Anomalous Anti-Gravitational Kinetic Flow in Lipid Emulsions Induced by Thermal Gradients: Vectorial Evidence of Heat as an Attractive Force

Classical thermodynamics and fluid mechanics dictate that a solid lipid emulsion, upon undergoing phase transition to liquid via heat, should succumb to gravitational force on an inclined plane, flowing downward along the path of least resistance. This study presents empirical evidence contradicting this fundamental expectation. Using controlled time-lapse photography (25 minutes) on a validated inclined plane, distinct blocks of dairy butter were subjected to a localized, non-contact heat source (Tmax <65∘C). We observed a consistent "Anti-Gravitational Climb," where the emulsion climbed upward against the gravitational vector, directly towards the heat source. Furthermore, we documented a "Vectorial Split" phenomenon, where a single sample exhibited simultaneous upward (thermal attraction) and downward (gravitational pull) movement, effectively mapping the event horizon where attractive thermal force overcomes gravitational acceleration. These findings suggest that heat functions not merely as a dispersive energy but as an active attractive force, offering a new explanatory model for fluid dynamics, including the mechanics of boiling.