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IndisputableMonolith.Ethics.ThermodynamicInstabilityOfExtraction

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This module defines the combined J-cost for a two-agent extraction system in Recognition Science, with one agent shifted to e^σ and the other to e^{-σ}. It would be cited when analyzing thermodynamic constraints on extraction within the ethics domain. The module assembles a sequence of lemmas on non-negativity, convexity, and equilibrium uniqueness derived from the functional equation.

claimLet $J(x) = (x + x^{-1})/2 - 1$. For extraction parameter σ the system cost is $J(e^σ) + J(e^{-σ})$, which is nonnegative, strictly convex, and minimized only at σ = 0.

background

The module sits in the Ethics domain and imports the Cost module (defining the J-cost) together with Cost.FunctionalEquation, whose doc-comment states it supplies lemmas for the T5 cost uniqueness proof. Extraction is modeled as an asymmetric shift that places the two agents at reciprocal exponential positions. The Recognition Science setting uses the J-cost as the unique solution to the Recognition Composition Law, with T5 establishing J-uniqueness and T6 forcing the self-similar fixed point phi.

proof idea

This is a definition module, no proofs. It opens with the extractionSystemCost definition, then applies algebraic identities from the FunctionalEquation module to obtain the cosh form, non-negativity, first and second derivatives, strict convexity, and the unique equilibrium at zero.

why it matters in Recognition Science

The module applies T5 J-uniqueness to an ethical setting, showing that extraction creates a positive surcharge that cannot be removed without reversing the shift. It supplies the formal substrate for downstream ethics results that link thermodynamic cost to instability, consistent with the eight-tick octave and D = 3 spatial structure of the forcing chain.

scope and limits

depends on (2)

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