Deterministic Microscopic Mechanisms and Industrial Breakthroughs

The probabilistic interpretation of quantum mechanics has long dominated the research system of microscopic physics. It can only perform mathematical fitting on statistical results of microscopic experiments, yet its interpretations of underlying microscopic mechanisms contain numerous deviations and fail to correspond objectively to the motion laws of matter. Constructed based on artificial logical self consistency, this system delivers misleading explanations for core microscopic industrial phenomena including covalent bonding, magnetization effects, quantum tunneling, energy storage in accumulators and particle correlation. It has long restricted in depth breakthroughs in microscopic physics and industrial technology. Based on the microscopic dynamic model of deterministic continuous gyration of electrons, this paper systematically analyzes core cognitive defects within the probabilistic interpretation of quantum mechanics and strictly distinguishes statistical appearances from physical essence. This research proves that the microscopic world follows continuous and definite causal dynamic laws. Core mainstream assumptions such as randomness and action at a distance are invalid. Reconstruction of deterministic microscopic mechanisms can provide a brand new underlying theoretical support for iterative innovation of industrial technologies such as semiconductors, energy storage materials and magnetic devices.