IndisputableMonolith.Thermodynamics.FermiDirac
The FermiDirac module defines the Fermi-Dirac distribution for fermions in Recognition Science thermodynamics. It imports the RS time quantum and the spin-statistics result from the 8-tick phase to ground the occupation function. The module supplies supporting definitions for fermionic statistics without containing proofs. Researchers working on RS-derived thermodynamics would cite it when applying antisymmetric statistics to energy distributions.
claimThe Fermi-Dirac distribution is the function $f(E) = 1/(\exp((E-\mu)/kT)+1)$, where $E$ denotes single-particle energy, $\mu$ the chemical potential, $T$ the temperature, and $k$ Boltzmann's constant expressed in RS-native units with fundamental time quantum $\tau_0=1$.
background
Recognition Science derives all physics from the forcing chain T0-T8, with T7 fixing the eight-tick octave that underlies the spin-statistics connection. The upstream SpinStatistics module states: "The spin-statistics theorem states: - Fermions (spin 1/2, 3/2, ...) obey Fermi-Dirac statistics (antisymmetric wavefunction)". Constants supplies the RS time quantum $\tau_0=1$ tick. The FermiDirac module applies these inputs to introduce the standard fermionic occupation number in the thermodynamics domain.
proof idea
this is a definition module, no proofs
why it matters in Recognition Science
The module supplies the distribution required by the spin-statistics theorem (QFT-001) for all subsequent fermionic thermodynamics. It directly implements the Fermi-Dirac form needed once the 8-tick phase has fixed antisymmetric statistics. The definitions support sibling results on zero-temperature limits, classical limits, and Fermi energy within the same module.
scope and limits
- Does not derive the distribution from the recognition composition law.
- Does not compute integrated thermodynamic potentials such as pressure or entropy.
- Does not address the phi-ladder or mass formulas.
- Does not treat interactions or finite-temperature corrections beyond the ideal case.
depends on (2)
declarations in this module (20)
-
def
fermiDirac -
theorem
fermi_dirac_bounded -
theorem
fermi_at_mu -
theorem
fermi_zero_temp_below -
theorem
fermi_zero_temp_above -
theorem
fermi_from_odd_phase -
theorem
fermi_dirac_from_maximum_entropy -
def
boseEinstein -
theorem
bose_can_exceed_one -
def
maxwellBoltzmann -
theorem
classical_limit -
def
fermiEnergy -
def
fermiTemperature -
def
applications -
theorem
electronic_specific_heat -
theorem
fermi_dirac_from_ledger -
theorem
chemical_potential_meaning -
def
predictions -
structure
FermiFalsifier -
def
experimentalStatus