Schrodinger’s Equation and Evolution of Quantum Systems
摘要
This chapter reinterprets the Schrödinger equation within the multi-layered UQO quantum model, shifting from its traditional role as a description of wavefunction evolution to a mechanism for translating information from antecedent layers into material existence. While the standard equation is fundamental to quantum mechanics, describing probabilistic quantum behavior and playing a key role in quantum computation, its origins and implications have been subject to various interpretations, from hidden variable theories to the many-worlds interpretation. This work proposes a modified Schrödinger equation grounded in the concept of qualified determinism (QD), incorporating the influence of meta-layers (M1, M2, M3) and their associated deterministic, pure property, and complex agglomerate structures. This modified “Unified Dynamics Schrödinger Equation” also integrates the emergent properties of space, time, energy, and gravity, framing quantum computation as a creative process aimed at accessing novel functionalities theorized to exist in seed-form within these antecedent layers.