Fall 2025
Fall 2025 Issue Rehabilitation: Rehabilitating the Frail Frailty syndrome constitutes a significant and pressing public health challenge, affecting approximately 15% of individuals who are aged 65 and older, with another 45% of this demographic categorized as prefrail, indicating that they are on the brink of experiencing frailty.1 This condition, characterized by a notable reduction in physiological resilience and increased vulnerability to stressors, becomes increasingly prevalent as age advances. Further, this worrisome trend is especially pronounced among women, various racial and ethnic minorities, individuals facing diverse financial hardships, and those living in environments specifically designed to offer support. The decline in strength, endurance, and overall physiological function makes everyday activities, such as climbing stairs, lifting objects, and walking, challenging. This loss of physical reserves increases vulnerability to various stressors, including infections, medication changes, falls, and environmental shifts, which can lead to serious health consequences like cognitive decline, a higher risk of falls, hospitalization, loss of independence, and even death. The rapidly aging population and the increasing incidence of frailty necessitate urgent focus and decisive action. Prioritizing and executing effective rehabilitative services in conjunction with community support initiatives is crucial to addressing the diverse needs of these individuals. By incorporating AI-driven interventions into rehabilitation frameworks, we can enhance care strategies and offer tailored solutions for the recovery and ongoing management of frail older adults. Such technologies empower therapists to employ a holistic approach to tackling frailty, ultimately elevating the quality of life for individuals while alleviating the burdens on health care providers and systems. Therapy Benefits and Challenges While traditional rehabilitative approaches yield benefits, practitioners face a myriad of challenges—such as accurately identifying frailty, scaling treatment modalities, personalizing care plans, and ensuring ongoing patient monitoring—that complicate the therapeutic landscape. The advent of innovations in AI and other technological advancements heralds a transformative potential for rehabilitative services, augmenting therapists’ capabilities to devise effective strategies for addressing frailty in their patients. AI Rehabilitative therapy services stand to gain significantly from the integration of AI, ushering in a transformative era of rehabilitation that (1) facilitates the early identification of frailty risk, surpassing the limitations of traditional clinical assessment methods, (2) promotes the administration of highly personalized therapies that not only elevate patient engagement and motivation but also lead to markedly improved outcomes, and (3) enhances the seamless incorporation of innovative, AI-driven rehabilitation tools—ranging from virtual-reality fitness applications to robotic assistive devices and beyond. Frailty Assessment The complexities surrounding the early identification of frailty are multifaceted, primarily stemming from the absence of a universally accepted measurement approach. Recent systematic reviews have illuminated a staggering array of at least 60 distinct tools designed for frailty identification, among which a mere nine have achieved regular application in clinical practice.3 Furthermore, the determination of frailty status frequently relies on manual assessments, which are not only labor-intensive but also necessitate a significant degree of clinical expertise and remain inherently subjective in nature. The implications of this variability are profound, as they underscore the challenges faced by health care professionals in achieving accurate and timely frailty assessments. Challenges in frailty assessment, along with the need to predict which patients may become frail over time, known as “predictive frailty,” have spurred significant advances in AI, which is essential for forecasting health outcomes and risks. AI-driven tools can analyze EHRs, patient demographics, and clinical data to generate frailty scores. These scores can help clinicians make informed decisions about interventions, resource allocation, and care management for individuals with frailty. The recent development of an AI-driven frailty assessment tool by the dedicated team at Mass General Brigham demonstrates the power of AI in the evaluation of frailty.4 This innovative tool leverages readily available data extracted from EHRs, encompassing crucial demographic factors such as age, sex, and race alongside comprehensive details regarding comorbidities, medication regimens, functional capabilities, and laboratory findings. By applying advanced machine learning algorithms to a large patient dataset, the tool provides real-time frailty assessments during clinical consultations, enabling clinicians to make informed care decisions. The AI model has demonstrated over 85% accuracy in predicting postoperative complications among surgical patients, allowing for personalized preoperative interventions like physical therapy and nutritional support. The outcomes attributable to this tool are noteworthy, highlighting shorter hospital stays for frail patients, lower rates of postoperative complications, improved patient satisfaction metrics, and enhanced collaboration among health care providers. The implications for clinical practice are profound, as this tool not only streamlines the assessment process but also fosters a more proactive and tailored approach to managing frailty within diverse patient populations and health care settings. Virtual Reality This shift can lead to enhanced adherence and improved therapeutic outcomes for those facing the challenges of frailty. The increased engagement fostered by VR can translate into more consistent attendance in therapy sessions, an essential component for the recovery journey of frail individuals. Furthermore, the technology allows for environments that are both customizable and flexible, catering specifically to the distinct requirements and evolving progress of each patient, thus promoting a rehabilitative experience that is both personalized and safe. Smart Devices Wearable sensors provide a continuous stream of data throughout exercise regimens, equipping therapists and researchers with vital information to assess progress, identify areas requiring improvement, and formulate tailored recommendations that adjust exercise intensity or modify treatment strategies accordingly. Thus, the integration of such technology not only enriches the rehabilitation experience but also reinforces the collaborative effort between patient and provider in the pursuit of optimal recovery outcomes. Robotic physical therapy, also known as robotic rehabilitation, integrates advanced robotic devices into recovery processes. These machines are designed to aid motor function recovery through repetitive, controlled movements that enhance therapeutic exercises. The use of robotics represents a shift in rehabilitation, combining technology with clinical expertise. Such innovations can enhance traditional therapies and enable customized patient care, thereby reducing the physical burden on therapists while allowing them to prioritize comprehensive patient support and care. Robotic devices encompass a variety of advanced systems, such as exoskeletons that assist with movement, end-effector robots designed to manipulate limbs or hold objects, facilitation of targeted exercises for specific muscle groups, gait training systems aimed at improving walking abilities, as well as robots focused on the rehabilitation of both upper and lower extremities for enhanced recovery. Telerehabilitation Additional Considerations — Mark D. Coggins, PharmD, BCGP, FASCP, is a long term care expert and corporate pharmacy consultant for Touchstone Communities, a leading provider of senior care that includes skilled nursing care, memory care, and rehabilitation for older adults throughout Texas. He’s a past director of the American Society of Consultant Pharmacists and was nationally recognized by the Commission for Certification in Geriatric Pharmacy with the Excellence in Geriatric Pharmacy Practice Award.
References 2. Fried LP, Tangen CM, Walston J, et al. Frailty in older adults: evidence for a phenotype. J Gerontol A Biol Sci Med Sci. 2001;56(3):M146-56. 3. Ludlow K, Todd O, Reid N, et al. Frailty in primary care: challenges, innovations, and future directions. BMC Prim Care. 2023;24(1):129. 4. AI-driven frailty assessment tool yields results at Mass General Brigham. Health Industry Trends website. https://healthindustrytrends.com/ai-driven-frailty-assessment-tool-yields-results-at-mass-general-brigham/. Published March 6, 2025. 5. Dawson R, Oliveira JS, Kwok WS, et al. Exercise interventions delivered through telehealth to improve physical functioning for older adults with frailty, cognitive, or mobility disability: a systematic review and meta-analysis. Telemed J E Health. 2024;30(4):940-950. |
