Thermodynamic Attraction and Kinetic Torque: Empirical Evidence of Negentropy and Directional Force Gradients in Non-Isolated Systems

The Second Law of Thermodynamics postulates that entropy in an isolated system tends to increase, associating heat transfer with dispersion and molecular disorder. However, we present a series of experiments challenging this axiom. We demonstrate that Active Heat Flux () functions independently of Thermal State (Temperature, ). Our data shows: (1) matter climbing against gravity on heated inclines (Videos S1–S2); (2) convective motion in boiling fluids ceasing in upon flux removal, despite high retention of thermal energy (Videos S3–S4); and (3) "low-temperature kinetic anomalies," where visible vapor and turbulent flow occur at , contradicting standard phase-transition models (Video S5). We propose that Heat functions not merely as a dispersive energy but as an active Vectorial Attractor, inducing localized negentropy driven by the gradient () before converting into repulsive kinetic torque.