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Unitary Holonomic Monism

A Formal Theory of Reality and Consciousness​

Unitary Holonomic Monism (UHM) is a formal theory describing the structure, dynamics, and phenomenology of reality through a single mathematical primitive — the ∞-topos Sh∞(C)\mathrm{Sh}_\infty(\mathcal{C}).

Meta-theory status

UHM claims the role of a meta-theory (unifying physics, consciousness, and information within a single axiomatic framework). What is proven about this claim, as of 2026-09-26: The universal property [T] (T-174, restated) is carried by the kinematic object u0=(Aint,trivial dynamics)u_0 = (A_{\text{int}}, \text{trivial dynamics}), Aint=C⊕M3(C)⊕M3(C)A_{\text{int}} = \mathbb{C} \oplus M_3(\mathbb{C}) \oplus M_3(\mathbb{C}), and goes from UHM to a theory: morphisms u0→(A,σ)u_0 \to (A, \sigma) in the C∗C^*-typed part of PhysTheory\mathbf{PhysTheory} are exactly the AintA_{\text{int}}-structures (a projection and two systems of 3×33 \times 3 matrix units summing to 1) in the dynamically fixed algebra AσA^\sigma; on Cn\mathbb{C}^n a faithful one exists iff n≥7n \geq 7, and the multiplicity-free one exists only for n=7n = 7, where it is unique up to U(7)U(7); on states it acts through the unique trace-preserving conditional expectation — for n=7n = 7 the sector pinching. The former claim — an essentially unique receiving morphism from every theory with Aint⊂AA_{\text{int}} \subset \mathcal{A}, CPTP dynamics and ≤7\leq 7 observables into T\mathfrak{T}, up to G2×R>0G_2 \times \mathbb{R}_{>0} — is retracted [✗]: no ∗*-homomorphism M7(C)→AintM_7(\mathbb{C}) \to A_{\text{int}} exists, as monoid maps such morphisms are not unique, and the proof's "subtopos of modules", "Mod(Aint)≃D(C7)\mathrm{Mod}(A_{\text{int}}) \simeq \mathcal{D}(\mathbb{C}^7)" and "Takesaki homomorphism" are false. PhysTheory\mathbf{PhysTheory} is an (∞,1)(\infty,1)-category as a Grothendieck construction over Topoi∞\mathbf{Topoi}_\infty (T-211 [T]; its former full embedding into Topoi∞\mathbf{Topoi}_\infty is retracted). Rigidity of the primitive is stated [T] (T-173); T-174 no longer uses it. Alternative programmes (ToE embeddings): T-170 — [T] for the group coincidence StabGL(7)(φ0)=Aut(O)=G2\mathrm{Stab}_{GL(7)}(\varphi_0) = \mathrm{Aut}(\mathbb{O}) = G_2 (the holonomy group of M-theory compactifications), finiteness of the UHM integral at finite MM and existence of limit states; the equality of UHM and M-theory partition functions is a hypothesis [H] (its M-theory side is not defined). T-171 [T]: every finite spin network, with unbounded spin, is encoded injectively in a state of ∣V∣\lvert V\rvert holons (T-171' is its corollary; the cluster construction is retracted). T-172 [T]: every finite causal set is encoded in a state, and finite posets embed fully faithfully as internal categories of Sh∞(D(C7))\mathbf{Sh}_\infty(\mathcal{D}(\mathbb{C}^7)). These are encodings and a shared symmetry group, not derivations of LQG, causal-set or M-theory dynamics. The Standard Model in its NCG form (C⊕H⊕M3(C)\mathbb{C} \oplus \mathbb{H} \oplus M_3(\mathbb{C})) contains no copy of AintA_{\text{int}}; it is reached from AintA_{\text{int}} by construction (T-176). "Meta" therefore means: the AintA_{\text{int}}-structure of UHM is universal (corepresenting) and rigid exactly on C7\mathbb{C}^7, and the SM and gravity are derived from the primitive — not that the primitive receives every theory, nor that every known theory embeds into it.

The theory:

  • Derives space, time, and metric from categorical structure
  • Formalizes the connection between physics and consciousness
  • Defines an interiority hierarchy (L0→L4): from minimal internal structure to reflective consciousness
  • Derives the minimal structure of a self-sustaining system (7 dimensions)
  • Establishes bounds of explanation — what the theory explains and what it takes as primitive

Etymology of the Name​

  • Unitary — from Lat. unus (one): reality is described by a single ∞-topos Sh∞(C)\mathrm{Sh}_\infty(\mathcal{C}); the underlying unitary evolution preserves information
  • Holonomic — from Gr. holon (whole) + nomos (law): every part (Holonom) contains an image of the whole and obeys universal laws
  • Monism — from Gr. monos (one): reality is one — there are no independent "layers" or "substances." In UHM this is a corollary of the terminal-object axiom (H∗(X)=0H^*(X) = 0 follows from Property 3), read ontologically through the PID definition — a theorem relative to the axioms, not an independent discovery

Theory Structure​

Five Structural Properties of the Sole Primitive (Ω⁷)​

Sole primitive

The ∞-topos Sh∞(C)\mathrm{Sh}_\infty(\mathcal{C}) is the sole primitive of UHM theory. The notion of a "sheaf" in the ∞-topos is defined via a Grothendieck topology on the category C\mathcal{C}.

#PropertyFormulation
1Finite-dimensionalityOb(C)⊂D(C42)\text{Ob}(\mathcal{C}) \subset \mathcal{D}(\mathbb{C}^{42})
2ConstraintC^⋅Γ=0\hat{C} \cdot \Gamma = 0 (Page–Wootters)
3Terminal object∀Γ,∃!f:Γ→T\forall \Gamma, \exists! f: \Gamma \to T
4Self-modelingφ⊣i:Sub(Γ)↪Sh∞\varphi \dashv i: \text{Sub}(\Gamma) \hookrightarrow \mathbf{Sh}_\infty (adjunction)*
5StratificationX=⨆αSαX = \bigsqcup_\alpha S_\alpha, S0={T}S_0 = \{T\}

*The variational characterization φ=arg⁡min⁡E[Sspec+DKL]\varphi = \arg\min \mathbb{E}[S_{spec} + D_{KL}] was stated as a theorem about the categorically defined φ; it is retracted (2026-09-25): the functional equals the cross-entropy −Tr(ψ(Γ)log⁡Γ)-\mathrm{Tr}(\psi(\Gamma)\log\Gamma) and is minimised by a projection onto the top eigenvector of Γ\Gamma, not by φ (FEP derivation, retraction box).

Connection to the Septicity Axiom

The Septicity Axiom (AP+PH+QG+V) is a set of consequences of Ω⁷ — operational requirements that any viable system must satisfy.

Theorem on degrees of freedom (consequence of Ω⁷)

The number of structurally distinct directions of development of a configuration Γ\Gamma — Freedom(Γ)=dim⁡ker⁡(HΓ)+1\mathrm{Freedom}(\Gamma) = \dim\ker(\mathcal{H}_\Gamma) + 1 — is a topological invariant. Systems with sufficient coherence possess a nontrivial choice space (Freedom>1\mathrm{Freedom} > 1).

Theorem S (justification of Axiom 3) [T]

N = 7 (Axiom 3) is the minimal dimension for satisfying (AP)+(PH)+(QG). All 7 dimensions are necessary and functionally unique [T]: A, S, D, L, U — algebraically; E, O — categorically (via the κ₀ formula). Proof →

Second justification (not independent of Theorem S: step T8 of the chain takes N=7N = 7 from it; it read "second, independent" until 2026-09-25): theorems P1+P2 [T] (derived from (AP)+(PH)+(QG)+(V) via the T15 chain, whose step PG(2,2) → O\mathbb{O} takes the canonical orientation of the seven Fano lines — only 16 of the 128 orientations give a normed algebra, and they are the only orientation class invariant under the collineations of the design, T15-canon, registry row 41n; [C at (Alt)] earlier on 2026-09-25) yield N=dim⁡(Im(O))=7N = \dim(\mathrm{Im}(\mathbb{O})) = 7 through the Hurwitz theorem. Structural derivation →

Key Results​

ConstructionFormulaStatus
Base spaceX=∥N(C)∥X = \|N(\mathcal{C})\|[T] Derived
Cohomological monismHn(X)=0H^n(X) = 0 for n>0n > 0 (locally constant coefficients)[T] corollary of Property 3
Local physicsHloc∗(X,T)≠0H^*_{loc}(X, T) \neq 0[T] Theorem
TimeClock register τ∈Z7\tau \in \mathbb{Z}_7 (Page–Wootters)Clock register [T]; the Page–Wootters link (constraint C^Γ=0\hat{C}\Gamma = 0) [C] (T-87, step 4); the dynamics runs relative to the depth register — [T] (T-53b), with the time line C0(R)C_0(\mathbb{R}) as its scaling limit (T-118 [T]); read "[T] Derived" until 2026-09-25
Arrow of timedim⁡(Xn)≥dim⁡(Xn+1)\dim(X_n) \geq \dim(X_{n+1}) along the stratal depth n∈Nn \in \mathbb{N}, monotone in the parameter tt of the Lindblad semigroup — the free energy FF is the Lyapunov functional of the full flow; SvNS_{vN} is monotone only for the unital part (the reset channel lowers it); the cyclic tick τ∈Z7\tau \in \mathbb{Z}_7 carries no arrow; along the readings of the depth register the purity of the unital primitive part falls strictly (emergent time, Theorems 11.1–11.2)[T] relative to the depth register (T-53b; "[T] Theorem" until 2026-09-25, then [C at an aperiodic time parameter] the same day)
Metricdstratd_{strat} (Connes on strata)[T] Derived
Evolution equationAll 3 terms (HeffH_{\text{eff}}, DΩ\mathcal{D}_\Omega, R\mathcal{R}) derived from axioms[T] Fully
Conscious window (Goldilocks zone)P∈(2/7,3/7]P \in (2/7, 3/7]: viability ∧\wedge reflexivity (R≥1/3R \geq 1/3 when P≤3/7P \leq 3/7)[T] (T-124)
Octonionic structure(AP)+(PH)+(QG) →[T1–T10]→ O\mathbb{O} → N=7, G2G_2, Fano, H(7,4)[T]: steps 1–9 give the unoriented design PG(2,2) [T]; step 10 takes the canonical orientation, the unique collineation-invariant class (T15-canon, row 41n; [C at (Alt)] earlier on 2026-09-25); the strict necessity of N=7N = 7 stays [C at (P1₆)]

7 Dimensions of the Holonom​

SymbolDimensionFunctionMathematical operator
AArticulationDistinction, boundariesProjector P:P2=PP: P^2 = P
SStructureForm retentionHamiltonian H:H†=HH: H^\dagger = H
DDynamicsChangeUnitary operator U(τ)=e−iHeffτU(\tau) = e^{-iH_{eff}\tau}
LLogicCoordinationCommutator [A,B]=AB−BA[A,B] = AB - BA
EInteriorityExperienceDensity matrix ρE\rho_E
OFoundationVacuum coupling + internal clockPage–Wootters, HOH_O, VOV_O
UUnityIntegrationTrace Tr\mathrm{Tr}

State space:

Htotal=HO⊗H6D=C7⊗C6=C42\mathcal{H}_{total} = \mathcal{H}_O \otimes \mathcal{H}_{6D} = \mathbb{C}^7 \otimes \mathbb{C}^6 = \mathbb{C}^{42}
Two formalisms: 7D and 42D

The theory uses two related formalisms:

FormalismDimensionApplication
MinimalC7\mathbb{C}^7Conceptual basis, minimality theorems
Page–WoottersC42=C7⊗C6\mathbb{C}^{42} = \mathbb{C}^7 \otimes \mathbb{C}^6Operational calculations, emergent time

In the minimal formalism, HO\mathcal{H}_O is one of the 7 dimensions (basis vector ∣O⟩|O\rangle). In the extended formalism, HO≅C7\mathcal{H}_O \cong \mathbb{C}^7 is the internal clock space with 7 time states τ ∈ ℤ₇.

The formalisms are related by Morita equivalence [T]: Sh∞(C∣7)≃Sh∞(C∣42)\mathrm{Sh}_\infty(\mathcal{C}|_7) \simeq \mathrm{Sh}_\infty(\mathcal{C}|_{42}) (Lurie comparison theorem). All 7D formulas are exact, not approximations. See Coherence matrix.

Central Concepts​

Coherence Matrix Γ (object of category C\mathcal{C})​

Γ∈Ob(C),Γ†=Γ,Γ≥0,Tr(Γ)=1\Gamma \in \text{Ob}(\mathcal{C}), \quad \Gamma^\dagger = \Gamma, \quad \Gamma \geq 0, \quad \mathrm{Tr}(\Gamma) = 1
  • Diagonal elements γii\gamma_{ii}: probabilities of being in dimension ii
  • Off-diagonal elements γij\gamma_{ij}: coherences (quantum correlations) between dimensions

Purity​

P=Tr(Γ2)∈[17,1]P = \mathrm{Tr}(\Gamma^2) \in \left[\frac{1}{7}, 1\right]
  • P=1P = 1: pure state (maximal coherence)
  • P=1/7P = 1/7: maximally mixed state (complete decoherence)
  • P>Pcrit=2/7≈0.286P > P_{\text{crit}} = 2/7 \approx 0.286: viability condition (theorem)
  • P∈(2/7, 3/7]P \in (2/7,\, 3/7]: conscious window (Goldilocks zone) — viability ∧\wedge reflexivity R≥1/3R \geq 1/3; P=3/7P = 3/7 is the upper bound (T-124)

Terminal Object T​

T=Γ∗:φ(T)=T,∀Γ∈C,∃!f:Γ→TT = \Gamma^* : \varphi(T) = T, \quad \forall \Gamma \in \mathcal{C}, \exists! f: \Gamma \to T

Interpretation: T is the global attractor toward which all trajectories converge. The arrow of time is the stratal collapse toward T.

Evolution Equation​

With emergent internal time τ:

dΓ(τ)dτ=−i[Heff,Γ]⏟unitary+D[Γ]⏟dissipation+R[Γ,E]⏟regeneration\frac{d\Gamma(\tau)}{d\tau} = \underbrace{-i[H_{eff}, \Gamma]}_{\text{unitary}} + \underbrace{\mathcal{D}[\Gamma]}_{\text{dissipation}} + \underbrace{\mathcal{R}[\Gamma, E]}_{\text{regeneration}}

where:

  • τ — internal time (parameter of conditional states relative to O)
  • Heff=H6D+⟨τ∣Hint∣τ⟩OH_{eff} = H_{6D} + \langle\tau|H_{int}|\tau\rangle_O — effective Hamiltonian (from the Page–Wootters constraint)
  • D[Γ]\mathcal{D}[\Gamma] — Lindblad dissipator
  • R[Γ,E]=κ(Γ)⋅(ρ∗−Γ)⋅gV(P)\mathcal{R}[\Gamma, E] = \kappa(\Gamma) \cdot (\rho_* - \Gamma) \cdot g_V(P) — regenerative term [T] (full derivation from axioms)

Interiority Hierarchy​

LevelNameConditionn-truncation
L0Interiority∃ρE\exists \rho_Eτ≤0\tau_{\leq 0} (set)
L1Phenomenal geometryrank(ρE)>1\mathrm{rank}(\rho_E) > 1τ≤1\tau_{\leq 1} (groupoid)
L2Cognitive qualiaR≥1/3R \geq 1/3, Φ≥1\Phi \geq 1, Ddiff≥2D_{\text{diff}} \geq 2τ≤2\tau_{\leq 2} (bicategory)
L3Network consciousnessR(2)≥1/4R^{(2)} \geq 1/4 (metastable)τ≤3\tau_{\leq 3} (tricategory)
L4Unitary consciousnesslim⁡n→∞R(n)>0\lim_{n \to \infty} R^{(n)} > 0, P>6/7P > 6/7τ≤∞\tau_{\leq \infty} (∞-groupoid)

Threshold values (L2 thresholds):

  • R (reflexivity) — measure of proximity to the dissipative attractor: R=1/(7P)R = 1/(7P), where P=Tr(Γ2)P = \mathrm{Tr}(\Gamma^2)
  • Φ (integration) — connectivity measure: Φ=∑i≠j∣γij∣2/∑iγii2\Phi = \sum_{i \neq j} |\gamma_{ij}|^2 / \sum_i \gamma_{ii}^2
  • R(n)R^{(n)} (n-th order reflexivity) — meta-reflexivity measure: R(n)=Fid(φ(n−1)(Γ),φ(n)(Γ))R^{(n)} = \mathrm{Fid}(\varphi^{(n-1)}(\Gamma), \varphi^{(n)}(\Gamma))

Threshold value statuses:

  • Pcrit=2/7P_{\text{crit}} = 2/7 [T] — lower bound of viability (Frobenius norm distinguishability)
  • Pmax=3/7P_{\text{max}} = 3/7 [T] — upper bound of the conscious window: R=1/(7P)≥1/3R = 1/(7P) \geq 1/3 holds if and only if P≤3/7P \leq 3/7; the Goldilocks zone P∈(2/7,3/7]P \in (2/7, 3/7] is nonempty (T-124)
  • Rth=1/3R_{\text{th}} = 1/3 [T] — K=3K = 3 from the triadic decomposition + Bayesian dominance
  • Φth=1\Phi_{\text{th}} = 1 [T] — the unique self-consistent value at Pcrit=2/7P_{\text{crit}} = 2/7 (T-129)
  • Dmin⁡=2D_{\min} = 2 [D] — an independent L2 threshold, not a consequence of Φth=1\Phi_{\text{th}} = 1 (T-151; it read "[T] — unconditional consequence of Φth=1\Phi_{\text{th}} = 1" until 2026-09-25)
Level statuses
  • L0–L2: stable states for biological systems
  • L3: metastable state (finite lifetime τ3\tau_3); threshold K=4K = 4 [T] from quadratic decomposition (T-67)
  • L4: theoretical limit; categorical unreachability [T] (T-86: L4=colimnτ≤n(Exp∞)L4=\mathrm{colim}_{n}\tau_{\leq n}(\mathbf{Exp}_\infty) not reachable in finitely many steps, + Lawvere incompleteness T-55) — an attractor, not a physical state (the coherence-survival ratio S(n)→0S^{(n)}\to 0; the fidelity Rfid(n)→1R^{(n)}_{\mathrm{fid}}\to 1 is a different quantity, see disambiguation)
  • SAD metric [T], SAD_MAX = 3 [T] (T-142): generalization of L0–L4 to the continuous case via the representational tower; SAD = max{k : R^(k) > 1/(k+2)}, spectral formula [T], stress-dependent regime [T] — Depth tower

Formal Results​

TheoremStatementStatusReference
Cohomological monismHn(X)=0H^n(X) = 0 for n>0n > 0 (locally constant coefficients; corollary of Property 3)[T]Consequences
Local nontrivialityHloc∗(X,T)≠0H^*_{loc}(X, T) \neq 0[T]Consequences
7D minimalityn<7⇒n < 7 \Rightarrow violation of (AP), (PH), or (QG)[T]Proof
Fixed point of φ∃!Γ∗:φ(Γ∗)=Γ∗\exists! \Gamma^* : \varphi(\Gamma^*) = \Gamma^* for a fixed anchor; for the canonical φcoh\varphi_{\mathrm{coh}} it is I/7I/7, P=1/7P = 1/7 (not 2/72/7, retracted 2026-09-25)[T]Proof
Attractors of an isolated holonWith a unital self-model (the canonical φcoh\varphi_{\mathrm{coh}}, every G2G_2- or Γ ⁣oct\Gamma_{\!\text{oct}}-covariant linear one) the only stationary state is I/7I/7 and PP never increases — dead isolation; with the self-registering φs(Γ)=kPα(Γ)+R Γ2/Tr Γ2\varphi_s(\Gamma) = k\mathcal{P}_\alpha(\Gamma) + R\,\Gamma^2/\mathrm{Tr}\,\Gamma^2 there are seven attractors with P>2/7P > 2/7 for ∥H∥<h0\lVert H\rVert < h_0 — self-sustaining attractors; under backbone dominance an embodied holon has exactly one (T-124c, restated). The former "at most one nontrivial attractor" and "the φ-tower converges for every holon" are retracted (T-124c, T-191 restated)[T]Theorem
Emergent timeThree constructions of the cyclic clock τ∈Z7\tau \in \mathbb{Z}_7 (Page–Wootters, Bures, ∞-groupoid) are equivalent [T] (T-53a); the dynamics runs in the parameter of the Lindblad semigroup, whose finite carrier is the depth register: one state-independent Feynman–Kitaev constraint gives the conditional states exactly enΔt Lρ0e^{n\Delta t\,\mathcal{L}}\rho_0 at every reading (T-53b), and the reading algebras converge to C0(R)C_0(\mathbb{R}) (T-118)[T]; dynamics [T] (it read [C at an assumed aperiodic time] until 2026-09-25)Theorem
Arrow of timeStratal collapse along the depth n∈Nn \in \mathbb{N}: dim⁡(Xn)≥dim⁡(Xn+1)\dim(X_n) \geq \dim(X_{n+1}), monotone in the semigroup parameter tt (Lyapunov functional FF; SvNS_{vN} only for the unital part), exact along the readings of the depth register; on a ring of readings the arrow breaks exactly once per period, which is optimal[T] (it read [C at an aperiodic time parameter] until 2026-09-25)Theorem
Critical purityPcrit=2/N=2/7P_{\text{crit}} = 2/N = 2/7[T]Theorem
Necessity of interiorityViable(H)∧DΩ≠0⇒CohE≥Cohmin⁡>1/7\text{Viable}(\mathbb{H}) \land \mathcal{D}_\Omega \neq 0 \Rightarrow \mathrm{Coh}_E \geq \mathrm{Coh}_{\min} > 1/7[T]Theorem 8.1
G2G_2-rigidityThe holonomic representation is unique up to G2=Aut(O)G_2 = \mathrm{Aut}(\mathbb{O}) kinematically and up to the finite frame group Γ ⁣oct\Gamma_{\!\text{oct}} dynamically; 34 kinematic G2G_2-invariants, 48 physical parameters (frame decision D-0910)[T]Theorem
Electroweak sectorSU(2)L×U(1)YSU(2)_L \times U(1)_Y from the pair (E,U)(E,U) of κ0\kappa_0 and the Higgs line {A,E,U}\{A,E,U\} (both [T]) — the group [C at (FE)]; its uniqueness [H]: no uniqueness theorem for SU(2)×U(1)SU(2)\times U(1) exists, and the octonionic routes that derive Standard-Model structure end with an extra U(1)U(1) (Furey and Hughes 2022: SM + B−LB-L). Listed as "unique rank-4 construction [T]" until 2026-09-25. Through the Clifford system of C⊗O\mathbb{C}\otimes\mathbb{O} the whole group (SU(3)×SU(2)×U(1))/Z6(SU(3)\times SU(2)\times U(1))/\mathbb{Z}_6 is the normaliser of colour in Spin(9)\mathrm{Spin}(9) and the electroweak algebra is the centraliser of colour (T-326); in the doublet sector there is no extra U(1)U(1), and B−LB-L returns only with the right-handed fields (T-329)axis construction [C at (FE)], uniqueness there [H]; through T-326 [T] as mathematics, [C at (Cl)] in UHMTheorem
Chirality of the doublets (T-327)On S=C⊗O\mathcal{S} = \mathbb{C}\otimes\mathbb{O}: (3,2)1/6⊕(1,2)−1/2(\mathbf 3,\mathbf 2)_{1/6}\oplus(\mathbf 1,\mathbf 2)_{-1/2}, not self-conjugate for every GSMG_{\mathrm{SM}}-invariant complex structure — the Distler–Garibaldi test passed without a choice; right-handed singlets not derived[T] as mathematics; [C at (Cl)]Theorem
Three generationsNgen=3N_{\text{gen}} = 3: exact count ∥QR(7)∥=(7−1)/2=3\|\mathrm{QR}(7)\| = (7-1)/2 = 3 [T]; physical identification [I]. Families must be horizontal (T-328): on one copy of S\mathcal S only U(1)B×U(1)LU(1)_B\times U(1)_L commutes with GSMG_{\mathrm{SM}}, triality is not a family symmetry, and the clock register gives a horizontal three (three real harmonics of Z7\mathbb Z_7) [T]; the identification with generations is [C at (GC)] — families[T]+[I]; T-328 identification [C at (GC)]Theorem
Fano Yukawa selectionyk=gW⋅fk,E,U⋅∥γvac(EU)∥y_k = g_W \cdot f_{k,E,U} \cdot \|\gamma_{\text{vac}}^{(EU)}\| via octonionic fijkf_{ijk}; the selection by fk,E,Uf_{k,E,U} is [T], and reading γvac(EU)\gamma^{(EU)}_{\text{vac}} as the Higgs vacuum value rests on H∼γEUH \sim \gamma_{EU}, a hypothesis [H][T] for the selectionTheorem
Source instabilityΓ⊙=I/7\Gamma_\odot = I/7 is non-stationary: F0≠0F_0 \neq 0, drift toward ρ∗\rho^*, self-amplification[T]Proof
Free willFreedom(Γ)=dim⁡ker⁡(HΓ)+1\mathrm{Freedom}(\Gamma) = \dim\ker(H_\Gamma) + 1; monotonicity under CPTP, G2G_2-invariance[T]Theorem
A4A_4-bifurcationSwallowtail from 3 parameters (κ,α,ΔF)(\kappa, \alpha, \Delta F) + Z2\mathbb{Z}_2-purity symmetry[T]Theorem
Gap-injection of L-levelsL(Γ1)≠L(Γ2)⇒[Gap(Γ1)]≠[Gap(Γ2)]L(\Gamma_1) \neq L(\Gamma_2) \Rightarrow [\mathrm{Gap}(\Gamma_1)] \neq [\mathrm{Gap}(\Gamma_2)][T]Theorem
Generation assignmentk=1→k=1 \to 3rd [T] (unique nonzero tree-level Yukawa); k=4→k=4 \to 2nd, k=2→k=2 \to 1st [C at (SA)], with (SA) a hypothesis (it read [T] until 2026-09-25)[T]; ordering [C at (SA)]Theorem
SuperpotentialW=μW∑fijkΘΘΘW = \mu_W \sum f_{ijk}\Theta\Theta\Theta — unique G2G_2-invariant (Schur's lemma)[T]Theorem
Right-handed neutrino massMR∼2.9×1014M_R \sim 2.9 \times 10^{14} GeV from PW clock + viability[T]Theorem
3+1 from sector decompositionFormer statement: 7=1O⊕3A,S,D⊕3ˉL,E,U7 = 1_O \oplus 3_{A,S,D} \oplus \bar{3}_{L,E,U}; dim⁡(space)=3\dim(\text{space}) = 3. Retracted 2026-09-25: as an axis-labelled real decomposition it is false — SU(3)\mathrm{SU}(3) acts irreducibly on the six non-OO axes, and no three of them span an invariant subspace; the complexified C7=C⊕3⊕3ˉ\mathbb{C}^7 = \mathbb{C} \oplus \mathbf{3} \oplus \bar{\mathbf{3}} is Günaydın and Gürsey (1973) and gives colour, not space[✗]Retraction
3+1 that commutes with colour (48c)SU(3)CSU(3)_C fixes in the spin factor h2(O)≅R1,9\mathfrak h_2(\mathbb O) \cong \mathbb R^{1,9} exactly h2(CO)\mathfrak h_2(\mathbb C_O): dimension 4, signature (1,3)(1,3) (the sign of det⁡\det, no reflection positivity needed); SL(2,CO)SL(2,\mathbb C_O) acts on it commuting with colour, so Coleman–Mandula is respected; no rotation of the seven axes commutes with colour[T] as mathematics; [C at (L)], (L) ⟺ (P) — 48e(f)–(i) as physical spacetimeTheorem
Sector hierarchy ε\varepsilonThe homogeneous vacuum is not stationary [T] (T-61, Theorem 14.1). Corrected 2026-09-25: the vacuum of the G2G_2-invariant VGapV_{\text{Gap}} is unique up to G2G_2 — for every κ>0\kappa > 0 off the transition curves [T]: I/7I/7 (always for κ≤μ2/48\kappa \le \mu^2/48) or one colour-invariant orbit S6S^6 (T-64); κ\kappa itself is fixed by no derived source (T-331(e)), and the no-go is strengthened by T-331(f) [T]: the associator weight vanishes for every functional that does not tell triples of axes apart — everything the dynamics of an isolated holon determines — and a readout that does resolve the Fano lines can carry any weight, so κ\kappa stays a free coupling — and has no sector structure, so the sector values are the hypothesis (SV) [H]. εˉ\bar\varepsilon is the root mean square over the 15 non-O pairs, ≈0.027\approx 0.027 under (SV) — order 10−210^{-2} [C at (SV)] (registry C35); the earlier 0.0230.023 came from substituting εO≈0.04\varepsilon_O \approx 0.04 against the table's εO∼1\varepsilon_O \sim 1, with which the 21-pair mean is 0.530.53[T]; uniqueness [T]; value [C at (SV)]Theorem
No topological Λ\Lambda-termHn>0(X)=0H^{n>0}(X) = 0 forbids a Λ\Lambda-contribution of the form ∫Xc\int_X c; the vacuum energy is not cancelled (a degree-0 quantity)[T] narrow; the "global cancellation" reading retracted 2026-09-10 (Λ-budget §4.1)Theorem
Einstein equations from spectral actionFull triple (T-53) → S=Tr(f(DA/Λ))S = \mathrm{Tr}(f(D_A/\Lambda)) → EH, GN=3π/(7f2Λ2)G_N = 3\pi/(7f_2\Lambda^2): the heat-kernel coefficient a2a_2 sees the internal space only through Tr(1)=7\mathrm{Tr}(1) = 7. The "+ SM" part is imported from Connes' finite triple (no KO-dimension-6 structure exists on C7\mathbb{C}^7; T-178 is retracted as a derivation) and inherits its history: mH≈170m_H \approx 170 GeV (Chamseddine–Connes–Marcolli 2007), excluded by CDF and D0 in 2008; the 2012 rescue adds a singlet σ\sigma and a fitted parameterEH [T] for the formula; the value needs the cut-off convention f2f_2 and the scale Λ\Lambda [D]; SM part importedTheorem
UV-finiteness of Gap theoryCompactness of (S1)21(S^1)^{21} + G2G_2-Ward (21→721 \to 7) + N=1\mathcal{N}=1 SUSY (Seiberg) + ε12\varepsilon^{12} suppression (T-219, a hypothesis [H] since 2026-09-25)field-space [T], full order-by-order [C] (structural, with the [H] ingredient T-219)Theorem
Lorentzian signature(1,3)(1,3): one time direction from the Page–Wootters clock [T] as a count (the time line R\mathbb{R} itself is T-118, [T] through the depth register; [C at an aperiodic clock] earlier on 2026-09-25); three space directions from S3S^3 (T-119, [T] as mathematics since 2026-09-25, reading [I]); Lorentzian sign at reflection positivity (bounded-below PW generator / Osterwalder–Schrader). The row read "(1,3)(1,3)-split [T]" until 2026-09-25. A second route to the same signature, without reflection positivity: Theorem 48c, [T] as mathematics, [C at (L)], (L) ⟺ (P) — 48e(f)–(i) as spacetime[C] (registry row T-53)Theorem
7D↔42D: section–retraction (T-58′)π∘ι=id\pi\circ\iota = \mathrm{id}; 7D formulas exact on their own. The Morita equivalence Sh∞(C∥7)≃Sh∞(C∥42)\mathrm{Sh}_\infty(\mathcal{C}\|_7) \simeq \mathrm{Sh}_\infty(\mathcal{C}\|_{42}) is retracted — it fails on dimension[T] / [✗]Theorem
Spectral gap of Fano dissipatorλdeco=5γ/(3N)\lambda_{\text{deco}} = 5\gamma/(3N) (BIBD symmetry); κbootstrap=ω0/N≫λgap/N\kappa_{\text{bootstrap}} = \omega_0/N \gg \lambda_{\text{gap}}/N[T]Theorem
φ-operator (replacement channel)φk(Γ)=(1−k)Γ+kρ∗\varphi_k(\Gamma) = (1-k)\Gamma + k\rho_* — CPTP, monotonicity, fixed point ρ∗\rho_*[T]Theorem
Global minimization of VGapV_{\text{Gap}} (T-64)Corrected 2026-09-25: the page's cubic term is not G2G_2-invariant; every G2G_2-invariant cubic is PT-even, and the associator cubic A\mathcal A is the one that goes through the associator (T-331). For V=μ2G+λ4G2−κAV = \mu^2\mathcal G + \lambda_4\mathcal G^2 - \kappa\mathcal A: vacuum I/7I/7, unique, for 0<κ≤μ2/480 < \kappa \le \mu^2/48; spontaneous Gap for κ>min⁡(7μ2/48,κ1)\kappa > \min(7\mu^2/48, \kappa_1) [T]; the vacuum is one orbit S6=G2/SU(3)S^6 = G_2/\mathrm{SU}(3) with colour unbroken [T] (the real twirl inequality (RT) proven 2026-09-25; two orbits coexist only on the transition curves). The G2G_2-orbit reduction 21D→5D21D \to 5D and the Hessian 18/6/12μ218/6/12\mu^2 are retracted; the sector values are the hypothesis (SV)[T]; (SV) [H]Theorem
No-signalling of the full dynamics (Theorem 8.5)The only state of a part that nothing done to the rest can change is its marginal, so the regeneration acts on unconditioned marginals, the selective (Lüders-in-the-dynamics) reading is not a UHM dynamics, and no operation at a distant partner changes a holon's statistics[T] (the reading is forced; it was [C] until 2026-09-25)Theorem
Computational power (Theorem 8.6)The Abrams–Lloyd amplification runs on marginals: at the saddle of φs\varphi_s the ideal regenerative dynamics decides satisfiability in time linear in nn, so "UHM computes no more than BQP" would imply NP ⊆\subseteq BQP; with noise open[T] for the ideal dynamics; with noise [H]Theorem
Higgs identification H∼γEUH \sim \gamma_{EU} (Theorem 1.0)A vacuum value of γEU\gamma_{EU} breaks SU(3)CSU(3)_C; no doublet on C7\mathbb C^7 nor among the operators on C⊗O\mathbb C\otimes\mathbb O or in the vector of Spin(9)\mathrm{Spin}(9); the Higgs doublet is the colour-free Clifford plane of Spin(10)\mathrm{Spin}(10) (standard model, Theorem 2.6(f); identification [H])[H] (it read [T] until 2026-09-25)Theorem
Fixing of semantic roles (T-177)The collineation group of the Fano plane (168) acts regularly on ordered non-collinear triples; OO and the κ0\kappa_0 pair {E,U}\{E,U\} fix OO, AA, DD and leave one binary choice E↔UE\leftrightarrow U (with L↔SL\leftrightarrow S)[T] (new form; the uniqueness from the axis sectors is retracted)Registry
CC-7: Emergence (Theorem 9.3)Weakly coupled embodied holons: a product stationary state exists iff the correlation part of [Hint,ρ∗(1)⊗ρ∗(2)][H_{\mathrm{int}}, \rho_*^{(1)}\otimes\rho_*^{(2)}] vanishes; otherwise I=Θ(g2)>0I = \Theta(g^2) > 0. The non-degeneracy (ND) holds off a closed set of anchors of measure zero (Theorem 9.4)[T] for almost every anchor (it read [C at (ND)] earlier on 2026-09-25)Theorem
Neutrino O-sector YukawamD(k)∝ε0sin⁡(2πk/7)m_D^{(k)} \propto \varepsilon_0 \sin(2\pi k/7); discrepancy m2/m3m_2/m_3: ×50→×1.8\times 50 \to \times 1.8[C]Theorem
PMNS from anarchic MRM_RO-isotropy → dense MRM_R → angles O(30°–60°)O(30°\text{–}60°)[C]Theorem
Justification of K=4K=4 for L3Quadratic decomposition 3+1=43+1=4; Bayesian dominance R(2)≥1/4R^{(2)} \geq 1/4[T]Theorem
Unattainability of L4 for biosystemsCategorical: L4=colimnτ≤n(Exp∞)L4=\mathrm{colim}_n\tau_{\leq n}(\mathbf{Exp}_\infty) not finitely reachable (T-86) + S(n)∼3−n→0S^{(n)}\sim 3^{-n}\to 0; L4 = attractor[T]Theorem T-86
CC-5: Fractal closureThe canonical aggregate of a composite — the mean of the parts' marginals, the only permutation-invariant aggregation that returns a part on uncoupled copies — is viable whenever the parts are viable embodied holons and the coupling is weak, ∣g∣ s(Hint)<εV\lvert g\rvert\,s(H_{\mathrm{int}}) < \varepsilon_V with εV\varepsilon_V explicit (Theorem 9.5); at strong coupling it can be I/7I/7 (Theorem 9.6). Earlier on 2026-09-25 conditional on (HOL), "the composite is itself a holon", which is still not derived in its full sense; before that an unconditional [T] from the retracted Morita equivalence T-58[T at weak coupling]Theorem
Topological protection of Gap vacuumπ2(G2/T2)≅Z2\pi_2(G_2/T^2) \cong \mathbb{Z}^2 [T]; the barrier values (≥6μ2\geq 6\mu^2) are Hessian eigenvalues of the retracted sector parametrisation of T-64, so the protection of the vacuum is [C at (SV)][T]+[C at (SV)] (it read [T] until 2026-09-25)Theorem
Canonical definition of f0f_0f0Λ4=17[VGapmin⁡+12ζHGap′(0)]f_0\Lambda^4 = \frac{1}{7}[V_{\text{Gap}}^{\min} + \frac{1}{2}\zeta'_{H_{\text{Gap}}}(0)]; UV-finiteness + the unique vacuum, now the hypothesis (SV) (T-70)[C at (SV)] (it read [T] until 2026-09-25)Theorem
Structural necessity of Λ>0\Lambda > 0Autopoiesis + local cohomology → ρvac>0\rho_{\text{vac}} > 0; Lawvere incompleteness[T]Theorem
CC-6: Scale invariance (T-72)Under (AGG) — the aggregation returns a part's state on uncoupled copies, and the coupling is weak — PP, RR, Φ\Phi and Gap of the aggregate stay within O(δ)O(\delta) of a part's; Theorem 9.5 proves (AGG) for weakly coupled embodied holons with δ=O(g)\delta = O(g), at the stationary state and along trajectories from the basin; preservation under any CPTP aggregation is retracted (the depolarising channel gives I/7I/7), and at strong coupling the transfer fails (Theorem 9.6)[T at weak coupling]Theorem
Gap = curvature of Serre fibrationSpectral triple T-53 + NCG curvature → exact identification[T]Theorem
Internal theory (T-54)ThUHM=Subclosed(Ω)\mathrm{Th}_{\mathrm{UHM}} = \mathrm{Sub}_{\mathrm{closed}}(\Omega) — φ-invariant predicates[T]Theorem
Lawvere incompleteness (T-55)ThUHM⊊Ω\mathrm{Th}_{\mathrm{UHM}} \subsetneq \Omega — from Cartesian closedness + nontriviality of φ[T]Theorem
Structural ToE (T-56)φ-closed, finitely axiomatizable, principally incomplete, evolutionarily open[T]Theorem
Completeness of triadic decomposition (T-57)LGKS theorem: unique decomposition L=Ham+diss+reg\mathcal{L} = \mathrm{Ham} + \mathrm{diss} + \mathrm{reg}[T]Theorem
∞-groupoid Exp∞\mathbf{Exp}_\infty (T-91)Sing(E)\mathrm{Sing}(\mathcal{E}) — Kan complex (Milnor's theorem); + T-76 → HoTT logic, Postnikov truncations[T]Theorem
Compression parameter k=1−Rk = 1 - R (T-62)kk is not free: k=1−Rk = 1 - R, R=1−∥Γ−ρ∗∥F2/∥Γ∥F2R = 1 - \|\Gamma - \rho^*\|_F^2/\|\Gamma\|_F^2; adaptive self-modeling[T]Theorem
PW reconstruction algorithm (T-95)4-step procedure Γ→ρE,Ddiff,σL,C\Gamma \to \rho_E, D_{\text{diff}}, \sigma_L, C; the 7D quantities survive the round trip π∘ι=id\pi\circ\iota = \mathrm{id} (T-58′). Registry: [T] → [C] (2026-09-10); the "zero error" step is retracted — it rested on the Morita equivalence T-58, and in 7D ρE=γEE\rho_E = \gamma_{EE} is a scalar compared with a 42D clock block[C]Theorem
Structural θQCD=0\theta_{\mathrm{QCD}} = 0 (T-99)7-step derivation: reality of fijk∈Rf_{ijk} \in \mathbb{R} (A1) + unique vacuum (T-64) → θQCD=0\theta_{\mathrm{QCD}} = 0. Stratified 2026-09-25: step 2 (V3V_3 the only PTPT-odd term) [T] for the retracted cubic only — the G2G_2-invariant potential is PT-even (T-331); the conclusion uses the unique sector vacuum, the hypothesis (SV). Axion is purely DM. Retracted 2026-09-26: step 4 is false for V3V_3 itself; the Gap sector is CP-neutral but fixes no θˉ\bar\theta (Theorem 3.1c), so θˉ\bar\theta is free and strong CP is open [Pr][✗] (was [T]+[C at (SV)])Theorem
Environment encoding (T-100)CPTP functor Enc: ObsSpace → End(D(C⁷)), unique up to G₂. 3-channel decomposition from T-57[T]Theorem
Optimal action (T-101)a∗=arg⁡min⁡∥σsys∥∞a^* = \arg\min \|\sigma_{\mathrm{sys}}\|_\infty — from T-92 (equivalence of P and σ)[T]Theorem
Completeness of the 3-term equation (T-102)hext=h(H)+h(D)+h(R)h^{\text{ext}} = h^{(H)} + h^{(D)} + h^{(R)}, 4th type impossible (from T-57 LGKS)[T]Theorem
Hedonic valence (T-103)Vhed=dP/dτ∥R\mathcal{V}_{\text{hed}} = dP/d\tau\|_{\mathcal{R}}: formula [T], observability at L2 [T] (T-77), phenomenal interpretation [I][T]+[I]Theorem
Stability radius (T-104)rstab≈K(P−1/7−1/7)r_{\text{stab}} \approx K\bigl(\sqrt{P-1/7}-\sqrt{1/7}\bigr), K=3564/10K=\sqrt{35}\sqrt[4]{6}/10 — Bures distance to {P=2/7}\{P=2/7\}; the old P−2/7\sqrt{P-2/7} is refuted; most dangerous channel is h(D)h^{(D)}[C]Theorem
Landauer energy balance (T-105)ΔFmin⁡=kBTeff⋅ln⁡2⋅S˙diss\Delta F_{\min} = k_B T_{\text{eff}} \cdot \ln 2 \cdot \dot{S}_{\text{diss}}; three metabolic regimes[T]Theorem
Information capacity of Enc (T-107)CEnc≤log⁡27≈2.81C_{\text{Enc}} \leq \log_2 7 \approx 2.81 bits/observation (Holevo bound + T-102)[T]Theorem
Compositionality of Enc/Dec (T-108)Enc12=Φagg∘(Enc1⊗Enc2)\text{Enc}_{12} = \Phi_{\text{agg}} \circ (\text{Enc}_1 \otimes \text{Enc}_2) is CPTP for every CPTP aggregation (T-100 + closure of channels under ⊗\otimes and ∘\circ); that the diagnostics carry over across scales holds at weak coupling through the canonical aggregation (T-72, Theorem 9.5); the uniqueness claim is retracted[T]; transfer [T at weak coupling]Theorem
Information learning bound (T-109)n≥ln⁡(1/(2δ))/ξQCBn \geq \ln(1/(2\delta))/\xi_{\text{QCB}}, ξQCB≤ln⁡7\xi_{\text{QCB}} \leq \ln 7 (quantum Chernoff bound + T-107)[T]Theorem
Optimal learning bound (T-112)nopt=max⁡(ninfo,ndyn,nstab)n_{\text{opt}} = \max(n_{\text{info}}, n_{\text{dyn}}, n_{\text{stab}}) — three regimes[T]Theorem
N=7 minimality for learning (T-113)Learning via regeneration is impossible for N<7N < 7; N=7N = 7 is Pareto-optimal[T]Theorem
Fano grammar (T-114)Markov chain on PG(2,2) is ergodic, stationary distribution πi=1/7\pi_i = 1/7[T]Theorem
Composition distinguishability (T-115)∥Comp(n)∥=7n\|\mathrm{Comp}(n)\| = 7^n for generic Γ\Gamma (algebraic distinguishability)[T]Theorem
PW Suzuki-Trotter (T-116)ε(T)≤Cp⋅T⋅(δτ)2p+1\varepsilon(T) \leq C_p \cdot T \cdot (\delta\tau)^{2p+1}, for p=2p=2: ε≤10−5\varepsilon \leq 10^{-5}[T]Theorem
Landauer calibration (C22)ΔF(k)≥kBTeffln⁡(2)⋅k\Delta F^{(k)} \geq k_B T_\mathrm{eff} \ln(2) \cdot k — linear growth[C]Theorem
Status legend
  • [T] STRICT — mathematically proven without additional assumptions
  • [C] CONDITIONAL — proven under explicit interpretational assumptions
  • [P] PROGRAM — research direction

What the Theory Derives​

From the ∞-topos Sh∞(C)\mathrm{Sh}_\infty(\mathcal{C}):​

  1. Base space X = ∣N(C)∣|N(\mathcal{C})| — geometric realization of the nerve
  2. Monism — H*(X) = 0 as a mathematical theorem
  3. Local physics — H*_loc(X, T) ≠ 0 near the terminal object
  4. Time — the cyclic clock τ ∈ ℤ₇ via the Page–Wootters mechanism (the clock register [T]; the constraint is assumed, [C])
  5. Arrow of time — stratal collapse toward the terminal T, in the parameter of the dissipative semigroup, carried by the depth register ([T], T-53b)
  6. Metric — d_strat (stratified Connes metric)
  7. Dimensionality — dim(X) = 6 from N = 7
  8. Octonionic structure — P1+P2 → O\mathbb{O} → N=7, G2G_2-symmetry, Fano plane, Hamming code, with the canonical orientation of the Fano lines (T15-canon; Track B)

Research program:​

  • Compactification 6D → 4D — connection to observed spacetime
  • Einstein equations — [T] (T-53): full spectral action, see theorem
  • Connection to the Standard Model — formalized program

Takes as primitive (categorical gap):​

  • Why the ∞-topos Sh∞(C)\mathrm{Sh}_\infty(\mathcal{C}) has an "inner side"
  • Why this particular mathematical structure and not another

Premises in use (2026-09-26). The single list, with where each premise is used, its status, the independence models and the mergers, is Premises of UHM. In short:

  • Axioms [P]: A1–A4 and the constraint C^Γ=0\hat C\Gamma = 0 of A5 (the form of the timeless state; the clock register itself is [T], T-87); the metatheory, the CPTP formalism and the frame decision D-0910 are definitions [D].
  • Bridge premises of physics [H]: (Cl₀) — fermions are vectors of the spinor module S=C⊗O\mathcal S = \mathbb C\otimes\mathbb O; (P) — spacetime's tangent vectors are the Hermitian forms on the spinor factor of the fermion field, with a causal form preserved by every internal-structure-preserving transformation (⟺ (L) ∧ (W)). (P) as stated names S\mathcal S, but the two are independent inputs; (W₀), a complex spinor factor, is not a separate premise.
  • Principle of the self-model [Pr]: (MaxΦ) — the anchor is maximally integrated, Φ(ρa)=6\Phi(\rho_a) = 6 (⟺ (Eq-V)); it is independent of the axioms and of life in the window, and no variational principle of the corpus yields it.
  • Strict necessity of N=7N = 7 [H]: (Σ₆) — every decomposition is perfectly single-fault diagnosable (T-349); it replaced the stronger (P1₆) on 2026-09-28. N≥7N \geq 7 for the seven listed functions needs no premise.
  • Free parameters: the associator coupling κ\kappa of VGapV_{\text{Gap}} (free, T-331), μ2\mu^2, λ4\lambda_4, the regeneration rate and the Fano weight α\alpha, ω0\omega_0, θˉQCD\bar\theta_{\mathrm{QCD}}.
  • Identification hypotheses [H]: (SV), (GC) in broken form, (UP) at leading order, (PQ) (strong CP open [Pr]), (FE) and (SA) in the axis frame, the Higgs identification, T-186(a), the reconstruction and aperiodic-clock conditions of T-119/T-120 as physics, (HOL) [I].

Results labelled "[T] as mathematics" use only the axioms; their physical readings carry the premises above. The former inputs (Alt), (MP), (MM), (Q), (RT), (Col), (Pure), (AGG), (ND) are discharged.

Minimality of the primitive

UHM's psychophysical primitive is one: the identity of being and experience (the inner side of the ∞-topos above), against two levels plus emergence for physicalism and two substances plus a causal link for dualism — a count of primitives about how experience relates to the physical, compared among these three types, [I] (justification). It is not a count of the theory's axioms. The independent axiomatic content is A1–A4 plus the constraint of A5 — five inputs, each independent (the independence of the constraint is [T]) — and the bridge premises and (MaxΦ) of the list above come on top; the identity of being and experience is not a sixth axiom but the reading of axiom Ω⁷ as a whole. (Until 2026-09-26 the box read "minimal among all possible axiomatic choices: one axiom instead of two or three"; the phrase is withdrawn as a count of axioms.) From it are derived: the form of experiential content (unique functor), identity of qualia (Yoneda lemma), immanence of description (closure via φ).

The relational identity of qualia via the Yoneda lemma was proposed before UHM: Tsuchiya and Saigo stated it for a category of experiences in an April 2020 preprint (doi:10.31219/osf.io/68nhy) and in Neurosci. Conscious. 2021, niab034; the category-theoretic approach to consciousness goes back to Tsuchiya, Taguchi and Saigo (Neurosci. Res. 107, 1–7, 2016), and a graded (enriched-category) version is in Tsuchiya, Phillips and Saigo (Conscious. Cogn. 101, 103319, 2022). UHM applies the lemma to its own category of experiences — rays of P(HE)\mathbb{P}(\mathcal{H}_E) with Fubini–Study distances.

SectionContents
Axiom Ω⁷Five structural properties with the ∞-topos Sh∞(C)\mathrm{Sh}_\infty(\mathcal{C}) as primitive
ConsequencesCohomological monism, local-global dichotomy
StructureHolonom and 7 dimensions
DynamicsEvolution equations with terminal object T
SpacetimeBase space X, metric d_strat
ConsciousnessHierarchy L0→L1→L2→L3→L4
Emergent timePage–Wootters, stratificational time
Categorical formalism∞-topos, derived categories, IC cohomologies
Uniqueness theoremG₂-rigidity: 34 kinematic invariants, 48 physical parameters (frame decision D-0910)
Standard ModelColour SU(3)SU(3) from G₂ [T]; electroweak sector [C at (FE)], uniqueness [H]; 3 generations (count [T], identification [I])
PhysicsGauge symmetry, particles, gravity, cosmology
Neutrino massesSeesaw from Gap, MRM_R [T], O-sector Yukawa (formula [T] / numbers [C]), PMNS [C]
SUSY from G2G_2Superpotential [T] (Schur), superpartner spectrum, gravitino
Gap thermodynamicsPotential VGapV_{\text{Gap}}, global minimization [T], sector hierarchy ε\varepsilon
Quantum gravitySpectral action [T], UV-finiteness (field-space [T], order-by-order [C]), Einstein equations [T]
Cosmological constantΛ>0\Lambda > 0 [T], spectral formula [T], honest bracket 10−53.510^{-53.5}–10−93.510^{-93.5} [C] (≳27\gtrsim 27 orders open)
Composite systemsCC-5 (viability of the canonical aggregate at weak coupling, [T at weak coupling]), topological protection of Gap [T], emergent geometry
Interiority hierarchyL0–L4, K=4K=4 for L3 [T], categorical unattainability of L4 [T] (T-86)
Depth towerSAD metric [T], depth dynamics (A₄-bifurcation, energy, stress, social), morphological agnosticism [H]
GlossaryTerm definitions
NotationMathematical notation