不确定性原理与确定性判则

[Objective] Analyze and resolve differences between the uncertainty principle and quantum theory in physical interpretation. [Methods] The original derivation and physical meaning of the mathematical relationship of Heisenberg's uncertainty principle were re-examined, and the limits of the relationship under different action scenarios were investigated. [Results]Under the electromagnetic interaction scenario, through the analysis of the statistical distribution of quantum mechanical quantities and its full probability space, the result of the destruction of the uncertainty relationship under non-statistical interpretation is obtained; the virtual action scenario is derived using Fourier transform Under the standard deviation constraint relation of the corresponding conjugate mechanical quantity; through the investigation of the set of electromagnetic interaction scenes, gravitational interaction scenes, and virtual interaction scenes, the deterministic criterion of the mechanical state of microscopic quantum objects is obtaine.[Limitations]Unanalyzed Entanglement. [Conclusions] The non-statistical interpretation has logical contradictions, the uncertainty relationship, and the current quantum mechanics theory can only properly describe the mechanical state of the microscopic quantum object in the electromagnetic interaction scene under the statistical interpretation; The deterministic criterion shows that the mechanical state of microscopic particles is objectively certain, and its wave function is an expression of the statistical appearance of the mechanical state of microscopic particles in the context of electromagnetic interaction.The quantum probability of non-statistical interpretation refers in essence to the description of the statistical probability of the interaction between microscopic particles and the interaction scene.