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Showing posts from October 5, 2024

Understanding Ti(t) and Entropy

Definition: Ti(t) represents a temporal flow function that describes the dynamics of time as it relates to a specific component i. The variable t serves as the time parameter, indicating that this function captures how time flows and varies over time. Quantization Procedure: In my quantization procedure, I utilize the Hamiltonian operator: H ( T i ) = − ℏ 2 2 m ∂ 2 T i ( t ) ∂ t 2 + V ( T i ( t ) ) H(T_i) = -\frac{\hbar^2}{2m} \frac{\partial^2 T_i(t)}{\partial t^2} + V(T_i(t)) Here, Ti(t) is crucial for understanding both kinetic and potential energy contributions. This formulation underscores the role of temporal flows in determining the energy landscape of the system. Physical Interpretation: Temporal Coupling: The creation and annihilation operators for temporal flow variables reveal how Ti(t) interacts with itself across different time points: [ a ( t ) , a † ( t ′ ) ] = γ ( t , t ′ ) ⋅ exp ⁡ ( − ∣ t − t ′ ∣ τ ) The term γ(t, t′) acts as a coupling strength, influencing how tempora...