claimroutineinferred_dep
Route operators telescope to C^{⊗m}
Route operators telescope to except on
identifies phase frames along each signed route
Claim·§3.5 The binary phase interface·inside propComplex network edges factor into translation kernels
Statement (paper)
Let be the underlying permutation of the complex roles, exchanging and fixing each scratch role. Then in the complex network an input role reaches the output role with the sign for , for and for each scratch role, and with operator ; on columns this operator is replaced by its th tensor power, with the scalar route sign applied once. Every such route other than joins a zero label (frame ) and a full label (frame , since ), so its operator is .
In plain English
In the complex network, each input role is routed to the output role (swapping and , fixing scratch roles) with sign for and scratch roles and for . The route operator is , its th tensor power on columns, and it equals for every route except .
Why it's here
The signed-swap lemma fixes which roles are connected and with what sign, and the edge-by-edge kernel factorization on columns lets the phase-frame differences telescope along each route to a source-to-sink frame ratio. Every route other than joins a zero label (frame ) to a full label (frame ), so the ratio is ; the exceptional route is then repaired by the next claim's diagonal sign corrections.
Classified routine:
A direct bookkeeping consequence of the signed-swap lemma (lem-scalar-motifs) and the preceding k-column kernel factorization claim. The phase-frame differences telescope along each route to a source-to-sink ratio, which equals C^{⊗m} because q_F(x)=wt(x).
Uses
Used by
Sources
PaperOpen
- Section
- §3.5 The binary phase interface
- Page
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- Label
—- Line
sections/03-motifs.tex:627
Leannot aligned
Phase 2 aligns this node to a Lean declaration.
Friction
- infoinferred_depoutline: "Route operators from common-frame identity; C^{⊗m} on most roles" rests on claim-prop-complex-motif-interface-2