Flux Pattern Complementarity and Closed Surface Interaction: A New Model for Molecular Cohesion and State Behavior

This study introduces a unified theoretical model for molecular behavior based on closed surface dynamics. By interpreting electron shells as flux-patterned closed surfaces, the theory explains material cohesion, repulsion, viscosity, and phase states through surface pattern complementarity. Homologous patterns result in repulsion, while complementary patterns enable re-enclosure and fusion. This framework provides novel insights into why gases remain diffuse, why liquids flow, and how solids fracture or fuse depending on the flexibility of their closed surface structures. Applications span molecular chemistry, materials engineering, and fluid dynamics, offering a geometric and interaction-based redefinition of polarity, bonding, and viscosity.