Abstract
The Inverse Ripple Framework proposes that mass and gravity are emergent phenomena arising from constrained field propagation rather than intrinsic properties of matter. Lightlike propagation at the speed of light is treated as the natural kinematic state of relativistic fields in the absence of symmetry-breaking interactions. Effective mass emerges when persistent interactions — most notably with the Higgs field — modify dispersion relations and prevent unconstrained lightlike propagation.
Localized energy densities produced by such constrained propagation are interpreted as generating inward spacetime curvature, giving rise to gravitational effects. Conversely, cosmic expansion is associated with unconstrained outward propagation dominated by massless or weakly interacting fields. The framework is offered as a heuristic interpretive structure intended to unify concepts across relativistic, quantum, and cosmological domains and to motivate further mathematical formalization and empirical investigation.
Conceptual Equation
M — Effective rest mass (or an effective mass scale).
c — Lightlike propagation, representing the natural kinematic baseline of relativistic fields.
veff(H) — Effective propagation deviation driven by Higgs-mediated interaction strength.
f(·) — Unspecified functional relationship preserving dimensional consistency.
Key Conceptual Components
1. Lightlike Propagation as the Natural State
In the absence of symmetry-breaking interactions, relativistic fields propagate at the speed of light. Deviations from this baseline correspond to emergent mass.
2. Higgs Field as a Constraint Mechanism
The Higgs field modifies dispersion relations rather than acting as a classical force, constraining propagation and giving rise to effective rest mass.
3. Emergent Gravity via Inward Spacetime Curvature
Energy localization from constrained propagation produces inward curvature, yielding gravitational effects without introducing gravity as a fundamental force.
4. Dynamic Balance and Stable Structures
The balance between outward propagation and localized curvature provides a conceptual mechanism for stable orbits and large-scale structure.
Black Holes and Extreme Localization
In extreme regimes, energy becomes maximally localized, producing curvature sufficient to form event horizons. Black holes represent the limiting case where even massless fields cannot escape.
Cosmic Expansion
Large-scale expansion reflects the dominance of unconstrained outward propagation. Local mass formation resists expansion, yielding a dynamic balance between outward expansion and inward curvature.
Empirical Alignment and Testing Pathways
- Particle Physics: CERN Open Data Portal (LHC collision and Higgs coupling datasets).
- Cosmology: Planck satellite measurements of the CMB and expansion dynamics.
- Gravitational Waves: LIGO detections of spacetime curvature from extreme localization events.
Conclusion
The Inverse Ripple Framework reframes mass, gravity, and cosmic expansion as emergent consequences of constrained field propagation. It aligns with emergent gravity perspectives while offering a cohesive interpretive synthesis across relativistic, quantum, and cosmological domains. It is not presented as a finalized theory, but as a structured concept intended to guide mathematical development and empirical exploration.
References
- CERN Open Data Portal — LHC collision and Higgs coupling datasets.
- Planck Satellite (ESA) — CMB and expansion measurements.
- LIGO Scientific Collaboration — gravitational wave detections.