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September 3, 2026Open Access

THE LIGHTCONE AS A CLOSURE BOUNDARY Minimal Relational Orientation, Grade-Dual Lorentzian Structure, and Null-Rank Protection

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Authors

PLPhilip Lilien

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Overview

Theoretical analysis demonstrates that Lorentzian lightcone geometry arises from minimal algebraic closure, indicating causal boundaries precede metric assumptions.

Key Points

  • To determine whether Lorentzian spacetime geometry and lightcone causal boundaries emerge from primitive relational orientation algebra rather than being presupposed.
  • Formulated a minimal relational orientation model using the compact Lie algebra su(2) equipped with its negative Killing form carrier.
  • Constructed the Clifford completion Cl(3,0) and mapped its trivector-bivector sector to scalar-vector paravectors using grade-dual isomorphisms.
  • Evaluated invariant paravector quadratic forms, matrix rank stratification in 2x2 Hermitian representations, and electromagnetic gauge transversality.
  • Derived the standard Lorentzian quadratic form without presupposing a Minkowski metric signature.
  • Stratified the causal structure into invariant closure ranks, showing nonzero null matrices exhibit rank one while timelike matrices exhibit rank two.
  • Demonstrated that unbroken gauge symmetry and Ward-Takahashi transversality dynamically protect the photon on the rank-one causal boundary.

Cite This Study

Philip Lilien (2026) studied this question.

synapsesocial.com/papers/6a9935f3636c6408cfa7eaa2https://doi.org/10.5281/zenodo.22218350
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