Training in Neurology: Adoption of resident teleneurology training in the wake of COVID-19
Telemedicine crash course
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Abstract
The coronavirus disease 2019 pandemic has changed the way we engage patient care, with a move toward telemedicine-based health care encounters. Teleneurology is now being rapidly embraced by neurologists in clinics and hospitals nationwide but for many, this paradigm of care is unfamiliar. Exposure to telemedicine in neurology training programs is scarce despite previous calls to expand teleneurology education. Programs that provide a teleneurology curriculum have demonstrated increased proficiency, accuracy, and post-training utilization among their trainees. With the current changes in health care, broad incorporation of teleneurology education in resident and fellow training after this pandemic dissipates will only serve to improve trainee preparedness for independent practice.
Introduction
The coronavirus disease 2019 (COVID-19) pandemic is forcing a reckoning of current health care delivery and expediting a rapid transition to telemedicine-based care. In 2017, the Telemedicine Work Group of the American Academy of Neurology (AAN) recommended a teleneurology curriculum as an elective rotation for trainees.1 How long ago 2017 seems now as we all hastily work to create operational teleneurology infrastructure in our clinics and hospitals. Although prior exposure in teleneurology is advantageous in tackling the complexities of moving to telehealth-based care, most of the neurology workforce is not formally trained in telemedicine. While we are far from fully understanding the long-term sequelae of this pandemic on our health care systems, broader exposure and increased comfort with teleneurology is imperative to prepare our trainees for the new world of medicine they will face after the current pandemic dissipates.
Contemporary teleneurology practice
Neurology has long recognized the power of telemedicine in addressing gaps in access to care. Telestroke became an established practice among stroke centers in the mid-2000s, prompted by the STRokE DOC2 trial demonstrating diagnostic accuracy in acute stroke care. In the outpatient setting, teleneurology is an alternative for some patients with chronic conditions and disability that make an in-person trip to a subspecialty clinic difficult. Teleneurology support for outpatient neurology care is well-described in the recent update by the Telemedicine Work Group,3 whose comprehensive review outlines the importance of teleneurology in improving patient satisfaction, patient-associated costs, and caregiver burden, without sacrificing quality of care.
However, teleneurology is far from universally embraced. Limitations in the neurologic examination over camera, dissatisfaction with potential technical failures, and a sense of depersonalization from a lack of physical interaction with patients contribute to slow acceptance of this care modality. Perhaps the greatest barrier to broader adoption of practice was the lack of infrastructure for reimbursement prior to our current public health crisis. Because the Centers for Medicare and Medicaid Services (CMS) relaxed billing regulations and privacy guidelines temporarily to allow providers to continue caring for their patients remotely,4 neurologists have the ability to prove the utility and importance of teleneurology. While current CMS reimbursement for teleneurology is intended for use only during the pandemic, routine teleneurology care—once shown feasible and effective—will become a standard tool for facilitating physician–patient interactions.
Are we preparing our trainees for this new world of health care? Regardless of reimbursement, the need for teleneurology is not going away after this crisis passes. Telestroke is already ubiquitous among vascular neurology divisions. Many academic departments are establishing tele-neurohospitalist capabilities for community hospitals. Five telehealth companies already provide nationwide teleneurology services. Setting up a teleneurology curriculum for trainees requires investment in time, effort, and finances from faculty and departments; however, decreased overhead costs, improved patient satisfaction, and decreased patient attrition could potentially offset that cost.
Existing models of teleneurology training
Dedicated teleneurology training is rare in neurology residencies. A literature search identified 1 fellowship and 2 resident training programs that describe formalized education in teleneurology. The University of California San Francisco implemented a teleneurology rotation for their postgraduate year 3 and 4 residents.5 After 2 nonconsecutive 2-week blocks of didactics and rotating in telemedicine-based neurology outpatient clinics, residents had improved telemedicine knowledge, more favorable impression regarding teleneurology, and fewer perceived challenges in conducting the neurologic examination over a camera. The Mayo Clinic at Jacksonville, Florida, instituted a telestroke education program for their residents with didactics, simulation training, and real-time clinical practice. Residents now train to conduct prehospital assessments of potential stroke patients via telemedicine-enabled ambulances prior to arrival to their comprehensive stroke center,6 and their study on the effects of this training on door-to-needle times is ongoing.
Vascular neurology training programs incorporating telestroke education illustrate the real-world effects of formalized telemedicine training. The University of Texas Health Science Center in Houston (UTHSC), Cedars-Sinai Medical Center, and University of Utah Medical Center provide dedicated telestroke education in their respective stroke fellowships and track door-to-needle times for fellows and faculty as a training metric. A survey of graduates from UTHSC reported exposure to telemedicine as fellows led to proficiency in telestroke care, and almost a third of graduates from that program went on to start telemedicine networks in their respective practices. Review of thrombolytic metrics at the UTHSC telestroke network revealed that fellows took 9 minutes longer to administer alteplase from page time compared to attendings. This lag gradually decreased with increasing fellow experience and proficiency in performing teleconsultations, improving page-to-needle time by 1 minute for every 14 consults.7 Data from the University of Utah linked training and experience with more appropriate deployment of teleconsultations and avoidance of unnecessary utilization.8 Familiarity and repetition can clearly improve teleneurology competency and efficiency.
The AAN recognized the need to incorporate telemedicine in neurology training in 2013 and multiple subsequent publications outline recommended curricula,1,5,6,9 provide data on implemented programs,7,9,10 and demonstrate the real-world benefits of systematic telemedicine training.7,–,9 Anecdotally, the residents at our 3 institutions have expressed increasing interest and curiosity regarding additional teleneurology exposure, which is magnified by the emergent changes in clinical practice implemented in response to the COVID-19 pandemic. The lack of mandated education in this area has led to slow adoption of training in teleneurology. Vascular neurology fellowships are increasingly incorporating telestroke training, but even in centers with robust telestroke networks and training programs, resident exposure prepandemic was scarce.
Towards broad adoption of teleneurology education
Trainees would most effectively benefit from a teleneurology rotation, or other clinical exposure to teleneurology, midtraining, after mastering the in-person neurology encounter. The AAN Telemedicine Work Group recommends comprehensive training in clinical bedside neurology for the safe practice of teleneurology.3 Accreditation Council for Graduate Medical Education (ACGME) neurology milestones or the Neurology Clinical Evaluation Exercise can guide evaluation for teleneurology competency. Adapted from our institutions' programs, the table offers an example of potential competencies and milestones for a teleneurology curriculum. Training can help hone skills such as “webside” manner; communication with telepresenters, both novice and experienced; interpretation of remote neurologic examinations; accuracy of diagnosis and treatment plans; efficient consultations/evaluations; and recognition of the limitations of teleneurology. Multiuser teleneurology software can provide trainees direct supervision by an attending physician, albeit sometimes at increased cost. Bringing residents and fellows to community hospitals for site visits, especially when activating a new site, can teach how to be a valued partner with local nurses and physicians and help better understand the patient experience. Faculty with experience in teleneurology and curated from a broad spectrum of subspecialties should assist in teaching skills. Inherent differences in conducting visits with patients with movement disorders vs dementia vs stroke should be highlighted during training. Posttraining and lifelong learning of teleneurology can take the form of board examination questions and Maintenance of Certification Program activities.
Example of existing teleneurology competencies and suggested rotation milestones
Embedding trainees in telemedicine consultations provided by senior neurology staff may not be straightforward. Each institution must tackle local barriers in licensing and credentialing. For programs servicing sites in multiple states, the new interstate licensure compact does not circumvent difficulties in licensing for fellows. Community hospitals do not lend themselves naturally to a teaching environment and many sites may hesitate to allow trainees on camera. Contractual educational agreements may alleviate some of this concern by assuring appropriate supervision and expectations. With these concerns in mind, teleneurology training should always begin with trainee observation of seasoned teleneurologists before graduating to more trainee-driven consultations. Initial encounters may be more manageable in less urgent, outpatient settings as residents and fellows gain familiarity with teleneurology skills. Standardized patients and simulation-based training may also provide some of the requisite experiences if live patient encounters are not feasible. The University of Utah uses SimLearn curricula to design telestroke simulations for new providers and have started to extend this to residents.
The COVID-19 pandemic necessitates novel and flexible vehicles for emergency and longitudinal care and provides a unique opportunity to expand education and adoption of telemedicine as a routine form of health care delivery. The ACGME should request telemedicine curricula in accredited neurology residencies and fellowships to reflect this real-world transition towards remote teleneurology consultations. Omitting teleneurology didactics leaves our trainees unprepared for the realities of modern-day neurology independent practice. It is time for us to shed our teleneurophobia and implement the changes necessary for programs to adequately prepare our future neurologists.
Study funding
No targeted funding reported.
Disclosure
A.M. Zha, L.S. Chung, and S.S. Song report no disclosures relevant to the manuscript. J.J. Majersik reports NIH/National Institute of Neurological Disorders and Stroke funding 1U24NS107228; is Associate Editor for Stroke; reports consulting fees for Foldax scientific advisory board; and is an editorial board member of Neurology®. A.L. Jagolino-Cole reports no disclosures relevant to the manuscript. Go to Neurology.org/N for full disclosures.
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Footnotes
Go to Neurology.org/N for full disclosures. Funding information and disclosures deemed relevant by the authors, if any, are provided at the end of the article.
COVID-19 Resources: NPub.org/COVID19
- © 2020 American Academy of Neurology
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