Scaffold a SMART-on-FHIR app (SMART App Launch v2 — EHR launch and standalone launch, OAuth2 PKCE, scopes, token handling, fhirContext) so an OpenMed-powered tool can run inside Epic or Cerner/Oracle Health. Covers the .well-known/smart-configuration discovery, authorize/token sequence, scopes like patient/DocumentReference.rs and launch/patient, and fetching clinical notes the app then de-identifies and runs NER on locally with OpenMed. Use when the user wants to embed OpenMed inside an EHR, mentions SMART on FHIR, OAuth2 launch, scopes, Epic/Cerner app, or clinician-facing FHIR app. Pairs adjacent.
90%
Does it follow best practices?
Run evals on this skill
Adds up to 20 points to the overall score
Low
Low-risk findings worth noting
To put an OpenMed-powered tool inside a clinician's EHR (Epic, Cerner/Oracle Health), you build a SMART on FHIR app: a web app the EHR launches with an OAuth2 flow, granting scoped, time-limited access to the patient's FHIR data. The app fetches the clinical notes, then runs OpenMed on-device (de-id + NER) — so PHI is processed locally and only de-identified output, if anything, leaves the browser/host.
Reach for this when the deliverable is a clinician-facing app embedded in an
EHR, or a standalone app authorizing against an EHR's FHIR endpoint. Triggers:
"SMART on FHIR", "EHR launch", "OAuth2 scopes", "Epic/Cerner app",
"embed OpenMed in the chart". For pulling notes at cohort scale (no UI), use
exporting-bulk-fhir instead.
launch_uri?iss=<fhir-base>&launch=<opaque>; you complete OAuth2 and inherit
the current patient/encounter context.Both use SMART App Launch v2: OAuth2 authorization code flow with PKCE
(required in v2), discovered via .well-known/smart-configuration.
1. EHR launch URL:
GET https://app.example/launch?iss=https://ehr.example/fhir&launch=abc123
2. Discover endpoints:
GET https://ehr.example/fhir/.well-known/smart-configuration
-> { "authorization_endpoint": ".../authorize",
"token_endpoint": ".../token",
"code_challenge_methods_supported": ["S256"],
"capabilities": ["launch-ehr","client-public","context-ehr-patient", ...] }
3. Redirect the browser to authorize (PKCE + the launch token):
GET .../authorize?
response_type=code&
client_id=YOUR_CLIENT_ID&
redirect_uri=https://app.example/callback&
scope=launch openid fhirUser patient/DocumentReference.rs patient/Patient.r&
state=RANDOM&
aud=https://ehr.example/fhir&
launch=abc123&
code_challenge=BASE64URL(SHA256(verifier))&
code_challenge_method=S256
4. Callback -> exchange code for token:
POST .../token
grant_type=authorization_code&code=...&redirect_uri=...&
client_id=...&code_verifier=ORIGINAL_VERIFIER
-> { "access_token": "...", "token_type": "Bearer", "expires_in": 3600,
"scope": "patient/DocumentReference.rs ...",
"patient": "Patient-123", "encounter": "Encounter-9",
"id_token": "..." }
5. Call FHIR with the token:
GET https://ehr.example/fhir/DocumentReference?patient=Patient-123&type=clinical-note
Authorization: Bearer <access_token>The token response carries the launch context (patient, sometimes
encounter, and in v2 a fhirContext array). Use patient to scope every
subsequent query.
SMART v2 scopes are <level>/<Resource>.<permissions> where permissions are a
subset of c r u d s (create/read/update/delete/search) — .rs = read +
search. Request the minimum:
| Scope | Why |
|---|---|
launch | EHR launch context (omit for standalone; use launch/patient) |
openid fhirUser | Identify the launching user |
patient/Patient.r | The in-context patient demographics |
patient/DocumentReference.rs | Read + search the patient's clinical notes |
patient/Condition.rs | (optional) reconcile against existing problems |
offline_access | (optional) refresh token for background work |
Prefer patient/… (current-patient) over user/… (everything the user can see)
to keep the blast radius small. Granular v2 scopes (.rs) are stricter than the
v1 .read/.write forms — use them.
Notes arrive as DocumentReference → content.attachment (often base64 or a
url to a Binary). Decode, then process locally:
import base64, openmed
note_b64 = document_reference["content"][0]["attachment"]["data"]
note = base64.b64decode(note_b64).decode("utf-8")
# De-identify on-device before anything else touches it
deid = openmed.deidentify(note, method="replace", policy="hipaa_safe_harbor")
# Clinical NER on the (de-identified or raw, per your IRB) text
entities = openmed.analyze_text(deid.text, model_name="disease_detection_superclinical")
# -> render highlights in the SMART app UI, or export FHIR (exporting-to-fhir)OpenMed models run on-device after a one-time download — no note text is sent to a third party by OpenMed. Keep the access token and any PHI in memory only; do not log them.
DocumentReference notes →
openmed.deidentify → openmed.analyze_text.exporting-to-fhir) → to_bundle (assembling-fhir-bundles) → write back
with a write scope (e.g. patient/Condition.c) if your use case persists
findings. Validate first (validating-us-core).openmed_analyze_text and openmed_deidentify — same on-device guarantees.code_verifier per launch; never reuse.state and aud. Reject the callback if state does not match;
set aud to the FHIR base or the EHR will reject the authorize request.expires_in; use offline_access +
refresh tokens only if you genuinely need background access, and store them
securely (never client-side for confidential clients).scope and degrade gracefully..well-known/smart-configuration: https://hl7.org/fhir/smart-app-launch/conformance.htmlmaziyarpanahi/openmed
7456108
If you maintain this skill, you can claim it as your own. Once claimed, you can manage eval scenarios, bundle related skills, attach documentation or rules, and ensure cross-agent compatibility.