FDA-Compliant SBOM for Imaging AI & SaMD
FDA-aligned SBOMs for imaging AI and SaMD - Python ML stacks, container layers, model weights, and DICOM toolkits - with VEX statements reviewers accept.
SaMD products - especially imaging AI - have the messiest software bills of materials in MedTech: a Python ML stack with hundreds of transitive deps, container base layers, CUDA/cuDNN binaries, DICOM toolkits, model weights treated as code, and frequently a JS/TS frontend on top. A naive pip-freeze SBOM fails reviewer scrutiny because it under-reports OS-level components and doesn't describe the inference runtime or model provenance. Our SBOM service for this segment produces what FDA actually wants under Section 524B: a complete, layered SBOM that includes the OS, the runtime, the Python deps with resolved versions, the model artifacts, and a VEX (Vulnerability Exploitability eXchange) document that explains why high-severity CVEs in your stack are or are not exploitable in your specific deployment.
This matters because the imaging-AI stack is full of high-CVSS Python and CUDA CVEs that are not exploitable in your container - and unless you say so explicitly with a VEX, your reviewer assumes the worst. We generate CycloneDX 1.5 / SPDX 2.3 SBOMs from the build pipeline (not from runtime introspection alone), enrich them with NVD/OSV/GHSA data, triage every CVE above your defined threshold, and produce VEX statements with the four FDA-relevant statuses: not_affected, affected, fixed, under_investigation. We also document model provenance: training data lineage at the level FDA expects, weight file hashes, and the model-card link - because reviewers increasingly treat the model itself as a SBOM component.
Common findings in Imaging & AI/SaMD fda-compliant sbom services
The patterns we actually see in this segment, this service, again and again.
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OS-layer components missing from runtime SBOM
pip-freeze captures Python deps but misses base-image OpenSSL, glibc, ImageMagick - exactly where the published CVEs land for this segment.
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Model weights not represented
Reviewers asked 'where is the model in your SBOM?' and the answer was nowhere. We add weight artifacts as components with hash + provenance.
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DICOM toolkit version drift across deployments
DCMTK / pydicom pinned in dev, floating in production via base-image rebuilds. SBOM diff between submitted and deployed shipped silently.
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VEX statements absent for >100 high-CVSS Python CVEs
Without VEX, reviewer issues a hold. We triage every high-CVSS finding to one of four statuses with justification.
Standard FDA-Compliant SBOM Services deliverables
These are the same deliverables the parent FDA-Compliant SBOM Services service ships with - tuned to your imaging & ai/samd architecture.
- SPDX and CycloneDX generation
- Component vulnerability mapping (CVE / KEV)
- End-of-life and replacement planning
- Build-system and binary SCA validation
Standards that apply
The Imaging & AI/SaMD standards baseline, plus the call-outs that matter for fda-compliant sbom services in this segment.
Segment-specific call-outs
FDA Section 524B + 2026 final premarket guidance
SBOM is mandatory and must be machine-readable (CycloneDX or SPDX). VEX is strongly expected for SaMD given the noise level of the Python ecosystem.
AI/ML PCCP guidance
Model artifacts must be tracked as SBOM components if your PCCP allows model updates - otherwise reviewers can't tell what's actually deployed at any given time.
Scope a FDA-Compliant SBOM Services engagement for your imaging & ai/samd program.
A 30-minute call with a senior engineer who has done this in imaging & ai/samd before - not a sales rep.