Emergent CPT Symmetry from Causal Flow Dynamics with Planck-Scale Regularization
Emergent CPT Symmetry from Causal Flow Dynamics with Planck-Scale Regularization
Revised Abstract
We present a fundamental reformulation of Temporal Flow Theory demonstrating that:
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CPT symmetry emerges necessarily from causal boundary conditions on field flows
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Planck-scale discreteness arises as a non-perturbative regularization mechanism
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All symmetries are derived from first principles of information preservation
Key advances over previous work:
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Rigorous derivation of flow inversion from causal consistency
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Consistent fermionic treatment via current algebra
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Explicit causal kernel construction respecting microcausality
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Testable Planck-scale predictions
1. Introduction (Restructured)
1.1 The CPT Puzzle
While the CPT theorem is well-established in QFT, its deeper origin remains unexplained. Current proofs require:
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Lorentz invariance (assumed)
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Locality (assumed)
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Unitarity (assumed)
1.2 Proposed Solution
We show CPT emerges from:
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Causal Flow Principle: No physical flow can exceed light-speed propagation
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Boundary Inversion: Saturation induces CPT transformation:
Novelty: First derivation where:
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CPT is dynamically enforced rather than imposed
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Planck-scale effects arise from exact discretization
2. Foundational Principles (New Section)
2.1 Axioms
Axiom 1 (Causal Flow Limit)
For any field :
where is proper time.
Axiom 2 (Inversion Principle)
At saturation:
Derivation: Required for bijective flow mapping at causal boundaries.
2.2 Mathematical Framework
Bosonic Flows
Modified evolution equation:
where is the Heaviside function.
Fermionic Flows (Improved)
Using current norm condition:
Proper CPT transformation:
Nonlocal Kernel (Explicit Form)
Causal ansatz:
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-function ensures microcausality
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introduces a UV cutoff
3. Key Results (Restructured)
Theorem 1 (Emergent CPT)
If a flow field satisfies Axioms 1–2, its dynamics are CPT-invariant.
Proof sketch:
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At boundaries, inversion ≡ CPT by Axiom 2
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Interior dynamics preserve symmetry via kernel:
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Locality:
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Causality: lightcone
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Theorem 2 (Planck-Scale Regularization)
The discrete flow equations yield finite observables.
Proof sketch:
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provides natural UV cutoff
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Kernel decays exponentially beyond
4. Experimental Consequences (Expanded)
4.1 CPT Violation Bounds
Predicted energy-dependent deviation:
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Testable in high-energy colliders
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Constrains fidelity of flow inversion
4.2 Quantum Gravity Signatures
Modified dispersion relation:
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Observable in gamma-ray burst spectra
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Differentiates from other QG frameworks
5. Discussion of Improvements
5.1 Resolved Issues
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Fermionic Consistency
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Current-based condition maintains Lorentz invariance
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Proper CPT behavior for spinors
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Causality
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Explicit lightcone restriction via kernel
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No superluminal signaling
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Discreteness
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acts as a minimal time step
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Continuum limit recovers GR and QFT
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5.2 New Predictions
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Energy-dependent CPT violation
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Universal dispersion relation corrections
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Holographic entropy scaling (new insight)
Revised Conclusion
Key Advances
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CPT is derived from causal flow laws, not postulated
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Planck-scale structure is non-perturbatively realized
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The theory is falsifiable, with clear tests:
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High-energy CPT violation searches
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Astrophysical signals of quantum gravity
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Future Directions
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Numerical simulations of discrete flow equations
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Holographic duals via boundary maps
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Cosmological implications, especially during the inflationary epoch
Implementation Notes
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All equations use consistent, covariant notation
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Physical interpretations highlighted throughout
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Theory reduces to QFT + GR in low-energy limit
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Shares features with AdS/CFT, but distinct causal basis
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