Quantized-Elastic Spacetime Model: Time-Entropy Mapping & Mass-Gravity Duality

2. Time as a counting process of spacetime network transformations

2 Time as a counting process of spacetime network transformations:

2.1 SEQ serve as the electromagnetic wave conducting medium. Matter with mass and its motion are waves in this medium. In this framework, nothing truly moves through space - light speed c is the maximum conduction speed c, preventing velocity stacking beyond c. All physical phenomena correspond to specific energy state configurations, establishing SEQ as the universal substrate.

2.2 The universe's composition: Energy conservation and quantization imply a finite number N of SEQ, each with M possible energy states,(where each energy state mᵢ is an integer multiple of Planck's constant h, ) allowing up to Mᴺ transformations. These M energy states form an algebraic system incorporating translational, spinning and rotational operations connecting to standard model. Energy conservation and entropy increase constraints reduce possible transformations significantly below Mᴺ.

2.3 Time definition:

2.3.1 Let J be the possible universe transformations (J << Mᴺ ).

2.3.2 The Planck time (tₚ) interval separates adjacent transformations as the minimal time unit.

2.3.3 Time's arrow follows entropy increase.

2.3.4 Transformations map non-bijectively to entropy values (k distinct values partition J transformations into K classes). Parallel transformations share the same entropy values, but only one can occur. The entropy set maps to possible time values - each moment corresponds to one universe transformation. Non-uniform entropy increase means only a subset of possible time values actually occur.

2.3.5 Each space transformation (state transition of the SEQ network) can be assigned a unique entropy value calculated via the multiplicative energy distribution across this space transformation's matrix.

2.3.6 Finite transformations ensure discrete, limited time in this model.

(Note:this derivation is a speculative exploration within the discrete framework and does not imply reality.)

  • Home Page
  • Introduction
  • 1.Basic sets of the model
  • 2.Time-space transformations Mapping
  • 3.Time-Entropy Mapping
  • 4.Analysis of Action
  • 5.Local time , the proper time and relative time
  • 6.Basic physical quantities in this model
  • 7.Phenomenological consistency checks
  • 8. A prediction of a difference in the magnetic moments of the positron and electron
  • 9. Gravitational Interaction and General Relativity
  • 10.1 SU(3) as the Origin of Mass Derivation
  • 10.2-10.5 Mass, Gravity, SU(3) and Higgs field in Quantum Field Theory
  • 10.6 The essence of mass
  • 10.7 The role of the Higgs Field: Symmetry Breaking and "Locking" Mechanism
  • 10.8. Qcd-Gravity duality | quantum gravity mechanism
  • 10.9 Kinetic Energy from Nuclear reaction as Release of Mass-Space Elastic Energy Storage
  • 11. Thoughts on the 3D Spatial Arrangement Matrix of Microscopic Particles
  • 12.Space Elastic Response Frequency
  • Time dilation in Relativity
  • Physical simulation application of this quantized elastic space model
  • Multiplicative Entropy | Analytic Quantum Thermodynamics
  • Cosmic Expansion Mechanism | Analysis of Future Trends in Cosmic Expansion
  • Full-text available on Zenodo