Energy-Based Interpretation of General Relativity
- 1Independent Researcher
Abstract
This hypothesis develops a speculative alternative interpretation of physical reality based on the framework of General Relativity. Its starting point is not a modification of Einstein's field equations, but a change in their ontological interpretation.
The central assumption is:
Universe = E
The universe is understood as a connected physical energy system. In this interpretation, matter is not treated as an independent fundamental building block, but as a stable, bound, and organized state of the underlying energy.
The hypothesis therefore initially introduces neither a new theory of gravity nor a new field equation. Instead, it abandons the fundamental ontological separation between matter, radiation, and other forms of energy. It asks whether matter can be understood entirely as a particular organized state of energy.
The Einstein field equations remain unchanged:
G_mu_nu = (8 * pi * G / c^4) * T_mu_nu
The change therefore lies not in the equation itself, but in its interpretation:
Standard interpretation (simplified): Matter / Energy → T_mu_nu
This interpretation: Energy → T_mu_nu
Matter is consequently understood as a specific state of the underlying energy rather than as a fundamentally separate category.
Building on this starting point, the hypothesis explores the possibility that photons represent fundamental carriers of free energy and can, under suitable conditions, organize into stable, bound energy states. Within the hypothesis, such photonic structures could form the basis of matter and potentially of elementary particles.
Properties such as energy, polarization, spin, interactions, and the gravitational effect of the combined energy distribution may play a role in this process. Whether such structures can actually produce stable particle states remains an open question and would have to be investigated mathematically and physically.
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BibTeX
@misc{robus2026energybased,
title = {{Energy-Based Interpretation of General Relativity}},
author = {Andrew Robus},
howpublished = {Zenodo},
year = {2026},
month = oct,
doi = {10.5281/zenodo.23622438},
url = {https://zenodo.org/records/23622438},
note = {CC BY-SA 4.0},
}
RIS
TY - UNPB
TI - Energy-Based Interpretation of General Relativity
AU - Andrew Robus
PY - 2026
DA - 2026/10/24
PB - Zenodo
DO - 10.5281/zenodo.23622438
UR - https://zenodo.org/records/23622438
AB - This hypothesis develops a speculative alternative interpretation of physical reality based on the framework of General Relativity. Its starting point is not a modification of Einstein's field equations, but a change in their ontological interpretation. The central assumption is: Universe = E The universe is understood as a connected physical energy system. In this interpretation, matter is not treated as an independent fundamental building block, but as a stable, bound, and organized state of the underlying energy. The hypothesis therefore initially introduces neither a new theory of gravity nor a new field equation. Instead, it abandons the fundamental ontological separation between matter, radiation, and other forms of energy. It asks whether matter can be understood entirely as a particular organized state of energy. The Einstein field equations remain unchanged: G_mu_nu = (8 * pi * G / c^4) * T_mu_nu The change therefore lies not in the equation itself, but in its interpretation: Standard interpretation (simplified): Matter / Energy → T_mu_nu This interpretation: Energy → T_mu_nu Matter is consequently understood as a specific state of the underlying energy rather than as a fundamentally separate category. Building on this starting point, the hypothesis explores the possibility that photons represent fundamental carriers of free energy and can, under suitable conditions, organize into stable, bound energy states. Within the hypothesis, such photonic structures could form the basis of matter and potentially of elementary particles. Properties such as energy, polarization, spin, interactions, and the gravitational effect of the combined energy distribution may play a role in this process. Whether such structures can actually produce stable particle states remains an open question and would have to be investigated mathematically and physically.
ER -