The CVP stack: geometry primitives → execution → integrity
CVP is structured as a modular platform: physical primitives (curvature + refractance), propagation models (EM), overlay mechanics (spin), biological manifolds (brain), executable computation (CVE/QOP), and Integrity Overlays for deployment governance (Safe Bet + Health).
How the pieces fit
- Geometry primitives: curvature, refractance, and boundary definitions
- Propagation: EM behavior under geometry-defined constraints
- Overlays: CVP Spin Overlay controls for coherence and transitions
- Manifolds: represent biological/cognitive spaces as embedded manifolds
- Execution: CVE/QOP for deterministic pipelines (simulation → encoding → runtime)
- Integrity: Safe Bet + Health overlays for auditability and policy-driven controls
Architecture flow (recommended diagram placement)
Geometry Primitives → EM Propagation → Spin Overlay → Brain Manifold → CVE/QOP Execution → Integrity Overlay (Safe Bet / Health)
Validation path
- Define: module primitives, parameters, and intended outcomes
- Simulate: reference experiments and controlled benchmarks
- Instrument: telemetry and evaluation harness for repeatability
- Deploy: pilots with governance via Integrity Overlays
CVP modules designed for composition and testing
Each module is intended to be independently describable, simulatable, and composable into end-to-end architectures.
Module 1 — CVP Core: Toroidal Refractance Interfacing
Defines the interface boundary as a geometry-driven refractance domain using toroidal recirculation dynamics to preserve continuity at coupling boundaries (e.g., molecular ↔ terahertz signaling).
- Stable coupling primitives for multi-domain interfaces
- Continuity across boundary conditions via recirculation structure
- Designed for composability into next-generation network stacks
Module 2 — EM Propagation
Models electromagnetic propagation and coupling as geometry-governed outcomes—enabling deterministic design targets and controllable operating envelopes for advanced communications and sensing architectures.
- Propagation constraints expressed as geometric boundary conditions
- Coupling and interaction models aligned to controlled envelopes
- Applicable to sensing-native and distributed network contexts
Module 3 — CVP Spin Overlay
Formalizes overlay mechanics that stabilize, regulate, or amplify desired state trajectories—focused on coherence management, transitions, and overlay control layers sitting above propagation/interfacing primitives.
- Coherence and stability constraints
- Controlled transitions and regulated state trajectories
- Overlay layer compatibility with execution pipelines
Module 4 — Brain Manifold
Represents cognitive/biological activity as an embedded manifold where signals, states, and transitions can be encoded geometrically. Designed to support sensing, inference, and control with reduced data movement.
- Manifold-based representations for biological/cognitive domains
- Geometry-driven state encoding and transition description
- Edge-relevant framing for reduced transmission requirements
Tidal Curvature Energy
Applying CVP principles to curvature oscillations and recirculation regimes with the goal of new energy extraction and storage architectures. Public materials remain high-level; deeper technical artifacts can be shared in controlled collaboration settings.
Concept
Tidal Curvature Energy frames capture and optimization as a geometry and oscillation problem. The objective is to characterize controllable curvature-domain dynamics and translate them into actionable engineering parameters and validation pathways.
What makes this different
- Emphasis on curvature-domain oscillation regimes and recirculation structures
- Focus on controllable envelopes and measurable parameters
- Validation pathway designed for repeatability and instrumentation
Development roadmap
- Modeling & simulation: parameter sweeps, operating envelopes, sensitivity analyses
- Prototype definition: instrumentation + measurement plan, test architecture
- Validation: performance characterization and repeatable experiments
- Pilots: partner-aligned pilot planning and deployment pathways
CVE / QOP SDK for curvature-native pipelines
The SDK is intended to provide a practical toolchain for building curvature-native workflows—simulation, state encoding, deterministic execution, evaluation, and deployment targets—integrated with Integrity Overlays for real-world governance.
What the SDK will include
- Reference pipelines: end-to-end examples (data → geometry → execution → outputs)
- Curvature state encoding: manifold/state representations and transforms
- Deterministic execution primitives: geometry-governed inference and control flows
- Evaluation harness: accuracy, latency, energy, stability metrics
- Deployment targets: edge devices, lab simulation, controlled environments
SDK outcomes
- Repeatable experiments with consistent parameterization
- Portable reference implementations for partners
- Clear paths from research artifacts to pilots
Safe Bet + Health integrity layers for auditability and control
Integrity Overlays are governance and controls layers designed to sit above physical and computational primitives. They provide policy-driven guardrails, audit trails, and enforcement-ready telemetry—without requiring a redesign of the underlying system.
Integrity Overlay — Safe Bet
The Safe Bet Integrity Overlay is designed for wagering environments where trust, safety, and compliance readiness must be engineered into operations. It emphasizes transparent controls, structured accountability, and intervention pathways.
Core objectives
- Integrity-by-design controls and enforcement signals
- Audit-ready logging and policy-driven decision boundaries
- Risk monitoring, anomaly detection, structured escalation
- Compatibility with operator workflows and regulator expectations
Integrity Overlay — Health
The Health Integrity Overlay targets integrity requirements in health-adjacent data and decision systems: provenance, governance, safety constraints, and auditability for high-stakes outcomes.
Core objectives
- Provenance and traceability for inputs and outputs
- Policy-controlled access, retention, and action constraints
- Auditability, event-based review, and accountability structures
- Safety-first operational controls for sensitive deployments
Integration points (CVP / CVE / QOP)
- Telemetry + logging: audit trails and provenance
- Policy engine: action gating and constraints
- Monitoring & escalation: thresholding and interventions
- Compliance packaging: reporting and attestations
Public materials, diagrams, and releases
This page hosts public-facing summaries and downloadable artifacts. Deeper technical packages can be provided through collaboration channels.
Downloads
- CVP Overview (PDF): Download
- Figures & Diagrams: Download
- Energy brief (high-level): Download
- SDK Developer Brief: Request
- Integrity Brief (Safe Bet / Health): Request
Version notes
- v1.0: Platform definition + module taxonomy
- v1.1: Expanded Integrity Overlay integration + SDK pipeline structure
Press releases and media kit
Official announcements from 206 Innovation Inc. regarding Curvature Variable Physics (CVP), associated modules, and the Integrity Overlay stack (Safe Bet / Health).
FOR IMMEDIATE RELEASE
Bellevue, WA — December 29, 2025 — Timothy J. Dillon, Founder of 206 Innovation Inc., announced Curvature Variable Physics (CVP), a geometry-first platform spanning toroidal refractance interfacing, EM propagation, spin overlays, brain manifold representations, curvature-native computation (CVE/QOP), and Integrity Overlays for Safe Bet and Health.
CVP organizes critical boundaries—physical, informational, and operational—into modular primitives designed for composition, testing, and deployment. The platform is positioned to support next-generation network architectures, deterministic edge execution, integrity-first systems, and curvature-informed energy pathways.
Media kit
Timothy J. Dillon — Founder, 206 Innovation Inc.
Founder and inventor focused on geometry-first frameworks spanning interfacing, propagation, deterministic execution, integrity overlays, and next-generation architectures.
206 Innovation Inc.
206 Innovation Inc. advances frontier technologies across physics-driven frameworks, next-generation communications, and integrity-first deployment architectures.
Focus areas
- Curvature Variable Physics (CVP) platform development
- Tidal Curvature Energy concepts and validation pathways
- CVE/QOP toolchains for deterministic execution
- Integrity Overlays for Safe Bet and Health