EEG research infrastructure — real-time signal processing workstation
Research Infrastructure · NSF SBIR Phase I

Reproducible EEG
Research Infrastructure.

ARCHON Ψ is an integrated edge-to-audit pipeline for producing traceable, reproducible records from real-time EEG research workflows. Low-latency processing. Physics-informed benchmarks. Calibrated scoring. Tamper-evident provenance.

<50ms
Target Latency
4
R&D Objectives
n=24
Pilot Study
p<0.05
TOVA Improvement
Technology Innovation

An Integrated, Reproducibility-First
Research Pipeline.

Current EEG software commonly treats acquisition, preprocessing, classification, evaluation, and documentation as separate steps. This fragmentation makes it difficult to reproduce results, detect post-capture alteration, or distinguish raw observations from model inference.

⚠️

The Fragmentation Problem

Existing systems may provide dashboards, model predictions, or data storage, but they generally do not integrate low-latency edge processing, participant-held-out benchmarking, explicit uncertainty, and evidence-bound provenance into one research workflow.

Component 01

Edge-Native Artifact-Aware Processing

Test an optimized real-time artifact-removal and preprocessing path on ARM Cortex-M-class hardware. The research goal is to characterize the latency, artifact-suppression, and signal-preservation tradeoff under a specified protocol — not to claim therapeutic efficacy.

🔬
Component 02

Physics-Informed Classification Benchmark

Test whether physiologically motivated constraints improve robustness, calibration, or cross-session/participant generalization relative to matched conventional baselines. Physics-informed modeling is treated as a testable hypothesis, not an assumed advantage.

📊
Component 03

Candidate Task-Linked Composite Index

Evaluate a preregistered composite of defined signal features and task context for incremental predictive value over simpler features. Not presented as a consciousness measure, clinical biomarker, intelligence score, or personal evaluation.

🔒
Component 04

Evidence-Bound Provenance

Bind dataset references, annotation-rubric versions, preprocessing configuration, model version, evaluation outputs, reviewer actions, and corrections to a tamper-evident record. Verifies traceability and computational lineage — does not prove that an inferred mental state is true or clinically meaningful.

Technical Novelty

The value lies in making bounded EEG workflow claims inspectable, replayable, correctable, and comparable across controlled research conditions.

Technical Objectives & Challenges

Four Core Technical Risks.

Phase I will test whether a provenance-instrumented, edge-deployed EEG pipeline can produce reproducible, calibrated classifications of protocol-defined, non-clinical task labels across held-out participants and sessions.

Phase I Hypothesis

“A provenance-instrumented, edge-deployed EEG pipeline can produce reproducible, calibrated classifications of protocol-defined, non-clinical task labels across held-out participants and sessions, while maintaining auditable lineage from acquisition through evaluation.”

1

Edge Latency & Signal Integrity

Evaluation Metrics
Median, p95, p99 latencyPacket lossCompute/memory loadArtifact-suppression vs signal-preservation tradeoffs
Risk

Latency may be achieved only by degrading relevant signal content.

Mitigation

Compare artifact removal against a prespecified benchmark using signal-distortion measures and retain raw/reprocessed references.

2

Generalization & Calibration

Evaluation Metrics
Balanced accuracy, macro F1Per-class sensitivity/specificityCalibration curvesAbstention behaviorPerformance distributions across participants
Risk

Performance may collapse when users, sessions, devices, or time periods are held out.

Mitigation

Lock splits and preprocessing before testing; compare participant-, session-, and device-held-out results where feasible.

3

PINN Value Relative to Baselines

Evaluation Metrics
Fixed compute budgetsMulti-seed trialsSpectral-error analysisPredeclared pivot criteria
Risk

Physiologically motivated constraints may not improve performance or may reduce stability under multiscale signal conditions.

Mitigation

Use fixed compute budgets, multi-seed trials, adaptive sampling/domain decomposition experiments where justified.

4

Reproducible Provenance

Evaluation Metrics
Content-addressed recordsSource data manifestsRubric versionsSplit definitionsCode, models, configuration
Risk

Integrity controls may detect post-capture changes but fail to capture upstream sensor, labeling, replay, or version-mismatch errors.

Mitigation

Evaluate against a documented attack suite; report detection rate and false-positive/false-negative rates.

Go/No-Go Advancement Criteria

Prespecified latency under stated conditions
Artifact suppression without unacceptable signal distortion
Reproducible held-out performance against matched baselines
Calibrated uncertainty
Complete replayable provenance package
Negative findings retained as traceable results
Market Opportunity

Accountable Cognitive-Data
Infrastructure.

🏛️

Research Institutions

Universities and labs conducting controlled EEG, HCI, training, or signal-analysis studies.

🔬

Cognitive-Performance Labs

Teams needing practical tools for low-latency acquisition, protocol consistency, and model evaluation.

🏢

Enterprise R&D Teams

Organizations requiring version control, reproducible reporting, and auditable evidence trails.

Current Workflow Fragmentation

Current workflows are fragmented across acquisition software, preprocessing scripts, model notebooks, annotation files, evaluation reports, and compliance documentation. This fragmentation makes it costly to reproduce results, audit errors, compare versions, or preserve an evidence trail for internal review, collaborators, and funders.

ARCHON Ψ Research-Grade Workflow Platform

Edge-aware signal capture and preprocessing
Protocol-defined task-label evaluation
Uncertainty, calibration, and baseline comparison
Dataset, rubric, model, and configuration versioning
Tamper-evident provenance and reproducibility reports
Human review, amendment, and correction workflows

Research-Integrity Boundary

The platform does not sell consciousness measurement, diagnosis, treatment, employee surveillance, cognitive scoring, or transferable claims on human cognition.

No clinical diagnosis or treatment claims
No consciousness measurement claims
No employment, education, insurance, lending, or compensation use
No personal ranking
No tokenization or economic valuation of human cognition
Provenance verifies record lineage — not truth of mental state

Scale Path

From research teams to regulated and high-accountability R&D settings that require stronger auditability of AI-assisted research — including clinical-research support workflows, institutional-review documentation, and quality-system evidence management.

Company & Team

Waveform Tech LLC

Developing ARCHON Ψ as a reproducibility and accountability platform for real-time cognitive-data research workflows.

👤

Principal Investigator & Technical Founder

The project will be led by the company's technical founder and principal investigator, who will direct system architecture, edge implementation, model evaluation, provenance design, and commercialization discovery.

Phase I work will be organized around reproducible technical milestones: locked protocols, held-out evaluation, matched baselines, stress testing, and a versioned technical dossier.

Domain Expertise — Advisors & Contractors

🧠EEG acquisition, signal quality, and artifact-removal validation
📊Machine-learning evaluation, calibration, and cross-participant study design
🔬Physiological modeling and PINN methods
🛡️Human-subjects protections, privacy, and non-clinical research governance
🔒Cryptographic provenance, software assurance, and auditability
🏢Research-market customer discovery and institutional procurement

Phase I Objective

Establish technical feasibility for an edge-to-audit EEG pipeline before pursuing any clinical, therapeutic, or high-impact application. All technical claims will remain bounded to the evidence generated in Phase I.

Contact

Request a Technical Briefing.

Interested in ARCHON Ψ for your research lab, institution, or R&D team? We evaluate alignment before scheduling.

archon_psi/inquiry

Inquiries reviewed within 48 hours. Qualified applicants receive a scheduling link.