Curvature Variable Physics

& The Dillon Equation

by Timothy J. Dillon

The transition from a universe governed by fixed, invariant constants to one defined by curvature-conditioned dynamics represents a fundamental pivot in the history of physical thought. At the center of this transition lies Curvature Variable Physics (CVP), a comprehensive framework that reframes the propagation of energy and information as a function of spacetime geometry. The foundational pillar of this framework is the Dillon operator, a mathematical construct that specifies the sensitivity of the propagation constant c to the scalar curvature R of the manifold. By declaring that c = c(R), CVP departs from the century-long consensus of global Lorentz invariance and offers a mechanism where refractance—the geometric bending of propagation paths—becomes a controllable and harvestable variable. This shift is not merely a theoretical exercise in cosmology; it extends into a diverse array of application layers, including geophysical energy harvesting, deterministic high-performance computing, and next-generation bio-terahertz communications for the 6G/7G era.

The evolution of CVP, pioneered by Timothy J. Dillon of 206 Innovation Inc., is characterized by a "geometry-first" philosophy. This approach suggests that the complexities observed in modern physics—ranging from the unseen mass of dark matter to the inflationary expansion of the early universe—may be artifacts of an incomplete understanding of propagation itself. By conditioning the speed of light and other fundamental constants on local and global curvature, CVP provides a parsimonious alternative to the auxiliary mechanisms often relied upon in legacy models. The implications of this framework are synthesized through the Dillon Curvature Framework (DCF), which introduces the Omega-Point Attractor—a coherence functional that tracks the evolution of systems toward a state of global stability and unity.

Curvature Variable Physics Deep Dives

Press Release — Curvature Variable Physics (CVP) | 206 Innovation Inc.
FOR IMMEDIATE RELEASE

206 Innovation Inc., Introduces Curvature Variable Physics (CVP): A Toroidal Refractance Framework for Seamless Molecular-Terahertz Interfacing in 6G/7G IoBNT Networks

CVP proposes a geometry-first interface model designed to bridge molecular-scale environments and terahertz-domain signaling for the next era of sensing-native 6G/7G communications and the Internet of Bio-NanoThings (IoBNT).

Bellevue, WA December 29, 2025 Media / Collaboration Inquiries: Available upon request

Announcement

Bellevue, WA — December 29, 2025 — Timothy J. Dillon, Founder of 206 Innovation Inc., today announced Curvature Variable Physics (CVP), a novel toroidal refractance framework designed to enable seamless molecular-terahertz interfacing across emerging 6G/7G Internet of Bio-NanoThings (IoBNT) networks. CVP introduces a new interface model that leverages toroidal recirculation dynamics to support stable coupling between molecular-scale environments and terahertz-domain signaling.

As the communications roadmap shifts toward sensing-native networks, distributed intelligence, and deeper integration of physical and biological systems, the bottleneck increasingly becomes interfacing—how nanoscale molecular environments exchange information reliably with higher-layer network stacks. CVP is positioned as a framework intended to reduce interface friction while enabling new IoBNT system architectures for next-generation wireless ecosystems.

“6G/7G isn’t just about faster devices—it’s about entirely new classes of networks. CVP is a foundational step toward bridging molecular systems and terahertz interfacing with a geometry-first framework built for IoBNT scalability.”

— Timothy J. Dillon, Founder, 206 Innovation Inc.

Why It Matters

  • Seamless molecular-terahertz interfacing aligned with future IoBNT network requirements.
  • Toroidal refractance recirculation concepts intended to support continuity, stability, and coherence at the interface boundary.
  • Geometry-driven interfacing compatible with ultra-dense, ultra-distributed 6G/7G deployment models.
  • A pathway toward new IoBNT use cases in biosensing, diagnostics, precision environments, and edge autonomy.

Use Cases Under Consideration

  • Bio-nano sensor meshes for next-gen diagnostics, monitoring, and high-sensitivity detection.
  • Molecular-scale telemetry in controlled environments requiring high integrity and low overhead.
  • Terahertz-aware edge systems coordinating nanoscale interaction surfaces.
  • IoBNT communication primitives for resilient, low-friction networking.

Availability

Technical materials, conceptual diagrams, and research disclosures related to CVP are being prepared for broader release and review. Collaboration discussions are welcomed with aligned partners in advanced communications, IoBNT systems, and terahertz interfacing.

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