Classifies three-body behavior into stable, chaotic, and other regimes, suggesting new insights for classical mechanics.
This paper applies the Canon—a minimal dynamical framework based on recursion, surplus, pressure gradients, and stability—to the classical three-body problem. Instead of modeling bodies as point masses interacting through Newtonian forces, each body is treated as a recursion-driven subsystem subject to external pressure from the other bodies. Pairwise gravitational influence is reinterpreted as a pressure term scaling as r⁻⁴, consistent with the Canon’s internal architecture. The result is a six-variable dynamical system that classifies three-body behavior into stable, oscillatory, chaotic, and collapsing regimes. This provides a closed-form stability classification for the three-body problem, something not available in classical mechanics. The framework reproduces the known qualitative outcomes—stable orbits, chaotic bounded motion, ejection, and collision—within a unified stability-index formalism.
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Dexter Coen Gilbert (2026) studied this question.
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