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IndisputableMonolith.Foundation.QRFT.SMLagrangianSkeleton

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The module defines the four canonical sectors of the Standard Model Lagrangian together with their cost functions inside the Recognition Science framework. It introduces SMLagrangianSector and sectorCost along with basic properties such as vanishing at vacuum and non-negativity. Researchers deriving the SM gauge and matter terms from the J-functional equation would reference these constructions. The module consists of type definitions and supporting lemmas with no complex proof structure.

claimThe module introduces the type $SMLagrangianSector$ with four constructors and the map $sectorCost : SMLagrangianSector → ℝ$ obeying $sectorCost(s)=0$ at vacuum, $sectorCost(s)=sectorCost(1/s)$, and $sectorCost(s)≥0$ with strict inequality off vacuum. It further defines $totalCost$ as the sum of sector costs and the certificate $SMLagrangianCert$.

background

The module imports the RS time quantum τ₀=1 tick from Constants and the J-cost machinery from Cost. In Recognition Science the J-functional equation yields the cost via T5 J-uniqueness, J(x)=(x+x⁻¹)/2−1. The four sectors decompose the SM Lagrangian into gauge and Higgs contributions on the phi-ladder. Local notation follows the QRFT skeleton where defectDist and sector costs are measured in RS-native units with c=1, ħ=φ⁻⁵.

proof idea

This is a definition module, no proofs.

why it matters in Recognition Science

The module supplies the sector decomposition required for totalCost and the subsequent embedding of the SM into the unified forcing chain T0–T8. It connects directly to the mass formula yardstick·φ^(rung−8+gap(Z)) and the Berry creation threshold φ⁻¹. No downstream theorems are recorded yet, but the construction prepares the ground for the full Lagrangian derivation from the Recognition Composition Law.

scope and limits

depends on (2)

Lean names referenced from this declaration's body.

declarations in this module (12)