The article presents a formal framework for a hypothetical Jupiter-brain-scale intelligence utilizing entire universe simulations for computation.
It proposes leveraging physical principles like uncertainty, relativity, and black hole theory for highly efficient computation.
It explores a paradigm where the fabric of spacetime serves as the computational substrate instead of conventional information processing.
The framework is grounded in computational complexity theory extended to cosmological scales.
It defines problem spaces, theory spaces, parameterized universes, and computational multiverse ensembles.
The article outlines a five-phase computational cycle involving problem decomposition, cosmological evolution, state extraction, synthesis, and Bayesian learning.
It discusses resource requirements, scalability analysis, and information-theoretic bounds for universe simulations.
Theoretical implications include computation as physics, emergence of meta-intelligence, and the cosmological computing hypothesis.
Experimental validation protocols involve micro-universe simulations and scaling projections.
The concluded framework formalizes a universe-simulating intelligence with mathematical rigor and proposes new research directions.