The Macroscopic Integration of Nonlocal Information (M.I.N.I.) Framework: Core Derivations, Particle Spectrum, and Experimental Blueprint

Contemporary physics faces an irreconcilable ontological friction at the intersection of general relativity and quantum mechanics. This three-part research program proposes the Macroscopic Integration of Nonlocal Information (M.I.N.I.) framework, mapping emergent continuous spacetime to a strictly finite, discrete algebraic substrate. Utilizing a finite-N Lorentzian IKKT supersymmetric matrix model as a dynamic adjacency graph, we demonstrate that continuous classical geometry is a coarse-grained thermodynamic illusion. By enforcing strict computational finitism, we natively derive classical inertial mass and kinematic time dilation as algorithmic processing deficits—exact manifestations of bounded computational bandwidth within the non-commutative network. This submission contains the complete three-phase architecture of the framework: 1. The Core Framework (mini_framework.pdf): Derives emergent geometry, bandwidth conservation, and macroscopic gravity from the non-perturbative matrix substrate. 2. The Standard Model Program (mini_standard_model_program.pdf): A conditional algebraic post-processing pipeline mapping chiral fermion spectra, gauge fracturing (U(3) × U(2) × U(1)), and Higgs mass channels to the topological intersection integers of the discrete background. 3. The Phenomenological Blueprint (mini_experimental_program.pdf): A MAQRO-style experimental feasibility study providing a strictly falsifiable optomechanical target. We predict a deterministic macroscopic quantum collapse threshold: a 10⁻¹⁴ kg silica nanosphere placed in a 1 micrometer superposition will undergo objective collapse in exactly 25.5 milliseconds, exhausting a 6.25 Hz Topological Reallocation Wave (TRW) verifiable by next-generation interferometry.