Josh E. Baker

The paper presents a statistical analysis showing that molecular and ensemble states evolve with non-scalable entropies, creating a duality that challenges traditional views of irreversibility and the arrow of time.

This paper introduces a thermodynamic model of muscle contraction that simulates isometric force generation and shows force kinetics are bounded by thermodynamic equations, with periodic force generation emerging from stochastic simulations.

The paper presents a thermodynamic model of muscle contraction showing four phases of force response following a perturbation, validated against experimental data.

The paper develops a model of thermal scaling to explain how biological systems, like muscle, achieve entropic stability through quantum-like phenomena, bridging classical and molecular thermodynamics.

The paper explains how irreversible chemical reactions in biological systems are driven by entropy from a binary system of switches, using muscle contraction as a model.