This study aims to reinterpret the generation and transformation of matter by moving beyond conventional heat-centered and chemical-reaction-based frameworks, and instead focusing on changes in the degree of electronic freedom and the configuration of electronic bonding structures. Matter is formed through the activation and condensation of electrons within environments governed by absolute temperature gradients, the resulting resonance pressure, and rotational flow fields. Subsequently, matter undergoes continuous transitions driven by changes in electronic states, ranging from high-energy irreversible processes such as combustion and explosion to reversible phase transitions in fluid and gaseous environments, as well as reactions within biological systems. In this study, combustion and explosion are interpreted as phenomena arising from the abrupt release of electronically activated states, whereas reactions in water and gaseous environments are described as reversible cyclic processes based on low-energy electronic transitions. Through this framework, matter is not treated as a fixed or static entity, but rather as a dynamic state that continuously transforms and circulates through the regulation of electronic freedom. On this basis, the study further explains, from a materiality-centered perspective, why the Earth has been able to stably sustain biological systems through its unique material environment dominated by water, iron, and oxygen.
DEOKHO JEON (Wed,) studied this question.