Neurology

Multiple Sclerosis (MS) is a chronic demyelinating disease of the central nervous system that affects nearly 1 million people in the US.¹ In addition to the accumulation of functional limitations, patients with MS commonly experience mental health and physical symptoms such as depression, anxiety, stress, fatigue, and pain. Day-to-day life with MS requires adaptation to challenges and active maintenance of health and well-being over time. Behavioral intervention and treatment, whether in the form of psychotherapy, health behavior coaching, or the promotion of active self-management, is an integral component of interprofessional care and key aspect of living well with MS.

Behavioral Comorbidities

Depression

Depression is a common concern among individuals with MS. Population-based studies suggest that individuals with MS have a roughly 1 in 4 chance of developing major depressive disorder over their lifetime.² However, at any given time, between 40% and 60% of individuals with MS report clinically meaningful levels of depressive symptoms.³ Although the relationship between MS disease characteristics and depression is unclear, some evidence suggests that depressive symptoms are more common at certain points in illness, such as early in the disease process as individuals grapple with the onset of new symptoms, late in the disease process as they accumulate greater disability, and during active clinical relapses.^3-5

Depression often is comorbid with, and adds to the symptom burden of, other common conditions in MS such as fatigue and cognitive dysfunction.^6-8 Thus, it is not surprising that it associated with poorer overall quality of life (QOL).⁹ Depression also is a risk factor for suicidal ideation and suicide for patients with MS.^10,11

Fortunately, several behavioral interventions show promise in treating depression in patients with MS. Both individual and group formats of cognitive behavioral therapy (CBT), a treatment focused on challenging maladaptive patterns of thought and behavior, have been shown to improve depressive symptoms for people with MS.^12,13 Several brief and efficient group-based programs grounded in CBT and focused on the development of specific skills, including problem solving, goal setting, relationship management, and managing emotions, have been shown to reduce depressive symptoms.^13,14 CBT for depression in MS has been shown to be effective when delivered via telephone.^15,16

Anxiety

Anxiety is common among individuals with MS. Existing data suggest more than one-third of individuals with MS will qualify for a diagnosis of anxiety disorder during their lifetime.¹⁷ The characteristics of anxiety disorders are broad and heterogenous, including generalized anxiety disorder, panic disorder, obsessive compulsive disorders, and health-specific phobias such as needle/injection anxiety. Some estimates suggest a point prevalence of 34% for the presence of clinically meaningful symptoms.¹⁸ Similar to depression, anxiety symptoms can be more common during periods of stress, threat, and transition including early in the disease course while adapting to new diagnosis, late in the disease course with increasing disability, and during clinical relapses.^19-21

The efficacy of behavioral interventions for anxiety in MS is less well established than it is for depression, but some preliminary evidence suggests that individual CBT may be effective for reducing general symptoms of anxiety as well as health-related anxiety.^22,23 Brief, targeted CBT also has been shown to improve injection anxiety, removing a barrier to self-care including the administration of MS disease modifying therapies (DMTs).²⁴

Stress

Stress is commonly conceptualized as a person’s perception that efforts to manage internal and external demands exceed available coping resources.²⁵ Such demands involve both psychological and physiological processes and come in many forms for people with MS and can include daily hassles, major life events, traumatic stress, and perceptions of global nonspecific stress. The relationship between stress and MS remains complex and poorly understood. Nonetheless, individuals with MS frequently report that stress exacerbates their symptoms.²⁶

Some evidence also suggests stress may exacerbate the MS disease process, resulting in more frequent relapses and increased lesion activity visible on MRI.^27,28 In addition to mindfulness (described below), stress inoculation training (CBT and relaxation training), and stress-focused group-based self-management have been shown to be beneficial.^29,30 In an intriguing and rigorous trial, a 24-week stress management therapy based on CBT was associated with the development of fewer new MS lesions visible on MRI.³¹

Adaptation to Illness

MS presents challenges that vary between patients and over time. Individuals may confront new physical and cognitive limitations that inhibit the completion of daily tasks, reduce independence, and limit participation in valued and meaningful activities. In addition, the unpredictability of the disease contributes to perceptions of uncertainty and uncontrollability, which in turn result in higher illness impact and poorer psychological outcomes.³² Building cognitive and behavioral skills to address these challenges can promote adaptation to illness and reduce overall distress associated with chronic illness.³³ Psychosocial intervention also can address the uncertainty commonly experienced by individuals with MS.³⁴

Self-Management

As with any chronic illness, living well with MS requires ongoing commitment and active engagement with health and personal care over time. The process of building knowledge and skills to manage the day-to-day physical, emotional, and social aspects of living with illness often is referred to as self-management.³⁵ For individuals with MS, this may take the form of participation in programs that address adaptation and psychological distress like those described above, but it also may include improving health behavior (eg, physical activity, DMT adherence, modification of maladaptive habits like smoking or hazardous alcohol use) and symptom management (eg, fatigue, pain). Self-management programs typically include education, the practice of identifying, problem solving, and following through with specific and realistic health and wellness goals, as well as the bolstering of self-efficacy.

Physical Activity

Once discouraged for patients with MS, physical activity is now considered a cornerstone of health and wellness. Physical activity and interventions that target various forms of exercise have been shown to improve strength and endurance, reduce functional decline, enhance QOL, and likely reduce mortality.^35-39 A variety of brief behavioral interventions have been shown to improve physical activity in MS. Structured group-based exercise classes focusing on various activities such as aerobic training (eg, cycling) or resistance training (eg, lower extremity strengthening) have demonstrated improvements in various measures of fitness and mood states such as depression and QOL. Brief home-based telephone counseling interventions based in social cognitive theory (eg, goal setting, navigating obstacles) and motivational interviewing strategies (eg, open-ended questions, affirmation, reflective listening, summarizing) also have been shown to be effective not only at increasing physical activity and improving depression and fatigue.^40,41

Adherence to Treatment

One primary focus of adherence to treatment is medication management. For individuals with MS, DMTs represent a primary means of reducing disease burden and delaying functional decline. Many DMTs require consistent self-administration over time. Some evidence suggests that poorer adherence is associated with a greater risk of relapse and more rapid disease progression.^42,43 Brief telephone counseling, again based on social cognitive theory, and principles of motivational interviewing combined with home telehealth monitoring by a care coordinator has been shown to improve adherence to DMTs.⁴⁴

Mindfulness

In recent years, mindfulness training has emerged as a popular and common behavioral intervention among individuals with MS. Programs like Mindfulness-Based Stress Reduction (MBSR) provide training in meditation techniques designed to promote mindfulness, which is defined as paying attention to present moment experience, including sensations, thoughts, and emotions, without judgment or attachment.⁴⁵ Cultivating mindfulness helps people with MS cope with and adapt to symptoms and stressors.⁴⁶ Mindfulness interventions typically are delivered in a group format. For example, MBSR consists of 8 in-person group sessions with daily meditation practice homework. Mindfulness interventions also have been delivered effectively with smartphone apps.⁴⁷ Mindfulness programs have been shown to improve depression, anxiety, fatigue, stress, and QOL for patients with MS.^48-50

Fatigue

More than 90% of individuals with MS report fatigue, and many identify it as their most disabling symptom.⁵¹ Often defined as “a subjective lack of physical and/or mental energy that is perceived by the individual or caregiver to interfere with usual and desired activities,” fatigue has been shown to be associated with longer disease duration, greater physical disability, progressive subtype, and depressive symptoms, although the relative and possibly overlapping impact of these issues is only partially understood.^52,53 Fatigue is associated with poorer overall mental health and negatively impacts work and social roles.⁵⁴

Several behavioral interventions have been developed to address fatigue in MS. Using both individual and group based formats and across several modalities (eg, in-person, telephone, online modules, or a combination), behavioral fatigue interventions most commonly combine traditional general CBT skills (eg, addressing maladaptive thoughts and behaviors) with a variety of fatigue-specific skill building exercises that may include fatigue education, energy conservation strategies, improving sleep, enlisting social support, and self-management goal setting strategies.^35,55-57

Pain

Chronic pain is common and disabling in people with MS.^58,59 Nearly 50% report experiencing moderate to severe chronic pain.^59,60 Individuals with MS reporting pain often are older, more disabled (higher Expanded Disability Status Scale score), and have longer disease duration that those who are not experiencing chronic pain.⁶¹ Patients report various types of pain in the following order of frequency: dysesthetic pain (18.1%), back pain (16.4%), painful tonic spasms (11.0%), Lhermitte sign (9.0%), visceral pain (2.9%), and trigeminal neuralgia (2.0%).⁶¹ Chronic pain has a negative impact on QOL in the areas of sleep, work, maintaining relationships, recreational activities, and overall life enjoyment.⁵⁹ Additionally, research has shown that greater pain intensity and pain-related interference with activities of daily living are both associated with greater depression severity.^62,63

The literature supports the use of behavioral interventions for pain in people with MS.⁶¹ Behavioral interventions include in-person exercise interventions (eg, water aerobics, cycling, rowing ergometer, treadmill walking, and resistance training), self-hypnosis, and telephone-based self-management programs based on CBT.^35,64,65 As described above, CBT-based self-management programs combine learning CBT skills (eg, modifying maladaptive thoughts) with pain-specific skill building such as pain education, pacing activities, and improving sleep. Of note, MS education including, but not limited to, pain was as effective as a CBT-based self-management program in reducing pain intensity and interference.³⁵ In addition, there is evidence to support acceptance- and mindfulness-based interventions for chronic pain, and online mindfulness-based cognitive therapy for MS related pain is currently being tested in a randomized controlled trial.^35,66

Conclusion

People with MS face significant challenges in coping with and adapting to a chronic and unpredictable disease. However, there is considerable evidence that behavioral interventions can improve many of the most common and disabling symptoms in MS including depression, anxiety, stress, fatigue, and pain as well as health behavior and self-care. Research also suggests that improvements in one of these problems (eg, physical inactivity) can influence improvement in other symptoms (eg, depression and fatigue). Unlike other treatment options, behavioral interventions can be delivered in various formats (eg, in-person and electronic health), are time-limited, and cause few (if any) undesirable systemic adverse effects. Behavioral interventions are therefore, an essential part of interprofessional care and rehabilitation for patients with MS.

Multiple Sclerosis (MS) is a chronic demyelinating disease of the central nervous system that affects nearly 1 million people in the US.¹ In addition to the accumulation of functional limitations, patients with MS commonly experience mental health and physical symptoms such as depression, anxiety, stress, fatigue, and pain. Day-to-day life with MS requires adaptation to challenges and active maintenance of health and well-being over time. Behavioral intervention and treatment, whether in the form of psychotherapy, health behavior coaching, or the promotion of active self-management, is an integral component of interprofessional care and key aspect of living well with MS.

Behavioral Comorbidities

Depression

Depression is a common concern among individuals with MS. Population-based studies suggest that individuals with MS have a roughly 1 in 4 chance of developing major depressive disorder over their lifetime.² However, at any given time, between 40% and 60% of individuals with MS report clinically meaningful levels of depressive symptoms.³ Although the relationship between MS disease characteristics and depression is unclear, some evidence suggests that depressive symptoms are more common at certain points in illness, such as early in the disease process as individuals grapple with the onset of new symptoms, late in the disease process as they accumulate greater disability, and during active clinical relapses.^3-5

Depression often is comorbid with, and adds to the symptom burden of, other common conditions in MS such as fatigue and cognitive dysfunction.^6-8 Thus, it is not surprising that it associated with poorer overall quality of life (QOL).⁹ Depression also is a risk factor for suicidal ideation and suicide for patients with MS.^10,11

Fortunately, several behavioral interventions show promise in treating depression in patients with MS. Both individual and group formats of cognitive behavioral therapy (CBT), a treatment focused on challenging maladaptive patterns of thought and behavior, have been shown to improve depressive symptoms for people with MS.^12,13 Several brief and efficient group-based programs grounded in CBT and focused on the development of specific skills, including problem solving, goal setting, relationship management, and managing emotions, have been shown to reduce depressive symptoms.^13,14 CBT for depression in MS has been shown to be effective when delivered via telephone.^15,16

Anxiety

Anxiety is common among individuals with MS. Existing data suggest more than one-third of individuals with MS will qualify for a diagnosis of anxiety disorder during their lifetime.¹⁷ The characteristics of anxiety disorders are broad and heterogenous, including generalized anxiety disorder, panic disorder, obsessive compulsive disorders, and health-specific phobias such as needle/injection anxiety. Some estimates suggest a point prevalence of 34% for the presence of clinically meaningful symptoms.¹⁸ Similar to depression, anxiety symptoms can be more common during periods of stress, threat, and transition including early in the disease course while adapting to new diagnosis, late in the disease course with increasing disability, and during clinical relapses.^19-21

The efficacy of behavioral interventions for anxiety in MS is less well established than it is for depression, but some preliminary evidence suggests that individual CBT may be effective for reducing general symptoms of anxiety as well as health-related anxiety.^22,23 Brief, targeted CBT also has been shown to improve injection anxiety, removing a barrier to self-care including the administration of MS disease modifying therapies (DMTs).²⁴

Stress

Stress is commonly conceptualized as a person’s perception that efforts to manage internal and external demands exceed available coping resources.²⁵ Such demands involve both psychological and physiological processes and come in many forms for people with MS and can include daily hassles, major life events, traumatic stress, and perceptions of global nonspecific stress. The relationship between stress and MS remains complex and poorly understood. Nonetheless, individuals with MS frequently report that stress exacerbates their symptoms.²⁶

Some evidence also suggests stress may exacerbate the MS disease process, resulting in more frequent relapses and increased lesion activity visible on MRI.^27,28 In addition to mindfulness (described below), stress inoculation training (CBT and relaxation training), and stress-focused group-based self-management have been shown to be beneficial.^29,30 In an intriguing and rigorous trial, a 24-week stress management therapy based on CBT was associated with the development of fewer new MS lesions visible on MRI.³¹

Adaptation to Illness

MS presents challenges that vary between patients and over time. Individuals may confront new physical and cognitive limitations that inhibit the completion of daily tasks, reduce independence, and limit participation in valued and meaningful activities. In addition, the unpredictability of the disease contributes to perceptions of uncertainty and uncontrollability, which in turn result in higher illness impact and poorer psychological outcomes.³² Building cognitive and behavioral skills to address these challenges can promote adaptation to illness and reduce overall distress associated with chronic illness.³³ Psychosocial intervention also can address the uncertainty commonly experienced by individuals with MS.³⁴

Self-Management

As with any chronic illness, living well with MS requires ongoing commitment and active engagement with health and personal care over time. The process of building knowledge and skills to manage the day-to-day physical, emotional, and social aspects of living with illness often is referred to as self-management.³⁵ For individuals with MS, this may take the form of participation in programs that address adaptation and psychological distress like those described above, but it also may include improving health behavior (eg, physical activity, DMT adherence, modification of maladaptive habits like smoking or hazardous alcohol use) and symptom management (eg, fatigue, pain). Self-management programs typically include education, the practice of identifying, problem solving, and following through with specific and realistic health and wellness goals, as well as the bolstering of self-efficacy.

Physical Activity

Once discouraged for patients with MS, physical activity is now considered a cornerstone of health and wellness. Physical activity and interventions that target various forms of exercise have been shown to improve strength and endurance, reduce functional decline, enhance QOL, and likely reduce mortality.^35-39 A variety of brief behavioral interventions have been shown to improve physical activity in MS. Structured group-based exercise classes focusing on various activities such as aerobic training (eg, cycling) or resistance training (eg, lower extremity strengthening) have demonstrated improvements in various measures of fitness and mood states such as depression and QOL. Brief home-based telephone counseling interventions based in social cognitive theory (eg, goal setting, navigating obstacles) and motivational interviewing strategies (eg, open-ended questions, affirmation, reflective listening, summarizing) also have been shown to be effective not only at increasing physical activity and improving depression and fatigue.^40,41

Adherence to Treatment

One primary focus of adherence to treatment is medication management. For individuals with MS, DMTs represent a primary means of reducing disease burden and delaying functional decline. Many DMTs require consistent self-administration over time. Some evidence suggests that poorer adherence is associated with a greater risk of relapse and more rapid disease progression.^42,43 Brief telephone counseling, again based on social cognitive theory, and principles of motivational interviewing combined with home telehealth monitoring by a care coordinator has been shown to improve adherence to DMTs.⁴⁴

Mindfulness

In recent years, mindfulness training has emerged as a popular and common behavioral intervention among individuals with MS. Programs like Mindfulness-Based Stress Reduction (MBSR) provide training in meditation techniques designed to promote mindfulness, which is defined as paying attention to present moment experience, including sensations, thoughts, and emotions, without judgment or attachment.⁴⁵ Cultivating mindfulness helps people with MS cope with and adapt to symptoms and stressors.⁴⁶ Mindfulness interventions typically are delivered in a group format. For example, MBSR consists of 8 in-person group sessions with daily meditation practice homework. Mindfulness interventions also have been delivered effectively with smartphone apps.⁴⁷ Mindfulness programs have been shown to improve depression, anxiety, fatigue, stress, and QOL for patients with MS.^48-50

Fatigue

More than 90% of individuals with MS report fatigue, and many identify it as their most disabling symptom.⁵¹ Often defined as “a subjective lack of physical and/or mental energy that is perceived by the individual or caregiver to interfere with usual and desired activities,” fatigue has been shown to be associated with longer disease duration, greater physical disability, progressive subtype, and depressive symptoms, although the relative and possibly overlapping impact of these issues is only partially understood.^52,53 Fatigue is associated with poorer overall mental health and negatively impacts work and social roles.⁵⁴

Several behavioral interventions have been developed to address fatigue in MS. Using both individual and group based formats and across several modalities (eg, in-person, telephone, online modules, or a combination), behavioral fatigue interventions most commonly combine traditional general CBT skills (eg, addressing maladaptive thoughts and behaviors) with a variety of fatigue-specific skill building exercises that may include fatigue education, energy conservation strategies, improving sleep, enlisting social support, and self-management goal setting strategies.^35,55-57

Pain

Chronic pain is common and disabling in people with MS.^58,59 Nearly 50% report experiencing moderate to severe chronic pain.^59,60 Individuals with MS reporting pain often are older, more disabled (higher Expanded Disability Status Scale score), and have longer disease duration that those who are not experiencing chronic pain.⁶¹ Patients report various types of pain in the following order of frequency: dysesthetic pain (18.1%), back pain (16.4%), painful tonic spasms (11.0%), Lhermitte sign (9.0%), visceral pain (2.9%), and trigeminal neuralgia (2.0%).⁶¹ Chronic pain has a negative impact on QOL in the areas of sleep, work, maintaining relationships, recreational activities, and overall life enjoyment.⁵⁹ Additionally, research has shown that greater pain intensity and pain-related interference with activities of daily living are both associated with greater depression severity.^62,63

The literature supports the use of behavioral interventions for pain in people with MS.⁶¹ Behavioral interventions include in-person exercise interventions (eg, water aerobics, cycling, rowing ergometer, treadmill walking, and resistance training), self-hypnosis, and telephone-based self-management programs based on CBT.^35,64,65 As described above, CBT-based self-management programs combine learning CBT skills (eg, modifying maladaptive thoughts) with pain-specific skill building such as pain education, pacing activities, and improving sleep. Of note, MS education including, but not limited to, pain was as effective as a CBT-based self-management program in reducing pain intensity and interference.³⁵ In addition, there is evidence to support acceptance- and mindfulness-based interventions for chronic pain, and online mindfulness-based cognitive therapy for MS related pain is currently being tested in a randomized controlled trial.^35,66

Conclusion

People with MS face significant challenges in coping with and adapting to a chronic and unpredictable disease. However, there is considerable evidence that behavioral interventions can improve many of the most common and disabling symptoms in MS including depression, anxiety, stress, fatigue, and pain as well as health behavior and self-care. Research also suggests that improvements in one of these problems (eg, physical inactivity) can influence improvement in other symptoms (eg, depression and fatigue). Unlike other treatment options, behavioral interventions can be delivered in various formats (eg, in-person and electronic health), are time-limited, and cause few (if any) undesirable systemic adverse effects. Behavioral interventions are therefore, an essential part of interprofessional care and rehabilitation for patients with MS.

Multiple Sclerosis (MS) is a chronic demyelinating disease of the central nervous system that affects nearly 1 million people in the US.¹ In addition to the accumulation of functional limitations, patients with MS commonly experience mental health and physical symptoms such as depression, anxiety, stress, fatigue, and pain. Day-to-day life with MS requires adaptation to challenges and active maintenance of health and well-being over time. Behavioral intervention and treatment, whether in the form of psychotherapy, health behavior coaching, or the promotion of active self-management, is an integral component of interprofessional care and key aspect of living well with MS.

Behavioral Comorbidities

Depression

Depression is a common concern among individuals with MS. Population-based studies suggest that individuals with MS have a roughly 1 in 4 chance of developing major depressive disorder over their lifetime.² However, at any given time, between 40% and 60% of individuals with MS report clinically meaningful levels of depressive symptoms.³ Although the relationship between MS disease characteristics and depression is unclear, some evidence suggests that depressive symptoms are more common at certain points in illness, such as early in the disease process as individuals grapple with the onset of new symptoms, late in the disease process as they accumulate greater disability, and during active clinical relapses.^3-5

Depression often is comorbid with, and adds to the symptom burden of, other common conditions in MS such as fatigue and cognitive dysfunction.^6-8 Thus, it is not surprising that it associated with poorer overall quality of life (QOL).⁹ Depression also is a risk factor for suicidal ideation and suicide for patients with MS.^10,11

Fortunately, several behavioral interventions show promise in treating depression in patients with MS. Both individual and group formats of cognitive behavioral therapy (CBT), a treatment focused on challenging maladaptive patterns of thought and behavior, have been shown to improve depressive symptoms for people with MS.^12,13 Several brief and efficient group-based programs grounded in CBT and focused on the development of specific skills, including problem solving, goal setting, relationship management, and managing emotions, have been shown to reduce depressive symptoms.^13,14 CBT for depression in MS has been shown to be effective when delivered via telephone.^15,16

Anxiety

Anxiety is common among individuals with MS. Existing data suggest more than one-third of individuals with MS will qualify for a diagnosis of anxiety disorder during their lifetime.¹⁷ The characteristics of anxiety disorders are broad and heterogenous, including generalized anxiety disorder, panic disorder, obsessive compulsive disorders, and health-specific phobias such as needle/injection anxiety. Some estimates suggest a point prevalence of 34% for the presence of clinically meaningful symptoms.¹⁸ Similar to depression, anxiety symptoms can be more common during periods of stress, threat, and transition including early in the disease course while adapting to new diagnosis, late in the disease course with increasing disability, and during clinical relapses.^19-21

The efficacy of behavioral interventions for anxiety in MS is less well established than it is for depression, but some preliminary evidence suggests that individual CBT may be effective for reducing general symptoms of anxiety as well as health-related anxiety.^22,23 Brief, targeted CBT also has been shown to improve injection anxiety, removing a barrier to self-care including the administration of MS disease modifying therapies (DMTs).²⁴

Stress

Stress is commonly conceptualized as a person’s perception that efforts to manage internal and external demands exceed available coping resources.²⁵ Such demands involve both psychological and physiological processes and come in many forms for people with MS and can include daily hassles, major life events, traumatic stress, and perceptions of global nonspecific stress. The relationship between stress and MS remains complex and poorly understood. Nonetheless, individuals with MS frequently report that stress exacerbates their symptoms.²⁶

Some evidence also suggests stress may exacerbate the MS disease process, resulting in more frequent relapses and increased lesion activity visible on MRI.^27,28 In addition to mindfulness (described below), stress inoculation training (CBT and relaxation training), and stress-focused group-based self-management have been shown to be beneficial.^29,30 In an intriguing and rigorous trial, a 24-week stress management therapy based on CBT was associated with the development of fewer new MS lesions visible on MRI.³¹

Adaptation to Illness

MS presents challenges that vary between patients and over time. Individuals may confront new physical and cognitive limitations that inhibit the completion of daily tasks, reduce independence, and limit participation in valued and meaningful activities. In addition, the unpredictability of the disease contributes to perceptions of uncertainty and uncontrollability, which in turn result in higher illness impact and poorer psychological outcomes.³² Building cognitive and behavioral skills to address these challenges can promote adaptation to illness and reduce overall distress associated with chronic illness.³³ Psychosocial intervention also can address the uncertainty commonly experienced by individuals with MS.³⁴

Self-Management

As with any chronic illness, living well with MS requires ongoing commitment and active engagement with health and personal care over time. The process of building knowledge and skills to manage the day-to-day physical, emotional, and social aspects of living with illness often is referred to as self-management.³⁵ For individuals with MS, this may take the form of participation in programs that address adaptation and psychological distress like those described above, but it also may include improving health behavior (eg, physical activity, DMT adherence, modification of maladaptive habits like smoking or hazardous alcohol use) and symptom management (eg, fatigue, pain). Self-management programs typically include education, the practice of identifying, problem solving, and following through with specific and realistic health and wellness goals, as well as the bolstering of self-efficacy.

Physical Activity

Once discouraged for patients with MS, physical activity is now considered a cornerstone of health and wellness. Physical activity and interventions that target various forms of exercise have been shown to improve strength and endurance, reduce functional decline, enhance QOL, and likely reduce mortality.^35-39 A variety of brief behavioral interventions have been shown to improve physical activity in MS. Structured group-based exercise classes focusing on various activities such as aerobic training (eg, cycling) or resistance training (eg, lower extremity strengthening) have demonstrated improvements in various measures of fitness and mood states such as depression and QOL. Brief home-based telephone counseling interventions based in social cognitive theory (eg, goal setting, navigating obstacles) and motivational interviewing strategies (eg, open-ended questions, affirmation, reflective listening, summarizing) also have been shown to be effective not only at increasing physical activity and improving depression and fatigue.^40,41

Adherence to Treatment

One primary focus of adherence to treatment is medication management. For individuals with MS, DMTs represent a primary means of reducing disease burden and delaying functional decline. Many DMTs require consistent self-administration over time. Some evidence suggests that poorer adherence is associated with a greater risk of relapse and more rapid disease progression.^42,43 Brief telephone counseling, again based on social cognitive theory, and principles of motivational interviewing combined with home telehealth monitoring by a care coordinator has been shown to improve adherence to DMTs.⁴⁴

Mindfulness

In recent years, mindfulness training has emerged as a popular and common behavioral intervention among individuals with MS. Programs like Mindfulness-Based Stress Reduction (MBSR) provide training in meditation techniques designed to promote mindfulness, which is defined as paying attention to present moment experience, including sensations, thoughts, and emotions, without judgment or attachment.⁴⁵ Cultivating mindfulness helps people with MS cope with and adapt to symptoms and stressors.⁴⁶ Mindfulness interventions typically are delivered in a group format. For example, MBSR consists of 8 in-person group sessions with daily meditation practice homework. Mindfulness interventions also have been delivered effectively with smartphone apps.⁴⁷ Mindfulness programs have been shown to improve depression, anxiety, fatigue, stress, and QOL for patients with MS.^48-50

Fatigue

More than 90% of individuals with MS report fatigue, and many identify it as their most disabling symptom.⁵¹ Often defined as “a subjective lack of physical and/or mental energy that is perceived by the individual or caregiver to interfere with usual and desired activities,” fatigue has been shown to be associated with longer disease duration, greater physical disability, progressive subtype, and depressive symptoms, although the relative and possibly overlapping impact of these issues is only partially understood.^52,53 Fatigue is associated with poorer overall mental health and negatively impacts work and social roles.⁵⁴

Several behavioral interventions have been developed to address fatigue in MS. Using both individual and group based formats and across several modalities (eg, in-person, telephone, online modules, or a combination), behavioral fatigue interventions most commonly combine traditional general CBT skills (eg, addressing maladaptive thoughts and behaviors) with a variety of fatigue-specific skill building exercises that may include fatigue education, energy conservation strategies, improving sleep, enlisting social support, and self-management goal setting strategies.^35,55-57

Pain

Chronic pain is common and disabling in people with MS.^58,59 Nearly 50% report experiencing moderate to severe chronic pain.^59,60 Individuals with MS reporting pain often are older, more disabled (higher Expanded Disability Status Scale score), and have longer disease duration that those who are not experiencing chronic pain.⁶¹ Patients report various types of pain in the following order of frequency: dysesthetic pain (18.1%), back pain (16.4%), painful tonic spasms (11.0%), Lhermitte sign (9.0%), visceral pain (2.9%), and trigeminal neuralgia (2.0%).⁶¹ Chronic pain has a negative impact on QOL in the areas of sleep, work, maintaining relationships, recreational activities, and overall life enjoyment.⁵⁹ Additionally, research has shown that greater pain intensity and pain-related interference with activities of daily living are both associated with greater depression severity.^62,63

The literature supports the use of behavioral interventions for pain in people with MS.⁶¹ Behavioral interventions include in-person exercise interventions (eg, water aerobics, cycling, rowing ergometer, treadmill walking, and resistance training), self-hypnosis, and telephone-based self-management programs based on CBT.^35,64,65 As described above, CBT-based self-management programs combine learning CBT skills (eg, modifying maladaptive thoughts) with pain-specific skill building such as pain education, pacing activities, and improving sleep. Of note, MS education including, but not limited to, pain was as effective as a CBT-based self-management program in reducing pain intensity and interference.³⁵ In addition, there is evidence to support acceptance- and mindfulness-based interventions for chronic pain, and online mindfulness-based cognitive therapy for MS related pain is currently being tested in a randomized controlled trial.^35,66

Conclusion

People with MS face significant challenges in coping with and adapting to a chronic and unpredictable disease. However, there is considerable evidence that behavioral interventions can improve many of the most common and disabling symptoms in MS including depression, anxiety, stress, fatigue, and pain as well as health behavior and self-care. Research also suggests that improvements in one of these problems (eg, physical inactivity) can influence improvement in other symptoms (eg, depression and fatigue). Unlike other treatment options, behavioral interventions can be delivered in various formats (eg, in-person and electronic health), are time-limited, and cause few (if any) undesirable systemic adverse effects. Behavioral interventions are therefore, an essential part of interprofessional care and rehabilitation for patients with MS.

A number of large registries exist for multiple sclerosis (MS) in North America and Europe. The Scandinavian countries have some of the longest running and integrated MS registries to date. The Danish MS Registry was initiated in 1948 and has been consistently maintained to track MS epidemiologic trends.² Similar databases exist in Swedenand Norway that were created in the later 20th century.^3,4 The Rochester Epidemiology Project, launched by Len Kurland at the Mayo Clinic, has tracked the morbidity of MS and many other conditions in Olmsted county Minnesota for > 60 years.⁵

The Canadian provinces of British Columbia, Ontario, and Manitoba also have long standing MS registries.^6-8 Other North American MS registries have gathered state-wide cases, such as the New York State MS Consortium.⁹ Some registries have gathered a population-based sample throughout the US, such as the Sonya Slifka MS Study.¹⁰ The North American Research Consortium on MS (NARCOMS) registry is a patient-driven registry within the US that has enrolled > 30,000 cases.¹¹ The MSBase is the largest online registry to date utilizing data from several countries.¹² The MS Bioscreen, based at the University of California San Francisco, is a recent effort to create a longitudinal clinical dataset.¹³ This electronic registry integrates clinical disease morbidity scales, neuroimaging, genetics and laboratory data for individual patients with the goal of providing predictive tools.

The US military provides a unique population to study MS and has the oldest and largest nation-wide MS cohort in existence starting with World War I service members and continuing through the recent Gulf War Era.¹⁴ With the advent of EHRs in the US Department of Veterans Affairs (VA) Veterans Health Administration (VHA) in the mid-1990s and large clinical databases, the possibility of an integrated registry for chronic conditions was created. In this report, we describe the creation of the VA MS Surveillance Registry (MSSR) and the initial roll out to several VA medical centers within the MS Center of Excellence (MSCoE). The MSSR is a unique platform with potential for improving MS patient care and clinical research.

Methods

The MSSR was designed by MSCoE health care providers in conjunction with IT specialists from the VA Northwest Innovation Center. Between 2012 and 2013, the team developed and tested a core template for data entry and refined an efficient data dashboard display to optimize clinical decisions. IT programmers created data entry templates that were tested by 4 to 5 clinicians who provided feedback in biweekly meetings. Technical problems were addressed and enhancements added and the trial process was repeated.

After creation of the prototype MS Assessment Tool (MSAT) data entry template that fed into the prototype MSSR, our team received a grant in 2013 for national development and sustainment. The MSSR was established on the VA Converged Registries Solution (CRS) platform, which is a hardware and software architecture designed to host individual clinical registries and eliminate duplicative development effort while maximizing the ability to create new patient registries. The common platform includes a relational database, Health Level 7 messaging, software classes, security modules, extraction services, and other components. The CR obtains data from the VA Corporate Data Warehouse (CDW), directly from the Veterans Health Information Systems and Technology Architecture (VISTA) and via direct user input using MSAT.

From 2016 to 2019, data from patients with MS followed in several VA MS regional programs were inputted into MSSR. A roll-out process to start patient data entry at VA medical centers began in 2017 that included an orientation, technical support, and quality assurance review. Twelve sites from Veteran Integrated Service Network (VISN) 5 (mid-Atlantic) and VISN 20 (Pacific Northwest) were included in the initial roll-out.

Results

After a live or remote telehealth or telephone visit, a clinician can access MSAT from the Computerized Patient Record System (CPRS) or directly from the MSSR online portal (Figure 1). The tool uses radio buttons and pull-down menus and takes about 5 to 15 minutes to complete with a list of required variables. Data is auto-saved for efficiency, and the key variables that are collected in MSAT are noted in Table 1. The MSAT subsequently creates a text integration utility progress note with health factors that is processed through an integration engine and eventually transmitted to VISTA and becomes part of the EHR and available to all health care providers involved in that patient’s care. Additionally, data from VA outpatient and inpatient utilization files, pharmacy, prosthetics, laboratory, and radiology databases are included in the CDW and are included in MSSR. With data from 1998 to the present, the MSAT and CDW databases can provide longitudinal data analysis.

Between 18,000 and 20,000 patients with MS are evaluated in the VHA annually, and 56,000 unique patients have been assessed since 1998. From 2016 to 2019, 1,743 patients with MS or related disorders were enrolled in MSSR (Table 2 and Figure 2). The mean (SD) age of patients was 56.0 (12.9) years and the male:female ratio was 2.7. Racial minorities make up 40% of the cohort. Among those with definite and possible MS, the mean disease duration was 22.7 years and the mean (SD) European Database for MS disability score was 4.7 (2.4) (Table 3). Three-quarters of the MSSR cohort have used ≥ 1 MS disease modifying therapy and 65% were classified as relapsing-remitting MS. An electronic dashboard was developed for health care providers to easily access demographic and clinical data for individuals and groups of patients (Figure 3). Standard and ad hoc reports can be generated from the MSSR. Larger longitudinal analyses can be performed with MSAT and clinical data from CDW. Data on comorbid conditions, pharmacy, radiology and prosthetics utilization, outpatient clinic and inpatient admission can be accessed for each patient or a group of patients.

In 2015, MSCoE published a larger national survey of the VA MS population.¹⁵ This study revealed that the majority of clinical features and demographics of the MSSR were not significantly different from other major US MS registries including the North American Research Committee on MS, the New York State MS Consortium, and the Sonya Slifka Study.^16-18

Discussion

The MSSR is novel in that it combines a traditional MS registry with individual clinical and utilization data within the largest integrated health system in the US. This new registry leverages the existing databases related to cost of care, utilization, and pharmacy services to provide surveillance tools for longitudinal follow-up of the MS population within the VHA. Because the structure of the MSAT and MSSR were developed in a partnership between IT developers and clinicians, there has been mutual buy-in for those who use it and maintain it. This registry can be a test bed for standardized patient outcomes including the recently released MS Quality measures from the American Academy of Neurology.¹⁹

To achieve greater numbers across populations, there has been efforts in Europe to combine registries into a common European Register for MS. A recent survey found that although many European registries were heterogeneous, it would be possible to have a minimum common data set for limited epidemiologic studies.²⁰ Still many registries do not have environmental or genetic data to evaluate etiologic questions.²¹ Additionally, most registries are not set up to evaluate cost or quality of care within a health care system.

Recommendations for maximizing the impact of existing MS registries were recently released by a panel of MS clinicians and researchers.²² The first recommendation was to create a broad network of registries that would communicate and collaborate. This group of MS registries would have strategic oversight and direction that would greatly streamline and leverage existing and future efforts. Second, registries should standardize data collection and management thereby enhancing the ability to share data and perform meta-analyses with aggregated data. Third, the collection of physician- and patient-reported outcomes should be encouraged to provide a more complete picture of MS. Finally, registries should prioritize research questions and utilize new technologies for data collection. These recommendations would help to coordinate existing registries and accelerate knowledge discovery.

The MSSR will contribute to the growing registry network of data. The MSSR can address questions about clinical outcomes, cost, quality with a growing data repository and linked biobank. Based on the CR platform, the MSSR allows for integration with other VA clinical registries, including registries for traumatic brain injuries, oncology, HIV, hepatitis C virus, and eye injuries. Identifying case outcomes related to other registries is optimized with the CR common structure.

Conclusion

The MSSR has been a useful tool for clinicians managing individual patients and their regional referral populations with real-time access to clinical and utilization data. It will also be a useful research tool in tracking epidemiological trends for the military population. The MSSR has enhanced clinical management of MS and serves as a national source for clinical outcomes.

A number of large registries exist for multiple sclerosis (MS) in North America and Europe. The Scandinavian countries have some of the longest running and integrated MS registries to date. The Danish MS Registry was initiated in 1948 and has been consistently maintained to track MS epidemiologic trends.² Similar databases exist in Swedenand Norway that were created in the later 20th century.^3,4 The Rochester Epidemiology Project, launched by Len Kurland at the Mayo Clinic, has tracked the morbidity of MS and many other conditions in Olmsted county Minnesota for > 60 years.⁵

The Canadian provinces of British Columbia, Ontario, and Manitoba also have long standing MS registries.^6-8 Other North American MS registries have gathered state-wide cases, such as the New York State MS Consortium.⁹ Some registries have gathered a population-based sample throughout the US, such as the Sonya Slifka MS Study.¹⁰ The North American Research Consortium on MS (NARCOMS) registry is a patient-driven registry within the US that has enrolled > 30,000 cases.¹¹ The MSBase is the largest online registry to date utilizing data from several countries.¹² The MS Bioscreen, based at the University of California San Francisco, is a recent effort to create a longitudinal clinical dataset.¹³ This electronic registry integrates clinical disease morbidity scales, neuroimaging, genetics and laboratory data for individual patients with the goal of providing predictive tools.

The US military provides a unique population to study MS and has the oldest and largest nation-wide MS cohort in existence starting with World War I service members and continuing through the recent Gulf War Era.¹⁴ With the advent of EHRs in the US Department of Veterans Affairs (VA) Veterans Health Administration (VHA) in the mid-1990s and large clinical databases, the possibility of an integrated registry for chronic conditions was created. In this report, we describe the creation of the VA MS Surveillance Registry (MSSR) and the initial roll out to several VA medical centers within the MS Center of Excellence (MSCoE). The MSSR is a unique platform with potential for improving MS patient care and clinical research.

Methods

The MSSR was designed by MSCoE health care providers in conjunction with IT specialists from the VA Northwest Innovation Center. Between 2012 and 2013, the team developed and tested a core template for data entry and refined an efficient data dashboard display to optimize clinical decisions. IT programmers created data entry templates that were tested by 4 to 5 clinicians who provided feedback in biweekly meetings. Technical problems were addressed and enhancements added and the trial process was repeated.

After creation of the prototype MS Assessment Tool (MSAT) data entry template that fed into the prototype MSSR, our team received a grant in 2013 for national development and sustainment. The MSSR was established on the VA Converged Registries Solution (CRS) platform, which is a hardware and software architecture designed to host individual clinical registries and eliminate duplicative development effort while maximizing the ability to create new patient registries. The common platform includes a relational database, Health Level 7 messaging, software classes, security modules, extraction services, and other components. The CR obtains data from the VA Corporate Data Warehouse (CDW), directly from the Veterans Health Information Systems and Technology Architecture (VISTA) and via direct user input using MSAT.

From 2016 to 2019, data from patients with MS followed in several VA MS regional programs were inputted into MSSR. A roll-out process to start patient data entry at VA medical centers began in 2017 that included an orientation, technical support, and quality assurance review. Twelve sites from Veteran Integrated Service Network (VISN) 5 (mid-Atlantic) and VISN 20 (Pacific Northwest) were included in the initial roll-out.

Results

After a live or remote telehealth or telephone visit, a clinician can access MSAT from the Computerized Patient Record System (CPRS) or directly from the MSSR online portal (Figure 1). The tool uses radio buttons and pull-down menus and takes about 5 to 15 minutes to complete with a list of required variables. Data is auto-saved for efficiency, and the key variables that are collected in MSAT are noted in Table 1. The MSAT subsequently creates a text integration utility progress note with health factors that is processed through an integration engine and eventually transmitted to VISTA and becomes part of the EHR and available to all health care providers involved in that patient’s care. Additionally, data from VA outpatient and inpatient utilization files, pharmacy, prosthetics, laboratory, and radiology databases are included in the CDW and are included in MSSR. With data from 1998 to the present, the MSAT and CDW databases can provide longitudinal data analysis.

Between 18,000 and 20,000 patients with MS are evaluated in the VHA annually, and 56,000 unique patients have been assessed since 1998. From 2016 to 2019, 1,743 patients with MS or related disorders were enrolled in MSSR (Table 2 and Figure 2). The mean (SD) age of patients was 56.0 (12.9) years and the male:female ratio was 2.7. Racial minorities make up 40% of the cohort. Among those with definite and possible MS, the mean disease duration was 22.7 years and the mean (SD) European Database for MS disability score was 4.7 (2.4) (Table 3). Three-quarters of the MSSR cohort have used ≥ 1 MS disease modifying therapy and 65% were classified as relapsing-remitting MS. An electronic dashboard was developed for health care providers to easily access demographic and clinical data for individuals and groups of patients (Figure 3). Standard and ad hoc reports can be generated from the MSSR. Larger longitudinal analyses can be performed with MSAT and clinical data from CDW. Data on comorbid conditions, pharmacy, radiology and prosthetics utilization, outpatient clinic and inpatient admission can be accessed for each patient or a group of patients.

In 2015, MSCoE published a larger national survey of the VA MS population.¹⁵ This study revealed that the majority of clinical features and demographics of the MSSR were not significantly different from other major US MS registries including the North American Research Committee on MS, the New York State MS Consortium, and the Sonya Slifka Study.^16-18

Discussion

The MSSR is novel in that it combines a traditional MS registry with individual clinical and utilization data within the largest integrated health system in the US. This new registry leverages the existing databases related to cost of care, utilization, and pharmacy services to provide surveillance tools for longitudinal follow-up of the MS population within the VHA. Because the structure of the MSAT and MSSR were developed in a partnership between IT developers and clinicians, there has been mutual buy-in for those who use it and maintain it. This registry can be a test bed for standardized patient outcomes including the recently released MS Quality measures from the American Academy of Neurology.¹⁹

To achieve greater numbers across populations, there has been efforts in Europe to combine registries into a common European Register for MS. A recent survey found that although many European registries were heterogeneous, it would be possible to have a minimum common data set for limited epidemiologic studies.²⁰ Still many registries do not have environmental or genetic data to evaluate etiologic questions.²¹ Additionally, most registries are not set up to evaluate cost or quality of care within a health care system.

Recommendations for maximizing the impact of existing MS registries were recently released by a panel of MS clinicians and researchers.²² The first recommendation was to create a broad network of registries that would communicate and collaborate. This group of MS registries would have strategic oversight and direction that would greatly streamline and leverage existing and future efforts. Second, registries should standardize data collection and management thereby enhancing the ability to share data and perform meta-analyses with aggregated data. Third, the collection of physician- and patient-reported outcomes should be encouraged to provide a more complete picture of MS. Finally, registries should prioritize research questions and utilize new technologies for data collection. These recommendations would help to coordinate existing registries and accelerate knowledge discovery.

The MSSR will contribute to the growing registry network of data. The MSSR can address questions about clinical outcomes, cost, quality with a growing data repository and linked biobank. Based on the CR platform, the MSSR allows for integration with other VA clinical registries, including registries for traumatic brain injuries, oncology, HIV, hepatitis C virus, and eye injuries. Identifying case outcomes related to other registries is optimized with the CR common structure.

Conclusion

The MSSR has been a useful tool for clinicians managing individual patients and their regional referral populations with real-time access to clinical and utilization data. It will also be a useful research tool in tracking epidemiological trends for the military population. The MSSR has enhanced clinical management of MS and serves as a national source for clinical outcomes.

A number of large registries exist for multiple sclerosis (MS) in North America and Europe. The Scandinavian countries have some of the longest running and integrated MS registries to date. The Danish MS Registry was initiated in 1948 and has been consistently maintained to track MS epidemiologic trends.² Similar databases exist in Swedenand Norway that were created in the later 20th century.^3,4 The Rochester Epidemiology Project, launched by Len Kurland at the Mayo Clinic, has tracked the morbidity of MS and many other conditions in Olmsted county Minnesota for > 60 years.⁵

The Canadian provinces of British Columbia, Ontario, and Manitoba also have long standing MS registries.^6-8 Other North American MS registries have gathered state-wide cases, such as the New York State MS Consortium.⁹ Some registries have gathered a population-based sample throughout the US, such as the Sonya Slifka MS Study.¹⁰ The North American Research Consortium on MS (NARCOMS) registry is a patient-driven registry within the US that has enrolled > 30,000 cases.¹¹ The MSBase is the largest online registry to date utilizing data from several countries.¹² The MS Bioscreen, based at the University of California San Francisco, is a recent effort to create a longitudinal clinical dataset.¹³ This electronic registry integrates clinical disease morbidity scales, neuroimaging, genetics and laboratory data for individual patients with the goal of providing predictive tools.

The US military provides a unique population to study MS and has the oldest and largest nation-wide MS cohort in existence starting with World War I service members and continuing through the recent Gulf War Era.¹⁴ With the advent of EHRs in the US Department of Veterans Affairs (VA) Veterans Health Administration (VHA) in the mid-1990s and large clinical databases, the possibility of an integrated registry for chronic conditions was created. In this report, we describe the creation of the VA MS Surveillance Registry (MSSR) and the initial roll out to several VA medical centers within the MS Center of Excellence (MSCoE). The MSSR is a unique platform with potential for improving MS patient care and clinical research.

Methods

The MSSR was designed by MSCoE health care providers in conjunction with IT specialists from the VA Northwest Innovation Center. Between 2012 and 2013, the team developed and tested a core template for data entry and refined an efficient data dashboard display to optimize clinical decisions. IT programmers created data entry templates that were tested by 4 to 5 clinicians who provided feedback in biweekly meetings. Technical problems were addressed and enhancements added and the trial process was repeated.

After creation of the prototype MS Assessment Tool (MSAT) data entry template that fed into the prototype MSSR, our team received a grant in 2013 for national development and sustainment. The MSSR was established on the VA Converged Registries Solution (CRS) platform, which is a hardware and software architecture designed to host individual clinical registries and eliminate duplicative development effort while maximizing the ability to create new patient registries. The common platform includes a relational database, Health Level 7 messaging, software classes, security modules, extraction services, and other components. The CR obtains data from the VA Corporate Data Warehouse (CDW), directly from the Veterans Health Information Systems and Technology Architecture (VISTA) and via direct user input using MSAT.

From 2016 to 2019, data from patients with MS followed in several VA MS regional programs were inputted into MSSR. A roll-out process to start patient data entry at VA medical centers began in 2017 that included an orientation, technical support, and quality assurance review. Twelve sites from Veteran Integrated Service Network (VISN) 5 (mid-Atlantic) and VISN 20 (Pacific Northwest) were included in the initial roll-out.

Results

After a live or remote telehealth or telephone visit, a clinician can access MSAT from the Computerized Patient Record System (CPRS) or directly from the MSSR online portal (Figure 1). The tool uses radio buttons and pull-down menus and takes about 5 to 15 minutes to complete with a list of required variables. Data is auto-saved for efficiency, and the key variables that are collected in MSAT are noted in Table 1. The MSAT subsequently creates a text integration utility progress note with health factors that is processed through an integration engine and eventually transmitted to VISTA and becomes part of the EHR and available to all health care providers involved in that patient’s care. Additionally, data from VA outpatient and inpatient utilization files, pharmacy, prosthetics, laboratory, and radiology databases are included in the CDW and are included in MSSR. With data from 1998 to the present, the MSAT and CDW databases can provide longitudinal data analysis.

Between 18,000 and 20,000 patients with MS are evaluated in the VHA annually, and 56,000 unique patients have been assessed since 1998. From 2016 to 2019, 1,743 patients with MS or related disorders were enrolled in MSSR (Table 2 and Figure 2). The mean (SD) age of patients was 56.0 (12.9) years and the male:female ratio was 2.7. Racial minorities make up 40% of the cohort. Among those with definite and possible MS, the mean disease duration was 22.7 years and the mean (SD) European Database for MS disability score was 4.7 (2.4) (Table 3). Three-quarters of the MSSR cohort have used ≥ 1 MS disease modifying therapy and 65% were classified as relapsing-remitting MS. An electronic dashboard was developed for health care providers to easily access demographic and clinical data for individuals and groups of patients (Figure 3). Standard and ad hoc reports can be generated from the MSSR. Larger longitudinal analyses can be performed with MSAT and clinical data from CDW. Data on comorbid conditions, pharmacy, radiology and prosthetics utilization, outpatient clinic and inpatient admission can be accessed for each patient or a group of patients.

In 2015, MSCoE published a larger national survey of the VA MS population.¹⁵ This study revealed that the majority of clinical features and demographics of the MSSR were not significantly different from other major US MS registries including the North American Research Committee on MS, the New York State MS Consortium, and the Sonya Slifka Study.^16-18

Discussion

The MSSR is novel in that it combines a traditional MS registry with individual clinical and utilization data within the largest integrated health system in the US. This new registry leverages the existing databases related to cost of care, utilization, and pharmacy services to provide surveillance tools for longitudinal follow-up of the MS population within the VHA. Because the structure of the MSAT and MSSR were developed in a partnership between IT developers and clinicians, there has been mutual buy-in for those who use it and maintain it. This registry can be a test bed for standardized patient outcomes including the recently released MS Quality measures from the American Academy of Neurology.¹⁹

To achieve greater numbers across populations, there has been efforts in Europe to combine registries into a common European Register for MS. A recent survey found that although many European registries were heterogeneous, it would be possible to have a minimum common data set for limited epidemiologic studies.²⁰ Still many registries do not have environmental or genetic data to evaluate etiologic questions.²¹ Additionally, most registries are not set up to evaluate cost or quality of care within a health care system.

Recommendations for maximizing the impact of existing MS registries were recently released by a panel of MS clinicians and researchers.²² The first recommendation was to create a broad network of registries that would communicate and collaborate. This group of MS registries would have strategic oversight and direction that would greatly streamline and leverage existing and future efforts. Second, registries should standardize data collection and management thereby enhancing the ability to share data and perform meta-analyses with aggregated data. Third, the collection of physician- and patient-reported outcomes should be encouraged to provide a more complete picture of MS. Finally, registries should prioritize research questions and utilize new technologies for data collection. These recommendations would help to coordinate existing registries and accelerate knowledge discovery.

The MSSR will contribute to the growing registry network of data. The MSSR can address questions about clinical outcomes, cost, quality with a growing data repository and linked biobank. Based on the CR platform, the MSSR allows for integration with other VA clinical registries, including registries for traumatic brain injuries, oncology, HIV, hepatitis C virus, and eye injuries. Identifying case outcomes related to other registries is optimized with the CR common structure.

Conclusion

The MSSR has been a useful tool for clinicians managing individual patients and their regional referral populations with real-time access to clinical and utilization data. It will also be a useful research tool in tracking epidemiological trends for the military population. The MSSR has enhanced clinical management of MS and serves as a national source for clinical outcomes.

The Veterans Health Administration (VHA) has established a number of centers of excellence (CoEs), including centers focused on posttraumatic stress disorder, suicide prevention, epilepsy, and, most recently, the Senator Elizabeth Dole CoE for Veteran and Caregiver Research. Some VA CoE serve as centralized locations for specialty care. For example, the VA Epilepsy CoE is a network of 16 facilities that provide comprehensive epilepsy care for veterans with seizure disorders, including expert and presurgical evaluations and inpatient monitoring.

In contrast, other CoEs, including the multiple sclerosis (MS) CoE, achieve their missions by serving as a resource center to a network of regional and supporting various programs to optimize the care of veterans across the nation within their home US Department of Veterans Affairs (VA) medical center (VAMC). The MSCoE are charged, through VHA Directive 1011.06, with establishing at least 1 VA MS Regional Program in each of the 21 Veteran Integrated Service Networks (VISNs) across the country and integrating these and affiliated MS Support Programs into the MS National Network. Currently, there are 29 MS regional programs and 49 MS support programs across the US.¹

Established in 2003, the MSCoE is dedicated to furthering the understanding of MS, its impact on veterans, and effective treatments to help manage the disease and its symptoms. In 2002, 2 coordinating centers were selected based on a competitive review process. The MSCoE-East is located at the Baltimore, Maryland and Washington, DC VAMC and serves VISNs 1 to 10. The MSCoE-West serves VISNs 11 to 23 and is jointly-based at VA Puget Sound Health Care System in Seattle, Washington and VA Portland Health Care System in Portland, Oregon. The MSCoEs were made permanent by The Veteran’ Benefits, Healthcare and Information Technology Act of 2006 (38 USC §7330). By partnering with veterans, caregivers, health care professionals, and other affiliates, the MSCoE endeavor to optimize health, activities, participation and quality of life for veterans with MS.

Core Functions

The MSCoE has a 3-part mission. First, the MSCoE seeks to expand care coordination between VAMCs by developing a national network of VA MSCoE Regional and Support Programs. Second, the MSCoE provides resources to VA health care providers (HCPs) through a collaborative approach to clinical care, education, research, and informatics. Third, the MSCoE improves the quality and consistency of health care services delivered to veterans diagnosed with MS nationwide. To meet its objectives, the MSCoE activities are organized around 4 functional cores: clinical care, research, education and training, and informatics and telemedicine.

Clinical Care

The MSCoE delivers high-quality clinical care by identifying veterans with MS who use VA services, understanding their needs, and facilitating appropriate interventions. Veterans with MS are a special cohort for many reasons including that about 70% are male. Men and women veterans not only have different genetics, but also may have different environmental exposures and other risk factors for MS. Since 1998, the VHA has evaluated > 50,000 veterans with MS. Over the past decade, between 18,000 and 20,000 veterans with MS have accessed care within the VHA annually.

The MSCoE advocates for appropriate and safe use of currently available MS disease modifying therapies through collaborations with the VA Pharmacy Benefits Management Service (PBM). The MSCoE partners with PBM to develop and disseminate Criteria For Use, safety, and economic monitoring of the impacts of the MS therapies. The MSCoE also provide national consultation services for complex MS cases, clinical education to VA HCPs, and mentors fellows, residents, and medical students.

The VA provides numerous resources that are not readily available in other health care systems and facilitate the care for patients with chronic diseases, including providing low or no co-pays to patients for MS disease modifying agents and other MS related medications, access to medically necessary adaptive equipment at no charge, the Home Improvement and Structural Alteration (HISA) grant for assistance with safe home ingress and egress, respite care, access to a homemaker/home health aide, and caregiver support programs. Eligible veterans also can access additional resources such as adaptive housing and an automobile grant. The VA also provides substantial hands-on assistance to veterans who are homeless. The clinical team and a veteran with MS can leverage VA resources through the National MS Society (NMSS) Navigator Program as well as other community resources.²

The VHA encourages physical activity and wellness through sports and leisure. Veterans with MS can participate in sports programs and special events, including the National Veterans Wheelchair Games, the National Disabled Veterans Winter Sports Clinic, the National Disabled Veterans TEE (Training, Exposure and Experience) golf tournament, the National Veterans Summer Sports Clinic, the National Veterans Golden Age Games, and the National Veterans Creative Sports Festival. HCPs or veterans who are not sure how to access any of these programs can contact the MSCoE or their local VA social workers.

Research

The primary goal of the MSCoE research core is to conduct clinical, health services, epidemiologic, and basic science research relevant to veterans with MS. The MSCoE serves to enhance collaboration among VAMCs, increase the participation of veterans in research, and provide research mentorship for the next generation of VA MS scientists. MSCoE research is carried out by investigators at the MSCoE and the MS Regional Programs, often in collaboration with investigators at academic institutions. This research is supported by competitive grant awards from a variety of funding agencies including the VA Research and Development Service (R&D) and the NMSS. Results from about 40 research grants in Fiscal Year 2019 were disseminated through 34 peer-reviewed publications, 30 posters, presentations, abstracts, and clinical practice guidelines.

There are many examples of recent high impact MS research performed by MSCoE investigators. For example, MSCoE researchers noted an increase in the estimated prevalence of MS to 1 million individuals in the US, about twice the previously estimated prevalence.^3-5 In addition, a multicenter study highlighted the prevalence of MS misdiagnosis and common confounders for MS.⁶ Other research includes pilot clinical trials evaluating lipoic acid as a potential disease modifying therapy in people with secondary progressive MS and the impact of a multicomponent walking aid selection, fitting, and training program for preventing falls in people with MS.^7,8 Clinical trial also are investigating telehealth counseling to improve physical activity in MS and a systematic review of rehabilitation interventions in MS.^9,10

Education and Training

A unified program of education is essential to effective management of MS nationally. The primary goal of the education and training core is to provide a national program of MS education for HCPs, veterans, and caregivers to improve knowledge, enhance access to resources, and promote effective management strategies. The MSCoE collaborate with the Paralyzed Veterans of America (PVA), the Consortium of MS Centers (CMSC), the NMSS, and other national service organizations to increase educational opportunities, share knowledge, and expand participation.

The MSCoE education and training core produces a range of products both veterans, HCPs, and others affected by MS. The MSCoE sends a biannual patient newsletter to > 20,000 veterans and a monthly email to > 1,000 VA HCPs. Specific opportunities for HCP education include accredited multidisciplinary MS webinars, sponsored symposia and workshops at the CMSC and PVA Summit annual meetings, and presentations at other university and professional conferences. Enduring educational opportunities for veterans, caregivers, and HCPs can also be found by visiting www.va.gov/ms.

The MSCoE coordinate postdoctoral fellowship training programs to develop expertise in MS health care for the future. It offers VA physician fellowships for neurologists in Baltimore and Portland and for physiatrists in Seattle as well as NMSS fellowships for education and research. In 2019, MSCoE had 6 MD Fellows and 1 PhD Fellow.

Clinical Informatics and Telehealth

The primary goal of the informatics and telemedicine core is to employ state-of-the-art informatics, telemedicine technology, and the MSCoE website, to improve MS health care delivery. The VA has a integrated electronic health record and various data repositories are stored in the VHA Corporate Data Warehouse (CDW). MSCoE utilizes the CDW to maintain a national MS administrative data repository to understand the VHA care provided to veterans with MS. Data from the CDW have also served as an important resource to facilitate a wide range of veteran-focused MS research. This research has addressed clinical conditions like pain and obesity; health behaviors like smoking, alcohol use, and exercise as well as issues related to care delivery such as specialty care access, medication adherence, and appointment attendance.^11-19

Monitoring the health of veterans with MS in the VA requires additional data not available in the CDW. To this end, we have developed the MS Surveillance Registry (MSSR), funded and maintained by the VA Office of Information Technology as part of their Veteran Integrated Registry Platform (VIRP). The purpose of the MSSR is to understand the unique characteristics and treatment patterns of veterans with MS in order to optimize their VHA care. HCPs input MS-specific clinical data on their patients into the MSSR, either through the MS Assessment Tool (MSAT) in the Computerized Patient Record System (CPRS) or through a secure online portal. Other data from existing databases from the CDW is also automatically fed into the MSSR. The MSSR continues to be developed and populated to serve as a resource for the future.

Neurologists, physiatrists, psychologists, and rehabilitation specialists can use telehealth to evaluate and treat veterans who have difficulty accessing outpatient clinics, either because of mobility limitations, or distance. Between 2012 and 2015, the VA MSCoE, together with the Epilepsy CoE and the Parkinson’s Disease Research and Clinical Centers in VISNs 5, 6 (mid-Atlantic) and 20 (Pacific Northwest) initiated an integrated teleneurology project. The goal of this project was to improve patient access to care at 4 tertiary and 12 regional VAMCs. A study team, with administrators and key clinical stakeholders, followed a traditional project management approach to design, plan, implement and evaluate an optimal model for communication and referrals with both live visits and telehealth (Table). Major outcomes of the project included: delivering subspecialty teleneurology to 47 patient sites, increasing interfacility consultation by 133% while reducing wait times by roughly 40%, and increasing telemedicine workload at these centers from 95 annual encounters in 2012 to 1,245 annual encounters in 2015 (Figure).

Today, telehealth for veterans with MS can be delivered to nearby VA facilities closer to their home, within their home, or anywhere else the veteran can use a cellphone or tablet. Telehealth visits can save travel time and expenses and optimize VA productivity and clinic use. The MSCoE and many of the MS regional programs are using telehealth for MS physician follow-up and therapies. The VA Office of Rural Health is also currently working with the MS network to use telehealth to increase access to physical therapy to those who have difficulty coming into clinic.

MSCoE Resources

The MSCoE is funded by VA Central Office through the Office of Specialty Care by Special Purpose funds. The directive specifies that funding for the regional and support programs is through Veterans Equitable Resource Allocation based on VISN and facility workload and complexity. Any research is funded separately through grants, some from VA R&D and others from other sources including the National Institutes of Health, the Patient Centered Outcome Research Institute, affiliated universities, the NMSS, the MS Society of Canada, the Consortium of MS Centers, foundations, and industry.

In 2019, MSCoE investigators received grants totaling > $18 million in funding. In-kind support also is provided by the PVA, the CMSC, the NMSS, and others. The first 3 foundations have been supporters since the inception of the MSCoE and have provided opportunities for the dissemination of education and research for HCPs, fellows, residents and medical students; travel; meeting rooms for MSCoE national meetings; exhibit space for HCP outreach; competitive research and educational grant support; programming and resources for veterans and significant others; organizational expertise; and opportunities for VA HCPs, veterans, and caregivers to learn how to navigate MS with others in the private sector.

Conclusion

The MSCoE had a tremendous impact on improving the consistency and quality of care for veterans with MS through clinical care, research, education and informatics and telehealth. Since opening in 2003, there has been an increase in the number of MS specialty clinics, served veterans with MS, and veterans receiving specialty neurologic and rehabilitation services in VA. Research programs in MS have been initiated to address key questions relevant to veterans with MS, including immunology, epidemiology, clinical care, and rehabilitation. Educational programs and products have evolved with technology and had a greater impact through partnerships with veteran and MS nonprofit organizations.

MSCoE strives to minimize impairment and maximize quality of life for veterans with MS by leveraging integrated electronic health records, data repositories, and telehealth services. These efforts have all improved veteran health, access and safety. We look forward to continuing into the next decade by bringing fresh ideas to the care of veterans with MS, their families and caregivers.

The Veterans Health Administration (VHA) has established a number of centers of excellence (CoEs), including centers focused on posttraumatic stress disorder, suicide prevention, epilepsy, and, most recently, the Senator Elizabeth Dole CoE for Veteran and Caregiver Research. Some VA CoE serve as centralized locations for specialty care. For example, the VA Epilepsy CoE is a network of 16 facilities that provide comprehensive epilepsy care for veterans with seizure disorders, including expert and presurgical evaluations and inpatient monitoring.

In contrast, other CoEs, including the multiple sclerosis (MS) CoE, achieve their missions by serving as a resource center to a network of regional and supporting various programs to optimize the care of veterans across the nation within their home US Department of Veterans Affairs (VA) medical center (VAMC). The MSCoE are charged, through VHA Directive 1011.06, with establishing at least 1 VA MS Regional Program in each of the 21 Veteran Integrated Service Networks (VISNs) across the country and integrating these and affiliated MS Support Programs into the MS National Network. Currently, there are 29 MS regional programs and 49 MS support programs across the US.¹

Established in 2003, the MSCoE is dedicated to furthering the understanding of MS, its impact on veterans, and effective treatments to help manage the disease and its symptoms. In 2002, 2 coordinating centers were selected based on a competitive review process. The MSCoE-East is located at the Baltimore, Maryland and Washington, DC VAMC and serves VISNs 1 to 10. The MSCoE-West serves VISNs 11 to 23 and is jointly-based at VA Puget Sound Health Care System in Seattle, Washington and VA Portland Health Care System in Portland, Oregon. The MSCoEs were made permanent by The Veteran’ Benefits, Healthcare and Information Technology Act of 2006 (38 USC §7330). By partnering with veterans, caregivers, health care professionals, and other affiliates, the MSCoE endeavor to optimize health, activities, participation and quality of life for veterans with MS.

Core Functions

The MSCoE has a 3-part mission. First, the MSCoE seeks to expand care coordination between VAMCs by developing a national network of VA MSCoE Regional and Support Programs. Second, the MSCoE provides resources to VA health care providers (HCPs) through a collaborative approach to clinical care, education, research, and informatics. Third, the MSCoE improves the quality and consistency of health care services delivered to veterans diagnosed with MS nationwide. To meet its objectives, the MSCoE activities are organized around 4 functional cores: clinical care, research, education and training, and informatics and telemedicine.

Clinical Care

The MSCoE delivers high-quality clinical care by identifying veterans with MS who use VA services, understanding their needs, and facilitating appropriate interventions. Veterans with MS are a special cohort for many reasons including that about 70% are male. Men and women veterans not only have different genetics, but also may have different environmental exposures and other risk factors for MS. Since 1998, the VHA has evaluated > 50,000 veterans with MS. Over the past decade, between 18,000 and 20,000 veterans with MS have accessed care within the VHA annually.

The MSCoE advocates for appropriate and safe use of currently available MS disease modifying therapies through collaborations with the VA Pharmacy Benefits Management Service (PBM). The MSCoE partners with PBM to develop and disseminate Criteria For Use, safety, and economic monitoring of the impacts of the MS therapies. The MSCoE also provide national consultation services for complex MS cases, clinical education to VA HCPs, and mentors fellows, residents, and medical students.

The VA provides numerous resources that are not readily available in other health care systems and facilitate the care for patients with chronic diseases, including providing low or no co-pays to patients for MS disease modifying agents and other MS related medications, access to medically necessary adaptive equipment at no charge, the Home Improvement and Structural Alteration (HISA) grant for assistance with safe home ingress and egress, respite care, access to a homemaker/home health aide, and caregiver support programs. Eligible veterans also can access additional resources such as adaptive housing and an automobile grant. The VA also provides substantial hands-on assistance to veterans who are homeless. The clinical team and a veteran with MS can leverage VA resources through the National MS Society (NMSS) Navigator Program as well as other community resources.²

The VHA encourages physical activity and wellness through sports and leisure. Veterans with MS can participate in sports programs and special events, including the National Veterans Wheelchair Games, the National Disabled Veterans Winter Sports Clinic, the National Disabled Veterans TEE (Training, Exposure and Experience) golf tournament, the National Veterans Summer Sports Clinic, the National Veterans Golden Age Games, and the National Veterans Creative Sports Festival. HCPs or veterans who are not sure how to access any of these programs can contact the MSCoE or their local VA social workers.

Research

The primary goal of the MSCoE research core is to conduct clinical, health services, epidemiologic, and basic science research relevant to veterans with MS. The MSCoE serves to enhance collaboration among VAMCs, increase the participation of veterans in research, and provide research mentorship for the next generation of VA MS scientists. MSCoE research is carried out by investigators at the MSCoE and the MS Regional Programs, often in collaboration with investigators at academic institutions. This research is supported by competitive grant awards from a variety of funding agencies including the VA Research and Development Service (R&D) and the NMSS. Results from about 40 research grants in Fiscal Year 2019 were disseminated through 34 peer-reviewed publications, 30 posters, presentations, abstracts, and clinical practice guidelines.

There are many examples of recent high impact MS research performed by MSCoE investigators. For example, MSCoE researchers noted an increase in the estimated prevalence of MS to 1 million individuals in the US, about twice the previously estimated prevalence.^3-5 In addition, a multicenter study highlighted the prevalence of MS misdiagnosis and common confounders for MS.⁶ Other research includes pilot clinical trials evaluating lipoic acid as a potential disease modifying therapy in people with secondary progressive MS and the impact of a multicomponent walking aid selection, fitting, and training program for preventing falls in people with MS.^7,8 Clinical trial also are investigating telehealth counseling to improve physical activity in MS and a systematic review of rehabilitation interventions in MS.^9,10

Education and Training

A unified program of education is essential to effective management of MS nationally. The primary goal of the education and training core is to provide a national program of MS education for HCPs, veterans, and caregivers to improve knowledge, enhance access to resources, and promote effective management strategies. The MSCoE collaborate with the Paralyzed Veterans of America (PVA), the Consortium of MS Centers (CMSC), the NMSS, and other national service organizations to increase educational opportunities, share knowledge, and expand participation.

The MSCoE education and training core produces a range of products both veterans, HCPs, and others affected by MS. The MSCoE sends a biannual patient newsletter to > 20,000 veterans and a monthly email to > 1,000 VA HCPs. Specific opportunities for HCP education include accredited multidisciplinary MS webinars, sponsored symposia and workshops at the CMSC and PVA Summit annual meetings, and presentations at other university and professional conferences. Enduring educational opportunities for veterans, caregivers, and HCPs can also be found by visiting www.va.gov/ms.

The MSCoE coordinate postdoctoral fellowship training programs to develop expertise in MS health care for the future. It offers VA physician fellowships for neurologists in Baltimore and Portland and for physiatrists in Seattle as well as NMSS fellowships for education and research. In 2019, MSCoE had 6 MD Fellows and 1 PhD Fellow.

Clinical Informatics and Telehealth

The primary goal of the informatics and telemedicine core is to employ state-of-the-art informatics, telemedicine technology, and the MSCoE website, to improve MS health care delivery. The VA has a integrated electronic health record and various data repositories are stored in the VHA Corporate Data Warehouse (CDW). MSCoE utilizes the CDW to maintain a national MS administrative data repository to understand the VHA care provided to veterans with MS. Data from the CDW have also served as an important resource to facilitate a wide range of veteran-focused MS research. This research has addressed clinical conditions like pain and obesity; health behaviors like smoking, alcohol use, and exercise as well as issues related to care delivery such as specialty care access, medication adherence, and appointment attendance.^11-19

Monitoring the health of veterans with MS in the VA requires additional data not available in the CDW. To this end, we have developed the MS Surveillance Registry (MSSR), funded and maintained by the VA Office of Information Technology as part of their Veteran Integrated Registry Platform (VIRP). The purpose of the MSSR is to understand the unique characteristics and treatment patterns of veterans with MS in order to optimize their VHA care. HCPs input MS-specific clinical data on their patients into the MSSR, either through the MS Assessment Tool (MSAT) in the Computerized Patient Record System (CPRS) or through a secure online portal. Other data from existing databases from the CDW is also automatically fed into the MSSR. The MSSR continues to be developed and populated to serve as a resource for the future.

Neurologists, physiatrists, psychologists, and rehabilitation specialists can use telehealth to evaluate and treat veterans who have difficulty accessing outpatient clinics, either because of mobility limitations, or distance. Between 2012 and 2015, the VA MSCoE, together with the Epilepsy CoE and the Parkinson’s Disease Research and Clinical Centers in VISNs 5, 6 (mid-Atlantic) and 20 (Pacific Northwest) initiated an integrated teleneurology project. The goal of this project was to improve patient access to care at 4 tertiary and 12 regional VAMCs. A study team, with administrators and key clinical stakeholders, followed a traditional project management approach to design, plan, implement and evaluate an optimal model for communication and referrals with both live visits and telehealth (Table). Major outcomes of the project included: delivering subspecialty teleneurology to 47 patient sites, increasing interfacility consultation by 133% while reducing wait times by roughly 40%, and increasing telemedicine workload at these centers from 95 annual encounters in 2012 to 1,245 annual encounters in 2015 (Figure).

Today, telehealth for veterans with MS can be delivered to nearby VA facilities closer to their home, within their home, or anywhere else the veteran can use a cellphone or tablet. Telehealth visits can save travel time and expenses and optimize VA productivity and clinic use. The MSCoE and many of the MS regional programs are using telehealth for MS physician follow-up and therapies. The VA Office of Rural Health is also currently working with the MS network to use telehealth to increase access to physical therapy to those who have difficulty coming into clinic.

MSCoE Resources

The MSCoE is funded by VA Central Office through the Office of Specialty Care by Special Purpose funds. The directive specifies that funding for the regional and support programs is through Veterans Equitable Resource Allocation based on VISN and facility workload and complexity. Any research is funded separately through grants, some from VA R&D and others from other sources including the National Institutes of Health, the Patient Centered Outcome Research Institute, affiliated universities, the NMSS, the MS Society of Canada, the Consortium of MS Centers, foundations, and industry.

In 2019, MSCoE investigators received grants totaling > $18 million in funding. In-kind support also is provided by the PVA, the CMSC, the NMSS, and others. The first 3 foundations have been supporters since the inception of the MSCoE and have provided opportunities for the dissemination of education and research for HCPs, fellows, residents and medical students; travel; meeting rooms for MSCoE national meetings; exhibit space for HCP outreach; competitive research and educational grant support; programming and resources for veterans and significant others; organizational expertise; and opportunities for VA HCPs, veterans, and caregivers to learn how to navigate MS with others in the private sector.

Conclusion

The MSCoE had a tremendous impact on improving the consistency and quality of care for veterans with MS through clinical care, research, education and informatics and telehealth. Since opening in 2003, there has been an increase in the number of MS specialty clinics, served veterans with MS, and veterans receiving specialty neurologic and rehabilitation services in VA. Research programs in MS have been initiated to address key questions relevant to veterans with MS, including immunology, epidemiology, clinical care, and rehabilitation. Educational programs and products have evolved with technology and had a greater impact through partnerships with veteran and MS nonprofit organizations.

MSCoE strives to minimize impairment and maximize quality of life for veterans with MS by leveraging integrated electronic health records, data repositories, and telehealth services. These efforts have all improved veteran health, access and safety. We look forward to continuing into the next decade by bringing fresh ideas to the care of veterans with MS, their families and caregivers.

The Veterans Health Administration (VHA) has established a number of centers of excellence (CoEs), including centers focused on posttraumatic stress disorder, suicide prevention, epilepsy, and, most recently, the Senator Elizabeth Dole CoE for Veteran and Caregiver Research. Some VA CoE serve as centralized locations for specialty care. For example, the VA Epilepsy CoE is a network of 16 facilities that provide comprehensive epilepsy care for veterans with seizure disorders, including expert and presurgical evaluations and inpatient monitoring.

In contrast, other CoEs, including the multiple sclerosis (MS) CoE, achieve their missions by serving as a resource center to a network of regional and supporting various programs to optimize the care of veterans across the nation within their home US Department of Veterans Affairs (VA) medical center (VAMC). The MSCoE are charged, through VHA Directive 1011.06, with establishing at least 1 VA MS Regional Program in each of the 21 Veteran Integrated Service Networks (VISNs) across the country and integrating these and affiliated MS Support Programs into the MS National Network. Currently, there are 29 MS regional programs and 49 MS support programs across the US.¹

Established in 2003, the MSCoE is dedicated to furthering the understanding of MS, its impact on veterans, and effective treatments to help manage the disease and its symptoms. In 2002, 2 coordinating centers were selected based on a competitive review process. The MSCoE-East is located at the Baltimore, Maryland and Washington, DC VAMC and serves VISNs 1 to 10. The MSCoE-West serves VISNs 11 to 23 and is jointly-based at VA Puget Sound Health Care System in Seattle, Washington and VA Portland Health Care System in Portland, Oregon. The MSCoEs were made permanent by The Veteran’ Benefits, Healthcare and Information Technology Act of 2006 (38 USC §7330). By partnering with veterans, caregivers, health care professionals, and other affiliates, the MSCoE endeavor to optimize health, activities, participation and quality of life for veterans with MS.

Core Functions

The MSCoE has a 3-part mission. First, the MSCoE seeks to expand care coordination between VAMCs by developing a national network of VA MSCoE Regional and Support Programs. Second, the MSCoE provides resources to VA health care providers (HCPs) through a collaborative approach to clinical care, education, research, and informatics. Third, the MSCoE improves the quality and consistency of health care services delivered to veterans diagnosed with MS nationwide. To meet its objectives, the MSCoE activities are organized around 4 functional cores: clinical care, research, education and training, and informatics and telemedicine.

Clinical Care

The MSCoE delivers high-quality clinical care by identifying veterans with MS who use VA services, understanding their needs, and facilitating appropriate interventions. Veterans with MS are a special cohort for many reasons including that about 70% are male. Men and women veterans not only have different genetics, but also may have different environmental exposures and other risk factors for MS. Since 1998, the VHA has evaluated > 50,000 veterans with MS. Over the past decade, between 18,000 and 20,000 veterans with MS have accessed care within the VHA annually.

The MSCoE advocates for appropriate and safe use of currently available MS disease modifying therapies through collaborations with the VA Pharmacy Benefits Management Service (PBM). The MSCoE partners with PBM to develop and disseminate Criteria For Use, safety, and economic monitoring of the impacts of the MS therapies. The MSCoE also provide national consultation services for complex MS cases, clinical education to VA HCPs, and mentors fellows, residents, and medical students.

The VA provides numerous resources that are not readily available in other health care systems and facilitate the care for patients with chronic diseases, including providing low or no co-pays to patients for MS disease modifying agents and other MS related medications, access to medically necessary adaptive equipment at no charge, the Home Improvement and Structural Alteration (HISA) grant for assistance with safe home ingress and egress, respite care, access to a homemaker/home health aide, and caregiver support programs. Eligible veterans also can access additional resources such as adaptive housing and an automobile grant. The VA also provides substantial hands-on assistance to veterans who are homeless. The clinical team and a veteran with MS can leverage VA resources through the National MS Society (NMSS) Navigator Program as well as other community resources.²

The VHA encourages physical activity and wellness through sports and leisure. Veterans with MS can participate in sports programs and special events, including the National Veterans Wheelchair Games, the National Disabled Veterans Winter Sports Clinic, the National Disabled Veterans TEE (Training, Exposure and Experience) golf tournament, the National Veterans Summer Sports Clinic, the National Veterans Golden Age Games, and the National Veterans Creative Sports Festival. HCPs or veterans who are not sure how to access any of these programs can contact the MSCoE or their local VA social workers.

Research

The primary goal of the MSCoE research core is to conduct clinical, health services, epidemiologic, and basic science research relevant to veterans with MS. The MSCoE serves to enhance collaboration among VAMCs, increase the participation of veterans in research, and provide research mentorship for the next generation of VA MS scientists. MSCoE research is carried out by investigators at the MSCoE and the MS Regional Programs, often in collaboration with investigators at academic institutions. This research is supported by competitive grant awards from a variety of funding agencies including the VA Research and Development Service (R&D) and the NMSS. Results from about 40 research grants in Fiscal Year 2019 were disseminated through 34 peer-reviewed publications, 30 posters, presentations, abstracts, and clinical practice guidelines.

There are many examples of recent high impact MS research performed by MSCoE investigators. For example, MSCoE researchers noted an increase in the estimated prevalence of MS to 1 million individuals in the US, about twice the previously estimated prevalence.^3-5 In addition, a multicenter study highlighted the prevalence of MS misdiagnosis and common confounders for MS.⁶ Other research includes pilot clinical trials evaluating lipoic acid as a potential disease modifying therapy in people with secondary progressive MS and the impact of a multicomponent walking aid selection, fitting, and training program for preventing falls in people with MS.^7,8 Clinical trial also are investigating telehealth counseling to improve physical activity in MS and a systematic review of rehabilitation interventions in MS.^9,10

Education and Training

A unified program of education is essential to effective management of MS nationally. The primary goal of the education and training core is to provide a national program of MS education for HCPs, veterans, and caregivers to improve knowledge, enhance access to resources, and promote effective management strategies. The MSCoE collaborate with the Paralyzed Veterans of America (PVA), the Consortium of MS Centers (CMSC), the NMSS, and other national service organizations to increase educational opportunities, share knowledge, and expand participation.

The MSCoE education and training core produces a range of products both veterans, HCPs, and others affected by MS. The MSCoE sends a biannual patient newsletter to > 20,000 veterans and a monthly email to > 1,000 VA HCPs. Specific opportunities for HCP education include accredited multidisciplinary MS webinars, sponsored symposia and workshops at the CMSC and PVA Summit annual meetings, and presentations at other university and professional conferences. Enduring educational opportunities for veterans, caregivers, and HCPs can also be found by visiting www.va.gov/ms.

The MSCoE coordinate postdoctoral fellowship training programs to develop expertise in MS health care for the future. It offers VA physician fellowships for neurologists in Baltimore and Portland and for physiatrists in Seattle as well as NMSS fellowships for education and research. In 2019, MSCoE had 6 MD Fellows and 1 PhD Fellow.

Clinical Informatics and Telehealth

The primary goal of the informatics and telemedicine core is to employ state-of-the-art informatics, telemedicine technology, and the MSCoE website, to improve MS health care delivery. The VA has a integrated electronic health record and various data repositories are stored in the VHA Corporate Data Warehouse (CDW). MSCoE utilizes the CDW to maintain a national MS administrative data repository to understand the VHA care provided to veterans with MS. Data from the CDW have also served as an important resource to facilitate a wide range of veteran-focused MS research. This research has addressed clinical conditions like pain and obesity; health behaviors like smoking, alcohol use, and exercise as well as issues related to care delivery such as specialty care access, medication adherence, and appointment attendance.^11-19

Monitoring the health of veterans with MS in the VA requires additional data not available in the CDW. To this end, we have developed the MS Surveillance Registry (MSSR), funded and maintained by the VA Office of Information Technology as part of their Veteran Integrated Registry Platform (VIRP). The purpose of the MSSR is to understand the unique characteristics and treatment patterns of veterans with MS in order to optimize their VHA care. HCPs input MS-specific clinical data on their patients into the MSSR, either through the MS Assessment Tool (MSAT) in the Computerized Patient Record System (CPRS) or through a secure online portal. Other data from existing databases from the CDW is also automatically fed into the MSSR. The MSSR continues to be developed and populated to serve as a resource for the future.

Neurologists, physiatrists, psychologists, and rehabilitation specialists can use telehealth to evaluate and treat veterans who have difficulty accessing outpatient clinics, either because of mobility limitations, or distance. Between 2012 and 2015, the VA MSCoE, together with the Epilepsy CoE and the Parkinson’s Disease Research and Clinical Centers in VISNs 5, 6 (mid-Atlantic) and 20 (Pacific Northwest) initiated an integrated teleneurology project. The goal of this project was to improve patient access to care at 4 tertiary and 12 regional VAMCs. A study team, with administrators and key clinical stakeholders, followed a traditional project management approach to design, plan, implement and evaluate an optimal model for communication and referrals with both live visits and telehealth (Table). Major outcomes of the project included: delivering subspecialty teleneurology to 47 patient sites, increasing interfacility consultation by 133% while reducing wait times by roughly 40%, and increasing telemedicine workload at these centers from 95 annual encounters in 2012 to 1,245 annual encounters in 2015 (Figure).

Today, telehealth for veterans with MS can be delivered to nearby VA facilities closer to their home, within their home, or anywhere else the veteran can use a cellphone or tablet. Telehealth visits can save travel time and expenses and optimize VA productivity and clinic use. The MSCoE and many of the MS regional programs are using telehealth for MS physician follow-up and therapies. The VA Office of Rural Health is also currently working with the MS network to use telehealth to increase access to physical therapy to those who have difficulty coming into clinic.

MSCoE Resources

The MSCoE is funded by VA Central Office through the Office of Specialty Care by Special Purpose funds. The directive specifies that funding for the regional and support programs is through Veterans Equitable Resource Allocation based on VISN and facility workload and complexity. Any research is funded separately through grants, some from VA R&D and others from other sources including the National Institutes of Health, the Patient Centered Outcome Research Institute, affiliated universities, the NMSS, the MS Society of Canada, the Consortium of MS Centers, foundations, and industry.

In 2019, MSCoE investigators received grants totaling > $18 million in funding. In-kind support also is provided by the PVA, the CMSC, the NMSS, and others. The first 3 foundations have been supporters since the inception of the MSCoE and have provided opportunities for the dissemination of education and research for HCPs, fellows, residents and medical students; travel; meeting rooms for MSCoE national meetings; exhibit space for HCP outreach; competitive research and educational grant support; programming and resources for veterans and significant others; organizational expertise; and opportunities for VA HCPs, veterans, and caregivers to learn how to navigate MS with others in the private sector.

Conclusion

The MSCoE had a tremendous impact on improving the consistency and quality of care for veterans with MS through clinical care, research, education and informatics and telehealth. Since opening in 2003, there has been an increase in the number of MS specialty clinics, served veterans with MS, and veterans receiving specialty neurologic and rehabilitation services in VA. Research programs in MS have been initiated to address key questions relevant to veterans with MS, including immunology, epidemiology, clinical care, and rehabilitation. Educational programs and products have evolved with technology and had a greater impact through partnerships with veteran and MS nonprofit organizations.

MSCoE strives to minimize impairment and maximize quality of life for veterans with MS by leveraging integrated electronic health records, data repositories, and telehealth services. These efforts have all improved veteran health, access and safety. We look forward to continuing into the next decade by bringing fresh ideas to the care of veterans with MS, their families and caregivers.

Toxic metabolic encephalopathy (TME) is common and often lethal in hospitalized patients with COVID-19, new research shows. Results of a retrospective study show that of almost 4,500 patients with COVID-19, 12% were diagnosed with TME. Of these, 78% developed encephalopathy immediately prior to hospital admission. Septic encephalopathy, hypoxic-ischemic encephalopathy (HIE), and uremia were the most common causes, although multiple causes were present in close to 80% of patients. TME was also associated with a 24% higher risk of in-hospital death.

“We found that close to one in eight patients who were hospitalized with COVID-19 had TME that was not attributed to the effects of sedatives, and that this is incredibly common among these patients who are critically ill” said lead author Jennifer A. Frontera, MD, New York University.

“The general principle of our findings is to be more aggressive in TME; and from a neurologist perspective, the way to do this is to eliminate the effects of sedation, which is a confounder,” she said.

The study was published online March 16 in Neurocritical Care.
 

Drilling down

“Many neurological complications of COVID-19 are sequelae of severe illness or secondary effects of multisystem organ failure, but our previous work identified TME as the most common neurological complication,” Dr. Frontera said.

Previous research investigating encephalopathy among patients with COVID-19 included patients who may have been sedated or have had a positive Confusion Assessment Method (CAM) result.

“A lot of the delirium literature is effectively heterogeneous because there are a number of patients who are on sedative medication that, if you could turn it off, these patients would return to normal. Some may have underlying neurological issues that can be addressed, but you can›t get to the bottom of this unless you turn off the sedation,” Dr. Frontera noted.

“We wanted to be specific and try to drill down to see what the underlying cause of the encephalopathy was,” she said.

The researchers retrospectively analyzed data on 4,491 patients (≥ 18 years old) with COVID-19 who were admitted to four New York City hospitals between March 1, 2020, and May 20, 2020. Of these, 559 (12%) with TME were compared with 3,932 patients without TME.

The researchers looked at index admissions and included patients who had:

• New changes in mental status or significant worsening of mental status (in patients with baseline abnormal mental status).
• Hyperglycemia or  with transient focal neurologic deficits that resolved with glucose correction.
• An adequate washout of sedating medications (when relevant) prior to mental status assessment.

Potential etiologies included electrolyte abnormalities, organ failure, hypertensive encephalopathy, sepsis or active infection, fever, nutritional deficiency, and environmental injury.
 

Foreign environment

Most (78%) of the 559 patients diagnosed with TME had already developed encephalopathy immediately prior to hospital admission, the authors report. The most common etiologies of TME among hospitalized patients with COVID-19 are listed below.

Compared with patients without TME, those with TME – (all Ps < .001):

• Were older (76 vs. 62 years).
• Had higher rates of dementia (27% vs. 3%).
• Had higher rates of psychiatric history (20% vs. 10%).
• Were more often intubated (37% vs. 20%).
• Had a longer length of hospital stay (7.9 vs. 6.0 days).
• Were less often discharged home (25% vs. 66%).

“It’s no surprise that older patients and people with dementia or psychiatric illness are predisposed to becoming encephalopathic,” said Dr. Frontera. “Being in a foreign environment, such as a hospital, or being sleep-deprived in the ICU is likely to make them more confused during their hospital stay.”
 

Delirium as a symptom

In-hospital mortality or discharge to hospice was considerably higher in the TME versus non-TME patients (44% vs. 18%, respectively).

When the researchers adjusted for confounders (age, sex, race, worse Sequential Organ Failure Assessment score during hospitalization, ventilator status, study week, hospital location, and ICU care level) and excluded patients receiving only comfort care, they found that TME was associated with a 24% increased risk of in-hospital death (30% in patients with TME vs. 16% in those without TME).

The highest mortality risk was associated with hypoxemia, with 42% of patients with HIE dying during hospitalization, compared with 16% of patients without HIE (adjusted hazard ratio 1.56; 95% confidence interval, 1.21-2.00; P = .001).

“Not all patients who are intubated require sedation, but there’s generally a lot of hesitation in reducing or stopping sedation in some patients,” Dr. Frontera observed.

She acknowledged there are “many extremely sick patients whom you can’t ventilate without sedation.”

Nevertheless, “delirium in and of itself does not cause death. It’s a symptom, not a disease, and we have to figure out what causes it. Delirium might not need to be sedated, and it’s more important to see what the causal problem is.”
 

Independent predictor of death

Commenting on the study, Panayiotis N. Varelas, MD, PhD, vice president of the Neurocritical Care Society, said the study “approached the TME issue better than previously, namely allowing time for sedatives to wear off to have a better sample of patients with this syndrome.”

Dr. Varelas, who is chairman of the department of neurology and professor of neurology at Albany (N.Y.) Medical College, emphasized that TME “is not benign and, in patients with COVID-19, it is an independent predictor of in-hospital mortality.”

“One should take all possible measures … to avoid desaturation and hypotensive episodes and also aggressively treat SAE and uremic encephalopathy in hopes of improving the outcomes,” added Dr. Varelas, who was not involved with the study.

Also commenting on the study, Mitchell Elkind, MD, professor of neurology and epidemiology at Columbia University in New York, who was not associated with the research, said it “nicely distinguishes among the different causes of encephalopathy, including sepsis, hypoxia, and kidney failure … emphasizing just how sick these patients are.”

The study received no direct funding. Individual investigators were supported by grants from the National Institute on Aging and the National Institute of Neurological Disorders and Stroke. The investigators, Dr. Varelas, and Dr. Elkind have disclosed no relevant financial relationships.

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

Toxic metabolic encephalopathy (TME) is common and often lethal in hospitalized patients with COVID-19, new research shows. Results of a retrospective study show that of almost 4,500 patients with COVID-19, 12% were diagnosed with TME. Of these, 78% developed encephalopathy immediately prior to hospital admission. Septic encephalopathy, hypoxic-ischemic encephalopathy (HIE), and uremia were the most common causes, although multiple causes were present in close to 80% of patients. TME was also associated with a 24% higher risk of in-hospital death.

“We found that close to one in eight patients who were hospitalized with COVID-19 had TME that was not attributed to the effects of sedatives, and that this is incredibly common among these patients who are critically ill” said lead author Jennifer A. Frontera, MD, New York University.

“The general principle of our findings is to be more aggressive in TME; and from a neurologist perspective, the way to do this is to eliminate the effects of sedation, which is a confounder,” she said.

The study was published online March 16 in Neurocritical Care.
 

Drilling down

“Many neurological complications of COVID-19 are sequelae of severe illness or secondary effects of multisystem organ failure, but our previous work identified TME as the most common neurological complication,” Dr. Frontera said.

Previous research investigating encephalopathy among patients with COVID-19 included patients who may have been sedated or have had a positive Confusion Assessment Method (CAM) result.

“A lot of the delirium literature is effectively heterogeneous because there are a number of patients who are on sedative medication that, if you could turn it off, these patients would return to normal. Some may have underlying neurological issues that can be addressed, but you can›t get to the bottom of this unless you turn off the sedation,” Dr. Frontera noted.

“We wanted to be specific and try to drill down to see what the underlying cause of the encephalopathy was,” she said.

The researchers retrospectively analyzed data on 4,491 patients (≥ 18 years old) with COVID-19 who were admitted to four New York City hospitals between March 1, 2020, and May 20, 2020. Of these, 559 (12%) with TME were compared with 3,932 patients without TME.

The researchers looked at index admissions and included patients who had:

• New changes in mental status or significant worsening of mental status (in patients with baseline abnormal mental status).
• Hyperglycemia or  with transient focal neurologic deficits that resolved with glucose correction.
• An adequate washout of sedating medications (when relevant) prior to mental status assessment.

Potential etiologies included electrolyte abnormalities, organ failure, hypertensive encephalopathy, sepsis or active infection, fever, nutritional deficiency, and environmental injury.
 

Foreign environment

Most (78%) of the 559 patients diagnosed with TME had already developed encephalopathy immediately prior to hospital admission, the authors report. The most common etiologies of TME among hospitalized patients with COVID-19 are listed below.

Compared with patients without TME, those with TME – (all Ps < .001):

• Were older (76 vs. 62 years).
• Had higher rates of dementia (27% vs. 3%).
• Had higher rates of psychiatric history (20% vs. 10%).
• Were more often intubated (37% vs. 20%).
• Had a longer length of hospital stay (7.9 vs. 6.0 days).
• Were less often discharged home (25% vs. 66%).

“It’s no surprise that older patients and people with dementia or psychiatric illness are predisposed to becoming encephalopathic,” said Dr. Frontera. “Being in a foreign environment, such as a hospital, or being sleep-deprived in the ICU is likely to make them more confused during their hospital stay.”
 

Delirium as a symptom

In-hospital mortality or discharge to hospice was considerably higher in the TME versus non-TME patients (44% vs. 18%, respectively).

When the researchers adjusted for confounders (age, sex, race, worse Sequential Organ Failure Assessment score during hospitalization, ventilator status, study week, hospital location, and ICU care level) and excluded patients receiving only comfort care, they found that TME was associated with a 24% increased risk of in-hospital death (30% in patients with TME vs. 16% in those without TME).

The highest mortality risk was associated with hypoxemia, with 42% of patients with HIE dying during hospitalization, compared with 16% of patients without HIE (adjusted hazard ratio 1.56; 95% confidence interval, 1.21-2.00; P = .001).

“Not all patients who are intubated require sedation, but there’s generally a lot of hesitation in reducing or stopping sedation in some patients,” Dr. Frontera observed.

She acknowledged there are “many extremely sick patients whom you can’t ventilate without sedation.”

Nevertheless, “delirium in and of itself does not cause death. It’s a symptom, not a disease, and we have to figure out what causes it. Delirium might not need to be sedated, and it’s more important to see what the causal problem is.”
 

Independent predictor of death

Commenting on the study, Panayiotis N. Varelas, MD, PhD, vice president of the Neurocritical Care Society, said the study “approached the TME issue better than previously, namely allowing time for sedatives to wear off to have a better sample of patients with this syndrome.”

Dr. Varelas, who is chairman of the department of neurology and professor of neurology at Albany (N.Y.) Medical College, emphasized that TME “is not benign and, in patients with COVID-19, it is an independent predictor of in-hospital mortality.”

“One should take all possible measures … to avoid desaturation and hypotensive episodes and also aggressively treat SAE and uremic encephalopathy in hopes of improving the outcomes,” added Dr. Varelas, who was not involved with the study.

Also commenting on the study, Mitchell Elkind, MD, professor of neurology and epidemiology at Columbia University in New York, who was not associated with the research, said it “nicely distinguishes among the different causes of encephalopathy, including sepsis, hypoxia, and kidney failure … emphasizing just how sick these patients are.”

The study received no direct funding. Individual investigators were supported by grants from the National Institute on Aging and the National Institute of Neurological Disorders and Stroke. The investigators, Dr. Varelas, and Dr. Elkind have disclosed no relevant financial relationships.

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

Toxic metabolic encephalopathy (TME) is common and often lethal in hospitalized patients with COVID-19, new research shows. Results of a retrospective study show that of almost 4,500 patients with COVID-19, 12% were diagnosed with TME. Of these, 78% developed encephalopathy immediately prior to hospital admission. Septic encephalopathy, hypoxic-ischemic encephalopathy (HIE), and uremia were the most common causes, although multiple causes were present in close to 80% of patients. TME was also associated with a 24% higher risk of in-hospital death.

“We found that close to one in eight patients who were hospitalized with COVID-19 had TME that was not attributed to the effects of sedatives, and that this is incredibly common among these patients who are critically ill” said lead author Jennifer A. Frontera, MD, New York University.

“The general principle of our findings is to be more aggressive in TME; and from a neurologist perspective, the way to do this is to eliminate the effects of sedation, which is a confounder,” she said.

The study was published online March 16 in Neurocritical Care.
 

Drilling down

“Many neurological complications of COVID-19 are sequelae of severe illness or secondary effects of multisystem organ failure, but our previous work identified TME as the most common neurological complication,” Dr. Frontera said.

Previous research investigating encephalopathy among patients with COVID-19 included patients who may have been sedated or have had a positive Confusion Assessment Method (CAM) result.

“A lot of the delirium literature is effectively heterogeneous because there are a number of patients who are on sedative medication that, if you could turn it off, these patients would return to normal. Some may have underlying neurological issues that can be addressed, but you can›t get to the bottom of this unless you turn off the sedation,” Dr. Frontera noted.

“We wanted to be specific and try to drill down to see what the underlying cause of the encephalopathy was,” she said.

The researchers retrospectively analyzed data on 4,491 patients (≥ 18 years old) with COVID-19 who were admitted to four New York City hospitals between March 1, 2020, and May 20, 2020. Of these, 559 (12%) with TME were compared with 3,932 patients without TME.

The researchers looked at index admissions and included patients who had:

• New changes in mental status or significant worsening of mental status (in patients with baseline abnormal mental status).
• Hyperglycemia or  with transient focal neurologic deficits that resolved with glucose correction.
• An adequate washout of sedating medications (when relevant) prior to mental status assessment.

Potential etiologies included electrolyte abnormalities, organ failure, hypertensive encephalopathy, sepsis or active infection, fever, nutritional deficiency, and environmental injury.
 

Foreign environment

Most (78%) of the 559 patients diagnosed with TME had already developed encephalopathy immediately prior to hospital admission, the authors report. The most common etiologies of TME among hospitalized patients with COVID-19 are listed below.

Compared with patients without TME, those with TME – (all Ps < .001):

• Were older (76 vs. 62 years).
• Had higher rates of dementia (27% vs. 3%).
• Had higher rates of psychiatric history (20% vs. 10%).
• Were more often intubated (37% vs. 20%).
• Had a longer length of hospital stay (7.9 vs. 6.0 days).
• Were less often discharged home (25% vs. 66%).

“It’s no surprise that older patients and people with dementia or psychiatric illness are predisposed to becoming encephalopathic,” said Dr. Frontera. “Being in a foreign environment, such as a hospital, or being sleep-deprived in the ICU is likely to make them more confused during their hospital stay.”
 

Delirium as a symptom

In-hospital mortality or discharge to hospice was considerably higher in the TME versus non-TME patients (44% vs. 18%, respectively).

When the researchers adjusted for confounders (age, sex, race, worse Sequential Organ Failure Assessment score during hospitalization, ventilator status, study week, hospital location, and ICU care level) and excluded patients receiving only comfort care, they found that TME was associated with a 24% increased risk of in-hospital death (30% in patients with TME vs. 16% in those without TME).

The highest mortality risk was associated with hypoxemia, with 42% of patients with HIE dying during hospitalization, compared with 16% of patients without HIE (adjusted hazard ratio 1.56; 95% confidence interval, 1.21-2.00; P = .001).

“Not all patients who are intubated require sedation, but there’s generally a lot of hesitation in reducing or stopping sedation in some patients,” Dr. Frontera observed.

She acknowledged there are “many extremely sick patients whom you can’t ventilate without sedation.”

Nevertheless, “delirium in and of itself does not cause death. It’s a symptom, not a disease, and we have to figure out what causes it. Delirium might not need to be sedated, and it’s more important to see what the causal problem is.”
 

Independent predictor of death

Commenting on the study, Panayiotis N. Varelas, MD, PhD, vice president of the Neurocritical Care Society, said the study “approached the TME issue better than previously, namely allowing time for sedatives to wear off to have a better sample of patients with this syndrome.”

Dr. Varelas, who is chairman of the department of neurology and professor of neurology at Albany (N.Y.) Medical College, emphasized that TME “is not benign and, in patients with COVID-19, it is an independent predictor of in-hospital mortality.”

“One should take all possible measures … to avoid desaturation and hypotensive episodes and also aggressively treat SAE and uremic encephalopathy in hopes of improving the outcomes,” added Dr. Varelas, who was not involved with the study.

Also commenting on the study, Mitchell Elkind, MD, professor of neurology and epidemiology at Columbia University in New York, who was not associated with the research, said it “nicely distinguishes among the different causes of encephalopathy, including sepsis, hypoxia, and kidney failure … emphasizing just how sick these patients are.”

The study received no direct funding. Individual investigators were supported by grants from the National Institute on Aging and the National Institute of Neurological Disorders and Stroke. The investigators, Dr. Varelas, and Dr. Elkind have disclosed no relevant financial relationships.

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

Seasonal time change is now up for consideration in the U.S. Congress, prompting sleep medicine specialists to weigh in on the health impact of a major policy change.

As lawmakers in Washington propose an end to seasonal time changes by permanently establishing daylight saving time (DST), the American Academy of Sleep Medicine (AASM) is pushing for a Congressional hearing so scientists can present evidence in favor of converse legislation – to make standard time the new norm.

According to the AASM, seasonal time changes in either direction have been associated with a range of detrimental health effects; however, the switch from standard time to DST incurs more risk.

“Current evidence best supports the adoption of year-round standard time, which aligns best with human circadian biology and provides distinct benefits for public health and safety,” the AASM noted in a 2020 position statement on DST.

The statement cites a number of studies that have reported associations between the switch to DST and acute, negative health outcomes, including higher rates of hospital admission, cardiovascular morbidity, atrial fibrillation, and stroke. The time shift has been associated with a spectrum of cellular, metabolic, and circadian derangements, from increased production of inflammatory markers, to higher blood pressure, and loss of sleep. These biological effects may have far-reaching consequences, including increased rates of fatal motor accidents in the days following the time change, and even increased volatility in the stock market, which may stem from cognitive deficits.

U.S. Senator Marco Rubio (R-Fla.) and others in the U.S. Congress have reintroduced the 2019 Sunshine Protection Act, legislation that would make DST permanent across the country. According to a statement on Sen. Rubio’s website, “The bill reflects the Florida legislature’s 2018 enactment of year-round DST; however, for Florida’s change to apply, a change in the federal statute is required. Fifteen other states – Arkansas, Alabama, California, Delaware, Georgia, Idaho, Louisiana, Maine, Ohio, Oregon, South Carolina, Tennessee, Utah, Washington, and Wyoming – have passed similar laws, resolutions, or voter initiatives, and dozens more are looking. The legislation, if enacted, would apply to those states [that] currently participate in DST, which most states observe for eight months out of the year.”
 

A stitch in time

“The sudden change in clock time disrupts sleep/wake patterns, decreasing total sleep time and sleep quality, leading to decrements in daytime cognition,” said Kannan Ramar, MBBS, MD, president of the AASM and a sleep medicine specialist at Mayo Clinic, Rochester, Minn. 

Emphasizing this point, Dr. Ramar noted a recent study that reported an 18% increase in “patient safety-related incidents associated with human error” among health care workers within a week of the spring time change.

“Irregular bedtimes and wake times disrupt the timing of our circadian rhythms, which can lead to symptoms of insomnia or long-term, excessive daytime sleepiness. Lack of sleep can lead to numerous adverse effects on our minds, including decreased cognitive function, trouble concentrating, and general moodiness,” Dr. Ramar said.

He noted that these impacts may be more significant among certain individuals.

“The daylight saving time changes can be especially problematic for any populations that already experience chronic insufficient sleep or other sleep difficulties,” Dr. Ramar said. “Populations at greatest risk include teenagers, who tend to experience chronic sleep restriction during the school week, and night shift workers, who often struggle to sleep well during daytime hours.”

While fewer studies have evaluated the long-term effects of seasonal time changes, the AASM position statement cited evidence that “the body clock does not adjust to daylight saving time after several months,” possibly because “daylight saving time is less well-aligned with intrinsic human circadian physiology, and it disrupts the natural seasonal adjustment of the human clock due to the effect of late-evening light on the circadian rhythm.”

According to the AASM, permanent DST, as proposed by Sen. Rubio and colleagues, could “result in permanent phase delay, a condition that can also lead to a perpetual discrepancy between the innate biological clock and the extrinsic environmental clock, as well as chronic sleep loss due to early morning social demands that truncate the opportunity to sleep.” This mismatch between sleep/wake cycles and social demands, known as “social jet lag,” has been associated with chronic health risks, including metabolic syndrome, obesity, depression, and cardiovascular disease.
 

Cardiac impacts of seasonal time change

Muhammad Adeel Rishi, MD, a sleep specialist at Mayo Clinic, Eau Claire, Wis., and lead author of the AASM position statement, highlighted cardiovascular risks in a written statement for this article, noting increased rates of heart attack following the spring time change, and a higher risk of atrial fibrillation.

“Mayo Clinic has not taken a position on this issue,” Dr. Rishi noted. Still, he advocated for permanent standard time as the author of the AASM position statement and vice chair of the AASM public safety committee.

Jay Chudow, MD, and Andrew K. Krumerman, MD, of Montefiore Medical Center, New York, lead author and principal author, respectively, of a recent study that reported increased rates of atrial fibrillation admissions after DST transitions, had the same stance.

Pros and cons

Not all sleep experts are convinced. Mary Jo Farmer, MD, PhD, FCCP, a sleep specialist and director of pulmonary hypertension services at Baystate Medical Center, and assistant professor of medicine at the University of Massachusetts, Springfield, considers perspectives from both sides of the issue.

“Daylight saving time promotes active lifestyles as people engage in more outdoor activities after work and school, [and] daylight saving time produces economic and safety benefits to society as retail revenues are higher and crimes are lower,” Dr. Farmer said. “Alternatively, moving the clocks forward is a cost burden to the U.S. economy when health issues, decreased productivity, and workplace injuries are considered.”

If one time system is permanently established, Dr. Farmer anticipates divided opinions from patients with sleep issues, regardless of which system is chosen.

“I can tell you, I have a cohort of sleep patients who prefer more evening light and look forward to the spring time change to daylight saving time,” she said. “However, they would not want the sun coming up at 9:00 a.m. in the winter months if we stayed on daylight saving time year-round. Similarly, patients would not want the sun coming up at 4:00 a.m. on the longest day of the year if we stayed on standard time all year round.”

Dr. Farmer called for more research before a decision is made.

“I suggest we need more information about the dangers of staying on daylight saving or standard time year-round because perhaps the current strategy of keeping morning light consistent is not so bad,” she said.
 

Time for a Congressional hearing?

According to Dr. Ramar, the time is now for a Congressional hearing, as lawmakers and the public need to be adequately informed when considering new legislation.

“There are public misconceptions about daylight saving time and standard time,” Dr. Ramar said. “People often like the idea of daylight saving time because they think it provides more light, and they dislike the concept of standard time because they think it provides more darkness. The reality is that neither time system provides more light or darkness than the other; it is only the timing that changes.”

Until new legislation is introduced, Dr. Ramar offered some practical advice for navigating seasonal time shifts.

“Beginning 2-3 days before the time change, it can be helpful to gradually adjust sleep and wake times, as well as other daily routines such as meal times,” he said. “After the time change, going outside for some morning light can help adjust the timing of your internal body clock.”

The investigators reported no conflicts of interest.

Seasonal time change is now up for consideration in the U.S. Congress, prompting sleep medicine specialists to weigh in on the health impact of a major policy change.

As lawmakers in Washington propose an end to seasonal time changes by permanently establishing daylight saving time (DST), the American Academy of Sleep Medicine (AASM) is pushing for a Congressional hearing so scientists can present evidence in favor of converse legislation – to make standard time the new norm.

According to the AASM, seasonal time changes in either direction have been associated with a range of detrimental health effects; however, the switch from standard time to DST incurs more risk.

“Current evidence best supports the adoption of year-round standard time, which aligns best with human circadian biology and provides distinct benefits for public health and safety,” the AASM noted in a 2020 position statement on DST.

The statement cites a number of studies that have reported associations between the switch to DST and acute, negative health outcomes, including higher rates of hospital admission, cardiovascular morbidity, atrial fibrillation, and stroke. The time shift has been associated with a spectrum of cellular, metabolic, and circadian derangements, from increased production of inflammatory markers, to higher blood pressure, and loss of sleep. These biological effects may have far-reaching consequences, including increased rates of fatal motor accidents in the days following the time change, and even increased volatility in the stock market, which may stem from cognitive deficits.

U.S. Senator Marco Rubio (R-Fla.) and others in the U.S. Congress have reintroduced the 2019 Sunshine Protection Act, legislation that would make DST permanent across the country. According to a statement on Sen. Rubio’s website, “The bill reflects the Florida legislature’s 2018 enactment of year-round DST; however, for Florida’s change to apply, a change in the federal statute is required. Fifteen other states – Arkansas, Alabama, California, Delaware, Georgia, Idaho, Louisiana, Maine, Ohio, Oregon, South Carolina, Tennessee, Utah, Washington, and Wyoming – have passed similar laws, resolutions, or voter initiatives, and dozens more are looking. The legislation, if enacted, would apply to those states [that] currently participate in DST, which most states observe for eight months out of the year.”
 

A stitch in time

“The sudden change in clock time disrupts sleep/wake patterns, decreasing total sleep time and sleep quality, leading to decrements in daytime cognition,” said Kannan Ramar, MBBS, MD, president of the AASM and a sleep medicine specialist at Mayo Clinic, Rochester, Minn. 

Emphasizing this point, Dr. Ramar noted a recent study that reported an 18% increase in “patient safety-related incidents associated with human error” among health care workers within a week of the spring time change.

“Irregular bedtimes and wake times disrupt the timing of our circadian rhythms, which can lead to symptoms of insomnia or long-term, excessive daytime sleepiness. Lack of sleep can lead to numerous adverse effects on our minds, including decreased cognitive function, trouble concentrating, and general moodiness,” Dr. Ramar said.

He noted that these impacts may be more significant among certain individuals.

“The daylight saving time changes can be especially problematic for any populations that already experience chronic insufficient sleep or other sleep difficulties,” Dr. Ramar said. “Populations at greatest risk include teenagers, who tend to experience chronic sleep restriction during the school week, and night shift workers, who often struggle to sleep well during daytime hours.”

While fewer studies have evaluated the long-term effects of seasonal time changes, the AASM position statement cited evidence that “the body clock does not adjust to daylight saving time after several months,” possibly because “daylight saving time is less well-aligned with intrinsic human circadian physiology, and it disrupts the natural seasonal adjustment of the human clock due to the effect of late-evening light on the circadian rhythm.”

According to the AASM, permanent DST, as proposed by Sen. Rubio and colleagues, could “result in permanent phase delay, a condition that can also lead to a perpetual discrepancy between the innate biological clock and the extrinsic environmental clock, as well as chronic sleep loss due to early morning social demands that truncate the opportunity to sleep.” This mismatch between sleep/wake cycles and social demands, known as “social jet lag,” has been associated with chronic health risks, including metabolic syndrome, obesity, depression, and cardiovascular disease.
 

Cardiac impacts of seasonal time change

Muhammad Adeel Rishi, MD, a sleep specialist at Mayo Clinic, Eau Claire, Wis., and lead author of the AASM position statement, highlighted cardiovascular risks in a written statement for this article, noting increased rates of heart attack following the spring time change, and a higher risk of atrial fibrillation.

“Mayo Clinic has not taken a position on this issue,” Dr. Rishi noted. Still, he advocated for permanent standard time as the author of the AASM position statement and vice chair of the AASM public safety committee.

Jay Chudow, MD, and Andrew K. Krumerman, MD, of Montefiore Medical Center, New York, lead author and principal author, respectively, of a recent study that reported increased rates of atrial fibrillation admissions after DST transitions, had the same stance.

Pros and cons

Not all sleep experts are convinced. Mary Jo Farmer, MD, PhD, FCCP, a sleep specialist and director of pulmonary hypertension services at Baystate Medical Center, and assistant professor of medicine at the University of Massachusetts, Springfield, considers perspectives from both sides of the issue.

“Daylight saving time promotes active lifestyles as people engage in more outdoor activities after work and school, [and] daylight saving time produces economic and safety benefits to society as retail revenues are higher and crimes are lower,” Dr. Farmer said. “Alternatively, moving the clocks forward is a cost burden to the U.S. economy when health issues, decreased productivity, and workplace injuries are considered.”

If one time system is permanently established, Dr. Farmer anticipates divided opinions from patients with sleep issues, regardless of which system is chosen.

“I can tell you, I have a cohort of sleep patients who prefer more evening light and look forward to the spring time change to daylight saving time,” she said. “However, they would not want the sun coming up at 9:00 a.m. in the winter months if we stayed on daylight saving time year-round. Similarly, patients would not want the sun coming up at 4:00 a.m. on the longest day of the year if we stayed on standard time all year round.”

Dr. Farmer called for more research before a decision is made.

“I suggest we need more information about the dangers of staying on daylight saving or standard time year-round because perhaps the current strategy of keeping morning light consistent is not so bad,” she said.
 

Time for a Congressional hearing?

According to Dr. Ramar, the time is now for a Congressional hearing, as lawmakers and the public need to be adequately informed when considering new legislation.

“There are public misconceptions about daylight saving time and standard time,” Dr. Ramar said. “People often like the idea of daylight saving time because they think it provides more light, and they dislike the concept of standard time because they think it provides more darkness. The reality is that neither time system provides more light or darkness than the other; it is only the timing that changes.”

Until new legislation is introduced, Dr. Ramar offered some practical advice for navigating seasonal time shifts.

“Beginning 2-3 days before the time change, it can be helpful to gradually adjust sleep and wake times, as well as other daily routines such as meal times,” he said. “After the time change, going outside for some morning light can help adjust the timing of your internal body clock.”

The investigators reported no conflicts of interest.

Seasonal time change is now up for consideration in the U.S. Congress, prompting sleep medicine specialists to weigh in on the health impact of a major policy change.

As lawmakers in Washington propose an end to seasonal time changes by permanently establishing daylight saving time (DST), the American Academy of Sleep Medicine (AASM) is pushing for a Congressional hearing so scientists can present evidence in favor of converse legislation – to make standard time the new norm.

According to the AASM, seasonal time changes in either direction have been associated with a range of detrimental health effects; however, the switch from standard time to DST incurs more risk.

“Current evidence best supports the adoption of year-round standard time, which aligns best with human circadian biology and provides distinct benefits for public health and safety,” the AASM noted in a 2020 position statement on DST.

The statement cites a number of studies that have reported associations between the switch to DST and acute, negative health outcomes, including higher rates of hospital admission, cardiovascular morbidity, atrial fibrillation, and stroke. The time shift has been associated with a spectrum of cellular, metabolic, and circadian derangements, from increased production of inflammatory markers, to higher blood pressure, and loss of sleep. These biological effects may have far-reaching consequences, including increased rates of fatal motor accidents in the days following the time change, and even increased volatility in the stock market, which may stem from cognitive deficits.

U.S. Senator Marco Rubio (R-Fla.) and others in the U.S. Congress have reintroduced the 2019 Sunshine Protection Act, legislation that would make DST permanent across the country. According to a statement on Sen. Rubio’s website, “The bill reflects the Florida legislature’s 2018 enactment of year-round DST; however, for Florida’s change to apply, a change in the federal statute is required. Fifteen other states – Arkansas, Alabama, California, Delaware, Georgia, Idaho, Louisiana, Maine, Ohio, Oregon, South Carolina, Tennessee, Utah, Washington, and Wyoming – have passed similar laws, resolutions, or voter initiatives, and dozens more are looking. The legislation, if enacted, would apply to those states [that] currently participate in DST, which most states observe for eight months out of the year.”
 

A stitch in time

“The sudden change in clock time disrupts sleep/wake patterns, decreasing total sleep time and sleep quality, leading to decrements in daytime cognition,” said Kannan Ramar, MBBS, MD, president of the AASM and a sleep medicine specialist at Mayo Clinic, Rochester, Minn. 

Emphasizing this point, Dr. Ramar noted a recent study that reported an 18% increase in “patient safety-related incidents associated with human error” among health care workers within a week of the spring time change.

“Irregular bedtimes and wake times disrupt the timing of our circadian rhythms, which can lead to symptoms of insomnia or long-term, excessive daytime sleepiness. Lack of sleep can lead to numerous adverse effects on our minds, including decreased cognitive function, trouble concentrating, and general moodiness,” Dr. Ramar said.

He noted that these impacts may be more significant among certain individuals.

“The daylight saving time changes can be especially problematic for any populations that already experience chronic insufficient sleep or other sleep difficulties,” Dr. Ramar said. “Populations at greatest risk include teenagers, who tend to experience chronic sleep restriction during the school week, and night shift workers, who often struggle to sleep well during daytime hours.”

While fewer studies have evaluated the long-term effects of seasonal time changes, the AASM position statement cited evidence that “the body clock does not adjust to daylight saving time after several months,” possibly because “daylight saving time is less well-aligned with intrinsic human circadian physiology, and it disrupts the natural seasonal adjustment of the human clock due to the effect of late-evening light on the circadian rhythm.”

According to the AASM, permanent DST, as proposed by Sen. Rubio and colleagues, could “result in permanent phase delay, a condition that can also lead to a perpetual discrepancy between the innate biological clock and the extrinsic environmental clock, as well as chronic sleep loss due to early morning social demands that truncate the opportunity to sleep.” This mismatch between sleep/wake cycles and social demands, known as “social jet lag,” has been associated with chronic health risks, including metabolic syndrome, obesity, depression, and cardiovascular disease.
 

Cardiac impacts of seasonal time change

Muhammad Adeel Rishi, MD, a sleep specialist at Mayo Clinic, Eau Claire, Wis., and lead author of the AASM position statement, highlighted cardiovascular risks in a written statement for this article, noting increased rates of heart attack following the spring time change, and a higher risk of atrial fibrillation.

“Mayo Clinic has not taken a position on this issue,” Dr. Rishi noted. Still, he advocated for permanent standard time as the author of the AASM position statement and vice chair of the AASM public safety committee.

Jay Chudow, MD, and Andrew K. Krumerman, MD, of Montefiore Medical Center, New York, lead author and principal author, respectively, of a recent study that reported increased rates of atrial fibrillation admissions after DST transitions, had the same stance.

Pros and cons

Not all sleep experts are convinced. Mary Jo Farmer, MD, PhD, FCCP, a sleep specialist and director of pulmonary hypertension services at Baystate Medical Center, and assistant professor of medicine at the University of Massachusetts, Springfield, considers perspectives from both sides of the issue.

“Daylight saving time promotes active lifestyles as people engage in more outdoor activities after work and school, [and] daylight saving time produces economic and safety benefits to society as retail revenues are higher and crimes are lower,” Dr. Farmer said. “Alternatively, moving the clocks forward is a cost burden to the U.S. economy when health issues, decreased productivity, and workplace injuries are considered.”

If one time system is permanently established, Dr. Farmer anticipates divided opinions from patients with sleep issues, regardless of which system is chosen.

“I can tell you, I have a cohort of sleep patients who prefer more evening light and look forward to the spring time change to daylight saving time,” she said. “However, they would not want the sun coming up at 9:00 a.m. in the winter months if we stayed on daylight saving time year-round. Similarly, patients would not want the sun coming up at 4:00 a.m. on the longest day of the year if we stayed on standard time all year round.”

Dr. Farmer called for more research before a decision is made.

“I suggest we need more information about the dangers of staying on daylight saving or standard time year-round because perhaps the current strategy of keeping morning light consistent is not so bad,” she said.
 

Time for a Congressional hearing?

According to Dr. Ramar, the time is now for a Congressional hearing, as lawmakers and the public need to be adequately informed when considering new legislation.

“There are public misconceptions about daylight saving time and standard time,” Dr. Ramar said. “People often like the idea of daylight saving time because they think it provides more light, and they dislike the concept of standard time because they think it provides more darkness. The reality is that neither time system provides more light or darkness than the other; it is only the timing that changes.”

Until new legislation is introduced, Dr. Ramar offered some practical advice for navigating seasonal time shifts.

“Beginning 2-3 days before the time change, it can be helpful to gradually adjust sleep and wake times, as well as other daily routines such as meal times,” he said. “After the time change, going outside for some morning light can help adjust the timing of your internal body clock.”

The investigators reported no conflicts of interest.

New research underscores the importance of folic acid supplementation for pregnant women with epilepsy who are taking antiepileptic drugs (AEDs).

Dietary folate alone, even in the United States, where food is fortified with folic acid, is “not sufficient” to improve cognitive outcomes for children of women who take AEDs during pregnancy, the researchers report.

“We found that dietary folate was not related to outcomes,” study investigator Kimford Meador, MD, professor of neurology and neurologic sciences, Stanford (Calif.) University, told this news organization.

“Only when the mother was taking extra folate did we see an improvement in child outcomes,” he added.

The findings were published online Feb. 23 in Epilepsy and Behavior.
 

Cognitive boost

“Daily folate is recommended to women in the general populations to reduce congenital malformations,” Dr. Meador said. In addition, periconceptional use of folate has been shown in previous research to improve neurodevelopmental outcomes for children of mothers with epilepsy who are taking AEDs.

Whether folate-fortified food alone, without supplements, has any effect on cognitive outcomes in this population of children has not been examined previously.

To investigate, the researchers assessed 117 children from the Neurodevelopmental Effects of Antiepileptic Drugs (NEAD) study, a prospective, observational study of women with epilepsy who were taking one of four AEDs: carbamazepine, lamotrigine, phenytoin, or valproate.

Results showed that dietary folate from fortified food alone, without supplements, had no significant impact on IQ at age 6 years among children with prenatal exposure to AEDs.

In contrast, use of periconceptual folate supplements was significantly associated with a 10-point higher IQ at age 6 in the adjusted analyses (95% confidence interval, 5.2-15.0; P < .001).

These six other nutrients from food and supplements had no significant association with IQ at age 6 years: vitamins C, D, and E, omega-3, gamma tocopherol, and vitamin B12.
 

Optimal dose unclear

The findings indicate that folates, including natural folate and folic acid, in food do not have positive cognitive effects for children of women with epilepsy who take AEDs, the researchers write.

Dr. Meador noted that the optimal dose of folic acid supplementation to provide a cognitive benefit remains unclear.

The U.S. Centers for Disease Control recommends 0.4 mg/d for the general population of women of childbearing age. In Europe, the recommendation is 1 mg/d.

“Higher doses are recommended if there is a personal or family history of spina bifida in prior pregnancies, but there is some concern that very high doses of folate may be detrimental,” Dr. Meador said.

For women with epilepsy, he would recommend “at least 1 mg/d and not more than 4 mg/d.”
 

Proves a point?

Commenting on the study for this news organization, Derek Chong, MD, vice chair of neurology and director of epilepsy at Lenox Hill Hospital, New York, said the finding that folate fortification of food alone is not adequate for women with epilepsy is “not groundbreaking” but does prove something previously thought.

“Folic acid is important for all women, but it does seem like folic acid may be even more important in the epilepsy population,” said Dr. Chong, who was not involved with the research.

He cautioned that the current analysis included only four medications, three of which are not used very often anymore.

“Lamotrigine is probably the most commonly used one now. It’s unfortunate that this study did not include Keppra [levetiracetam], which probably is the number one medication that we use now,” Dr. Chong said.

The research was supported by the National Institutes of Health. Dr. Meador and Dr. Chong have reported no relevant financial relationships.

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

New research underscores the importance of folic acid supplementation for pregnant women with epilepsy who are taking antiepileptic drugs (AEDs).

Dietary folate alone, even in the United States, where food is fortified with folic acid, is “not sufficient” to improve cognitive outcomes for children of women who take AEDs during pregnancy, the researchers report.

“We found that dietary folate was not related to outcomes,” study investigator Kimford Meador, MD, professor of neurology and neurologic sciences, Stanford (Calif.) University, told this news organization.

“Only when the mother was taking extra folate did we see an improvement in child outcomes,” he added.

The findings were published online Feb. 23 in Epilepsy and Behavior.
 

Cognitive boost

“Daily folate is recommended to women in the general populations to reduce congenital malformations,” Dr. Meador said. In addition, periconceptional use of folate has been shown in previous research to improve neurodevelopmental outcomes for children of mothers with epilepsy who are taking AEDs.

Whether folate-fortified food alone, without supplements, has any effect on cognitive outcomes in this population of children has not been examined previously.

To investigate, the researchers assessed 117 children from the Neurodevelopmental Effects of Antiepileptic Drugs (NEAD) study, a prospective, observational study of women with epilepsy who were taking one of four AEDs: carbamazepine, lamotrigine, phenytoin, or valproate.

Results showed that dietary folate from fortified food alone, without supplements, had no significant impact on IQ at age 6 years among children with prenatal exposure to AEDs.

In contrast, use of periconceptual folate supplements was significantly associated with a 10-point higher IQ at age 6 in the adjusted analyses (95% confidence interval, 5.2-15.0; P < .001).

These six other nutrients from food and supplements had no significant association with IQ at age 6 years: vitamins C, D, and E, omega-3, gamma tocopherol, and vitamin B12.
 

Optimal dose unclear

The findings indicate that folates, including natural folate and folic acid, in food do not have positive cognitive effects for children of women with epilepsy who take AEDs, the researchers write.

Dr. Meador noted that the optimal dose of folic acid supplementation to provide a cognitive benefit remains unclear.

The U.S. Centers for Disease Control recommends 0.4 mg/d for the general population of women of childbearing age. In Europe, the recommendation is 1 mg/d.

“Higher doses are recommended if there is a personal or family history of spina bifida in prior pregnancies, but there is some concern that very high doses of folate may be detrimental,” Dr. Meador said.

For women with epilepsy, he would recommend “at least 1 mg/d and not more than 4 mg/d.”
 

Proves a point?

Commenting on the study for this news organization, Derek Chong, MD, vice chair of neurology and director of epilepsy at Lenox Hill Hospital, New York, said the finding that folate fortification of food alone is not adequate for women with epilepsy is “not groundbreaking” but does prove something previously thought.

“Folic acid is important for all women, but it does seem like folic acid may be even more important in the epilepsy population,” said Dr. Chong, who was not involved with the research.

He cautioned that the current analysis included only four medications, three of which are not used very often anymore.

“Lamotrigine is probably the most commonly used one now. It’s unfortunate that this study did not include Keppra [levetiracetam], which probably is the number one medication that we use now,” Dr. Chong said.

The research was supported by the National Institutes of Health. Dr. Meador and Dr. Chong have reported no relevant financial relationships.

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

New research underscores the importance of folic acid supplementation for pregnant women with epilepsy who are taking antiepileptic drugs (AEDs).

Dietary folate alone, even in the United States, where food is fortified with folic acid, is “not sufficient” to improve cognitive outcomes for children of women who take AEDs during pregnancy, the researchers report.

“We found that dietary folate was not related to outcomes,” study investigator Kimford Meador, MD, professor of neurology and neurologic sciences, Stanford (Calif.) University, told this news organization.

“Only when the mother was taking extra folate did we see an improvement in child outcomes,” he added.

The findings were published online Feb. 23 in Epilepsy and Behavior.
 

Cognitive boost

“Daily folate is recommended to women in the general populations to reduce congenital malformations,” Dr. Meador said. In addition, periconceptional use of folate has been shown in previous research to improve neurodevelopmental outcomes for children of mothers with epilepsy who are taking AEDs.

Whether folate-fortified food alone, without supplements, has any effect on cognitive outcomes in this population of children has not been examined previously.

To investigate, the researchers assessed 117 children from the Neurodevelopmental Effects of Antiepileptic Drugs (NEAD) study, a prospective, observational study of women with epilepsy who were taking one of four AEDs: carbamazepine, lamotrigine, phenytoin, or valproate.

Results showed that dietary folate from fortified food alone, without supplements, had no significant impact on IQ at age 6 years among children with prenatal exposure to AEDs.

In contrast, use of periconceptual folate supplements was significantly associated with a 10-point higher IQ at age 6 in the adjusted analyses (95% confidence interval, 5.2-15.0; P < .001).

These six other nutrients from food and supplements had no significant association with IQ at age 6 years: vitamins C, D, and E, omega-3, gamma tocopherol, and vitamin B12.
 

Optimal dose unclear

The findings indicate that folates, including natural folate and folic acid, in food do not have positive cognitive effects for children of women with epilepsy who take AEDs, the researchers write.

Dr. Meador noted that the optimal dose of folic acid supplementation to provide a cognitive benefit remains unclear.

The U.S. Centers for Disease Control recommends 0.4 mg/d for the general population of women of childbearing age. In Europe, the recommendation is 1 mg/d.

“Higher doses are recommended if there is a personal or family history of spina bifida in prior pregnancies, but there is some concern that very high doses of folate may be detrimental,” Dr. Meador said.

For women with epilepsy, he would recommend “at least 1 mg/d and not more than 4 mg/d.”
 

Proves a point?

Commenting on the study for this news organization, Derek Chong, MD, vice chair of neurology and director of epilepsy at Lenox Hill Hospital, New York, said the finding that folate fortification of food alone is not adequate for women with epilepsy is “not groundbreaking” but does prove something previously thought.

“Folic acid is important for all women, but it does seem like folic acid may be even more important in the epilepsy population,” said Dr. Chong, who was not involved with the research.

He cautioned that the current analysis included only four medications, three of which are not used very often anymore.

“Lamotrigine is probably the most commonly used one now. It’s unfortunate that this study did not include Keppra [levetiracetam], which probably is the number one medication that we use now,” Dr. Chong said.

The research was supported by the National Institutes of Health. Dr. Meador and Dr. Chong have reported no relevant financial relationships.

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

For patients with dementia, cannabinoids may be a promising intervention for treating neuropsychiatric symptoms (NPS) and the refusing of food, new research suggests.

AndreyPopov/Getty Images

Results of a systematic literature review, presented at the 2021 meeting of the American Association for Geriatric Psychiatry, showed that cannabinoids were associated with reduced agitation, longer sleep, and lower NPS. They were also linked to increased meal consumption and weight gain.

Refusing food is a common problem for patients with dementia, often resulting in worsening sleep, agitation, and mood, study investigator Niraj Asthana, MD, a second-year resident in the department of psychiatry, University of California, San Diego, said in an interview. Dr. Asthana noted that certain cannabinoid analogues are now used to stimulate appetite for patients undergoing chemotherapy.
 

Filling a treatment gap

After years of legal and other problems affecting cannabinoid research, there is renewed interest in investigating its use for patients with dementia. Early evidence suggests that cannabinoids may also be beneficial for pain, sleep, and aggression.

The researchers noted that cannabinoids may be especially valuable in areas where there are currently limited therapies, including food refusal and NPS.

“Unfortunately, there are limited treatments available for food refusal, so we’re left with appetite stimulants and electroconvulsive therapy, and although atypical antipsychotics are commonly used to treat NPS, they’re associated with an increased risk of serious adverse events and mortality in older patients,” said Dr. Asthana.

Dr. Asthana and colleague Dan Sewell, MD, carried out a systematic literature review of relevant studies of the use of cannabinoids for dementia patients.

“We found there are lot of studies, but they’re small scale; I’d say the largest was probably about 50 patients, with most studies having 10-50 patients,” said Dr. Asthana. In part, this may be because, until very recently, research on cannabinoids was controversial.

To review the current literature on the potential applications of cannabinoids in the treatment of food refusal and NPS in dementia patients, the researchers conducted a literature review.

They identified 23 relevant studies of the use of synthetic cannabinoids, including dronabinol and nabilone, for dementia patients. These products contain tetrahydrocannabinol (THC), the main psychoactive compound in cannabis.
 

More research coming

Several studies showed that cannabinoid use was associated with reduced nighttime motor activity, improved sleep duration, reduced agitation, and lower Neuropsychiatric Inventory scores.

Several studies revealed a link between cannabinoids use and increased appetite and the consumption of more meals. One crossover placebo-controlled trial showed an overall increase in body weight among dementia patients who took dronabinol.

This suggests there might be something to the “colloquial cultural association between cannabinoids and the munchies,” said Dr. Asthana.

Possible mechanisms for the effects on appetite may be that cannabinoids increase levels of the hormone ghrelin, which is also known as the “hunger hormone,” and decrease leptin levels, a hormone that inhibits hunger. Dr. Asthana noted that, in these studies, the dose of THC was low and that overall, cannabinoids appeared to be safe.

“We found that, at least in these small-scale studies, cannabinoid analogues are well tolerated,” possibly because of the relatively low doses of THC, said Dr. Asthana. “They generally don’t seem to have a ton of side effects; they may make people a little sleepy, which is actually good, because these patents also have a lot of trouble sleeping.”

He noted that more recent research suggests cannabidiol oil may reduce agitation by up to 40%.

“Now that cannabis is losing a lot of its stigma, both culturally and in the scientific community, you’re seeing a lot of grant applications for clinical trials,” said Dr. Asthana. “I’m excited to see what we find in the next 5-10 years.”

In a comment, Kirsten Wilkins, MD, associate professor of psychiatry, Yale University, New Haven, Conn., who is also a geriatric psychiatrist at the Veterans Affairs Connecticut Health Care System, welcomed the new research in this area.

“With limited safe and effective treatments for food refusal and neuropsychiatric symptoms of dementia, Dr. Asthana and Dr. Sewell highlight the growing body of literature suggesting cannabinoids may be a novel treatment option,” she said.

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

For patients with dementia, cannabinoids may be a promising intervention for treating neuropsychiatric symptoms (NPS) and the refusing of food, new research suggests.

AndreyPopov/Getty Images

Results of a systematic literature review, presented at the 2021 meeting of the American Association for Geriatric Psychiatry, showed that cannabinoids were associated with reduced agitation, longer sleep, and lower NPS. They were also linked to increased meal consumption and weight gain.

Refusing food is a common problem for patients with dementia, often resulting in worsening sleep, agitation, and mood, study investigator Niraj Asthana, MD, a second-year resident in the department of psychiatry, University of California, San Diego, said in an interview. Dr. Asthana noted that certain cannabinoid analogues are now used to stimulate appetite for patients undergoing chemotherapy.
 

Filling a treatment gap

After years of legal and other problems affecting cannabinoid research, there is renewed interest in investigating its use for patients with dementia. Early evidence suggests that cannabinoids may also be beneficial for pain, sleep, and aggression.

The researchers noted that cannabinoids may be especially valuable in areas where there are currently limited therapies, including food refusal and NPS.

“Unfortunately, there are limited treatments available for food refusal, so we’re left with appetite stimulants and electroconvulsive therapy, and although atypical antipsychotics are commonly used to treat NPS, they’re associated with an increased risk of serious adverse events and mortality in older patients,” said Dr. Asthana.

Dr. Asthana and colleague Dan Sewell, MD, carried out a systematic literature review of relevant studies of the use of cannabinoids for dementia patients.

“We found there are lot of studies, but they’re small scale; I’d say the largest was probably about 50 patients, with most studies having 10-50 patients,” said Dr. Asthana. In part, this may be because, until very recently, research on cannabinoids was controversial.

To review the current literature on the potential applications of cannabinoids in the treatment of food refusal and NPS in dementia patients, the researchers conducted a literature review.

They identified 23 relevant studies of the use of synthetic cannabinoids, including dronabinol and nabilone, for dementia patients. These products contain tetrahydrocannabinol (THC), the main psychoactive compound in cannabis.
 

More research coming

Several studies showed that cannabinoid use was associated with reduced nighttime motor activity, improved sleep duration, reduced agitation, and lower Neuropsychiatric Inventory scores.

Several studies revealed a link between cannabinoids use and increased appetite and the consumption of more meals. One crossover placebo-controlled trial showed an overall increase in body weight among dementia patients who took dronabinol.

This suggests there might be something to the “colloquial cultural association between cannabinoids and the munchies,” said Dr. Asthana.

Possible mechanisms for the effects on appetite may be that cannabinoids increase levels of the hormone ghrelin, which is also known as the “hunger hormone,” and decrease leptin levels, a hormone that inhibits hunger. Dr. Asthana noted that, in these studies, the dose of THC was low and that overall, cannabinoids appeared to be safe.

“We found that, at least in these small-scale studies, cannabinoid analogues are well tolerated,” possibly because of the relatively low doses of THC, said Dr. Asthana. “They generally don’t seem to have a ton of side effects; they may make people a little sleepy, which is actually good, because these patents also have a lot of trouble sleeping.”

He noted that more recent research suggests cannabidiol oil may reduce agitation by up to 40%.

“Now that cannabis is losing a lot of its stigma, both culturally and in the scientific community, you’re seeing a lot of grant applications for clinical trials,” said Dr. Asthana. “I’m excited to see what we find in the next 5-10 years.”

In a comment, Kirsten Wilkins, MD, associate professor of psychiatry, Yale University, New Haven, Conn., who is also a geriatric psychiatrist at the Veterans Affairs Connecticut Health Care System, welcomed the new research in this area.

“With limited safe and effective treatments for food refusal and neuropsychiatric symptoms of dementia, Dr. Asthana and Dr. Sewell highlight the growing body of literature suggesting cannabinoids may be a novel treatment option,” she said.

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

For patients with dementia, cannabinoids may be a promising intervention for treating neuropsychiatric symptoms (NPS) and the refusing of food, new research suggests.

AndreyPopov/Getty Images

Results of a systematic literature review, presented at the 2021 meeting of the American Association for Geriatric Psychiatry, showed that cannabinoids were associated with reduced agitation, longer sleep, and lower NPS. They were also linked to increased meal consumption and weight gain.

Refusing food is a common problem for patients with dementia, often resulting in worsening sleep, agitation, and mood, study investigator Niraj Asthana, MD, a second-year resident in the department of psychiatry, University of California, San Diego, said in an interview. Dr. Asthana noted that certain cannabinoid analogues are now used to stimulate appetite for patients undergoing chemotherapy.
 

Filling a treatment gap

After years of legal and other problems affecting cannabinoid research, there is renewed interest in investigating its use for patients with dementia. Early evidence suggests that cannabinoids may also be beneficial for pain, sleep, and aggression.

The researchers noted that cannabinoids may be especially valuable in areas where there are currently limited therapies, including food refusal and NPS.

“Unfortunately, there are limited treatments available for food refusal, so we’re left with appetite stimulants and electroconvulsive therapy, and although atypical antipsychotics are commonly used to treat NPS, they’re associated with an increased risk of serious adverse events and mortality in older patients,” said Dr. Asthana.

Dr. Asthana and colleague Dan Sewell, MD, carried out a systematic literature review of relevant studies of the use of cannabinoids for dementia patients.

“We found there are lot of studies, but they’re small scale; I’d say the largest was probably about 50 patients, with most studies having 10-50 patients,” said Dr. Asthana. In part, this may be because, until very recently, research on cannabinoids was controversial.

To review the current literature on the potential applications of cannabinoids in the treatment of food refusal and NPS in dementia patients, the researchers conducted a literature review.

They identified 23 relevant studies of the use of synthetic cannabinoids, including dronabinol and nabilone, for dementia patients. These products contain tetrahydrocannabinol (THC), the main psychoactive compound in cannabis.
 

More research coming

Several studies showed that cannabinoid use was associated with reduced nighttime motor activity, improved sleep duration, reduced agitation, and lower Neuropsychiatric Inventory scores.

Several studies revealed a link between cannabinoids use and increased appetite and the consumption of more meals. One crossover placebo-controlled trial showed an overall increase in body weight among dementia patients who took dronabinol.

This suggests there might be something to the “colloquial cultural association between cannabinoids and the munchies,” said Dr. Asthana.

Possible mechanisms for the effects on appetite may be that cannabinoids increase levels of the hormone ghrelin, which is also known as the “hunger hormone,” and decrease leptin levels, a hormone that inhibits hunger. Dr. Asthana noted that, in these studies, the dose of THC was low and that overall, cannabinoids appeared to be safe.

“We found that, at least in these small-scale studies, cannabinoid analogues are well tolerated,” possibly because of the relatively low doses of THC, said Dr. Asthana. “They generally don’t seem to have a ton of side effects; they may make people a little sleepy, which is actually good, because these patents also have a lot of trouble sleeping.”

He noted that more recent research suggests cannabidiol oil may reduce agitation by up to 40%.

“Now that cannabis is losing a lot of its stigma, both culturally and in the scientific community, you’re seeing a lot of grant applications for clinical trials,” said Dr. Asthana. “I’m excited to see what we find in the next 5-10 years.”

In a comment, Kirsten Wilkins, MD, associate professor of psychiatry, Yale University, New Haven, Conn., who is also a geriatric psychiatrist at the Veterans Affairs Connecticut Health Care System, welcomed the new research in this area.

“With limited safe and effective treatments for food refusal and neuropsychiatric symptoms of dementia, Dr. Asthana and Dr. Sewell highlight the growing body of literature suggesting cannabinoids may be a novel treatment option,” she said.

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

It’s time for a large-scale phase 2 study into whether supplementary estrogen can relieve multiple sclerosis (MS) symptoms in menopausal women with the disease, a neurologist told colleagues at the meeting held by the Americas Committee for Treatment and Research in Multiple Sclerosis.

This kind of research should explore the effects of aging, including in the brain, and “focus on what is preventable – this dramatic and abrupt loss of estrogen in women with MS,” said Rhonda Voskuhl, MD, of the Brain Research Institute at the University of California, Los Angeles.

“This is a call to action. There’s a huge gap that needs to be filled,” she added in an interview. “Not enough attention has been paid to menopause and cognitive issues in MS and even in healthy women.”

Research has found that many women with MS experience a decline in function during menopause, she said. “They’re having a worsening of their preexisting disabilities,” she noted, due to neurodegeneration.

Dr. Voskuhl highlighted a 2016 study, for instance, that found postmenopausal women with MS on hormone replacement therapy reported better physical function and quality of life than did their counterparts after adjustment for covariates. She also pointed to a 2019 study that concluded that “natural menopause seems to be a turning point to a more progressive phase of MS.”

Estrogen appears to play a significant role. “It’s involved in synaptic plasticity,” she said. “That’s why the disabilities are worsening.”

Dr. Voskuhl supports a year-long, randomized and controlled study of estrogen supplementation in 150-200 participants. The goal, she said, is “not just to prevent loss and bad things from happening but also make improvements.”

In healthy patients, she said, outcomes should include cognitive decline in menopause, cognitive domain outcomes, and region-specific biomarkers in the frontal cortex and hippocampus instead of global cognition and global brain volume. In patients with MS, she said, the focus should be on worsening of disability with emphasis on specific disabilities such as walking and region-specific biomarkers for the motor cortex and spinal cord.

“We need to be looking at cortical gray matter, which we know is responsive to estrogen,” Dr. Voskuhl said. She led a 2018 placebo-controlled study that found women with MS who took estrogen supplements appeared to experience localized sparing of progressive gray matter, which the researchers linked to improved results in cognitive testing. The findings, the study authors wrote, suggest “a clinically relevant, disability-specific biomarker for clinical trials of candidate neuroprotective treatments in MS.”

What about men? Does hormone loss worsen their MS? Dr. Voskuhl said there seems to be a connection between lower levels of testosterone and more disability in men with MS. But their situation is different. Loss of testosterone in men is gradual and happens over decades instead of over the short period of menopause in women, she said.

Jennifer Graves, MD, a neurologist at the University of California, San Diego, agreed that it’s time for further research into estrogen supplementation in MS. As she noted, “we don’t know the exact biological mechanism that might link perimenopause with developing a more progressive type of MS.”

She added: “An overall decrease in estrogen may be at play but there are other biological changes around menopause. We must also take care in studies to try to separate out what might be due to ovarian aging versus other types of aging processes that might be happening at the same time.”

Dr. Voskuhl disclosed that she is an inventor on university patents for use of estriol and estrogen receptor–beta ligands as treatments. Dr. Graves reports no relevant disclosures.

It’s time for a large-scale phase 2 study into whether supplementary estrogen can relieve multiple sclerosis (MS) symptoms in menopausal women with the disease, a neurologist told colleagues at the meeting held by the Americas Committee for Treatment and Research in Multiple Sclerosis.

This kind of research should explore the effects of aging, including in the brain, and “focus on what is preventable – this dramatic and abrupt loss of estrogen in women with MS,” said Rhonda Voskuhl, MD, of the Brain Research Institute at the University of California, Los Angeles.

“This is a call to action. There’s a huge gap that needs to be filled,” she added in an interview. “Not enough attention has been paid to menopause and cognitive issues in MS and even in healthy women.”

Research has found that many women with MS experience a decline in function during menopause, she said. “They’re having a worsening of their preexisting disabilities,” she noted, due to neurodegeneration.

Dr. Voskuhl highlighted a 2016 study, for instance, that found postmenopausal women with MS on hormone replacement therapy reported better physical function and quality of life than did their counterparts after adjustment for covariates. She also pointed to a 2019 study that concluded that “natural menopause seems to be a turning point to a more progressive phase of MS.”

Estrogen appears to play a significant role. “It’s involved in synaptic plasticity,” she said. “That’s why the disabilities are worsening.”

Dr. Voskuhl supports a year-long, randomized and controlled study of estrogen supplementation in 150-200 participants. The goal, she said, is “not just to prevent loss and bad things from happening but also make improvements.”

In healthy patients, she said, outcomes should include cognitive decline in menopause, cognitive domain outcomes, and region-specific biomarkers in the frontal cortex and hippocampus instead of global cognition and global brain volume. In patients with MS, she said, the focus should be on worsening of disability with emphasis on specific disabilities such as walking and region-specific biomarkers for the motor cortex and spinal cord.

“We need to be looking at cortical gray matter, which we know is responsive to estrogen,” Dr. Voskuhl said. She led a 2018 placebo-controlled study that found women with MS who took estrogen supplements appeared to experience localized sparing of progressive gray matter, which the researchers linked to improved results in cognitive testing. The findings, the study authors wrote, suggest “a clinically relevant, disability-specific biomarker for clinical trials of candidate neuroprotective treatments in MS.”

What about men? Does hormone loss worsen their MS? Dr. Voskuhl said there seems to be a connection between lower levels of testosterone and more disability in men with MS. But their situation is different. Loss of testosterone in men is gradual and happens over decades instead of over the short period of menopause in women, she said.

Jennifer Graves, MD, a neurologist at the University of California, San Diego, agreed that it’s time for further research into estrogen supplementation in MS. As she noted, “we don’t know the exact biological mechanism that might link perimenopause with developing a more progressive type of MS.”

She added: “An overall decrease in estrogen may be at play but there are other biological changes around menopause. We must also take care in studies to try to separate out what might be due to ovarian aging versus other types of aging processes that might be happening at the same time.”

Dr. Voskuhl disclosed that she is an inventor on university patents for use of estriol and estrogen receptor–beta ligands as treatments. Dr. Graves reports no relevant disclosures.

It’s time for a large-scale phase 2 study into whether supplementary estrogen can relieve multiple sclerosis (MS) symptoms in menopausal women with the disease, a neurologist told colleagues at the meeting held by the Americas Committee for Treatment and Research in Multiple Sclerosis.

This kind of research should explore the effects of aging, including in the brain, and “focus on what is preventable – this dramatic and abrupt loss of estrogen in women with MS,” said Rhonda Voskuhl, MD, of the Brain Research Institute at the University of California, Los Angeles.

“This is a call to action. There’s a huge gap that needs to be filled,” she added in an interview. “Not enough attention has been paid to menopause and cognitive issues in MS and even in healthy women.”

Research has found that many women with MS experience a decline in function during menopause, she said. “They’re having a worsening of their preexisting disabilities,” she noted, due to neurodegeneration.

Dr. Voskuhl highlighted a 2016 study, for instance, that found postmenopausal women with MS on hormone replacement therapy reported better physical function and quality of life than did their counterparts after adjustment for covariates. She also pointed to a 2019 study that concluded that “natural menopause seems to be a turning point to a more progressive phase of MS.”

Estrogen appears to play a significant role. “It’s involved in synaptic plasticity,” she said. “That’s why the disabilities are worsening.”

Dr. Voskuhl supports a year-long, randomized and controlled study of estrogen supplementation in 150-200 participants. The goal, she said, is “not just to prevent loss and bad things from happening but also make improvements.”

In healthy patients, she said, outcomes should include cognitive decline in menopause, cognitive domain outcomes, and region-specific biomarkers in the frontal cortex and hippocampus instead of global cognition and global brain volume. In patients with MS, she said, the focus should be on worsening of disability with emphasis on specific disabilities such as walking and region-specific biomarkers for the motor cortex and spinal cord.

“We need to be looking at cortical gray matter, which we know is responsive to estrogen,” Dr. Voskuhl said. She led a 2018 placebo-controlled study that found women with MS who took estrogen supplements appeared to experience localized sparing of progressive gray matter, which the researchers linked to improved results in cognitive testing. The findings, the study authors wrote, suggest “a clinically relevant, disability-specific biomarker for clinical trials of candidate neuroprotective treatments in MS.”

What about men? Does hormone loss worsen their MS? Dr. Voskuhl said there seems to be a connection between lower levels of testosterone and more disability in men with MS. But their situation is different. Loss of testosterone in men is gradual and happens over decades instead of over the short period of menopause in women, she said.

Jennifer Graves, MD, a neurologist at the University of California, San Diego, agreed that it’s time for further research into estrogen supplementation in MS. As she noted, “we don’t know the exact biological mechanism that might link perimenopause with developing a more progressive type of MS.”

She added: “An overall decrease in estrogen may be at play but there are other biological changes around menopause. We must also take care in studies to try to separate out what might be due to ovarian aging versus other types of aging processes that might be happening at the same time.”

Dr. Voskuhl disclosed that she is an inventor on university patents for use of estriol and estrogen receptor–beta ligands as treatments. Dr. Graves reports no relevant disclosures.

New analyses of both observational and genetic data have provided “convincing evidence” that type 2 diabetes is associated with an increased risk for Parkinson’s disease.

“The fact that we see the same effects in both types of analysis separately makes it more likely that these results are real – that type 2 diabetes really is a driver of Parkinson’s disease risk,” Alastair Noyce, PhD, senior author of the new studies, said in an interview.

The two analyses are reported in one paper published online March 8 in the journal Movement Disorders.

Dr. Noyce, clinical senior lecturer in the preventive neurology unit at the Wolfson Institute of Preventive Medicine, Queen Mary University of London, explained that his group is interested in risk factors for Parkinson’s disease, particularly those relevant at the population level and which might be modifiable.

“Several studies have looked at diabetes as a risk factor for Parkinson’s but very few have focused on type 2 diabetes, and, as this is such a growing health issue, we wanted to look at that in more detail,” he said.

The researchers performed two different analyses: a meta-analysis of observational studies investigating an association between type 2 diabetes and Parkinson’s; and a separate Mendelian randomization analysis of genetic data on the two conditions.

They found similar results in both studies, with the observational data suggesting type 2 diabetes was associated with a 21% increased risk for Parkinson’s disease and the genetic data suggesting an 8% increased risk. There were also hints that type 2 diabetes might also be associated with faster progression of Parkinson’s symptoms.

“I don’t think type 2 diabetes is a major cause of Parkinson’s, but it probably makes some contribution and may increase the risk of a more aggressive form of the condition,” Dr. Noyce said.

“I would say the increased risk of Parkinson’s disease attributable to type 2 diabetes may be similar to that of head injury or pesticide exposure, but it is important, as type 2 diabetes is very prevalent and is increasing,” he added.  “As we see the growth in type 2 diabetes, this could lead to a later increase in Parkinson’s, which is already one of the fastest-growing diseases worldwide.”

For the meta-analysis of observational data, the researchers included nine studies that investigated preceding type 2 diabetes specifically and its effect on the risk for Parkinson’s disease and progression.

The pooled effect estimates showed that type 2 diabetes was associated with an increased risk for Parkinson’s disease (odds ratio, 1.21; 95% confidence interval, 1.07-1.36), and there was some evidence that type 2 diabetes was associated with faster progression of motor symptoms (standardized mean difference [SMD], 0.55) and cognitive decline (SMD, −0.92).

The observational meta-analysis included seven cohort studies and two case-control studies, and these different types of studies showed different results in regard to the association between diabetes and Parkinson’s. While the cohort studies showed a detrimental effect of diabetes on Parkinson’s risk (OR, 1.29), the case-control studies suggested protective effect (OR, 0.51). 

Addressing this, Dr. Noyce noted that the case-control studies may be less reliable as they suffered more from survivor bias. “Diabetes may cause deaths in mid-life before people go on to develop Parkinson’s, and this would cause a protective effect to be seen, but we believe this to be a spurious result. Cohort studies are generally more reliable and are less susceptible to survivor bias,” he said.  

For the genetic analysis, the researchers combined results from two large publicly available genome-wide association studies – one for type 2 diabetes and one for Parkinson’s disease to assess whether individuals with a genetic tendency to type 2 diabetes had a higher risk of developing Parkinson’s.

Results showed an increased risk for Parkinson’s in those individuals with genetic variants associated with type 2 diabetes, with an odds ratio of 1.08 (P = .010). There was also some evidence of an effect on motor progression (OR, 1.10; P = .032) but not on cognitive progression.

On the possible mechanism behind this observation, Dr. Noyce noted type 2 diabetes and Parkinson’s have some similarities in biology, including abnormal protein aggregation.

In the study, the authors also suggest that circulating insulin may have a neuroprotective role, whereas systemic and local insulin resistance can influence pathways known to be important in Parkinson’s pathogenesis, including those that relate to mitochondrial dysfunction, neuroinflammation, synaptic plasticity, and mitochondrial dysfunction.

Dr. Noyce further pointed out that several drugs used for the treatment of type 2 diabetes have been repurposed as possible treatments for Parkinson’s disease and are now being tested for this new indication. “Our results support that approach and raise the idea that some of these drugs may even prevent Parkinson’s in people at risk,” he said.  

Most people who have type 2 diabetes won’t get Parkinson’s disease, he added. Other outcomes such as heart disease, kidney disease, and microvascular complications are far more likely, and the main aim of preventing and treating type 2 diabetes is to prevent these far more common outcomes. “But our data suggests that this could also have a possible benefit in reducing future Parkinson’s risk,” he said.  

Not on the horizon at present is the possibility of screening patients with type 2 diabetes for signs of early Parkinson’s, Dr. Noyce said.

“There isn’t a test for identifying presymptomatic neurodegenerative diseases such as Parkinson’s yet, but perhaps in the future there will be, and type 2 diabetes may be one risk factor to take into account when considering such screening,” he added.

This work was financially supported by grants from The Michael J. Fox Foundation; the Canadian Consortium on Neurodegeneration in Aging (CCNA); the Canada First Research Excellence Fund (CFREF), awarded to McGill University for the Healthy Brains for Healthy Lives (HBHL) initiative; and Parkinson Canada, and the Intramural Research Program of the NIH, National Institute on Aging.

Dr. Noyce reports grants from the Barts Charity, Parkinson’s UK, Aligning Science Across Parkinson’s and Michael J. Fox Foundation, and the Virginia Keiley Benefaction; and personal fees/honoraria from Britannia, BIAL, AbbVie, Global Kinetics Corporation, Profile, Biogen, Roche, and UCB outside of the submitted work.

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

New analyses of both observational and genetic data have provided “convincing evidence” that type 2 diabetes is associated with an increased risk for Parkinson’s disease.

“The fact that we see the same effects in both types of analysis separately makes it more likely that these results are real – that type 2 diabetes really is a driver of Parkinson’s disease risk,” Alastair Noyce, PhD, senior author of the new studies, said in an interview.

The two analyses are reported in one paper published online March 8 in the journal Movement Disorders.

Dr. Noyce, clinical senior lecturer in the preventive neurology unit at the Wolfson Institute of Preventive Medicine, Queen Mary University of London, explained that his group is interested in risk factors for Parkinson’s disease, particularly those relevant at the population level and which might be modifiable.

“Several studies have looked at diabetes as a risk factor for Parkinson’s but very few have focused on type 2 diabetes, and, as this is such a growing health issue, we wanted to look at that in more detail,” he said.

The researchers performed two different analyses: a meta-analysis of observational studies investigating an association between type 2 diabetes and Parkinson’s; and a separate Mendelian randomization analysis of genetic data on the two conditions.

They found similar results in both studies, with the observational data suggesting type 2 diabetes was associated with a 21% increased risk for Parkinson’s disease and the genetic data suggesting an 8% increased risk. There were also hints that type 2 diabetes might also be associated with faster progression of Parkinson’s symptoms.

“I don’t think type 2 diabetes is a major cause of Parkinson’s, but it probably makes some contribution and may increase the risk of a more aggressive form of the condition,” Dr. Noyce said.

“I would say the increased risk of Parkinson’s disease attributable to type 2 diabetes may be similar to that of head injury or pesticide exposure, but it is important, as type 2 diabetes is very prevalent and is increasing,” he added.  “As we see the growth in type 2 diabetes, this could lead to a later increase in Parkinson’s, which is already one of the fastest-growing diseases worldwide.”

For the meta-analysis of observational data, the researchers included nine studies that investigated preceding type 2 diabetes specifically and its effect on the risk for Parkinson’s disease and progression.

The pooled effect estimates showed that type 2 diabetes was associated with an increased risk for Parkinson’s disease (odds ratio, 1.21; 95% confidence interval, 1.07-1.36), and there was some evidence that type 2 diabetes was associated with faster progression of motor symptoms (standardized mean difference [SMD], 0.55) and cognitive decline (SMD, −0.92).

The observational meta-analysis included seven cohort studies and two case-control studies, and these different types of studies showed different results in regard to the association between diabetes and Parkinson’s. While the cohort studies showed a detrimental effect of diabetes on Parkinson’s risk (OR, 1.29), the case-control studies suggested protective effect (OR, 0.51). 

Addressing this, Dr. Noyce noted that the case-control studies may be less reliable as they suffered more from survivor bias. “Diabetes may cause deaths in mid-life before people go on to develop Parkinson’s, and this would cause a protective effect to be seen, but we believe this to be a spurious result. Cohort studies are generally more reliable and are less susceptible to survivor bias,” he said.  

For the genetic analysis, the researchers combined results from two large publicly available genome-wide association studies – one for type 2 diabetes and one for Parkinson’s disease to assess whether individuals with a genetic tendency to type 2 diabetes had a higher risk of developing Parkinson’s.

Results showed an increased risk for Parkinson’s in those individuals with genetic variants associated with type 2 diabetes, with an odds ratio of 1.08 (P = .010). There was also some evidence of an effect on motor progression (OR, 1.10; P = .032) but not on cognitive progression.

On the possible mechanism behind this observation, Dr. Noyce noted type 2 diabetes and Parkinson’s have some similarities in biology, including abnormal protein aggregation.

In the study, the authors also suggest that circulating insulin may have a neuroprotective role, whereas systemic and local insulin resistance can influence pathways known to be important in Parkinson’s pathogenesis, including those that relate to mitochondrial dysfunction, neuroinflammation, synaptic plasticity, and mitochondrial dysfunction.

Dr. Noyce further pointed out that several drugs used for the treatment of type 2 diabetes have been repurposed as possible treatments for Parkinson’s disease and are now being tested for this new indication. “Our results support that approach and raise the idea that some of these drugs may even prevent Parkinson’s in people at risk,” he said.  

Most people who have type 2 diabetes won’t get Parkinson’s disease, he added. Other outcomes such as heart disease, kidney disease, and microvascular complications are far more likely, and the main aim of preventing and treating type 2 diabetes is to prevent these far more common outcomes. “But our data suggests that this could also have a possible benefit in reducing future Parkinson’s risk,” he said.  

Not on the horizon at present is the possibility of screening patients with type 2 diabetes for signs of early Parkinson’s, Dr. Noyce said.

“There isn’t a test for identifying presymptomatic neurodegenerative diseases such as Parkinson’s yet, but perhaps in the future there will be, and type 2 diabetes may be one risk factor to take into account when considering such screening,” he added.

This work was financially supported by grants from The Michael J. Fox Foundation; the Canadian Consortium on Neurodegeneration in Aging (CCNA); the Canada First Research Excellence Fund (CFREF), awarded to McGill University for the Healthy Brains for Healthy Lives (HBHL) initiative; and Parkinson Canada, and the Intramural Research Program of the NIH, National Institute on Aging.

Dr. Noyce reports grants from the Barts Charity, Parkinson’s UK, Aligning Science Across Parkinson’s and Michael J. Fox Foundation, and the Virginia Keiley Benefaction; and personal fees/honoraria from Britannia, BIAL, AbbVie, Global Kinetics Corporation, Profile, Biogen, Roche, and UCB outside of the submitted work.

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

New analyses of both observational and genetic data have provided “convincing evidence” that type 2 diabetes is associated with an increased risk for Parkinson’s disease.

“The fact that we see the same effects in both types of analysis separately makes it more likely that these results are real – that type 2 diabetes really is a driver of Parkinson’s disease risk,” Alastair Noyce, PhD, senior author of the new studies, said in an interview.

The two analyses are reported in one paper published online March 8 in the journal Movement Disorders.

Dr. Noyce, clinical senior lecturer in the preventive neurology unit at the Wolfson Institute of Preventive Medicine, Queen Mary University of London, explained that his group is interested in risk factors for Parkinson’s disease, particularly those relevant at the population level and which might be modifiable.

“Several studies have looked at diabetes as a risk factor for Parkinson’s but very few have focused on type 2 diabetes, and, as this is such a growing health issue, we wanted to look at that in more detail,” he said.

The researchers performed two different analyses: a meta-analysis of observational studies investigating an association between type 2 diabetes and Parkinson’s; and a separate Mendelian randomization analysis of genetic data on the two conditions.

They found similar results in both studies, with the observational data suggesting type 2 diabetes was associated with a 21% increased risk for Parkinson’s disease and the genetic data suggesting an 8% increased risk. There were also hints that type 2 diabetes might also be associated with faster progression of Parkinson’s symptoms.

“I don’t think type 2 diabetes is a major cause of Parkinson’s, but it probably makes some contribution and may increase the risk of a more aggressive form of the condition,” Dr. Noyce said.

“I would say the increased risk of Parkinson’s disease attributable to type 2 diabetes may be similar to that of head injury or pesticide exposure, but it is important, as type 2 diabetes is very prevalent and is increasing,” he added.  “As we see the growth in type 2 diabetes, this could lead to a later increase in Parkinson’s, which is already one of the fastest-growing diseases worldwide.”

For the meta-analysis of observational data, the researchers included nine studies that investigated preceding type 2 diabetes specifically and its effect on the risk for Parkinson’s disease and progression.

The pooled effect estimates showed that type 2 diabetes was associated with an increased risk for Parkinson’s disease (odds ratio, 1.21; 95% confidence interval, 1.07-1.36), and there was some evidence that type 2 diabetes was associated with faster progression of motor symptoms (standardized mean difference [SMD], 0.55) and cognitive decline (SMD, −0.92).

The observational meta-analysis included seven cohort studies and two case-control studies, and these different types of studies showed different results in regard to the association between diabetes and Parkinson’s. While the cohort studies showed a detrimental effect of diabetes on Parkinson’s risk (OR, 1.29), the case-control studies suggested protective effect (OR, 0.51). 

Addressing this, Dr. Noyce noted that the case-control studies may be less reliable as they suffered more from survivor bias. “Diabetes may cause deaths in mid-life before people go on to develop Parkinson’s, and this would cause a protective effect to be seen, but we believe this to be a spurious result. Cohort studies are generally more reliable and are less susceptible to survivor bias,” he said.  

For the genetic analysis, the researchers combined results from two large publicly available genome-wide association studies – one for type 2 diabetes and one for Parkinson’s disease to assess whether individuals with a genetic tendency to type 2 diabetes had a higher risk of developing Parkinson’s.

Results showed an increased risk for Parkinson’s in those individuals with genetic variants associated with type 2 diabetes, with an odds ratio of 1.08 (P = .010). There was also some evidence of an effect on motor progression (OR, 1.10; P = .032) but not on cognitive progression.

On the possible mechanism behind this observation, Dr. Noyce noted type 2 diabetes and Parkinson’s have some similarities in biology, including abnormal protein aggregation.

In the study, the authors also suggest that circulating insulin may have a neuroprotective role, whereas systemic and local insulin resistance can influence pathways known to be important in Parkinson’s pathogenesis, including those that relate to mitochondrial dysfunction, neuroinflammation, synaptic plasticity, and mitochondrial dysfunction.

Dr. Noyce further pointed out that several drugs used for the treatment of type 2 diabetes have been repurposed as possible treatments for Parkinson’s disease and are now being tested for this new indication. “Our results support that approach and raise the idea that some of these drugs may even prevent Parkinson’s in people at risk,” he said.  

Most people who have type 2 diabetes won’t get Parkinson’s disease, he added. Other outcomes such as heart disease, kidney disease, and microvascular complications are far more likely, and the main aim of preventing and treating type 2 diabetes is to prevent these far more common outcomes. “But our data suggests that this could also have a possible benefit in reducing future Parkinson’s risk,” he said.  

Not on the horizon at present is the possibility of screening patients with type 2 diabetes for signs of early Parkinson’s, Dr. Noyce said.

“There isn’t a test for identifying presymptomatic neurodegenerative diseases such as Parkinson’s yet, but perhaps in the future there will be, and type 2 diabetes may be one risk factor to take into account when considering such screening,” he added.

This work was financially supported by grants from The Michael J. Fox Foundation; the Canadian Consortium on Neurodegeneration in Aging (CCNA); the Canada First Research Excellence Fund (CFREF), awarded to McGill University for the Healthy Brains for Healthy Lives (HBHL) initiative; and Parkinson Canada, and the Intramural Research Program of the NIH, National Institute on Aging.

Dr. Noyce reports grants from the Barts Charity, Parkinson’s UK, Aligning Science Across Parkinson’s and Michael J. Fox Foundation, and the Virginia Keiley Benefaction; and personal fees/honoraria from Britannia, BIAL, AbbVie, Global Kinetics Corporation, Profile, Biogen, Roche, and UCB outside of the submitted work.

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

Medicare payments for branded neurologic drugs jumped 50% over a 5-year period, while claims for these medications increased by just 8%, new research shows. Results of the retrospective study also showed that most of the increased costs for these agents were due to rising costs for neuroimmunology drugs, mainly for those used to treat multiple sclerosis (MS).

“The same brand name medication in 2017 cost approximately 50% more than in 2013,” said Adam de Havenon, MD, assistant professor of neurology, University of Utah, Salt Lake City.

“An analogy would be if you bought an iPhone 5 in 2013 for $500, and then in 2017, you were asked to pay $750 for the exact same iPhone 5,” Dr. de Havenon added.

The study findings were published online March 10 in the journal Neurology.
 

$26 billion in payments

Both neurologists and patients are concerned about the high cost of prescription drugs for neurologic diseases, and Medicare Part D data indicate that these drugs are the most expensive component of neurologic care, the researchers noted. In addition, out-of-pocket costs have increased significantly for patients with neurologic disease such as Parkinson’s disease, epilepsy, and MS.

To understand trends in payments for neurologic drugs, Dr. de Havenon and colleagues analyzed Medicare Part D claims filed from 2013 to 2017. The payments include costs paid by Medicare, the patient, government subsidies, and other third-party payers.

In addition to examining more current Medicare Part D data than previous studies, the current analysis examined all medications prescribed by neurologists that consistently remained branded or generic during the 5-year study period, said Dr. de Havenon. This approach resulted in a large number of claims and a large total cost.

To calculate the percentage change in annual payment claims, the researchers used 2013 prices as a reference point. They identified drugs named in 2013 claims and classified them as generic, brand-name only, or brand-name with generic equivalent. Researchers also divided the drugs by neurologic subspecialty.

The analysis included 520 drugs, all of which were available in each year of the study period. Of these drugs, 322 were generic, 61 were brand-name only, and 137 were brand-name with a generic equivalent. There were 90.7 million total claims.

Results showed total payments amounted to $26.65 billion. Yearly total payments increased from $4.05 billion in 2013 to $6.09 billion in 2017, representing a 50.4% increase, even after adjusting for inflation. Total claims increased by 7.6% – from 17.1 million in 2013 to 18.4 million in 2017.

From 2013 to 2017, claim payments increased by 0.6% for generic drugs, 42.4% for brand-name only drugs, and 45% for brand-name drugs with generic equivalents. The proportion of claims increased from 81.9% to 88% for generic drugs and from 4.9% to 6.2% for brand-name only drugs.

However, the proportion of claims for brand-name drugs with generic equivalents decreased from 13.3% to 5.8%.
 

Treatment barrier

Neuroimmunologic drugs, most of which were prescribed for MS, had exceptional cost, the researchers noted. These drugs accounted for more than 50% of payments but only 4.3% of claims. Claim payment for these drugs increased by 46.9% during the study period, from $3,337 to $4,902.

When neuroimmunologic drugs were removed from the analysis there was still significant increase in claim payments for brand-name only drugs (50.4%) and brand-name drugs with generic equivalents (45.6%).

Although neuroimmunologic medicines, including monoclonal antibodies, are more expensive to produce, this factor alone does not explain their exceptional cost, said Dr. de Havenon. “The high cost of brand-name drugs in this speciality is likely because the market bears it,” he added. “In other words, MS is a disabling disease and the medications work, so historically the Centers for Medicare & Medicaid Services have been willing to tolerate the high cost of these primarily brand-name medications.”

Several countries have controlled drug costs by negotiating with pharmaceutical companies and through legislation, Dr. de Havenon noted.

“My intent with this article was to raise awareness on the topic, which I struggle with frequently as a clinician. I know I want my patients to have a medication, but the cost prevents it,” he said.
 

‘Unfettered’ price-setting

Commenting on the findings, Robert J. Fox, MD, vice chair for research at the Neurological Institute of the Cleveland Clinic, said the study “brings into clear light” what neurologists, particularly those who treat MS, have long suspected but did not really know. These neurologists “are typically distanced from the payment aspects of the medications they prescribe,” said Dr. Fox, who was not involved with the research.

Although a particular strength of the study was its comprehensiveness, the researchers excluded infusion claims – which account for a large portion of total patient care costs for many disorders, he noted.

Drugs for MS historically have been expensive, ostensibly because of their high cost of development. In addition, the large and continued price increase that occurs long after these drugs have been approved remains unexplained, said Dr. Fox.

He noted that the study findings might not directly affect clinical practice because neurologists will continue prescribing medications they think are best for their patients. “Instead, I think this is a lesson to lawmakers about the massive error in the Medicare Modernization Act of 2003, where the federal government was prohibited from negotiating drug prices. If the seller is unfettered in setting a price, then no one should be surprised when the price rises,” Dr. Fox said.

Because many new drugs and new generic formulations for treating MS have become available during the past year, “repeating these types of economic studies for the period 2020-2025 will help us understand if generic competition – as well as new laws if they are passed – alter price,” he concluded.

The study was funded by the American Academy of Neurology, which publishes Neurology. Dr. de Havenon has received clinical research funding from AMAG Pharmaceuticals and Regeneron Pharmaceuticals. Dr. Fox receives consulting fees from many pharmaceutical companies involved in the development of therapies for MS.

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

Medicare payments for branded neurologic drugs jumped 50% over a 5-year period, while claims for these medications increased by just 8%, new research shows. Results of the retrospective study also showed that most of the increased costs for these agents were due to rising costs for neuroimmunology drugs, mainly for those used to treat multiple sclerosis (MS).

“The same brand name medication in 2017 cost approximately 50% more than in 2013,” said Adam de Havenon, MD, assistant professor of neurology, University of Utah, Salt Lake City.

“An analogy would be if you bought an iPhone 5 in 2013 for $500, and then in 2017, you were asked to pay $750 for the exact same iPhone 5,” Dr. de Havenon added.

The study findings were published online March 10 in the journal Neurology.
 

$26 billion in payments

Both neurologists and patients are concerned about the high cost of prescription drugs for neurologic diseases, and Medicare Part D data indicate that these drugs are the most expensive component of neurologic care, the researchers noted. In addition, out-of-pocket costs have increased significantly for patients with neurologic disease such as Parkinson’s disease, epilepsy, and MS.

To understand trends in payments for neurologic drugs, Dr. de Havenon and colleagues analyzed Medicare Part D claims filed from 2013 to 2017. The payments include costs paid by Medicare, the patient, government subsidies, and other third-party payers.

In addition to examining more current Medicare Part D data than previous studies, the current analysis examined all medications prescribed by neurologists that consistently remained branded or generic during the 5-year study period, said Dr. de Havenon. This approach resulted in a large number of claims and a large total cost.

To calculate the percentage change in annual payment claims, the researchers used 2013 prices as a reference point. They identified drugs named in 2013 claims and classified them as generic, brand-name only, or brand-name with generic equivalent. Researchers also divided the drugs by neurologic subspecialty.

The analysis included 520 drugs, all of which were available in each year of the study period. Of these drugs, 322 were generic, 61 were brand-name only, and 137 were brand-name with a generic equivalent. There were 90.7 million total claims.

Results showed total payments amounted to $26.65 billion. Yearly total payments increased from $4.05 billion in 2013 to $6.09 billion in 2017, representing a 50.4% increase, even after adjusting for inflation. Total claims increased by 7.6% – from 17.1 million in 2013 to 18.4 million in 2017.

From 2013 to 2017, claim payments increased by 0.6% for generic drugs, 42.4% for brand-name only drugs, and 45% for brand-name drugs with generic equivalents. The proportion of claims increased from 81.9% to 88% for generic drugs and from 4.9% to 6.2% for brand-name only drugs.

However, the proportion of claims for brand-name drugs with generic equivalents decreased from 13.3% to 5.8%.
 

Treatment barrier

Neuroimmunologic drugs, most of which were prescribed for MS, had exceptional cost, the researchers noted. These drugs accounted for more than 50% of payments but only 4.3% of claims. Claim payment for these drugs increased by 46.9% during the study period, from $3,337 to $4,902.

When neuroimmunologic drugs were removed from the analysis there was still significant increase in claim payments for brand-name only drugs (50.4%) and brand-name drugs with generic equivalents (45.6%).

Although neuroimmunologic medicines, including monoclonal antibodies, are more expensive to produce, this factor alone does not explain their exceptional cost, said Dr. de Havenon. “The high cost of brand-name drugs in this speciality is likely because the market bears it,” he added. “In other words, MS is a disabling disease and the medications work, so historically the Centers for Medicare & Medicaid Services have been willing to tolerate the high cost of these primarily brand-name medications.”

Several countries have controlled drug costs by negotiating with pharmaceutical companies and through legislation, Dr. de Havenon noted.

“My intent with this article was to raise awareness on the topic, which I struggle with frequently as a clinician. I know I want my patients to have a medication, but the cost prevents it,” he said.
 

‘Unfettered’ price-setting

Commenting on the findings, Robert J. Fox, MD, vice chair for research at the Neurological Institute of the Cleveland Clinic, said the study “brings into clear light” what neurologists, particularly those who treat MS, have long suspected but did not really know. These neurologists “are typically distanced from the payment aspects of the medications they prescribe,” said Dr. Fox, who was not involved with the research.

Although a particular strength of the study was its comprehensiveness, the researchers excluded infusion claims – which account for a large portion of total patient care costs for many disorders, he noted.

Drugs for MS historically have been expensive, ostensibly because of their high cost of development. In addition, the large and continued price increase that occurs long after these drugs have been approved remains unexplained, said Dr. Fox.

He noted that the study findings might not directly affect clinical practice because neurologists will continue prescribing medications they think are best for their patients. “Instead, I think this is a lesson to lawmakers about the massive error in the Medicare Modernization Act of 2003, where the federal government was prohibited from negotiating drug prices. If the seller is unfettered in setting a price, then no one should be surprised when the price rises,” Dr. Fox said.

Because many new drugs and new generic formulations for treating MS have become available during the past year, “repeating these types of economic studies for the period 2020-2025 will help us understand if generic competition – as well as new laws if they are passed – alter price,” he concluded.

The study was funded by the American Academy of Neurology, which publishes Neurology. Dr. de Havenon has received clinical research funding from AMAG Pharmaceuticals and Regeneron Pharmaceuticals. Dr. Fox receives consulting fees from many pharmaceutical companies involved in the development of therapies for MS.

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

Medicare payments for branded neurologic drugs jumped 50% over a 5-year period, while claims for these medications increased by just 8%, new research shows. Results of the retrospective study also showed that most of the increased costs for these agents were due to rising costs for neuroimmunology drugs, mainly for those used to treat multiple sclerosis (MS).

“The same brand name medication in 2017 cost approximately 50% more than in 2013,” said Adam de Havenon, MD, assistant professor of neurology, University of Utah, Salt Lake City.

“An analogy would be if you bought an iPhone 5 in 2013 for $500, and then in 2017, you were asked to pay $750 for the exact same iPhone 5,” Dr. de Havenon added.

The study findings were published online March 10 in the journal Neurology.
 

$26 billion in payments

Both neurologists and patients are concerned about the high cost of prescription drugs for neurologic diseases, and Medicare Part D data indicate that these drugs are the most expensive component of neurologic care, the researchers noted. In addition, out-of-pocket costs have increased significantly for patients with neurologic disease such as Parkinson’s disease, epilepsy, and MS.

To understand trends in payments for neurologic drugs, Dr. de Havenon and colleagues analyzed Medicare Part D claims filed from 2013 to 2017. The payments include costs paid by Medicare, the patient, government subsidies, and other third-party payers.

In addition to examining more current Medicare Part D data than previous studies, the current analysis examined all medications prescribed by neurologists that consistently remained branded or generic during the 5-year study period, said Dr. de Havenon. This approach resulted in a large number of claims and a large total cost.

To calculate the percentage change in annual payment claims, the researchers used 2013 prices as a reference point. They identified drugs named in 2013 claims and classified them as generic, brand-name only, or brand-name with generic equivalent. Researchers also divided the drugs by neurologic subspecialty.

The analysis included 520 drugs, all of which were available in each year of the study period. Of these drugs, 322 were generic, 61 were brand-name only, and 137 were brand-name with a generic equivalent. There were 90.7 million total claims.

Results showed total payments amounted to $26.65 billion. Yearly total payments increased from $4.05 billion in 2013 to $6.09 billion in 2017, representing a 50.4% increase, even after adjusting for inflation. Total claims increased by 7.6% – from 17.1 million in 2013 to 18.4 million in 2017.

From 2013 to 2017, claim payments increased by 0.6% for generic drugs, 42.4% for brand-name only drugs, and 45% for brand-name drugs with generic equivalents. The proportion of claims increased from 81.9% to 88% for generic drugs and from 4.9% to 6.2% for brand-name only drugs.

However, the proportion of claims for brand-name drugs with generic equivalents decreased from 13.3% to 5.8%.
 

Treatment barrier

Neuroimmunologic drugs, most of which were prescribed for MS, had exceptional cost, the researchers noted. These drugs accounted for more than 50% of payments but only 4.3% of claims. Claim payment for these drugs increased by 46.9% during the study period, from $3,337 to $4,902.

When neuroimmunologic drugs were removed from the analysis there was still significant increase in claim payments for brand-name only drugs (50.4%) and brand-name drugs with generic equivalents (45.6%).

Although neuroimmunologic medicines, including monoclonal antibodies, are more expensive to produce, this factor alone does not explain their exceptional cost, said Dr. de Havenon. “The high cost of brand-name drugs in this speciality is likely because the market bears it,” he added. “In other words, MS is a disabling disease and the medications work, so historically the Centers for Medicare & Medicaid Services have been willing to tolerate the high cost of these primarily brand-name medications.”

Several countries have controlled drug costs by negotiating with pharmaceutical companies and through legislation, Dr. de Havenon noted.

“My intent with this article was to raise awareness on the topic, which I struggle with frequently as a clinician. I know I want my patients to have a medication, but the cost prevents it,” he said.
 

‘Unfettered’ price-setting

Commenting on the findings, Robert J. Fox, MD, vice chair for research at the Neurological Institute of the Cleveland Clinic, said the study “brings into clear light” what neurologists, particularly those who treat MS, have long suspected but did not really know. These neurologists “are typically distanced from the payment aspects of the medications they prescribe,” said Dr. Fox, who was not involved with the research.

Although a particular strength of the study was its comprehensiveness, the researchers excluded infusion claims – which account for a large portion of total patient care costs for many disorders, he noted.

Drugs for MS historically have been expensive, ostensibly because of their high cost of development. In addition, the large and continued price increase that occurs long after these drugs have been approved remains unexplained, said Dr. Fox.

He noted that the study findings might not directly affect clinical practice because neurologists will continue prescribing medications they think are best for their patients. “Instead, I think this is a lesson to lawmakers about the massive error in the Medicare Modernization Act of 2003, where the federal government was prohibited from negotiating drug prices. If the seller is unfettered in setting a price, then no one should be surprised when the price rises,” Dr. Fox said.

Because many new drugs and new generic formulations for treating MS have become available during the past year, “repeating these types of economic studies for the period 2020-2025 will help us understand if generic competition – as well as new laws if they are passed – alter price,” he concluded.

The study was funded by the American Academy of Neurology, which publishes Neurology. Dr. de Havenon has received clinical research funding from AMAG Pharmaceuticals and Regeneron Pharmaceuticals. Dr. Fox receives consulting fees from many pharmaceutical companies involved in the development of therapies for MS.

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