Unified physics research
Super-Space Theory (SST)
a geometric–gravitonic framework for space, time, and causality
“The cosmos doesn’t push or pull — it ripples.”
SST models our universe as a discrete graviton lattice (Sub-Space) embedded in a broader Super-Space.
Ripple-tension (g-Force), graviton density (gD), and graviton frequency (gF) govern gravity, time, and motion.
The core invariants link frequency and spacing (gF·d = c) and density–spacing (d = κgeo·gD⁻¹ᐟ³).
Papers & DOIs
Peer-review–ready manuscripts with DOIs; validation preprint included.
Super-Space Theory (SST) — v2
Finalized: 2025-10-04 · License: CC BY-NC-ND 4.0
DOI: 10.5281/zenodo.17244842
Concept DOI (all versions): 10.5281/zenodo.17154635
Empirical Validation of Super-Space Theory
Preprint · 2025-10 · Cross-regime checks (classical, bridge, quantum)
What is Super-Space Theory?
Super-Space Theory (SST) models our universe as a discrete graviton lattice (Sub-Space) embedded in a broader Super-Space. Ripple-tension (g-Force), graviton density (gD), and graviton frequency (gF) govern gravity, time, and motion.
The core invariants link frequency and spacing (gF·d = c) and density–spacing:
d = κgeo·gD⁻1⁄3
gF ∝ gD1⁄3
A companion validation study compares these relations with laboratory, orbital, and astrophysical datasets, showing that SST reproduces classical and quantum benchmarks within current precision.
About Mauro
Mauro Marson is an independent researcher based in New Jersey, USA. His work on Super-Space Theory (SST) develops a compact set of lattice-based identities that recover familiar weak-field results while suggesting quantum-adjacent behavior and testable predictions.