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Healthcare (Providers, Pharma, Medical Devices) / Interface Design & UX Engineering

Interface Design for Healthcare: Clinical UX, Patient Apps

Healthcare interface design balances clinical efficiency, patient safety, accessibility, and regulatory compliance: a tighter constraint set than almost any other industry. BearPlex designs and ships clinical workflow interfaces (EHR-integrated tools clinicians actually want to use), patient-facing apps (with the accessibility and trust standards healthcare requires), and AI-augmented experiences (where AI assistance is presented in ways clinicians can validate). Our work spans both visual and interaction design, prototyping, and the engineering integration that takes designs from Figma to FHIR-integrated production systems.

Interface Design & UX Engineering visual world

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Built from the same service world as the core offering, with industry-specific use cases and compliance notes.

$187B
Healthcare AI market by 2030
Source: Grand View Research 2025
67%
of US health systems piloting LLM agents in 2025
Source: American Hospital Association 2025
65.3%
AI Overview coverage on healthcare queries (highest of any vertical we tracked)
Source: Backlinko Healthcare AI Search Study 2025
2.7 hours
average daily clinician burden on EHR documentation eliminated by AI ambient scribes
Source: Mayo Clinic AI Initiative 2025

Why Interface Design & UX Engineering matters in Healthcare (Providers, Pharma, Medical Devices)

Healthcare has the highest cost of bad interface design of any industry. Clinician burnout from poorly-designed EHR interfaces is documented as a top driver of physician dissatisfaction; patient-facing apps with poor accessibility actively exclude users who need care; medication error rates correlate with interface clarity. Beyond clinical impact, bad design has real regulatory consequences: FDA guidance on Software as a Medical Device requires usability validation; Section 1557 of the ACA requires accessibility for users with disabilities; state medical board attribution rules govern how AI-augmented decisions can be presented. The interfaces that work in healthcare are evidence-based (informed by clinical workflow observation, not just designer opinion), accessible by default (WCAG 2.2 AA at minimum), respectful of clinician time (every click and pixel of attention costs), and clear about AI involvement when applicable (clinicians need to know what the AI suggested vs what the human decided). Patient-facing healthcare apps add the constraint of trust: patients need clear, accurate, accessible information about their health, presented in ways that don't create undue anxiety or override clinical judgment. The teams that succeed in healthcare design embed in clinical workflows during research, ship with accessibility as a hard requirement, and work closely with clinical informaticists rather than designing in isolation.

What makes an interface clinician-focused

Clinician-focused interface design is a specific discipline, not a synonym for healthcare design. A patient-facing app and a clinician-facing tool built by the same team, for the same health system, on the same data, should look and behave almost nothing alike. The difference comes down to five design constraints that only apply on the clinician side:

  • The user is interrupted, always. Patient apps are used by someone sitting still with attention to spare. Clinical tools are used standing up, mid-shift, between rooms, often after being pulled away twice. Every screen has to survive being abandoned and resumed. State that silently resets is not a minor annoyance, it is the reason a clinician goes back to paper.
  • Repetition dominates, not onboarding. A patient may use a portal four times a year. A nurse hits the same screen two hundred times a shift. That inverts the usual priorities: discoverability and hand-holding matter far less than keystroke count, target size, and consistent element placement. Optimizing a clinician tool for a first-time user is the classic mistake.
  • The expert is the user. Clinicians do not need concepts explained, they need data density. Interfaces that hide information behind progressive disclosure to look clean force experts to click through to what they already know they need. Density done well is a feature here and a defect almost everywhere else.
  • Errors have clinical consequences. Confirmation, undo, and clear system state are not politeness, they are safety mechanisms. Anything that changes an order, a dose, or a chart needs an unambiguous representation of what is about to happen.
  • The interface is not the system of record. Clinicians work inside Epic, Cerner, Athena, or Meditech whether or not your tool exists. A clinician-focused tool has to earn its place inside or beside that workflow, usually through SMART on FHIR, and anything that forces a second login or a duplicate data entry step will be abandoned regardless of how good it looks.

The practical test we apply: watch a clinician complete the task on their current system, count the clicks and the context switches, then check whether the new design reduces both. If it does not, it is a redesign rather than an improvement, and clinicians can tell the difference immediately.

Typical interface design & ux engineering use cases in healthcare (providers, pharma, medical devices)

ApplicationDescriptionTimelineTech stack
Clinical workflow interface design (EHR-integrated)Clinical workflow tools integrating with Epic, Cerner, Athena, or Meditech via SMART on FHIR. Fewer clicks per task, better data capture, AI assistance.12-20 weeksFigma for design · React + SMART on FHIR for implementation · FHIR R4 APIs · EHR-specific deployment patterns
Patient-facing app design (mobile and web)Patient-facing apps for portal access, telemedicine, medication and condition management, follow-up. Accessible from day one, tested with real patients.10-16 weeksFigma for design · React Native or React for implementation · WCAG 2.2 AA from design through QA · Patient usability research
AI-augmented clinical decision support UIInterfaces presenting AI suggestions clinicians can validate: source documents, confidence indicators, dissenting evidence. Supports clinical judgment.12-16 weeksFigma for design · React for implementation · AI explanation patterns · Citation surfacing
Accessibility audit and remediationAudit existing healthcare apps against WCAG 2.2 AA and Section 508 standards; remediate identified issues; train teams on ongoing accessibility practice.6-10 weeksManual + automated accessibility testing · Screen reader testing · Remediation plans with priority ranking · Team training
Clinical research participant-facing UXParticipant-facing interfaces for clinical trials and registries: informed consent flows, questionnaires, study communications. Readable and accessible.10-14 weeksFigma for design · React for implementation · Plain-language informed consent patterns · Multilingual support

What we've learned deploying interface design & ux engineering in healthcare (providers, pharma, medical devices)

From the field

Three patterns from BearPlex healthcare design engagements: (1) Clinical workflow research is irreplaceable; clinicians don't describe their workflows accurately; we observe shifts, time tasks, and watch where clinicians work around the system before designing anything; designs based on interview alone consistently miss the most important friction; (2) Accessibility is cheaper to build in than to retrofit (by 5-10×) and the alternative (settling lawsuits, losing federal funding, excluding patients) is much more expensive than designing accessibly from day one; (3) AI in clinical UI needs explicit affordances for human override: when the AI suggests a diagnosis or treatment, the interface must make it trivially easy for the clinician to disagree, with the disagreement captured in the audit trail; this isn't optional given current liability and regulatory frameworks.

REGULATORY CONSIDERATIONS

Healthcare (Providers, Pharma, Medical Devices) compliance considerations

FDA guidance on Software as a Medical Device (SaMD) governs many AI-augmented clinical interfaces; usability validation is part of the SaMD framework. Section 1557 of the Affordable Care Act prohibits discrimination based on disability: meaning healthcare interfaces must be accessible to users with disabilities. WCAG 2.2 AA is the typical standard; Section 508 applies to federal contractors. State medical board attribution rules govern how AI-augmented decisions can be presented (the clinician remains responsible for the decision; AI is a tool, not a decision-maker). For patient-facing apps handling PHI, HIPAA Privacy and Security Rules apply to the data layer; the interface must support the data handling correctly. For pediatric apps, COPPA and additional state-level child privacy rules apply. BearPlex designs around these constraints from day one: accessibility built in, AI affordances designed correctly, clinical workflow observation informing the design.

HIPAA
Protected Health Information must remain within Business Associate Agreement boundaries: restricts most managed AI services
HITRUST CSF
Healthcare's most adopted security framework: required by most large payors
FDA Software as a Medical Device (SaMD)
Clinical decision support AI may require FDA clearance depending on autonomy level
21 CFR Part 11
Electronic signatures and records: affects how AI-generated documentation is captured
State medical board licensure
AI-generated clinical content must be reviewable by a licensed clinician in most states
FAQ

Common questions

Clinician-focused interface design optimizes for an expert user who is interrupted constantly and repeats the same task hundreds of times per shift, which produces almost the opposite design decisions from patient-facing work. In practice it means high information density rather than progressive disclosure, because the user already understands the concepts and needs the data; ruthless reduction of clicks and context switches, because repetition multiplies every wasted interaction; interfaces that survive being abandoned mid-task and resumed, because clinical work is interrupt-driven; explicit confirmation and undo on anything that changes an order, a dose, or a chart; and integration into the existing EHR workflow through SMART on FHIR rather than a separate destination with its own login. The test that matters is comparative: observe the clinician completing the task on their current system, count clicks and context switches, and confirm the new design reduces both.

Yes: for healthcare engagements we staff designers and engineers with prior healthcare experience. They understand clinical workflows, the constraints of EHR integration, accessibility requirements, the regulatory landscape, and the unique trust requirements of patient-facing healthcare apps.

Yes: via SMART on FHIR for in-EHR clinical apps, FHIR Bulk Data for analytical integrations, HL7 v2 for legacy interfaces. We've shipped against all four major EHR vendors. SMART on FHIR is mature and well-documented at this point; integration work is substantial but well-understood.

WCAG 2.2 AA is the minimum standard; Section 508 for federal contracts. We design for accessibility from day one (color contrast, focus management, keyboard navigation, screen reader compatibility, semantic HTML), test with both automated tools (axe, WAVE) and manual testing including screen readers, and structure remediation if existing systems need to be brought up to standard. Many of our clinical clients also require usability testing with users who have disabilities.

Yes: important and growing area. We design AI affordances that support clinical judgment rather than bypass it: clear surfacing of AI suggestions vs human decisions, confidence indicators, source citation for AI claims, easy override paths captured in the audit trail. The goal is interfaces clinicians want to use because they make their work better, not interfaces that replace clinical judgment.

Yes: core to our healthcare design process. Methods include: workflow observation (shadowing clinicians), structured interviews with multidisciplinary clinical teams, prototype testing in simulated workflows, and post-deployment field studies. For high-stakes clinical interfaces (medication ordering, diagnostic decision support), we structure usability research to meet FDA SaMD validation requirements.

From $15,000 and typically $25,000-$80,000 (multi-phase programs range higher) for a 10-16 week design + implementation engagement depending on scope and complexity. Pure design engagements (no implementation) are smaller. Full design + implementation for FHIR-integrated clinical workflows including SaMD validation are larger. Includes: clinical workflow research, design, prototyping, accessibility-first implementation, usability testing, deployment, and 30-day support.

Yes: common engagement. We design for accessibility (WCAG 2.2 AA), readability (8th-grade reading level for general patient-facing content; lower for specific populations), multilingual support (typically 5-15 languages with cultural adaptation, not just translation), and respect for varied digital literacy levels. For Medicaid populations, geriatric populations, or pediatric populations, we adapt our design approach to the specific user research findings for that population.

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