Federal Practitioner

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.

The Centers for Disease Control and Prevention has added several new medical conditions to its list of those that predispose adults to more severe COVID-19 illness.

Conditions that had previously been categorized as “might be” placing individuals at increased risk – but now are listed as high risk – include type 1 diabetes (in addition to type 2), moderate-to-severe asthma, liver disease, dementia or other neurologic conditions, stroke/cerebrovascular disease, HIV infection, cystic fibrosis, and overweight (in addition to obesity).

Substance use disorders, which hadn’t been previously listed, are now also considered high risk.  

The new list groups together certain categories, such as chronic lung diseases (chronic obstructive pulmonary disease, asthma, cystic fibrosis, etc) and heart conditions (heart failure, coronary artery disease, hypertension, etc).

Both diabetes types are now grouped under “diabetes.”  

The added medical conditions were posted on the CDC website’s COVID-19 page on March 29.
 

Type 1 diabetes and other conditions now priority for vaccination

The CDC refers to the medical conditions list as phase 1c in regard to COVID-19 vaccine prioritization, which means that anyone with any of these conditions can now be prioritized for vaccination, following those in groups 1a (frontline essential workers and those in long-term care facilities) and 1b (people aged 65-74 years; other essential workers; and people aged 16-64 years with underlying conditions that increase the risk of serious, life-threatening complications from COVID-19).

But in many cases, multiple states have already either fully opened up vaccine eligibility to all adults or have created their own lists of underlying high-risk medical conditions, CDC spokeswoman Kristen Nordlund told this news organization.  

No conditions have been removed from the list.

In January, the American Diabetes Association and 18 other organizations sent a letter to the CDC requesting that type 1 diabetes be prioritized along with type 2, based on data from studies showing people with both types to be at high risk for severe COVID-19 illness.

Now, ADA says, “this updated guidance will help to address the fact that in many states, millions of people with type 1 diabetes have not been prioritized equally, slowing their access to critical vaccines.”

While awaiting this latest CDC move, ADA had been urging state governors to prioritize type 1 and type 2 diabetes equally. As of now, 38 states and the District of Columbia had either done so or announced that they would.

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

The Centers for Disease Control and Prevention has added several new medical conditions to its list of those that predispose adults to more severe COVID-19 illness.

Conditions that had previously been categorized as “might be” placing individuals at increased risk – but now are listed as high risk – include type 1 diabetes (in addition to type 2), moderate-to-severe asthma, liver disease, dementia or other neurologic conditions, stroke/cerebrovascular disease, HIV infection, cystic fibrosis, and overweight (in addition to obesity).

Substance use disorders, which hadn’t been previously listed, are now also considered high risk.  

The new list groups together certain categories, such as chronic lung diseases (chronic obstructive pulmonary disease, asthma, cystic fibrosis, etc) and heart conditions (heart failure, coronary artery disease, hypertension, etc).

Both diabetes types are now grouped under “diabetes.”  

The added medical conditions were posted on the CDC website’s COVID-19 page on March 29.
 

Type 1 diabetes and other conditions now priority for vaccination

The CDC refers to the medical conditions list as phase 1c in regard to COVID-19 vaccine prioritization, which means that anyone with any of these conditions can now be prioritized for vaccination, following those in groups 1a (frontline essential workers and those in long-term care facilities) and 1b (people aged 65-74 years; other essential workers; and people aged 16-64 years with underlying conditions that increase the risk of serious, life-threatening complications from COVID-19).

But in many cases, multiple states have already either fully opened up vaccine eligibility to all adults or have created their own lists of underlying high-risk medical conditions, CDC spokeswoman Kristen Nordlund told this news organization.  

No conditions have been removed from the list.

In January, the American Diabetes Association and 18 other organizations sent a letter to the CDC requesting that type 1 diabetes be prioritized along with type 2, based on data from studies showing people with both types to be at high risk for severe COVID-19 illness.

Now, ADA says, “this updated guidance will help to address the fact that in many states, millions of people with type 1 diabetes have not been prioritized equally, slowing their access to critical vaccines.”

While awaiting this latest CDC move, ADA had been urging state governors to prioritize type 1 and type 2 diabetes equally. As of now, 38 states and the District of Columbia had either done so or announced that they would.

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

The Centers for Disease Control and Prevention has added several new medical conditions to its list of those that predispose adults to more severe COVID-19 illness.

Conditions that had previously been categorized as “might be” placing individuals at increased risk – but now are listed as high risk – include type 1 diabetes (in addition to type 2), moderate-to-severe asthma, liver disease, dementia or other neurologic conditions, stroke/cerebrovascular disease, HIV infection, cystic fibrosis, and overweight (in addition to obesity).

Substance use disorders, which hadn’t been previously listed, are now also considered high risk.  

The new list groups together certain categories, such as chronic lung diseases (chronic obstructive pulmonary disease, asthma, cystic fibrosis, etc) and heart conditions (heart failure, coronary artery disease, hypertension, etc).

Both diabetes types are now grouped under “diabetes.”  

The added medical conditions were posted on the CDC website’s COVID-19 page on March 29.
 

Type 1 diabetes and other conditions now priority for vaccination

The CDC refers to the medical conditions list as phase 1c in regard to COVID-19 vaccine prioritization, which means that anyone with any of these conditions can now be prioritized for vaccination, following those in groups 1a (frontline essential workers and those in long-term care facilities) and 1b (people aged 65-74 years; other essential workers; and people aged 16-64 years with underlying conditions that increase the risk of serious, life-threatening complications from COVID-19).

But in many cases, multiple states have already either fully opened up vaccine eligibility to all adults or have created their own lists of underlying high-risk medical conditions, CDC spokeswoman Kristen Nordlund told this news organization.  

No conditions have been removed from the list.

In January, the American Diabetes Association and 18 other organizations sent a letter to the CDC requesting that type 1 diabetes be prioritized along with type 2, based on data from studies showing people with both types to be at high risk for severe COVID-19 illness.

Now, ADA says, “this updated guidance will help to address the fact that in many states, millions of people with type 1 diabetes have not been prioritized equally, slowing their access to critical vaccines.”

While awaiting this latest CDC move, ADA had been urging state governors to prioritize type 1 and type 2 diabetes equally. As of now, 38 states and the District of Columbia had either done so or announced that they would.

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

Black patients entering hospitals in the United States face significantly higher risk in several measures of patient safety compared with their White counterparts, a new report finds. One expert says these findings should be a call to action for hospitals and physicians.

The Urban Institute, which is funded in part by the Robert Wood Johnson Foundation, looked at differences in Black and White patient safety measures among adults receiving inpatient care in 26 states.

Care quality was measured by the rate of preventable adverse hospital patient safety events per 1,000 at-risk discharges using data from the Agency for Healthcare Research and Quality (AHRQ).

Researchers compared experience by race on 11 patient safety indicators – four related to general patient safety, and seven linked to risk of adverse events with surgical procedures.

Surgical risk differences significant

The gaps were widest surrounding surgical care. Black patients were 7.9 percentage points more likely to be in a hospital considered low quality across all surgical safety measures. They were 4.9 percentage points more likely to be admitted to a hospital considered low quality across all general safety indicators.

“If you’re a Black patient getting surgery – relative to a White patient – in my study, you were 25% less likely to be in a hospital that prevented hemorrhage during surgery; you were 26% less likely to be in a hospital that prevented postoperative respiratory failure; and you were more than 30% less likely to be in a hospital that is effective in preventing postoperative sepsis,” Anuj Gangopadhyaya, PhD, senior research associate at the Urban Institute, said in an interview.

According to the report, Black patients were also 31.9% less likely than were White patients to be admitted into hospitals considered high quality in preventing pressure ulcers and 22.8% less likely to be in a hospital good at preventing iatrogenic pneumothorax.

Dr. Gangopadhyaya said this may be the first study to compare the numbers after the inception of the Affordable Care Act. These data were collected in 2017, 3 years after the core elements of the ACA kicked in.

He said that although the ACA has done much to narrow the racial gap in terms of insurance coverage, it has not been effective in reducing the heightened safety risk to Black patients in the hospital.

‘Shocking, though not surprising’

Uché Blackstock, MD, founder and CEO of Advancing Health Equity in New York City, called the findings “shocking, though not surprising.”

Though these data were collected before COVID-19, the pandemic has exposed profound racial inequities, she noted.

She cited the example of Susan Moore, MD, a Black physician in Carmel, Ind., who died from COVID-19 at age 52 in December after experiencing what she said was systemic racism in her care.

“We saw in the death of Dr. Susan Moore that even having a formal education and being a physician is not protective for Black patients. These findings only reaffirm what we already know – that Black patients receive worse and lower-quality care than White patients,” Dr. Blackstock said in an interview.

“These findings are not a result of Black patients’ individual choices as is often suggested, but rather the results of a health care system that has devalued the lives of Black patients and inherently provides poorer quality of care to them.”

Dr. Blackstock said this report represents a call to action.

Health care institutions must, she said, “look inward at the intentional and critical antiracism work that must be done on provider, organizational, and systems levels by allocating the necessary resources, continuing to track disaggregated health metrics, and committing to structural change within health care systems.”

Resources instead of penalties?

Dr. Gangopadhyaya said the second phase of the research will compare safety outcomes between Black and White patients in the same hospital. Those results will shed more light on what’s driving the differences in risk on safety measures.

He acknowledged that, particularly in an emergency, there is little choice involved with which hospital a patient enters. Patients typically go to a hospital in their neighborhood. And it’s well established that ZIP codes can determine health care outcomes.

But he suspects the differences cannot be explained simply by socioeconomic factors.

He pointed out that previous research has found disparities among Black and White patients in the same neighborhoods.

In one part of this study, researchers narrowed the comparison to Black and White adults with Medicare coverage, with similar provider networks and reimbursement structure, to test whether insurance was playing a significant role.

“Even among that group, you still see the persistent differences in the safety risks driven by the hospitals patients are admitted to,” Dr. Gangopadhyaya said.

He suggests two policy approaches to address the gaps: Either find ways for high-quality hospitals to reach more people of color, or find out what’s keeping the low-quality hospitals from implementing the practices that are effective in high-quality hospitals.

Currently, the ACA has penalties in place when hospitals score low for specific safety risks, he noted, saying that approach doesn’t appear to be working.

“Perhaps instead of penalizing hospitals, we might want to consider providing resources to hospitals that help them better adopt the successful protocols in their high-quality counterparts,” he said.

Dr. Gangopadhyaya has disclosed no relevant financial relationships. Dr. Blackstock has disclosed no relevant financial relationships.

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

This article was updated 4/2/21.

Black patients entering hospitals in the United States face significantly higher risk in several measures of patient safety compared with their White counterparts, a new report finds. One expert says these findings should be a call to action for hospitals and physicians.

The Urban Institute, which is funded in part by the Robert Wood Johnson Foundation, looked at differences in Black and White patient safety measures among adults receiving inpatient care in 26 states.

Care quality was measured by the rate of preventable adverse hospital patient safety events per 1,000 at-risk discharges using data from the Agency for Healthcare Research and Quality (AHRQ).

Researchers compared experience by race on 11 patient safety indicators – four related to general patient safety, and seven linked to risk of adverse events with surgical procedures.

Surgical risk differences significant

The gaps were widest surrounding surgical care. Black patients were 7.9 percentage points more likely to be in a hospital considered low quality across all surgical safety measures. They were 4.9 percentage points more likely to be admitted to a hospital considered low quality across all general safety indicators.

“If you’re a Black patient getting surgery – relative to a White patient – in my study, you were 25% less likely to be in a hospital that prevented hemorrhage during surgery; you were 26% less likely to be in a hospital that prevented postoperative respiratory failure; and you were more than 30% less likely to be in a hospital that is effective in preventing postoperative sepsis,” Anuj Gangopadhyaya, PhD, senior research associate at the Urban Institute, said in an interview.

According to the report, Black patients were also 31.9% less likely than were White patients to be admitted into hospitals considered high quality in preventing pressure ulcers and 22.8% less likely to be in a hospital good at preventing iatrogenic pneumothorax.

Dr. Gangopadhyaya said this may be the first study to compare the numbers after the inception of the Affordable Care Act. These data were collected in 2017, 3 years after the core elements of the ACA kicked in.

He said that although the ACA has done much to narrow the racial gap in terms of insurance coverage, it has not been effective in reducing the heightened safety risk to Black patients in the hospital.

‘Shocking, though not surprising’

Uché Blackstock, MD, founder and CEO of Advancing Health Equity in New York City, called the findings “shocking, though not surprising.”

Though these data were collected before COVID-19, the pandemic has exposed profound racial inequities, she noted.

She cited the example of Susan Moore, MD, a Black physician in Carmel, Ind., who died from COVID-19 at age 52 in December after experiencing what she said was systemic racism in her care.

“We saw in the death of Dr. Susan Moore that even having a formal education and being a physician is not protective for Black patients. These findings only reaffirm what we already know – that Black patients receive worse and lower-quality care than White patients,” Dr. Blackstock said in an interview.

“These findings are not a result of Black patients’ individual choices as is often suggested, but rather the results of a health care system that has devalued the lives of Black patients and inherently provides poorer quality of care to them.”

Dr. Blackstock said this report represents a call to action.

Health care institutions must, she said, “look inward at the intentional and critical antiracism work that must be done on provider, organizational, and systems levels by allocating the necessary resources, continuing to track disaggregated health metrics, and committing to structural change within health care systems.”

Resources instead of penalties?

Dr. Gangopadhyaya said the second phase of the research will compare safety outcomes between Black and White patients in the same hospital. Those results will shed more light on what’s driving the differences in risk on safety measures.

He acknowledged that, particularly in an emergency, there is little choice involved with which hospital a patient enters. Patients typically go to a hospital in their neighborhood. And it’s well established that ZIP codes can determine health care outcomes.

But he suspects the differences cannot be explained simply by socioeconomic factors.

He pointed out that previous research has found disparities among Black and White patients in the same neighborhoods.

In one part of this study, researchers narrowed the comparison to Black and White adults with Medicare coverage, with similar provider networks and reimbursement structure, to test whether insurance was playing a significant role.

“Even among that group, you still see the persistent differences in the safety risks driven by the hospitals patients are admitted to,” Dr. Gangopadhyaya said.

He suggests two policy approaches to address the gaps: Either find ways for high-quality hospitals to reach more people of color, or find out what’s keeping the low-quality hospitals from implementing the practices that are effective in high-quality hospitals.

Currently, the ACA has penalties in place when hospitals score low for specific safety risks, he noted, saying that approach doesn’t appear to be working.

“Perhaps instead of penalizing hospitals, we might want to consider providing resources to hospitals that help them better adopt the successful protocols in their high-quality counterparts,” he said.

Dr. Gangopadhyaya has disclosed no relevant financial relationships. Dr. Blackstock has disclosed no relevant financial relationships.

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

This article was updated 4/2/21.

Black patients entering hospitals in the United States face significantly higher risk in several measures of patient safety compared with their White counterparts, a new report finds. One expert says these findings should be a call to action for hospitals and physicians.

The Urban Institute, which is funded in part by the Robert Wood Johnson Foundation, looked at differences in Black and White patient safety measures among adults receiving inpatient care in 26 states.

Care quality was measured by the rate of preventable adverse hospital patient safety events per 1,000 at-risk discharges using data from the Agency for Healthcare Research and Quality (AHRQ).

Researchers compared experience by race on 11 patient safety indicators – four related to general patient safety, and seven linked to risk of adverse events with surgical procedures.

Surgical risk differences significant

The gaps were widest surrounding surgical care. Black patients were 7.9 percentage points more likely to be in a hospital considered low quality across all surgical safety measures. They were 4.9 percentage points more likely to be admitted to a hospital considered low quality across all general safety indicators.

“If you’re a Black patient getting surgery – relative to a White patient – in my study, you were 25% less likely to be in a hospital that prevented hemorrhage during surgery; you were 26% less likely to be in a hospital that prevented postoperative respiratory failure; and you were more than 30% less likely to be in a hospital that is effective in preventing postoperative sepsis,” Anuj Gangopadhyaya, PhD, senior research associate at the Urban Institute, said in an interview.

According to the report, Black patients were also 31.9% less likely than were White patients to be admitted into hospitals considered high quality in preventing pressure ulcers and 22.8% less likely to be in a hospital good at preventing iatrogenic pneumothorax.

Dr. Gangopadhyaya said this may be the first study to compare the numbers after the inception of the Affordable Care Act. These data were collected in 2017, 3 years after the core elements of the ACA kicked in.

He said that although the ACA has done much to narrow the racial gap in terms of insurance coverage, it has not been effective in reducing the heightened safety risk to Black patients in the hospital.

‘Shocking, though not surprising’

Uché Blackstock, MD, founder and CEO of Advancing Health Equity in New York City, called the findings “shocking, though not surprising.”

Though these data were collected before COVID-19, the pandemic has exposed profound racial inequities, she noted.

She cited the example of Susan Moore, MD, a Black physician in Carmel, Ind., who died from COVID-19 at age 52 in December after experiencing what she said was systemic racism in her care.

“We saw in the death of Dr. Susan Moore that even having a formal education and being a physician is not protective for Black patients. These findings only reaffirm what we already know – that Black patients receive worse and lower-quality care than White patients,” Dr. Blackstock said in an interview.

“These findings are not a result of Black patients’ individual choices as is often suggested, but rather the results of a health care system that has devalued the lives of Black patients and inherently provides poorer quality of care to them.”

Dr. Blackstock said this report represents a call to action.

Health care institutions must, she said, “look inward at the intentional and critical antiracism work that must be done on provider, organizational, and systems levels by allocating the necessary resources, continuing to track disaggregated health metrics, and committing to structural change within health care systems.”

Resources instead of penalties?

Dr. Gangopadhyaya said the second phase of the research will compare safety outcomes between Black and White patients in the same hospital. Those results will shed more light on what’s driving the differences in risk on safety measures.

He acknowledged that, particularly in an emergency, there is little choice involved with which hospital a patient enters. Patients typically go to a hospital in their neighborhood. And it’s well established that ZIP codes can determine health care outcomes.

But he suspects the differences cannot be explained simply by socioeconomic factors.

He pointed out that previous research has found disparities among Black and White patients in the same neighborhoods.

In one part of this study, researchers narrowed the comparison to Black and White adults with Medicare coverage, with similar provider networks and reimbursement structure, to test whether insurance was playing a significant role.

“Even among that group, you still see the persistent differences in the safety risks driven by the hospitals patients are admitted to,” Dr. Gangopadhyaya said.

He suggests two policy approaches to address the gaps: Either find ways for high-quality hospitals to reach more people of color, or find out what’s keeping the low-quality hospitals from implementing the practices that are effective in high-quality hospitals.

Currently, the ACA has penalties in place when hospitals score low for specific safety risks, he noted, saying that approach doesn’t appear to be working.

“Perhaps instead of penalizing hospitals, we might want to consider providing resources to hospitals that help them better adopt the successful protocols in their high-quality counterparts,” he said.

Dr. Gangopadhyaya has disclosed no relevant financial relationships. Dr. Blackstock has disclosed no relevant financial relationships.

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

This article was updated 4/2/21.

Hematology-oncology patients who receive treatment in the intensive care unit often develop delirium, and according to new findings, mechanical ventilation, high-dose corticosteroid use, and brain metastases were identified as independent risk factors.

Roughly half of all hematology-oncology patients who were admitted to the ICU experienced delirium, explained lead author Rachel Klosko, PharmD, PGY-2 cardiology pharmacy resident at the Ohio State University, Columbus.

“Delirium was associated with increased mortality, an increase in hospital length of stay, and increased length of stay in the ICU,” she said.

Dr. Klosko presented the study results at the at the Critical Care Congress sponsored by the Society of Critical Care Medicine (SCCM), which was held virtually this year.

Delirium is an acute and fluctuating disturbance of consciousness and cognition and fluctuates in severity. Critically ill patients are subject to numerous risk factors for delirium. “It can occur in independently of any known neurological disorder,” said Dr. Klosko, adding that its occurrence has been associated with poorer outcomes in ICU patients.

In this study, Dr. Klosko and colleagues sought to determine the incidence of delirium in cancer patients who were admitted to the ICU, as well as identify the associated risk factors and recognize potential consequences of the development of delirium in this patient population.

They conducted a single center, retrospective, cohort study that evaluated patients between the ages of 18 and 89 years who were admitted to the hematology-oncology medical or surgical ICU between July 1, 2018, and June 30, 2019.

The study’s primary endpoint was the incidence of delirium within 7 days of ICU admission, defined as two positive Confusion Assessment Method for the ICU (CAM-ICU) assessments within 24 hours. Patients identified with delirium were compared to those without it, for the evaluation of secondary endpoints that included hospital mortality and ICU and hospital length of stay. The researchers also sought to identify independent risk factors for delirium in this population.

A total of 244 patients were included in the final analysis. Of this group, 125 (51.2%) experienced delirium during their stay in the ICU, and 119 (48.8%) did not.

Mortality in the delirium group was significantly higher at 32.8% vs. 15.1% (P = .001). In addition, the delirium group was associated with significantly higher ICU length of stay (6 days vs. 3 days, P < .001) and hospital length of stay (21 days vs. 12 days, P < .001).

“When comparing the baseline characteristics between the two groups, the delirium group had a longer hospital length prior to ICU admission, a higher SOFA score, a higher rate of brain metastases, a higher rate of shock, and higher receipt of high-dose steroids, benzodiazepines, and immunotherapy,” said Dr. Klosko.

After multivariable regression, four variables were included in the final model. Among patients with delirium, the SOFA score increased by 25% (odds ratio[OR] 1.25, P < .001), while the odds of delirium were almost four times higher among those treated with high-dose corticosteroids (OR 3.79, P = .004). Delirium was also eight times higher (OR 8.48, P < .001) among those who received mechanical ventilation and five times higher in (OR 5.38, P = .015) in patients with brain metastases.

Dr. Klosko noted that the main limitations for this study were that it was a single center retrospective analysis, and that patients were reviewed within the first 7 days of ICU admission. “This potentially missed patients who developed delirium outside of this time frame,” she said. In addition, “too few patients received high-dose benzodiazepines,” and “none of the patients received continuous neuromuscular blockade.”

However, in “contrast to these limitations, this is the largest study to date that has analyzed delirium in this population,” Dr. Klosko said.

Commenting on the study, Brenda Pun, DNP, RN, director of data quality at the Vanderbilt Critical Illness, Brain Dysfunction, and Survivorship Center, Nashville, Tenn., pointed out that the goal of this study was to describe delirium in this specific population. “But I will take a step backward and say that they are just confirming that these patients look like other ICU patients in many regards,” she said.

She explained that the sicker patients are, the higher the rates of delirium. “We have implemented strategies to lower these rates, and they have improved,” Dr. Pun said. “Ten years ago, I would say that 80% of patients who were on a ventilator would have delirium but now the rates are around 50% and that’s what we are typically seeing now.”

Dr. Pun emphasized that this study shows that delirium is like the “canary in the coal mine” or a red flag. “It’s a sign that something is wrong and that we need to pay attention, because the patient’s outcome may be worse,” she said. “So this is saying that we need to see if there is something that can be changed or modified to decrease the incidence of delirium—these are important questions.”

There was no outside sponsor. The authors had no disclosures. Dr. Pun has no disclosures.

Hematology-oncology patients who receive treatment in the intensive care unit often develop delirium, and according to new findings, mechanical ventilation, high-dose corticosteroid use, and brain metastases were identified as independent risk factors.

Roughly half of all hematology-oncology patients who were admitted to the ICU experienced delirium, explained lead author Rachel Klosko, PharmD, PGY-2 cardiology pharmacy resident at the Ohio State University, Columbus.

“Delirium was associated with increased mortality, an increase in hospital length of stay, and increased length of stay in the ICU,” she said.

Dr. Klosko presented the study results at the at the Critical Care Congress sponsored by the Society of Critical Care Medicine (SCCM), which was held virtually this year.

Delirium is an acute and fluctuating disturbance of consciousness and cognition and fluctuates in severity. Critically ill patients are subject to numerous risk factors for delirium. “It can occur in independently of any known neurological disorder,” said Dr. Klosko, adding that its occurrence has been associated with poorer outcomes in ICU patients.

In this study, Dr. Klosko and colleagues sought to determine the incidence of delirium in cancer patients who were admitted to the ICU, as well as identify the associated risk factors and recognize potential consequences of the development of delirium in this patient population.

They conducted a single center, retrospective, cohort study that evaluated patients between the ages of 18 and 89 years who were admitted to the hematology-oncology medical or surgical ICU between July 1, 2018, and June 30, 2019.

The study’s primary endpoint was the incidence of delirium within 7 days of ICU admission, defined as two positive Confusion Assessment Method for the ICU (CAM-ICU) assessments within 24 hours. Patients identified with delirium were compared to those without it, for the evaluation of secondary endpoints that included hospital mortality and ICU and hospital length of stay. The researchers also sought to identify independent risk factors for delirium in this population.

A total of 244 patients were included in the final analysis. Of this group, 125 (51.2%) experienced delirium during their stay in the ICU, and 119 (48.8%) did not.

Mortality in the delirium group was significantly higher at 32.8% vs. 15.1% (P = .001). In addition, the delirium group was associated with significantly higher ICU length of stay (6 days vs. 3 days, P < .001) and hospital length of stay (21 days vs. 12 days, P < .001).

“When comparing the baseline characteristics between the two groups, the delirium group had a longer hospital length prior to ICU admission, a higher SOFA score, a higher rate of brain metastases, a higher rate of shock, and higher receipt of high-dose steroids, benzodiazepines, and immunotherapy,” said Dr. Klosko.

After multivariable regression, four variables were included in the final model. Among patients with delirium, the SOFA score increased by 25% (odds ratio[OR] 1.25, P < .001), while the odds of delirium were almost four times higher among those treated with high-dose corticosteroids (OR 3.79, P = .004). Delirium was also eight times higher (OR 8.48, P < .001) among those who received mechanical ventilation and five times higher in (OR 5.38, P = .015) in patients with brain metastases.

Dr. Klosko noted that the main limitations for this study were that it was a single center retrospective analysis, and that patients were reviewed within the first 7 days of ICU admission. “This potentially missed patients who developed delirium outside of this time frame,” she said. In addition, “too few patients received high-dose benzodiazepines,” and “none of the patients received continuous neuromuscular blockade.”

However, in “contrast to these limitations, this is the largest study to date that has analyzed delirium in this population,” Dr. Klosko said.

Commenting on the study, Brenda Pun, DNP, RN, director of data quality at the Vanderbilt Critical Illness, Brain Dysfunction, and Survivorship Center, Nashville, Tenn., pointed out that the goal of this study was to describe delirium in this specific population. “But I will take a step backward and say that they are just confirming that these patients look like other ICU patients in many regards,” she said.

She explained that the sicker patients are, the higher the rates of delirium. “We have implemented strategies to lower these rates, and they have improved,” Dr. Pun said. “Ten years ago, I would say that 80% of patients who were on a ventilator would have delirium but now the rates are around 50% and that’s what we are typically seeing now.”

Dr. Pun emphasized that this study shows that delirium is like the “canary in the coal mine” or a red flag. “It’s a sign that something is wrong and that we need to pay attention, because the patient’s outcome may be worse,” she said. “So this is saying that we need to see if there is something that can be changed or modified to decrease the incidence of delirium—these are important questions.”

There was no outside sponsor. The authors had no disclosures. Dr. Pun has no disclosures.

Hematology-oncology patients who receive treatment in the intensive care unit often develop delirium, and according to new findings, mechanical ventilation, high-dose corticosteroid use, and brain metastases were identified as independent risk factors.

Roughly half of all hematology-oncology patients who were admitted to the ICU experienced delirium, explained lead author Rachel Klosko, PharmD, PGY-2 cardiology pharmacy resident at the Ohio State University, Columbus.

“Delirium was associated with increased mortality, an increase in hospital length of stay, and increased length of stay in the ICU,” she said.

Dr. Klosko presented the study results at the at the Critical Care Congress sponsored by the Society of Critical Care Medicine (SCCM), which was held virtually this year.

Delirium is an acute and fluctuating disturbance of consciousness and cognition and fluctuates in severity. Critically ill patients are subject to numerous risk factors for delirium. “It can occur in independently of any known neurological disorder,” said Dr. Klosko, adding that its occurrence has been associated with poorer outcomes in ICU patients.

In this study, Dr. Klosko and colleagues sought to determine the incidence of delirium in cancer patients who were admitted to the ICU, as well as identify the associated risk factors and recognize potential consequences of the development of delirium in this patient population.

They conducted a single center, retrospective, cohort study that evaluated patients between the ages of 18 and 89 years who were admitted to the hematology-oncology medical or surgical ICU between July 1, 2018, and June 30, 2019.

The study’s primary endpoint was the incidence of delirium within 7 days of ICU admission, defined as two positive Confusion Assessment Method for the ICU (CAM-ICU) assessments within 24 hours. Patients identified with delirium were compared to those without it, for the evaluation of secondary endpoints that included hospital mortality and ICU and hospital length of stay. The researchers also sought to identify independent risk factors for delirium in this population.

A total of 244 patients were included in the final analysis. Of this group, 125 (51.2%) experienced delirium during their stay in the ICU, and 119 (48.8%) did not.

Mortality in the delirium group was significantly higher at 32.8% vs. 15.1% (P = .001). In addition, the delirium group was associated with significantly higher ICU length of stay (6 days vs. 3 days, P < .001) and hospital length of stay (21 days vs. 12 days, P < .001).

“When comparing the baseline characteristics between the two groups, the delirium group had a longer hospital length prior to ICU admission, a higher SOFA score, a higher rate of brain metastases, a higher rate of shock, and higher receipt of high-dose steroids, benzodiazepines, and immunotherapy,” said Dr. Klosko.

After multivariable regression, four variables were included in the final model. Among patients with delirium, the SOFA score increased by 25% (odds ratio[OR] 1.25, P < .001), while the odds of delirium were almost four times higher among those treated with high-dose corticosteroids (OR 3.79, P = .004). Delirium was also eight times higher (OR 8.48, P < .001) among those who received mechanical ventilation and five times higher in (OR 5.38, P = .015) in patients with brain metastases.

Dr. Klosko noted that the main limitations for this study were that it was a single center retrospective analysis, and that patients were reviewed within the first 7 days of ICU admission. “This potentially missed patients who developed delirium outside of this time frame,” she said. In addition, “too few patients received high-dose benzodiazepines,” and “none of the patients received continuous neuromuscular blockade.”

However, in “contrast to these limitations, this is the largest study to date that has analyzed delirium in this population,” Dr. Klosko said.

Commenting on the study, Brenda Pun, DNP, RN, director of data quality at the Vanderbilt Critical Illness, Brain Dysfunction, and Survivorship Center, Nashville, Tenn., pointed out that the goal of this study was to describe delirium in this specific population. “But I will take a step backward and say that they are just confirming that these patients look like other ICU patients in many regards,” she said.

She explained that the sicker patients are, the higher the rates of delirium. “We have implemented strategies to lower these rates, and they have improved,” Dr. Pun said. “Ten years ago, I would say that 80% of patients who were on a ventilator would have delirium but now the rates are around 50% and that’s what we are typically seeing now.”

Dr. Pun emphasized that this study shows that delirium is like the “canary in the coal mine” or a red flag. “It’s a sign that something is wrong and that we need to pay attention, because the patient’s outcome may be worse,” she said. “So this is saying that we need to see if there is something that can be changed or modified to decrease the incidence of delirium—these are important questions.”

There was no outside sponsor. The authors had no disclosures. Dr. Pun has no disclosures.

Two-thirds of epidemiologists from leading academic institutions say the world will need new or modified vaccines for COVID-19 within a year, new research shows.

South_agency/Getty Images

In a survey of 77 epidemiologists from 28 countries by the People’s Vaccine Alliance, 66.2% predicted that the world has a year or less before variants make current vaccines ineffective. The People’s Vaccine Alliance is a coalition of more than 50 organizations, including the African Alliance, Oxfam, Public Citizen, and UNAIDS (the Joint United Nations Programme on HIV/AIDS).

Almost a third (32.5%) of those surveyed said ineffectiveness would happen in 9 months or less; 18.2% said 6 months or less.

Paul A. Offit, MD, director of the Vaccine Education Center at the Children’s Hospital of Philadelphia, said in an interview that, while it’s hard to say whether vaccines could become ineffective in that time frame, “It’s perfectly reasonable to think it could happen.”

The good news, said Dr. Offit, who was not involved with the survey, is that SARS-CoV-2 mutates slowly, compared with other viruses such as influenza.

“To date,” he said, “the mutations that have occurred are not far enough away from the immunity induced by your natural infection or immunization such that one isn’t protected at least against severe and critical disease.”

That’s the goal of vaccines, he noted: “to keep people from suffering mightily.”
 

A line may be crossed

“And so far that’s happening, even with the variants,” Dr. Offit said. “That line has not been crossed. But I think we should assume that it might be.”

Dr. Offit said it will be critical to monitor anyone who gets hospitalized who is known to have been infected or fully vaccinated. Then countries need to get really good at sequencing those viruses.

The great majority of those surveyed (88%) said that persistently low vaccine coverage in many countries would make it more likely that vaccine-resistant mutations will appear.

Coverage comparisons between countries are stark.
 

Many countries haven’t given a single vaccine dose

While rich countries are giving COVID-19 vaccinations at the rate of a person a second, many of the poorest countries have given hardly any vaccines, the People’s Vaccine Alliance says.

Additionally, according to researchers at the Global Health Innovation Center at Duke University, Durham, N.C., high- and upper-middle–income countries, which represent one-fifth of the world’s population, have bought about 6 billion doses. But low- and lower-middle–income countries, which make up four-fifths of the population, have bought only about 2.6 billion, an article in Nature reports.

“You’re only as strong as your weakest country,” Dr. Offit said. “If we haven’t learned that what happens in other countries can [affect the global population], we haven’t been paying attention.”

Gregg Gonsalves, PhD, associate professor of epidemiology at Yale University, New Haven, Conn., one of the academic centers surveyed, didn’t specify a timeline for when vaccines would become ineffective, but said in a press release that the urgency for widespread global vaccination is real.

“Unless we vaccinate the world,” he said, “we leave the playing field open to more and more mutations, which could churn out variants that could evade our current vaccines and require booster shots to deal with them.”
 

“Dire, but not surprising”

Panagis Galiatsatos, MD, MHS, a pulmonologist at John Hopkins University, Baltimore, whose research focuses on health care disparities, said the survey findings were “dire, but not surprising.”

Johns Hopkins was another of the centers surveyed, but Dr. Galiatsatos wasn’t personally involved with the survey.

COVID-19, Dr. Galiatsatos pointed out, has laid bare disparities, both in who gets the vaccine and who’s involved in trials to develop the vaccines.

“It’s morally concerning and an ethical reckoning,” he said in an interview.

Recognition of the borderless swath of destruction the virus is exacting is critical, he said.

The United States “has to realize this can’t be a U.S.-centric issue,” he said. “We’re going to be back to the beginning if we don’t make sure that every country is doing well. We haven’t seen that level of uniform approach.”

He noted that scientists have always known that viruses mutate, but now the race is on to find the parts of SARS-CoV-2 that don’t mutate as much.

“My suspicion is we’ll probably need boosters instead of a whole different vaccine,” Dr. Galiatsatos said.

Among the strategies sought by the People’s Vaccine Alliance is for all pharmaceutical companies working on COVID-19 vaccines to openly share technology and intellectual property through the World Health Organization COVID-19 Technology Access Pool, to speed production and rollout of vaccines to all countries.

In the survey, 74% said that open sharing of technology and intellectual property could boost global vaccine coverage; 23% said maybe and 3% said it wouldn’t help.

The survey was carried out between Feb. 17 and March 25, 2021. Respondents included epidemiologists, virologists, and infection disease specialists from the following countries: Algeria, Argentina, Australia, Belgium, Bolivia, Canada, Denmark, Ethiopia, France, Guatemala, India, Italy, Kenya, Lebanon, Norway, Philippines, Senegal, Somalia, South Africa, South Sudan, Spain, United Arab Emirates, Uganda, United Kingdom, United States, Vietnam, Zambia, and Zimbabwe.

Dr. Offit and Dr. Galiatsatos reported no relevant financial relationships.

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

Two-thirds of epidemiologists from leading academic institutions say the world will need new or modified vaccines for COVID-19 within a year, new research shows.

South_agency/Getty Images

In a survey of 77 epidemiologists from 28 countries by the People’s Vaccine Alliance, 66.2% predicted that the world has a year or less before variants make current vaccines ineffective. The People’s Vaccine Alliance is a coalition of more than 50 organizations, including the African Alliance, Oxfam, Public Citizen, and UNAIDS (the Joint United Nations Programme on HIV/AIDS).

Almost a third (32.5%) of those surveyed said ineffectiveness would happen in 9 months or less; 18.2% said 6 months or less.

Paul A. Offit, MD, director of the Vaccine Education Center at the Children’s Hospital of Philadelphia, said in an interview that, while it’s hard to say whether vaccines could become ineffective in that time frame, “It’s perfectly reasonable to think it could happen.”

The good news, said Dr. Offit, who was not involved with the survey, is that SARS-CoV-2 mutates slowly, compared with other viruses such as influenza.

“To date,” he said, “the mutations that have occurred are not far enough away from the immunity induced by your natural infection or immunization such that one isn’t protected at least against severe and critical disease.”

That’s the goal of vaccines, he noted: “to keep people from suffering mightily.”
 

A line may be crossed

“And so far that’s happening, even with the variants,” Dr. Offit said. “That line has not been crossed. But I think we should assume that it might be.”

Dr. Offit said it will be critical to monitor anyone who gets hospitalized who is known to have been infected or fully vaccinated. Then countries need to get really good at sequencing those viruses.

The great majority of those surveyed (88%) said that persistently low vaccine coverage in many countries would make it more likely that vaccine-resistant mutations will appear.

Coverage comparisons between countries are stark.
 

Many countries haven’t given a single vaccine dose

While rich countries are giving COVID-19 vaccinations at the rate of a person a second, many of the poorest countries have given hardly any vaccines, the People’s Vaccine Alliance says.

Additionally, according to researchers at the Global Health Innovation Center at Duke University, Durham, N.C., high- and upper-middle–income countries, which represent one-fifth of the world’s population, have bought about 6 billion doses. But low- and lower-middle–income countries, which make up four-fifths of the population, have bought only about 2.6 billion, an article in Nature reports.

“You’re only as strong as your weakest country,” Dr. Offit said. “If we haven’t learned that what happens in other countries can [affect the global population], we haven’t been paying attention.”

Gregg Gonsalves, PhD, associate professor of epidemiology at Yale University, New Haven, Conn., one of the academic centers surveyed, didn’t specify a timeline for when vaccines would become ineffective, but said in a press release that the urgency for widespread global vaccination is real.

“Unless we vaccinate the world,” he said, “we leave the playing field open to more and more mutations, which could churn out variants that could evade our current vaccines and require booster shots to deal with them.”
 

“Dire, but not surprising”

Panagis Galiatsatos, MD, MHS, a pulmonologist at John Hopkins University, Baltimore, whose research focuses on health care disparities, said the survey findings were “dire, but not surprising.”

Johns Hopkins was another of the centers surveyed, but Dr. Galiatsatos wasn’t personally involved with the survey.

COVID-19, Dr. Galiatsatos pointed out, has laid bare disparities, both in who gets the vaccine and who’s involved in trials to develop the vaccines.

“It’s morally concerning and an ethical reckoning,” he said in an interview.

Recognition of the borderless swath of destruction the virus is exacting is critical, he said.

The United States “has to realize this can’t be a U.S.-centric issue,” he said. “We’re going to be back to the beginning if we don’t make sure that every country is doing well. We haven’t seen that level of uniform approach.”

He noted that scientists have always known that viruses mutate, but now the race is on to find the parts of SARS-CoV-2 that don’t mutate as much.

“My suspicion is we’ll probably need boosters instead of a whole different vaccine,” Dr. Galiatsatos said.

Among the strategies sought by the People’s Vaccine Alliance is for all pharmaceutical companies working on COVID-19 vaccines to openly share technology and intellectual property through the World Health Organization COVID-19 Technology Access Pool, to speed production and rollout of vaccines to all countries.

In the survey, 74% said that open sharing of technology and intellectual property could boost global vaccine coverage; 23% said maybe and 3% said it wouldn’t help.

The survey was carried out between Feb. 17 and March 25, 2021. Respondents included epidemiologists, virologists, and infection disease specialists from the following countries: Algeria, Argentina, Australia, Belgium, Bolivia, Canada, Denmark, Ethiopia, France, Guatemala, India, Italy, Kenya, Lebanon, Norway, Philippines, Senegal, Somalia, South Africa, South Sudan, Spain, United Arab Emirates, Uganda, United Kingdom, United States, Vietnam, Zambia, and Zimbabwe.

Dr. Offit and Dr. Galiatsatos reported no relevant financial relationships.

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

Two-thirds of epidemiologists from leading academic institutions say the world will need new or modified vaccines for COVID-19 within a year, new research shows.

South_agency/Getty Images

In a survey of 77 epidemiologists from 28 countries by the People’s Vaccine Alliance, 66.2% predicted that the world has a year or less before variants make current vaccines ineffective. The People’s Vaccine Alliance is a coalition of more than 50 organizations, including the African Alliance, Oxfam, Public Citizen, and UNAIDS (the Joint United Nations Programme on HIV/AIDS).

Almost a third (32.5%) of those surveyed said ineffectiveness would happen in 9 months or less; 18.2% said 6 months or less.

Paul A. Offit, MD, director of the Vaccine Education Center at the Children’s Hospital of Philadelphia, said in an interview that, while it’s hard to say whether vaccines could become ineffective in that time frame, “It’s perfectly reasonable to think it could happen.”

The good news, said Dr. Offit, who was not involved with the survey, is that SARS-CoV-2 mutates slowly, compared with other viruses such as influenza.

“To date,” he said, “the mutations that have occurred are not far enough away from the immunity induced by your natural infection or immunization such that one isn’t protected at least against severe and critical disease.”

That’s the goal of vaccines, he noted: “to keep people from suffering mightily.”
 

A line may be crossed

“And so far that’s happening, even with the variants,” Dr. Offit said. “That line has not been crossed. But I think we should assume that it might be.”

Dr. Offit said it will be critical to monitor anyone who gets hospitalized who is known to have been infected or fully vaccinated. Then countries need to get really good at sequencing those viruses.

The great majority of those surveyed (88%) said that persistently low vaccine coverage in many countries would make it more likely that vaccine-resistant mutations will appear.

Coverage comparisons between countries are stark.
 

Many countries haven’t given a single vaccine dose

While rich countries are giving COVID-19 vaccinations at the rate of a person a second, many of the poorest countries have given hardly any vaccines, the People’s Vaccine Alliance says.

Additionally, according to researchers at the Global Health Innovation Center at Duke University, Durham, N.C., high- and upper-middle–income countries, which represent one-fifth of the world’s population, have bought about 6 billion doses. But low- and lower-middle–income countries, which make up four-fifths of the population, have bought only about 2.6 billion, an article in Nature reports.

“You’re only as strong as your weakest country,” Dr. Offit said. “If we haven’t learned that what happens in other countries can [affect the global population], we haven’t been paying attention.”

Gregg Gonsalves, PhD, associate professor of epidemiology at Yale University, New Haven, Conn., one of the academic centers surveyed, didn’t specify a timeline for when vaccines would become ineffective, but said in a press release that the urgency for widespread global vaccination is real.

“Unless we vaccinate the world,” he said, “we leave the playing field open to more and more mutations, which could churn out variants that could evade our current vaccines and require booster shots to deal with them.”
 

“Dire, but not surprising”

Panagis Galiatsatos, MD, MHS, a pulmonologist at John Hopkins University, Baltimore, whose research focuses on health care disparities, said the survey findings were “dire, but not surprising.”

Johns Hopkins was another of the centers surveyed, but Dr. Galiatsatos wasn’t personally involved with the survey.

COVID-19, Dr. Galiatsatos pointed out, has laid bare disparities, both in who gets the vaccine and who’s involved in trials to develop the vaccines.

“It’s morally concerning and an ethical reckoning,” he said in an interview.

Recognition of the borderless swath of destruction the virus is exacting is critical, he said.

The United States “has to realize this can’t be a U.S.-centric issue,” he said. “We’re going to be back to the beginning if we don’t make sure that every country is doing well. We haven’t seen that level of uniform approach.”

He noted that scientists have always known that viruses mutate, but now the race is on to find the parts of SARS-CoV-2 that don’t mutate as much.

“My suspicion is we’ll probably need boosters instead of a whole different vaccine,” Dr. Galiatsatos said.

Among the strategies sought by the People’s Vaccine Alliance is for all pharmaceutical companies working on COVID-19 vaccines to openly share technology and intellectual property through the World Health Organization COVID-19 Technology Access Pool, to speed production and rollout of vaccines to all countries.

In the survey, 74% said that open sharing of technology and intellectual property could boost global vaccine coverage; 23% said maybe and 3% said it wouldn’t help.

The survey was carried out between Feb. 17 and March 25, 2021. Respondents included epidemiologists, virologists, and infection disease specialists from the following countries: Algeria, Argentina, Australia, Belgium, Bolivia, Canada, Denmark, Ethiopia, France, Guatemala, India, Italy, Kenya, Lebanon, Norway, Philippines, Senegal, Somalia, South Africa, South Sudan, Spain, United Arab Emirates, Uganda, United Kingdom, United States, Vietnam, Zambia, and Zimbabwe.

Dr. Offit and Dr. Galiatsatos reported no relevant financial relationships.

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

The National Psoriasis Foundation COVID-19 Task Force now recommends that certain patients on methotrexate consider stopping the drug for 2 weeks after receiving the Johnson & Johnson COVID-19 vaccine, Joel M. Gelfand, MD, said at Innovations in Dermatology: Virtual Spring Conference 2021.

Courtesy Dr. Joel M. Gelfand

The new guidance states: “Patients 60 or older who have at least one comorbidity associated with an increased risk for poor COVID-19 outcomes, and who are taking methotrexate with well-controlled psoriatic disease, may, in consultation with their prescriber, consider holding it for 2 weeks after receiving the Ad26.COV2.S [Johnson & Johnson] vaccine in order to potentially improve vaccine response.”

The key word here is “potentially.” There is no hard evidence that a 2-week hold on methotrexate after receiving the killed adenovirus vaccine will actually provide a clinically meaningful benefit. But it’s a hypothetical possibility. The rationale stems from a small randomized trial conducted in South Korea several years ago in which patients with rheumatoid arthritis were assigned to hold or continue their methotrexate for the first 2 weeks after receiving an inactivated-virus influenza vaccine. The antibody response to the vaccine was better in those who temporarily halted their methotrexate, explained Dr. Gelfand, cochair of the NPF COVID-19 Task Force and professor of dermatology and of epidemiology at the University of Pennsylvania, Philadelphia.

“If you have a patient on methotrexate who’s 60 or older and whose psoriasis is completely controlled and quiescent and the patient is concerned about how well the vaccine is going to work, this is a reasonable thing to consider in someone who’s at higher risk for poor outcomes if they get infected,” he said.

If the informed patient wants to continue on methotrexate without interruption, that’s fine, too, in light of the lack of compelling evidence on this issue, the dermatologist added at the conference, sponsored by MedscapeLIVE! and the producers of the Hawaii Dermatology Seminar and Caribbean Dermatology Symposium.

The NPF task force does not extend the recommendation to consider holding methotrexate in recipients of the mRNA-based Moderna and Pfizer vaccines because of their very different mechanisms of action. Nor is it recommended to hold biologic agents after receiving any of the available COVID-19 vaccines. Studies have shown no altered immunologic response to influenza or pneumococcal vaccines in patients who continued on tumor necrosis factor inhibitors or interleukin-17 inhibitors. The interleukin-23 inhibitors haven’t been studied in this regard.

The task force recommends that most psoriasis patients should continue on treatment throughout the pandemic, and newly diagnosed patients should commence appropriate therapy as if there was no pandemic.

“We’ve learned that many patients who stopped their treatment for psoriatic disease early in the pandemic came to regret that decision because their psoriasis flared and got worse and required reinstitution of therapy,” Dr. Gelfand said. “The current data is largely reassuring that if there is an effect of our therapies on the risk of COVID, it must be rather small and therefore unlikely to be clinically meaningful for our patients.”

Dr. Gelfand reported serving as a consultant to and recipient of institutional research grants from Pfizer and numerous other pharmaceutical companies.

MedscapeLIVE and this news organization are owned by the same parent company.

[email protected]

The National Psoriasis Foundation COVID-19 Task Force now recommends that certain patients on methotrexate consider stopping the drug for 2 weeks after receiving the Johnson & Johnson COVID-19 vaccine, Joel M. Gelfand, MD, said at Innovations in Dermatology: Virtual Spring Conference 2021.

Courtesy Dr. Joel M. Gelfand

The new guidance states: “Patients 60 or older who have at least one comorbidity associated with an increased risk for poor COVID-19 outcomes, and who are taking methotrexate with well-controlled psoriatic disease, may, in consultation with their prescriber, consider holding it for 2 weeks after receiving the Ad26.COV2.S [Johnson & Johnson] vaccine in order to potentially improve vaccine response.”

The key word here is “potentially.” There is no hard evidence that a 2-week hold on methotrexate after receiving the killed adenovirus vaccine will actually provide a clinically meaningful benefit. But it’s a hypothetical possibility. The rationale stems from a small randomized trial conducted in South Korea several years ago in which patients with rheumatoid arthritis were assigned to hold or continue their methotrexate for the first 2 weeks after receiving an inactivated-virus influenza vaccine. The antibody response to the vaccine was better in those who temporarily halted their methotrexate, explained Dr. Gelfand, cochair of the NPF COVID-19 Task Force and professor of dermatology and of epidemiology at the University of Pennsylvania, Philadelphia.

“If you have a patient on methotrexate who’s 60 or older and whose psoriasis is completely controlled and quiescent and the patient is concerned about how well the vaccine is going to work, this is a reasonable thing to consider in someone who’s at higher risk for poor outcomes if they get infected,” he said.

If the informed patient wants to continue on methotrexate without interruption, that’s fine, too, in light of the lack of compelling evidence on this issue, the dermatologist added at the conference, sponsored by MedscapeLIVE! and the producers of the Hawaii Dermatology Seminar and Caribbean Dermatology Symposium.

The NPF task force does not extend the recommendation to consider holding methotrexate in recipients of the mRNA-based Moderna and Pfizer vaccines because of their very different mechanisms of action. Nor is it recommended to hold biologic agents after receiving any of the available COVID-19 vaccines. Studies have shown no altered immunologic response to influenza or pneumococcal vaccines in patients who continued on tumor necrosis factor inhibitors or interleukin-17 inhibitors. The interleukin-23 inhibitors haven’t been studied in this regard.

The task force recommends that most psoriasis patients should continue on treatment throughout the pandemic, and newly diagnosed patients should commence appropriate therapy as if there was no pandemic.

“We’ve learned that many patients who stopped their treatment for psoriatic disease early in the pandemic came to regret that decision because their psoriasis flared and got worse and required reinstitution of therapy,” Dr. Gelfand said. “The current data is largely reassuring that if there is an effect of our therapies on the risk of COVID, it must be rather small and therefore unlikely to be clinically meaningful for our patients.”

Dr. Gelfand reported serving as a consultant to and recipient of institutional research grants from Pfizer and numerous other pharmaceutical companies.

MedscapeLIVE and this news organization are owned by the same parent company.

[email protected]

The National Psoriasis Foundation COVID-19 Task Force now recommends that certain patients on methotrexate consider stopping the drug for 2 weeks after receiving the Johnson & Johnson COVID-19 vaccine, Joel M. Gelfand, MD, said at Innovations in Dermatology: Virtual Spring Conference 2021.

Courtesy Dr. Joel M. Gelfand

The new guidance states: “Patients 60 or older who have at least one comorbidity associated with an increased risk for poor COVID-19 outcomes, and who are taking methotrexate with well-controlled psoriatic disease, may, in consultation with their prescriber, consider holding it for 2 weeks after receiving the Ad26.COV2.S [Johnson & Johnson] vaccine in order to potentially improve vaccine response.”

The key word here is “potentially.” There is no hard evidence that a 2-week hold on methotrexate after receiving the killed adenovirus vaccine will actually provide a clinically meaningful benefit. But it’s a hypothetical possibility. The rationale stems from a small randomized trial conducted in South Korea several years ago in which patients with rheumatoid arthritis were assigned to hold or continue their methotrexate for the first 2 weeks after receiving an inactivated-virus influenza vaccine. The antibody response to the vaccine was better in those who temporarily halted their methotrexate, explained Dr. Gelfand, cochair of the NPF COVID-19 Task Force and professor of dermatology and of epidemiology at the University of Pennsylvania, Philadelphia.

“If you have a patient on methotrexate who’s 60 or older and whose psoriasis is completely controlled and quiescent and the patient is concerned about how well the vaccine is going to work, this is a reasonable thing to consider in someone who’s at higher risk for poor outcomes if they get infected,” he said.

If the informed patient wants to continue on methotrexate without interruption, that’s fine, too, in light of the lack of compelling evidence on this issue, the dermatologist added at the conference, sponsored by MedscapeLIVE! and the producers of the Hawaii Dermatology Seminar and Caribbean Dermatology Symposium.

The NPF task force does not extend the recommendation to consider holding methotrexate in recipients of the mRNA-based Moderna and Pfizer vaccines because of their very different mechanisms of action. Nor is it recommended to hold biologic agents after receiving any of the available COVID-19 vaccines. Studies have shown no altered immunologic response to influenza or pneumococcal vaccines in patients who continued on tumor necrosis factor inhibitors or interleukin-17 inhibitors. The interleukin-23 inhibitors haven’t been studied in this regard.

The task force recommends that most psoriasis patients should continue on treatment throughout the pandemic, and newly diagnosed patients should commence appropriate therapy as if there was no pandemic.

“We’ve learned that many patients who stopped their treatment for psoriatic disease early in the pandemic came to regret that decision because their psoriasis flared and got worse and required reinstitution of therapy,” Dr. Gelfand said. “The current data is largely reassuring that if there is an effect of our therapies on the risk of COVID, it must be rather small and therefore unlikely to be clinically meaningful for our patients.”

Dr. Gelfand reported serving as a consultant to and recipient of institutional research grants from Pfizer and numerous other pharmaceutical companies.

MedscapeLIVE and this news organization are owned by the same parent company.

[email protected]