How to identify balance disorders and reduce fall risk

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How to identify balance disorders and reduce fall risk

CASE Mr. J, a 75-year-old man, presents to your family practice reporting that he feels increasingly unsteady and slow while walking. He fell twice last year, without resulting injury. He now worries about tripping while walking around the house and relies on his spouse to run errands.

Almost 30% of people older than 65 years report 1 or more falls annually.

Clearly, Mr. J is experiencing a problem with balance. What management approach should you undertake to prevent him from falling?

Man trying to stand up with cane
Copyright Scott Bodell

Balance disorders are common in older people and drastically hinder quality of life.1-4 Patients often describe imbalance as vague symptoms: dizziness, unsteadiness, faintness, spinning sensations.5,6 Importantly, balance disorders disrupt normal gait and contribute to falls that are a major cause of disability and morbidity in older people. Almost 30% of people older than 65 years report 1 or more falls annually.7 Factors that increase the risk of falls include impaired mobility, previously reported falls, reduced psychological functioning, chronic medical conditions, and polypharmacy.7,8

The cause of any single case of imbalance is often multifactorial, resulting from dysfunction of multiple body systems (TABLE 17-56); in our clinical experience, most patients with imbalance and who are at risk of falls do not have a detectable deficit of the vestibular system. These alterations in function arise in 3 key systems—vision, proprioception, and vestibular function—which signal to, and are incorporated by, the cerebellum to mediate balance. Cognitive and neurologic decline are also factors in imbalance.

Symptoms and causes of imbalance, with potential next steps

Considering that 20% of falls result in serious injury in older populations, it is important to identify balance disorders and implement preventive strategies to mitigate harmful consequences of falls on patients’ health and independence.7,57 In this article, we answer the question that the case presentation raises about the proper management approach to imbalance in family practice, including assessment of risk and rehabilitation strategies to reduce the risk of falls. Our insights and recommendations are based on our clinical experience and a review of the medical literature from the past 40 years.

Symptoms and causes of imbalance, with potential next steps

CASE Mr. J has a history of hypertension, age-­related hearing loss, and osteoarthritis of the knees; he has not had surgery for the arthritis. His medications are antihypertensives and extra-strength acetaminophen for knee pain.

Symptoms and causes of imbalance, with potential next steps

Making the diagnosis of a balance disorder

History

A thorough clinical history, often including a collateral history from caregivers, narrows the differential diagnosis. Information regarding onset, duration, timing, character, and previous episodes of imbalance is essential. Symptoms of imbalance are often challenging for the patient to describe: They might use terms such as vertigo or dizziness, when, in fact, on further questioning, they are describing balance difficulties. Inquiry into (1) their use of assistive walking devices and (2) development or exacerbation of neurologic, musculoskeletal, auditory, visual, and mood symptoms is necessary. Note the current level of their mobility, episodes of pain or fatigue, previous falls and associated injuries, fear of falling, balance confidence, and sensations that precede falls.58

Continue to: The medical and surgical histories

 

 

The medical and surgical histories are key pieces of information. The history of smoking, alcohol habits, and substance use is relevant.

A robust medication history is essential to evaluate a patient’s risk of falling. Polypharmacy—typically, defined as taking 4 or more medications—has been repeatedly associated with a heightened risk of falls.53,59-61 Moreover, a dose-dependent association between polypharmacy and hospitalization following falls has been identified, and demonstrates that taking 10 or more medications greatly increases the risk of hospitalization.59 Studies of polypharmacy cement the importance of inquiring about medication use when assessing imbalance, particularly in older patients.

Physical examination

A focused and detailed physical examination provides insight into systems that should be investigated:

  • Obtain vital signs, including orthostatic vitals to test for orthostatic hypotension62; keep in mind that symptoms of orthostatic dizziness can occur without orthostatic hypotension.
  • Examine gait, which can distinguish between causes of imbalance (TABLE 2).21,40,63-70
  • Perform a cardiac examination.
  • Assess visual acuity and visual fields; test for nystagmus and identify any optic-nerve and retinal abnormalities.
  • Evaluate lower-limb sensation, proprioception, and motor function.
  • Evaluate suspected vestibular dysfunction, including dysfunction with positional testing (the Dix-Hallpike maneuver71). The patient is taken from sitting to supine while the head is rotated 45° to the tested side by the examiner. As the patient moves into a supine position, the neck is extended 30° off the table and held for at least 30 seconds. The maneuver is positive if torsional nystagmus is noted while the head is held rotated during neck extension. The maneuver is negative if the patient reports dizziness, vertigo, unsteadiness, or “pressure in the head.” Torsional nystagmus must be present to confirm a diagnosis of benign paroxysmal positional vertigo.
  • If you suspect a central nervous system cause of imbalance, assess the cranial nerves, coordination, strength, and, of course, balance.

Abnormal gait patterns and associated pathologies

 

CASE

Mr. J’s physical examination showed normal vital signs without significant postural changes in blood pressure. Gait analysis revealed a slowed gait, with reduced range of motion in both knees over the entire gait cycle. Audiometry revealed symmetric moderate sensorineural hearing loss characteristic of presbycusis.

Diagnostic investigations

Consider focused investigations into imbalance based on the history and physical examination. We discourage overly broad testing and imaging; in primary care, cost and limited access to technology can bar robust investigations into causes of imbalance. However, identification of acute pathologies should prompt immediate referral to the emergency department. Furthermore, specific symptoms (TABLE 17-56) should prompt referral to specialists for assessment.

Continue to: In the emergency department...

 

 

In the emergency department and academic hospitals, key investigations can identify causes of imbalance:

  • Electrocardiography and Holter monitoring test for cardiac arrhythmias.
  • Echocardiography identifies structural abnormalities.
  • Radiography and computed tomography are useful for detecting musculoskeletal abnormalities.
  • Bone densitometry can identify osteoporosis.
  • Head and spinal cord magnetic resonance imaging can be used to identify lesions of the central nervous system.
  • Computed tomographic angiography of the head and neck is useful for identifying stroke, cerebral atrophy, and stenotic lesions of the carotid and vertebral arteries.
  • Nerve conduction studies and levels of serum vitamin B12, hemoglobin A1C, thyroid-stimulating hormone, and random cortisol can uncover causes of peripheral neuropathy.
  • Bedside cognitive screening tests can be used to measure cognitive decline.72
  • Suspicion of vestibular disease requires audiometry and vestibular testing, including videonystagmography, head impulse testing, and vestibular evoked myogenic potentials.

In many cases of imbalance, no specific underlying correctable cause is discovered.

Management of imbalance

Pharmacotherapy

Targeted pharmacotherapy can be utilized in select clinical scenarios:

  • Medical treatment of peripheral neuropathy should target the underlying condition.
  • Cognitive behavioral therapy and antidepressants are useful for treating anxiety and depressive disorders.73
  • Musculoskeletal pain can be managed with acetaminophen and topical nonsteroidal anti-inflammatory drugs (NSAIDs), using a short course of an oral NSAID when needed.74
  • Cardiovascular disease management might include any of several classes of pharmacotherapy, including antiplatelet and lipid-lowering medications, antiarrhythmic drugs, and antihypertensive agents.
  • Acute episodes of vertigo due to vestibular neuritis or labyrinthitis can be managed with an antiemetic.46
 

Surgical treatment

Surgery is infrequently considered for patients with imbalance. Examples of indications include microsurgical resection of vestibular schwannoma, resection of central nervous system tumors, lens replacement surgery for cataract, surgical management of severe spinal fracture, and hip or knee arthroplasty in select patients.

Tools for assessing the risk of falls

Scoring systems called falls risk assessment tools, or FRAT, have been developed to gauge a patient’s risk of falling. The various FRATs differ in specificity and sensitivity for predicting the risk of falls, and are typically designed for specific clinical environments, such as hospital inpatient care or long-term care facilities. Specifically, FRATs attempt to classify risk using sets of risk factors known to be associated with falls.

Continue to: Research abounds into...

 

 

In our experience, most patients with imbalance and who are at risk of falls do not have a detectable deficit of the vestibular system.

Research abounds into the validity of commonly used FRATs across institutions, patient populations, and clinical environments:

The Johns Hopkins FRATa determines risk using metrics such as age, fall history, incontinence, cognition, mobility, and medications75; it is predominantly used for assessment in hospital inpatient units. This tool has been validated repeatedly.76,77

Peninsula Health FRATb stratifies patients in subacute and residential aged-care settings, based on risk factors that include recent falls, medications, psychological status, and cognition.78

FRAT-upc is a web-based tool that generates falls risk using risk factors that users input. This tool has been studied in the context of patients older than 65 years living in the community.79

Although FRATs are reasonably useful for predicting falls, their utility varies by patient population and clinical context. Moreover, it has been suggested that FRATs neglect environmental and personal factors when assessing risk by focusing primarily on bodily factors.80 Implementing a FRAT requires extensive consideration of the target population and should be accompanied by clinical judgment that is grounded in an individual patient’s circumstances.81

Continue to: Preventing falls in primary care

 

 

Preventing falls in primary care

An approach to preventing falls includes the development of individualized programs that account for frailty, a syndrome of physiologic decline associated with aging. Because frailty leads to diminished balance and mobility, a patient’s frailty index—determined using the 5 frailty phenotype criteria (exhaustion, weight loss, low physical activity, weakness, slowness)82 or the Canadian Study of Health and Aging Clinical Frailty Scale83—is a useful tool for predicting falls risk and readmission for falls following trauma-related injury. Prevention of falls in communities is critical for reducing mortality and allowing older people to maintain their independence and quality of life.

Exercise. In some areas, exercise and falls prevention programs are accessible to seniors.84 Community exercise programs that focus on balance retraining and muscle strengthening can reduce the risk of falls.73,85 The Choosing Wisely initiative of the ABIM [American Board of Internal Medicine] Foundation recommends that exercise programs be designed around an accurate functional baseline of the patient to avoid underdosed strength training.54

Multifactorial risk assessment in high-risk patients can reduce the rate of falls. Such an assessment includes examination of orthostatic blood pressure, vision and hearing, bone health, gait, activities of daily living, cognition, and environmental hazards, and enables provision of necessary interventions.73,86 Hearing amplification, specifically, correlates with enhanced postural control, slowed cognitive decline, and a reduced likelihood of falls.87-93 The mechanism behind improved balance performance might be reduced cognitive load through supporting a patient’s listening needs.88-90

Pharmacotherapy. Optimizing medications and performing a complete medication review before prescribing new medications is highly recommended to avoid unnecessary polypharmacy7,8,18,53-56 (TABLE 17-56).

Management of comorbidities associated with a higher risk of falls, including arthritis, cancer, stroke, diabetes, depression, kidney disease, chronic obstructive pulmonary disease, cognitive impairment, hypertension, and atrial fibrillation, is essential.94-96

Continue to: Home safety interventions

 

 

Home safety interventions, through occupational therapy, are important. These include removing unsafe mats and step-overs and installing nonslip strips on stairs, ­double-sided tape under mats, and handrails.73-97

Screening for risk of falls. The Centers for Disease Control and Prevention recommends that (1) all patients older than 65 years and (2) any patient presenting with an acute fall undergo screening for their risk of falls.98 When a patient is identified as at risk of falling, you can, when appropriate, assess modifiable risk factors and facilitate interventions.98 This strategy is supported by a 2018 statement from the US Preventive Services Task Force99 that recommends identifying high-risk patients who have:

  • a history of falling
  • a balance disturbance that causes a deficit of mobility or function
  • poor performance on clinical tests, such as the 3-meter Timed Up and Go (TUG) assessment (www.cdc.gov/steadi/pdf/TUG_test-print.pdf).

In addition to visual, proprioception, and vestibular dysfunction, cognitive and neurologic decline are also factors in imbalance.

An increased risk of falls should prompt you to refer the patient to community programs and physiotherapy in accordance with the individual’s personal goals99; a balance and vestibular physiotherapist is ideally positioned to accurately assess and manage patients at risk of falls. Specifically, the Task Force identified exercise programs and multifactorial interventions as being beneficial in preventing falls in high-risk older people.99

Balance assessment and rehabilitation in specialty centers

Polypharmacy— typically, defined as taking 4 or more medications— has been repeatedly associated with a heightened risk of falls.

An individualized rehabilitation program aims to restore safe mobility by testing and addressing specific balance deficits, improving functional balance, and increasing balance confidence. Collaboration with colleagues from physiotherapy and occupational therapy aids in tailoring individualized programs.

 

Many tests are available to assess balance, determine the risk of falls, and guide rehabilitation:

  • The timed 10-meter walk testd and the TUG test are simple assessments that measure functional mobility; both have normalized values for the risk of falls. A TUG time of ≥ 12 seconds suggests a high risk of falls.
  • The 30-second chair stande evaluates functional lower-extremity strength in older patients. The test can indicate if lower-extremity strength is contributing to a patient’s imbalance.
  • The modified clinical test of sensory interaction in balancef is a static balance test that measures the integrity of sensory inputs. The test can suggest if 1 or more sensory systems are compromised.
  • The mini balance evaluation systems testg is similar: It can differentiate balance deficits by underlying system and allows individualization of a rehabilitation program.
  • The functional gait assessmenth is a modification of the dynamic gait index that assesses postural stability during everyday dynamic activities, including tasks such as walking with head turns and pivots.
  • The Berg Balance Scalei continues to be used extensively to assess balance.

Continue to: The mini balance evaluation systems test...

 

 

All patients older than 65 years and any patient presenting with an acute fall should undergo screening for their risk of falls.

The mini balance evaluation systems test, functional gait index, and Berg Balance Scale all have normative age-graded values to predict fall risk.

 

CASE

Mr. J was referred for balance assessment and to a rehabilitation program. He underwent balance physiotherapy, including multifactorial balance assessment, joined a community exercise program, was fitted with hearing aids, and had his home environment optimized by an occupational therapist. (See examples of “home safety interventions” under “Preventing falls in primary care.”)

Exercise programs should be designed around an accurate functional baseline of the patient to avoid underdosed strength training.

3 months later. Mr. J says he feels stronger on his feet. His knee pain has eased, and he is more confident walking around his home. He continues to engage in exercise programs and is comfortable running errands with his spouse.

CORRESPONDENCE
Jason A. Beyea, MD, PhD, FRCSC, Division of OtolaryngologyHead and Neck Surgery, Queen’s University, 144 Brock Street, Kingston, Ontario, Canada, K7L 5G2; [email protected]

a www.hopkinsmedicine.org/institute_nursing/models_tools/jhfrat_acute%20care%20original_6_22_17.pdf

b https://content.health.vic.gov.au/sites/default/files/migrated/files/collections/policies-and-guidelines/b/b2b_1a_frat_pdf.pdf

c www.ncbi.nlm.nih.gov/pmc/articles/PMC4376110/figure/figure14/?report=objectonly

d www.neuropt.org/docs/default-source/cpgs/core-outcome-measures/core-measure-10-meter-walk-test-(10mwt)_final.pdf?sfvrsn=c5585243_2&sfvrsn =c5585243_2

e www.cdc.gov/steadi/pdf/STEADI-Assessment-30Sec-508.pdf

f www.mdapp.co/mctsib-modified-clinical-test-of-sensory-interaction-in-balance-calculator-404/

g www.sralab.org/sites/default/files/2017-07/MiniBEST_revised_final_3_8_13.pdf

h www.neuropt.org/docs/default-source/cpgs/core-outcome-measures/function-gait-assessment-pocket-guide-proof9-(2).pdf?sfvrsn=b4f35043_0

i www.ncbi.nlm.nih.gov/books/NBK574518/

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71. Talmud JD, Coffey R, Edemekong PF. Dix Hallpike maneuver. StatPearls [Internet]. StatPearls Publishing Updated September 5, 2021. Accessed December 6, 2021. www.ncbi.nlm.nih.gov/books/NBK459307/

72. Molnar FJ, Benjamin S, Hawkins SA, et al. One size does not fit all: choosing practical cognitive screening tools for your practice. J Am Geriatr Soc. 2020;68:2207-2213. doi: 10.1111/jgs.16713

73. Gillespie LD, Robertson MC, Gillespie WJ, et al. Interventions for preventing falls in older people living in the community. Cochrane Database Syst Rev. 2012:CD007146. doi: 10.1002/14651858.CD007146.pub3

74. Wongrakpanich S, Wongrakpanich A, Melhado K, Rangaswami J. A comprehensive review of non-steroidal anti-inflammatory drug use in the elderly. Aging Dis. 2018;9:143-150. doi: 10.14336/AD.2017.0306

75. Poe SS, Cvach M, Dawson PB, Straus H, Hill EE. The Johns Hopkins Fall Risk Assessment Tool: postimplementation evaluation. J Nurs Care Qual. 2007;22:293-298. doi: 10.1097/01.NCQ.0000290408.74027.39

76. Poe SS, Dawson PB, Cvach M, et al. The Johns Hopkins Fall Risk Assessment Tool: a study of reliability and validity. J Nurs Care Qual. 2018;33:10-19. doi: 10.1097/NCQ.0000000000000301

77. Klinkenberg WD, Potter P. Validity of the Johns Hopkins Fall Risk Assessment Tool for predicting falls on inpatient medicine services. J Nurs Care Qual. 2017;32:108-113. doi: 10.1097/NCQ.0000000000000210

78. Stapleton C, Hough P, Oldmeadow L, et al. Four-item fall risk screening tool for subacute and residential aged care: the first step in fall prevention. Australas J Ageing. 2009;28:139-143. doi: 10.1111/j.1741-6612.2009.00375.x

79. Cattelani L, Palumbo P, Palmerini L, et al. FRAT-up, a Web-based fall-risk assessment tool for elderly people living in the community. J Med Internet Res. 2015;17:e41. doi: 10.2196/jmir.4064

80. De Clercq H, Naudé A, Bornman J. Factors included in adult fall risk assessment tools (FRATs): a systematic review. Ageing Soc. 2020;41:2558-2582. doi: 10.1017/S0144686X2000046X

81. Yap G, Melder A. Accuracy of validated falls risk assessment tools and clinical judgement. Centre for Clinical Effectiveness, Monash Innovation and Quality. Monash Health. February 5, 2020. Accessed November 11, 2021. https://monashhealth.org/wp-content/uploads/2019/01/Rapid-Review_Falls-risk-tools-FINAL.pdf

82. Chittrakul J, Siviroj P, Sungkarat S, et al. Physical frailty and fall risk in community-dwelling older adults: a cross-sectional study. J Aging Res. 2020;2020:3964973. doi: 10.1155/2020/3964973

83. Hatcher VH, Galet C, Lilienthal M, et al. Association of clinical frailty scores with hospital readmission for falls after index admission for trauma-related injury. JAMA Netw Open. 2019;2:e1912409. doi: 10.1001/jamanetworkopen.2019.12409

84. Exercise and fall prevention programs. Government of Ontario Ministry of Health. Updated April 9, 2019. Accessed November 11. 2021. www.ontario.ca/page/exercise-and-falls-prevention-programs

85. Sherrington C, Fairhall NJ, Wallbank GK, et al. Exercise for preventing falls in older people living in the community. Cochrane Database Syst Rev. 2019;1:CD012424. doi: 10.1002/14651858.CD012424.pub2

86. Hopewell S, Copsey B, Nicolson P, et al. Multifactorial interventions for preventing falls in older people living in the community: a systematic review and meta-analysis of 41 trials and almost 20 000 participants. Br J Sports Med. 2020;54:1340-1350. doi: 10.1136/bjsports-2019-100732

87. Jafari Z, Kolb BE, Mohajerani MH. Age-related hearing loss and tinnitus, dementia risk, and auditory amplification outcomes. Ageing Res Rev. 2019;56:100963. doi: 10.1016/j.arr.2019.100963

88. Griffiths TD, Lad M, Kumar S, et al. How can hearing loss cause dementia? Neuron. 2020;108:401-412. doi: 10.1016/j.neuron.2020.08.003

89. Martini A, Castiglione A, Bovo R, et al. Aging, cognitive load, dementia and hearing loss. Audiol Neurootol. 2014;19(suppl 1):2-5. doi: 10.1159/000371593

90. Vitkovic J, Le C, Lee S-L, et al. The contribution of hearing and hearing loss to balance control. Audiol Neurootol. 2016;21:195-202. doi: 10.1159/000445100

91. Maheu M, Behtani L, Nooristani M, et al. Vestibular function modulates the benefit of hearing aids in people with hearing loss during static postural control. Ear Hear. 2019;40:1418-1424. doi: 10.1097/AUD.0000000000000720

92. Negahban H, Bavarsad Cheshmeh Ali M, Nassadj G. Effect of hearing aids on static balance function in elderly with hearing loss. Gait Posture. 2017;58:126-129. doi: 10.1016/j.gaitpost.2017.07.112

93. Mahmoudi E, Basu T, Langa K, et al. Can hearing aids delay time to diagnosis of dementia, depression, or falls in older adults? J Am Geriatr Soc. 2019;67:2362-2369. doi: 10.1111/jgs.16109

94. Paliwal Y, Slattum PW, Ratliff SM. Chronic health conditions as a risk factor for falls among the community-dwelling US older adults: a zero-inflated regression modeling approach. Biomed Res Int. 2017;2017:5146378. doi: 10.1155/2017/5146378

95. Deandrea S, Lucenteforte E, Bravi F, et al. Risk factors for falls in community-dwelling older people: a systematic review and meta-analysis. Epidemiology. 2010;21:658-668. doi: 10.1097/EDE.0b013e3181e89905

96. Ambrose AF, Paul G, Hausdorff JM. Risk factors for falls among older adults: a review of the literature. Maturitas. 2013;75:51-61. doi: 10.1016/j.maturitas.2013.02.009

97. Stevens M, Holman CD, Bennett N. Preventing falls in older people: impact of an intervention to reduce environmental hazards in the home. J Am Geriatr Soc. 2001;49:1442-1447. doi: 10.1046/j.1532-5415.2001.4911235.x

98. Clinical resources. Centers for Disease Control and Prevention STEADI-Older Adult Fall Prevention website. 2020. Accessed November 12, 2021. www.cdc.gov/steadi/materials.html

99. US Preventive Services Task ForceGrossman DC, Curry SJ, Owens DK, et al. Interventions to prevent falls in community-dwelling older adults: US Preventive Services Task Force recommendation statement. JAMA. 2018;319:1696-1704. doi: 10.1001/jama.2018.3097

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Division of Otolaryngology/Head and Neck Surgery, Department of Surgery, Queen’s University School of Medicine, Kingston, (Drs. Newsted and Jason A. Beyea); Physiotherapy Outpatient Services, Providence Care Hospital, West Kingston (Mr. Bale); Quinte Hearing Centre, Belleville/Picton (Ms. Armstrong); Division of Emergency Medicine, Department of Medicine, McMaster University, Hamilton, and Department of Critical Care, William Osler Health System, Brampton (Dr. Michael M. Beyea); Department of Family Medicine, Queen’s University School of Medicine, Kingston (Dr. Simpson); Division of Geriatric Medicine, Department of Medicine, Queen’s University School of Medicine, Kingston (Dr. Gill); ICES Queen’s, Queen’s University, Kingston (Drs. Gill and Jason A. Beyea), Ontario, Canada
[email protected]

Dr. J.A. Beyea discloses that he has a proprietary interest in Kingston Ear Institute Inc., which is a multidisciplinary clinic that provides diagnostic and therapeutic services for hearing, balance, and vestibular loss. Ms. Armstrong discloses a proprietary interest in Quinte Hearing Centre, which is a clinic that provides diagnostic and therapeutic services for hearing loss.

The other authors reported no potential conflict of interest relevant to this article.

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Division of Otolaryngology/Head and Neck Surgery, Department of Surgery, Queen’s University School of Medicine, Kingston, (Drs. Newsted and Jason A. Beyea); Physiotherapy Outpatient Services, Providence Care Hospital, West Kingston (Mr. Bale); Quinte Hearing Centre, Belleville/Picton (Ms. Armstrong); Division of Emergency Medicine, Department of Medicine, McMaster University, Hamilton, and Department of Critical Care, William Osler Health System, Brampton (Dr. Michael M. Beyea); Department of Family Medicine, Queen’s University School of Medicine, Kingston (Dr. Simpson); Division of Geriatric Medicine, Department of Medicine, Queen’s University School of Medicine, Kingston (Dr. Gill); ICES Queen’s, Queen’s University, Kingston (Drs. Gill and Jason A. Beyea), Ontario, Canada
[email protected]

Dr. J.A. Beyea discloses that he has a proprietary interest in Kingston Ear Institute Inc., which is a multidisciplinary clinic that provides diagnostic and therapeutic services for hearing, balance, and vestibular loss. Ms. Armstrong discloses a proprietary interest in Quinte Hearing Centre, which is a clinic that provides diagnostic and therapeutic services for hearing loss.

The other authors reported no potential conflict of interest relevant to this article.

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Division of Otolaryngology/Head and Neck Surgery, Department of Surgery, Queen’s University School of Medicine, Kingston, (Drs. Newsted and Jason A. Beyea); Physiotherapy Outpatient Services, Providence Care Hospital, West Kingston (Mr. Bale); Quinte Hearing Centre, Belleville/Picton (Ms. Armstrong); Division of Emergency Medicine, Department of Medicine, McMaster University, Hamilton, and Department of Critical Care, William Osler Health System, Brampton (Dr. Michael M. Beyea); Department of Family Medicine, Queen’s University School of Medicine, Kingston (Dr. Simpson); Division of Geriatric Medicine, Department of Medicine, Queen’s University School of Medicine, Kingston (Dr. Gill); ICES Queen’s, Queen’s University, Kingston (Drs. Gill and Jason A. Beyea), Ontario, Canada
[email protected]

Dr. J.A. Beyea discloses that he has a proprietary interest in Kingston Ear Institute Inc., which is a multidisciplinary clinic that provides diagnostic and therapeutic services for hearing, balance, and vestibular loss. Ms. Armstrong discloses a proprietary interest in Quinte Hearing Centre, which is a clinic that provides diagnostic and therapeutic services for hearing loss.

The other authors reported no potential conflict of interest relevant to this article.

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CASE Mr. J, a 75-year-old man, presents to your family practice reporting that he feels increasingly unsteady and slow while walking. He fell twice last year, without resulting injury. He now worries about tripping while walking around the house and relies on his spouse to run errands.

Almost 30% of people older than 65 years report 1 or more falls annually.

Clearly, Mr. J is experiencing a problem with balance. What management approach should you undertake to prevent him from falling?

Man trying to stand up with cane
Copyright Scott Bodell

Balance disorders are common in older people and drastically hinder quality of life.1-4 Patients often describe imbalance as vague symptoms: dizziness, unsteadiness, faintness, spinning sensations.5,6 Importantly, balance disorders disrupt normal gait and contribute to falls that are a major cause of disability and morbidity in older people. Almost 30% of people older than 65 years report 1 or more falls annually.7 Factors that increase the risk of falls include impaired mobility, previously reported falls, reduced psychological functioning, chronic medical conditions, and polypharmacy.7,8

The cause of any single case of imbalance is often multifactorial, resulting from dysfunction of multiple body systems (TABLE 17-56); in our clinical experience, most patients with imbalance and who are at risk of falls do not have a detectable deficit of the vestibular system. These alterations in function arise in 3 key systems—vision, proprioception, and vestibular function—which signal to, and are incorporated by, the cerebellum to mediate balance. Cognitive and neurologic decline are also factors in imbalance.

Symptoms and causes of imbalance, with potential next steps

Considering that 20% of falls result in serious injury in older populations, it is important to identify balance disorders and implement preventive strategies to mitigate harmful consequences of falls on patients’ health and independence.7,57 In this article, we answer the question that the case presentation raises about the proper management approach to imbalance in family practice, including assessment of risk and rehabilitation strategies to reduce the risk of falls. Our insights and recommendations are based on our clinical experience and a review of the medical literature from the past 40 years.

Symptoms and causes of imbalance, with potential next steps

CASE Mr. J has a history of hypertension, age-­related hearing loss, and osteoarthritis of the knees; he has not had surgery for the arthritis. His medications are antihypertensives and extra-strength acetaminophen for knee pain.

Symptoms and causes of imbalance, with potential next steps

Making the diagnosis of a balance disorder

History

A thorough clinical history, often including a collateral history from caregivers, narrows the differential diagnosis. Information regarding onset, duration, timing, character, and previous episodes of imbalance is essential. Symptoms of imbalance are often challenging for the patient to describe: They might use terms such as vertigo or dizziness, when, in fact, on further questioning, they are describing balance difficulties. Inquiry into (1) their use of assistive walking devices and (2) development or exacerbation of neurologic, musculoskeletal, auditory, visual, and mood symptoms is necessary. Note the current level of their mobility, episodes of pain or fatigue, previous falls and associated injuries, fear of falling, balance confidence, and sensations that precede falls.58

Continue to: The medical and surgical histories

 

 

The medical and surgical histories are key pieces of information. The history of smoking, alcohol habits, and substance use is relevant.

A robust medication history is essential to evaluate a patient’s risk of falling. Polypharmacy—typically, defined as taking 4 or more medications—has been repeatedly associated with a heightened risk of falls.53,59-61 Moreover, a dose-dependent association between polypharmacy and hospitalization following falls has been identified, and demonstrates that taking 10 or more medications greatly increases the risk of hospitalization.59 Studies of polypharmacy cement the importance of inquiring about medication use when assessing imbalance, particularly in older patients.

Physical examination

A focused and detailed physical examination provides insight into systems that should be investigated:

  • Obtain vital signs, including orthostatic vitals to test for orthostatic hypotension62; keep in mind that symptoms of orthostatic dizziness can occur without orthostatic hypotension.
  • Examine gait, which can distinguish between causes of imbalance (TABLE 2).21,40,63-70
  • Perform a cardiac examination.
  • Assess visual acuity and visual fields; test for nystagmus and identify any optic-nerve and retinal abnormalities.
  • Evaluate lower-limb sensation, proprioception, and motor function.
  • Evaluate suspected vestibular dysfunction, including dysfunction with positional testing (the Dix-Hallpike maneuver71). The patient is taken from sitting to supine while the head is rotated 45° to the tested side by the examiner. As the patient moves into a supine position, the neck is extended 30° off the table and held for at least 30 seconds. The maneuver is positive if torsional nystagmus is noted while the head is held rotated during neck extension. The maneuver is negative if the patient reports dizziness, vertigo, unsteadiness, or “pressure in the head.” Torsional nystagmus must be present to confirm a diagnosis of benign paroxysmal positional vertigo.
  • If you suspect a central nervous system cause of imbalance, assess the cranial nerves, coordination, strength, and, of course, balance.

Abnormal gait patterns and associated pathologies

 

CASE

Mr. J’s physical examination showed normal vital signs without significant postural changes in blood pressure. Gait analysis revealed a slowed gait, with reduced range of motion in both knees over the entire gait cycle. Audiometry revealed symmetric moderate sensorineural hearing loss characteristic of presbycusis.

Diagnostic investigations

Consider focused investigations into imbalance based on the history and physical examination. We discourage overly broad testing and imaging; in primary care, cost and limited access to technology can bar robust investigations into causes of imbalance. However, identification of acute pathologies should prompt immediate referral to the emergency department. Furthermore, specific symptoms (TABLE 17-56) should prompt referral to specialists for assessment.

Continue to: In the emergency department...

 

 

In the emergency department and academic hospitals, key investigations can identify causes of imbalance:

  • Electrocardiography and Holter monitoring test for cardiac arrhythmias.
  • Echocardiography identifies structural abnormalities.
  • Radiography and computed tomography are useful for detecting musculoskeletal abnormalities.
  • Bone densitometry can identify osteoporosis.
  • Head and spinal cord magnetic resonance imaging can be used to identify lesions of the central nervous system.
  • Computed tomographic angiography of the head and neck is useful for identifying stroke, cerebral atrophy, and stenotic lesions of the carotid and vertebral arteries.
  • Nerve conduction studies and levels of serum vitamin B12, hemoglobin A1C, thyroid-stimulating hormone, and random cortisol can uncover causes of peripheral neuropathy.
  • Bedside cognitive screening tests can be used to measure cognitive decline.72
  • Suspicion of vestibular disease requires audiometry and vestibular testing, including videonystagmography, head impulse testing, and vestibular evoked myogenic potentials.

In many cases of imbalance, no specific underlying correctable cause is discovered.

Management of imbalance

Pharmacotherapy

Targeted pharmacotherapy can be utilized in select clinical scenarios:

  • Medical treatment of peripheral neuropathy should target the underlying condition.
  • Cognitive behavioral therapy and antidepressants are useful for treating anxiety and depressive disorders.73
  • Musculoskeletal pain can be managed with acetaminophen and topical nonsteroidal anti-inflammatory drugs (NSAIDs), using a short course of an oral NSAID when needed.74
  • Cardiovascular disease management might include any of several classes of pharmacotherapy, including antiplatelet and lipid-lowering medications, antiarrhythmic drugs, and antihypertensive agents.
  • Acute episodes of vertigo due to vestibular neuritis or labyrinthitis can be managed with an antiemetic.46
 

Surgical treatment

Surgery is infrequently considered for patients with imbalance. Examples of indications include microsurgical resection of vestibular schwannoma, resection of central nervous system tumors, lens replacement surgery for cataract, surgical management of severe spinal fracture, and hip or knee arthroplasty in select patients.

Tools for assessing the risk of falls

Scoring systems called falls risk assessment tools, or FRAT, have been developed to gauge a patient’s risk of falling. The various FRATs differ in specificity and sensitivity for predicting the risk of falls, and are typically designed for specific clinical environments, such as hospital inpatient care or long-term care facilities. Specifically, FRATs attempt to classify risk using sets of risk factors known to be associated with falls.

Continue to: Research abounds into...

 

 

In our experience, most patients with imbalance and who are at risk of falls do not have a detectable deficit of the vestibular system.

Research abounds into the validity of commonly used FRATs across institutions, patient populations, and clinical environments:

The Johns Hopkins FRATa determines risk using metrics such as age, fall history, incontinence, cognition, mobility, and medications75; it is predominantly used for assessment in hospital inpatient units. This tool has been validated repeatedly.76,77

Peninsula Health FRATb stratifies patients in subacute and residential aged-care settings, based on risk factors that include recent falls, medications, psychological status, and cognition.78

FRAT-upc is a web-based tool that generates falls risk using risk factors that users input. This tool has been studied in the context of patients older than 65 years living in the community.79

Although FRATs are reasonably useful for predicting falls, their utility varies by patient population and clinical context. Moreover, it has been suggested that FRATs neglect environmental and personal factors when assessing risk by focusing primarily on bodily factors.80 Implementing a FRAT requires extensive consideration of the target population and should be accompanied by clinical judgment that is grounded in an individual patient’s circumstances.81

Continue to: Preventing falls in primary care

 

 

Preventing falls in primary care

An approach to preventing falls includes the development of individualized programs that account for frailty, a syndrome of physiologic decline associated with aging. Because frailty leads to diminished balance and mobility, a patient’s frailty index—determined using the 5 frailty phenotype criteria (exhaustion, weight loss, low physical activity, weakness, slowness)82 or the Canadian Study of Health and Aging Clinical Frailty Scale83—is a useful tool for predicting falls risk and readmission for falls following trauma-related injury. Prevention of falls in communities is critical for reducing mortality and allowing older people to maintain their independence and quality of life.

Exercise. In some areas, exercise and falls prevention programs are accessible to seniors.84 Community exercise programs that focus on balance retraining and muscle strengthening can reduce the risk of falls.73,85 The Choosing Wisely initiative of the ABIM [American Board of Internal Medicine] Foundation recommends that exercise programs be designed around an accurate functional baseline of the patient to avoid underdosed strength training.54

Multifactorial risk assessment in high-risk patients can reduce the rate of falls. Such an assessment includes examination of orthostatic blood pressure, vision and hearing, bone health, gait, activities of daily living, cognition, and environmental hazards, and enables provision of necessary interventions.73,86 Hearing amplification, specifically, correlates with enhanced postural control, slowed cognitive decline, and a reduced likelihood of falls.87-93 The mechanism behind improved balance performance might be reduced cognitive load through supporting a patient’s listening needs.88-90

Pharmacotherapy. Optimizing medications and performing a complete medication review before prescribing new medications is highly recommended to avoid unnecessary polypharmacy7,8,18,53-56 (TABLE 17-56).

Management of comorbidities associated with a higher risk of falls, including arthritis, cancer, stroke, diabetes, depression, kidney disease, chronic obstructive pulmonary disease, cognitive impairment, hypertension, and atrial fibrillation, is essential.94-96

Continue to: Home safety interventions

 

 

Home safety interventions, through occupational therapy, are important. These include removing unsafe mats and step-overs and installing nonslip strips on stairs, ­double-sided tape under mats, and handrails.73-97

Screening for risk of falls. The Centers for Disease Control and Prevention recommends that (1) all patients older than 65 years and (2) any patient presenting with an acute fall undergo screening for their risk of falls.98 When a patient is identified as at risk of falling, you can, when appropriate, assess modifiable risk factors and facilitate interventions.98 This strategy is supported by a 2018 statement from the US Preventive Services Task Force99 that recommends identifying high-risk patients who have:

  • a history of falling
  • a balance disturbance that causes a deficit of mobility or function
  • poor performance on clinical tests, such as the 3-meter Timed Up and Go (TUG) assessment (www.cdc.gov/steadi/pdf/TUG_test-print.pdf).

In addition to visual, proprioception, and vestibular dysfunction, cognitive and neurologic decline are also factors in imbalance.

An increased risk of falls should prompt you to refer the patient to community programs and physiotherapy in accordance with the individual’s personal goals99; a balance and vestibular physiotherapist is ideally positioned to accurately assess and manage patients at risk of falls. Specifically, the Task Force identified exercise programs and multifactorial interventions as being beneficial in preventing falls in high-risk older people.99

Balance assessment and rehabilitation in specialty centers

Polypharmacy— typically, defined as taking 4 or more medications— has been repeatedly associated with a heightened risk of falls.

An individualized rehabilitation program aims to restore safe mobility by testing and addressing specific balance deficits, improving functional balance, and increasing balance confidence. Collaboration with colleagues from physiotherapy and occupational therapy aids in tailoring individualized programs.

 

Many tests are available to assess balance, determine the risk of falls, and guide rehabilitation:

  • The timed 10-meter walk testd and the TUG test are simple assessments that measure functional mobility; both have normalized values for the risk of falls. A TUG time of ≥ 12 seconds suggests a high risk of falls.
  • The 30-second chair stande evaluates functional lower-extremity strength in older patients. The test can indicate if lower-extremity strength is contributing to a patient’s imbalance.
  • The modified clinical test of sensory interaction in balancef is a static balance test that measures the integrity of sensory inputs. The test can suggest if 1 or more sensory systems are compromised.
  • The mini balance evaluation systems testg is similar: It can differentiate balance deficits by underlying system and allows individualization of a rehabilitation program.
  • The functional gait assessmenth is a modification of the dynamic gait index that assesses postural stability during everyday dynamic activities, including tasks such as walking with head turns and pivots.
  • The Berg Balance Scalei continues to be used extensively to assess balance.

Continue to: The mini balance evaluation systems test...

 

 

All patients older than 65 years and any patient presenting with an acute fall should undergo screening for their risk of falls.

The mini balance evaluation systems test, functional gait index, and Berg Balance Scale all have normative age-graded values to predict fall risk.

 

CASE

Mr. J was referred for balance assessment and to a rehabilitation program. He underwent balance physiotherapy, including multifactorial balance assessment, joined a community exercise program, was fitted with hearing aids, and had his home environment optimized by an occupational therapist. (See examples of “home safety interventions” under “Preventing falls in primary care.”)

Exercise programs should be designed around an accurate functional baseline of the patient to avoid underdosed strength training.

3 months later. Mr. J says he feels stronger on his feet. His knee pain has eased, and he is more confident walking around his home. He continues to engage in exercise programs and is comfortable running errands with his spouse.

CORRESPONDENCE
Jason A. Beyea, MD, PhD, FRCSC, Division of OtolaryngologyHead and Neck Surgery, Queen’s University, 144 Brock Street, Kingston, Ontario, Canada, K7L 5G2; [email protected]

a www.hopkinsmedicine.org/institute_nursing/models_tools/jhfrat_acute%20care%20original_6_22_17.pdf

b https://content.health.vic.gov.au/sites/default/files/migrated/files/collections/policies-and-guidelines/b/b2b_1a_frat_pdf.pdf

c www.ncbi.nlm.nih.gov/pmc/articles/PMC4376110/figure/figure14/?report=objectonly

d www.neuropt.org/docs/default-source/cpgs/core-outcome-measures/core-measure-10-meter-walk-test-(10mwt)_final.pdf?sfvrsn=c5585243_2&sfvrsn =c5585243_2

e www.cdc.gov/steadi/pdf/STEADI-Assessment-30Sec-508.pdf

f www.mdapp.co/mctsib-modified-clinical-test-of-sensory-interaction-in-balance-calculator-404/

g www.sralab.org/sites/default/files/2017-07/MiniBEST_revised_final_3_8_13.pdf

h www.neuropt.org/docs/default-source/cpgs/core-outcome-measures/function-gait-assessment-pocket-guide-proof9-(2).pdf?sfvrsn=b4f35043_0

i www.ncbi.nlm.nih.gov/books/NBK574518/

CASE Mr. J, a 75-year-old man, presents to your family practice reporting that he feels increasingly unsteady and slow while walking. He fell twice last year, without resulting injury. He now worries about tripping while walking around the house and relies on his spouse to run errands.

Almost 30% of people older than 65 years report 1 or more falls annually.

Clearly, Mr. J is experiencing a problem with balance. What management approach should you undertake to prevent him from falling?

Man trying to stand up with cane
Copyright Scott Bodell

Balance disorders are common in older people and drastically hinder quality of life.1-4 Patients often describe imbalance as vague symptoms: dizziness, unsteadiness, faintness, spinning sensations.5,6 Importantly, balance disorders disrupt normal gait and contribute to falls that are a major cause of disability and morbidity in older people. Almost 30% of people older than 65 years report 1 or more falls annually.7 Factors that increase the risk of falls include impaired mobility, previously reported falls, reduced psychological functioning, chronic medical conditions, and polypharmacy.7,8

The cause of any single case of imbalance is often multifactorial, resulting from dysfunction of multiple body systems (TABLE 17-56); in our clinical experience, most patients with imbalance and who are at risk of falls do not have a detectable deficit of the vestibular system. These alterations in function arise in 3 key systems—vision, proprioception, and vestibular function—which signal to, and are incorporated by, the cerebellum to mediate balance. Cognitive and neurologic decline are also factors in imbalance.

Symptoms and causes of imbalance, with potential next steps

Considering that 20% of falls result in serious injury in older populations, it is important to identify balance disorders and implement preventive strategies to mitigate harmful consequences of falls on patients’ health and independence.7,57 In this article, we answer the question that the case presentation raises about the proper management approach to imbalance in family practice, including assessment of risk and rehabilitation strategies to reduce the risk of falls. Our insights and recommendations are based on our clinical experience and a review of the medical literature from the past 40 years.

Symptoms and causes of imbalance, with potential next steps

CASE Mr. J has a history of hypertension, age-­related hearing loss, and osteoarthritis of the knees; he has not had surgery for the arthritis. His medications are antihypertensives and extra-strength acetaminophen for knee pain.

Symptoms and causes of imbalance, with potential next steps

Making the diagnosis of a balance disorder

History

A thorough clinical history, often including a collateral history from caregivers, narrows the differential diagnosis. Information regarding onset, duration, timing, character, and previous episodes of imbalance is essential. Symptoms of imbalance are often challenging for the patient to describe: They might use terms such as vertigo or dizziness, when, in fact, on further questioning, they are describing balance difficulties. Inquiry into (1) their use of assistive walking devices and (2) development or exacerbation of neurologic, musculoskeletal, auditory, visual, and mood symptoms is necessary. Note the current level of their mobility, episodes of pain or fatigue, previous falls and associated injuries, fear of falling, balance confidence, and sensations that precede falls.58

Continue to: The medical and surgical histories

 

 

The medical and surgical histories are key pieces of information. The history of smoking, alcohol habits, and substance use is relevant.

A robust medication history is essential to evaluate a patient’s risk of falling. Polypharmacy—typically, defined as taking 4 or more medications—has been repeatedly associated with a heightened risk of falls.53,59-61 Moreover, a dose-dependent association between polypharmacy and hospitalization following falls has been identified, and demonstrates that taking 10 or more medications greatly increases the risk of hospitalization.59 Studies of polypharmacy cement the importance of inquiring about medication use when assessing imbalance, particularly in older patients.

Physical examination

A focused and detailed physical examination provides insight into systems that should be investigated:

  • Obtain vital signs, including orthostatic vitals to test for orthostatic hypotension62; keep in mind that symptoms of orthostatic dizziness can occur without orthostatic hypotension.
  • Examine gait, which can distinguish between causes of imbalance (TABLE 2).21,40,63-70
  • Perform a cardiac examination.
  • Assess visual acuity and visual fields; test for nystagmus and identify any optic-nerve and retinal abnormalities.
  • Evaluate lower-limb sensation, proprioception, and motor function.
  • Evaluate suspected vestibular dysfunction, including dysfunction with positional testing (the Dix-Hallpike maneuver71). The patient is taken from sitting to supine while the head is rotated 45° to the tested side by the examiner. As the patient moves into a supine position, the neck is extended 30° off the table and held for at least 30 seconds. The maneuver is positive if torsional nystagmus is noted while the head is held rotated during neck extension. The maneuver is negative if the patient reports dizziness, vertigo, unsteadiness, or “pressure in the head.” Torsional nystagmus must be present to confirm a diagnosis of benign paroxysmal positional vertigo.
  • If you suspect a central nervous system cause of imbalance, assess the cranial nerves, coordination, strength, and, of course, balance.

Abnormal gait patterns and associated pathologies

 

CASE

Mr. J’s physical examination showed normal vital signs without significant postural changes in blood pressure. Gait analysis revealed a slowed gait, with reduced range of motion in both knees over the entire gait cycle. Audiometry revealed symmetric moderate sensorineural hearing loss characteristic of presbycusis.

Diagnostic investigations

Consider focused investigations into imbalance based on the history and physical examination. We discourage overly broad testing and imaging; in primary care, cost and limited access to technology can bar robust investigations into causes of imbalance. However, identification of acute pathologies should prompt immediate referral to the emergency department. Furthermore, specific symptoms (TABLE 17-56) should prompt referral to specialists for assessment.

Continue to: In the emergency department...

 

 

In the emergency department and academic hospitals, key investigations can identify causes of imbalance:

  • Electrocardiography and Holter monitoring test for cardiac arrhythmias.
  • Echocardiography identifies structural abnormalities.
  • Radiography and computed tomography are useful for detecting musculoskeletal abnormalities.
  • Bone densitometry can identify osteoporosis.
  • Head and spinal cord magnetic resonance imaging can be used to identify lesions of the central nervous system.
  • Computed tomographic angiography of the head and neck is useful for identifying stroke, cerebral atrophy, and stenotic lesions of the carotid and vertebral arteries.
  • Nerve conduction studies and levels of serum vitamin B12, hemoglobin A1C, thyroid-stimulating hormone, and random cortisol can uncover causes of peripheral neuropathy.
  • Bedside cognitive screening tests can be used to measure cognitive decline.72
  • Suspicion of vestibular disease requires audiometry and vestibular testing, including videonystagmography, head impulse testing, and vestibular evoked myogenic potentials.

In many cases of imbalance, no specific underlying correctable cause is discovered.

Management of imbalance

Pharmacotherapy

Targeted pharmacotherapy can be utilized in select clinical scenarios:

  • Medical treatment of peripheral neuropathy should target the underlying condition.
  • Cognitive behavioral therapy and antidepressants are useful for treating anxiety and depressive disorders.73
  • Musculoskeletal pain can be managed with acetaminophen and topical nonsteroidal anti-inflammatory drugs (NSAIDs), using a short course of an oral NSAID when needed.74
  • Cardiovascular disease management might include any of several classes of pharmacotherapy, including antiplatelet and lipid-lowering medications, antiarrhythmic drugs, and antihypertensive agents.
  • Acute episodes of vertigo due to vestibular neuritis or labyrinthitis can be managed with an antiemetic.46
 

Surgical treatment

Surgery is infrequently considered for patients with imbalance. Examples of indications include microsurgical resection of vestibular schwannoma, resection of central nervous system tumors, lens replacement surgery for cataract, surgical management of severe spinal fracture, and hip or knee arthroplasty in select patients.

Tools for assessing the risk of falls

Scoring systems called falls risk assessment tools, or FRAT, have been developed to gauge a patient’s risk of falling. The various FRATs differ in specificity and sensitivity for predicting the risk of falls, and are typically designed for specific clinical environments, such as hospital inpatient care or long-term care facilities. Specifically, FRATs attempt to classify risk using sets of risk factors known to be associated with falls.

Continue to: Research abounds into...

 

 

In our experience, most patients with imbalance and who are at risk of falls do not have a detectable deficit of the vestibular system.

Research abounds into the validity of commonly used FRATs across institutions, patient populations, and clinical environments:

The Johns Hopkins FRATa determines risk using metrics such as age, fall history, incontinence, cognition, mobility, and medications75; it is predominantly used for assessment in hospital inpatient units. This tool has been validated repeatedly.76,77

Peninsula Health FRATb stratifies patients in subacute and residential aged-care settings, based on risk factors that include recent falls, medications, psychological status, and cognition.78

FRAT-upc is a web-based tool that generates falls risk using risk factors that users input. This tool has been studied in the context of patients older than 65 years living in the community.79

Although FRATs are reasonably useful for predicting falls, their utility varies by patient population and clinical context. Moreover, it has been suggested that FRATs neglect environmental and personal factors when assessing risk by focusing primarily on bodily factors.80 Implementing a FRAT requires extensive consideration of the target population and should be accompanied by clinical judgment that is grounded in an individual patient’s circumstances.81

Continue to: Preventing falls in primary care

 

 

Preventing falls in primary care

An approach to preventing falls includes the development of individualized programs that account for frailty, a syndrome of physiologic decline associated with aging. Because frailty leads to diminished balance and mobility, a patient’s frailty index—determined using the 5 frailty phenotype criteria (exhaustion, weight loss, low physical activity, weakness, slowness)82 or the Canadian Study of Health and Aging Clinical Frailty Scale83—is a useful tool for predicting falls risk and readmission for falls following trauma-related injury. Prevention of falls in communities is critical for reducing mortality and allowing older people to maintain their independence and quality of life.

Exercise. In some areas, exercise and falls prevention programs are accessible to seniors.84 Community exercise programs that focus on balance retraining and muscle strengthening can reduce the risk of falls.73,85 The Choosing Wisely initiative of the ABIM [American Board of Internal Medicine] Foundation recommends that exercise programs be designed around an accurate functional baseline of the patient to avoid underdosed strength training.54

Multifactorial risk assessment in high-risk patients can reduce the rate of falls. Such an assessment includes examination of orthostatic blood pressure, vision and hearing, bone health, gait, activities of daily living, cognition, and environmental hazards, and enables provision of necessary interventions.73,86 Hearing amplification, specifically, correlates with enhanced postural control, slowed cognitive decline, and a reduced likelihood of falls.87-93 The mechanism behind improved balance performance might be reduced cognitive load through supporting a patient’s listening needs.88-90

Pharmacotherapy. Optimizing medications and performing a complete medication review before prescribing new medications is highly recommended to avoid unnecessary polypharmacy7,8,18,53-56 (TABLE 17-56).

Management of comorbidities associated with a higher risk of falls, including arthritis, cancer, stroke, diabetes, depression, kidney disease, chronic obstructive pulmonary disease, cognitive impairment, hypertension, and atrial fibrillation, is essential.94-96

Continue to: Home safety interventions

 

 

Home safety interventions, through occupational therapy, are important. These include removing unsafe mats and step-overs and installing nonslip strips on stairs, ­double-sided tape under mats, and handrails.73-97

Screening for risk of falls. The Centers for Disease Control and Prevention recommends that (1) all patients older than 65 years and (2) any patient presenting with an acute fall undergo screening for their risk of falls.98 When a patient is identified as at risk of falling, you can, when appropriate, assess modifiable risk factors and facilitate interventions.98 This strategy is supported by a 2018 statement from the US Preventive Services Task Force99 that recommends identifying high-risk patients who have:

  • a history of falling
  • a balance disturbance that causes a deficit of mobility or function
  • poor performance on clinical tests, such as the 3-meter Timed Up and Go (TUG) assessment (www.cdc.gov/steadi/pdf/TUG_test-print.pdf).

In addition to visual, proprioception, and vestibular dysfunction, cognitive and neurologic decline are also factors in imbalance.

An increased risk of falls should prompt you to refer the patient to community programs and physiotherapy in accordance with the individual’s personal goals99; a balance and vestibular physiotherapist is ideally positioned to accurately assess and manage patients at risk of falls. Specifically, the Task Force identified exercise programs and multifactorial interventions as being beneficial in preventing falls in high-risk older people.99

Balance assessment and rehabilitation in specialty centers

Polypharmacy— typically, defined as taking 4 or more medications— has been repeatedly associated with a heightened risk of falls.

An individualized rehabilitation program aims to restore safe mobility by testing and addressing specific balance deficits, improving functional balance, and increasing balance confidence. Collaboration with colleagues from physiotherapy and occupational therapy aids in tailoring individualized programs.

 

Many tests are available to assess balance, determine the risk of falls, and guide rehabilitation:

  • The timed 10-meter walk testd and the TUG test are simple assessments that measure functional mobility; both have normalized values for the risk of falls. A TUG time of ≥ 12 seconds suggests a high risk of falls.
  • The 30-second chair stande evaluates functional lower-extremity strength in older patients. The test can indicate if lower-extremity strength is contributing to a patient’s imbalance.
  • The modified clinical test of sensory interaction in balancef is a static balance test that measures the integrity of sensory inputs. The test can suggest if 1 or more sensory systems are compromised.
  • The mini balance evaluation systems testg is similar: It can differentiate balance deficits by underlying system and allows individualization of a rehabilitation program.
  • The functional gait assessmenth is a modification of the dynamic gait index that assesses postural stability during everyday dynamic activities, including tasks such as walking with head turns and pivots.
  • The Berg Balance Scalei continues to be used extensively to assess balance.

Continue to: The mini balance evaluation systems test...

 

 

All patients older than 65 years and any patient presenting with an acute fall should undergo screening for their risk of falls.

The mini balance evaluation systems test, functional gait index, and Berg Balance Scale all have normative age-graded values to predict fall risk.

 

CASE

Mr. J was referred for balance assessment and to a rehabilitation program. He underwent balance physiotherapy, including multifactorial balance assessment, joined a community exercise program, was fitted with hearing aids, and had his home environment optimized by an occupational therapist. (See examples of “home safety interventions” under “Preventing falls in primary care.”)

Exercise programs should be designed around an accurate functional baseline of the patient to avoid underdosed strength training.

3 months later. Mr. J says he feels stronger on his feet. His knee pain has eased, and he is more confident walking around his home. He continues to engage in exercise programs and is comfortable running errands with his spouse.

CORRESPONDENCE
Jason A. Beyea, MD, PhD, FRCSC, Division of OtolaryngologyHead and Neck Surgery, Queen’s University, 144 Brock Street, Kingston, Ontario, Canada, K7L 5G2; [email protected]

a www.hopkinsmedicine.org/institute_nursing/models_tools/jhfrat_acute%20care%20original_6_22_17.pdf

b https://content.health.vic.gov.au/sites/default/files/migrated/files/collections/policies-and-guidelines/b/b2b_1a_frat_pdf.pdf

c www.ncbi.nlm.nih.gov/pmc/articles/PMC4376110/figure/figure14/?report=objectonly

d www.neuropt.org/docs/default-source/cpgs/core-outcome-measures/core-measure-10-meter-walk-test-(10mwt)_final.pdf?sfvrsn=c5585243_2&sfvrsn =c5585243_2

e www.cdc.gov/steadi/pdf/STEADI-Assessment-30Sec-508.pdf

f www.mdapp.co/mctsib-modified-clinical-test-of-sensory-interaction-in-balance-calculator-404/

g www.sralab.org/sites/default/files/2017-07/MiniBEST_revised_final_3_8_13.pdf

h www.neuropt.org/docs/default-source/cpgs/core-outcome-measures/function-gait-assessment-pocket-guide-proof9-(2).pdf?sfvrsn=b4f35043_0

i www.ncbi.nlm.nih.gov/books/NBK574518/

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87. Jafari Z, Kolb BE, Mohajerani MH. Age-related hearing loss and tinnitus, dementia risk, and auditory amplification outcomes. Ageing Res Rev. 2019;56:100963. doi: 10.1016/j.arr.2019.100963

88. Griffiths TD, Lad M, Kumar S, et al. How can hearing loss cause dementia? Neuron. 2020;108:401-412. doi: 10.1016/j.neuron.2020.08.003

89. Martini A, Castiglione A, Bovo R, et al. Aging, cognitive load, dementia and hearing loss. Audiol Neurootol. 2014;19(suppl 1):2-5. doi: 10.1159/000371593

90. Vitkovic J, Le C, Lee S-L, et al. The contribution of hearing and hearing loss to balance control. Audiol Neurootol. 2016;21:195-202. doi: 10.1159/000445100

91. Maheu M, Behtani L, Nooristani M, et al. Vestibular function modulates the benefit of hearing aids in people with hearing loss during static postural control. Ear Hear. 2019;40:1418-1424. doi: 10.1097/AUD.0000000000000720

92. Negahban H, Bavarsad Cheshmeh Ali M, Nassadj G. Effect of hearing aids on static balance function in elderly with hearing loss. Gait Posture. 2017;58:126-129. doi: 10.1016/j.gaitpost.2017.07.112

93. Mahmoudi E, Basu T, Langa K, et al. Can hearing aids delay time to diagnosis of dementia, depression, or falls in older adults? J Am Geriatr Soc. 2019;67:2362-2369. doi: 10.1111/jgs.16109

94. Paliwal Y, Slattum PW, Ratliff SM. Chronic health conditions as a risk factor for falls among the community-dwelling US older adults: a zero-inflated regression modeling approach. Biomed Res Int. 2017;2017:5146378. doi: 10.1155/2017/5146378

95. Deandrea S, Lucenteforte E, Bravi F, et al. Risk factors for falls in community-dwelling older people: a systematic review and meta-analysis. Epidemiology. 2010;21:658-668. doi: 10.1097/EDE.0b013e3181e89905

96. Ambrose AF, Paul G, Hausdorff JM. Risk factors for falls among older adults: a review of the literature. Maturitas. 2013;75:51-61. doi: 10.1016/j.maturitas.2013.02.009

97. Stevens M, Holman CD, Bennett N. Preventing falls in older people: impact of an intervention to reduce environmental hazards in the home. J Am Geriatr Soc. 2001;49:1442-1447. doi: 10.1046/j.1532-5415.2001.4911235.x

98. Clinical resources. Centers for Disease Control and Prevention STEADI-Older Adult Fall Prevention website. 2020. Accessed November 12, 2021. www.cdc.gov/steadi/materials.html

99. US Preventive Services Task ForceGrossman DC, Curry SJ, Owens DK, et al. Interventions to prevent falls in community-dwelling older adults: US Preventive Services Task Force recommendation statement. JAMA. 2018;319:1696-1704. doi: 10.1001/jama.2018.3097

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81. Yap G, Melder A. Accuracy of validated falls risk assessment tools and clinical judgement. Centre for Clinical Effectiveness, Monash Innovation and Quality. Monash Health. February 5, 2020. Accessed November 11, 2021. https://monashhealth.org/wp-content/uploads/2019/01/Rapid-Review_Falls-risk-tools-FINAL.pdf

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88. Griffiths TD, Lad M, Kumar S, et al. How can hearing loss cause dementia? Neuron. 2020;108:401-412. doi: 10.1016/j.neuron.2020.08.003

89. Martini A, Castiglione A, Bovo R, et al. Aging, cognitive load, dementia and hearing loss. Audiol Neurootol. 2014;19(suppl 1):2-5. doi: 10.1159/000371593

90. Vitkovic J, Le C, Lee S-L, et al. The contribution of hearing and hearing loss to balance control. Audiol Neurootol. 2016;21:195-202. doi: 10.1159/000445100

91. Maheu M, Behtani L, Nooristani M, et al. Vestibular function modulates the benefit of hearing aids in people with hearing loss during static postural control. Ear Hear. 2019;40:1418-1424. doi: 10.1097/AUD.0000000000000720

92. Negahban H, Bavarsad Cheshmeh Ali M, Nassadj G. Effect of hearing aids on static balance function in elderly with hearing loss. Gait Posture. 2017;58:126-129. doi: 10.1016/j.gaitpost.2017.07.112

93. Mahmoudi E, Basu T, Langa K, et al. Can hearing aids delay time to diagnosis of dementia, depression, or falls in older adults? J Am Geriatr Soc. 2019;67:2362-2369. doi: 10.1111/jgs.16109

94. Paliwal Y, Slattum PW, Ratliff SM. Chronic health conditions as a risk factor for falls among the community-dwelling US older adults: a zero-inflated regression modeling approach. Biomed Res Int. 2017;2017:5146378. doi: 10.1155/2017/5146378

95. Deandrea S, Lucenteforte E, Bravi F, et al. Risk factors for falls in community-dwelling older people: a systematic review and meta-analysis. Epidemiology. 2010;21:658-668. doi: 10.1097/EDE.0b013e3181e89905

96. Ambrose AF, Paul G, Hausdorff JM. Risk factors for falls among older adults: a review of the literature. Maturitas. 2013;75:51-61. doi: 10.1016/j.maturitas.2013.02.009

97. Stevens M, Holman CD, Bennett N. Preventing falls in older people: impact of an intervention to reduce environmental hazards in the home. J Am Geriatr Soc. 2001;49:1442-1447. doi: 10.1046/j.1532-5415.2001.4911235.x

98. Clinical resources. Centers for Disease Control and Prevention STEADI-Older Adult Fall Prevention website. 2020. Accessed November 12, 2021. www.cdc.gov/steadi/materials.html

99. US Preventive Services Task ForceGrossman DC, Curry SJ, Owens DK, et al. Interventions to prevent falls in community-dwelling older adults: US Preventive Services Task Force recommendation statement. JAMA. 2018;319:1696-1704. doi: 10.1001/jama.2018.3097

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PRACTICE RECOMMENDATIONS

› Utilize a falls-prevention program for older patients that focuses on balance and functional exercises. A

› Perform a multifactorial assessment of the risk of falls in older patients that includes optimizing medications, managing comorbidities, and addressing environmental hazards. B

› Use a systems-based approach to presentations of imbalance to direct your clinical judgment and highlight the need for referral to specialists for management and rehabilitation. C

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A Good-quality patient-oriented evidence
B Inconsistent or limited-quality patient-oriented evidence
C Consensus, usual practice, opinion, disease-oriented evidence, case series

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How safe is a drug holiday from bisphosphonates for osteoporosis?

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Researchers found a small but greater risk of a hip fracture after 2 years of taking a “drug holiday” – stopping therapy – after long-term (≥3-year) use of one bisphosphonate, risedronate, versus another, alendronate.   

The risk of a hip fracture after stopping either of these oral bisphosphonate osteoporosis drugs was similar until 2 years, suggesting that patients who take a drug holiday from risedronate should be revaluated before 2 years.

These top-line findings from a propensity-matched cohort study of older patients in Ontario, Canada, were reported at the annual American Society of Bone and Mineral Research (ASBMR) last fall.

The full study, led by Kaleen N. Hayes, PharmD, PhD, Brown University School of Public Health, Providence, R.I., was published online in the Annals of Internal Medicine.

“We emphasize that our results do not indicate that alendronate therapy should be preferred over risedronate therapy,” the researchers stress, as several real-world studies found a similar risk of fractures while patients were receiving either drug.

“The decision to initiate alendronate or risedronate therapy [the two most commonly prescribed bisphosphonates] is driven by the prescriber,” they note, adding that some patients may prefer risedronate because it is available as a monthly dose or a weekly delayed-release formula that does not require fasting. 

“We found little difference in the association between risedronate versus alendronate drug holidays and hip fractures until approximately 2 years of not receiving therapy,” Dr. Hayes and colleagues summarize.

Over 3 years, risedronate drug holidays were associated with an 18% relative and 0.6% absolute increased risk for hip fracture compared with alendronate drug holidays.

“To further inform clinical decision-making on drug holidays,” they conclude, “future research should examine when to start and restart osteoporosis therapy on the basis of initial length and type of treatment, patient characteristics, and relative risk for hip fractures versus [atypical femoral fracture].”
 

Hip fracture risk with risedronate vs. alendronate drug holiday

Long-term bisphosphonate use is associated with a rare risk of osteonecrosis of the jaw or atypical femoral fractures. At the same time, bisphosphonates continue to have a therapeutic effect after therapy is discontinued.

Guidelines recommend that patients at low risk of fracture should therefore have a “drug holiday” after 3 to 5 years of bisphosphonate use and be reassessed 2 to 3 years later, largely based on the Fracture Intervention Trial Long-Term Extension (FLEX) study of alendronate. But risedronate has a shorter half-life, so it may provide shorter residual fracture protection.

Using Ontario administrative data, Dr. Hayes and associates identified more than 60,000 patients who were over aged 65, had received at least 3 years of continuous alendronate or risedronate, and had a subsequent 3-year drug holiday between 2000 and 2020.

They excluded patients who had a fracture or entered a nursing home within 120 days of starting a drug holiday who may have stopped the bisphosphonate due to declining health rather than a drug holiday.

Roughly half (55%) had been taking risedronate and 45% had been taking alendronate.

Using propensity scores, the researchers matched 25,077 patients who had been taking risedronate with an equal number who had been taking alendronate.

Most of the patients were women (82%) and were White.

They started the drug holiday when they were on average 81 years old, after taking the bisphosphonate for 5.9 years on average.

During the 3-year drug holiday, 915 of the 50,154 patients had hip fractures.

This was equivalent to 12.4 hip fractures per 1,000 patients per year during a risedronate holiday and 10.6 hip fractures per 1,000 patients per year during an alendronate holiday (hazard ratio, 1.18).  

The risk of hip fracture was not significantly higher at 1 year (HR, 1.03) or at 2 years of a risedronate holiday versus an alendronate holiday (HR, 1.14).

However, the risk of a hip fracture was significantly higher at 2 to 3 years of a risedronate holiday than after an alendronate holiday (HR, 1.34). 

There was no significant difference in the risk of any osteoporotic fracture overall (including hip, vertebrae, pelvis, ribs, forearm), however, during a 3-year risedronate versus alendronate drug holiday (HR, 1.07).

The research was supported by the Canadian Institutes of Health Research and Institute for Clinical Evaluative Sciences. Dr. Hayes was supported by a CIHR doctoral research award. The authors have reported no relevant financial relationships.

A version of this article first appeared on Medscape.com.

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Researchers found a small but greater risk of a hip fracture after 2 years of taking a “drug holiday” – stopping therapy – after long-term (≥3-year) use of one bisphosphonate, risedronate, versus another, alendronate.   

The risk of a hip fracture after stopping either of these oral bisphosphonate osteoporosis drugs was similar until 2 years, suggesting that patients who take a drug holiday from risedronate should be revaluated before 2 years.

These top-line findings from a propensity-matched cohort study of older patients in Ontario, Canada, were reported at the annual American Society of Bone and Mineral Research (ASBMR) last fall.

The full study, led by Kaleen N. Hayes, PharmD, PhD, Brown University School of Public Health, Providence, R.I., was published online in the Annals of Internal Medicine.

“We emphasize that our results do not indicate that alendronate therapy should be preferred over risedronate therapy,” the researchers stress, as several real-world studies found a similar risk of fractures while patients were receiving either drug.

“The decision to initiate alendronate or risedronate therapy [the two most commonly prescribed bisphosphonates] is driven by the prescriber,” they note, adding that some patients may prefer risedronate because it is available as a monthly dose or a weekly delayed-release formula that does not require fasting. 

“We found little difference in the association between risedronate versus alendronate drug holidays and hip fractures until approximately 2 years of not receiving therapy,” Dr. Hayes and colleagues summarize.

Over 3 years, risedronate drug holidays were associated with an 18% relative and 0.6% absolute increased risk for hip fracture compared with alendronate drug holidays.

“To further inform clinical decision-making on drug holidays,” they conclude, “future research should examine when to start and restart osteoporosis therapy on the basis of initial length and type of treatment, patient characteristics, and relative risk for hip fractures versus [atypical femoral fracture].”
 

Hip fracture risk with risedronate vs. alendronate drug holiday

Long-term bisphosphonate use is associated with a rare risk of osteonecrosis of the jaw or atypical femoral fractures. At the same time, bisphosphonates continue to have a therapeutic effect after therapy is discontinued.

Guidelines recommend that patients at low risk of fracture should therefore have a “drug holiday” after 3 to 5 years of bisphosphonate use and be reassessed 2 to 3 years later, largely based on the Fracture Intervention Trial Long-Term Extension (FLEX) study of alendronate. But risedronate has a shorter half-life, so it may provide shorter residual fracture protection.

Using Ontario administrative data, Dr. Hayes and associates identified more than 60,000 patients who were over aged 65, had received at least 3 years of continuous alendronate or risedronate, and had a subsequent 3-year drug holiday between 2000 and 2020.

They excluded patients who had a fracture or entered a nursing home within 120 days of starting a drug holiday who may have stopped the bisphosphonate due to declining health rather than a drug holiday.

Roughly half (55%) had been taking risedronate and 45% had been taking alendronate.

Using propensity scores, the researchers matched 25,077 patients who had been taking risedronate with an equal number who had been taking alendronate.

Most of the patients were women (82%) and were White.

They started the drug holiday when they were on average 81 years old, after taking the bisphosphonate for 5.9 years on average.

During the 3-year drug holiday, 915 of the 50,154 patients had hip fractures.

This was equivalent to 12.4 hip fractures per 1,000 patients per year during a risedronate holiday and 10.6 hip fractures per 1,000 patients per year during an alendronate holiday (hazard ratio, 1.18).  

The risk of hip fracture was not significantly higher at 1 year (HR, 1.03) or at 2 years of a risedronate holiday versus an alendronate holiday (HR, 1.14).

However, the risk of a hip fracture was significantly higher at 2 to 3 years of a risedronate holiday than after an alendronate holiday (HR, 1.34). 

There was no significant difference in the risk of any osteoporotic fracture overall (including hip, vertebrae, pelvis, ribs, forearm), however, during a 3-year risedronate versus alendronate drug holiday (HR, 1.07).

The research was supported by the Canadian Institutes of Health Research and Institute for Clinical Evaluative Sciences. Dr. Hayes was supported by a CIHR doctoral research award. The authors have reported no relevant financial relationships.

A version of this article first appeared on Medscape.com.

Researchers found a small but greater risk of a hip fracture after 2 years of taking a “drug holiday” – stopping therapy – after long-term (≥3-year) use of one bisphosphonate, risedronate, versus another, alendronate.   

The risk of a hip fracture after stopping either of these oral bisphosphonate osteoporosis drugs was similar until 2 years, suggesting that patients who take a drug holiday from risedronate should be revaluated before 2 years.

These top-line findings from a propensity-matched cohort study of older patients in Ontario, Canada, were reported at the annual American Society of Bone and Mineral Research (ASBMR) last fall.

The full study, led by Kaleen N. Hayes, PharmD, PhD, Brown University School of Public Health, Providence, R.I., was published online in the Annals of Internal Medicine.

“We emphasize that our results do not indicate that alendronate therapy should be preferred over risedronate therapy,” the researchers stress, as several real-world studies found a similar risk of fractures while patients were receiving either drug.

“The decision to initiate alendronate or risedronate therapy [the two most commonly prescribed bisphosphonates] is driven by the prescriber,” they note, adding that some patients may prefer risedronate because it is available as a monthly dose or a weekly delayed-release formula that does not require fasting. 

“We found little difference in the association between risedronate versus alendronate drug holidays and hip fractures until approximately 2 years of not receiving therapy,” Dr. Hayes and colleagues summarize.

Over 3 years, risedronate drug holidays were associated with an 18% relative and 0.6% absolute increased risk for hip fracture compared with alendronate drug holidays.

“To further inform clinical decision-making on drug holidays,” they conclude, “future research should examine when to start and restart osteoporosis therapy on the basis of initial length and type of treatment, patient characteristics, and relative risk for hip fractures versus [atypical femoral fracture].”
 

Hip fracture risk with risedronate vs. alendronate drug holiday

Long-term bisphosphonate use is associated with a rare risk of osteonecrosis of the jaw or atypical femoral fractures. At the same time, bisphosphonates continue to have a therapeutic effect after therapy is discontinued.

Guidelines recommend that patients at low risk of fracture should therefore have a “drug holiday” after 3 to 5 years of bisphosphonate use and be reassessed 2 to 3 years later, largely based on the Fracture Intervention Trial Long-Term Extension (FLEX) study of alendronate. But risedronate has a shorter half-life, so it may provide shorter residual fracture protection.

Using Ontario administrative data, Dr. Hayes and associates identified more than 60,000 patients who were over aged 65, had received at least 3 years of continuous alendronate or risedronate, and had a subsequent 3-year drug holiday between 2000 and 2020.

They excluded patients who had a fracture or entered a nursing home within 120 days of starting a drug holiday who may have stopped the bisphosphonate due to declining health rather than a drug holiday.

Roughly half (55%) had been taking risedronate and 45% had been taking alendronate.

Using propensity scores, the researchers matched 25,077 patients who had been taking risedronate with an equal number who had been taking alendronate.

Most of the patients were women (82%) and were White.

They started the drug holiday when they were on average 81 years old, after taking the bisphosphonate for 5.9 years on average.

During the 3-year drug holiday, 915 of the 50,154 patients had hip fractures.

This was equivalent to 12.4 hip fractures per 1,000 patients per year during a risedronate holiday and 10.6 hip fractures per 1,000 patients per year during an alendronate holiday (hazard ratio, 1.18).  

The risk of hip fracture was not significantly higher at 1 year (HR, 1.03) or at 2 years of a risedronate holiday versus an alendronate holiday (HR, 1.14).

However, the risk of a hip fracture was significantly higher at 2 to 3 years of a risedronate holiday than after an alendronate holiday (HR, 1.34). 

There was no significant difference in the risk of any osteoporotic fracture overall (including hip, vertebrae, pelvis, ribs, forearm), however, during a 3-year risedronate versus alendronate drug holiday (HR, 1.07).

The research was supported by the Canadian Institutes of Health Research and Institute for Clinical Evaluative Sciences. Dr. Hayes was supported by a CIHR doctoral research award. The authors have reported no relevant financial relationships.

A version of this article first appeared on Medscape.com.

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Health issues in women midlife linked with health decline at 65

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Having specific health issues, including depressive symptoms and cardiovascular disease, as a middle-aged woman was associated with experiencing clinically important declines in health later in life, a new study finds.

The most predictive parameters of poorer health at age 65 were cardiovascular disease, clinically significant depressive symptoms, and current smoking. Osteoarthritis, lower education level, and higher body mass index (BMI) also were associated with poorer health status 10 years on, Daniel H. Solomon, MD, MPH and colleagues wrote in their observational study, which was published in JAMA Network Open.

Dr. Daniel H. Solomon

Determining a patient’s score on a health-related quality of life measure based on these variables might be useful in clinical practice to recognize midlife patients at increased risk for later health deterioration, Dr. Solomon, of the division of rheumatology, inflammation, and immunity at Brigham and Women’s Hospital, Boston, said in a statement. This measure is called the Short Form 36 (SF-36), and the researchers specifically focused on the physical component summary score (PCS) of this measure. The SF-36 is similar to the Framingham 10-year coronary heart disease risk prediction score, according to Dr. Solomon, who is a professor of medicine at Harvard Medical School, also in Boston.

Based on their risk scores, women could preemptively target modifiable risk factors before they enter old age, the investigators wrote.

“Age 55-65 may be a critical decade. A person’s health and factors during this period may set them on a path for their later adult years,” Dr. Solomon said in a statement. “The good news is that a large proportion of women at midlife are very stable and will not go on to experience declines. But being able to identify women at higher risk could help lead to interventions targeted to them.”
 

Study details

The study included a cohort of 1,091 women drawn from the 3,302-participant Study of Women’s Health Across the Nation (SWAN), a racially and ethnically diverse group enrolled from six U.S. sites at or immediately before transition to menopause and followed for 10 years from age 55 to 65. The study sample, consisting of 24.6% Black, 24% Japanese or Chinese, and 51.9% White, had a median baseline age of 54.8 years and median BMI of 27 kg/m2 at entry. The median baseline PCS score was 53.1 (interquartile range, 46.8-56.7).

Over 10 years, 206 (18.9%) of the women in the study experienced clinically important declines of at least 8 points in baseline characteristics at around age 55. The following were significantly associated with these declines:

  • Having a higher BMI.
  • Having osteoarthritis.
  • Having a lower educational level.
  • Being a current smoker.
  • Having clinically significant depressive symptoms.
  • Having cardiovascular disease.
  • Having better (or higher) physical health and function score on the PCS.

The association between a higher PCS score and a greater decline might seem like an anomaly, Dr. Solomon said in an interview, but one interpretation of this finding is that women with higher or better scores at baseline have further to fall once other risk factors take effect.

With data analyzed from October 2020 to March 2021, the median 10-year change in PCS was –1.02 points, but 206 women experienced declines of 8 points or more.

Those with health declines were more likely to be Black and less likely to be Japanese. They were also more likely to have other comorbidities such as diabetes, hypertension, and osteoporosis, and to report less physical activity.
 

 

 

Scoring system should not replace individualized evaluation, outside expert said

Commenting on the findings, Margaret J. Nachtigall, MD, a clinical associate professor in the department of obstetrics and gynecology at New York University Langone Health, cautioned that a generalized scoring system should not replace individualized evaluation of women at midlife.

Dr. Margaret J. Nachtigall

“I assess women around age 55 on a daily basis for health risk factors going forward. And while a number such as BMI can be helpful, I worry that reliance on a score could miss treating the individual,” Dr. Nachtigall said an interview. For instance, one woman might have a high BMI owing to greater muscle mass, which is heavy, while another may have a lower BMI but more fat-related weight, as well as exacerbating conditions such as hypertension that would elevate her risk. “You have to make the calculation for each person.”

Dr. Nachtigall, who was not involved in the SWAN analysis, noted, however, that a big-data scoring system might be a useful adjunct to individual patient evaluation in that “it would make physicians look at all these many risk factors to identify those prone to decline.”
 

Study includes racially diverse population

According to the authors, while other studies have identified similar and other risk factors such as poor sleep, most have not included such a racially diverse population and have focused on women already in their senior years when the window of opportunity may already have closed.

“As a clinician and epidemiologist, I often think about the window of opportunity at midlife, when people are vital, engaged, and resilient,” said Dr. Solomon in the statement. “If we can identify risk factors and determine who is at risk, we may be able to find interventions that can stave off health declines and help put people on a better health trajectory.”

Dr. Eric M. Ascher

Eric M. Ascher, DO, who practices family medicine at Lenox Hill Hospital in New York and was not involved in the SWAN research, agreed with Dr. Solomon.

“Doctors who treat chronic conditions often meet patients when they are already suffering from a medical problem,” he said in an interview. “It is key to decrease your risk factors before it is too late.”

Dr. Ascher added that many primary care providers already rely heavily on scoring systems when determining level of risk and type of intervention. “Any additional risk factor-scoring systems that are easy to implement and will prevent chronic diseases would be something providers would want to use with their patients.”

Detailed analyses of larger at-risk populations are needed to validate these risk factors and identify others, the authors said.

SWAN is supported by the National Institute on Aging, the National Institute of Nursing Research, and the National Institutes of Heath’s Office of Research on Women’s Health. Dr. Solomon reported financial ties to Amgen, AbbVie and Moderna, UpToDate, and Arthritis & Rheumatology; as well as serving on the board of directors for the Childhood Arthritis and Rheumatology Research Alliance and an advisory committee for the Food and Drug Administration outside of this work. Dr. Nachtigall and Dr. Ascher disclosed no conflicts of interest with regard to their comments.

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Having specific health issues, including depressive symptoms and cardiovascular disease, as a middle-aged woman was associated with experiencing clinically important declines in health later in life, a new study finds.

The most predictive parameters of poorer health at age 65 were cardiovascular disease, clinically significant depressive symptoms, and current smoking. Osteoarthritis, lower education level, and higher body mass index (BMI) also were associated with poorer health status 10 years on, Daniel H. Solomon, MD, MPH and colleagues wrote in their observational study, which was published in JAMA Network Open.

Dr. Daniel H. Solomon

Determining a patient’s score on a health-related quality of life measure based on these variables might be useful in clinical practice to recognize midlife patients at increased risk for later health deterioration, Dr. Solomon, of the division of rheumatology, inflammation, and immunity at Brigham and Women’s Hospital, Boston, said in a statement. This measure is called the Short Form 36 (SF-36), and the researchers specifically focused on the physical component summary score (PCS) of this measure. The SF-36 is similar to the Framingham 10-year coronary heart disease risk prediction score, according to Dr. Solomon, who is a professor of medicine at Harvard Medical School, also in Boston.

Based on their risk scores, women could preemptively target modifiable risk factors before they enter old age, the investigators wrote.

“Age 55-65 may be a critical decade. A person’s health and factors during this period may set them on a path for their later adult years,” Dr. Solomon said in a statement. “The good news is that a large proportion of women at midlife are very stable and will not go on to experience declines. But being able to identify women at higher risk could help lead to interventions targeted to them.”
 

Study details

The study included a cohort of 1,091 women drawn from the 3,302-participant Study of Women’s Health Across the Nation (SWAN), a racially and ethnically diverse group enrolled from six U.S. sites at or immediately before transition to menopause and followed for 10 years from age 55 to 65. The study sample, consisting of 24.6% Black, 24% Japanese or Chinese, and 51.9% White, had a median baseline age of 54.8 years and median BMI of 27 kg/m2 at entry. The median baseline PCS score was 53.1 (interquartile range, 46.8-56.7).

Over 10 years, 206 (18.9%) of the women in the study experienced clinically important declines of at least 8 points in baseline characteristics at around age 55. The following were significantly associated with these declines:

  • Having a higher BMI.
  • Having osteoarthritis.
  • Having a lower educational level.
  • Being a current smoker.
  • Having clinically significant depressive symptoms.
  • Having cardiovascular disease.
  • Having better (or higher) physical health and function score on the PCS.

The association between a higher PCS score and a greater decline might seem like an anomaly, Dr. Solomon said in an interview, but one interpretation of this finding is that women with higher or better scores at baseline have further to fall once other risk factors take effect.

With data analyzed from October 2020 to March 2021, the median 10-year change in PCS was –1.02 points, but 206 women experienced declines of 8 points or more.

Those with health declines were more likely to be Black and less likely to be Japanese. They were also more likely to have other comorbidities such as diabetes, hypertension, and osteoporosis, and to report less physical activity.
 

 

 

Scoring system should not replace individualized evaluation, outside expert said

Commenting on the findings, Margaret J. Nachtigall, MD, a clinical associate professor in the department of obstetrics and gynecology at New York University Langone Health, cautioned that a generalized scoring system should not replace individualized evaluation of women at midlife.

Dr. Margaret J. Nachtigall

“I assess women around age 55 on a daily basis for health risk factors going forward. And while a number such as BMI can be helpful, I worry that reliance on a score could miss treating the individual,” Dr. Nachtigall said an interview. For instance, one woman might have a high BMI owing to greater muscle mass, which is heavy, while another may have a lower BMI but more fat-related weight, as well as exacerbating conditions such as hypertension that would elevate her risk. “You have to make the calculation for each person.”

Dr. Nachtigall, who was not involved in the SWAN analysis, noted, however, that a big-data scoring system might be a useful adjunct to individual patient evaluation in that “it would make physicians look at all these many risk factors to identify those prone to decline.”
 

Study includes racially diverse population

According to the authors, while other studies have identified similar and other risk factors such as poor sleep, most have not included such a racially diverse population and have focused on women already in their senior years when the window of opportunity may already have closed.

“As a clinician and epidemiologist, I often think about the window of opportunity at midlife, when people are vital, engaged, and resilient,” said Dr. Solomon in the statement. “If we can identify risk factors and determine who is at risk, we may be able to find interventions that can stave off health declines and help put people on a better health trajectory.”

Dr. Eric M. Ascher

Eric M. Ascher, DO, who practices family medicine at Lenox Hill Hospital in New York and was not involved in the SWAN research, agreed with Dr. Solomon.

“Doctors who treat chronic conditions often meet patients when they are already suffering from a medical problem,” he said in an interview. “It is key to decrease your risk factors before it is too late.”

Dr. Ascher added that many primary care providers already rely heavily on scoring systems when determining level of risk and type of intervention. “Any additional risk factor-scoring systems that are easy to implement and will prevent chronic diseases would be something providers would want to use with their patients.”

Detailed analyses of larger at-risk populations are needed to validate these risk factors and identify others, the authors said.

SWAN is supported by the National Institute on Aging, the National Institute of Nursing Research, and the National Institutes of Heath’s Office of Research on Women’s Health. Dr. Solomon reported financial ties to Amgen, AbbVie and Moderna, UpToDate, and Arthritis & Rheumatology; as well as serving on the board of directors for the Childhood Arthritis and Rheumatology Research Alliance and an advisory committee for the Food and Drug Administration outside of this work. Dr. Nachtigall and Dr. Ascher disclosed no conflicts of interest with regard to their comments.

Having specific health issues, including depressive symptoms and cardiovascular disease, as a middle-aged woman was associated with experiencing clinically important declines in health later in life, a new study finds.

The most predictive parameters of poorer health at age 65 were cardiovascular disease, clinically significant depressive symptoms, and current smoking. Osteoarthritis, lower education level, and higher body mass index (BMI) also were associated with poorer health status 10 years on, Daniel H. Solomon, MD, MPH and colleagues wrote in their observational study, which was published in JAMA Network Open.

Dr. Daniel H. Solomon

Determining a patient’s score on a health-related quality of life measure based on these variables might be useful in clinical practice to recognize midlife patients at increased risk for later health deterioration, Dr. Solomon, of the division of rheumatology, inflammation, and immunity at Brigham and Women’s Hospital, Boston, said in a statement. This measure is called the Short Form 36 (SF-36), and the researchers specifically focused on the physical component summary score (PCS) of this measure. The SF-36 is similar to the Framingham 10-year coronary heart disease risk prediction score, according to Dr. Solomon, who is a professor of medicine at Harvard Medical School, also in Boston.

Based on their risk scores, women could preemptively target modifiable risk factors before they enter old age, the investigators wrote.

“Age 55-65 may be a critical decade. A person’s health and factors during this period may set them on a path for their later adult years,” Dr. Solomon said in a statement. “The good news is that a large proportion of women at midlife are very stable and will not go on to experience declines. But being able to identify women at higher risk could help lead to interventions targeted to them.”
 

Study details

The study included a cohort of 1,091 women drawn from the 3,302-participant Study of Women’s Health Across the Nation (SWAN), a racially and ethnically diverse group enrolled from six U.S. sites at or immediately before transition to menopause and followed for 10 years from age 55 to 65. The study sample, consisting of 24.6% Black, 24% Japanese or Chinese, and 51.9% White, had a median baseline age of 54.8 years and median BMI of 27 kg/m2 at entry. The median baseline PCS score was 53.1 (interquartile range, 46.8-56.7).

Over 10 years, 206 (18.9%) of the women in the study experienced clinically important declines of at least 8 points in baseline characteristics at around age 55. The following were significantly associated with these declines:

  • Having a higher BMI.
  • Having osteoarthritis.
  • Having a lower educational level.
  • Being a current smoker.
  • Having clinically significant depressive symptoms.
  • Having cardiovascular disease.
  • Having better (or higher) physical health and function score on the PCS.

The association between a higher PCS score and a greater decline might seem like an anomaly, Dr. Solomon said in an interview, but one interpretation of this finding is that women with higher or better scores at baseline have further to fall once other risk factors take effect.

With data analyzed from October 2020 to March 2021, the median 10-year change in PCS was –1.02 points, but 206 women experienced declines of 8 points or more.

Those with health declines were more likely to be Black and less likely to be Japanese. They were also more likely to have other comorbidities such as diabetes, hypertension, and osteoporosis, and to report less physical activity.
 

 

 

Scoring system should not replace individualized evaluation, outside expert said

Commenting on the findings, Margaret J. Nachtigall, MD, a clinical associate professor in the department of obstetrics and gynecology at New York University Langone Health, cautioned that a generalized scoring system should not replace individualized evaluation of women at midlife.

Dr. Margaret J. Nachtigall

“I assess women around age 55 on a daily basis for health risk factors going forward. And while a number such as BMI can be helpful, I worry that reliance on a score could miss treating the individual,” Dr. Nachtigall said an interview. For instance, one woman might have a high BMI owing to greater muscle mass, which is heavy, while another may have a lower BMI but more fat-related weight, as well as exacerbating conditions such as hypertension that would elevate her risk. “You have to make the calculation for each person.”

Dr. Nachtigall, who was not involved in the SWAN analysis, noted, however, that a big-data scoring system might be a useful adjunct to individual patient evaluation in that “it would make physicians look at all these many risk factors to identify those prone to decline.”
 

Study includes racially diverse population

According to the authors, while other studies have identified similar and other risk factors such as poor sleep, most have not included such a racially diverse population and have focused on women already in their senior years when the window of opportunity may already have closed.

“As a clinician and epidemiologist, I often think about the window of opportunity at midlife, when people are vital, engaged, and resilient,” said Dr. Solomon in the statement. “If we can identify risk factors and determine who is at risk, we may be able to find interventions that can stave off health declines and help put people on a better health trajectory.”

Dr. Eric M. Ascher

Eric M. Ascher, DO, who practices family medicine at Lenox Hill Hospital in New York and was not involved in the SWAN research, agreed with Dr. Solomon.

“Doctors who treat chronic conditions often meet patients when they are already suffering from a medical problem,” he said in an interview. “It is key to decrease your risk factors before it is too late.”

Dr. Ascher added that many primary care providers already rely heavily on scoring systems when determining level of risk and type of intervention. “Any additional risk factor-scoring systems that are easy to implement and will prevent chronic diseases would be something providers would want to use with their patients.”

Detailed analyses of larger at-risk populations are needed to validate these risk factors and identify others, the authors said.

SWAN is supported by the National Institute on Aging, the National Institute of Nursing Research, and the National Institutes of Heath’s Office of Research on Women’s Health. Dr. Solomon reported financial ties to Amgen, AbbVie and Moderna, UpToDate, and Arthritis & Rheumatology; as well as serving on the board of directors for the Childhood Arthritis and Rheumatology Research Alliance and an advisory committee for the Food and Drug Administration outside of this work. Dr. Nachtigall and Dr. Ascher disclosed no conflicts of interest with regard to their comments.

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Midlife cardiovascular conditions tied to greater cognitive decline in women

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Even though men in midlife have more cardiovascular (CV) conditions and risk factors than women of the same age, women are more affected by these conditions in terms of cognitive decline, new research suggests.

Analyses of almost 1,400 participants in the population-based Mayo Clinic Study of Aging showed that diabetes, dyslipidemia, and coronary heart disease (CHD) all had stronger associations with global cognitive decline in women than in men.

“All men and women should be treated for cardiovascular risk factors and conditions, but this study really highlights the importance of very early and perhaps more aggressive treatment in women with these conditions,” co-investigator Michelle M. Mielke, PhD, professor of epidemiology and neurology, Mayo Clinic, Rochester, Minn., told this news organization.

The findings were published online Jan. 5 in Neurology.
 

Assessing sex differences

Most previous studies in this area have focused on CV risk factors in midlife in relation to late-life dementia (after age 75) or on late-life vascular risk factors and late-life dementia, Dr. Mielke noted.

However, a few recent studies have suggested vascular risk factors can affect cognition even in midlife. The current investigators sought to determine whether there are sex differences in these associations.

They assessed 1,857 nondemented participants aged 50 to 69 years from the Mayo Clinic Study on Aging. The mean education level was 14.9 years, and the mean body mass index (BMI) was 29.7.

Among the participants, 78.9% had at least one CV condition or risk factor, and the proportion was higher in men than women (83.4% vs. 74.5%; P < .0001).

Frequency of each individual CV condition or risk factor was also higher in men than women, and they had more years of education and higher BMI but took fewer medications.

Every 15 months, participants had an in-person interview and physical examination that included a neurologic assessment and short test of memory.

The neuropsychological battery included nine tests across four domains: memory, language, executive function, and visuospatial skills. Researchers calculated z-scores for these domains and for global cognition.
 

Multiple cognitive domains

Whereas this study evaluated multiple cognitive domains, most previous research has focused on global cognitive decline and/or decline in only one or two cognitive domains, the investigators note.

They collected information from medical records on CV conditions such as CHD, arrhythmias, congestive heart failure, peripheral vascular disease (PVD), and stroke; and CV risk factors such as hypertension, diabetes, dyslipidemia, smoking status, and BMI.

Because of the small number of patients with stroke and PVD, these were classified as “other cardiovascular conditions” in the statistical analysis.

Researchers adjusted for sex, age, years of education, depressive symptoms, comorbidities, medications, and apolipoprotein E (APOE) genotyping. The mean follow-up was 3 years and did not differ by sex.

As some participants didn’t have a follow-up visit, the current analysis included 1,394 individuals. Those without follow-up visits were younger, had less education and more comorbidities, and took more medications compared with those with a follow-up.

Results showed most CV conditions were more strongly associated with cognitive function among women than men. For example, CHD was associated with global decline only in women (P < .05).

CHD, diabetes, and dyslipidemia were associated with language decline in women only (all, P < .05), but congestive heart failure was significantly associated with language decline in men only.

Dr. Mielke cautioned about reading too much into the language results for women.

“It’s an intriguing finding and definitely we need to follow up on it,” she said. However, “more studies are needed to examine sex differences before we start saying it only has an effect on language.”
 

 

 

‘Treat aggressively and right away’

The researchers were somewhat surprised by the study findings. Because there is a higher prevalence of CV conditions and risk factors in men, they presumed men would be more affected by these conditions, said Dr. Mielke.

“But that’s not what we saw; we saw the reverse. It was actually the women who were affected more by these cardiovascular risk factors and conditions,” she said.

As midlife is when women enter menopause, fluctuating estrogen levels may help explain the differential impact on cognition among women. But Dr. Mielke said she wants to “move beyond” just looking at hormones.

She pointed out there are a variety of psychosocial factors that may also contribute to an imbalance in the cognitive impact of CV conditions on women.

“Midlife is when many women are still taking care of their children at home, are also taking care of their adult parents, and may be undergoing more stress while continuing to do a job,” Dr. Miekle said.

Structural brain development and genetics may also contribute to the greater effect on cognition in women, the investigators note.

Dr. Mielke stressed that the current study only identifies associations. “The next steps are to understand what some of the underlying mechanisms for this are,” she said.

In the meantime, these new results suggest middle-aged women with high blood pressure, cholesterol, or glucose measures “should be treated aggressively and right away” said Dr. Mielke.

“For example, for women who are just starting to become hypertensive, clinicians should treat them right away and not watch and wait.”

Study limitations cited include that its sample was limited to Olmsted County, Minnesota – so results may not be generalized to other populations. Also, as researchers combined PVD and stroke into one group, larger sample sizes are needed, especially for stroke. Another limitation was the study did not have information on duration of all CV conditions or risk factors.
 

Helpful for tailoring interventions?

Commenting on the study, Glen R. Finney, MD, director, Memory and Cognition Program, Geisinger Health Clinic, Wilkes-Barre, Pennsylvania, said the results are important.

“The more we understand about risk factors for the development of Alzheimer’s disease and related dementias, the better we understand how we can reduce the risks,” said Dr. Finney, who was not involved with the research.

Awareness that CV conditions are major risk factors in midlife has been “definitely rising,” said Dr. Finney. “Many studies originally were looking at late life and are now looking more at earlier in the disease process, and I think that’s important.”

Understanding how sex, ethnicity, and other demographic variables affect risks can help to “tailor interventions” for individual patients, he said.

The study was supported by the National Institutes of Health, the GHR Foundation, and the Rochester Epidemiology Project. Dr. Mielke is a consultant for Biogen and Brain Protection Company and is on the editorial boards of Neurology and Alzheimer’s and Dementia. Dr. Finney has reported no relevant financial relationships.

A version of this article first appeared on Medscape.com.

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Even though men in midlife have more cardiovascular (CV) conditions and risk factors than women of the same age, women are more affected by these conditions in terms of cognitive decline, new research suggests.

Analyses of almost 1,400 participants in the population-based Mayo Clinic Study of Aging showed that diabetes, dyslipidemia, and coronary heart disease (CHD) all had stronger associations with global cognitive decline in women than in men.

“All men and women should be treated for cardiovascular risk factors and conditions, but this study really highlights the importance of very early and perhaps more aggressive treatment in women with these conditions,” co-investigator Michelle M. Mielke, PhD, professor of epidemiology and neurology, Mayo Clinic, Rochester, Minn., told this news organization.

The findings were published online Jan. 5 in Neurology.
 

Assessing sex differences

Most previous studies in this area have focused on CV risk factors in midlife in relation to late-life dementia (after age 75) or on late-life vascular risk factors and late-life dementia, Dr. Mielke noted.

However, a few recent studies have suggested vascular risk factors can affect cognition even in midlife. The current investigators sought to determine whether there are sex differences in these associations.

They assessed 1,857 nondemented participants aged 50 to 69 years from the Mayo Clinic Study on Aging. The mean education level was 14.9 years, and the mean body mass index (BMI) was 29.7.

Among the participants, 78.9% had at least one CV condition or risk factor, and the proportion was higher in men than women (83.4% vs. 74.5%; P < .0001).

Frequency of each individual CV condition or risk factor was also higher in men than women, and they had more years of education and higher BMI but took fewer medications.

Every 15 months, participants had an in-person interview and physical examination that included a neurologic assessment and short test of memory.

The neuropsychological battery included nine tests across four domains: memory, language, executive function, and visuospatial skills. Researchers calculated z-scores for these domains and for global cognition.
 

Multiple cognitive domains

Whereas this study evaluated multiple cognitive domains, most previous research has focused on global cognitive decline and/or decline in only one or two cognitive domains, the investigators note.

They collected information from medical records on CV conditions such as CHD, arrhythmias, congestive heart failure, peripheral vascular disease (PVD), and stroke; and CV risk factors such as hypertension, diabetes, dyslipidemia, smoking status, and BMI.

Because of the small number of patients with stroke and PVD, these were classified as “other cardiovascular conditions” in the statistical analysis.

Researchers adjusted for sex, age, years of education, depressive symptoms, comorbidities, medications, and apolipoprotein E (APOE) genotyping. The mean follow-up was 3 years and did not differ by sex.

As some participants didn’t have a follow-up visit, the current analysis included 1,394 individuals. Those without follow-up visits were younger, had less education and more comorbidities, and took more medications compared with those with a follow-up.

Results showed most CV conditions were more strongly associated with cognitive function among women than men. For example, CHD was associated with global decline only in women (P < .05).

CHD, diabetes, and dyslipidemia were associated with language decline in women only (all, P < .05), but congestive heart failure was significantly associated with language decline in men only.

Dr. Mielke cautioned about reading too much into the language results for women.

“It’s an intriguing finding and definitely we need to follow up on it,” she said. However, “more studies are needed to examine sex differences before we start saying it only has an effect on language.”
 

 

 

‘Treat aggressively and right away’

The researchers were somewhat surprised by the study findings. Because there is a higher prevalence of CV conditions and risk factors in men, they presumed men would be more affected by these conditions, said Dr. Mielke.

“But that’s not what we saw; we saw the reverse. It was actually the women who were affected more by these cardiovascular risk factors and conditions,” she said.

As midlife is when women enter menopause, fluctuating estrogen levels may help explain the differential impact on cognition among women. But Dr. Mielke said she wants to “move beyond” just looking at hormones.

She pointed out there are a variety of psychosocial factors that may also contribute to an imbalance in the cognitive impact of CV conditions on women.

“Midlife is when many women are still taking care of their children at home, are also taking care of their adult parents, and may be undergoing more stress while continuing to do a job,” Dr. Miekle said.

Structural brain development and genetics may also contribute to the greater effect on cognition in women, the investigators note.

Dr. Mielke stressed that the current study only identifies associations. “The next steps are to understand what some of the underlying mechanisms for this are,” she said.

In the meantime, these new results suggest middle-aged women with high blood pressure, cholesterol, or glucose measures “should be treated aggressively and right away” said Dr. Mielke.

“For example, for women who are just starting to become hypertensive, clinicians should treat them right away and not watch and wait.”

Study limitations cited include that its sample was limited to Olmsted County, Minnesota – so results may not be generalized to other populations. Also, as researchers combined PVD and stroke into one group, larger sample sizes are needed, especially for stroke. Another limitation was the study did not have information on duration of all CV conditions or risk factors.
 

Helpful for tailoring interventions?

Commenting on the study, Glen R. Finney, MD, director, Memory and Cognition Program, Geisinger Health Clinic, Wilkes-Barre, Pennsylvania, said the results are important.

“The more we understand about risk factors for the development of Alzheimer’s disease and related dementias, the better we understand how we can reduce the risks,” said Dr. Finney, who was not involved with the research.

Awareness that CV conditions are major risk factors in midlife has been “definitely rising,” said Dr. Finney. “Many studies originally were looking at late life and are now looking more at earlier in the disease process, and I think that’s important.”

Understanding how sex, ethnicity, and other demographic variables affect risks can help to “tailor interventions” for individual patients, he said.

The study was supported by the National Institutes of Health, the GHR Foundation, and the Rochester Epidemiology Project. Dr. Mielke is a consultant for Biogen and Brain Protection Company and is on the editorial boards of Neurology and Alzheimer’s and Dementia. Dr. Finney has reported no relevant financial relationships.

A version of this article first appeared on Medscape.com.

Even though men in midlife have more cardiovascular (CV) conditions and risk factors than women of the same age, women are more affected by these conditions in terms of cognitive decline, new research suggests.

Analyses of almost 1,400 participants in the population-based Mayo Clinic Study of Aging showed that diabetes, dyslipidemia, and coronary heart disease (CHD) all had stronger associations with global cognitive decline in women than in men.

“All men and women should be treated for cardiovascular risk factors and conditions, but this study really highlights the importance of very early and perhaps more aggressive treatment in women with these conditions,” co-investigator Michelle M. Mielke, PhD, professor of epidemiology and neurology, Mayo Clinic, Rochester, Minn., told this news organization.

The findings were published online Jan. 5 in Neurology.
 

Assessing sex differences

Most previous studies in this area have focused on CV risk factors in midlife in relation to late-life dementia (after age 75) or on late-life vascular risk factors and late-life dementia, Dr. Mielke noted.

However, a few recent studies have suggested vascular risk factors can affect cognition even in midlife. The current investigators sought to determine whether there are sex differences in these associations.

They assessed 1,857 nondemented participants aged 50 to 69 years from the Mayo Clinic Study on Aging. The mean education level was 14.9 years, and the mean body mass index (BMI) was 29.7.

Among the participants, 78.9% had at least one CV condition or risk factor, and the proportion was higher in men than women (83.4% vs. 74.5%; P < .0001).

Frequency of each individual CV condition or risk factor was also higher in men than women, and they had more years of education and higher BMI but took fewer medications.

Every 15 months, participants had an in-person interview and physical examination that included a neurologic assessment and short test of memory.

The neuropsychological battery included nine tests across four domains: memory, language, executive function, and visuospatial skills. Researchers calculated z-scores for these domains and for global cognition.
 

Multiple cognitive domains

Whereas this study evaluated multiple cognitive domains, most previous research has focused on global cognitive decline and/or decline in only one or two cognitive domains, the investigators note.

They collected information from medical records on CV conditions such as CHD, arrhythmias, congestive heart failure, peripheral vascular disease (PVD), and stroke; and CV risk factors such as hypertension, diabetes, dyslipidemia, smoking status, and BMI.

Because of the small number of patients with stroke and PVD, these were classified as “other cardiovascular conditions” in the statistical analysis.

Researchers adjusted for sex, age, years of education, depressive symptoms, comorbidities, medications, and apolipoprotein E (APOE) genotyping. The mean follow-up was 3 years and did not differ by sex.

As some participants didn’t have a follow-up visit, the current analysis included 1,394 individuals. Those without follow-up visits were younger, had less education and more comorbidities, and took more medications compared with those with a follow-up.

Results showed most CV conditions were more strongly associated with cognitive function among women than men. For example, CHD was associated with global decline only in women (P < .05).

CHD, diabetes, and dyslipidemia were associated with language decline in women only (all, P < .05), but congestive heart failure was significantly associated with language decline in men only.

Dr. Mielke cautioned about reading too much into the language results for women.

“It’s an intriguing finding and definitely we need to follow up on it,” she said. However, “more studies are needed to examine sex differences before we start saying it only has an effect on language.”
 

 

 

‘Treat aggressively and right away’

The researchers were somewhat surprised by the study findings. Because there is a higher prevalence of CV conditions and risk factors in men, they presumed men would be more affected by these conditions, said Dr. Mielke.

“But that’s not what we saw; we saw the reverse. It was actually the women who were affected more by these cardiovascular risk factors and conditions,” she said.

As midlife is when women enter menopause, fluctuating estrogen levels may help explain the differential impact on cognition among women. But Dr. Mielke said she wants to “move beyond” just looking at hormones.

She pointed out there are a variety of psychosocial factors that may also contribute to an imbalance in the cognitive impact of CV conditions on women.

“Midlife is when many women are still taking care of their children at home, are also taking care of their adult parents, and may be undergoing more stress while continuing to do a job,” Dr. Miekle said.

Structural brain development and genetics may also contribute to the greater effect on cognition in women, the investigators note.

Dr. Mielke stressed that the current study only identifies associations. “The next steps are to understand what some of the underlying mechanisms for this are,” she said.

In the meantime, these new results suggest middle-aged women with high blood pressure, cholesterol, or glucose measures “should be treated aggressively and right away” said Dr. Mielke.

“For example, for women who are just starting to become hypertensive, clinicians should treat them right away and not watch and wait.”

Study limitations cited include that its sample was limited to Olmsted County, Minnesota – so results may not be generalized to other populations. Also, as researchers combined PVD and stroke into one group, larger sample sizes are needed, especially for stroke. Another limitation was the study did not have information on duration of all CV conditions or risk factors.
 

Helpful for tailoring interventions?

Commenting on the study, Glen R. Finney, MD, director, Memory and Cognition Program, Geisinger Health Clinic, Wilkes-Barre, Pennsylvania, said the results are important.

“The more we understand about risk factors for the development of Alzheimer’s disease and related dementias, the better we understand how we can reduce the risks,” said Dr. Finney, who was not involved with the research.

Awareness that CV conditions are major risk factors in midlife has been “definitely rising,” said Dr. Finney. “Many studies originally were looking at late life and are now looking more at earlier in the disease process, and I think that’s important.”

Understanding how sex, ethnicity, and other demographic variables affect risks can help to “tailor interventions” for individual patients, he said.

The study was supported by the National Institutes of Health, the GHR Foundation, and the Rochester Epidemiology Project. Dr. Mielke is a consultant for Biogen and Brain Protection Company and is on the editorial boards of Neurology and Alzheimer’s and Dementia. Dr. Finney has reported no relevant financial relationships.

A version of this article first appeared on Medscape.com.

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At-home geriatric assessment offers cost-effective alternative to hospital

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Older adults who avoided hospital admission with at-home geriatric assessment and home-based care incurred significantly lower costs compared with those hospitalized, in a new study.

The comprehensive geriatric assessment (CGA) is an established strategy for guiding care of older adults in a hospital setting, but its use in other settings has not been well studied, Surya Singh, PhD, of the University of Oxford (England), and colleagues wrote in their paper published in Age and Ageing. Hospital at home is active treatment by health care professionals in the patient’s home for a condition that otherwise would require acute hospital inpatient care, for a limited time period.

Interest in providing health care in the home as an alternative to hospitalization is on the rise as a way to improve patient outcomes and reduce costs, but actual cost-effectiveness data on HAH interventions are limited, the authors said. “Wide scale implementation of such services has also been constrained by the practical difficulties of designing and delivering services that cut across primary and secondary care, might involve social care and require different workforce and funding arrangements.”

In this study, the researchers conducted a cost-effectiveness analysis alongside a randomized trial of an admission avoidance CGA hospital at home (CGAHAH) service as an alternative to hospital admission. They identified individuals aged 65 years and older who were living in the community but being considered for an unplanned hospital admission in the United Kingdom. A total of 700 individuals were randomized to CGAHAH and 355 to hospital care using a 2:1 ratio. Patients were assessed at baseline in the community or in an acute care setting before being transferred to CGAHAH service. These services included access to social workers, home care, district nursing, community rehabilitation, community mental health services and acute hospital services, such as diagnostic tests and transfer to hospital. The core workforce usually included consultant geriatricians, junior doctors, nurse practitioners, health care assistants or support workers, physiotherapists, occupational therapists, and community pharmacists. There were at least daily virtual ward rounds
 

Comparison between HAH and in-hospital groups

Patients in the CGAHAH group had a mean of 7.17 days of care, and those in hospital had a mean of 4.92 hospital days. At 6 months’ follow-up, the mean number of care days was 9.47 in the CGAHAH group and 10.58 in the hospital group, which was a nonsignificant difference.

“For complete cases, we found that allocation to CGAHAH resulted in 3 fewer days in hospital, a difference that was reduced to 1 day at 6 months follow-up,” the researchers wrote.

Overall, after adjusting for baseline variables, the health and social care costs after 6 months were less for CGAHAH than admission to hospital. The average cost differences between the two were approximately $3,000 or 2,265 pounds. The cost difference remained and increased to a mean difference of 2,840 pounds in favor of HAH after adding informal care/societal costs.

In addition, patients randomized to CGAHAH were less likely to have been admitted to long-term residential care at 6 months follow-up, compared with the hospital group; the mean days in residential care at 6 months were 3.43 and 6.14, respectively.

Both groups showed an approximate 15% decrease in measures of quality of life from baseline to 6 months, and no differences were noted in quality-adjusted survival between the groups.
 

Pandemic ‘has accelerated interest’ in HAH

“Health systems around the world are exploring alternatives to hospital admission, such as hospital at home, to act as a buffer to the increasing demand for hospital care,” corresponding author Sasha Shepperd, MSc, DPhil, said in an interview. “This is partly due to a growing older population with increased health needs, but also an emphasis on providing health care that limits a decline in capacity for the older population. Inevitably, the COVID-19 pandemic has accelerated interest in hospital at home to create additional acute health care capacity.”

Dr. Sasha Shepperd

The take home-message supports the home service option. “If you can access a hospital-at-home service, consider this as an option for older people who would otherwise be admitted to hospital and are eligible for hospital at home care. However, is important that the provision of hospital at home is adequately resourced, and that families and caregivers are supported,” she said.

Barriers include delivering a different type of service that requires easy access to hospital services, including admission if required; a trained workforce to provide multidisciplinary care in a patient’s home; and ensuring a good fit with existing health and social care services,” Dr. Shepperd said.

Future research areas include the demands placed on caregivers from hospital-at-home services, and how the provision of hospital at home impacts hospital and community services, she added.

Findings support use of HAH

The data from the current study support the use of a hospital at home concept, especially in the geriatric age population, for acute health conditions that could be managed at home rather than acutely in a hospital-based environment,” Noel Deep, MD, emphasized in an interview.

Dr. Deep, who is a general internist in group practice in Antigo, Wisc., said he was not surprised by the study findings.

“I am a big proponent of the hospital at home approach to taking care of patients who can be safely and appropriately managed in the familiarity and comfort of their own home environment with help from physicians, nurses, and other home health care services,” he said. “It is a valuable option for appropriately screened and selected patients to be provided this approach to management of their acute health care situations.”

Primary care physicians should explore using HAH when faced with the decision of admitting an elderly individual to the hospital for management of an acute worsening of a chronic medical condition or a reversible acute illness, said Dr. Deep, who serves on the editorial advisory board of Internal Medicine News.

The current study reinforces previous studies and data showing the benefits of managing acute health problems of elderly individuals in their home environment. These benefits include “an opportunity to free up the emergency rooms and hospitals for providing care to those individuals who truly would be best served by being admitted to the hospital,” Dr. Deep explained. Home care for the elderly “would also lead to decreased utilization of the personal protective equipment and limit exposure of the vulnerable elderly individuals to the coronavirus. Primary care physicians should always explore this possibility of providing care to the patients in their homes if it is a viable option.

“While our practice environment [in the United States] is slightly different than that referenced in this article, many, if not almost all, of our primary care physicians provide care to the geriatric age population and provide assessment and management which would be comparable to this comprehensive geriatric assessment that is discussed in the article,” and many primary care physicians have seen similar results in outcomes that the study shows, said Dr. Deep. The available research and expert opinions are quite similar and agree upon the positive outcomes in terms of providing the CGAHAH approach.
 

Study is important but raises questions

The study is important because patient-centered, effective care should be the goal of any health system, William Golden, MD, of the University of Arkansas for Medical Sciences, Little Rock, said in an interview. 

Dr. Golden also noted that the study raised a number of questions. How each patient entered the treatment protocol was not clear. “Similarly, it is not clear whether admission criteria and resource costs in England cross to the United States experience.”

“Having close follow up of patients at home as opposed to an ‘observation status’ could be a nice innovation, but more details are needed to consider implementation in a specific community setting,” he emphasized.

As for the clinical value of the study for primary care, “primary care professionals should welcome well-staffed alternatives to inpatient care for select patient presentations,” said Dr. Golden, who is also a member of the editorial advisory board of Internal Medicine News.

The current study does not identify the conditions that were treated at home and the logistics of delivering such services, which limits comparison with what experts have seen in practice in terms of outcomes using the CGAHAH, he said. “Interested practitioners would benefit from literature detailing the staffing and decision support tools that form the core framework of this innovation.”
 

Limitations and strengths of study, according to authors

The study findings were limited by several factors including the calculation of CGAHAH based on service budgets, rather than from collecting information on the actual resources used; potential errors in patients’ estimation of their informal care; and lack of data on a differential impact of CGAHAH for underserved communities, the researchers noted.

However, the results were strengthened by the large study population and randomized design, and support the value of CGAHAH, which addresses the need for management of multiple long-term conditions and the potential decline in functional and cognitive ability in older adults, they said. Providing CGAHAH as an alternative to admission to hospital for older people, with a focus on multidimensional assessment, is one option that might reduce reliance on hospitalization and residential care and at a lower cost.

The study was supported by the National Institute for Health Research, and several coauthors received individual grants from the NIHR, with no other financial conflicts to disclose. Dr. Golden and Dr. Deep had no financial conflicts to disclose.

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Older adults who avoided hospital admission with at-home geriatric assessment and home-based care incurred significantly lower costs compared with those hospitalized, in a new study.

The comprehensive geriatric assessment (CGA) is an established strategy for guiding care of older adults in a hospital setting, but its use in other settings has not been well studied, Surya Singh, PhD, of the University of Oxford (England), and colleagues wrote in their paper published in Age and Ageing. Hospital at home is active treatment by health care professionals in the patient’s home for a condition that otherwise would require acute hospital inpatient care, for a limited time period.

Interest in providing health care in the home as an alternative to hospitalization is on the rise as a way to improve patient outcomes and reduce costs, but actual cost-effectiveness data on HAH interventions are limited, the authors said. “Wide scale implementation of such services has also been constrained by the practical difficulties of designing and delivering services that cut across primary and secondary care, might involve social care and require different workforce and funding arrangements.”

In this study, the researchers conducted a cost-effectiveness analysis alongside a randomized trial of an admission avoidance CGA hospital at home (CGAHAH) service as an alternative to hospital admission. They identified individuals aged 65 years and older who were living in the community but being considered for an unplanned hospital admission in the United Kingdom. A total of 700 individuals were randomized to CGAHAH and 355 to hospital care using a 2:1 ratio. Patients were assessed at baseline in the community or in an acute care setting before being transferred to CGAHAH service. These services included access to social workers, home care, district nursing, community rehabilitation, community mental health services and acute hospital services, such as diagnostic tests and transfer to hospital. The core workforce usually included consultant geriatricians, junior doctors, nurse practitioners, health care assistants or support workers, physiotherapists, occupational therapists, and community pharmacists. There were at least daily virtual ward rounds
 

Comparison between HAH and in-hospital groups

Patients in the CGAHAH group had a mean of 7.17 days of care, and those in hospital had a mean of 4.92 hospital days. At 6 months’ follow-up, the mean number of care days was 9.47 in the CGAHAH group and 10.58 in the hospital group, which was a nonsignificant difference.

“For complete cases, we found that allocation to CGAHAH resulted in 3 fewer days in hospital, a difference that was reduced to 1 day at 6 months follow-up,” the researchers wrote.

Overall, after adjusting for baseline variables, the health and social care costs after 6 months were less for CGAHAH than admission to hospital. The average cost differences between the two were approximately $3,000 or 2,265 pounds. The cost difference remained and increased to a mean difference of 2,840 pounds in favor of HAH after adding informal care/societal costs.

In addition, patients randomized to CGAHAH were less likely to have been admitted to long-term residential care at 6 months follow-up, compared with the hospital group; the mean days in residential care at 6 months were 3.43 and 6.14, respectively.

Both groups showed an approximate 15% decrease in measures of quality of life from baseline to 6 months, and no differences were noted in quality-adjusted survival between the groups.
 

Pandemic ‘has accelerated interest’ in HAH

“Health systems around the world are exploring alternatives to hospital admission, such as hospital at home, to act as a buffer to the increasing demand for hospital care,” corresponding author Sasha Shepperd, MSc, DPhil, said in an interview. “This is partly due to a growing older population with increased health needs, but also an emphasis on providing health care that limits a decline in capacity for the older population. Inevitably, the COVID-19 pandemic has accelerated interest in hospital at home to create additional acute health care capacity.”

Dr. Sasha Shepperd

The take home-message supports the home service option. “If you can access a hospital-at-home service, consider this as an option for older people who would otherwise be admitted to hospital and are eligible for hospital at home care. However, is important that the provision of hospital at home is adequately resourced, and that families and caregivers are supported,” she said.

Barriers include delivering a different type of service that requires easy access to hospital services, including admission if required; a trained workforce to provide multidisciplinary care in a patient’s home; and ensuring a good fit with existing health and social care services,” Dr. Shepperd said.

Future research areas include the demands placed on caregivers from hospital-at-home services, and how the provision of hospital at home impacts hospital and community services, she added.

Findings support use of HAH

The data from the current study support the use of a hospital at home concept, especially in the geriatric age population, for acute health conditions that could be managed at home rather than acutely in a hospital-based environment,” Noel Deep, MD, emphasized in an interview.

Dr. Deep, who is a general internist in group practice in Antigo, Wisc., said he was not surprised by the study findings.

“I am a big proponent of the hospital at home approach to taking care of patients who can be safely and appropriately managed in the familiarity and comfort of their own home environment with help from physicians, nurses, and other home health care services,” he said. “It is a valuable option for appropriately screened and selected patients to be provided this approach to management of their acute health care situations.”

Primary care physicians should explore using HAH when faced with the decision of admitting an elderly individual to the hospital for management of an acute worsening of a chronic medical condition or a reversible acute illness, said Dr. Deep, who serves on the editorial advisory board of Internal Medicine News.

The current study reinforces previous studies and data showing the benefits of managing acute health problems of elderly individuals in their home environment. These benefits include “an opportunity to free up the emergency rooms and hospitals for providing care to those individuals who truly would be best served by being admitted to the hospital,” Dr. Deep explained. Home care for the elderly “would also lead to decreased utilization of the personal protective equipment and limit exposure of the vulnerable elderly individuals to the coronavirus. Primary care physicians should always explore this possibility of providing care to the patients in their homes if it is a viable option.

“While our practice environment [in the United States] is slightly different than that referenced in this article, many, if not almost all, of our primary care physicians provide care to the geriatric age population and provide assessment and management which would be comparable to this comprehensive geriatric assessment that is discussed in the article,” and many primary care physicians have seen similar results in outcomes that the study shows, said Dr. Deep. The available research and expert opinions are quite similar and agree upon the positive outcomes in terms of providing the CGAHAH approach.
 

Study is important but raises questions

The study is important because patient-centered, effective care should be the goal of any health system, William Golden, MD, of the University of Arkansas for Medical Sciences, Little Rock, said in an interview. 

Dr. Golden also noted that the study raised a number of questions. How each patient entered the treatment protocol was not clear. “Similarly, it is not clear whether admission criteria and resource costs in England cross to the United States experience.”

“Having close follow up of patients at home as opposed to an ‘observation status’ could be a nice innovation, but more details are needed to consider implementation in a specific community setting,” he emphasized.

As for the clinical value of the study for primary care, “primary care professionals should welcome well-staffed alternatives to inpatient care for select patient presentations,” said Dr. Golden, who is also a member of the editorial advisory board of Internal Medicine News.

The current study does not identify the conditions that were treated at home and the logistics of delivering such services, which limits comparison with what experts have seen in practice in terms of outcomes using the CGAHAH, he said. “Interested practitioners would benefit from literature detailing the staffing and decision support tools that form the core framework of this innovation.”
 

Limitations and strengths of study, according to authors

The study findings were limited by several factors including the calculation of CGAHAH based on service budgets, rather than from collecting information on the actual resources used; potential errors in patients’ estimation of their informal care; and lack of data on a differential impact of CGAHAH for underserved communities, the researchers noted.

However, the results were strengthened by the large study population and randomized design, and support the value of CGAHAH, which addresses the need for management of multiple long-term conditions and the potential decline in functional and cognitive ability in older adults, they said. Providing CGAHAH as an alternative to admission to hospital for older people, with a focus on multidimensional assessment, is one option that might reduce reliance on hospitalization and residential care and at a lower cost.

The study was supported by the National Institute for Health Research, and several coauthors received individual grants from the NIHR, with no other financial conflicts to disclose. Dr. Golden and Dr. Deep had no financial conflicts to disclose.

 

Older adults who avoided hospital admission with at-home geriatric assessment and home-based care incurred significantly lower costs compared with those hospitalized, in a new study.

The comprehensive geriatric assessment (CGA) is an established strategy for guiding care of older adults in a hospital setting, but its use in other settings has not been well studied, Surya Singh, PhD, of the University of Oxford (England), and colleagues wrote in their paper published in Age and Ageing. Hospital at home is active treatment by health care professionals in the patient’s home for a condition that otherwise would require acute hospital inpatient care, for a limited time period.

Interest in providing health care in the home as an alternative to hospitalization is on the rise as a way to improve patient outcomes and reduce costs, but actual cost-effectiveness data on HAH interventions are limited, the authors said. “Wide scale implementation of such services has also been constrained by the practical difficulties of designing and delivering services that cut across primary and secondary care, might involve social care and require different workforce and funding arrangements.”

In this study, the researchers conducted a cost-effectiveness analysis alongside a randomized trial of an admission avoidance CGA hospital at home (CGAHAH) service as an alternative to hospital admission. They identified individuals aged 65 years and older who were living in the community but being considered for an unplanned hospital admission in the United Kingdom. A total of 700 individuals were randomized to CGAHAH and 355 to hospital care using a 2:1 ratio. Patients were assessed at baseline in the community or in an acute care setting before being transferred to CGAHAH service. These services included access to social workers, home care, district nursing, community rehabilitation, community mental health services and acute hospital services, such as diagnostic tests and transfer to hospital. The core workforce usually included consultant geriatricians, junior doctors, nurse practitioners, health care assistants or support workers, physiotherapists, occupational therapists, and community pharmacists. There were at least daily virtual ward rounds
 

Comparison between HAH and in-hospital groups

Patients in the CGAHAH group had a mean of 7.17 days of care, and those in hospital had a mean of 4.92 hospital days. At 6 months’ follow-up, the mean number of care days was 9.47 in the CGAHAH group and 10.58 in the hospital group, which was a nonsignificant difference.

“For complete cases, we found that allocation to CGAHAH resulted in 3 fewer days in hospital, a difference that was reduced to 1 day at 6 months follow-up,” the researchers wrote.

Overall, after adjusting for baseline variables, the health and social care costs after 6 months were less for CGAHAH than admission to hospital. The average cost differences between the two were approximately $3,000 or 2,265 pounds. The cost difference remained and increased to a mean difference of 2,840 pounds in favor of HAH after adding informal care/societal costs.

In addition, patients randomized to CGAHAH were less likely to have been admitted to long-term residential care at 6 months follow-up, compared with the hospital group; the mean days in residential care at 6 months were 3.43 and 6.14, respectively.

Both groups showed an approximate 15% decrease in measures of quality of life from baseline to 6 months, and no differences were noted in quality-adjusted survival between the groups.
 

Pandemic ‘has accelerated interest’ in HAH

“Health systems around the world are exploring alternatives to hospital admission, such as hospital at home, to act as a buffer to the increasing demand for hospital care,” corresponding author Sasha Shepperd, MSc, DPhil, said in an interview. “This is partly due to a growing older population with increased health needs, but also an emphasis on providing health care that limits a decline in capacity for the older population. Inevitably, the COVID-19 pandemic has accelerated interest in hospital at home to create additional acute health care capacity.”

Dr. Sasha Shepperd

The take home-message supports the home service option. “If you can access a hospital-at-home service, consider this as an option for older people who would otherwise be admitted to hospital and are eligible for hospital at home care. However, is important that the provision of hospital at home is adequately resourced, and that families and caregivers are supported,” she said.

Barriers include delivering a different type of service that requires easy access to hospital services, including admission if required; a trained workforce to provide multidisciplinary care in a patient’s home; and ensuring a good fit with existing health and social care services,” Dr. Shepperd said.

Future research areas include the demands placed on caregivers from hospital-at-home services, and how the provision of hospital at home impacts hospital and community services, she added.

Findings support use of HAH

The data from the current study support the use of a hospital at home concept, especially in the geriatric age population, for acute health conditions that could be managed at home rather than acutely in a hospital-based environment,” Noel Deep, MD, emphasized in an interview.

Dr. Deep, who is a general internist in group practice in Antigo, Wisc., said he was not surprised by the study findings.

“I am a big proponent of the hospital at home approach to taking care of patients who can be safely and appropriately managed in the familiarity and comfort of their own home environment with help from physicians, nurses, and other home health care services,” he said. “It is a valuable option for appropriately screened and selected patients to be provided this approach to management of their acute health care situations.”

Primary care physicians should explore using HAH when faced with the decision of admitting an elderly individual to the hospital for management of an acute worsening of a chronic medical condition or a reversible acute illness, said Dr. Deep, who serves on the editorial advisory board of Internal Medicine News.

The current study reinforces previous studies and data showing the benefits of managing acute health problems of elderly individuals in their home environment. These benefits include “an opportunity to free up the emergency rooms and hospitals for providing care to those individuals who truly would be best served by being admitted to the hospital,” Dr. Deep explained. Home care for the elderly “would also lead to decreased utilization of the personal protective equipment and limit exposure of the vulnerable elderly individuals to the coronavirus. Primary care physicians should always explore this possibility of providing care to the patients in their homes if it is a viable option.

“While our practice environment [in the United States] is slightly different than that referenced in this article, many, if not almost all, of our primary care physicians provide care to the geriatric age population and provide assessment and management which would be comparable to this comprehensive geriatric assessment that is discussed in the article,” and many primary care physicians have seen similar results in outcomes that the study shows, said Dr. Deep. The available research and expert opinions are quite similar and agree upon the positive outcomes in terms of providing the CGAHAH approach.
 

Study is important but raises questions

The study is important because patient-centered, effective care should be the goal of any health system, William Golden, MD, of the University of Arkansas for Medical Sciences, Little Rock, said in an interview. 

Dr. Golden also noted that the study raised a number of questions. How each patient entered the treatment protocol was not clear. “Similarly, it is not clear whether admission criteria and resource costs in England cross to the United States experience.”

“Having close follow up of patients at home as opposed to an ‘observation status’ could be a nice innovation, but more details are needed to consider implementation in a specific community setting,” he emphasized.

As for the clinical value of the study for primary care, “primary care professionals should welcome well-staffed alternatives to inpatient care for select patient presentations,” said Dr. Golden, who is also a member of the editorial advisory board of Internal Medicine News.

The current study does not identify the conditions that were treated at home and the logistics of delivering such services, which limits comparison with what experts have seen in practice in terms of outcomes using the CGAHAH, he said. “Interested practitioners would benefit from literature detailing the staffing and decision support tools that form the core framework of this innovation.”
 

Limitations and strengths of study, according to authors

The study findings were limited by several factors including the calculation of CGAHAH based on service budgets, rather than from collecting information on the actual resources used; potential errors in patients’ estimation of their informal care; and lack of data on a differential impact of CGAHAH for underserved communities, the researchers noted.

However, the results were strengthened by the large study population and randomized design, and support the value of CGAHAH, which addresses the need for management of multiple long-term conditions and the potential decline in functional and cognitive ability in older adults, they said. Providing CGAHAH as an alternative to admission to hospital for older people, with a focus on multidimensional assessment, is one option that might reduce reliance on hospitalization and residential care and at a lower cost.

The study was supported by the National Institute for Health Research, and several coauthors received individual grants from the NIHR, with no other financial conflicts to disclose. Dr. Golden and Dr. Deep had no financial conflicts to disclose.

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Frail COPD patients at high risk of disability and death

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Patients with chronic obstructive pulmonary disease (COPD) who are both frail and who have poor lung function or dyspnea are at especially high risk of disability within 3 to 5 years as well as all-cause mortality years later, a prospective cohort study of community-dwelling adults has shown.

“Frailty, a widely recognized geriatric syndrome characterized by multidimensional functional decline in bio-psycho-social factors, is associated with functional disability and mortality,” senior author Tze Pin Ng, MD, National University of Singapore, and colleagues explain.“Our results ... suggest that beyond traditional prognostic markers such as FEV1% (forced expiratory volume in 1 second) and dyspnea, the physical frailty phenotype provides additional useful prognostic information on future risks of disability and mortality,” the authors suggest.

The study was published online Dec. 12 in the journal CHEST®.

SLAS-1 and SLAS-2

Data from the Singapore Longitudinal Ageing Study (SLAS-1) and SLAS-2 were collected and analyzed. SLAS-1 recruited 2,804 participants 55 years of age and older from Sept. 2003 through Dec. 2004, while SLAS-2 recruited 3,270 participants of the same age between March 2009 and June 2013. “Follow-up visits and assessments were conducted approximately 3-5 years apart,” the investigators noted.

Mortality was determined at a mean of 9.5 years of follow-up for SLAS-1 participants and a mean of 6.5 years’ follow-up for SLAS-2 participants. A total of 4,627 participants were eventually included in the analysis, of whom 1,162 patients had COPD and 3,465 patients did not. COPD was classified as mild if FEV1% was greater than or equal to 80%; moderate if FEV1% was greater than or equal to 50% to less than 80%, and severe if FEV1% was less than 50%.

Frailty in turn was based on five clinical criteria, including weakness, slowness, low physical activity, exhaustion, and shrinking. Participants were classified as frail if they met three or more of these criteria and prefrail if they met one or two criteria.

Adverse health outcomes were judged on the basis of instrumental or basic activities of daily living (IADL/ADL), while disability was judged by self-reported difficulties in or requiring assistance with at least one IADL or ADL.
 

Frail or prefrail

Almost half of the participants were frail or prefrail, as the authors reported, while 25% had COPD. Among the participants with COPD, 30% had moderate to severe COPD, 6.4% had dyspnea, and almost half had prefrailty, while approximately 7% were classified as frail.

This percentage was 86% higher than it was for participants without COPD, among whom just 3.2% were assessed as frail, at an odds ratio of 1.86 (95% CI, 1.35-2.56). Further adjustments for possible confounders reduced the gap between frail COPD and frail non-COPD participants, but frailty remained significantly associated with COPD, at an OR of 1.61 (95% CI, 1.15-2.26), the investigators note.

Furthermore, compared to those without COPD, a diagnosis of COPD without and with dyspnea was associated with a 1.5- and 4.2-fold increase in prevalent frailty (95% CI, 1.04-2.08; 1.84-9.19), respectively, although not with prefrailty. Again, adjusting for multiple confounders, FEV1%, dyspnea, and both prefrailty and frailty were associated with an approximately twofold higher prevalence of IADL/ADL disability, while the prevalence of IADL/ADL disability for participants with COPD was approximately fourfold higher in those with co-occurring FEV1% less than 80% with either prefrailty, frailty, or dyspnea.

Furthermore, the presence of prefrailty or frailty in combination with a lower FEV1% or dyspnea was associated with a 3.7- to 3.8-fold increased risk of having an IADL or ADL disability.
 

 

 

Frailty and mortality

Some 1,116 participants with COPD were followed for a mean of 2,981 days for mortality outcomes. Both FEV1% less than 50% and the presence of prefrailty and frailty almost doubled the risk of mortality, at an adjusted hazard ratio of 1.8 (95% CI, 1.24-2.68) compared to patients with an FEV1% greater than or equal to 80%. In combination with either FEV1% less than 80% or prefrailty/frailty, dyspnea almost more than doubled the risk of mortality, at an HR of 2.4 for both combinations.

“However, the mortality risk of participants with COPD was highest among those with FEV1% less than 80% and prefrailty/frailty,” the authors note, more than tripling mortality risk at an adjusted HR of 3.25 (95% CI, 1.97-5.36). Interestingly, FEV1 less than 80% and prefrailty/frailty – both alone and in combination – were also associated with a twofold to fourfold increased risk of IADL or ADL disability in participants without COPD but were less strongly associated with mortality.

Researchers then went on to create a summary risk score containing all relevant variables with values ranging from 0 to 5. The highest risk category of 3 to 5 was associated with a 7- to 8.5-fold increased risk for IADL and ADL disability and mortality among participants with COPD, and that risk remained high after adjusting for multiple confounders.

Interestingly, frailty did not significantly predict mortality in women, while dyspnea did not significantly predict mortality in men. “Recognition and assessment of physical frailty in addition to FEV1% and dyspnea would allow for more accurate identification and targeted treatment of COPD at risk of future adverse outcomes,” the authors suggest.
 

Frailty scoring system

Asked to comment on the study, Sachin Gupta, MD, a pulmonologist and critical care specialist at Alameda Health System in Oakland, Calif., noted that the current study adds to the body of literature that outcomes in patients with COPD depend as much on objectively measured variables as on qualitative measures. “By applying a frailty scoring system, these researchers were able to categorize frailty and study its impact on patient characteristics and outcomes,” he told this news organization in an email.

The summary risk assessment tool developed and assessed is familiar: It carries parallels to the widely utilized BODE Index, replacing body mass index and 6-minute walk distance with the frailty scale, he added. “Findings from this study support the idea that what meets the eye in face-to-face visits – frailty – can be codified and be part of a tool that is predictive of outcomes,” Dr. Gupta underscored.

The authors had no conflicts of interest to declare. Dr. Gupta disclosed that he is also an employee and shareholder at Genentech.

A version of this article first appeared on Medscape.com.

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Patients with chronic obstructive pulmonary disease (COPD) who are both frail and who have poor lung function or dyspnea are at especially high risk of disability within 3 to 5 years as well as all-cause mortality years later, a prospective cohort study of community-dwelling adults has shown.

“Frailty, a widely recognized geriatric syndrome characterized by multidimensional functional decline in bio-psycho-social factors, is associated with functional disability and mortality,” senior author Tze Pin Ng, MD, National University of Singapore, and colleagues explain.“Our results ... suggest that beyond traditional prognostic markers such as FEV1% (forced expiratory volume in 1 second) and dyspnea, the physical frailty phenotype provides additional useful prognostic information on future risks of disability and mortality,” the authors suggest.

The study was published online Dec. 12 in the journal CHEST®.

SLAS-1 and SLAS-2

Data from the Singapore Longitudinal Ageing Study (SLAS-1) and SLAS-2 were collected and analyzed. SLAS-1 recruited 2,804 participants 55 years of age and older from Sept. 2003 through Dec. 2004, while SLAS-2 recruited 3,270 participants of the same age between March 2009 and June 2013. “Follow-up visits and assessments were conducted approximately 3-5 years apart,” the investigators noted.

Mortality was determined at a mean of 9.5 years of follow-up for SLAS-1 participants and a mean of 6.5 years’ follow-up for SLAS-2 participants. A total of 4,627 participants were eventually included in the analysis, of whom 1,162 patients had COPD and 3,465 patients did not. COPD was classified as mild if FEV1% was greater than or equal to 80%; moderate if FEV1% was greater than or equal to 50% to less than 80%, and severe if FEV1% was less than 50%.

Frailty in turn was based on five clinical criteria, including weakness, slowness, low physical activity, exhaustion, and shrinking. Participants were classified as frail if they met three or more of these criteria and prefrail if they met one or two criteria.

Adverse health outcomes were judged on the basis of instrumental or basic activities of daily living (IADL/ADL), while disability was judged by self-reported difficulties in or requiring assistance with at least one IADL or ADL.
 

Frail or prefrail

Almost half of the participants were frail or prefrail, as the authors reported, while 25% had COPD. Among the participants with COPD, 30% had moderate to severe COPD, 6.4% had dyspnea, and almost half had prefrailty, while approximately 7% were classified as frail.

This percentage was 86% higher than it was for participants without COPD, among whom just 3.2% were assessed as frail, at an odds ratio of 1.86 (95% CI, 1.35-2.56). Further adjustments for possible confounders reduced the gap between frail COPD and frail non-COPD participants, but frailty remained significantly associated with COPD, at an OR of 1.61 (95% CI, 1.15-2.26), the investigators note.

Furthermore, compared to those without COPD, a diagnosis of COPD without and with dyspnea was associated with a 1.5- and 4.2-fold increase in prevalent frailty (95% CI, 1.04-2.08; 1.84-9.19), respectively, although not with prefrailty. Again, adjusting for multiple confounders, FEV1%, dyspnea, and both prefrailty and frailty were associated with an approximately twofold higher prevalence of IADL/ADL disability, while the prevalence of IADL/ADL disability for participants with COPD was approximately fourfold higher in those with co-occurring FEV1% less than 80% with either prefrailty, frailty, or dyspnea.

Furthermore, the presence of prefrailty or frailty in combination with a lower FEV1% or dyspnea was associated with a 3.7- to 3.8-fold increased risk of having an IADL or ADL disability.
 

 

 

Frailty and mortality

Some 1,116 participants with COPD were followed for a mean of 2,981 days for mortality outcomes. Both FEV1% less than 50% and the presence of prefrailty and frailty almost doubled the risk of mortality, at an adjusted hazard ratio of 1.8 (95% CI, 1.24-2.68) compared to patients with an FEV1% greater than or equal to 80%. In combination with either FEV1% less than 80% or prefrailty/frailty, dyspnea almost more than doubled the risk of mortality, at an HR of 2.4 for both combinations.

“However, the mortality risk of participants with COPD was highest among those with FEV1% less than 80% and prefrailty/frailty,” the authors note, more than tripling mortality risk at an adjusted HR of 3.25 (95% CI, 1.97-5.36). Interestingly, FEV1 less than 80% and prefrailty/frailty – both alone and in combination – were also associated with a twofold to fourfold increased risk of IADL or ADL disability in participants without COPD but were less strongly associated with mortality.

Researchers then went on to create a summary risk score containing all relevant variables with values ranging from 0 to 5. The highest risk category of 3 to 5 was associated with a 7- to 8.5-fold increased risk for IADL and ADL disability and mortality among participants with COPD, and that risk remained high after adjusting for multiple confounders.

Interestingly, frailty did not significantly predict mortality in women, while dyspnea did not significantly predict mortality in men. “Recognition and assessment of physical frailty in addition to FEV1% and dyspnea would allow for more accurate identification and targeted treatment of COPD at risk of future adverse outcomes,” the authors suggest.
 

Frailty scoring system

Asked to comment on the study, Sachin Gupta, MD, a pulmonologist and critical care specialist at Alameda Health System in Oakland, Calif., noted that the current study adds to the body of literature that outcomes in patients with COPD depend as much on objectively measured variables as on qualitative measures. “By applying a frailty scoring system, these researchers were able to categorize frailty and study its impact on patient characteristics and outcomes,” he told this news organization in an email.

The summary risk assessment tool developed and assessed is familiar: It carries parallels to the widely utilized BODE Index, replacing body mass index and 6-minute walk distance with the frailty scale, he added. “Findings from this study support the idea that what meets the eye in face-to-face visits – frailty – can be codified and be part of a tool that is predictive of outcomes,” Dr. Gupta underscored.

The authors had no conflicts of interest to declare. Dr. Gupta disclosed that he is also an employee and shareholder at Genentech.

A version of this article first appeared on Medscape.com.

Patients with chronic obstructive pulmonary disease (COPD) who are both frail and who have poor lung function or dyspnea are at especially high risk of disability within 3 to 5 years as well as all-cause mortality years later, a prospective cohort study of community-dwelling adults has shown.

“Frailty, a widely recognized geriatric syndrome characterized by multidimensional functional decline in bio-psycho-social factors, is associated with functional disability and mortality,” senior author Tze Pin Ng, MD, National University of Singapore, and colleagues explain.“Our results ... suggest that beyond traditional prognostic markers such as FEV1% (forced expiratory volume in 1 second) and dyspnea, the physical frailty phenotype provides additional useful prognostic information on future risks of disability and mortality,” the authors suggest.

The study was published online Dec. 12 in the journal CHEST®.

SLAS-1 and SLAS-2

Data from the Singapore Longitudinal Ageing Study (SLAS-1) and SLAS-2 were collected and analyzed. SLAS-1 recruited 2,804 participants 55 years of age and older from Sept. 2003 through Dec. 2004, while SLAS-2 recruited 3,270 participants of the same age between March 2009 and June 2013. “Follow-up visits and assessments were conducted approximately 3-5 years apart,” the investigators noted.

Mortality was determined at a mean of 9.5 years of follow-up for SLAS-1 participants and a mean of 6.5 years’ follow-up for SLAS-2 participants. A total of 4,627 participants were eventually included in the analysis, of whom 1,162 patients had COPD and 3,465 patients did not. COPD was classified as mild if FEV1% was greater than or equal to 80%; moderate if FEV1% was greater than or equal to 50% to less than 80%, and severe if FEV1% was less than 50%.

Frailty in turn was based on five clinical criteria, including weakness, slowness, low physical activity, exhaustion, and shrinking. Participants were classified as frail if they met three or more of these criteria and prefrail if they met one or two criteria.

Adverse health outcomes were judged on the basis of instrumental or basic activities of daily living (IADL/ADL), while disability was judged by self-reported difficulties in or requiring assistance with at least one IADL or ADL.
 

Frail or prefrail

Almost half of the participants were frail or prefrail, as the authors reported, while 25% had COPD. Among the participants with COPD, 30% had moderate to severe COPD, 6.4% had dyspnea, and almost half had prefrailty, while approximately 7% were classified as frail.

This percentage was 86% higher than it was for participants without COPD, among whom just 3.2% were assessed as frail, at an odds ratio of 1.86 (95% CI, 1.35-2.56). Further adjustments for possible confounders reduced the gap between frail COPD and frail non-COPD participants, but frailty remained significantly associated with COPD, at an OR of 1.61 (95% CI, 1.15-2.26), the investigators note.

Furthermore, compared to those without COPD, a diagnosis of COPD without and with dyspnea was associated with a 1.5- and 4.2-fold increase in prevalent frailty (95% CI, 1.04-2.08; 1.84-9.19), respectively, although not with prefrailty. Again, adjusting for multiple confounders, FEV1%, dyspnea, and both prefrailty and frailty were associated with an approximately twofold higher prevalence of IADL/ADL disability, while the prevalence of IADL/ADL disability for participants with COPD was approximately fourfold higher in those with co-occurring FEV1% less than 80% with either prefrailty, frailty, or dyspnea.

Furthermore, the presence of prefrailty or frailty in combination with a lower FEV1% or dyspnea was associated with a 3.7- to 3.8-fold increased risk of having an IADL or ADL disability.
 

 

 

Frailty and mortality

Some 1,116 participants with COPD were followed for a mean of 2,981 days for mortality outcomes. Both FEV1% less than 50% and the presence of prefrailty and frailty almost doubled the risk of mortality, at an adjusted hazard ratio of 1.8 (95% CI, 1.24-2.68) compared to patients with an FEV1% greater than or equal to 80%. In combination with either FEV1% less than 80% or prefrailty/frailty, dyspnea almost more than doubled the risk of mortality, at an HR of 2.4 for both combinations.

“However, the mortality risk of participants with COPD was highest among those with FEV1% less than 80% and prefrailty/frailty,” the authors note, more than tripling mortality risk at an adjusted HR of 3.25 (95% CI, 1.97-5.36). Interestingly, FEV1 less than 80% and prefrailty/frailty – both alone and in combination – were also associated with a twofold to fourfold increased risk of IADL or ADL disability in participants without COPD but were less strongly associated with mortality.

Researchers then went on to create a summary risk score containing all relevant variables with values ranging from 0 to 5. The highest risk category of 3 to 5 was associated with a 7- to 8.5-fold increased risk for IADL and ADL disability and mortality among participants with COPD, and that risk remained high after adjusting for multiple confounders.

Interestingly, frailty did not significantly predict mortality in women, while dyspnea did not significantly predict mortality in men. “Recognition and assessment of physical frailty in addition to FEV1% and dyspnea would allow for more accurate identification and targeted treatment of COPD at risk of future adverse outcomes,” the authors suggest.
 

Frailty scoring system

Asked to comment on the study, Sachin Gupta, MD, a pulmonologist and critical care specialist at Alameda Health System in Oakland, Calif., noted that the current study adds to the body of literature that outcomes in patients with COPD depend as much on objectively measured variables as on qualitative measures. “By applying a frailty scoring system, these researchers were able to categorize frailty and study its impact on patient characteristics and outcomes,” he told this news organization in an email.

The summary risk assessment tool developed and assessed is familiar: It carries parallels to the widely utilized BODE Index, replacing body mass index and 6-minute walk distance with the frailty scale, he added. “Findings from this study support the idea that what meets the eye in face-to-face visits – frailty – can be codified and be part of a tool that is predictive of outcomes,” Dr. Gupta underscored.

The authors had no conflicts of interest to declare. Dr. Gupta disclosed that he is also an employee and shareholder at Genentech.

A version of this article first appeared on Medscape.com.

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New data support a causal role for depression in Alzheimer’s

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Researchers have known for some time that depression is associated with Alzheimer’s disease (AD), but a causal link has been elusive. Now, using newly available data, they have uncovered genetic evidence of a causal role for depression in AD.

As depression typically affects those in early or midlife and dementia often occurs in later life, “it’s fascinating to see a connection between the two brain illnesses that manifest in different time windows,” coinvestigator Aliza P. Wingo, MD, associate professor of psychiatry and behavioral science, Emory University, Atlanta, said in an interview.

Dr. Aliza P. Wingo

“If we can treat the depression early on, we may help reduce risk for dementia for our patients later in life,” Dr. Wingo said.

The findings were published online Dec. 16, 2021, in Biological Psychiatry.

Postmortem data

The investigators, who are all from the Emory University Center for Neurodegenerative Disease, wanted to clarify the genetic basis underlying the association between the established link between depression and dementia risk.

They used data from the largest and most recent genomewide association studies (GWAS). These included a 2019 analysis of depression among 807,553 individuals and a 2019 study of AD among 455,258 individuals, all of European ancestry. For sensitivity analyses, they used results from two additional AD GWAS.

The researchers also accessed postmortem brain samples from participants in the Religious Orders Study (ROS) and the Rush Memory and Aging Project (MAP). These participants were cognitively normal at enrollment, underwent annual clinical evaluations, and agreed to donate their brains.

They also assessed brain samples donated by participants in the Banner Sun Health Research Institute longitudinal study of healthy aging, Alzheimer’s, and Parkinson’s disease.

The brain samples allowed researchers to use deep brain proteomic data to help determine molecular links between depression and AD.

After quality control, the analysis included 8,356 proteins in 391 ROS/MAP participants and 7,854 proteins in 196 Banner participants.

Results showed a small but significant positive genetic correlation between depression and AD, suggesting the two conditions have a shared genetic basis.

The investigators also applied a framework called “Mendelian randomization” to determine causality between depression and AD.

After assessing the effect of 115 independent single-nucleotide polymorphisms (SNPs) from the GWAS of depression, they uncovered significant evidence “that the SNPs cause depression, which in turn cause AD,” said Dr. Wingo.
 

One-way relationship

The researchers conducted the same analysis on 61 significant SNPs from the GWAS of AD but did not find evidence to conclude AD causes depression.

“We found genetic evidence supporting a causal role of depression in AD but not vice versa,” Dr. Wingo said.

In addition, the investigators identified 75 brain transcripts (messenger RNA) and 28 brain proteins regulated by the depression-predisposing genetic variants. Of these, 46 brain transcripts and seven proteins were significantly associated with at least one AD feature – for example, beta-amyloid, tau tangles, and cognitive trajectory.

“These findings support the notion that the depression risk variants contribute to AD via regulating expression of their corresponding transcripts in the brain,” the investigators wrote.

Dr. Thomas Wingo

It is only recently that large enough studies have allowed researchers sufficient power to reach these conclusions, coinvestigator Thomas Wingo, MD, said in an interview.

These additional “insights” into the relationship between depression and AD might “motivate” clinicians more to screen for and treat depressive symptoms, Dr. Aliza Wingo noted.

The new results also have implications for developing therapeutics to treat depression, she said. “If we target the genes, the brain proteins, that are shared risk between depression and AD, the medications that target that gene might mitigate risk for AD later on.”

However, the investigators advised caution. “A lot of this is still unknown,” said Dr. Thomas Wingo.

For example, it is not clear whether successfully treating depression mitigates the eventual risk of dementia, which is “a very important topic of inquiry and one we continue to work on,” he said, adding that a significant number of patients do not respond well to existing antidepressants such as SSRIs.
 

Need for further research

Commenting on the findings, Claire Sexton, DPhil, director of scientific programs and outreach, Alzheimer’s Association, said the study contributes to the debate about whether depression increases risk for AD, whether AD increases risk for depression, or both.

“These newly published findings strengthen our understanding of the role of depression as a risk factor for Alzheimer’s dementia,” said Dr. Sexton, who was not involved with the research.

While experts do not yet fully understand the impact of treating depression on dementia risk, “the findings emphasize the importance of assessing mental health status, particularly depression, and getting it properly diagnosed and treated in a timely manner,” she said.

However, she agreed more research in this area is needed. “Importantly, these findings need replication in broader, more diverse study populations,” Dr. Sexton said.

A study funded by the Alzheimer’s Association may provide more information on the link between depression and AD. It will investigate whether machine learning, an advanced computer science technique, can better predict cognitive decline, compared with traditional methods.

Over a period of 6 months, researchers will collect smartphone conversations from 225 older adults with dementia, mild cognitive impairment, or no cognitive impairment. They will also have data from cognitive tests, brain scans, and biomarkers such as cerebrospinal fluid samples to study brain changes associated with AD.

The novel method of analysis should be able to identify subtle differences in speech quality to indicate which depressive symptoms an individual might be experiencing.

“The study could help us further understand the potential impact of depression in the risk of developing dementia,” said Dr. Sexton.

Dr. Aliza Wingo and Dr. Thomas Wingo reported no relevant financial relationships.

A version of this article first appeared on Medscape.com.

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Researchers have known for some time that depression is associated with Alzheimer’s disease (AD), but a causal link has been elusive. Now, using newly available data, they have uncovered genetic evidence of a causal role for depression in AD.

As depression typically affects those in early or midlife and dementia often occurs in later life, “it’s fascinating to see a connection between the two brain illnesses that manifest in different time windows,” coinvestigator Aliza P. Wingo, MD, associate professor of psychiatry and behavioral science, Emory University, Atlanta, said in an interview.

Dr. Aliza P. Wingo

“If we can treat the depression early on, we may help reduce risk for dementia for our patients later in life,” Dr. Wingo said.

The findings were published online Dec. 16, 2021, in Biological Psychiatry.

Postmortem data

The investigators, who are all from the Emory University Center for Neurodegenerative Disease, wanted to clarify the genetic basis underlying the association between the established link between depression and dementia risk.

They used data from the largest and most recent genomewide association studies (GWAS). These included a 2019 analysis of depression among 807,553 individuals and a 2019 study of AD among 455,258 individuals, all of European ancestry. For sensitivity analyses, they used results from two additional AD GWAS.

The researchers also accessed postmortem brain samples from participants in the Religious Orders Study (ROS) and the Rush Memory and Aging Project (MAP). These participants were cognitively normal at enrollment, underwent annual clinical evaluations, and agreed to donate their brains.

They also assessed brain samples donated by participants in the Banner Sun Health Research Institute longitudinal study of healthy aging, Alzheimer’s, and Parkinson’s disease.

The brain samples allowed researchers to use deep brain proteomic data to help determine molecular links between depression and AD.

After quality control, the analysis included 8,356 proteins in 391 ROS/MAP participants and 7,854 proteins in 196 Banner participants.

Results showed a small but significant positive genetic correlation between depression and AD, suggesting the two conditions have a shared genetic basis.

The investigators also applied a framework called “Mendelian randomization” to determine causality between depression and AD.

After assessing the effect of 115 independent single-nucleotide polymorphisms (SNPs) from the GWAS of depression, they uncovered significant evidence “that the SNPs cause depression, which in turn cause AD,” said Dr. Wingo.
 

One-way relationship

The researchers conducted the same analysis on 61 significant SNPs from the GWAS of AD but did not find evidence to conclude AD causes depression.

“We found genetic evidence supporting a causal role of depression in AD but not vice versa,” Dr. Wingo said.

In addition, the investigators identified 75 brain transcripts (messenger RNA) and 28 brain proteins regulated by the depression-predisposing genetic variants. Of these, 46 brain transcripts and seven proteins were significantly associated with at least one AD feature – for example, beta-amyloid, tau tangles, and cognitive trajectory.

“These findings support the notion that the depression risk variants contribute to AD via regulating expression of their corresponding transcripts in the brain,” the investigators wrote.

Dr. Thomas Wingo

It is only recently that large enough studies have allowed researchers sufficient power to reach these conclusions, coinvestigator Thomas Wingo, MD, said in an interview.

These additional “insights” into the relationship between depression and AD might “motivate” clinicians more to screen for and treat depressive symptoms, Dr. Aliza Wingo noted.

The new results also have implications for developing therapeutics to treat depression, she said. “If we target the genes, the brain proteins, that are shared risk between depression and AD, the medications that target that gene might mitigate risk for AD later on.”

However, the investigators advised caution. “A lot of this is still unknown,” said Dr. Thomas Wingo.

For example, it is not clear whether successfully treating depression mitigates the eventual risk of dementia, which is “a very important topic of inquiry and one we continue to work on,” he said, adding that a significant number of patients do not respond well to existing antidepressants such as SSRIs.
 

Need for further research

Commenting on the findings, Claire Sexton, DPhil, director of scientific programs and outreach, Alzheimer’s Association, said the study contributes to the debate about whether depression increases risk for AD, whether AD increases risk for depression, or both.

“These newly published findings strengthen our understanding of the role of depression as a risk factor for Alzheimer’s dementia,” said Dr. Sexton, who was not involved with the research.

While experts do not yet fully understand the impact of treating depression on dementia risk, “the findings emphasize the importance of assessing mental health status, particularly depression, and getting it properly diagnosed and treated in a timely manner,” she said.

However, she agreed more research in this area is needed. “Importantly, these findings need replication in broader, more diverse study populations,” Dr. Sexton said.

A study funded by the Alzheimer’s Association may provide more information on the link between depression and AD. It will investigate whether machine learning, an advanced computer science technique, can better predict cognitive decline, compared with traditional methods.

Over a period of 6 months, researchers will collect smartphone conversations from 225 older adults with dementia, mild cognitive impairment, or no cognitive impairment. They will also have data from cognitive tests, brain scans, and biomarkers such as cerebrospinal fluid samples to study brain changes associated with AD.

The novel method of analysis should be able to identify subtle differences in speech quality to indicate which depressive symptoms an individual might be experiencing.

“The study could help us further understand the potential impact of depression in the risk of developing dementia,” said Dr. Sexton.

Dr. Aliza Wingo and Dr. Thomas Wingo reported no relevant financial relationships.

A version of this article first appeared on Medscape.com.

 

Researchers have known for some time that depression is associated with Alzheimer’s disease (AD), but a causal link has been elusive. Now, using newly available data, they have uncovered genetic evidence of a causal role for depression in AD.

As depression typically affects those in early or midlife and dementia often occurs in later life, “it’s fascinating to see a connection between the two brain illnesses that manifest in different time windows,” coinvestigator Aliza P. Wingo, MD, associate professor of psychiatry and behavioral science, Emory University, Atlanta, said in an interview.

Dr. Aliza P. Wingo

“If we can treat the depression early on, we may help reduce risk for dementia for our patients later in life,” Dr. Wingo said.

The findings were published online Dec. 16, 2021, in Biological Psychiatry.

Postmortem data

The investigators, who are all from the Emory University Center for Neurodegenerative Disease, wanted to clarify the genetic basis underlying the association between the established link between depression and dementia risk.

They used data from the largest and most recent genomewide association studies (GWAS). These included a 2019 analysis of depression among 807,553 individuals and a 2019 study of AD among 455,258 individuals, all of European ancestry. For sensitivity analyses, they used results from two additional AD GWAS.

The researchers also accessed postmortem brain samples from participants in the Religious Orders Study (ROS) and the Rush Memory and Aging Project (MAP). These participants were cognitively normal at enrollment, underwent annual clinical evaluations, and agreed to donate their brains.

They also assessed brain samples donated by participants in the Banner Sun Health Research Institute longitudinal study of healthy aging, Alzheimer’s, and Parkinson’s disease.

The brain samples allowed researchers to use deep brain proteomic data to help determine molecular links between depression and AD.

After quality control, the analysis included 8,356 proteins in 391 ROS/MAP participants and 7,854 proteins in 196 Banner participants.

Results showed a small but significant positive genetic correlation between depression and AD, suggesting the two conditions have a shared genetic basis.

The investigators also applied a framework called “Mendelian randomization” to determine causality between depression and AD.

After assessing the effect of 115 independent single-nucleotide polymorphisms (SNPs) from the GWAS of depression, they uncovered significant evidence “that the SNPs cause depression, which in turn cause AD,” said Dr. Wingo.
 

One-way relationship

The researchers conducted the same analysis on 61 significant SNPs from the GWAS of AD but did not find evidence to conclude AD causes depression.

“We found genetic evidence supporting a causal role of depression in AD but not vice versa,” Dr. Wingo said.

In addition, the investigators identified 75 brain transcripts (messenger RNA) and 28 brain proteins regulated by the depression-predisposing genetic variants. Of these, 46 brain transcripts and seven proteins were significantly associated with at least one AD feature – for example, beta-amyloid, tau tangles, and cognitive trajectory.

“These findings support the notion that the depression risk variants contribute to AD via regulating expression of their corresponding transcripts in the brain,” the investigators wrote.

Dr. Thomas Wingo

It is only recently that large enough studies have allowed researchers sufficient power to reach these conclusions, coinvestigator Thomas Wingo, MD, said in an interview.

These additional “insights” into the relationship between depression and AD might “motivate” clinicians more to screen for and treat depressive symptoms, Dr. Aliza Wingo noted.

The new results also have implications for developing therapeutics to treat depression, she said. “If we target the genes, the brain proteins, that are shared risk between depression and AD, the medications that target that gene might mitigate risk for AD later on.”

However, the investigators advised caution. “A lot of this is still unknown,” said Dr. Thomas Wingo.

For example, it is not clear whether successfully treating depression mitigates the eventual risk of dementia, which is “a very important topic of inquiry and one we continue to work on,” he said, adding that a significant number of patients do not respond well to existing antidepressants such as SSRIs.
 

Need for further research

Commenting on the findings, Claire Sexton, DPhil, director of scientific programs and outreach, Alzheimer’s Association, said the study contributes to the debate about whether depression increases risk for AD, whether AD increases risk for depression, or both.

“These newly published findings strengthen our understanding of the role of depression as a risk factor for Alzheimer’s dementia,” said Dr. Sexton, who was not involved with the research.

While experts do not yet fully understand the impact of treating depression on dementia risk, “the findings emphasize the importance of assessing mental health status, particularly depression, and getting it properly diagnosed and treated in a timely manner,” she said.

However, she agreed more research in this area is needed. “Importantly, these findings need replication in broader, more diverse study populations,” Dr. Sexton said.

A study funded by the Alzheimer’s Association may provide more information on the link between depression and AD. It will investigate whether machine learning, an advanced computer science technique, can better predict cognitive decline, compared with traditional methods.

Over a period of 6 months, researchers will collect smartphone conversations from 225 older adults with dementia, mild cognitive impairment, or no cognitive impairment. They will also have data from cognitive tests, brain scans, and biomarkers such as cerebrospinal fluid samples to study brain changes associated with AD.

The novel method of analysis should be able to identify subtle differences in speech quality to indicate which depressive symptoms an individual might be experiencing.

“The study could help us further understand the potential impact of depression in the risk of developing dementia,” said Dr. Sexton.

Dr. Aliza Wingo and Dr. Thomas Wingo reported no relevant financial relationships.

A version of this article first appeared on Medscape.com.

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Atopic dermatitis can be especially burdensome in the elderly

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Atopic dermatitis (AD) may be especially active and severe among older adults, and it may be associated with increased risk of comorbid conditions common in later stages of life, including osteoporosis, dementia, and cardiovascular disease.

During the Revolutionizing Atopic Dermatitis virtual symposium, Katrina Abuabara, MD, highlighted the epidemiology and burden of AD among older adults. She began by noting that the disease peaks in infancy and older adulthood. In an analysis that she and her colleagues made of physician-diagnosed AD among more than 8.6 million patients in the United Kingdom between 1994 and 2013, the mean prevalence in a given year was 12.3% among those aged 0-17 years, 5.1% among those age 18-74 years, and 8.7% among those age 75 and older.

Dr. Katrina Abuabara

“We saw what we expected in early infancy with very high rates of active disease,” said Dr. Abuabara, associate professor of dermatology and epidemiology at the University of California, San Francisco. “We also saw a second peak in older adulthood. This was more surprising to us because the disease hadn’t been as well studied in this population.” Researchers who analyzed data from the Global Burden of Disease Study, which evaluates disease-related morbidity and mortality worldwide, found a somewhat attenuated peak but a similar trend around the world. Its authors ranked AD as 15th among all nonfatal diseases.

In a separate analysis, Dr. Abuabara and colleagues evaluated records of more than 9.1 million primary care patients in the United Kingdom between 1994 and 2013, and who were followed for an average of 6 years. They examined AD activity and found that, based on doctor visits and prescriptions, AD appeared to be active in 48% of those aged 0-17 years, compared with 42% of those aged 18-74 years, and 60% of those aged 75 years and older. “Also, when we looked at the distribution of active disease in older adults, we saw that those who were older had more severe disease,” she said. When they evaluated the prevalence of AD by sociodemographic factors, AD increased with age among older adults (adjusted odd ratio, 1.06), while it decreased by 14% annually among children. In addition, female older adults had about three-fourths the odds of prevalent disease as their male counterparts (aOR, 0.73).



“We also looked at rural and urban differences and found that across ages it was more common in urban as compared to rural populations,” she said. “As for socioeconomic status, it tends to be more common among those of higher socioeconomic status in children and in the older adult group.”

In a study that drew from medical records of 3.85 million primary care patients in the United Kingdom, AD was more common in Asian and Black ethnic groups than in people of White ethnicity. In addition, higher socioeconomic status was associated with a greater incidence of eczema in infants aged younger than 2 years, but the reverse was seen for all other age groups.

To identify subtypes of atopic eczema based on patterns of disease activity through mid-adulthood, Dr. Abuabara and colleagues evaluated members of two population-based birth cohorts: the 1958 National Childhood Development Study and the 1970 British Cohort Study. The patients were classified into one of four patters of disease activity followed to age 50: rare/none, increasing, decreasing, and high. “We found that there was the early-onset decreasing subgroup, which tend to have a lower probability of AD over time,” Dr. Abuabara said. “We also found that there was a small subgroup that had a constant high probability of AD over time. But we were surprised to find a subgroup with increasing probability over time. This was a fairly sizable subgroup.”

In an earlier study, she and her colleagues examined whether there were differences based on whether people had adult-onset or childhood-onset disease in the same two cohorts of U.K. patients. Those with childhood-onset disease had stronger associations with known genetic risk factors and they tended to be of higher socioeconomic status. “They also tended to have more asthma and other allergic comorbidities,” Dr. Abuabara said. “On the other hand, the adult-onset group [after age 23] were more likely to be female, more likely to be smokers, and tended to have lower childhood socioeconomic status.”

According to the best available evidence, she continued, there is good data on higher relative risk of osteoporosis/fractures and dementia specifically among older adults with AD, and good data on associations with cardiometabolic disease and atopic disease among adults overall, as well as data showing that AD does not seem to be associated with cancer overall. In a study conducted by Jonathan I. Silverberg, MD, PhD, MPH, and Mohammed S. Shaheen, JD, the researchers used physician-diagnosed AD to investigate the associations of osteopenia and osteoporosis in two large U.S. databases: the 2006-2012 Nationwide Emergency Department Sample (NEDS) database and 2002-2012 National Inpatient Sample (NIS). Among patients aged 50 years and older, AD was associated with a higher odds of osteoporosis in NEDS (aOR, 1.31) and NIS (aOR, 1.25) and osteopenia in NEDS (aOR, 1.86).

In a separate matched cohort study, Dr. Abuabara and colleagues used U.K. primary care patient data to evaluate the association between AD and fracture and whether fracture risk varies with AD severity. Overall, they observed a 10% increase in fracture risk among people with AD, compared with those without, especially those of the hip, spine, pelvis, and wrist. “We found that there was a dose-response effect,” she said. “Those with more severe eczema had a much higher risk of fractures. When we looked at different age groups, we found a similar increased risk in the oldest adults as in younger adults.”

In a longitudinal cohort study of primary care medical records from more than 1.1 million individuals in the United Kingdom, AD was associated with an increased risk of vascular dementia (hazard ratio, 1.88), Alzheimer’s disease (HR, 1.69, and other/unspecified dementia (HR, 1.48; .269). “We found a nice dose response, where people with more severe AD had higher rates of dementia,” Dr. Abuabara said. Results from a more recent, smaller study of patients in Taiwan also found an increased risk between AD and the risk of dementia, but not a dose-response effect, likely because of a much smaller sample size.

Mounting research suggests that the risk for cardiovascular disease is also elevated in patients with AD. “There is some variability in the literature, but I think it’s important that when we’re talking about atopic dermatitis to think about the heterogeneity of the disease,” Dr. Abuabara said. In a meta-analysis and systematic review of 19 studies on the topic, she and her colleagues found that AD was associated with an increased risk of myocardial infarction (relative risk, 1.12), stroke (RR, 1.10), ischemic stroke (RR, 1.17), angina (RR, 1.18), and heart failure (RR, 1.26). “For all the different [cardiovascular disease] outcomes there was increasing risk with increasing disease severity,” she said.

She reported that UCSF receives research funding from Pfizer and Cosmetique Active International. She also receives consulting fees from Target RWE.

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Atopic dermatitis (AD) may be especially active and severe among older adults, and it may be associated with increased risk of comorbid conditions common in later stages of life, including osteoporosis, dementia, and cardiovascular disease.

During the Revolutionizing Atopic Dermatitis virtual symposium, Katrina Abuabara, MD, highlighted the epidemiology and burden of AD among older adults. She began by noting that the disease peaks in infancy and older adulthood. In an analysis that she and her colleagues made of physician-diagnosed AD among more than 8.6 million patients in the United Kingdom between 1994 and 2013, the mean prevalence in a given year was 12.3% among those aged 0-17 years, 5.1% among those age 18-74 years, and 8.7% among those age 75 and older.

Dr. Katrina Abuabara

“We saw what we expected in early infancy with very high rates of active disease,” said Dr. Abuabara, associate professor of dermatology and epidemiology at the University of California, San Francisco. “We also saw a second peak in older adulthood. This was more surprising to us because the disease hadn’t been as well studied in this population.” Researchers who analyzed data from the Global Burden of Disease Study, which evaluates disease-related morbidity and mortality worldwide, found a somewhat attenuated peak but a similar trend around the world. Its authors ranked AD as 15th among all nonfatal diseases.

In a separate analysis, Dr. Abuabara and colleagues evaluated records of more than 9.1 million primary care patients in the United Kingdom between 1994 and 2013, and who were followed for an average of 6 years. They examined AD activity and found that, based on doctor visits and prescriptions, AD appeared to be active in 48% of those aged 0-17 years, compared with 42% of those aged 18-74 years, and 60% of those aged 75 years and older. “Also, when we looked at the distribution of active disease in older adults, we saw that those who were older had more severe disease,” she said. When they evaluated the prevalence of AD by sociodemographic factors, AD increased with age among older adults (adjusted odd ratio, 1.06), while it decreased by 14% annually among children. In addition, female older adults had about three-fourths the odds of prevalent disease as their male counterparts (aOR, 0.73).



“We also looked at rural and urban differences and found that across ages it was more common in urban as compared to rural populations,” she said. “As for socioeconomic status, it tends to be more common among those of higher socioeconomic status in children and in the older adult group.”

In a study that drew from medical records of 3.85 million primary care patients in the United Kingdom, AD was more common in Asian and Black ethnic groups than in people of White ethnicity. In addition, higher socioeconomic status was associated with a greater incidence of eczema in infants aged younger than 2 years, but the reverse was seen for all other age groups.

To identify subtypes of atopic eczema based on patterns of disease activity through mid-adulthood, Dr. Abuabara and colleagues evaluated members of two population-based birth cohorts: the 1958 National Childhood Development Study and the 1970 British Cohort Study. The patients were classified into one of four patters of disease activity followed to age 50: rare/none, increasing, decreasing, and high. “We found that there was the early-onset decreasing subgroup, which tend to have a lower probability of AD over time,” Dr. Abuabara said. “We also found that there was a small subgroup that had a constant high probability of AD over time. But we were surprised to find a subgroup with increasing probability over time. This was a fairly sizable subgroup.”

In an earlier study, she and her colleagues examined whether there were differences based on whether people had adult-onset or childhood-onset disease in the same two cohorts of U.K. patients. Those with childhood-onset disease had stronger associations with known genetic risk factors and they tended to be of higher socioeconomic status. “They also tended to have more asthma and other allergic comorbidities,” Dr. Abuabara said. “On the other hand, the adult-onset group [after age 23] were more likely to be female, more likely to be smokers, and tended to have lower childhood socioeconomic status.”

According to the best available evidence, she continued, there is good data on higher relative risk of osteoporosis/fractures and dementia specifically among older adults with AD, and good data on associations with cardiometabolic disease and atopic disease among adults overall, as well as data showing that AD does not seem to be associated with cancer overall. In a study conducted by Jonathan I. Silverberg, MD, PhD, MPH, and Mohammed S. Shaheen, JD, the researchers used physician-diagnosed AD to investigate the associations of osteopenia and osteoporosis in two large U.S. databases: the 2006-2012 Nationwide Emergency Department Sample (NEDS) database and 2002-2012 National Inpatient Sample (NIS). Among patients aged 50 years and older, AD was associated with a higher odds of osteoporosis in NEDS (aOR, 1.31) and NIS (aOR, 1.25) and osteopenia in NEDS (aOR, 1.86).

In a separate matched cohort study, Dr. Abuabara and colleagues used U.K. primary care patient data to evaluate the association between AD and fracture and whether fracture risk varies with AD severity. Overall, they observed a 10% increase in fracture risk among people with AD, compared with those without, especially those of the hip, spine, pelvis, and wrist. “We found that there was a dose-response effect,” she said. “Those with more severe eczema had a much higher risk of fractures. When we looked at different age groups, we found a similar increased risk in the oldest adults as in younger adults.”

In a longitudinal cohort study of primary care medical records from more than 1.1 million individuals in the United Kingdom, AD was associated with an increased risk of vascular dementia (hazard ratio, 1.88), Alzheimer’s disease (HR, 1.69, and other/unspecified dementia (HR, 1.48; .269). “We found a nice dose response, where people with more severe AD had higher rates of dementia,” Dr. Abuabara said. Results from a more recent, smaller study of patients in Taiwan also found an increased risk between AD and the risk of dementia, but not a dose-response effect, likely because of a much smaller sample size.

Mounting research suggests that the risk for cardiovascular disease is also elevated in patients with AD. “There is some variability in the literature, but I think it’s important that when we’re talking about atopic dermatitis to think about the heterogeneity of the disease,” Dr. Abuabara said. In a meta-analysis and systematic review of 19 studies on the topic, she and her colleagues found that AD was associated with an increased risk of myocardial infarction (relative risk, 1.12), stroke (RR, 1.10), ischemic stroke (RR, 1.17), angina (RR, 1.18), and heart failure (RR, 1.26). “For all the different [cardiovascular disease] outcomes there was increasing risk with increasing disease severity,” she said.

She reported that UCSF receives research funding from Pfizer and Cosmetique Active International. She also receives consulting fees from Target RWE.

 

Atopic dermatitis (AD) may be especially active and severe among older adults, and it may be associated with increased risk of comorbid conditions common in later stages of life, including osteoporosis, dementia, and cardiovascular disease.

During the Revolutionizing Atopic Dermatitis virtual symposium, Katrina Abuabara, MD, highlighted the epidemiology and burden of AD among older adults. She began by noting that the disease peaks in infancy and older adulthood. In an analysis that she and her colleagues made of physician-diagnosed AD among more than 8.6 million patients in the United Kingdom between 1994 and 2013, the mean prevalence in a given year was 12.3% among those aged 0-17 years, 5.1% among those age 18-74 years, and 8.7% among those age 75 and older.

Dr. Katrina Abuabara

“We saw what we expected in early infancy with very high rates of active disease,” said Dr. Abuabara, associate professor of dermatology and epidemiology at the University of California, San Francisco. “We also saw a second peak in older adulthood. This was more surprising to us because the disease hadn’t been as well studied in this population.” Researchers who analyzed data from the Global Burden of Disease Study, which evaluates disease-related morbidity and mortality worldwide, found a somewhat attenuated peak but a similar trend around the world. Its authors ranked AD as 15th among all nonfatal diseases.

In a separate analysis, Dr. Abuabara and colleagues evaluated records of more than 9.1 million primary care patients in the United Kingdom between 1994 and 2013, and who were followed for an average of 6 years. They examined AD activity and found that, based on doctor visits and prescriptions, AD appeared to be active in 48% of those aged 0-17 years, compared with 42% of those aged 18-74 years, and 60% of those aged 75 years and older. “Also, when we looked at the distribution of active disease in older adults, we saw that those who were older had more severe disease,” she said. When they evaluated the prevalence of AD by sociodemographic factors, AD increased with age among older adults (adjusted odd ratio, 1.06), while it decreased by 14% annually among children. In addition, female older adults had about three-fourths the odds of prevalent disease as their male counterparts (aOR, 0.73).



“We also looked at rural and urban differences and found that across ages it was more common in urban as compared to rural populations,” she said. “As for socioeconomic status, it tends to be more common among those of higher socioeconomic status in children and in the older adult group.”

In a study that drew from medical records of 3.85 million primary care patients in the United Kingdom, AD was more common in Asian and Black ethnic groups than in people of White ethnicity. In addition, higher socioeconomic status was associated with a greater incidence of eczema in infants aged younger than 2 years, but the reverse was seen for all other age groups.

To identify subtypes of atopic eczema based on patterns of disease activity through mid-adulthood, Dr. Abuabara and colleagues evaluated members of two population-based birth cohorts: the 1958 National Childhood Development Study and the 1970 British Cohort Study. The patients were classified into one of four patters of disease activity followed to age 50: rare/none, increasing, decreasing, and high. “We found that there was the early-onset decreasing subgroup, which tend to have a lower probability of AD over time,” Dr. Abuabara said. “We also found that there was a small subgroup that had a constant high probability of AD over time. But we were surprised to find a subgroup with increasing probability over time. This was a fairly sizable subgroup.”

In an earlier study, she and her colleagues examined whether there were differences based on whether people had adult-onset or childhood-onset disease in the same two cohorts of U.K. patients. Those with childhood-onset disease had stronger associations with known genetic risk factors and they tended to be of higher socioeconomic status. “They also tended to have more asthma and other allergic comorbidities,” Dr. Abuabara said. “On the other hand, the adult-onset group [after age 23] were more likely to be female, more likely to be smokers, and tended to have lower childhood socioeconomic status.”

According to the best available evidence, she continued, there is good data on higher relative risk of osteoporosis/fractures and dementia specifically among older adults with AD, and good data on associations with cardiometabolic disease and atopic disease among adults overall, as well as data showing that AD does not seem to be associated with cancer overall. In a study conducted by Jonathan I. Silverberg, MD, PhD, MPH, and Mohammed S. Shaheen, JD, the researchers used physician-diagnosed AD to investigate the associations of osteopenia and osteoporosis in two large U.S. databases: the 2006-2012 Nationwide Emergency Department Sample (NEDS) database and 2002-2012 National Inpatient Sample (NIS). Among patients aged 50 years and older, AD was associated with a higher odds of osteoporosis in NEDS (aOR, 1.31) and NIS (aOR, 1.25) and osteopenia in NEDS (aOR, 1.86).

In a separate matched cohort study, Dr. Abuabara and colleagues used U.K. primary care patient data to evaluate the association between AD and fracture and whether fracture risk varies with AD severity. Overall, they observed a 10% increase in fracture risk among people with AD, compared with those without, especially those of the hip, spine, pelvis, and wrist. “We found that there was a dose-response effect,” she said. “Those with more severe eczema had a much higher risk of fractures. When we looked at different age groups, we found a similar increased risk in the oldest adults as in younger adults.”

In a longitudinal cohort study of primary care medical records from more than 1.1 million individuals in the United Kingdom, AD was associated with an increased risk of vascular dementia (hazard ratio, 1.88), Alzheimer’s disease (HR, 1.69, and other/unspecified dementia (HR, 1.48; .269). “We found a nice dose response, where people with more severe AD had higher rates of dementia,” Dr. Abuabara said. Results from a more recent, smaller study of patients in Taiwan also found an increased risk between AD and the risk of dementia, but not a dose-response effect, likely because of a much smaller sample size.

Mounting research suggests that the risk for cardiovascular disease is also elevated in patients with AD. “There is some variability in the literature, but I think it’s important that when we’re talking about atopic dermatitis to think about the heterogeneity of the disease,” Dr. Abuabara said. In a meta-analysis and systematic review of 19 studies on the topic, she and her colleagues found that AD was associated with an increased risk of myocardial infarction (relative risk, 1.12), stroke (RR, 1.10), ischemic stroke (RR, 1.17), angina (RR, 1.18), and heart failure (RR, 1.26). “For all the different [cardiovascular disease] outcomes there was increasing risk with increasing disease severity,” she said.

She reported that UCSF receives research funding from Pfizer and Cosmetique Active International. She also receives consulting fees from Target RWE.

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Epilepsy in older adults: Misdiagnosis and case complexity are common

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Many older adults with epilepsy are misdiagnosed even though the highest incidence of the disease is in people over 75, a neurologist told an audience at the annual meeting of the American Epilepsy Society. She urged colleagues to focus on possible interactions with other neurological conditions, consider various complicating factors, and embrace a team strategy.

“There are lots of nuances,” said Rebecca O’Dwyer, MD, an adult epilepsy specialist with Rush Epilepsy Center in Chicago. “It takes a lot of time and requires a multidisciplinary approach. Taking care of older individuals with epilepsy truly is a team sport.”

According to a 2014 report highlighted by Dr. O’Dwyer, “nearly 25% of new-onset seizures occur after age 65. The incidence of epilepsy in this age group is almost twice the rate in children, and in people over age 80, it is triple the rate in children.”

Research suggests it can take up to 2 years to correctly diagnose epilepsy in older people, Dr. O’Dwyer said, and nearly two-thirds of cases may be misdiagnosed. “Some of it is just limited awareness. There’s this perception in the public that epilepsy is something that occurs in younger adults or young children, and that when you come to a certain age, you cannot have epilepsy. Also, there are differences in the clinical manifestations of their seizures, and many comorbid possibilities could also present in similar fashion to epilepsy. Some of our usual tools that we use to come to the diagnosis such as EEG are also known to be less sensitive in this age group.”

According to the 2014 report, research finds that the elderly are much more likely than young adults to have postictal sleepiness or unresponsiveness and seizures manifesting as brief moments of subtle confusion. They’re much less likely to have epileptic aura and generalized tonic seizures.

“An epileptic seizure in an older adult tends to be less dramatic with fewer motor manifestations, and they often tend to be monophasic. They may be so subtle that they’re missed by family members and other medical providers,” Dr. O’Dwyer said. “I had a patient whose seizure consisted of her tapping her left shoulder. She had been doing this for at least 6 months, and she came to my clinic after her daughter realized that she was a little confused afterward. She’d already seen a behavioral neurologist and been given the diagnosis of dementia. We were fortunate enough to catch one of these episodes while we were doing an EEG, and we diagnosed her with focal epilepsy. With one antiseizure medication, we stopped the seizures, and her memory came back.”

Make sure to take detailed histories and keep an eye out for descriptions of behaviors that are episodic but perhaps not typical of seizures, she said.

Epilepsy can be misdiagnosed as a variety of conditions, she said, such as syncope, Alzheimer’s disease, stroke, Parkinson’s disease, and atrial fibrillation. “When you do diagnose somebody older with new-onset epilepsy, you should work them up for a stroke. Because we know that within the first 4 weeks after their first seizure the likelihood that they could have a stroke is three times higher.”

It’s also possible that neurological conditions can be followed by new-onset epilepsy, she said, making dementia even worse. Low-dose antiepileptic drugs can be helpful in these patients.

But seniors are especially vulnerable to side effects of antiepileptic drugs such as sedation, dizziness, and cardiac-conduction abnormalities. “You must adhere to the mantra of going low and going slow because they are exquisitely susceptible,” Dr. O’Dwyer said.

She recommends lamotrigine, which is well tolerated with helpful mood-stabilizing effects, and levetiracetam, which attenuates cognitive decline in dementia but may cause side effects such as irritable mood. Zonisamide is showing promise in patients with parkinsonian syndromes, she said, and it may be helpful to maximize drugs that patients are already taking such as gabapentin or pregabalin.

Finally, Dr. O’Dwyer urged colleagues to work in teams that include caregivers, primary care doctors, social workers, and pharmacists. “Sometimes in all this,” she said, “my job is the easiest.”

Dr. O’Dwyer discloses research support from the Shapiro Foundation.

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Many older adults with epilepsy are misdiagnosed even though the highest incidence of the disease is in people over 75, a neurologist told an audience at the annual meeting of the American Epilepsy Society. She urged colleagues to focus on possible interactions with other neurological conditions, consider various complicating factors, and embrace a team strategy.

“There are lots of nuances,” said Rebecca O’Dwyer, MD, an adult epilepsy specialist with Rush Epilepsy Center in Chicago. “It takes a lot of time and requires a multidisciplinary approach. Taking care of older individuals with epilepsy truly is a team sport.”

According to a 2014 report highlighted by Dr. O’Dwyer, “nearly 25% of new-onset seizures occur after age 65. The incidence of epilepsy in this age group is almost twice the rate in children, and in people over age 80, it is triple the rate in children.”

Research suggests it can take up to 2 years to correctly diagnose epilepsy in older people, Dr. O’Dwyer said, and nearly two-thirds of cases may be misdiagnosed. “Some of it is just limited awareness. There’s this perception in the public that epilepsy is something that occurs in younger adults or young children, and that when you come to a certain age, you cannot have epilepsy. Also, there are differences in the clinical manifestations of their seizures, and many comorbid possibilities could also present in similar fashion to epilepsy. Some of our usual tools that we use to come to the diagnosis such as EEG are also known to be less sensitive in this age group.”

According to the 2014 report, research finds that the elderly are much more likely than young adults to have postictal sleepiness or unresponsiveness and seizures manifesting as brief moments of subtle confusion. They’re much less likely to have epileptic aura and generalized tonic seizures.

“An epileptic seizure in an older adult tends to be less dramatic with fewer motor manifestations, and they often tend to be monophasic. They may be so subtle that they’re missed by family members and other medical providers,” Dr. O’Dwyer said. “I had a patient whose seizure consisted of her tapping her left shoulder. She had been doing this for at least 6 months, and she came to my clinic after her daughter realized that she was a little confused afterward. She’d already seen a behavioral neurologist and been given the diagnosis of dementia. We were fortunate enough to catch one of these episodes while we were doing an EEG, and we diagnosed her with focal epilepsy. With one antiseizure medication, we stopped the seizures, and her memory came back.”

Make sure to take detailed histories and keep an eye out for descriptions of behaviors that are episodic but perhaps not typical of seizures, she said.

Epilepsy can be misdiagnosed as a variety of conditions, she said, such as syncope, Alzheimer’s disease, stroke, Parkinson’s disease, and atrial fibrillation. “When you do diagnose somebody older with new-onset epilepsy, you should work them up for a stroke. Because we know that within the first 4 weeks after their first seizure the likelihood that they could have a stroke is three times higher.”

It’s also possible that neurological conditions can be followed by new-onset epilepsy, she said, making dementia even worse. Low-dose antiepileptic drugs can be helpful in these patients.

But seniors are especially vulnerable to side effects of antiepileptic drugs such as sedation, dizziness, and cardiac-conduction abnormalities. “You must adhere to the mantra of going low and going slow because they are exquisitely susceptible,” Dr. O’Dwyer said.

She recommends lamotrigine, which is well tolerated with helpful mood-stabilizing effects, and levetiracetam, which attenuates cognitive decline in dementia but may cause side effects such as irritable mood. Zonisamide is showing promise in patients with parkinsonian syndromes, she said, and it may be helpful to maximize drugs that patients are already taking such as gabapentin or pregabalin.

Finally, Dr. O’Dwyer urged colleagues to work in teams that include caregivers, primary care doctors, social workers, and pharmacists. “Sometimes in all this,” she said, “my job is the easiest.”

Dr. O’Dwyer discloses research support from the Shapiro Foundation.

 

Many older adults with epilepsy are misdiagnosed even though the highest incidence of the disease is in people over 75, a neurologist told an audience at the annual meeting of the American Epilepsy Society. She urged colleagues to focus on possible interactions with other neurological conditions, consider various complicating factors, and embrace a team strategy.

“There are lots of nuances,” said Rebecca O’Dwyer, MD, an adult epilepsy specialist with Rush Epilepsy Center in Chicago. “It takes a lot of time and requires a multidisciplinary approach. Taking care of older individuals with epilepsy truly is a team sport.”

According to a 2014 report highlighted by Dr. O’Dwyer, “nearly 25% of new-onset seizures occur after age 65. The incidence of epilepsy in this age group is almost twice the rate in children, and in people over age 80, it is triple the rate in children.”

Research suggests it can take up to 2 years to correctly diagnose epilepsy in older people, Dr. O’Dwyer said, and nearly two-thirds of cases may be misdiagnosed. “Some of it is just limited awareness. There’s this perception in the public that epilepsy is something that occurs in younger adults or young children, and that when you come to a certain age, you cannot have epilepsy. Also, there are differences in the clinical manifestations of their seizures, and many comorbid possibilities could also present in similar fashion to epilepsy. Some of our usual tools that we use to come to the diagnosis such as EEG are also known to be less sensitive in this age group.”

According to the 2014 report, research finds that the elderly are much more likely than young adults to have postictal sleepiness or unresponsiveness and seizures manifesting as brief moments of subtle confusion. They’re much less likely to have epileptic aura and generalized tonic seizures.

“An epileptic seizure in an older adult tends to be less dramatic with fewer motor manifestations, and they often tend to be monophasic. They may be so subtle that they’re missed by family members and other medical providers,” Dr. O’Dwyer said. “I had a patient whose seizure consisted of her tapping her left shoulder. She had been doing this for at least 6 months, and she came to my clinic after her daughter realized that she was a little confused afterward. She’d already seen a behavioral neurologist and been given the diagnosis of dementia. We were fortunate enough to catch one of these episodes while we were doing an EEG, and we diagnosed her with focal epilepsy. With one antiseizure medication, we stopped the seizures, and her memory came back.”

Make sure to take detailed histories and keep an eye out for descriptions of behaviors that are episodic but perhaps not typical of seizures, she said.

Epilepsy can be misdiagnosed as a variety of conditions, she said, such as syncope, Alzheimer’s disease, stroke, Parkinson’s disease, and atrial fibrillation. “When you do diagnose somebody older with new-onset epilepsy, you should work them up for a stroke. Because we know that within the first 4 weeks after their first seizure the likelihood that they could have a stroke is three times higher.”

It’s also possible that neurological conditions can be followed by new-onset epilepsy, she said, making dementia even worse. Low-dose antiepileptic drugs can be helpful in these patients.

But seniors are especially vulnerable to side effects of antiepileptic drugs such as sedation, dizziness, and cardiac-conduction abnormalities. “You must adhere to the mantra of going low and going slow because they are exquisitely susceptible,” Dr. O’Dwyer said.

She recommends lamotrigine, which is well tolerated with helpful mood-stabilizing effects, and levetiracetam, which attenuates cognitive decline in dementia but may cause side effects such as irritable mood. Zonisamide is showing promise in patients with parkinsonian syndromes, she said, and it may be helpful to maximize drugs that patients are already taking such as gabapentin or pregabalin.

Finally, Dr. O’Dwyer urged colleagues to work in teams that include caregivers, primary care doctors, social workers, and pharmacists. “Sometimes in all this,” she said, “my job is the easiest.”

Dr. O’Dwyer discloses research support from the Shapiro Foundation.

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Sleep disturbances more profound in older adults with atopic dermatitis

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Patients ages 65 years and older with atopic dermatitis (AD) have similar disease severity when compared with younger adult patients, but they have more profound sleep disturbances, especially trouble staying asleep.

Dr. Jonathan I. Silverberg

Those are key findings from a cross-sectional study that Jaya Manjunath, BS, and Jonathan I. Silverberg, MD, PhD, MPH, presented during a poster session at the Revolutionizing Atopic Dermatitis symposium.

“Atopic dermatitis is a chronic, pruritic skin disease associated with sleep disturbance and fatigue affecting adults of all ages,” they wrote. “When caring for geriatric patients, several factors such as sleep disturbance, polypharmacy, cognition, social support, and mobility should be considered. However, little is known about the characteristics of atopic dermatitis in the geriatric population.”

Ms. Manjunath, a student at George Washington University, Washington, and Dr. Silverberg, director of clinical research in the department of dermatology at GWU, recruited patients with AD aged 18 years and older diagnosed by Hanifin-Rajka criteria who were evaluated at an academic medical center between 2014 and 2019. They underwent full body skin exams and completed electronic questionnaires. AD severity was assessed with the Eczema Area and Severity Index (EASI), Scoring Atopic Dermatitis (SCORAD) total and itch subscores, Investigator’s Global Assessment (IGA), patient-reported Global Assessment of AD severity, and the Patient-Oriented Eczema Measure (POEM).

The researchers also assessed the frequency of sleep disturbances, including difficulty falling asleep and staying asleep, and used multivariable logistic regression models to evaluate associations of age (65 and older vs. 18-64 years) with AD severity, sleep disturbance or fatigue, controlling for total POEM score, sex, and race.



Using adjusted odds ratios, Ms. Manjunath and Dr. Silverberg found that being 65 or older was not associated with AD severity on the EASI (adjusted odds ratio, 1.47); total SCORAD (aOR, 1.10), and itch subscore (aOR, 1.00); IGA (aOR, 1.87); patient-reported Global Assessment of AD severity (aOR, 0.80), or the patient-oriented eczema measure (aOR, 0.55), associations that were not statistically significant.

However, the researchers found that older adult age was associated with an increased number of nights of sleep disturbance from AD in the past week (aOR, 2.14; P = .0142), as well as increased fatigue in the past 7 days (aOR, 1.81; P = .0313), trouble sleeping in the past 7 days (aOR, 1.98; P = .0118), and trouble staying asleep in the past 7 days (aOR, 2.26; P = .0030), but not with difficulty falling asleep in the last 7 days (aOR, 1.16; P = .5996).

“Future studies are needed to determine why geriatric AD patients have increased sleep disturbance and optimal interventions to address their sleep disturbance,” the researchers concluded.

The study was supported by the Agency for Healthcare Research and Quality, the Dermatology Foundation, and by an unrestricted grant from Galderma. Ms. Manjunath disclosed no relevant financial relationships. Dr. Silverberg reported that he is a consultant to and/or an advisory board member for several pharmaceutical companies. He is also a speaker for Regeneron and Sanofi and has received a grant from Galderma.

A version of this article first appeared on Medscape.com.

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Patients ages 65 years and older with atopic dermatitis (AD) have similar disease severity when compared with younger adult patients, but they have more profound sleep disturbances, especially trouble staying asleep.

Dr. Jonathan I. Silverberg

Those are key findings from a cross-sectional study that Jaya Manjunath, BS, and Jonathan I. Silverberg, MD, PhD, MPH, presented during a poster session at the Revolutionizing Atopic Dermatitis symposium.

“Atopic dermatitis is a chronic, pruritic skin disease associated with sleep disturbance and fatigue affecting adults of all ages,” they wrote. “When caring for geriatric patients, several factors such as sleep disturbance, polypharmacy, cognition, social support, and mobility should be considered. However, little is known about the characteristics of atopic dermatitis in the geriatric population.”

Ms. Manjunath, a student at George Washington University, Washington, and Dr. Silverberg, director of clinical research in the department of dermatology at GWU, recruited patients with AD aged 18 years and older diagnosed by Hanifin-Rajka criteria who were evaluated at an academic medical center between 2014 and 2019. They underwent full body skin exams and completed electronic questionnaires. AD severity was assessed with the Eczema Area and Severity Index (EASI), Scoring Atopic Dermatitis (SCORAD) total and itch subscores, Investigator’s Global Assessment (IGA), patient-reported Global Assessment of AD severity, and the Patient-Oriented Eczema Measure (POEM).

The researchers also assessed the frequency of sleep disturbances, including difficulty falling asleep and staying asleep, and used multivariable logistic regression models to evaluate associations of age (65 and older vs. 18-64 years) with AD severity, sleep disturbance or fatigue, controlling for total POEM score, sex, and race.



Using adjusted odds ratios, Ms. Manjunath and Dr. Silverberg found that being 65 or older was not associated with AD severity on the EASI (adjusted odds ratio, 1.47); total SCORAD (aOR, 1.10), and itch subscore (aOR, 1.00); IGA (aOR, 1.87); patient-reported Global Assessment of AD severity (aOR, 0.80), or the patient-oriented eczema measure (aOR, 0.55), associations that were not statistically significant.

However, the researchers found that older adult age was associated with an increased number of nights of sleep disturbance from AD in the past week (aOR, 2.14; P = .0142), as well as increased fatigue in the past 7 days (aOR, 1.81; P = .0313), trouble sleeping in the past 7 days (aOR, 1.98; P = .0118), and trouble staying asleep in the past 7 days (aOR, 2.26; P = .0030), but not with difficulty falling asleep in the last 7 days (aOR, 1.16; P = .5996).

“Future studies are needed to determine why geriatric AD patients have increased sleep disturbance and optimal interventions to address their sleep disturbance,” the researchers concluded.

The study was supported by the Agency for Healthcare Research and Quality, the Dermatology Foundation, and by an unrestricted grant from Galderma. Ms. Manjunath disclosed no relevant financial relationships. Dr. Silverberg reported that he is a consultant to and/or an advisory board member for several pharmaceutical companies. He is also a speaker for Regeneron and Sanofi and has received a grant from Galderma.

A version of this article first appeared on Medscape.com.

 

Patients ages 65 years and older with atopic dermatitis (AD) have similar disease severity when compared with younger adult patients, but they have more profound sleep disturbances, especially trouble staying asleep.

Dr. Jonathan I. Silverberg

Those are key findings from a cross-sectional study that Jaya Manjunath, BS, and Jonathan I. Silverberg, MD, PhD, MPH, presented during a poster session at the Revolutionizing Atopic Dermatitis symposium.

“Atopic dermatitis is a chronic, pruritic skin disease associated with sleep disturbance and fatigue affecting adults of all ages,” they wrote. “When caring for geriatric patients, several factors such as sleep disturbance, polypharmacy, cognition, social support, and mobility should be considered. However, little is known about the characteristics of atopic dermatitis in the geriatric population.”

Ms. Manjunath, a student at George Washington University, Washington, and Dr. Silverberg, director of clinical research in the department of dermatology at GWU, recruited patients with AD aged 18 years and older diagnosed by Hanifin-Rajka criteria who were evaluated at an academic medical center between 2014 and 2019. They underwent full body skin exams and completed electronic questionnaires. AD severity was assessed with the Eczema Area and Severity Index (EASI), Scoring Atopic Dermatitis (SCORAD) total and itch subscores, Investigator’s Global Assessment (IGA), patient-reported Global Assessment of AD severity, and the Patient-Oriented Eczema Measure (POEM).

The researchers also assessed the frequency of sleep disturbances, including difficulty falling asleep and staying asleep, and used multivariable logistic regression models to evaluate associations of age (65 and older vs. 18-64 years) with AD severity, sleep disturbance or fatigue, controlling for total POEM score, sex, and race.



Using adjusted odds ratios, Ms. Manjunath and Dr. Silverberg found that being 65 or older was not associated with AD severity on the EASI (adjusted odds ratio, 1.47); total SCORAD (aOR, 1.10), and itch subscore (aOR, 1.00); IGA (aOR, 1.87); patient-reported Global Assessment of AD severity (aOR, 0.80), or the patient-oriented eczema measure (aOR, 0.55), associations that were not statistically significant.

However, the researchers found that older adult age was associated with an increased number of nights of sleep disturbance from AD in the past week (aOR, 2.14; P = .0142), as well as increased fatigue in the past 7 days (aOR, 1.81; P = .0313), trouble sleeping in the past 7 days (aOR, 1.98; P = .0118), and trouble staying asleep in the past 7 days (aOR, 2.26; P = .0030), but not with difficulty falling asleep in the last 7 days (aOR, 1.16; P = .5996).

“Future studies are needed to determine why geriatric AD patients have increased sleep disturbance and optimal interventions to address their sleep disturbance,” the researchers concluded.

The study was supported by the Agency for Healthcare Research and Quality, the Dermatology Foundation, and by an unrestricted grant from Galderma. Ms. Manjunath disclosed no relevant financial relationships. Dr. Silverberg reported that he is a consultant to and/or an advisory board member for several pharmaceutical companies. He is also a speaker for Regeneron and Sanofi and has received a grant from Galderma.

A version of this article first appeared on Medscape.com.

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