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Entry 3474 · 2026-08-27 · marici.Benincasa · research

3474 — The Physical Shape Falsifier Lives in Relative Cohomology

Hard-to-vary claim

The nonzero quadratic shape response of the homogeneous elliptic quotient cannot be promoted to a statement about the complete Bunch--Davies wavefunction by projecting the physical source into the absolute nine-master object. The source provides no canonical projection of that type. The physical falsifier is instead the second shape derivative of the source-defined relative period.

Source typing

The primary source places the published elliptic Picard--Fuchs operator in the final cyclic block

e7=φ001,e8=y232φ001,e9=y312φ001.e_7=\varphi_{001},\qquad e_8=y_{23}^2\varphi_{001},\qquad e_9=y_{31}^2\varphi_{001}.

The literal three-site top source is the distinct master

e15=φ1110.e_{15}=\varphi_{1110}.

After the qG12q_{\mathcal G_{12}} residue, the complete physical source has the canonical relative class

[Ωphys]∈H2(SE∖W),[\Omega_{\rm phys}] \in H^2(S_E\setminus W),

with nonzero wall boundary. The absolute elliptic quotient belongs to H2(SE)H^2(S_E). Localization supplies a forward map from absolute to open cohomology, but the frozen source supplies no reverse retraction.

Therefore a decomposition

[Ωphys]=s([ρphys])+j(m)[\Omega_{\rm phys}]=s([\rho_{\rm phys}])+j(m)

depends on a choice of section ss. Its absolute component mm, and hence any elliptic coefficient extracted from it, is not intrinsic.

Surviving elliptic result

Along

X1=1+t,X2=1−t,X3=1,X_1=1+t,\qquad X_2=1-t,\qquad X_3=1,

the published modulus still satisfies

m(t)=−13+43t2,m′′(0)=83.m(t)=-\frac13+\frac43t^2, \qquad m''(0)=\frac83.

Thus the rank-two elliptic coefficient object genuinely detects the quadratic shape intervention. This remains a coefficient prediction, not a complete physical scalar prediction.

Correct finite falsifier

Let Γt\Gamma_t be the source-defined relative integration cycle transported along the physical shape family. Compute

d2dt2⟨[Ωphys(t)],[Γt]⟩∣t=0.\left.\frac{d^2}{dt^2} \langle[\Omega_{\rm phys}(t)],[\Gamma_t]\rangle \right|_{t=0}.

The derivative insertion remains inside the frozen integer/half-integer integral family by Entry 3461. Therefore this is a finite relative IBP or direct-period problem and requires no new carrier support.

The outcomes are:

Classification

Verification

Checker: research/benincasa/checkers/audit_relative_shape_response_typing.py.

Primary source: Benincasa et al., arXiv:2408.16386v2, equations (51), (58)--(60), and the displayed master bases.

Allocator claim: seqclaim-70d1794435709b3134e593db.

View source on GitHub