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Author: Maq Masi

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Abstract

This paper introduces a novel theoretical framework for the origin of the universe: the Quantum Mirror Collision (QMC) model. It proposes that a particle accelerating to the speed of light (c) enters a threshold state where spacetime collapses and the particle mirrors itself, inducing self-collision. This initiates a cycle of fusion and fission, releasing energy and giving rise to spacetime. As the particle decelerates from this energetic event, the universe unfolds through a time-driven expansion. This model bypasses the Big Bang singularity and offers an alternative path to cosmogenesis by integrating principles from quantum mechanics, relativity, and cosmology.

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1. Introduction

The standard Big Bang theory, while successful in explaining cosmic expansion, does not address the ontological problem of spacetime origin. It assumes a singularity at t = 0 but leaves unresolved questions:

• What preceded the singularity?
• What mechanism birthed spacetime and matter?
• How did the universe acquire its initial energy and entropy?

This paper proposes a three-step model:

1. Fundamental particles possess intrinsic motion due to quantum fluctuations.
2. At the light-speed threshold (v = c), spacetime collapses into a nonlocal quantum state.
3. A quantum mirror effect induces a self-collision, leading to a high-energy event that seeds matter and initiates spacetime emergence as the particle decelerates.

This mechanism offers a quantum-relativistic origin model that unifies the microscopic and cosmological domains.

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2. Theoretical Framework

2.1 Threshold State and Quantum Collapse

Particles approaching light speed undergo extreme relativistic effects:

• Time dilation leads to the freezing of proper time.
• Length contraction shrinks space along the motion axis.

At v = c, we define the threshold state, where:

• t’ → 0 (proper time collapses)
• d’ → 0 (proper distance collapses)
• The wavefunction delocalises: ψ(r, t) → ψₜ(r) = constant

In this limit, the particle is no longer bound by spatial or temporal coordinates. All points become equivalent, enabling quantum omnipresence.

2.2 Quantum Mirror Effect and Self-Collision

Within the threshold state, a quantum mirror effect occurs:

• The particle’s wavefunction bifurcates into two symmetric states.
• These mirror images, ψ₁ and ψ₂, overlap and collide.

This self-collision resembles phenomena in:

• Virtual particle-antiparticle pair production (Dirac, 1928)
• Bounce scenarios in loop quantum gravity (Ashtekar, 2006)

The event releases energy through fusion (binding of wave states), followed by fission (diversification), initiating a breakdown of symmetry.

2.3 Spacetime Emergence and Energy Unfolding

As the particle decelerates below c, proper time becomes non-zero (t’ > 0). This temporal expansion initiates spatial differentiation. The fusion-fission cycle releases energy:

Efusion = Δm ⋅ c², where Δm = 2m – M

This energy catalyses:

• Formation of matter particles
• Inflation-like emergence of spacetime
• Initial thermodynamic gradients

Spacetime is not assumed but emerges as a residue of energy-driven, post-threshold dynamics.

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3. Cosmological Implications

3.1 Replacement of Singularity

This model replaces the singularity with a threshold-triggered event. There is no need for infinite density or undefined curvature. Instead, a relativistic phase transition drives cosmogenesis.

3.2 Connection to Quantum Gravity

QMC suggests a universe that is:

• Self-referential (akin to Wheeler’s participatory universe)
• Encoded holographically (cf. Maldacena’s dualities)

The mirrored wavefunction may leave residual correlations that manifest as entanglement.

3.3 Cyclic Potential

If a particle can be re-accelerated to threshold velocity, the universe could undergo cycles of collapse and re-emergence. This aligns with Penrose’s Conformal Cyclic Cosmology, albeit through quantum motion.

3.4 Observational Predictions

1. CMB anomalies: Directional asymmetries or cold spots from uneven deceleration phases.
2. Quantum mirror echoes: High-energy collisions in the LHC may show mirrored particle behaviour.
3. Gravitational wave signatures: Unique burst patterns associated with the onset of spacetime.

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4. Comparison to Big Bang Paradigm

Feature	Big Bang Theory	Quantum Mirror Model
Initial State	Singularity	Light-speed threshold state
Origin of Spacetime	Assumed at t = 0	Emerges post-collision
Energy Source	Quantum inflation	Fusion-fission energy
Pre-universe	Undefined	Quantum mirror superposition

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5. Conclusion

This paper introduces a cosmological framework where the universe originates not from a singularity, but from a quantum mirror-induced self-collision at the light-speed threshold. This QMC event fuses and fragments a particle’s symmetric states, releasing energy and initiating the emergence of spacetime. As the particle slows, spacetime unfolds, matter diversifies, and thermodynamic structure arises.

Future work should include:

• Mathematical modelling of QMC transitions
• Simulated high-speed particle collisions
• Empirical tests through CMB and gravitational wave analysis

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References

1. Dirac, P. A. M. (1928). The Quantum Theory of the Electron. Proceedings of the Royal Society A, 117(778), 610–624.
2. Hawking, S., & Penrose, R. (1970). The Singularities of Gravitational Collapse and Cosmology. Proceedings of the Royal Society A, 314(1519), 529–548.
3. Maldacena, J. (1997). The Large N Limit of Superconformal Field Theories and Supergravity. Advances in Theoretical and Mathematical Physics, 2, 231–252.
4. Penrose, R. (2010). Cycles of Time: An Extraordinary New View of the Universe. Bodley Head.
5. Planck Collaboration. (2020). Planck 2018 Results: VI. Cosmological Parameters. Astronomy & Astrophysics, 641, A6.
6. Wheeler, J. A. (1990). Information, Physics, Quantum: The Search for Links. Proceedings of the 3rd International Symposium on Foundations of Quantum Mechanics.