Grand Unified Self-Aggregation Theory

Grand Unified Self-Aggregation Theory presents a new theoretical framework in physics developed from over forty years of reflection by the author. Centered on the concept of "self-aggregation," the book attempts to build a unified logical bridge between the microscopic world of particles and the macroscopic structure of the universe. It reexamines fundamental issues in modern physics, including gravitation, inertia, wave-particle duality of light, quantum entanglement, gravitational redshift, gravitational lensing, celestial magnetic fields, black holes, the Big Bang model, dark matter, and dark energy.

The author argues that many difficulties in current theories arise from structural limitations rooted in overlooking two more fundamental mechanisms within matter: self-aggregation and repulsion. Beginning with a critical reanalysis of the derivation of Newton's law of gravitation, the book introduces new concepts such as "internal gravitational mass" and the "nuclear body force," leading to a unified gravitational equation. This formulation is proposed to apply not only to celestial mechanics but also to intermolecular forces, nuclear forces, tensile strength of materials, and even the estimation of heat of vaporization.

Subsequent chapters establish self-aggregation models for inertia, optics, gas molecules, and cosmology, offering alternative interpretations of the equivalence principle, the Michelson-Morley experiment, quantum decoherence, and anomalies in galactic rotation curves. In cosmology, the self-aggregation universe model and black hole model suggest that dark matter and dark energy are not independent entities but macroscopic manifestations of microparticle fluid dynamics and nuclear body forces. This provides a conceptual pathway toward the unification of the four fundamental interactions.

Beyond theoretical ambition, the book emphasizes calculable formulas and potential practical relevance in materials science and engineering contexts. Written for professionals in physics research and education, it also serves as a valuable supplementary reference for advanced undergraduate and graduate students seeking broader perspectives on foundational physical laws.