radiomics-pathomics-fusion-agent

SkillAI & models

The Radiomics Pathomics Fusion Agent integrates multimodal medical imaging data from radiology (CT, MRI, PET) and digital pathology (H&E, IHC whole slide images) with clinical and genomic data using deep learning fusion architectures.

Instructions available. Your AI can read the instructions. Execution depends on the setup they require.

Add ahel to your AI once: Claude, ChatGPT, Cursor, Claude Code or Codex. Then ask it to use this.

Then ask your AI: use the radiomics-pathomics-fusion-agent skill

About this skill

The largest open-source medical AI skills library for OpenClaw🦞.

What this skill tells your AI

The instructions your AI receives, as published by freedomintelligence/openclaw-medical-skills in skills/radiomics-pathomics-fusion-agent/SKILL.md and read by ahel’s review.


name: 'radiomics-pathomics-fusion-agent' description: 'AI-powered multimodal fusion of radiology (CT/MRI/PET) and pathology (H&E/IHC) imaging with clinical and genomic data for comprehensive cancer diagnostics and treatment prediction.' measurable_outcome: Execute skill workflow successfully with valid output within 15 minutes. allowed-tools:

  • read_file
  • run_shell_command

Radiomics Pathomics Fusion Agent

The Radiomics Pathomics Fusion Agent integrates multimodal medical imaging data from radiology (CT, MRI, PET) and digital pathology (H&E, IHC whole slide images) with clinical and genomic data using deep learning fusion architectures. It enables comprehensive cancer phenotyping, treatment response prediction, and prognostic modeling.

When to Use This Skill

  • When predicting treatment response using multimodal imaging.
  • For comprehensive tumor phenotyping combining macro and micro views.
  • To identify imaging biomarkers correlated with genomic features.
  • When building prognostic models from combined radiology-pathology.
  • For AI-powered second opinion integrating all imaging modalities.

Core Capabilities

  1. Cross-Modal Fusion: Integrate radiology and pathology features using attention.

  2. Radiomics Extraction: Compute 3D texture, shape, intensity features from CT/MRI.

  3. Pathomics Extraction: Extract histopathological features from WSI.

  4. Clinical Integration: Combine imaging with clinical variables and genomics.

  5. Treatment Response Prediction: Predict chemotherapy, immunotherapy response.

  6. Survival Prediction: Multi-modal prognostic modeling.

Supported Imaging Modalities

ModalityFeatures ExtractedResolution
CTTexture, shape, densityVolumetric 3D
MRIMulti-sequence, perfusionVolumetric 3D
PETSUV, metabolic featuresVolumetric 3D
H&E WSINuclear, tissue architecture40x magnification
IHC WSIMarker quantification20-40x
Multiplexed IFSpatial protein patternsSubcellular

Fusion Architectures

ArchitectureMethodStrengths
Early FusionConcatenate featuresSimple, baseline
Late FusionCombine predictionsModular
Attention FusionCross-modal attentionInterpretable
Multimodal TransformerSelf-attention across modalitiesState-of-art
Graph FusionGNN for relationshipsSpatial awareness

Workflow

  1. Input: CT/MRI DICOM, pathology WSI, clinical data, optional genomics.

  2. Segmentation: Tumor ROI extraction from radiology.

  3. Radiomics: Extract 3D radiomic features.

  4. Pathomics: Extract histopathology features via foundation models.

  5. Fusion: Multimodal feature integration.

  6. Prediction: Treatment response, survival, biomarker prediction.

  7. Output: Integrated predictions, attention maps, explanations.

Example Usage

User: "Predict immunotherapy response for this lung cancer patient using their CT scan and biopsy pathology."

Agent Action:

python3 Skills/Oncology/Radiomics_Pathomics_Fusion_Agent/fusion_predict.py \
    --ct_dicom ct_scan/ \
    --wsi_path biopsy.svs \
    --clinical_data patient_clinical.json \
    --genomic_data tumor_wes.vcf \
    --task immunotherapy_response \
    --cancer_type nsclc \
    --fusion_method attention \
    --output fusion_prediction/

Radiomic Feature Categories

CategoryFeaturesCount
ShapeVolume, surface area, sphericity14
First-OrderMean, variance, skewness, entropy18
GLCMContrast, correlation, homogeneity24
GLRLMRun length, gray level emphasis16
GLSZMZone size, gray level variance16
GLDMDependence features14
NGTDMTexture features5
Total~107

Pathomics Feature Categories

CategorySourceFeatures
NuclearSegmentationSize, shape, texture
CellularDetectionDensity, clustering
TissueArchitectureGlandular, stromal ratios
Foundation ModelCONCH, TITAN, UNIDeep embeddings
SpatialGraph analysisNeighborhood patterns

Output Components

OutputDescriptionFormat
PredictionResponse/outcome probability.json
ConfidencePrediction uncertainty.json
Attention MapsCross-modal importance.npy, .png
Feature ImportanceShapley values.csv
ROI HighlightsPredictive regionsDICOM-SEG, GeoJSON
ReportClinical summary.pdf

Clinical Applications

ApplicationModalities UsedPerformance
NSCLC ImmunotherapyCT + H&EAUC 0.82-0.88
HCC SurvivalMRI + H&EC-index 0.78
Breast NeoadjuvantMRI + H&EAUC 0.85
HNSCC HPV/ResponseCT + H&EAUC 0.89
CRC MSI PredictionCT + H&EAUC 0.86

AI/ML Components

Radiomics Pipeline:

  • PyRadiomics for feature extraction
  • 3D-CNN for learned features
  • Transformer for volumetric analysis

Pathomics Pipeline:

  • Foundation models (CONCH, UNI, TITAN)
  • MIL (Multiple Instance Learning) for WSI
  • Graph networks for spatial patterns

Fusion Models:

  • Cross-attention transformers
  • Multimodal variational autoencoders
  • Contrastive learning for alignment

Prerequisites

  • Python 3.10+
  • PyRadiomics, SimpleITK
  • OpenSlide, HistoEncoder
  • PyTorch, transformers
  • CONCH/TITAN model weights
  • GPU with 16GB+ VRAM

Related Skills

  • Pathology_AI/CONCH_Agent - Pathology foundation model
  • Radiology_AI agents - Modality-specific analysis
  • Pan_Cancer_MultiOmics_Agent - Genomic integration
  • TMB_Estimation_Agent - Tumor mutational burden

Multimodal Integration Strategies

StrategyDescriptionUse Case
Feature-LevelCombine extracted featuresLimited data
Embedding-LevelFuse latent representationsModerate data
Decision-LevelEnsemble predictionsInterpretability
End-to-EndJoint trainingLarge data

Special Considerations

  1. Data Alignment: Ensure imaging from same timepoint
  2. Missing Modalities: Handle incomplete multimodal data
  3. Class Imbalance: Balance training across outcomes
  4. Interpretability: Attention maps for clinical trust
  5. Validation: External multi-site validation essential

Quality Control

QC CheckThresholdAction
CT coverage>90% tumorRescan if needed
WSI qualityBlur score <XRe-scan slide
SegmentationDice >0.85Manual review
Feature stabilityICC >0.8Robust features only

Regulatory Considerations

AspectStatus
FDA ClearanceIndividual modality tools cleared
Multimodal FusionResearch use only (RUO)
Clinical IntegrationPACS/LIS integration pathways
ExplainabilityRequired for clinical adoption

Author

AI Group - Biomedical AI Platform

Signals

GitHub stars
3k
Forks
412
Last commit
Jul 2026
Advanced
Item type
skill
Key
radiomics-pathomics-fusion-agent
Source
github.com/freedomintelligence/openclaw-medical-skills