The core hypothesis of the Diffuse Field theory—that the fundamental entity of the universe is a single basal field, matter consists of localized excitations of this field, and probability is an intrinsic property of the field—provides a unified ontological foundation for quantum mechanics and general relativity. However, the central unresolved challenge of the theory—the spontaneous condensation of graviton fluctuations into a Calabi-Yau geometry—involves extreme physics at the Planck scale (approximately 1019 GeV) and is difficult to verify directly at current technological levels. This paper proposes an alternative pathway: exploiting the deep homology between graviton fluctuations and electron probability behavior in the underlying field dynamics posited by the Diffuse Field theory, to use control- lable quantum systems in the laboratory as “simulators” to indirectly test the core principles of the Diffuse Field emergence mechanism. This homology is a natural corollary of the Diffuse Field framework but has not yet been independently verified by experiment—thus, all experimental schemes described in this paper simultane- ously test the validity of this homology hypothesis itself. This paper elaborates on the physical basis of this pathway, the phased testable objectives, the theoretical ex- pectations at each stage, and their scientific significance. This paper does not claim to provide specific operable experimental parameters, but merely seeks to provide a systematic roadmap for the experimental verification of the Diffuse Field theory.
zhencheng xing (2026) studied this question.