What question did this study set out to answer?

The aim is to propose a unified structural theory explaining quantum and cosmological phenomena based on wave dynamics.

February 2, 2026Open Access

Part 10Hong's Phase-Open Dynamics: Structural Origin of Schrödinger Evolution, Uncertainty, and Cosmic Background Fluctuations

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This work uncovers a structural theory on wave dynamics, revealing phase-open effects in cosmology and quantum behavior.

The aim is to propose a unified structural theory explaining quantum and cosmological phenomena based on wave dynamics.
Developed a framework for wave dynamics distinguishing between phase-closed and phase-open processes.
Analyzed structural implications for Schrödinger evolution and uncertainty relations without modifying underlying quantum mechanics.
Integrated discrete geometry with wave dynamics to derive connections between microscopic and macroscopic phenomena.
Phase-closed processes yield stationary states, while phase-open processes generate background fluctuations.
Heisenberg-type uncertainty relations arise from phase openness rather than measurement or operator assumptions.
Predicted scaling relations between microscopic dynamics and cosmological phenomena, suggesting rare particle-like states in a largely phase-open universe.

Seunghyun Hong (2026) studied this question.

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February 2, 2026Open Access

View Full Paper

Ask AI

Bookmark

Authors

This work uncovers a structural theory on wave dynamics, revealing phase-open effects in cosmology and quantum behavior.

The aim is to propose a unified structural theory explaining quantum and cosmological phenomena based on wave dynamics.
Developed a framework for wave dynamics distinguishing between phase-closed and phase-open processes.
Analyzed structural implications for Schrödinger evolution and uncertainty relations without modifying underlying quantum mechanics.
Integrated discrete geometry with wave dynamics to derive connections between microscopic and macroscopic phenomena.
Phase-closed processes yield stationary states, while phase-open processes generate background fluctuations.
Heisenberg-type uncertainty relations arise from phase openness rather than measurement or operator assumptions.
Predicted scaling relations between microscopic dynamics and cosmological phenomena, suggesting rare particle-like states in a largely phase-open universe.

Seunghyun Hong (2026) studied this question.

View Full Paper

Ask AI

Bookmark