This manuscript develops benchmarks and predictions in space-wave theory, indicating potential astrophysical implications.
This manuscript is the second paper in the Space-Wave Theory sequence. Paper I introduced Space-Wave Theory as a field-theoretic proposal in which space is treated as a physical field carrying wave-like degrees of freedom. The present paper develops a quantitative spatial-twist benchmark sector within that framework. It separates postulates, conditional derivations, calibrations, and falsifiable predictions. The manuscript discusses a dark-energy/TeV twist-seesaw benchmark, a topological electron ansatz with winding number N_T = 1, an electron-radius benchmark near 10^-20 m, an 88.08 micrometer short-range gravity target, electroweak and lepton-dipole constraints, and a preliminary late-time twist cosmology for H0 and S8 phenomenology. The manuscript is speculative and is not presented as an experimentally confirmed theory or a completed unified field theory.
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Dong Joon Lee (2026) studied this question.
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