Waveframe Cosmology: A Speculative Framework for Reinterpreting Fundamental Physical Phenomena

Author: John Hulbert

Abstract

This paper proposes Waveframe Cosmology, a conceptual model that reinterprets the foundational elements of physics—space, light, matter, and gravity—through a novel lens. Central to this framework is the assertion that the universe emerges from interactions among spatial voids and propagating waves, governed by a universal principle of least resistance. This model offers alternative explanations for phenomena such as gravitational effects, quantum interference, black hole dynamics, and cosmic evolution, diverging from mainstream theories like general relativity and the Big Bang model. While speculative and qualitative, Waveframe Cosmology aims to provide a cohesive and intuitive perspective, encouraging a reevaluation of established paradigms in physical science.

1. Introduction

Contemporary physics has achieved remarkable explanatory power through frameworks such as quantum mechanics, general relativity, and the Standard Model of particle physics. However, these theories often rely on abstract constructs—e.g., dark matter, dark energy, and spacetime curvature—that, while mathematically consistent, may obscure a more fundamental understanding of reality. Additionally, unresolved questions persist, including the nature of quantum measurement, the physical basis of singularities, and the origin of the universe itself.Waveframe Cosmology emerges as an alternative conceptual framework, prioritizing philosophical coherence over mathematical formalism. It posits that the universe's structure and dynamics can be understood through the interplay of spatial voids, wave-like disturbances, and a principle of minimal resistance. This paper outlines the core tenets of this model, explores its implications for key physical phenomena, and invites further exploration of its premises.

2. Theoretical Framework

2.1 The Universe as a Network of Voids

The foundational hypothesis of Waveframe Cosmology is that the universe originates from spatial voids—regions devoid of intrinsic content. These voids are not mere absences but active participants in a dynamic system, interacting through mutual accommodation. When one void expands, adjacent voids contract, creating gradients in spatial density. This process, termed spatial differentiation, generates the conditions for emergent phenomena.Matter, in this view, is not a collection of discrete particles but a localized condensation of space itself. High-density regions form amidst a surrounding matrix of expanded space, suspended within an infinite lattice of voids. This conceptualization suggests a universe structured by contrasts in spatial density rather than by fundamental "stuff."

2.2 Light as a Spatial Waveform

Light occupies a primary role in Waveframe Cosmology, redefined as a continuous wave rather than a quantized entity (e.g., photons). These waves are fluctuations in spatial density, propagating through the void lattice like ripples across a fluid medium. Each luminous source—stars, quasars, or other radiant bodies—emits such waves, contributing to a cosmic tapestry of overlapping and interfering patterns.This wave-centric view posits that space is not a static container but a dynamic wavefield, actively shaped by the cumulative influence of all radiative sources. The interference of these waves underlies the apparent stability and structure of the observable universe, challenging the particle-wave duality of quantum mechanics with a purely undulatory model.

2.3 The Principle of Least Resistance

A unifying axiom in this framework is the Principle of Least Resistance, which asserts that all entities—spatial voids, waves, and matter—follow trajectories that minimize opposition. This principle transcends classical notions of least action or entropy, acting as an ontological driver of universal behavior. It governs phenomena across scales, from the propagation of light waves to the orbital dynamics of galaxies, ensuring that systems evolve along paths of maximal efficiency.

3. Applications and Implications

3.1 Reconceptualizing Gravity

In contrast to general relativity’s spacetime curvature, Waveframe Cosmology attributes gravity to asymmetries in the spatial wavefield. Massive objects disrupt the omnidirectional flow of waves by absorbing or deflecting them, creating regions of differential wave pressure. For example, a planetary body like Earth attenuates waves from below more than from above, establishing a net downward force on nearby objects.This wave-pressure model reinterprets gravity as a push rather than a pull, arising from the collective action of countless spatial waves. It eliminates the need for a curved spacetime metric, offering a mechanistic explanation rooted in wave dynamics.

3.2 The Structure of Matter

Subatomic particles are reimagined as emergent nodes within the wavefield. A proton, for instance, is a stable locus of condensed space, maintained by the balanced tension of converging and diverging waves. Electrons mirror this structure in an inverse configuration, their opposite charge reflecting complementary wave patterns. Neutrons, meanwhile, serve as transient mediators within atomic nuclei, stabilizing the interplay between protons and electrons.This wave-nexus model suggests that particles are not static entities but dynamic processes, continuously sustained by interactions with the ambient wavefield. Their persistence depends on an ongoing exchange of energy with the surrounding spatial medium.

3.3 Quantum Interference and the Double-Slit Experiment

The double-slit experiment, a hallmark of quantum mechanics, is reframed in Waveframe Cosmology as a straightforward demonstration of wave behavior. When a spatial wave passes through dual slits, it diffracts and interferes, producing characteristic patterns on a detector. Detection does not involve wave collapse but rather a resonant interaction, where the detector extracts energy from a portion of the wave sufficient to register an event.This interpretation eliminates the need for probabilistic wave functions or many-worlds hypotheses, presenting quantum phenomena as natural consequences of wavefield dynamics.

3.4 Black Holes as Spatial Vortices

Black holes are reconceived as spatial vortices, formed by the convergence of intense wave flows at galactic scales. Rather than singularities of infinite density, they are regions of extreme spatial distortion, channeling matter and energy through a cyclical process. Incoming matter is disassembled by the vortex’s dynamics, its components redistributed into the broader wavefield.This model aligns with a cyclical cosmology, where black holes act as engines of both destruction and renewal, maintaining cosmic equilibrium.

3.5 A Steady-State Cosmos

Rejecting the Big Bang’s singular origin, Waveframe Cosmology envisions a universe without a definitive beginning. Matter emerges continuously in the low-density voids between galaxies, where stable wave configurations facilitate condensation. Simultaneously, black holes recycle existing matter, perpetuating a dynamic balance of creation and dissolution. This steady-state or cyclical model portrays the cosmos as an eternal, self-regulating system.

4. Discussion

Waveframe Cosmology diverges significantly from mainstream physics by prioritizing conceptual simplicity over mathematical precision. Its emphasis on voids, waves, and resistance offers a unified narrative that contrasts with the compartmentalized approaches of quantum field theory and cosmology. While lacking empirical predictions or quantitative rigor, it provides a thought-provoking alternative for phenomena that remain incompletely understood, such as dark matter’s nature or gravity’s quantum underpinnings.

5. Conclusion

This paper introduces Waveframe Cosmology as a speculative framework designed to inspire alternative perspectives on the universe’s fundamental nature. By redefining space, light, and matter as products of void interactions and wave dynamics, it challenges conventional assumptions and encourages a holistic reconsideration of physical reality. While not a replacement for established theories, it serves as an invitation to explore beyond current paradigms.I welcome feedback to refine and extend these ideas, fostering dialogue on the questions: What is space? What is light? What is matter?