annotating-variants
Annotates VCF variants and normalizes HGVS nomenclature with public, license-free annotators…
Maps chronic conditions extracted by OpenMed to CMS-HCC V28 risk-adjustment categories and estimates a RAF (Risk Adjustment Factor) score as decision support. Use when the user wants to surface risk-adjustable diagnoses from notes, map ICD-10-CM codes to HCC categories, estimate
$ npx -y skills add maziyarpanahi/openmed --skill coding-hcc-risk-adjustment --agent claude-codeHow it fires
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/coding-hcc-risk-adjustmentContext preview
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Maps chronic conditions extracted by OpenMed to CMS-HCC V28 risk-adjustment categories and estimates a RAF (Risk Adjustment Factor) score as decision support. Use when the user wants to surface risk-adjustable diagnoses from notes, map ICD-10-CM codes to HCC categories, estimate
name: coding-hcc-risk-adjustment description: "Maps chronic conditions extracted by OpenMed to CMS-HCC V28 risk-adjustment categories and estimates a RAF (Risk Adjustment Factor) score as decision support. Use when the user wants to surface risk-adjustable diagnoses from notes, map ICD-10-CM codes to HCC categories, estimate or reconcile a patient/panel RAF, find suspected-but-undocumented HCCs, or check MEAT documentation support. Trigger keywords: HCC, CMS-HCC, V28, RAF score, risk adjustment, Medicare Advantage, hierarchical condition category, MEAT, recapture, suspect HCC, RADV. Pairs after OpenMed NER + ICD-10 coding: consume Disease/Pathology entities from openmed.analyze_text, code them (see coding-icd10), then roll up to HCCs. CMS-HCC mappings and weights are public from CMS. This is a coding-support aid for human review, never autonomous risk-adjustment coding." license: Apache-2.0 metadata: project: OpenMed category: terminology-coding pairs: after version: "1.0"
Surface and risk-adjust the chronic conditions OpenMed extracts by mapping them to **CMS-HCC** categories (the **V28** model, phasing in for payment years 2024–2026) and estimating a **RAF** (Risk Adjustment Factor) score. CMS pays Medicare Advantage plans based on RAF, so accurate, *documented* capture of chronic disease matters — and much of that signal lives in the **narrative note**, exactly what OpenMed reads.
This is **decision support for coders/clinicians**, not autonomous coding. The output is "candidate HCCs + estimated RAF + the documentation that supports (or fails to support) each one," for human validation.
CMS-HCC crosswalks (ICD-10-CM → HCC) and the category coefficients are **public** — CMS publishes them annually. Nothing restricted is bundled.
be on the coded problem list ("suspect HCCs" / recapture).
(Monitored, Evaluated, Assessed, Treated) in the documentation.
Pairs with `coding-icd10` (you need ICD-10-CM codes first) and may consume `mapping-to-snomed` output upstream.
CMS publishes the V28 ICD-10-CM→HCC mapping and the model coefficients. Load them locally (public files) and apply the model:
import csv
# 1) ICD-10-CM -> HCC (V28) crosswalk from the CMS Risk Adjustment files.
icd_to_hcc = {} # "E1122" -> "HCC38" (Diabetes w/ complication)
with open("cms_hcc_v28_icd_map.csv") as fh:
for row in csv.DictReader(fh):
icd_to_hcc[row["icd10cm"].replace(".", "")] = row["hcc_v28"]
# 2) HCC -> RAF coefficient for the relevant model segment (e.g. CNA community).
hcc_weight = {} # "HCC38" -> 0.166 (illustrative)
with open("cms_hcc_v28_coefficients.csv") as fh:
for row in csv.DictReader(fh):
hcc_weight[row["hcc"]] = float(row["coefficient"])
# 3) Apply the HCC hierarchy: a more severe HCC in a family suppresses milder
# ones (e.g. acute MI suppresses angina). Load the hierarchy from CMS.
hierarchy = { # parent HCC -> HCCs it zeroes out
# "HCC37": {"HCC38"}, # illustrative; use the official V28 hierarchy file
}
def apply_hierarchy(hccs: set[str]) -> set[str]:
kept = set(hccs)
for parent in hccs:
kept -= hierarchy.get(parent, set())
return kept
def estimate_raf(icd_codes: list[str], demo_factor: float = 0.0) -> dict:
hccs = {icd_to_hcc[c] for c in icd_codes if c in icd_to_hcc}
hccs = apply_hierarchy(hccs)
disease_raf = sum(hcc_weight.get(h, 0.0) for h in hccs)
return {"hccs": sorted(hccs),
"disease_raf": round(disease_raf, 3),
"estimated_raf": round(disease_raf + demo_factor, 3)}The `demo_factor` (age/sex, dual/disability, institutional status) comes from the CMS demographic tables — add it for a full RAF; omit for the disease component.
1. **Extract** condition spans with OpenMed (Disease/Pathology/Oncology models). 2. **Code** each to ICD-10-CM (see `coding-icd10`) — HCCs key off ICD-10-CM. 3. **Map** ICD-10-CM → V28 HCC via the CMS crosswalk. 4. **Apply the hierarchy** so only the most severe HCC in each family counts. 5. **Sum coefficients** for the correct model segment + add the demographic factor to estimate RAF. 6. **Attach MEAT evidence**: for each candidate HCC, cite the note text that Monitors/Evaluates/Assesses/Treats the condition. No MEAT → flag as "unsupported / needs clinician confirmation," not a captured HCC. 7. **Emit** candidate HCCs + estimated RAF + supporting offsets for human review.
`openmed.analyze_text(..., output_format="dict")` returns `entities`, each a dict with `text`, `label`, `confidence`, `start`, `end`. Use the offsets to pull MEAT evidence sentences:
import openmed
note = ("Problem list: type 2 diabetes with diabetic nephropathy; COPD. "
"Plan: continue metformin, ordered HbA1c, refer nephrology.")
result = openmed.analyze_text(
note,
model_name="disease_detection_superclinical", # Disease category
output_format="dict",
)
DX_LABELS = {"DISEASE", "CONDITION", "PATHOLOGY"}
suspects = []
for ent in result["entities"]:
if ent["label"] in DX_LABELS:
# 1) code to ICD-10-CM (coding-icd10) -> e.g. "E1122"
icd = map_to_icd10cm(ent["text"]) # your coding step
hcc = icd_to_hcc.get(icd)
if hcc:
# MEAT: capture the sentence around the span for the reviewer
sent = note[max(0, ent["start"] - 60): ent["end"] + 80]
suspects.append({"condition": ent["text"], "icd10cm": icd,
"hcc": hcc, "span"Local-first healthcare AI: clinical NER and HIPAA PII de-identification on hardware you control. 2,200+ medical models, 35 model-backed PII languages, and Python, MLX, Android and browser runtimes. Apache-2.0 SDK.
Repo: maziyarpanahi/openmed
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