Author:
Ship, Thomas
Category:
Research Papers
Sub-Category:
Quantum Theory / Particle Physics
Language:
English
Date Published:
July 2, 2025
Downloads:
18
Keywords:
Morphogenic Quantum Equations, adaptive morphogenic coefficients, coherence-channel decomposition.
Abstract:
Abstract. This manuscript introduces a morphogenic quantum framework where composite wavefunctions are dynamically shaped by classical matter-phases (solid, liquid, gas, plasma), coherence-state flows, and scalar-modulated energy terms. Through the construction of ψ_total(x, t), we explore the evolution of adaptable quantum fields responsive to coherence, entropy, and relativistic factors. The result is a conceptual apparatus bridging microscopic behavior with macro-patterned emergence—laying groundwork for further exploration in quantum amorphicity and coherence-layer dynamics. This paper presents a morphogenic quantum framework that extends conventional quantum mechanics by integrating matter-phase responsivity, coherence-state modulation, and scalar-field dynamics into a unified field formalism. The central construct, ψ_total(x, t), is formulated as a weighted composite of wavefunctions corresponding to classical phase domains—solid, liquid, gas, and plasma—modulated by adaptive morphogenic coefficients α_s(x, t). A coherence-channel decomposition is introduced via a scalar field θ(x, t), enabling smooth interpolation between coherent, decoherent, and incoherent states, while temporal evolution is further influenced by scalar modulation terms ζ_s(x, t) coupled to the dynamic behavior of each phase wavefunction.
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