StrataMetric AI
AWS-validated proof of concept · 510(k)-ready architecture

The wound has depth.
Now your documentation does too.

StrataMetric AI turns a four-second iPhone LiDAR scan into an objective, reproducible 3D wound measurement — length, width, true depth, wound bed and peri-wound area — with audit-defensible documentation generated in minutes, at the point of care.

LiDAR burst capture
4 s
LiDAR burst capture
instrument precision
±mm
instrument precision
scan to report
< 5 min
scan to report
initializing 3D viewport…

0

LiDAR depth frames per 4-second burst

0

measurements from a single scan

0+

automated engine tests, six validation layers

0%

of reports carry full provenance + methodology

Why now

Documentation is no longer a clinical nicety. It’s a revenue driver and an audit requirement.

The gap between what current tools provide and what CMS now requires has created a clear opening for an objective, instrument-based measurement platform.

The ruler and the guess

Most practices still measure wounds with a disposable ruler, a tracing, and a photograph. The result is subjective, inconsistent between providers, and has proven inadequate under Medicare audit.

Photos are flat

Photograph-based tools can't capture depth — the dimension most clinically significant for wound severity and product sizing. Claims built on 2D documentation have faced denials when the billed graft area couldn't be substantiated.

Reimbursement changed

Medicare payment for wound graft procedures has declined substantially per square centimeter. Accurate documentation of dimensions — especially depth and peri-wound area — is now directly material to revenue and audit defensibility.

“The same measurement every time the same wound is scanned — by any clinician, on any day. That reproducibility is what makes documentation audit-defensible.

How it works

Scan to structured report, in five stages.

The full pipeline runs end-to-end on AWS — from LiDAR frames on the device to a defensible measurement report in the portal, typically inside five minutes.

Stage 01iPhone · ARKit + LiDAR

Capture

A clinician positions an iPhone over the wound. The app captures a burst of 60 LiDAR depth frames in four seconds, with live motion and fiducial feedback guiding the hold.

  • 60-frame multi-frame burst
  • Live motion + fiducial guidance
  • Offline queue with retry
The deliverable

One scan. Five measurements. A report that stands up.

Every measurement report pairs structured numbers with visual diagrams and a plain-language narrative scoped strictly to objective data — the methodology is disclosed on every page.

measurement_report · MSR-2031 · v1.0

Quality A
peri-wound 18.4 cm²bed 11.2 cm²L 42.0 mmW 38.0 mmmax depth 11.8 mm10 mm
Top-view SVG diagram — wound outline, peri-wound ring, length/width axes, scale bar. Exactly as rendered in the clinical report.

Values shown are from the bundled synthetic demonstration mesh (~40 × 40 × 12 mm Gaussian wound bed). Hover a metric to highlight it on the diagram.

Live demo — try it

This is the actual portal viewer.

Not a video. The workspace below is the same component clinicians use in the authenticated portal, rendering the engine’s synthetic demonstration mesh. Orbit, toggle depth and tissue layers, cut a cross-section, open the analytics tab.

interactive · WebGL
loading 3D workspace…

Synthetic demonstration mesh (~40 × 40 × 12 mm Gaussian wound bed) — no patient data. Inside the portal, this same workspace renders real captures with full measurement history.

Under the hood

Built like an instrument, not a camera app.

Every layer — capture, fusion, segmentation, geometry, provenance — is engineered for reproducibility first, because reproducibility is what auditors, partners, and regulators actually test.

Platform

An end-to-end pipeline, born on AWS.

Designed and validated with AWS partner engineering: serverless ingestion, an automated processing pipeline, managed AI services for segmentation and narration, and encrypted, lifecycle-managed storage — the same architecture that carries forward into production.

iOS captureARKitLiDARAPI GatewayLambdasigned uploadsProcessing pipelinepreprocesssegmentmeasurerendernarrateSageMakerSAM boundary detectionBedrockguardrailed narrationEncrypted storageS3 (object lock) · DynamoDB · KMS keys · CloudWatchProvider portal

Serverless ingest

scales with scan volume, no idle cost

Managed AI services

segmentation + narration with guardrails

Encryption everywhere

KMS-managed keys, TLS in transit

iOS capture app

SwiftUI + ARKit guided capture with live feedback, probe auto-detect, boundary annotation with ML proposal, and a 15-minute idle session timeout.

Measurement engine

Python FastAPI service — 13 subpackages covering capture, fusion, geometry, quality, ML, storage, and output — with an async worker for heavy fusion jobs.

Provider portal

The Next.js dashboard behind this site: TOTP MFA sign-in, wound trajectory charts, phantom calibration, admin and audit tooling, hardened security headers.

Compliance & trust

Regulatory strategy is an architecture decision.

StrataMetric AI was engineered from the first commit for the pathway ahead — internal clinical-decision-support use now, commercial clearance later, with no rewrite in between.

Cures Act §3060 CDSFDA 510(k)-readyHIPAA-grade controls6-year retention

Clinical decision support posture

Operates today under the 21st Century Cures Act §3060 CDS exemption: the clinician retains decision authority, no diagnostic claims are made, and the measurement methodology is transparently displayed in every report.

510(k)-ready architecture

Designed to support an FDA 510(k) submission without rewrite: a bidirectional regulatory traceability matrix, versioned algorithms, and a comprehensive validation harness are part of the codebase — not an afterthought.

HIPAA-grade controls

TOTP multi-factor authentication, role-based access, tamper-evident audit hash chain, encryption at rest and in transit with managed key rotation, and hardened security headers across the portal.

Retention engineered in

Object-locked storage with six-year retention, multi-AZ encrypted databases, VPC isolation with flow logs, and continuous monitoring via CloudWatch, GuardDuty, and Security Hub in the production architecture.

For clinical decision support only. Not for diagnostic use. Clinician retains decision authority. Methodology disclosed in every measurement report.

Why it wins

Strategic value on four fronts.

01

Revenue protection

Objective, instrument-derived measurements create documentation that substantiates billed wound dimensions under CMS audit scrutiny — reducing the claim-denial risk that has hit practices relying on manual tracing.

02

Clinical differentiation

Non-rectangular wound bed area, true depth, and peri-wound area in a single scan — the full three-dimensional wound profile, captured at the point of care. No consumer or clinical smartphone tool offers this today.

03

Operational efficiency

One scan replaces manual measurement, photography, diagram drawing, and manual entry. Automated measurement and diagram generation hands hours back to clinicians and documentation staff every week.

04

Investor & partner narrative

A working, AWS-validated demonstration of LiDAR wound measurement is concrete technical evidence — for fundraising, clinical partnerships, and the regulatory conversations that follow a successful proof of concept.

StrataMetric AI

See the platform with your own cases.

Providers with an account can sign in to the portal now. If you’d like access — or a guided walkthrough for your practice, network, or investment team — we’ll set it up.