UFFT Paper #45 — The Void Channel: Entanglement from the Antipodal Map: The Lattice Hamiltonian H = L + η(I − V) and the Two Propagation Channels of the Foam

The Axiom Zero decomposition B + V = D (Bubble + Void = Displacement) is shown to map directly onto a two-channel lattice Hamiltonian H = L + η(I − V), where L is the face Laplacian (wall-mediated propagation) and V is the antipodal partner-face map (void-mediated correlation). The bubble propagates on the walls at speed c. The void appears instantaneously on the antipodal face through the incompressible bulk, with coupling η = exp(−d_bulk). The antipodal map V is an involution (V² = I) whose eigenvalues partition the face representation into even (+1) and odd (−1) sectors. The partition aligns exactly with the boson/fermion distinction: A₁g (photon), Eg (weak bosons), and T₂g (gluons) are EVEN; T₁u (fermion generations) and A₂u (Higgs) are ODD. In the operative (I − V) form the void term annihilates the even sector at the zone centre and shifts the odd sector by 2η there; at the zone face-centres and corner the single-cell odd eigenvalues are exact for any η (void-protection theorem). The earlier statement that odd modes are pushed down and that this reinforces symmetry breaking is withdrawn in v3.0. The combined propagator G(j,i;t) = ⟨j|exp(−Ht)|i⟩ sums over two kinds of paths: wall walks through shared edges (36 channels, local, causal, giving QFT) and void jumps through the bulk (7 antipodal pairs, non-local, acausal, giving entanglement). The complete path integral is the sum over both. The void coupling is taken from the bulk geometry (Tier 2, physically motivated form): η_sq = exp(−2√2) = 0.059 for sq-sq pairs and η_hx = exp(−√6) = 0.086 for hx-hx pairs. The void corrections are O(η) ≈ 6−9%, consistent with known sub-leading corrections to the coupling constants. The trace of L is 72; the void term adds 2η per odd mode at the zone centre and nothing at the protected points. v3.0 (October 2026): sign of the void term corrected to the L + η(I − V) form used by every lattice verification script; the claim that the void correction improves the Higgs-to-Z mass ratio from 0.14% to 0.06% is withdrawn (arithmetic error, and the A₂u level is void-protected); the void-protection theorem is recorded in §4.3; the SSB statement is revised.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-06
DOI
https://doi.org/10.5281/zenodo.23199477
Primary Topic
Advanced Mathematical Theories and Applications
Type
preprint
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UFFT Paper #45 — The Void Channel: Entanglement from the Antipodal Map: The Lattice Hamiltonian H = L + η(I − V) and the Two Propagation Channels of the Foam

Luke Martin
Zenodo (CERN European Organization for Nuclear Research)
Advanced Mathematical Theories and Applications
preprint

UFFT Paper #45 — The Void Channel: Entanglement from the Antipodal Map: The Lattice Hamiltonian H = L + η(I − V) and the Two Propagation Channels of the Foam

Luke Martin
preprint en

Abstract

The Axiom Zero decomposition B + V = D (Bubble + Void = Displacement) is shown to map directly onto a two-channel lattice Hamiltonian H = L + η(I − V), where L is the face Laplacian (wall-mediated propagation) and V is the antipodal partner-face map (void-mediated correlation). The bubble propagates on the walls at speed c. The void appears instantaneously on the antipodal face through the incompressible bulk, with coupling η = exp(−d_bulk). The antipodal map V is an involution (V² = I) whose eigenvalues partition the face representation into even (+1) and odd (−1) sectors. The partition aligns exactly with the boson/fermion distinction: A₁g (photon), Eg (weak bosons), and T₂g (gluons) are EVEN; T₁u (fermion generations) and A₂u (Higgs) are ODD. In the operative (I − V) form the void term annihilates the even sector at the zone centre and shifts the odd sector by 2η there; at the zone face-centres and corner the single-cell odd eigenvalues are exact for any η (void-protection theorem). The earlier statement that odd modes are pushed down and that this reinforces symmetry breaking is withdrawn in v3.0. The combined propagator G(j,i;t) = ⟨j|exp(−Ht)|i⟩ sums over two kinds of paths: wall walks through shared edges (36 channels, local, causal, giving QFT) and void jumps through the bulk (7 antipodal pairs, non-local, acausal, giving entanglement). The complete path integral is the sum over both. The void coupling is taken from the bulk geometry (Tier 2, physically motivated form): η_sq = exp(−2√2) = 0.059 for sq-sq pairs and η_hx = exp(−√6) = 0.086 for hx-hx pairs. The void corrections are O(η) ≈ 6−9%, consistent with known sub-leading corrections to the coupling constants. The trace of L is 72; the void term adds 2η per odd mode at the zone centre and nothing at the protected points. v3.0 (October 2026): sign of the void term corrected to the L + η(I − V) form used by every lattice verification script; the claim that the void correction improves the Higgs-to-Z mass ratio from 0.14% to 0.06% is withdrawn (arithmetic error, and the A₂u level is void-protected); the void-protection theorem is recorded in §4.3; the SSB statement is revised.

Zenodo (CERN European Organization for Nuclear Research)
Advanced Mathematical Theories and Applications
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