Healthcare Brain Clinical Findings NER — Clinical Entity Extraction by Genzeon Platform

Healthcare Brain Clinical Findings NER is a transformer-based clinical Named Entity Recognition model developed by Genzeon Platforms for automated extraction of clinical findings, diseases, conditions, anatomical locations, and clinical modifiers from unstructured clinical text. Built on Bio_ClinicalBERT and fine-tuned on biomedical corpora, this model delivers production-grade entity recognition across 8 clinical finding and modifier categories.


Model Details

Property Value
Developed by Genzeon Platforms
Base model Bio_ClinicalBERT
Architecture SpaCy Transformer + TransitionBasedParser (NER)
Parameters ~110M
Tagging scheme BIO (17 labels)
Max sequence length 512 tokens (strided spans: window=64, stride=48)
Framework SpaCy 3.8 + spacy-transformers
License Apache-2.0

Intended Use

Healthcare Brain Clinical Findings NER is designed for healthcare AI pipelines that need to extract structured clinical findings from unstructured clinical text. Primary use cases include:

  • Clinical text understanding — extracting diseases, findings, and conditions from EHRs, discharge summaries, progress notes, and clinical narratives.
  • Clinical decision support — identifying relevant clinical findings for downstream reasoning and prior authorization workflows.
  • Medical literature mining — extracting structured entities from biomedical abstracts and publications for research and evidence synthesis.
  • EHR data enrichment — converting free-text clinical documentation into structured data for analytics and population health.
  • Clinical research — extracting clinical findings from large corpora of clinical narratives for retrospective studies.

Entity Types

The model recognizes 8 clinical finding and modifier entity types using BIO tagging (17 labels total):

Category Entity Type Description Examples
Diagnoses DISEASE Named diseases, disorders, syndromes diabetes mellitus, hypertension, pneumonia
Observations CLINICAL_FINDING Lab results, exam findings, clinical observations elevated WBC, fever, tachycardia
Pathology CONDITION Pathological states and processes inflammation, fibrosis, necrosis
Anatomy BODY_LOCATION Anatomical structures and body sites left ventricle, liver, knee joint
Severity SEVERITY Severity descriptors mild, moderate, severe, acute
Laterality LATERALITY Side/direction qualifiers left, right, bilateral, anterior
Temporal COURSE Disease progression and duration chronic, progressive, recurrent
Status CLINICAL_STATUS Current clinical state active, resolved, stable, worsening

Note: Two additional entity types (SYMPTOM, SIGN) are architecturally supported but require restricted clinical datasets (i2b2 2010, ShARe/CLEF) for training data. Contact Genzeon Platforms for enterprise models trained with full entity coverage.


Performance

Overall Metrics

Metric Precision Recall F1
Micro avg 0.6558 0.5895 0.6209
Macro avg 0.6093

Per-Entity Metrics (Strict: Exact Span + Exact Type)

Entity Precision Recall F1 Support
DISEASE 0.7638 0.7314 0.7472 4,937
BODY_LOCATION 0.7306 0.6314 0.6774 5,214
SEVERITY 0.6210 0.7440 0.6770 567
COURSE 0.6214 0.7110 0.6632 180
CLINICAL_STATUS 0.6110 0.6970 0.6512 489
CONDITION 0.5000 0.5450 0.5218 347
LATERALITY 0.4670 0.5710 0.5140 259
CLINICAL_FINDING 0.5050 0.3650 0.4237 3,011

Per-Entity Metrics (Relaxed: Overlapping Span + Exact Type)

Entity Precision Recall F1
DISEASE 0.9912 0.9458 0.9680
BODY_LOCATION 0.9979 0.8533 0.9200
CONDITION 0.8237 0.8943 0.8576
SEVERITY 0.7813 0.9323 0.8500
CLINICAL_FINDING 0.9974 0.7271 0.8410
CLINICAL_STATUS 0.7712 0.8966 0.8292
COURSE 0.7243 0.8470 0.7810
LATERALITY 0.6382 0.7865 0.7049

Relaxed matching shows significantly higher scores, indicating the model captures entity semantics well — boundary precision is the primary area for improvement.


Usage

import spacy

# Load the model
nlp = spacy.load("genzeonplatform/healthcare-brain-clinical-findings-ner")

# Process clinical text
text = """Patient presents with severe chest pain radiating to the left arm,
associated with shortness of breath and diaphoresis. History of chronic
hypertension and type 2 diabetes mellitus."""

doc = nlp(text)

# Extract entities
for ent in doc.ents:
    print(f"  [{ent.label_:20s}] {ent.text}")

Output:

  [SEVERITY            ] severe
  [DISEASE             ] chest pain
  [LATERALITY          ] left
  [CLINICAL_FINDING    ] shortness of breath
  [DISEASE             ] diaphoresis
  [DISEASE             ] chronic hypertension

Batch Processing

import spacy

nlp = spacy.load("genzeonplatform/healthcare-brain-clinical-findings-ner")

clinical_notes = [
    "MRI of the right knee reveals a complete ACL tear with moderate joint effusion.",
    "Patient has mild fever with productive cough and bilateral crackles. Diagnosed with pneumonia.",
    "Chronic heart failure with reduced ejection fraction, currently stable on medication.",
]

for doc in nlp.pipe(clinical_notes, batch_size=32):
    findings = {}
    for ent in doc.ents:
        findings.setdefault(ent.label_, []).append(ent.text)
    print(f"Text: {doc.text[:60]}...")
    for entity_type, mentions in findings.items():
        print(f"  {entity_type}: {', '.join(mentions)}")
    print()

Structured Output

import spacy
import json

nlp = spacy.load("genzeonplatform/healthcare-brain-clinical-findings-ner")

text = "Severe bilateral pneumonia with progressive respiratory failure."
doc = nlp(text)

# Structured extraction
entities = [
    {
        "text": ent.text,
        "type": ent.label_,
        "start": ent.start_char,
        "end": ent.end_char,
    }
    for ent in doc.ents
]

print(json.dumps(entities, indent=2))

Training Details

  • Developed by: Genzeon Platforms
  • Base model: Bio_ClinicalBERT (domain-specialized BERT for clinical text)
  • NER architecture: spacy.TransitionBasedParser.v2 with TransformerListener
  • Hidden width: 256 | Maxout pieces: 3
  • Training data: NCBI Disease Corpus, BC5CDR (Disease subset), MedMentions (ST21pv)
  • Training steps: ~15,000 (early stopping, patience=5000)
  • Epochs: ~5
  • Learning rate: 5e-5 (linear schedule with warmup, 250 steps)
  • Batch strategy: Padded batching (size=500)
  • Optimizer: Adam (weight decay 0.01, gradient clipping 1.0)
  • Max sequence length: 512 tokens (strided spans: window=64, stride=48)
  • Dropout: 0.1
  • Seed: 42
  • Best model selection: By entity-level F1 score

Training Data

Dataset Split Documents Source
NCBI Disease Corpus train/dev/test 793 NCBI
BC5CDR (Disease subset) train/dev/test 1,500 BioCreative V CDR
MedMentions (ST21pv) train/dev/test 4,392 GitHub
Total train/dev/test 3,727 / 1,478 / 1,479

Entity mapping: UMLS semantic types from MedMentions are mapped to target categories (e.g., T047→DISEASE, T184→SYMPTOM, T023→BODY_LOCATION). Modifier entities (SEVERITY, LATERALITY, COURSE, CLINICAL_STATUS) are extracted via context-aware keyword gazetteers.


Limitations

  • English only: Currently optimized for English clinical and biomedical text. Multilingual support is on the Genzeon Platforms roadmap.
  • SYMPTOM and SIGN types: Require restricted clinical datasets (i2b2 2010, ShARe/CLEF) not included in this release; these entity types are architecturally supported but not active. Contact Genzeon Platforms for enterprise models with full entity coverage.
  • Context window: Bio_ClinicalBERT supports 512 tokens; longer documents are handled via strided spans (window=64, stride=48) but very long clinical notes should be chunked with overlap for best results.
  • Biomedical bias: Trained primarily on biomedical literature abstracts (PubMed). Performance on informal clinical notes (e.g., nursing notes, patient messages) may vary — contact Genzeon Platforms for enterprise support.
  • Entity boundaries: Relaxed matching significantly outperforms strict matching, indicating room for boundary precision improvement.
  • Human-in-the-loop recommended: For clinical decision-making, pair with expert review.

Related Genzeon Platforms Models


About Genzeon Platforms

Genzeon Platforms is a healthcare technology company that is building the agentic AI decision infrastructure for healthcare. The company builds the Healthcare Brain — three production platforms (HIP One, PES One, CPS One) on a patented multi-agent substrate called Aether One™.

Production Deployment

Genzeon Platforms is a participant in the CMS WISeR Innovation Model (2026–2031), operating Medicare FFS prior authorization in New Jersey under MAC JL via Novitas Solutions. Live since January 1, 2026.

Q1 2026 production results:

  • 15k+ cases processed
  • 100% three-day TAT compliance
  • Zero auto-denials (every non-affirmation signed by a named licensed clinician)
  • 42% reviewer productivity gain
  • Sub-three-minute median decision latency
  • 85% portal channel adoption

Scale

  • 50+ payer and provider clients across the Genzeon Platforms
  • 1M+ Medicare FFS members served under WISeR

Patent Portfolio

  • 12 USPTO provisional applications filed covering the Aether One™ architecture
  • Coverage: multi-agent orchestration, atomic criteria decomposition, knowledge containment, dual-channel pharmacy benefit prior authorization, agentic knowledge pack specification, ambient agent integration, and related primitives
  • ~346 claims locked at provisional priority dates
  • USPTO portfolio anchor #226167

Compliance Posture

  • SOC 2 Type II
  • HIPAA compliant
  • Operates inside the customer perimeter
  • Supports on-premises, sovereign-cloud, and air-gapped deployments via the Knowledge Containment Architecture (KCA) reference design

Partnerships

  • 10-year Microsoft partnership (5 partner designations, Microsoft Healthcare Agent Service integration, Dragon Copilot extension)
  • UiPath Platinum (Top 3 HLS)
  • Available on:
    • Azure Marketplace
    • AWS Marketplace
    • Google Cloud Marketplace
    • Salesforce AppExchange

Open Specifications

Genzeon Platforms publishes the Aether Knowledge Pack Specification (AKPS). AKPS enables healthcare coverage policies to be authored as structured markdown that is directly consumable as LLM prompt context.

See: github.com/genzeon/aether-akps

Model Policy

Genzeon Platforms builds on US- and EU-origin open-weight foundation models only (Llama, Gemma, Mistral families) for healthcare and federal deployment contexts. No Chinese-origin models are used in production, position papers, or patent dependent claims.

Headquarters

Exton, Pennsylvania, USA

Genzeon Platforms is a Genzeon company.


Where to Find More

Resource Link
Company website https://genzeon.one
Healthcare Brain overview https://genzeon.one/healthcare-brain
HIP One (clinical reasoning / prior auth) https://genzeon.one/hip-one
PES One (patient & member engagement) https://genzeon.one/pes-one
CPS One (AI governance & compliance) https://genzeon.one/cps-one
Aether One™ architecture https://genzeon.one/aether-one
Patents https://genzeon.one/patents
WISeR production deployment https://genzeon.one/wiser
AKPS open spec https://github.com/genzeon/aether-akps
Security & trust https://genzeon.one/security
LinkedIn https://www.linkedin.com/company/117124252
Contact https://genzeon.one/contact

Citation

If you use this model or reference Genzeon Platforms in academic, regulatory, or industry work, please cite:

Genzeon Platforms (2026). Healthcare Brain Clinical Findings NER is part of Genzeon Platform's suite of healthcare AI tools designed to accelerate clinical research and improve patient care.

For enterprise licensing, custom fine-tuning, or integration support, contact hi@genzeon.one.

Downloads last month
-
Inference Providers NEW
This model isn't deployed by any Inference Provider. 🙋 Ask for provider support

Dataset used to train genzeonplatform/healthcare-brain-clinical-findings-ner

Spaces using genzeonplatform/healthcare-brain-clinical-findings-ner 3

Evaluation results