
AI coding assistants are great at generic software — and quietly wrong about healthcare. We just published the initial set of Reason healthcare tech skills, a domain-aware workflow stack for the people actually building this stuff. Try it and tell us what's missing.
Most AI coding assistants are excellent at generic software and quietly wrong
about healthcare. Ask one to scaffold a FHIR API and it gives you a service that
looks right — until you notice it's holding a Condition as a string, missing
US Core must-supports, and using a Patient.identifier system that doesn't
exist. Ask it to do a HIPAA review and it produces a confident checklist with
no bearing on the code in front of it. Ask it to model an oncology product
without telling it about line-of-therapy, performance status, or biomarker
testing — and you'll get something that has never met a real patient.
The model isn't stupid. It's generic. And healthcare is the opposite of generic: it's a domain with a regulator in every room, a code system behind every concept, a clinical workflow around every screen, and a procurement process around every decision.
This post is about what we think domain-aware AI workflows actually look like in practice, and the announcement of a project that's been a long time coming: the initial set of Reason healthcare tech skills — an open, installable set of skills for AI coding agents, purpose-built for the people who build healthcare technology.
You can install them now:
npx skills add https://github.com/reason-healthcare/health-skills/tree/distThe repository lives at github.com/reason-healthcare/health-skills, and it's open source. Try them, break them, fork them, and most of all — tell us what you wish they did that they don't.
In a healthcare software project, a domain-aware AI workflow has a few properties that the generic version doesn't:
Generic AI is fine for a lot of this in isolation. The problem is the cost of getting it wrong. A wrong FHIR profile is a downstream integration bill. A wrong compliance finding is a release that shouldn't have shipped. A wrong discoverability story is a product that won't get adopted. Domain-awareness is what makes those costs tractable.
The natural way to package domain-aware workflows for AI agents is a skill — a focused, self-contained set of instructions, references, and helpers that an agent loads when it recognizes a matching task. Skills are composable, versionable, and easy to share. They survive across agents and across teams. They don't require anyone to adopt a new product, a new runtime, or a new vendor. They just need an agent and a use case.
We've been writing healthcare skills internally for over a year — for our own client work, for our own platform, and for our own teams. The majority of that material has been hardened through real engagements and is now ready to share.
The package is vendor-neutral. None of the skills require ReasonHub to be useful. They'll work with Claude Code, Pi, OpenAI Codex, Google's agent tooling, or whatever you happen to run. The only requirement is an agent that understands the skills format.
The skills are organized by where they sit in the lifecycle of a healthcare software project. The same skeleton is useful in greenfield work and brownfield work — what changes is which skills fire, and when.
health-init —
Start here, in any project. The skill reads repository evidence and
persists a small .health-context.yaml (jurisdiction, primary audience,
project stage) so every other healthcare skill downstream doesn't have to
re-derive the same answers from scratch. Crucially, it doesn't force a
confident classification from weak signals — a sparse repo or a tooling-only
directory gets an unclear, not a confident guess.
health-product-discovery —
Stress-test a healthcare product idea before committing to specs. Maps
incentive structures (in healthcare, the person who uses, buys, benefits
from, and pays for the product are almost never the same person),
adoption dynamics (EHR gravity, clinician burnout, committee decisions),
evidence requirements, payment-model dependencies, and workflow
integration. Comes with explicit US and EU market overlays so payment,
procurement, and market-access assumptions stay visible and debatable.
health-fhir-api-design —
Design FHIR R4 API interactions: search queries, operations ($expand,
$validate, $translate, etc.), validation strategy, workflow patterns,
and custom SearchParameter / OperationDefinition resources. You give
it the requirement; it gives you a concrete R4 approach with the
trade-offs documented. This is the interaction layer; pair it with
health-fhir-modeling.
health-fhir-modeling —
Map domain concepts to FHIR R4 resources and understand profile
compliance. Selects the right base resources, reads US Core and QI-Core
constraints, models relationships, finds existing extensions, and applies
terminology bindings. Produces annotated example instances — built for
app developers, not profile authors.
This is the part generic AI workflows tend to skip, and the part that matters most in a regulated domain. Four skills, all report-only:
health-refactor —
Produce a scope-bounded, plan-only refactoring assessment for healthcare
codebases. Resolves a bounded file set via git range, file area, or
symbol/dependency context. Proposes US, EU, or US+EU overlays from
evidence. Then orchestrates healthcare-aware code refactoring,
human-factors review, and regulatory review into a unified plan with
findings and a prioritized checklist. Never modifies code.
health-docs —
Audit and consolidate documentation against a seven-dimension hierarchy
with jurisdiction-aware regulatory detection. Two modes: analyze for a
coverage assessment, and document for consolidation and gap-filling.
Reuses .health-context.yaml when present, and composes other healthcare
skills for deep review passes.
health-compliance-review —
Deterministic regulatory and security findings from engineering evidence.
Covers HIPAA (HHS/OCR), ONC (21st Century Cures, HTI-1), CMS, FDA
(SaMD/510(k)), GDPR (EU DPA), NHS Digital (DTAC), EHDS, and ISO 27001.
Selects the right jurisdiction overlay from repo evidence; if it's mixed,
it says so explicitly rather than silently defaulting to US. No code
changes. Three tiers of confidence — confirmed, likely, and inferred —
so reviewers can spend their time where it counts.
health-human-factors —
Review healthcare and EHR software UIs against a comprehensive design
style guide grounded in NIST, FDA, IEC 62366, ISO 9241, ISO 14971, WCAG
2.1, ONC SAFER, and HL7 FHIR. Patient safety, usability, accessibility,
and data clarity — without modifying code or designs. The findings from
this skill are the ones you want a clinician to read.
We didn't want to ship something that competes with the structured agent workflows people already use. The skills are designed to slot in as overlays on top of common healthcare-adjacent frameworks:
health-init before constitution, health-product-discovery
during specify, the FHIR pair during plan, and the verification set
during analyze.health-product-discovery
during explore, the FHIR pair during continue-change for Design/Specs,
health-refactor and health-docs during apply-change, and the full
verification set during verify-change.health-* skills work as specialist overlays on top of
the agent roles, not as replacements. bmad-analyst gets health-init
and health-product-discovery; bmad-architect gets the FHIR pair;
bmad-ux-designer gets health-human-factors; bmad-agent-dev gets
health-refactor and the verification discipline.The full mapping lives in
docs/framework-skill-mapping.md,
including copy-pasteable AGENTS.md snippets for each framework.
For multi-skill work, the biggest efficiency gains come from composition — running several skills in parallel against the same scope and merging the findings:
| Situation | Recommended composition |
|---|---|
| A code change needs structural, compliance, and UX review | health-refactor + health-compliance-review + health-human-factors |
| A documentation push needs technical, regulatory, and integration coverage | health-docs + health-compliance-review + health-fhir-api-design + health-human-factors |
| A FHIR-heavy feature needs both modeling and interaction design | health-fhir-modeling + health-fhir-api-design |
| A new healthcare product idea needs market validation before specs are written | health-init + health-product-discovery |
Skills accept a scoped invocation mode — a "Modes" section that defines both standalone and scoped behavior. In scoped mode, the skill accepts a pre-determined file list from an orchestrating skill and returns findings-only output. That's how the composition pattern works without turning the agent into a chatbot.
A few decisions we made early that shaped the project:
skills/ on
main. Local install trees under .agents/skills/, .claude/skills/, and
the like are generated by scripts/compose_skills.py, not hand-edited.
Consumers install from the dist branch, which is a clean
publishable layout built by scripts/publish_dist_branch.py. Edit
source on main → validate → compose → publish to dist..curated vs .experimental. Curated skills are reviewed and ship to
dist. Experimental skills are still being shaped and don't. The first
eight skills are curated; everything new starts in experimental and
graduates.validate_skill_library.py,
compose_skills.py, and the skills.sh compatibility check. If a skill
doesn't validate, doesn't compose, and isn't installable, it doesn't ship.docs/skill-creation-guide.md.profiles/<agent>/<skill>/ as SKILL.append.md or
agents/openai.yaml overlays. The base skill stays clean; the
agent-specific version is the only one that drifts.references/us-*.md and references/eu-*.md overlays, with
one top-level skill per concern. The skill selects the right one from
evidence, including the option of us+eu or unclear if the repo
doesn't commit.The goal is for the skills to behave like a real, maintained open-source library — not a one-off dump.
The shortest path:
# Install the full curated set
npx skills add https://github.com/reason-healthcare/health-skills/tree/distThen point your agent at any healthcare repository and start with
health-init. It will read the repo, propose values for jurisdiction,
audience, and stage, and persist a .health-context.yaml so the rest of
the skills can reuse them. From there, the rest of the lifecycle is yours
to walk.
If you want to author or contribute, the contribution guide is in
DEVELOPER.md.
If you want to read the rationale before you install, the
docs/
directory has the repository model, the framework mapping, the
jurisdiction-aware overlay design, and the skill creation guide.
This set is shaped by the projects we and our clients have actually shipped. The next set should be shaped by the projects you are shipping — the ones we don't see.
If you're building in health tech — provider, payer, vendor, society, consultant, in-house team, public sector, research, anything — and you want AI workflows that respect the standards, the regulators, the clinicians, and the patients in the loop, we'd love to hear from you. Specifically:
dist branch is generated; main is where the work
happens.Thanks for reading. The best healthcare AI isn't the one that knows the most about medicine. It's the one that knows the most about your medicine, your market, your patients, and your standards. Skills are how we get there. Let's build the rest of the catalog together.