieving Cultural Competency: A Case-Based Approach to Training Health Professionals, Hoboken, N.J.: Wiley-Blackwell Publishing, 2009).

Creating a model of illness is a type of reframing to help explain what’s happening to an individual by placing the locus of control either inside our ourselves, adjacent, or far away and uncontrollable. Depending on the model, there might be choice that results in action taken to face the mental illness. Sometimes, there is surrender, either to the illness or the treatment.

Dr. Jacqueline Posada
For me, cognitive reappraisal helps interpret the narrative crafted by both patients and the people in my life to understand their own lives. If we all have 1,000 stories to tell, which ones do we string together to create a cohesive narrative that explains our identity and lives? I listen for these models in stories I hear about mental illness.

In one of my weekly phone conversations with my mother in Texas, she told me that Ricardo, the husband of close family friend, had sunk into a deep depression to the point where he could no longer leave the house for work. Ricardo is an unauthorized immigrant, having crossed the border from Mexico into Texas 17 years ago with his wife and 2-year-old son. He lives a story common to many families in Texas: two undocumented parents working in local businesses, one child with a DACA (Deferred Action for Childhood Arrivals) permit and their second child born in the United States, all assimilated into American culture. With Ricardo’s descent into personal darkness, their American dream was fraying. Family and neighbors were gossiping about what could have happened – had Ricardo gotten into trouble with drugs and alcohol? Perhaps his wife had bewitched him; perhaps this was a godly test that only prayer could overcome.

I called his wife to see if I could offer her help navigating the local mental health system. She recounted a story of severe depression, and, most worryingly, a recent self-aborted hanging. Because of cultural beliefs, stigma of mental illness, and his immigration status, Ricardo would not call the local mental health authority for assessment and treatment.

So I made a trip to Texas to see Ricardo as a friend and psychiatrist, despite not quite knowing how to navigate the moral and legal ambiguity of this situation. I could at least offer a comprehensive psychiatric assessment and provide him with some understanding of his illness to help guide his decisions. My conversation with Ricardo found a man helpless and confused as to how and why he lost all drive, energy, and desire to live. We spoke about his and my understanding of depression. I tried to help Ricardo by shifting his perception of his illness from fear of an unknown specter to the idea that his current state of mind could be attributed to a treatable brain disease.

The trip to Texas was also an opportunity to see my older brother’s newly purchased home. This was a serious achievement, following 2 years where he had lived with our parents to save money for a down payment. He had initially been forced to live at home because of legal consequences related to his struggles with addiction and depression, both backdrops to his life as a devoted math teacher. In the car ride to his new house, he told me about his twice weekly, state-mandated addiction counseling group sessions. He has benefited from the instruction to fill his sober time with positive forces, telling me that he could not have bought his house and started working a second, part-time job without his sobriety.

Yet, he disagrees when the counselor tells his class that addiction is a disease that compromises his free will, and compared to his peers, he has less control over his mind when exposed to alcohol. He says it’s a mixed message – be proactive and take control over a new sober life, but be careful, your brain is too weak and diseased to ever have a healthy relationship with alcohol.

I was affected when he told me that he was afraid to ever drink again; that he cannot trust himself. He is afraid to fail and lose the life he is building for himself. Now he lives in conflict between two models of his illness: the determinism of addiction versus free will to overcome his abusive relationship with alcohol. To overcome this conflict, he has surrendered himself to a self-designed treatment program, working two jobs to fill his days and nights, and guarantee fatigue and sleep by the end of the day. No time to think or drink; just time to work and sleep.

The night before I flew to Texas, I had an overnight call in the emergency department. I encountered a young woman whom I’ll call Laura. She was in her mid 30s with HIV/AIDS with a CD4 count of less than 30, and had not taken medication for her HIV in years. Mostly, she lived in and out of hospitals, both psychiatric and medical wards. I was called to assess her suicidal ideation with a stated plan to slip and fall in her shower in order to hit her head and die. She was cachectic, tired, withdrawn, disheveled, buried under a heap of blankets.

Our interview was an awkward dance around why she could not and would not take medications for either her HIV/AIDS or posttraumatic stress disorder and depression. No money, no transport, intermittently homeless, no desire to live nor a future to live for.

In our conversation, I searched for reasons for Laura to live, and she countered with reasons why it was easier to die. It was a level of apathy I have encountered with other severely ill AIDS patients – the brain is so immunocompromised and muddled, the body so tired, the spirit so damaged. Her three children living with a sister had lost their potency as motivation to desire recovery of her physical and mental health. I doubted the active nature of her suicidality, and her apathy and physical deterioration made me question her ability to act on a plan. Nonetheless, I admitted Laura to the psychiatric unit for safety. Two weeks later, I learned she had died in hospital of AIDS-related sepsis. She had 10 days of treatment on the psychiatric unit with no movement in her depressive symptoms and apathy. Eventually, she physically crashed and was sent to the ICU, where she died.

As psychiatrists, we create our own models of what mental illness and treatments are, and we apply some version of the model to each patient. With the concepts of cultural psychiatry and therapeutic alliance, we learn to work within our patients’ models of disease to enhance their response to treatment. My initial reaction to Laura’s death was surprise, fear, and guilt that maybe I had missed a pressing medical issue that contributed to her death. Then I just felt resigned to her death, probably as she did. She told me in the emergency department she was set on dying, and her actions, well before this last admission, had indirectly ensured an early death. We psychiatrists feel failure when we are unable to prevent a suicide. What was Laura’s death: Was it a suicide by apathy that a psychiatrist could have prevented? Or just an expected complication of an untreated chronic illness? Many residents had done their job by admitting her again and again for either psychiatric or medical illness. Yet none of us could understand why she refused to treat her HIV/AIDS, and none of us was able to address the model she had created of her illness. Her model, that her HIV was a death sentence, was anathema to our training.

Because of that dissonance, it was difficult to understand her narrative, let alone find a way to help her reframe it. Her model of illness was misunderstood by a wide swathe of medical professionals, and together we were unable to tailor a treatment to her needs. Since, I’ve worked to reframe her death in my own mind as a way to better understand models of illness, learning from her as well as from my brother and my friend Ricardo. Both the patient’s and physician’s conceptualization of illness affects prognosis of whether to surrender to a treatment or the illness. As psychiatrists, we must strive to understand all models of illness, so we can plan and implement our treatment intervention accordingly.
 
 

 

I asked my friend from home and my brother for their permission and sent them this piece to make sure they approved. I changed certain details about Ricardo’s story to protect his identity. With my brother, there was no way to change his identity, but he was touched and happy to be included. I also changed key facts about the patient I called Laura.



Dr. Posada is a third-year resident in the psychiatry and behavioral sciences department at George Washington University, Washington. She completed a bachelor’s degree at George Washington University. For 2 years after her undergraduate education, she worked at the National Institutes of Allergy and Infectious Diseases studying HIV pathogenesis. Dr. Posada completed her medical degree at the University of Texas Medical Branch in Galveston. Her interests include public psychiatry, health care policy, and health disparities, and she plans to pursue a fellowship in consult liaison psychiatry.

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A Howling Cause of Pancytopenia

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A 15-year-old African American girl presented to the emergency department with 3 days of fever, sore throat, nausea, vomiting, and poor appetite. She reported a 4-week history of fatigue, right hand pain and swelling, and a 6-kilogram weight loss for which she had seen her primary care provider several times. She reported no recent travel, sick contacts, or new medications.

It appears that there are potentially at least 2 separate problems: an acute one (past 3 days) and a more chronic one (past 4 weeks). These 2 problems may be directly related (ie, acute worsening of the more chronic problem), indirectly related (ie, the more chronic problem is leading to increased susceptibility to the acute problem, for instance, an evolving immunodeficiency predisposing to an opportunistic infection), or “true, true, but unrelated.” The clinical challenge is to keep one’s mind open to each of these potential scenarios and to avoid the tendency to focus on one of the problems and not pay enough attention to the other. Occam’s razor likely does not apply here.

Numerous common and typically transient diseases could cause the symptoms of the past 3 days, particularly infectious etiologies such as streptococcal pharyngitis or a viral infection. One cannot forget about these possibilities while contemplating the more worrisome symptoms of the past 4 weeks, especially weight loss in a growing adolescent. Patients may unintentionally lose weight for a variety of reasons, which can be broadly categorized by decreased caloric supply, gastrointestinal losses or malabsorption, and increased caloric demand; these categories are not mutually exclusive.

Lastly, 1 symptom may provide a more specific direction: the right hand pain and swelling of the past 4 weeks. More specifics, including the extent of the hand swelling, other areas of involvement, and the nature of her pain, will be helpful.

Her temperature was 99.5°F, heart rate 100 beats per minute, respiratory rate 18 breaths per minute, oxygen saturation 95% while breathing ambient air, blood pressure 99/56 mmHg, weight 44 kilograms, height 161 centimeters, and body mass index 17. She appeared generally ill and underweight. She had edematous and violaceous eyelids, dry cracked lips, and pharyngeal erythema with ulcerations of the hard palate. She had nontender cervical and inguinal lymphadenopathy. Her abdomen was tender to palpation in the lower quadrants without guarding or rebound; there was no organomegaly. A right knee effusion with overlying warmth was present without redness or decreased range of motion. She also had an enlarged third proximal interphalangeal joint and loss of palpable metacarpal phalangeal joint landmarks on her right hand. She was noted to be using her arms to move her legs when repositioning in bed.

These exam findings clearly point toward a systemic process but not 1 specific diagnosis. The presence of at least 2 inflamed joints points toward rheumatologic/inflammatory or infectious diseases. Localized edema (eyelids and right metacarpal phalangeal joints), oral ulcers, possible myositis, and arthritis point toward a systemic vasculitis (eg, granulomatosis with polyangiitis, Behçet disease). While Kawasaki disease is also a systemic vasculitis, the presence of oral ulcers and generalized lymphadenopathy argues against it. Inflammatory myopathies like polymyositis, and especially juvenile dermatomyositis, fit many aspects of this presentation with the violaceous eyelids and possible myositis, though no other cutaneous stigmata of this disease are evident (eg, no Gottron’s papules). Polyarthritis, violaceous eyelids, and possible myositis could be consistent with systemic lupus erythematosus (SLE).

The presence of oral ulcers and arthritis make other systemic inflammatory conditions, such as inflammatory bowel disease with arthritis and autoimmune- or infection-related hepatitis, possible. Infectious etiologies alone or in combination with a rheumatologic process are also possible given fevers and lymphadenopathy. In particular, herpesvirus infections (Epstein-Barr virus [EBV], cytomegalovirus [CMV], herpes simplex virus, or human herpes virus 6), human immunodeficiency virus (HIV), hepatitis C virus (HCV), and syphilis can cause oral ulcers and lymphadenopathy. Other potential infectious etiologies include subacute bacterial endocarditis and disseminated gonococcal infection given the presence of polyarthritis, but these infections are less likely as they do not explain all of the symptoms.

In summary, the differential diagnosis is broad and should be prioritized to consider systemic inflammatory conditions, including autoimmune and infectious (especially viral) syndromes, and initial work-up should focus on these etiologies.

 

 

The initial laboratory evaluation was notable for pancytopenia with a white count of 1.9 x 109cells/L, absolute neutrophil count of 0.95 x 109/L, absolute lymphocyte count of 0.48 x 109/L, hemoglobin concentration of 10 g/dL, mean corpuscular volume of 78 fL, and platelet count of 4.1 x 109/L (Figure 1). The following infectious studies were sent: hepatitis B virus, HCV, and Parvovirus-B19 serologies, EBV and CMV serologies and polymerase chain reaction studies, HIV antigen and antibody immunoassays, rapid plasma reagin, as well as bacterial blood, urine, and stool cultures. She was started on broad-spectrum antibiotics. The patient’s heart rate and blood pressure normalized after receiving a bolus of 20 mL per kilogram of normal saline.

The pancytopenia is obviously notable. It raises the possibility that the oral ulcerations are due to the neutropenia rather than a primary disease manifestation. Other possible causes of pancytopenia include SLE, antiphospholipid antibody syndrome, and related rheumatologic diagnoses, including hemophagocytic lymphohistiocytosis (HLH). Given her age and subacute presentation, secondary forms of HLH seem more likely than primary (genetic) forms, which typically present within the first few years of life. Secondary forms of HLH can occur in association with rheumatic diseases and are then referred to as Macrophage Activation Syndrome (MAS). The most common rheumatologic diseases associated with MAS are systemic juvenile idiopathic arthritis, SLE, and Kawasaki disease. Secondary HLH can also occur with infectious diseases, particularly viral infections such as EBV. It is also important to consider thrombotic thrombocytopenic purpura and other forms of thrombotic microangiopathy, especially if her violaceous eyelids actually represent purpura. The presence of pancytopenia also expands the differential diagnosis to include leukemia, lymphoma, and other oncologic diseases. After obtaining results from pending infectious disease studies, additional diagnostic work-up should include examination of the bone marrow and a peripheral blood smear to evaluate for hemophagocytosis and/or malignancy. Testing for double-stranded DNA antibodies and antinuclear antibodies (ANA) should be sent to evaluate for SLE, and antiphospholipid antibodies should also be checked. Renal function must also be evaluated.

Additional laboratory work-up revealed a reticulocyte count of 0.2%, a positive Coombs immunoglobulin G (IgG) test, haptoglobin less than 80 mg/L, and lactate dehydrogenase (LDH) 25.2 µkat/L (1509 units/L); coagulation studies were normal. Her chemistries showed electrolytes, blood urea nitrogen, and creatinine were within normal limits; her aspartate aminotransferase was 216 units/L, and alanine aminotransferase was 56 units/L. Her spot urine protein-to-creatinine ratio was 1.28. Complement and inflammatory studies showed C3 0.14 g/L (14 mg/dL, normal 83-151 mg/dL), C4 0.05 g/L (5 mg/dL, normal 13-37 mg/dL), erythrocyte sedimentation rate (ESR) 103 mm/hr (normal 0-20 mm/hr), and C-reactive protein (CRP) 3.2 mg/L (normal 0.7-1.7 mg/L). Additional studies showed elevated triglycerides (376 mg/dL), elevated creatine kinase (2437 units/L), and elevated ferritin (22,295.5 ng/mL). An ANA screen and specific autoantibody studies were sent, including antidouble stranded DNA antibody, antiribonucleoprotein antibody, anti-Smith antibody, anti-Ro antibody, and anti-La antibody. A bone marrow biopsy was performed.

The hematologic studies provide a mixed picture. There is evidence of an autoimmune hemolytic anemia (AIHA). Typically, AIHA is associated with reticulocytosis rather than reticulocytopenia. Reticulocytopenia can occur in AIHA, however, because of antibodies directed against erythroid precursors or if 2 processes are occurring simultaneously—ie, AIHA plus bone marrow destructive/failure process. The latter scenario is more likely here. Specifically, the pancytopenia, elevated triglycerides, and extreme hyperferritinemia strongly support the diagnosis of HLH. The very low C3 and C4 suggest a complement-consumptive process, and SLE is the most likely etiology. Proteinuria and Coombs-positive anemia are also features of SLE. The discordance between the ESR (markedly elevated) and CRP (mild elevation) is surprising in the setting of systemic inflammation. However, her other clinical features are consistent with marked systemic inflammation, and it is important not to dismiss a likely diagnosis simply on the basis of a few incongruous features. At this point, the diagnosis of SLE complicated by secondary HLH is favored, remembering that both these entities can be triggered by a viral infection. Therefore, diligent follow-up of the aforementioned specific autoantibody studies and the bone marrow biopsy is the next logical step, along with the still-pending infectious disease studies.

All of the infectious disease studies returned negative for active infection and were consistent with prior EBV and CMV infections with positive IgG testing. The bone marrow biopsy revealed trilineage hematopoiesis with hemophagocytosis, mild fibrosis, and no blasts (Figure 2). Antibody studies for SLE returned with elevated antidouble stranded DNA antibodies >200,000 IU/L. Reference labs ultimately confirmed the presence of decreased natural killer (NK) cell function, elevated soluble interleukin-2 receptors (IL-2R), and elevated soluble cluster of differentiation 163 (CD163).

These findings are consistent with the diagnosis of SLE complicated by secondary HLH (ie, MAS). It remains possible, but unlikely, that the patient has genetic or familial HLH (fHLH), as this entity is exceedingly rare with distinct underlying genetic aberrations separate from SLE. Ideally, the NK cell function studies would be repeated after the current episode of HLH is controlled and the patient is off of immunosuppressive therapies, but this will likely not be possible given the underlying SLE. Patients with fHLH have reduced or absent NK cell function at baseline (ie, not only during an acute episode of HLH and not because of immunosuppressive medications). Alternatively, one could consider genetic testing for fHLH. The clinical importance of doing this is that patients with fHLH are candidates for bone marrow or stem cell transplantation. There currently is not a published standard of care for the work-up and management of MAS in children with rheumatic disease, so the decision to repeat NK cell function testing and/or genetic testing would be left to the discretion of the treating physician and would depend on the patient’s ongoing clinical course.

The patient required red blood cell and platelet transfusions. She received pulse dose intravenous methylprednisolone for treatment of SLE and MAS; she clinically improved within 48 hours of starting steroids. Cyclosporine was added for management of MAS. The patient was transitioned to oral corticosteroids and discharged home. All cell counts normalized within 1 month of discharge. She was weaned off corticosteroids and cyclosporine was discontinued. Her maintenance SLE therapy includes hydroxychloroquine and mycophenolate mofetil.

 

 

COMMENTARY

Because the differential diagnosis for new-onset pancytopenia encompasses many diseases across several medical subspecialties, a thorough history and physical exam are necessary to form a tailored clinical approach.1 The primary causes of pediatric pancytopenia vary depending on geographic location because of the local prevalence of infectious agents and nutritional deficiency patterns. A retrospective study investigating the primary cause of pancytopenia in children without existing malignancy presenting to a US tertiary care hospital found that 64% of cases were due to infection, 28% were due to hematologic disease (most frequently aplastic anemia), and 8% were due to miscellaneous etiologies, including adverse drug reactions and autoimmune diseases.2 In contrast, the most common cause of pancytopenia in pediatric patients presenting to a tertiary care hospital in India was megaloblastic anemia (28%), followed by infections (21%), acute leukemia (21%), and aplastic anemia (20%).3 While clinicians do (and should) consider malignancy as a cause of pancytopenia, there is sparse literature regarding the frequency of pancytopenia associated with the presentations of childhood malignancies.4 A study of pediatric patients with acute lymphoblastic anemia found that only 11% of newly diagnosed patients had pancytopenia at initial presentation.4

There are no official guidelines for the work-up of pediatric pancytopenia from any of the academic societies. Depending on the clinical history, initial laboratory investigation for pediatric pancytopenia may include complete blood cell count with differential, reticulocyte count, peripheral blood smear, complete metabolic panel, hemolysis labs (haptoglobin, LDH, Coombs test) and inflammatory markers (ESR, CRP, fibrinogen). Further investigation to clarify the specific etiology of pancytopenia can be guided by the results of these initial tests.

SLE is an autoimmune disorder characterized by chronic inflammation of multiple organ systems. The name “lupus” (Latin for wolf) became widely used by dermatologists in the 1800s before systemic involvement was realized to describe the destructive facial lesions thought by some to resemble a wolf bite.5 The American College of Rheumatology (ACR) classification criteria6 and/or the Systemic Lupus International Collaborating Clinics classification criteria7 are often used to help make the diagnosis. The ACR criteria are summarized in the Table; an individual is considered to have SLE if 4 or more of the 11 clinical criteria are present.6 In children, the most common presenting symptoms of SLE are fever, fatigue, weight loss, rash, arthritis, and renal disease.8 Children with SLE tend to have a more severe phenotype with greater involvement of major organ systems and more rapid accrual of organ damage than adults with SLE, emphasizing the importance of early diagnosis and treatment in this population.9 As such, severe presenting symptoms may require initiation of immunosuppressive therapies before the patient fully meets diagnostic criteria, provided malignancy and infection can be excluded.

Hematologic abnormalities are present in greater than 70% of pediatric SLE cases.10,11 The pathogenesis of hematologic abnormalities in SLE is heterogeneous, involving actions of autoreactive lymphocytes, autoantibodies, and proinflammatory cytokines that can disrupt bone marrow production and cause peripheral blood cell destruction.12,13 While pancytopenia is common in children with SLE, other coexisting diagnoses should be considered in patients with SLE and pancytopenia. Concurrent diagnoses that can lead to pancytopenia in patients with SLE include infection, pharmacologic side effects, and secondary HLH,14,15 each of which has differing implications for prognosis and treatment.

Secondary HLH is a severe and often acute complication of systemic inflammatory disorders caused by the proliferation and activation of T cells and macrophages, leading to an enhanced inflammatory state. When HLH occurs in the setting of an underlying autoimmune or autoinflammatory process, it is typically termed MAS. MAS affects an estimated 0.9% to 4.6% of patients with SLE.16 Early diagnosis and treatment of MAS is important because MAS can be rapidly fatal, with a mortality rate of 8% to 20% in pediatric patients.17,18 Clinical features of MAS include physical exam findings of fever and splenomegaly as well as laboratory abnormalities, including pancytopenia, elevated ferritin, elevated triglycerides, and low fibrinogen.18 A bone marrow biopsy showing hemophagocytosis in the absence of malignancy is diagnostic of MAS. Although a bone marrow biopsy is not required to diagnose MAS, it is often obtained to exclude other etiologies of pancytopenia such as malignancy.19 Specialized diagnostic testing for MAS includes NK cell counts and functional studies, including expression of perforin and granzyme B (NK cell proteins triggering apoptosis in target cells), soluble IL-2R (marker of activated lymphocytes), and CD163 (transmembrane protein of hemophagocytic macrophages). There is no standardized protocol for treating MAS.20 It is most commonly treated with highdose corticosteroids; additional agents, including cyclosporine and biologic therapies, are also utilized.16,20

 

 

KEY POINTS

  • Children with SLE tend to have greater involvement of major organ systems and more rapid accrual of organ damage than adults with SLE. Therefore, it is sometimes necessary to initiate immunosuppressive therapies before full diagnostic criteria are met, provided that malignancy and infection have been ruled out.
  • While pancytopenia is common in pediatric patients with SLE, providers should make sure to consider coexisting diagnoses such as infection and MAS, both of which require different treatment strategies.
  • It is important to consider HLH/MAS early in the work-up of pancytopenia, because early diagnosis and treatment improves clinical outcomes. Obtaining a ferritin level can aid in the work-up of pancytopenia because it is both a sensitive and specific marker of HLH/MAS when dramatically elevated.

Disclosure

 The authors report no conflicts of interest.

References

1. Weinzierl EP, Arber DA. The Differential Diagnosis and Bone Marrow Evaluation of New-Onset Pancytopenia. Am J Clin Pathol. 2012;139(1):9-29. doi:10.1309/AJCP50AEEYGREWUZ. PubMed
2. Pine M, Walter AW. Pancytopenia in hospitalized children: a five-year review. J Pediatr Hematol Oncol. 2010;32(5):e192-e194. doi:10.1097/MPH.0b013e3181e03082. PubMed
3. Bhatnagar SK. Pancytopenia in Children: Etiological Profile. J Trop Pediatr. 2005;51(4):236-239. doi:10.1093/tropej/fmi010. PubMed
4. Kulkarni KP, Marwaha RK. Acute lymphoblastic leukemia with pancytopenia at presentation: clinical correlates, prognostic impact, and association with survival. J Pediatr Hematol Oncol. 2013;35(7):573-576. doi:10.1097/MPH.0b013e31829d46f3. PubMed
5. Holubar, K. Terminology and iconography of lupus erythematosus: A historical vignette. Am J Dermatopathol. 1980;2(3):239-242. PubMed
6. Hochberg MC. Updating the American College of Rheumatology revised criteria for the classification of systemic lupus erythematosus. Arthritis Rheum. 1997;40(9):1725. doi: 10.1002/art.1780400928. PubMed
7. Petri M, Orbai, A, Alarcon GS, et al. Derivation and validation of the Systemic Lupus International Collaborating Clinics classification criteria for systemic lupus erythematosus. Arthritis Rheum. 2012;64(8):2677-2686. doi:10.1002/art.34473. PubMed
8. Tucker L. Review: Making the diagnosis of systemic lupus erythematosus in children and adolescents. Lupus. 2007;16(8):546-549. doi:10.1177/0961203307078068. PubMed
9. Brunner HI, Gladman DD, Ibañez D, Urowitz MD, Silverman ED. Difference in disease features between childhood-onset and adult-onset systemic lupus erythematosus. Arthritis Rheum. 2008;58(2):556-562. doi:10.1002/art.23204. PubMed
10. Benseler SM, Silverman ED. Systemic Lupus Erythematosus. Rheum Dis Clin North Am. 2007;33(3):471-498. doi:10.1016/j.rdc.2007.07.008. PubMed
11. Gokce M, Bilginer Y, Besbas N, et al. Hematological features of pediatric systemic lupus erythematosus: suggesting management strategies in children. Lupus. 2012;21(8):878-884. doi:10.1177/0961203312443721. PubMed
12. Voulgarelis M, Giannouli S, Tasidou A, Anagnostou D, Ziakas PD, Tzioufas AG. Bone marrow histological findings in systemic lupus erythematosus with hematologic abnormalities: A clinicopathological study. Am J Hematol. 2006;81(8):590-597. doi:10.1002/ajh.20593. PubMed
13. Pereira RM, Velloso ER, Menezes Y, Gualandro S, Vassalo J, Yoshinari NH. Bone marrow findings in systemic lupus erythematosus patients with peripheral cytopenias. Clin Rheumatol. 1998;17(3):219-222. PubMed
14. Avčin T, Tse SML, Schneider R, Ngan B, Silverman ED. Macrophage activation syndrome as the presenting manifestation of rheumatic diseases in childhood. J Pediatr. 2006;148(5):683-686. doi:10.1016/j.jpeds.2005.12.070. PubMed
15. Lambotte O, Khellaf M, Harmouche H, et al. Characteristics and Long-Term Outcome of 15 Episodes of Systemic Lupus Erythematosus-Associated Hemophagocytic Syndrome. Medicine. 2006;85(3):169-182. doi:10.1097/01.md.0000224708.62510.d1. PubMed
16. Fukaya S, Yasuda S, Hashimoto T, et al. Clinical features of haemophagocytic syndrome in patients with systemic autoimmune diseases: analysis of 30 cases. Rheumatology. 2008;47(11):1686-1691. doi:10.1093/rheumatology/ken342. PubMed
17. Stephan JL. Reactive haemophagocytic syndrome in children with inflammatory disorders. A retrospective study of 24 patients. Rheumatology. 2001;40(11):1285-1292. doi:10.1093/rheumatology/40.11.1285. PubMed
18. Sawhney S, Woo P, Murray KJ. Macrophage activation syndrome: a potentially fatal complication of rheumatic disorders. Arch Dis Child. 2001;85(5):421-426. PubMed
19. Henter JI, Horne A, Aricó M, et al. HLH-2004: Diagnostic and therapeutic guidelines for hemophagocytic lymphohistiocytosis. Pediatr Blood Cancer. 2007;48(2):124-131.  doi:10.1002/pbc.21039. PubMed
20. Lin CI, Yu HH, Lee JH, et al. Clinical analysis of macrophage activation syndrome in pediatric patients with autoimmune diseases. Clin Rheumatol. 2012;31(8):1223-1230. doi:10.1007/s10067-012-1998-0. PubMed

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A 15-year-old African American girl presented to the emergency department with 3 days of fever, sore throat, nausea, vomiting, and poor appetite. She reported a 4-week history of fatigue, right hand pain and swelling, and a 6-kilogram weight loss for which she had seen her primary care provider several times. She reported no recent travel, sick contacts, or new medications.

It appears that there are potentially at least 2 separate problems: an acute one (past 3 days) and a more chronic one (past 4 weeks). These 2 problems may be directly related (ie, acute worsening of the more chronic problem), indirectly related (ie, the more chronic problem is leading to increased susceptibility to the acute problem, for instance, an evolving immunodeficiency predisposing to an opportunistic infection), or “true, true, but unrelated.” The clinical challenge is to keep one’s mind open to each of these potential scenarios and to avoid the tendency to focus on one of the problems and not pay enough attention to the other. Occam’s razor likely does not apply here.

Numerous common and typically transient diseases could cause the symptoms of the past 3 days, particularly infectious etiologies such as streptococcal pharyngitis or a viral infection. One cannot forget about these possibilities while contemplating the more worrisome symptoms of the past 4 weeks, especially weight loss in a growing adolescent. Patients may unintentionally lose weight for a variety of reasons, which can be broadly categorized by decreased caloric supply, gastrointestinal losses or malabsorption, and increased caloric demand; these categories are not mutually exclusive.

Lastly, 1 symptom may provide a more specific direction: the right hand pain and swelling of the past 4 weeks. More specifics, including the extent of the hand swelling, other areas of involvement, and the nature of her pain, will be helpful.

Her temperature was 99.5°F, heart rate 100 beats per minute, respiratory rate 18 breaths per minute, oxygen saturation 95% while breathing ambient air, blood pressure 99/56 mmHg, weight 44 kilograms, height 161 centimeters, and body mass index 17. She appeared generally ill and underweight. She had edematous and violaceous eyelids, dry cracked lips, and pharyngeal erythema with ulcerations of the hard palate. She had nontender cervical and inguinal lymphadenopathy. Her abdomen was tender to palpation in the lower quadrants without guarding or rebound; there was no organomegaly. A right knee effusion with overlying warmth was present without redness or decreased range of motion. She also had an enlarged third proximal interphalangeal joint and loss of palpable metacarpal phalangeal joint landmarks on her right hand. She was noted to be using her arms to move her legs when repositioning in bed.

These exam findings clearly point toward a systemic process but not 1 specific diagnosis. The presence of at least 2 inflamed joints points toward rheumatologic/inflammatory or infectious diseases. Localized edema (eyelids and right metacarpal phalangeal joints), oral ulcers, possible myositis, and arthritis point toward a systemic vasculitis (eg, granulomatosis with polyangiitis, Behçet disease). While Kawasaki disease is also a systemic vasculitis, the presence of oral ulcers and generalized lymphadenopathy argues against it. Inflammatory myopathies like polymyositis, and especially juvenile dermatomyositis, fit many aspects of this presentation with the violaceous eyelids and possible myositis, though no other cutaneous stigmata of this disease are evident (eg, no Gottron’s papules). Polyarthritis, violaceous eyelids, and possible myositis could be consistent with systemic lupus erythematosus (SLE).

The presence of oral ulcers and arthritis make other systemic inflammatory conditions, such as inflammatory bowel disease with arthritis and autoimmune- or infection-related hepatitis, possible. Infectious etiologies alone or in combination with a rheumatologic process are also possible given fevers and lymphadenopathy. In particular, herpesvirus infections (Epstein-Barr virus [EBV], cytomegalovirus [CMV], herpes simplex virus, or human herpes virus 6), human immunodeficiency virus (HIV), hepatitis C virus (HCV), and syphilis can cause oral ulcers and lymphadenopathy. Other potential infectious etiologies include subacute bacterial endocarditis and disseminated gonococcal infection given the presence of polyarthritis, but these infections are less likely as they do not explain all of the symptoms.

In summary, the differential diagnosis is broad and should be prioritized to consider systemic inflammatory conditions, including autoimmune and infectious (especially viral) syndromes, and initial work-up should focus on these etiologies.

 

 

The initial laboratory evaluation was notable for pancytopenia with a white count of 1.9 x 109cells/L, absolute neutrophil count of 0.95 x 109/L, absolute lymphocyte count of 0.48 x 109/L, hemoglobin concentration of 10 g/dL, mean corpuscular volume of 78 fL, and platelet count of 4.1 x 109/L (Figure 1). The following infectious studies were sent: hepatitis B virus, HCV, and Parvovirus-B19 serologies, EBV and CMV serologies and polymerase chain reaction studies, HIV antigen and antibody immunoassays, rapid plasma reagin, as well as bacterial blood, urine, and stool cultures. She was started on broad-spectrum antibiotics. The patient’s heart rate and blood pressure normalized after receiving a bolus of 20 mL per kilogram of normal saline.

The pancytopenia is obviously notable. It raises the possibility that the oral ulcerations are due to the neutropenia rather than a primary disease manifestation. Other possible causes of pancytopenia include SLE, antiphospholipid antibody syndrome, and related rheumatologic diagnoses, including hemophagocytic lymphohistiocytosis (HLH). Given her age and subacute presentation, secondary forms of HLH seem more likely than primary (genetic) forms, which typically present within the first few years of life. Secondary forms of HLH can occur in association with rheumatic diseases and are then referred to as Macrophage Activation Syndrome (MAS). The most common rheumatologic diseases associated with MAS are systemic juvenile idiopathic arthritis, SLE, and Kawasaki disease. Secondary HLH can also occur with infectious diseases, particularly viral infections such as EBV. It is also important to consider thrombotic thrombocytopenic purpura and other forms of thrombotic microangiopathy, especially if her violaceous eyelids actually represent purpura. The presence of pancytopenia also expands the differential diagnosis to include leukemia, lymphoma, and other oncologic diseases. After obtaining results from pending infectious disease studies, additional diagnostic work-up should include examination of the bone marrow and a peripheral blood smear to evaluate for hemophagocytosis and/or malignancy. Testing for double-stranded DNA antibodies and antinuclear antibodies (ANA) should be sent to evaluate for SLE, and antiphospholipid antibodies should also be checked. Renal function must also be evaluated.

Additional laboratory work-up revealed a reticulocyte count of 0.2%, a positive Coombs immunoglobulin G (IgG) test, haptoglobin less than 80 mg/L, and lactate dehydrogenase (LDH) 25.2 µkat/L (1509 units/L); coagulation studies were normal. Her chemistries showed electrolytes, blood urea nitrogen, and creatinine were within normal limits; her aspartate aminotransferase was 216 units/L, and alanine aminotransferase was 56 units/L. Her spot urine protein-to-creatinine ratio was 1.28. Complement and inflammatory studies showed C3 0.14 g/L (14 mg/dL, normal 83-151 mg/dL), C4 0.05 g/L (5 mg/dL, normal 13-37 mg/dL), erythrocyte sedimentation rate (ESR) 103 mm/hr (normal 0-20 mm/hr), and C-reactive protein (CRP) 3.2 mg/L (normal 0.7-1.7 mg/L). Additional studies showed elevated triglycerides (376 mg/dL), elevated creatine kinase (2437 units/L), and elevated ferritin (22,295.5 ng/mL). An ANA screen and specific autoantibody studies were sent, including antidouble stranded DNA antibody, antiribonucleoprotein antibody, anti-Smith antibody, anti-Ro antibody, and anti-La antibody. A bone marrow biopsy was performed.

The hematologic studies provide a mixed picture. There is evidence of an autoimmune hemolytic anemia (AIHA). Typically, AIHA is associated with reticulocytosis rather than reticulocytopenia. Reticulocytopenia can occur in AIHA, however, because of antibodies directed against erythroid precursors or if 2 processes are occurring simultaneously—ie, AIHA plus bone marrow destructive/failure process. The latter scenario is more likely here. Specifically, the pancytopenia, elevated triglycerides, and extreme hyperferritinemia strongly support the diagnosis of HLH. The very low C3 and C4 suggest a complement-consumptive process, and SLE is the most likely etiology. Proteinuria and Coombs-positive anemia are also features of SLE. The discordance between the ESR (markedly elevated) and CRP (mild elevation) is surprising in the setting of systemic inflammation. However, her other clinical features are consistent with marked systemic inflammation, and it is important not to dismiss a likely diagnosis simply on the basis of a few incongruous features. At this point, the diagnosis of SLE complicated by secondary HLH is favored, remembering that both these entities can be triggered by a viral infection. Therefore, diligent follow-up of the aforementioned specific autoantibody studies and the bone marrow biopsy is the next logical step, along with the still-pending infectious disease studies.

All of the infectious disease studies returned negative for active infection and were consistent with prior EBV and CMV infections with positive IgG testing. The bone marrow biopsy revealed trilineage hematopoiesis with hemophagocytosis, mild fibrosis, and no blasts (Figure 2). Antibody studies for SLE returned with elevated antidouble stranded DNA antibodies >200,000 IU/L. Reference labs ultimately confirmed the presence of decreased natural killer (NK) cell function, elevated soluble interleukin-2 receptors (IL-2R), and elevated soluble cluster of differentiation 163 (CD163).

These findings are consistent with the diagnosis of SLE complicated by secondary HLH (ie, MAS). It remains possible, but unlikely, that the patient has genetic or familial HLH (fHLH), as this entity is exceedingly rare with distinct underlying genetic aberrations separate from SLE. Ideally, the NK cell function studies would be repeated after the current episode of HLH is controlled and the patient is off of immunosuppressive therapies, but this will likely not be possible given the underlying SLE. Patients with fHLH have reduced or absent NK cell function at baseline (ie, not only during an acute episode of HLH and not because of immunosuppressive medications). Alternatively, one could consider genetic testing for fHLH. The clinical importance of doing this is that patients with fHLH are candidates for bone marrow or stem cell transplantation. There currently is not a published standard of care for the work-up and management of MAS in children with rheumatic disease, so the decision to repeat NK cell function testing and/or genetic testing would be left to the discretion of the treating physician and would depend on the patient’s ongoing clinical course.

The patient required red blood cell and platelet transfusions. She received pulse dose intravenous methylprednisolone for treatment of SLE and MAS; she clinically improved within 48 hours of starting steroids. Cyclosporine was added for management of MAS. The patient was transitioned to oral corticosteroids and discharged home. All cell counts normalized within 1 month of discharge. She was weaned off corticosteroids and cyclosporine was discontinued. Her maintenance SLE therapy includes hydroxychloroquine and mycophenolate mofetil.

 

 

COMMENTARY

Because the differential diagnosis for new-onset pancytopenia encompasses many diseases across several medical subspecialties, a thorough history and physical exam are necessary to form a tailored clinical approach.1 The primary causes of pediatric pancytopenia vary depending on geographic location because of the local prevalence of infectious agents and nutritional deficiency patterns. A retrospective study investigating the primary cause of pancytopenia in children without existing malignancy presenting to a US tertiary care hospital found that 64% of cases were due to infection, 28% were due to hematologic disease (most frequently aplastic anemia), and 8% were due to miscellaneous etiologies, including adverse drug reactions and autoimmune diseases.2 In contrast, the most common cause of pancytopenia in pediatric patients presenting to a tertiary care hospital in India was megaloblastic anemia (28%), followed by infections (21%), acute leukemia (21%), and aplastic anemia (20%).3 While clinicians do (and should) consider malignancy as a cause of pancytopenia, there is sparse literature regarding the frequency of pancytopenia associated with the presentations of childhood malignancies.4 A study of pediatric patients with acute lymphoblastic anemia found that only 11% of newly diagnosed patients had pancytopenia at initial presentation.4

There are no official guidelines for the work-up of pediatric pancytopenia from any of the academic societies. Depending on the clinical history, initial laboratory investigation for pediatric pancytopenia may include complete blood cell count with differential, reticulocyte count, peripheral blood smear, complete metabolic panel, hemolysis labs (haptoglobin, LDH, Coombs test) and inflammatory markers (ESR, CRP, fibrinogen). Further investigation to clarify the specific etiology of pancytopenia can be guided by the results of these initial tests.

SLE is an autoimmune disorder characterized by chronic inflammation of multiple organ systems. The name “lupus” (Latin for wolf) became widely used by dermatologists in the 1800s before systemic involvement was realized to describe the destructive facial lesions thought by some to resemble a wolf bite.5 The American College of Rheumatology (ACR) classification criteria6 and/or the Systemic Lupus International Collaborating Clinics classification criteria7 are often used to help make the diagnosis. The ACR criteria are summarized in the Table; an individual is considered to have SLE if 4 or more of the 11 clinical criteria are present.6 In children, the most common presenting symptoms of SLE are fever, fatigue, weight loss, rash, arthritis, and renal disease.8 Children with SLE tend to have a more severe phenotype with greater involvement of major organ systems and more rapid accrual of organ damage than adults with SLE, emphasizing the importance of early diagnosis and treatment in this population.9 As such, severe presenting symptoms may require initiation of immunosuppressive therapies before the patient fully meets diagnostic criteria, provided malignancy and infection can be excluded.

Hematologic abnormalities are present in greater than 70% of pediatric SLE cases.10,11 The pathogenesis of hematologic abnormalities in SLE is heterogeneous, involving actions of autoreactive lymphocytes, autoantibodies, and proinflammatory cytokines that can disrupt bone marrow production and cause peripheral blood cell destruction.12,13 While pancytopenia is common in children with SLE, other coexisting diagnoses should be considered in patients with SLE and pancytopenia. Concurrent diagnoses that can lead to pancytopenia in patients with SLE include infection, pharmacologic side effects, and secondary HLH,14,15 each of which has differing implications for prognosis and treatment.

Secondary HLH is a severe and often acute complication of systemic inflammatory disorders caused by the proliferation and activation of T cells and macrophages, leading to an enhanced inflammatory state. When HLH occurs in the setting of an underlying autoimmune or autoinflammatory process, it is typically termed MAS. MAS affects an estimated 0.9% to 4.6% of patients with SLE.16 Early diagnosis and treatment of MAS is important because MAS can be rapidly fatal, with a mortality rate of 8% to 20% in pediatric patients.17,18 Clinical features of MAS include physical exam findings of fever and splenomegaly as well as laboratory abnormalities, including pancytopenia, elevated ferritin, elevated triglycerides, and low fibrinogen.18 A bone marrow biopsy showing hemophagocytosis in the absence of malignancy is diagnostic of MAS. Although a bone marrow biopsy is not required to diagnose MAS, it is often obtained to exclude other etiologies of pancytopenia such as malignancy.19 Specialized diagnostic testing for MAS includes NK cell counts and functional studies, including expression of perforin and granzyme B (NK cell proteins triggering apoptosis in target cells), soluble IL-2R (marker of activated lymphocytes), and CD163 (transmembrane protein of hemophagocytic macrophages). There is no standardized protocol for treating MAS.20 It is most commonly treated with highdose corticosteroids; additional agents, including cyclosporine and biologic therapies, are also utilized.16,20

 

 

KEY POINTS

  • Children with SLE tend to have greater involvement of major organ systems and more rapid accrual of organ damage than adults with SLE. Therefore, it is sometimes necessary to initiate immunosuppressive therapies before full diagnostic criteria are met, provided that malignancy and infection have been ruled out.
  • While pancytopenia is common in pediatric patients with SLE, providers should make sure to consider coexisting diagnoses such as infection and MAS, both of which require different treatment strategies.
  • It is important to consider HLH/MAS early in the work-up of pancytopenia, because early diagnosis and treatment improves clinical outcomes. Obtaining a ferritin level can aid in the work-up of pancytopenia because it is both a sensitive and specific marker of HLH/MAS when dramatically elevated.

Disclosure

 The authors report no conflicts of interest.

A 15-year-old African American girl presented to the emergency department with 3 days of fever, sore throat, nausea, vomiting, and poor appetite. She reported a 4-week history of fatigue, right hand pain and swelling, and a 6-kilogram weight loss for which she had seen her primary care provider several times. She reported no recent travel, sick contacts, or new medications.

It appears that there are potentially at least 2 separate problems: an acute one (past 3 days) and a more chronic one (past 4 weeks). These 2 problems may be directly related (ie, acute worsening of the more chronic problem), indirectly related (ie, the more chronic problem is leading to increased susceptibility to the acute problem, for instance, an evolving immunodeficiency predisposing to an opportunistic infection), or “true, true, but unrelated.” The clinical challenge is to keep one’s mind open to each of these potential scenarios and to avoid the tendency to focus on one of the problems and not pay enough attention to the other. Occam’s razor likely does not apply here.

Numerous common and typically transient diseases could cause the symptoms of the past 3 days, particularly infectious etiologies such as streptococcal pharyngitis or a viral infection. One cannot forget about these possibilities while contemplating the more worrisome symptoms of the past 4 weeks, especially weight loss in a growing adolescent. Patients may unintentionally lose weight for a variety of reasons, which can be broadly categorized by decreased caloric supply, gastrointestinal losses or malabsorption, and increased caloric demand; these categories are not mutually exclusive.

Lastly, 1 symptom may provide a more specific direction: the right hand pain and swelling of the past 4 weeks. More specifics, including the extent of the hand swelling, other areas of involvement, and the nature of her pain, will be helpful.

Her temperature was 99.5°F, heart rate 100 beats per minute, respiratory rate 18 breaths per minute, oxygen saturation 95% while breathing ambient air, blood pressure 99/56 mmHg, weight 44 kilograms, height 161 centimeters, and body mass index 17. She appeared generally ill and underweight. She had edematous and violaceous eyelids, dry cracked lips, and pharyngeal erythema with ulcerations of the hard palate. She had nontender cervical and inguinal lymphadenopathy. Her abdomen was tender to palpation in the lower quadrants without guarding or rebound; there was no organomegaly. A right knee effusion with overlying warmth was present without redness or decreased range of motion. She also had an enlarged third proximal interphalangeal joint and loss of palpable metacarpal phalangeal joint landmarks on her right hand. She was noted to be using her arms to move her legs when repositioning in bed.

These exam findings clearly point toward a systemic process but not 1 specific diagnosis. The presence of at least 2 inflamed joints points toward rheumatologic/inflammatory or infectious diseases. Localized edema (eyelids and right metacarpal phalangeal joints), oral ulcers, possible myositis, and arthritis point toward a systemic vasculitis (eg, granulomatosis with polyangiitis, Behçet disease). While Kawasaki disease is also a systemic vasculitis, the presence of oral ulcers and generalized lymphadenopathy argues against it. Inflammatory myopathies like polymyositis, and especially juvenile dermatomyositis, fit many aspects of this presentation with the violaceous eyelids and possible myositis, though no other cutaneous stigmata of this disease are evident (eg, no Gottron’s papules). Polyarthritis, violaceous eyelids, and possible myositis could be consistent with systemic lupus erythematosus (SLE).

The presence of oral ulcers and arthritis make other systemic inflammatory conditions, such as inflammatory bowel disease with arthritis and autoimmune- or infection-related hepatitis, possible. Infectious etiologies alone or in combination with a rheumatologic process are also possible given fevers and lymphadenopathy. In particular, herpesvirus infections (Epstein-Barr virus [EBV], cytomegalovirus [CMV], herpes simplex virus, or human herpes virus 6), human immunodeficiency virus (HIV), hepatitis C virus (HCV), and syphilis can cause oral ulcers and lymphadenopathy. Other potential infectious etiologies include subacute bacterial endocarditis and disseminated gonococcal infection given the presence of polyarthritis, but these infections are less likely as they do not explain all of the symptoms.

In summary, the differential diagnosis is broad and should be prioritized to consider systemic inflammatory conditions, including autoimmune and infectious (especially viral) syndromes, and initial work-up should focus on these etiologies.

 

 

The initial laboratory evaluation was notable for pancytopenia with a white count of 1.9 x 109cells/L, absolute neutrophil count of 0.95 x 109/L, absolute lymphocyte count of 0.48 x 109/L, hemoglobin concentration of 10 g/dL, mean corpuscular volume of 78 fL, and platelet count of 4.1 x 109/L (Figure 1). The following infectious studies were sent: hepatitis B virus, HCV, and Parvovirus-B19 serologies, EBV and CMV serologies and polymerase chain reaction studies, HIV antigen and antibody immunoassays, rapid plasma reagin, as well as bacterial blood, urine, and stool cultures. She was started on broad-spectrum antibiotics. The patient’s heart rate and blood pressure normalized after receiving a bolus of 20 mL per kilogram of normal saline.

The pancytopenia is obviously notable. It raises the possibility that the oral ulcerations are due to the neutropenia rather than a primary disease manifestation. Other possible causes of pancytopenia include SLE, antiphospholipid antibody syndrome, and related rheumatologic diagnoses, including hemophagocytic lymphohistiocytosis (HLH). Given her age and subacute presentation, secondary forms of HLH seem more likely than primary (genetic) forms, which typically present within the first few years of life. Secondary forms of HLH can occur in association with rheumatic diseases and are then referred to as Macrophage Activation Syndrome (MAS). The most common rheumatologic diseases associated with MAS are systemic juvenile idiopathic arthritis, SLE, and Kawasaki disease. Secondary HLH can also occur with infectious diseases, particularly viral infections such as EBV. It is also important to consider thrombotic thrombocytopenic purpura and other forms of thrombotic microangiopathy, especially if her violaceous eyelids actually represent purpura. The presence of pancytopenia also expands the differential diagnosis to include leukemia, lymphoma, and other oncologic diseases. After obtaining results from pending infectious disease studies, additional diagnostic work-up should include examination of the bone marrow and a peripheral blood smear to evaluate for hemophagocytosis and/or malignancy. Testing for double-stranded DNA antibodies and antinuclear antibodies (ANA) should be sent to evaluate for SLE, and antiphospholipid antibodies should also be checked. Renal function must also be evaluated.

Additional laboratory work-up revealed a reticulocyte count of 0.2%, a positive Coombs immunoglobulin G (IgG) test, haptoglobin less than 80 mg/L, and lactate dehydrogenase (LDH) 25.2 µkat/L (1509 units/L); coagulation studies were normal. Her chemistries showed electrolytes, blood urea nitrogen, and creatinine were within normal limits; her aspartate aminotransferase was 216 units/L, and alanine aminotransferase was 56 units/L. Her spot urine protein-to-creatinine ratio was 1.28. Complement and inflammatory studies showed C3 0.14 g/L (14 mg/dL, normal 83-151 mg/dL), C4 0.05 g/L (5 mg/dL, normal 13-37 mg/dL), erythrocyte sedimentation rate (ESR) 103 mm/hr (normal 0-20 mm/hr), and C-reactive protein (CRP) 3.2 mg/L (normal 0.7-1.7 mg/L). Additional studies showed elevated triglycerides (376 mg/dL), elevated creatine kinase (2437 units/L), and elevated ferritin (22,295.5 ng/mL). An ANA screen and specific autoantibody studies were sent, including antidouble stranded DNA antibody, antiribonucleoprotein antibody, anti-Smith antibody, anti-Ro antibody, and anti-La antibody. A bone marrow biopsy was performed.

The hematologic studies provide a mixed picture. There is evidence of an autoimmune hemolytic anemia (AIHA). Typically, AIHA is associated with reticulocytosis rather than reticulocytopenia. Reticulocytopenia can occur in AIHA, however, because of antibodies directed against erythroid precursors or if 2 processes are occurring simultaneously—ie, AIHA plus bone marrow destructive/failure process. The latter scenario is more likely here. Specifically, the pancytopenia, elevated triglycerides, and extreme hyperferritinemia strongly support the diagnosis of HLH. The very low C3 and C4 suggest a complement-consumptive process, and SLE is the most likely etiology. Proteinuria and Coombs-positive anemia are also features of SLE. The discordance between the ESR (markedly elevated) and CRP (mild elevation) is surprising in the setting of systemic inflammation. However, her other clinical features are consistent with marked systemic inflammation, and it is important not to dismiss a likely diagnosis simply on the basis of a few incongruous features. At this point, the diagnosis of SLE complicated by secondary HLH is favored, remembering that both these entities can be triggered by a viral infection. Therefore, diligent follow-up of the aforementioned specific autoantibody studies and the bone marrow biopsy is the next logical step, along with the still-pending infectious disease studies.

All of the infectious disease studies returned negative for active infection and were consistent with prior EBV and CMV infections with positive IgG testing. The bone marrow biopsy revealed trilineage hematopoiesis with hemophagocytosis, mild fibrosis, and no blasts (Figure 2). Antibody studies for SLE returned with elevated antidouble stranded DNA antibodies >200,000 IU/L. Reference labs ultimately confirmed the presence of decreased natural killer (NK) cell function, elevated soluble interleukin-2 receptors (IL-2R), and elevated soluble cluster of differentiation 163 (CD163).

These findings are consistent with the diagnosis of SLE complicated by secondary HLH (ie, MAS). It remains possible, but unlikely, that the patient has genetic or familial HLH (fHLH), as this entity is exceedingly rare with distinct underlying genetic aberrations separate from SLE. Ideally, the NK cell function studies would be repeated after the current episode of HLH is controlled and the patient is off of immunosuppressive therapies, but this will likely not be possible given the underlying SLE. Patients with fHLH have reduced or absent NK cell function at baseline (ie, not only during an acute episode of HLH and not because of immunosuppressive medications). Alternatively, one could consider genetic testing for fHLH. The clinical importance of doing this is that patients with fHLH are candidates for bone marrow or stem cell transplantation. There currently is not a published standard of care for the work-up and management of MAS in children with rheumatic disease, so the decision to repeat NK cell function testing and/or genetic testing would be left to the discretion of the treating physician and would depend on the patient’s ongoing clinical course.

The patient required red blood cell and platelet transfusions. She received pulse dose intravenous methylprednisolone for treatment of SLE and MAS; she clinically improved within 48 hours of starting steroids. Cyclosporine was added for management of MAS. The patient was transitioned to oral corticosteroids and discharged home. All cell counts normalized within 1 month of discharge. She was weaned off corticosteroids and cyclosporine was discontinued. Her maintenance SLE therapy includes hydroxychloroquine and mycophenolate mofetil.

 

 

COMMENTARY

Because the differential diagnosis for new-onset pancytopenia encompasses many diseases across several medical subspecialties, a thorough history and physical exam are necessary to form a tailored clinical approach.1 The primary causes of pediatric pancytopenia vary depending on geographic location because of the local prevalence of infectious agents and nutritional deficiency patterns. A retrospective study investigating the primary cause of pancytopenia in children without existing malignancy presenting to a US tertiary care hospital found that 64% of cases were due to infection, 28% were due to hematologic disease (most frequently aplastic anemia), and 8% were due to miscellaneous etiologies, including adverse drug reactions and autoimmune diseases.2 In contrast, the most common cause of pancytopenia in pediatric patients presenting to a tertiary care hospital in India was megaloblastic anemia (28%), followed by infections (21%), acute leukemia (21%), and aplastic anemia (20%).3 While clinicians do (and should) consider malignancy as a cause of pancytopenia, there is sparse literature regarding the frequency of pancytopenia associated with the presentations of childhood malignancies.4 A study of pediatric patients with acute lymphoblastic anemia found that only 11% of newly diagnosed patients had pancytopenia at initial presentation.4

There are no official guidelines for the work-up of pediatric pancytopenia from any of the academic societies. Depending on the clinical history, initial laboratory investigation for pediatric pancytopenia may include complete blood cell count with differential, reticulocyte count, peripheral blood smear, complete metabolic panel, hemolysis labs (haptoglobin, LDH, Coombs test) and inflammatory markers (ESR, CRP, fibrinogen). Further investigation to clarify the specific etiology of pancytopenia can be guided by the results of these initial tests.

SLE is an autoimmune disorder characterized by chronic inflammation of multiple organ systems. The name “lupus” (Latin for wolf) became widely used by dermatologists in the 1800s before systemic involvement was realized to describe the destructive facial lesions thought by some to resemble a wolf bite.5 The American College of Rheumatology (ACR) classification criteria6 and/or the Systemic Lupus International Collaborating Clinics classification criteria7 are often used to help make the diagnosis. The ACR criteria are summarized in the Table; an individual is considered to have SLE if 4 or more of the 11 clinical criteria are present.6 In children, the most common presenting symptoms of SLE are fever, fatigue, weight loss, rash, arthritis, and renal disease.8 Children with SLE tend to have a more severe phenotype with greater involvement of major organ systems and more rapid accrual of organ damage than adults with SLE, emphasizing the importance of early diagnosis and treatment in this population.9 As such, severe presenting symptoms may require initiation of immunosuppressive therapies before the patient fully meets diagnostic criteria, provided malignancy and infection can be excluded.

Hematologic abnormalities are present in greater than 70% of pediatric SLE cases.10,11 The pathogenesis of hematologic abnormalities in SLE is heterogeneous, involving actions of autoreactive lymphocytes, autoantibodies, and proinflammatory cytokines that can disrupt bone marrow production and cause peripheral blood cell destruction.12,13 While pancytopenia is common in children with SLE, other coexisting diagnoses should be considered in patients with SLE and pancytopenia. Concurrent diagnoses that can lead to pancytopenia in patients with SLE include infection, pharmacologic side effects, and secondary HLH,14,15 each of which has differing implications for prognosis and treatment.

Secondary HLH is a severe and often acute complication of systemic inflammatory disorders caused by the proliferation and activation of T cells and macrophages, leading to an enhanced inflammatory state. When HLH occurs in the setting of an underlying autoimmune or autoinflammatory process, it is typically termed MAS. MAS affects an estimated 0.9% to 4.6% of patients with SLE.16 Early diagnosis and treatment of MAS is important because MAS can be rapidly fatal, with a mortality rate of 8% to 20% in pediatric patients.17,18 Clinical features of MAS include physical exam findings of fever and splenomegaly as well as laboratory abnormalities, including pancytopenia, elevated ferritin, elevated triglycerides, and low fibrinogen.18 A bone marrow biopsy showing hemophagocytosis in the absence of malignancy is diagnostic of MAS. Although a bone marrow biopsy is not required to diagnose MAS, it is often obtained to exclude other etiologies of pancytopenia such as malignancy.19 Specialized diagnostic testing for MAS includes NK cell counts and functional studies, including expression of perforin and granzyme B (NK cell proteins triggering apoptosis in target cells), soluble IL-2R (marker of activated lymphocytes), and CD163 (transmembrane protein of hemophagocytic macrophages). There is no standardized protocol for treating MAS.20 It is most commonly treated with highdose corticosteroids; additional agents, including cyclosporine and biologic therapies, are also utilized.16,20

 

 

KEY POINTS

  • Children with SLE tend to have greater involvement of major organ systems and more rapid accrual of organ damage than adults with SLE. Therefore, it is sometimes necessary to initiate immunosuppressive therapies before full diagnostic criteria are met, provided that malignancy and infection have been ruled out.
  • While pancytopenia is common in pediatric patients with SLE, providers should make sure to consider coexisting diagnoses such as infection and MAS, both of which require different treatment strategies.
  • It is important to consider HLH/MAS early in the work-up of pancytopenia, because early diagnosis and treatment improves clinical outcomes. Obtaining a ferritin level can aid in the work-up of pancytopenia because it is both a sensitive and specific marker of HLH/MAS when dramatically elevated.

Disclosure

 The authors report no conflicts of interest.

References

1. Weinzierl EP, Arber DA. The Differential Diagnosis and Bone Marrow Evaluation of New-Onset Pancytopenia. Am J Clin Pathol. 2012;139(1):9-29. doi:10.1309/AJCP50AEEYGREWUZ. PubMed
2. Pine M, Walter AW. Pancytopenia in hospitalized children: a five-year review. J Pediatr Hematol Oncol. 2010;32(5):e192-e194. doi:10.1097/MPH.0b013e3181e03082. PubMed
3. Bhatnagar SK. Pancytopenia in Children: Etiological Profile. J Trop Pediatr. 2005;51(4):236-239. doi:10.1093/tropej/fmi010. PubMed
4. Kulkarni KP, Marwaha RK. Acute lymphoblastic leukemia with pancytopenia at presentation: clinical correlates, prognostic impact, and association with survival. J Pediatr Hematol Oncol. 2013;35(7):573-576. doi:10.1097/MPH.0b013e31829d46f3. PubMed
5. Holubar, K. Terminology and iconography of lupus erythematosus: A historical vignette. Am J Dermatopathol. 1980;2(3):239-242. PubMed
6. Hochberg MC. Updating the American College of Rheumatology revised criteria for the classification of systemic lupus erythematosus. Arthritis Rheum. 1997;40(9):1725. doi: 10.1002/art.1780400928. PubMed
7. Petri M, Orbai, A, Alarcon GS, et al. Derivation and validation of the Systemic Lupus International Collaborating Clinics classification criteria for systemic lupus erythematosus. Arthritis Rheum. 2012;64(8):2677-2686. doi:10.1002/art.34473. PubMed
8. Tucker L. Review: Making the diagnosis of systemic lupus erythematosus in children and adolescents. Lupus. 2007;16(8):546-549. doi:10.1177/0961203307078068. PubMed
9. Brunner HI, Gladman DD, Ibañez D, Urowitz MD, Silverman ED. Difference in disease features between childhood-onset and adult-onset systemic lupus erythematosus. Arthritis Rheum. 2008;58(2):556-562. doi:10.1002/art.23204. PubMed
10. Benseler SM, Silverman ED. Systemic Lupus Erythematosus. Rheum Dis Clin North Am. 2007;33(3):471-498. doi:10.1016/j.rdc.2007.07.008. PubMed
11. Gokce M, Bilginer Y, Besbas N, et al. Hematological features of pediatric systemic lupus erythematosus: suggesting management strategies in children. Lupus. 2012;21(8):878-884. doi:10.1177/0961203312443721. PubMed
12. Voulgarelis M, Giannouli S, Tasidou A, Anagnostou D, Ziakas PD, Tzioufas AG. Bone marrow histological findings in systemic lupus erythematosus with hematologic abnormalities: A clinicopathological study. Am J Hematol. 2006;81(8):590-597. doi:10.1002/ajh.20593. PubMed
13. Pereira RM, Velloso ER, Menezes Y, Gualandro S, Vassalo J, Yoshinari NH. Bone marrow findings in systemic lupus erythematosus patients with peripheral cytopenias. Clin Rheumatol. 1998;17(3):219-222. PubMed
14. Avčin T, Tse SML, Schneider R, Ngan B, Silverman ED. Macrophage activation syndrome as the presenting manifestation of rheumatic diseases in childhood. J Pediatr. 2006;148(5):683-686. doi:10.1016/j.jpeds.2005.12.070. PubMed
15. Lambotte O, Khellaf M, Harmouche H, et al. Characteristics and Long-Term Outcome of 15 Episodes of Systemic Lupus Erythematosus-Associated Hemophagocytic Syndrome. Medicine. 2006;85(3):169-182. doi:10.1097/01.md.0000224708.62510.d1. PubMed
16. Fukaya S, Yasuda S, Hashimoto T, et al. Clinical features of haemophagocytic syndrome in patients with systemic autoimmune diseases: analysis of 30 cases. Rheumatology. 2008;47(11):1686-1691. doi:10.1093/rheumatology/ken342. PubMed
17. Stephan JL. Reactive haemophagocytic syndrome in children with inflammatory disorders. A retrospective study of 24 patients. Rheumatology. 2001;40(11):1285-1292. doi:10.1093/rheumatology/40.11.1285. PubMed
18. Sawhney S, Woo P, Murray KJ. Macrophage activation syndrome: a potentially fatal complication of rheumatic disorders. Arch Dis Child. 2001;85(5):421-426. PubMed
19. Henter JI, Horne A, Aricó M, et al. HLH-2004: Diagnostic and therapeutic guidelines for hemophagocytic lymphohistiocytosis. Pediatr Blood Cancer. 2007;48(2):124-131.  doi:10.1002/pbc.21039. PubMed
20. Lin CI, Yu HH, Lee JH, et al. Clinical analysis of macrophage activation syndrome in pediatric patients with autoimmune diseases. Clin Rheumatol. 2012;31(8):1223-1230. doi:10.1007/s10067-012-1998-0. PubMed

References

1. Weinzierl EP, Arber DA. The Differential Diagnosis and Bone Marrow Evaluation of New-Onset Pancytopenia. Am J Clin Pathol. 2012;139(1):9-29. doi:10.1309/AJCP50AEEYGREWUZ. PubMed
2. Pine M, Walter AW. Pancytopenia in hospitalized children: a five-year review. J Pediatr Hematol Oncol. 2010;32(5):e192-e194. doi:10.1097/MPH.0b013e3181e03082. PubMed
3. Bhatnagar SK. Pancytopenia in Children: Etiological Profile. J Trop Pediatr. 2005;51(4):236-239. doi:10.1093/tropej/fmi010. PubMed
4. Kulkarni KP, Marwaha RK. Acute lymphoblastic leukemia with pancytopenia at presentation: clinical correlates, prognostic impact, and association with survival. J Pediatr Hematol Oncol. 2013;35(7):573-576. doi:10.1097/MPH.0b013e31829d46f3. PubMed
5. Holubar, K. Terminology and iconography of lupus erythematosus: A historical vignette. Am J Dermatopathol. 1980;2(3):239-242. PubMed
6. Hochberg MC. Updating the American College of Rheumatology revised criteria for the classification of systemic lupus erythematosus. Arthritis Rheum. 1997;40(9):1725. doi: 10.1002/art.1780400928. PubMed
7. Petri M, Orbai, A, Alarcon GS, et al. Derivation and validation of the Systemic Lupus International Collaborating Clinics classification criteria for systemic lupus erythematosus. Arthritis Rheum. 2012;64(8):2677-2686. doi:10.1002/art.34473. PubMed
8. Tucker L. Review: Making the diagnosis of systemic lupus erythematosus in children and adolescents. Lupus. 2007;16(8):546-549. doi:10.1177/0961203307078068. PubMed
9. Brunner HI, Gladman DD, Ibañez D, Urowitz MD, Silverman ED. Difference in disease features between childhood-onset and adult-onset systemic lupus erythematosus. Arthritis Rheum. 2008;58(2):556-562. doi:10.1002/art.23204. PubMed
10. Benseler SM, Silverman ED. Systemic Lupus Erythematosus. Rheum Dis Clin North Am. 2007;33(3):471-498. doi:10.1016/j.rdc.2007.07.008. PubMed
11. Gokce M, Bilginer Y, Besbas N, et al. Hematological features of pediatric systemic lupus erythematosus: suggesting management strategies in children. Lupus. 2012;21(8):878-884. doi:10.1177/0961203312443721. PubMed
12. Voulgarelis M, Giannouli S, Tasidou A, Anagnostou D, Ziakas PD, Tzioufas AG. Bone marrow histological findings in systemic lupus erythematosus with hematologic abnormalities: A clinicopathological study. Am J Hematol. 2006;81(8):590-597. doi:10.1002/ajh.20593. PubMed
13. Pereira RM, Velloso ER, Menezes Y, Gualandro S, Vassalo J, Yoshinari NH. Bone marrow findings in systemic lupus erythematosus patients with peripheral cytopenias. Clin Rheumatol. 1998;17(3):219-222. PubMed
14. Avčin T, Tse SML, Schneider R, Ngan B, Silverman ED. Macrophage activation syndrome as the presenting manifestation of rheumatic diseases in childhood. J Pediatr. 2006;148(5):683-686. doi:10.1016/j.jpeds.2005.12.070. PubMed
15. Lambotte O, Khellaf M, Harmouche H, et al. Characteristics and Long-Term Outcome of 15 Episodes of Systemic Lupus Erythematosus-Associated Hemophagocytic Syndrome. Medicine. 2006;85(3):169-182. doi:10.1097/01.md.0000224708.62510.d1. PubMed
16. Fukaya S, Yasuda S, Hashimoto T, et al. Clinical features of haemophagocytic syndrome in patients with systemic autoimmune diseases: analysis of 30 cases. Rheumatology. 2008;47(11):1686-1691. doi:10.1093/rheumatology/ken342. PubMed
17. Stephan JL. Reactive haemophagocytic syndrome in children with inflammatory disorders. A retrospective study of 24 patients. Rheumatology. 2001;40(11):1285-1292. doi:10.1093/rheumatology/40.11.1285. PubMed
18. Sawhney S, Woo P, Murray KJ. Macrophage activation syndrome: a potentially fatal complication of rheumatic disorders. Arch Dis Child. 2001;85(5):421-426. PubMed
19. Henter JI, Horne A, Aricó M, et al. HLH-2004: Diagnostic and therapeutic guidelines for hemophagocytic lymphohistiocytosis. Pediatr Blood Cancer. 2007;48(2):124-131.  doi:10.1002/pbc.21039. PubMed
20. Lin CI, Yu HH, Lee JH, et al. Clinical analysis of macrophage activation syndrome in pediatric patients with autoimmune diseases. Clin Rheumatol. 2012;31(8):1223-1230. doi:10.1007/s10067-012-1998-0. PubMed

Issue
Journal of Hospital Medicine 13(3)
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Journal of Hospital Medicine 13(3)
Page Number
205-209. Published online first October 4, 2017
Page Number
205-209. Published online first October 4, 2017
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Alaina M. Davis, MD, 2200 Children’s Way, Doctor’s Office Tower 11119, Nashville, TN 37232; Telephone: 615-322-4397; Fax: 615-322-4399; E-mail: [email protected]
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