IndisputableMonolith.Thermodynamics.SecondLaw
This module packages the Gibbs measure as a ProbabilityDistribution to serve as the equilibrium reference for J-descent dynamics. It imports the cost function and maximum-entropy results to define the fixed point under Recognition Temperature. The module supplies the reference state needed for thermodynamic evolution arguments in Recognition Science. It contains no proofs and consists of definitions plus supporting lemmas.
claimThe central object is the Gibbs probability distribution $\mathrm{GibbsPD}$ obtained by maximizing entropy subject to a fixed $J$-cost constraint, acting as the equilibrium measure for the evolution operator under finite Recognition Temperature $T_R$.
background
Recognition Science extends $T=0$ cost minimization to finite Recognition Temperature $T_R$ in the RecognitionThermodynamics module. The upstream MaxEntFromCost result establishes that the Gibbs distribution arises as the unique maximum-entropy state under a $J$-cost constraint. The present module packages that distribution as a ProbabilityDistribution to serve as the reference state for J-descent dynamics.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The module supplies the equilibrium reference required by the J-descent operator and free-energy lemmas listed among its siblings. It therefore feeds the formulation of the second law within the Recognition Thermodynamics framework.
scope and limits
- Does not prove the second-law inequality.
- Does not treat time-dependent or non-equilibrium trajectories.
- Does not derive numerical values for $T_R$ or the Gibbs measure.
- Does not address interactions beyond the single-system cost constraint.
depends on (3)
declarations in this module (22)
-
def
gibbsPD -
lemma
gibbsPD_p -
structure
JDescentOperator -
def
evolve -
lemma
evolve_zero -
lemma
evolve_succ -
theorem
evolve_equilibrium_eq -
theorem
kl_step_le -
theorem
kl_le_of_le -
theorem
kl_divergence_antitone -
lemma
fe_kl_id -
theorem
free_energy_step_le -
theorem
free_energy_le_of_le -
theorem
free_energy_antitone -
theorem
free_energy_ge_equilibrium -
theorem
second_law -
theorem
second_law_one_statement -
theorem
second_law_entropy_form -
theorem
entropy_increase_under_conservation -
structure
SecondLawCert -
def
secondLawCert -
theorem
secondLawCert_inhabited