Entropy is a fundamental concept in various fields, with Shannon entropy commonly used in AI and machine learning to measure uncertainty.
Traditional static entropy models do not account for dynamic system feedback and entropy stabilization mechanisms in open systems.
A dynamic entropy model with feedback control was introduced to simulate entropy evolution in a 100-state system.
The model maintains entropy within a specific range by applying control adjustments based on Shannon entropy computation.
The Python implementation uses NumPy, SciPy, and Matplotlib to visualize the simulation results.
Experimental variations include different initial distributions, control gains, transition matrices, and simulation time.
Results show sensitivity to initial conditions, the impact of control gain on entropy stabilization, and the behavior of structured versus sparse transition matrices.
Nonlinear adjustments like sinusoidal perturbations lead to small entropy oscillations around the stabilization point.
The dynamic entropy model highlights the potential for actively controlling entropy in open systems, offering a framework for entropy regulation in AI and probabilistic environments.
Future work includes applying the model to reinforcement learning, exploring multi-agent entropy dynamics, and extending it to real-world thermodynamic applications.