Pre-physical optimization
We allow instability to emerge in non-physical modeling environments, then recover to viable states before any real-world transition.
Independent R&D Lab · Michigan, USA
We develop patent-pending frameworks that stress-test instability before deployment, validate through digital twins, and translate advanced mathematics into practical engineering outcomes.
5
Filed patent applications
11
Public project pages
This homepage is intentionally written for people first: researchers, evaluators, and serious partners. Public pages explain what each system does, while implementation-sensitive details remain in controlled channels.
We allow instability to emerge in non-physical modeling environments, then recover to viable states before any real-world transition.
We evaluate adversarial and physical disturbances under a unified stability lens, helping bridge AI security with control-system reliability.
Our process moves from theory and simulation to constrained deployment with measurable checks, documentation, and governance.
We communicate these tracks at an architecture level in public. Detailed implementations, benchmarks, and reduction-to-practice materials are released selectively and responsibly.
U.S. Provisional Applications 63/999,270 (March 7, 2026), 64/029,363 & 64/029,394 (April 4, 2026), 64/030,975 (April 6, 2026). U.S. Non-Provisional Application 19/560,051 (March 8, 2026). All verifiable at USPTO Patent Center.
Track 01
A framework for exploring divergent states in non-physical realms, guiding recovery toward viable optima, and gating transition to physical realization only after passing validation.
Track 02
A unified approach to adversarial and control-system stability analysis using shared criteria, cross-domain reasoning, and hybrid verification methods.
Track 03
Wireless behavioral monitoring for companion animals using ambient field sensing, authenticated activation, and privacy-preserving computation architecture.
Track 04
Multi-domain AI compliance through penalty-augmented objectives, cognitive integrity monitoring, and imaginary realm auto-repair gating mechanisms.
Track 05
Manifold-valued configuration analysis, spark-like radiant propagation, invariant kernel preservation across domain projections, and survivability-gated embodiment in multi-domain computational systems.
One place to access every active public page.
Optimization before physical realization in controlled expansion realms.
Unified cross-domain adversarial and system stability verification.
Plasma-focused digital twin and stability optimization workstream.
Core mathematical infrastructure and optimization mechanics.
Mathematical compliance enforcement that makes non-compliant AI behavior structurally expensive.
Non-invasive animal behavioral intelligence through ambient field sensing.
Manifold-valued configuration analysis and survivability-gated embodiment.
Precision low-frequency acoustic systems and control methods.
AI security and cognitive integrity architecture research.
Advanced systems analysis in constrained operational domains.
Frequency-domain tooling and practical control primitives.
Integration layer connecting research, simulation, and deployment.
Agentic AI workflows with stability and security boundaries.
Public content is architecture-level by design. Implementation-sensitive details, benchmarks, and package-level documentation are shared under NDA for qualified collaboration and review.
Start NDA access workflowResearch collaboration, technical evaluation, investment, or licensing inquiries. All messages go directly to Marc Tuinier.