Spherical Optical Theory

Current theories of light-matter interaction struggle to explain systematic phase shifts, discrete energy exchange, and instantaneous boundary responses under nanoscale boundaries and extremely weak light conditions. This work introduces an interaction model based on geometric boundary reconstruction, treating light-matter contact as a topological "flip" event. By incorporating additional phase jumps and discrete energy exchange, the model provides a complete microscopic mechanism for light-matter interaction without introducing new particles or free parameters. The theory predicts measurable phase shifts, discrete "all-or-none" absorption statistics, and femtosecond-scale boundary responses, all of which lie within the resolution limits of current experimental setups. By bridging classical continuous-wave behavior and quantum discreteness through geometric boundary conditions.