Edge Model Foundry

Proven, not promised.
Your model measured on your silicon

Edge AI models delivered with accuracy, latency, and energy measured on your actual silicon. No simulator. No proxy board. Your chip, your numbers.

8
Scorecard sections
4
Sensor modalities
91.4%
First engagement CV accuracy
Chrysalis hardware-in-the-loop training rig: aluminium extrusion frame, motorised rotating turntable, camera gantry, and acoustic panels
T-slot hardware rig. 730 x 400 x 300 mm. Chip-agnostic.

Hardware rig

The rig is the lab. Stimulus and measurement in one enclosure.

Rig dimensions
730 × 400 × 300 mm
Modalities
Audio, vision, vibration, gas
Interface
Common gym interface / DGX Spark Trainer
Chrysalis hardware-in-the-loop training rig: aluminium extrusion frame, motorised rotating turntable, camera on gantry rail, and acoustic absorption panels
AUDIO GYMAvailable

Condenser array, SPL calibration, glass-break stimulus playback.

VISION GYMIn commissioning

Controlled illumination, scene replay, IR/RGB sensor chain.

VIBRATION GYMIn commissioning

Electrodynamic shaker, tri-axis stimulus, MEMS sensor chain.

GAS GYMRoadmap

Controlled gas flow, MOX sensor array, concentration logging.

Chrysalis hardware-in-the-loop training rig showing the physical turntable and camera system
Vision gym. In commissioning.
Silicon-verified scorecard

Glass-break acoustic model

3-class detection. 91.4% cross-validation accuracy. Verified on customer silicon; rig-captured rows pending commissioning.

ChipCustomer silicon (NDA)
RigCRY-RIG-001 / Audio Gym
MetricValueMethodology
01Model Identity
Task classAcoustic event detectionCustomer-defined problem statement
Architecture1D-CNN, 3-layerAuto-selected via rig search
Class labelsglass-break / impact / ambientPredefined class taxonomy
02Data Collection
Collection methodPENDING RIG COMMISSIONINGClosed-loop rig capture
Total labeled samplesPENDING RIG COMMISSIONINGRig auto-label pipeline
Train / validation splitPENDING RIG COMMISSIONINGStratified by class
03Accuracy
Cross-validation accuracy91.4%5-fold stratified CV
False positive rate4.1%Confusion matrix, ambient class
False negative rate6.2%Confusion matrix, glass-break class
04Latency (on-silicon)
Inference time (median)PENDING RIG COMMISSIONING1,000-run on-chip timer
Inference time (p99)PENDING RIG COMMISSIONING1,000-run on-chip timer
Frame pre-processingPENDING RIG COMMISSIONINGRig instrumentation
05Energy (on-silicon)
Energy per inferencePENDING RIG COMMISSIONINGEnergyRunner methodology
Peak current drawPENDING RIG COMMISSIONINGOn-silicon shunt measurement
Sleep currentPENDING RIG COMMISSIONINGEnergyRunner methodology
06Memory Footprint
Flash usage62 KBLinker map analysis
RAM peak18 KBStatic analysis + runtime probe
QuantizationINT8Post-training quantization
07MLPerf Tiny Alignment
Benchmark categoryKeyword spotting (adapted)MLPerf Tiny v1.1 reference
ScenarioSingle-streamMLPerf Tiny inference scenario
Closed-division conformanceIn reviewSelf-certification path
08Reproducibility
Rig identifierCRY-RIG-001Physical rig serial number
Binary hash (SHA-256)a3f7c1d9…b82e04Delivered binary checksum
Scorecard revision1.0.0Semantic versioning

Latency, energy, power and rig-captured labeling rows pending rig commissioning. Accuracy and memory values measured on customer silicon via CRY-RIG-001.

View full scorecard methodology
Why the rig changes the result

Four properties that separate a silicon-verified scorecard from a simulator estimate

Auto-labeled data via real sensor chain

Your sensor generates the training corpus directly. No manual annotation pipeline, no synthetic proxies.

Training on your actual silicon

The model is built and optimized against the exact chip you ship, not a reference board standing in for it.

On-silicon energy measurement

Power draw is metered on your hardware during inference, giving you a real power envelope before procurement locks in.

Chip-agnostic operation

The rig connects to any target via the common gym interface. Switching silicon means swapping the module, not rewriting the workflow.

Measurement aligned to MLPerf Tiny and EnergyRunner methodology

FIRST VERIFIED ENGAGEMENT

Glass-break acoustic model, 3-class, customer silicon

Verified numbers from the first completed engagement. Latency, power, and auto-labeling rows are pending rig commissioning.

Cross-validation accuracy91.4%
Class labelsglass-break / impact / ambient
Model binaryTFLite INT8
Latency, power, auto-labelingPending rig commissioning

Rig-captured auto-labeling and on-silicon energy measurement are pending rig commissioning. Accuracy figure is from training data only and does not constitute a full MLPerf Tiny submission. Full scorecard will be published upon rig commission.

Engagement type

Bespoke Model Delivery

Modality

Acoustic (audio gym)

Silicon

Customer-supplied

Scorecard sections

8 of 8 defined

FIRST VERIFIED ENGAGEMENT

Glass-break acoustic model. 91.4% cross-validation accuracy. Customer silicon.

Read the case study
ENGAGEMENTS
04 SKUs

Choose your engagement

Every path ends with a scorecard tied to your silicon. Start at the gate you need.

FGGATE
01 / 04

ENGAGEMENT

Feasibility Gate

€3,500
ENGAGEMENT TYPEFixed time-box
COMMITMENTLow: qualifies downstream
DELIVERABLEGo/no-go scorecard

A time-boxed paid engagement. You send the chip, the sensor modality, and the detection problem. Chrysalis runs it through the rig and returns a go/no-go feasibility report with preliminary accuracy and latency estimates on your actual silicon. Low procurement friction. Qualifies the downstream fixed-price engagement before any large commitment is made.

BMDBESPOKE
02 / 04

ENGAGEMENT

Bespoke Model Delivery

€25,000
ENGAGEMENT TYPEFixed-price project
DELIVERABLEModel binary + 8-section scorecard
COMPLIANCEMLPerf Tiny + EnergyRunner

A fixed-price project engagement. Chrysalis takes your chip and detection problem through the full closed-loop rig: auto-labeled data collection via your sensor chain, training, deployment, and measurement. Deliverable is a model binary plus the complete 8-section silicon-verified scorecard - accuracy, latency, and energy measured on your hardware, aligned to MLPerf Tiny and EnergyRunner methodology. The scorecard is a compliance artifact, not a summary report.

ADLLICENSE
03 / 04

ENGAGEMENT

Acoustic Detection License

€5,500/deployment
ENGAGEMENT TYPEPer-deployment license
BASE CLASSESGlass break, wake word, named class
PHASEPhase 2 SKU

A pre-trained base model - glass break, wake word, or a named acoustic class - adapted to your chip and sold as a per-deployment license. Faster time-to-result for customers whose use case matches a catalog class. Adaptation is verified on your silicon and delivered with a scorecard. Phase 2 SKU; available after the base model has been validated across multiple chips.

M+RMONITOR
04 / 04

ENGAGEMENT

Monitoring and Re-verification Subscription

€6,500/year
CADENCEAnnual subscription per model
COVERSDrift monitoring + retraining
AUDIT TRAILEU AI Act compliant history

An annual subscription per deployed model covering drift monitoring, triggered retraining, and a full re-verification scorecard run on the same rig. Your compliance documentation remains tied to a living, reproducible scorecard history rather than a point-in-time artifact. Creates the audit trail that regulated verticals require under the EU AI Act.

All engagements are chip-agnostic. Bring your silicon; Chrysalis brings the rig.

Positioning & methodology

Common questions

Further methodology detail at the scorecard page. View the scorecard

START AN ENGAGEMENT

Send the chip, the problem, and the modality.

We return a go/no-go within the feasibility window.

Emailchrysalis@sogoodmail.co
Feasibility gate€3,500 fixed price
TurnaroundWithin feasibility window

Submitting this form starts no billing. The Feasibility Gate engagement is priced at €3,500 and confirmed separately.

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