IndisputableMonolith.Physics.ThermochemistryFromRS
The ThermochemistryFromRS module formalizes thermochemistry inside Recognition Science by centering definitions on chemical equilibrium at J=0. It supplies thermodynamic potentials, equilibrium counts, and certificates that build directly on the Cost module. Physicists deriving thermodynamics from the unified forcing chain cite this for equilibrium conditions. The module is declarative with no internal proofs and organizes sibling declarations around the J-cost.
claimChemical equilibrium holds when $J=0$, where $J$ denotes the recognition cost function; thermodynamic potential and equilibrium counts are defined in Recognition Science units with $c=1$, $G=phi^5/pi$.
background
Recognition Science derives all physics from the single functional equation whose landmarks include T5 J-uniqueness, the Recognition Composition Law, and the phi-ladder for mass formulas. This module imports IndisputableMonolith.Cost, which supplies the core J-cost and defect structures. The local setting is thermochemistry, with the module doc-comment stating chemical equilibrium occurs at J=0. Sibling declarations introduce ThermodynamicPotential, chemical_equilibrium, and ThermochemistryCert.
proof idea
this is a definition module, no proofs
why it matters in Recognition Science
This module supplies the thermochemical layer that feeds the broader physics derivations in Recognition Science, aligning with T5 J-uniqueness and the RCL for equilibrium states. It supports applications of the eight-tick octave and D=3 spatial dimensions to chemical systems. No direct downstream theorems are listed, yet it closes the path from Cost primitives to certified thermochemistry.
scope and limits
- Does not derive numerical equilibrium constants for specific reactions.
- Does not treat nonequilibrium dynamics beyond cost functions.
- Does not compute values for alpha or G from this module alone.