AGI Reshaping Fundamental Physics

Currently, mathematics, computer science, chemistry and biology keep achieving important breakthroughs with the help of computing power and artificial intelligence. However, research progress on the underlying layer of fundamental physics remains sluggish. One important factor behind this situation is that the existing theoretical system accumulates a large number of unverified artificial presuppositions. Some conjectures are even treated as axioms for deduction, bringing distortion risks to the underlying premises of theoretical construction. Under such premises, rigorous and self consistent mathematical deduction cannot yield physical results that reflect the objective universe. This paper recognizes objective phenomena confirmed by repeated experiments. For mechanism conjectures without sufficient empirical evidence, all are listed as objects to be examined without presupposing their validity. Based on the theory of light origin, this paper takes three dimensional Euclidean space and photons as the two underlying objective entities of the universe. It avoids fictional presuppositions and patch style revisions in traditional physics and builds a general outline of physical research oriented toward empirical evidence and assisted by computing power based simulation. This paper strictly distinguishes photon energy states and matter states. It clarifies that high energy photons can trigger strong self locking and generate physical matter only after colliding under compound mechanism conditions. This paper sorts out a complete set of underlying physical propositions, following the research paradigm of mathematical conjectures. These propositions are subject to review and verification through AGI multi body simulation and physical experiments. They provide a falsifiable and low bias new research framework for artificial intelligence to participate in fundamental physics research. Whether each mechanism in the proposition set holds true shall be entirely determined by simulation deduction and physical experimental results.