Digital Health Technologies Fail at Adoption for Older Adults Despite Technical Effectiveness
Problem Statement
Assistive technologies for older adults — telemonitoring, fall detection, medication management, self-monitoring devices — demonstrate clinical effectiveness in research settings but consistently fail at real-world adoption. A systematic review using the COM-B behavior change model identified barriers across all three dimensions: capability (limited digital literacy, physical and cognitive impairments), opportunity (poor internet access, high costs, lack of integrated technical support, usability failures), and motivation (privacy concerns, mistrust of technology, satisfaction with existing care). The result is that the populations who would benefit most from assistive technology — older adults with chronic diseases, limited mobility, or cognitive decline — are the least likely to use it.
Why This Matters
The global population aged 65+ is growing exponentially, with over 1.4 billion projected by 2030. Healthcare systems worldwide face unsustainable cost pressures from chronic disease management, hospitalization, and long-term care. Assistive technologies could reduce emergency hospital admissions, delay institutional care, and improve quality of life — but only if people actually use them. The adoption gap is not uniform: older women in low-income settings are significantly less likely to adopt digital health technologies than men, due to lower digital confidence and greater privacy concerns. A WHO European Region review found that digital health interventions are primarily adopted by White, English-speaking, urban, and economically advantaged individuals, meaning the technology risks widening rather than narrowing health inequities.
What’s Been Tried
Consumer health devices (Fitbit, Apple Watch, blood pressure monitors) are designed for tech-literate users and assume smartphone proficiency, reliable internet, and comfort with app-based interfaces — assumptions that fail for large segments of the older population. Institutional telehealth rollouts during COVID-19 dramatically increased telemedicine use but revealed that the least healthy and most socially isolated patients were the most likely to be excluded. Purpose-built assistive devices (PERS/personal emergency response systems, medication dispensers) have simpler interfaces but face stigma, privacy objections, and resistance to being "monitored." Smart home approaches (ambient sensors, voice assistants) avoid the user-interface problem but raise surveillance concerns among potential users and their families. A systematic review of 95 studies identified 10 distinct barrier categories, confirming that no single intervention addresses the multi-factorial nature of adoption failure. The three-fold increase in AT barrier research post-COVID-19 suggests the problem is being studied more than solved.
What Would Unlock Progress
Design approaches that embed assistive functionality into devices older adults already use and trust — televisions, landline phones, familiar household items — rather than requiring adoption of new technology categories. Adaptive interfaces that automatically adjust to declining cognitive and physical capabilities over time, rather than assuming a static user profile. Hybrid care models where healthcare providers actively endorse and support technology use (shown to be the strongest facilitator), integrated with in-person care rather than replacing it. Privacy-by-design architectures that give older adults granular control over what data is collected and who sees it, addressing the trust deficit directly. Community-based digital literacy programs co-designed with older adults, not imposed on them.
Entry Points for Student Teams
A student team could co-design an assistive technology interface with a group of older adults (65+) using participatory design methods, specifically targeting a population segment currently excluded from existing tools (e.g., adults with mild cognitive impairment, non-English speakers, rural residents without broadband). The deliverable would be a functional prototype with user testing results comparing adoption metrics against a standard commercial device. A more research-oriented team could conduct a structured evaluation of existing assistive technologies against the COM-B barrier framework, identifying which specific barriers each product addresses and which it ignores, producing a gap analysis that maps unserved needs.
Genome Tags
Source Notes
This brief connects to the health-digital-therapeutics-outcome-measurement brief — both involve health technologies that work clinically but fail at real-world deployment, though through different mechanisms (regulatory mismatch vs. adoption barriers). The equity dimension is particularly strong here: the constraint:equity tag applies because the adoption gap systematically excludes the populations with the greatest health needs. The ignored-context failure is structural — technologies designed for tech-literate users are deployed to a population where digital literacy is the exception, not the norm. Related areas: universal design principles in consumer electronics, community health worker models for technology adoption in LMICs, privacy-preserving health data architectures, age-friendly smart city design.
"Barriers to and Facilitators of Digital Health Technology Adoption Among Older Adults With Chronic Diseases: Updated Systematic Review," JMIR Aging (2025). PMC: PMC12464506. URL: https://pmc.ncbi.nlm.nih.gov/articles/PMC12464506/. Access date: 2026-02-12.