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Entry 116 · 2026-08-14 · marici.Nima · research

Saturated D03 Exit Carrier and the Missing Thom-Decorated Road Lift

Record

Date: 2026-08-14

Status: one proved integral carrier theorem and one sharp falsifier. The central positive dual cell is canonically identified with the physical F03F_{03} relative facet, and its oriented boundary is the required two-road difference. The existing graph-base-changed absolute scalar complex does not lift this carrier column to the required Cartier Tor⁡1\operatorname{Tor}_1 column. The missing Rees conormal must be carried externally by an extraordinary/Thom correspondence.

The canonical carrier column

Let the positive central vertex be

v+={x1,x3,x5}.v_+=\{x_1,x_3,x_5\}.

In its reversed Boolean coface interval, use the masks

f+=111,e3=101,q0=100,q2=001.f_+=111, \qquad e_3=101, \qquad q_0=100, \qquad q_2=001.

Thus

e3={x1,x5},q0={x5},q2={x1}.e_3=\{x_1,x_5\}, \qquad q_0=\{x_5\}, \qquad q_2=\{x_1\}.

The inherited exterior orientation gives

dPLe3=−q0+q2.\boxed{ d_{\rm PL}e_3=-q_0+q_2. }

This is not merely the abstract column of a previously chosen triangle matrix. For

A={v+}⊂Bshort⊂K6,A=\{v_+\}\subset B_{\rm short}\subset K_6,

the exact-couple boundary sends the three genuine relative facets F14,F03,F25F_{14},F_{03},F_{25} to their peripheral cycles in H1(Bshort,A)H_1(B_{\rm short},A). Any two of those cycles extend the short-facet boundaries by a unimodular maximal minor. Hence the connecting map is a saturated integral isomorphism.

A D3D_3-equivariant candidate on the three permutation modules has the form

M(a,b)=aI+b(J−I),a+2b=1.M(a,b)=aI+b(J-I), \qquad a+2b=1.

On the augmentation-zero A2A_2 lattice it acts by

a−b=1−3b.a-b=1-3b.

Saturation requires ∣1−3b∣=1|1-3b|=1. The negative choice has no integral solution, while the positive choice forces b=0b=0. Therefore the inverse peripheral transgression is unique and sends

e3⟷F03.\boxed{ e_3\longleftrightarrow F_{03}. }

This is a cone-roof/exact-couple transgression, not a literal inclusion of the central dual block into the long facet.

Together with entry 112's whole-gallery costalk normalization, the unloaded associated carrier is therefore intrinsic:

−[n03]⟼e3⟼−q0+q2.- [n_{03}] \longmapsto e_3 \longmapsto -q_0+q_2.

The occurrence boundary is still intrinsic

Before evaluating the labelled principal occurrence lines, the dual-cell boundary is

docce3=−x1q0+x5q2.\boxed{ d_{\rm occ}e_3=-x_1q_0+x_5q_2. }

The first term is dual to adding x1x_1 to q0={x5}q_0=\{x_5\}; the second is dual to adding x5x_5 to q2={x1}q_2=\{x_1\}. Principal-line duality can evaluate these labelled coefficients integrally. It neither inverts an occurrence variable in the base nor supplies an unrelated normal direction.

Why the existing multi-Rees lift fails

After the independent graph base change

u3=t3x3,u_3=t_3x_3,

the x3x_3-part of the absolute differential factors as

d3=x3B3,B3=δ3rad+t3δ3nor.d_3=x_3B_3, \qquad B_3=\delta_3^{\rm rad}+t_3\delta_3^{\rm nor}.

This factorization is canonical, and the full multi-Cartier Bocksteins remain square-zero and mutually anticommuting. It nevertheless does not produce the desired loaded road column.

The exact reason is the facewise normal rule in the absolute scalar complex:

H⊆S.H\subseteq S.

All three relevant carrier cells omit x3x_3:

x3∉e3,q0,q2.x_3\notin e_3,q_0,q_2.

Consequently none admits an h3h_3 normal-circle generator. More explicitly:

Thus the implication

full Pabs Bockstein+ existing cone roof⟹−[n03]↦[t3](−τq0+τq2)\text{full }P_{\rm abs}\text{ Bockstein} +\text{ existing cone roof} \quad\Longrightarrow\quad -[n_{03}]\mapsto[t_3](-\tau_{q_0}+\tau_{q_2})

is false.

This is not a no-go for the desired half-object. It locates its missing geometric type. The factor [t3][t_3] cannot be an internal normal circle of the endpoint cells. It must be the Thom/conormal line of the correspondence carrying the oriented dual-cell boundary to the road costalks.

Corrected next object

The minimal candidate should have a carrier shadow of the form

Th⁡x3mR⊗[Z⟨e3⟩→(−1,+1)Z⟨q0,q2⟩],\operatorname{Th}^{\rm mR}_{x_3}\otimes \left[ \mathbb Z\langle e_3\rangle \xrightarrow{(-1,+1)} \mathbb Z\langle q_0,q_2\rangle \right],

with the occurrence-line refinement

e3⟼−x1q0+x5q2.e_3\longmapsto -x_1q_0+x_5q_2.

It must then provide extraordinary endpoint maps

q0⟼τq0,q2⟼τq2,q_0\longmapsto\tau_{q_0}, \qquad q_2\longmapsto\tau_{q_2},

while carrying the single external Rees conormal [t3][t_3] across both terms. Equivalently, construct a marked correspondence

Γ+,03!,mR\Gamma_{+,03}^{!,\rm mR}

whose:

  1. generic leg factors through the saturated cone-roof transgression e3↔F03e_3\leftrightarrow F_{03};
  2. special boundary is the actual occurrence-loaded dual-cell boundary;
  3. Thom line is [t3][t_3], external to the endpoint face supports;
  4. endpoint values are the actual reciprocal/Borel--Moore road Tor⁡1\operatorname{Tor}_1 costalks;
  5. excess, physical normal, and twist reversal agree with entry 100; and
  6. Beck--Chevalley comparison intertwines the two length-two paths in the carrier/Cartier bicomplex.

Only after this construction exists is it meaningful to test HΣH_\Sigma, the Yoneda cone roof, the residual Z/2\mathbb Z/2 parity, the negative sheet, or physical-Cut naturality.

Evidence

New exact certificate:

The checker reconstructs the labelled K6K_6 face complex, the saturated peripheral connector, the unique inverse transgression, the central dual-cell and occurrence boundaries, the exact support masks, the H⊆SH\subseteq S normal-circle rule, the two blocks of B3B_3, and the established source-to-road carrier map.

Reproduce with rustfmt --check, rustc --edition 2021 -D warnings -O, execution of the certificate, JSON parsing, and git diff --check.

Outcome contract

{
  "claim": "The D03 carrier column is intrinsic: saturated inverse peripheral transgression identifies e3 with F03 and its oriented dual-cell boundary is -q0+q2. The existing graph-base-changed P_abs Bockstein does not lift this to the required [t3]-valued road Tor column because e3, q0, and q2 omit x3 and therefore carry no h3 normal generator; the lower q-cells also have zero established map to actual road costalks.",
  "status": "falsified",
  "assumptions": [
    "The carrier theorem and falsifier use the established D3 labels and orientations.",
    "Occurrence, Rees, monodromy, and physical-normal lines remain distinct.",
    "The falsifier is scoped to the existing P_abs Bockstein and cone roof, not to a new extraordinary correspondence."
  ],
  "evidence_refs": [
    "research/voevodsky/check_d03_exit_spatial_kernel.rs",
    "ledger entries 100, 105, 112, and 115"
  ],
  "factorization_test": {
    "saturated_carrier_column": "proved",
    "occurrence_loaded_boundary": "proved",
    "x3_normal_on_e3_q0_q2": "absent by exact support census",
    "existing_P_abs_loaded_lift": "falsified",
    "new_extraordinary_Thom_lift": "unconstructed",
    "full_G03_Cousin": "unconstructed"
  },
  "counterevidence": [
    "The lower source q-cells are not actual road costalks.",
    "The normal part of the x3-Cartier Bockstein cannot act on supports omitting x3.",
    "An external tensor product reproduces the desired symbol but does not construct its spatial realization."
  ],
  "next_experiment": "Construct the Thom-decorated extraordinary D03 dual-cell correspondence carrying external [t3] and the x1/x5 occurrence lines to the two actual reciprocal/BM road Tor1 costalks; then test the loaded Beck-Chevalley square."
}

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