[Research 15] "A Unified Reinterpretation of Physical and Engineering Phenomena through the Concept of a Resonant Environment"

Modern science and industrial engineering have developed precise descriptive and predictive frameworks for natural phenomena and engineered systems based on established theories, including Newtonian mechanics, relativity, quantum mechanics, and thermodynamics. Within these frameworks, resonant phenomena such as waves, oscillations, periodicity, stability conditions, and energy transfer have been extensively studied and practically utilized across individual disciplines. However, resonance has largely been treated as a localized or system-specific performance characteristic, rather than being interpreted in an integrated manner as an environmental condition that permeates natural and engineered systems. This study does not challenge or replace the theoretical, observational, and technological foundations established in existing scientific theories and industrial engineering. Instead, it introduces the concept of a resonant environment as an interpretative framework to reexamine the continuity and structural background underlying diverse phenomena. By relating temperature conditions referenced to absolute temperature, the stability of rotational and oscillatory states, and electromagnetic interactions and energy flows within a resonance-environment perspective, this work seeks to provide a unified context for understanding the formation and persistence of structure and order observed repeatedly across multiple scales. Through this approach, the study aims to strengthen the conceptual linkage between established scientific theories and industrial engineering practices, while offering an interpretative extension that may support future interdisciplinary research and engineering applications. *Note: This paper is part of a series of studies. For a more comprehensive understanding, readers are encouraged to refer to the materials listed below.