IndisputableMonolith.Ethics.ThermodynamicInstabilityOfExtraction
This module defines the combined J-cost for an extraction system in which one agent extracts quantity σ from another, placing the agents at scale factors e^σ and e^{-σ}. It proves the resulting cost is nonnegative, strictly convex, and minimized only at σ = 0, establishing thermodynamic instability. Researchers working on Recognition Science ethics would cite these lemmas when arguing that extraction necessarily creates a positive surcharge. The module consists of direct definitions plus short algebraic derivations that invoke the J-functional,
claimThe extraction system cost is $J(e^σ) + J(e^{-σ})$, where $J(x) = (x + x^{-1})/2 - 1$. This quantity equals $2J(φ^σ) + 2J(φ^{-σ})$ for the self-similar fixed point φ and is strictly positive for all σ ≠ 0.
background
The module imports the J-cost definition and the Recognition Composition Law from IndisputableMonolith.Cost together with the T5 functional-equation lemmas from Cost.FunctionalEquation. In the Recognition Science setting the J-cost quantifies the recognition defect associated with a scale factor x on the phi-ladder; the combined cost for two agents at reciprocal positions therefore measures the total instability created by any nonzero extraction σ. The local theoretical context is the ethical application of these costs to show that extraction is thermodynamically forbidden.
proof idea
This is a definition module. It introduces extractionSystemCost as the sum of the two J-values, then applies the functional equation to obtain the cosh identity, non-negativity, strict convexity, and the unique minimum at zero extraction. All steps are one-line wrappers or direct algebraic reductions that cite the upstream T5 lemmas.
why it matters in Recognition Science
The module supplies the concrete cost model that supports the thermodynamic-instability claim in the ethics domain. It rests on T5 J-uniqueness and the eight-tick octave structure; its results feed the broader Recognition Science argument that any extraction process necessarily increases total defect and therefore violates the minimum-cost principle.
scope and limits
- Does not treat extraction among three or more agents.
- Does not incorporate time-dependent or stochastic extraction.
- Does not derive numerical bounds on σ in physical units.
- Does not address quantum or gravitational corrections to the cost.
depends on (2)
declarations in this module (22)
-
def
extractionSystemCost -
theorem
extraction_cost_eq_cosh -
theorem
extraction_cost_nonneg -
theorem
extraction_creates_surcharge -
theorem
extraction_cost_eq_zero_iff -
theorem
deriv_extraction_cost -
theorem
second_deriv_extraction_cost -
theorem
extraction_cost_strictly_convex -
theorem
extraction_unique_equilibrium -
theorem
extraction_cost_minimum_at_zero -
theorem
extraction_cost_strict_minimum -
theorem
dAlembert_cosh_sum -
theorem
cosh_sum_via_dAlembert -
def
pairSystemCost -
def
pairCostAfterLove -
theorem
love_jensen_inequality -
theorem
love_jensen_strict -
theorem
love_achieves_ground_state -
theorem
love_eliminates_all_waste -
theorem
restoring_force_positive -
theorem
restoring_force_negative -
theorem
force_always_toward_balance