The GeOver Theory

GeOver (Generalized Everything Over) A Multi-Compartment Framework for Physics ABSTRACT GeOver proposes that reality is composed of multiple interacting compartments (universes), rather than a single closed spacetime. Physical laws, constants, and observed phenomena emerge from pressure gradients, information density, and phase transitions between compartments. The framework preserves global conservation of energy and information, reinterprets gravity, mass, time, and light, and offers natural explanations for dark matter, dark energy, and quantum entanglement without introducing new fundamental forces. -------------------------------------------------- 1. CORE ASSUMPTIONS GeOver assumes that the universe is a multi-compartment system. Each compartment represents a self-consistent physical domain separated by a boundary at critical pressure and information density. Fundamental principles: - Global conservation of energy and information across all compartments. - No creation from absolute nothingness; only redistribution and phase transition. - All systems evolve toward pressure equilibrium, ultimately converging toward zero. -------------------------------------------------- 2. FUNDAMENTAL UNIT: GE (GeOver Unit) GE is defined as the smallest packet of informational debt. It represents stored imbalance that can accumulate, interact, and undergo phase transitions. Properties: - GE carries information, pressure, and error. - Mass is interpreted as compressed GE. Mass of one GE: m_GE ≈ 7.37 × 10^(-51) kg Mass formulation: m = ∫ ρ_GE · k_H dV Where: ρ_GE = GE density k_H = Higgs-related freezing coefficient -------------------------------------------------- 3. TIME AS AN EMERGENT QUANTITY Time is not fundamental. Time is defined as the rate at which GE is discharged or absorbed within a system. Higher GE pressure gradients correspond to faster local time evolution. Time ceases when GE flow ceases. -------------------------------------------------- 4. LIGHT AND VARIABLE c The speed of light is not absolute. Local speed of light depends on GE pressure: c_local = c_0 · sqrt(P_GE_void / P_GE_local) Thus, c is a local equilibrium value rather than a universal invariant. All theories assuming an absolute c are local approximations. -------------------------------------------------- 5. GRAVITY AS PRESSURE GEOMETRY Gravity is not a fundamental force. It is motion along a GE pressure landscape. Unified formulation: F = V · ∇P Where: F = observed force V = interacting volume ∇P = GE pressure gradient Gravity, buoyancy, and repulsion are geometric manifestations of pressure topology. -------------------------------------------------- 6. BIG BANG REINTERPRETATION The Big Bang was not an explosion from nothingness. It was a pressure-driven phase separation. A parent compartment exceeded a critical GE pressure and bifurcated, forming a new compartment and releasing pressure. This mechanism stabilizes the parent compartment and preserves conservation laws. -------------------------------------------------- 7. HIGGS FIELD REINTERPRETATION The Higgs field is interpreted as a GE phase-freezing mechanism. Particles acquire mass according to how strongly GE becomes frozen during interaction with the Higgs field. Mass hierarchy reflects different GE compression states. -------------------------------------------------- 8. COMPARTMENT MULTIPLICATION: N TO N^n The number of compartments is not fixed. Under sustained GE pressure: N → N + 1 Recursive bifurcation leads to: N → N^n This process explains increasing cosmological complexity without adding new particles or forces. -------------------------------------------------- 9. DARK MATTER AND DARK ENERGY (EXAMPLE 1) Dark matter and dark energy arise from adjacent compartments. - Electromagnetic interaction does not cross compartment boundaries. - GE pressure and gravitational influence can cross boundaries. Matter in neighboring compartments exerts pressure on our compartment, producing gravitational effects without visible matter. -------------------------------------------------- 10. QUANTUM ENTANGLEMENT (EXAMPLE 2) Quantum entanglement is interpreted as shared GE origin. Entangled particles originate from the same GE configuration before separation. Information correlation persists through shared pressure topology, not through faster-than-light communication. This preserves locality while explaining instantaneous correlation. -------------------------------------------------- 11. TWO SELF-FALSIFICATION CONDITIONS GeOver is falsifiable under the following conditions: (1) If the speed of light c is proven to be absolutely invariant in all possible spacetime conditions, GeOver is invalid. (2) If true singularities exist where information is permanently destroyed, violating global conservation, GeOver is invalid. ------------------------------- 12. TEN OBSERVATIONS CONSISTENT WITH GeOver 1. Gravitational effects without visible matter. 2. Cosmic acceleration without detectable energy sources. 3. Quantum nonlocal correlation. 4. Absence of true singularities in observed physics. 5. Higgs mass hierarchy. 6. Vacuum energy discrepancy. 7. Time dilation linked to energy density. 8. Emergent spacetime geometry. 9. Inflation-like behavior without inflation fields. 10. Stability through energy redistribution rather than creation. -------------------------------------------------- CONCLUSION GeOver provides a unified pressure- and information-based framework that reinterprets known physics without introducing new forces. It is a proto-theory, open to falsification, and intended for critical evaluation.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-01-06
DOI
https://doi.org/10.5281/zenodo.18164939
Primary Topic
Earth Systems and Cosmic Evolution
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article
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article

The GeOver Theory

Anh Vũ
Zenodo (CERN European Organization for Nuclear Research)
Earth Systems and Cosmic Evolution
article

The GeOver Theory

Anh Vũ
article en

Abstract

GeOver (Generalized Everything Over) A Multi-Compartment Framework for Physics ABSTRACT GeOver proposes that reality is composed of multiple interacting compartments (universes), rather than a single closed spacetime. Physical laws, constants, and observed phenomena emerge from pressure gradients, information density, and phase transitions between compartments. The framework preserves global conservation of energy and information, reinterprets gravity, mass, time, and light, and offers natural explanations for dark matter, dark energy, and quantum entanglement without introducing new fundamental forces. -------------------------------------------------- 1. CORE ASSUMPTIONS GeOver assumes that the universe is a multi-compartment system. Each compartment represents a self-consistent physical domain separated by a boundary at critical pressure and information density. Fundamental principles: - Global conservation of energy and information across all compartments. - No creation from absolute nothingness; only redistribution and phase transition. - All systems evolve toward pressure equilibrium, ultimately converging toward zero. -------------------------------------------------- 2. FUNDAMENTAL UNIT: GE (GeOver Unit) GE is defined as the smallest packet of informational debt. It represents stored imbalance that can accumulate, interact, and undergo phase transitions. Properties: - GE carries information, pressure, and error. - Mass is interpreted as compressed GE. Mass of one GE: m_GE ≈ 7.37 × 10^(-51) kg Mass formulation: m = ∫ ρ_GE · k_H dV Where: ρ_GE = GE density k_H = Higgs-related freezing coefficient -------------------------------------------------- 3. TIME AS AN EMERGENT QUANTITY Time is not fundamental. Time is defined as the rate at which GE is discharged or absorbed within a system. Higher GE pressure gradients correspond to faster local time evolution. Time ceases when GE flow ceases. -------------------------------------------------- 4. LIGHT AND VARIABLE c The speed of light is not absolute. Local speed of light depends on GE pressure: c_local = c_0 · sqrt(P_GE_void / P_GE_local) Thus, c is a local equilibrium value rather than a universal invariant. All theories assuming an absolute c are local approximations. -------------------------------------------------- 5. GRAVITY AS PRESSURE GEOMETRY Gravity is not a fundamental force. It is motion along a GE pressure landscape. Unified formulation: F = V · ∇P Where: F = observed force V = interacting volume ∇P = GE pressure gradient Gravity, buoyancy, and repulsion are geometric manifestations of pressure topology. -------------------------------------------------- 6. BIG BANG REINTERPRETATION The Big Bang was not an explosion from nothingness. It was a pressure-driven phase separation. A parent compartment exceeded a critical GE pressure and bifurcated, forming a new compartment and releasing pressure. This mechanism stabilizes the parent compartment and preserves conservation laws. -------------------------------------------------- 7. HIGGS FIELD REINTERPRETATION The Higgs field is interpreted as a GE phase-freezing mechanism. Particles acquire mass according to how strongly GE becomes frozen during interaction with the Higgs field. Mass hierarchy reflects different GE compression states. -------------------------------------------------- 8. COMPARTMENT MULTIPLICATION: N TO N^n The number of compartments is not fixed. Under sustained GE pressure: N → N + 1 Recursive bifurcation leads to: N → N^n This process explains increasing cosmological complexity without adding new particles or forces. -------------------------------------------------- 9. DARK MATTER AND DARK ENERGY (EXAMPLE 1) Dark matter and dark energy arise from adjacent compartments. - Electromagnetic interaction does not cross compartment boundaries. - GE pressure and gravitational influence can cross boundaries. Matter in neighboring compartments exerts pressure on our compartment, producing gravitational effects without visible matter. -------------------------------------------------- 10. QUANTUM ENTANGLEMENT (EXAMPLE 2) Quantum entanglement is interpreted as shared GE origin. Entangled particles originate from the same GE configuration before separation. Information correlation persists through shared pressure topology, not through faster-than-light communication. This preserves locality while explaining instantaneous correlation. -------------------------------------------------- 11. TWO SELF-FALSIFICATION CONDITIONS GeOver is falsifiable under the following conditions: (1) If the speed of light c is proven to be absolutely invariant in all possible spacetime conditions, GeOver is invalid. (2) If true singularities exist where information is permanently destroyed, violating global conservation, GeOver is invalid. ------------------------------- 12. TEN OBSERVATIONS CONSISTENT WITH GeOver 1. Gravitational effects without visible matter. 2. Cosmic acceleration without detectable energy sources. 3. Quantum nonlocal correlation. 4. Absence of true singularities in observed physics. 5. Higgs mass hierarchy. 6. Vacuum energy discrepancy. 7. Time dilation linked to energy density. 8. Emergent spacetime geometry. 9. Inflation-like behavior without inflation fields. 10. Stability through energy redistribution rather than creation. -------------------------------------------------- CONCLUSION GeOver provides a unified pressure- and information-based framework that reinterprets known physics without introducing new forces. It is a proto-theory, open to falsification, and intended for critical evaluation.

Zenodo (CERN European Organization for Nuclear Research)
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