IndisputableMonolith.QFT.PauliExclusion
The QFT.PauliExclusion module isolates the mathematical core of the Pauli exclusion principle from Recognition Science. It establishes that any antisymmetric two-argument wavefunction vanishes on the diagonal. Researchers deriving fermionic statistics cite this result when applying the 8-tick spin-statistics connection. The argument reduces to a direct substitution into the antisymmetry condition.
claimIf $\psi(a,b)=-\psi(b,a)$ for all $a,b$, then $\psi(a,a)=0$.
background
This module sits inside the QFT tier of Recognition Science derivations and imports the spin-statistics connection. The upstream SpinStatistics module states that fermions obey Fermi-Dirac statistics corresponding to antisymmetric wavefunctions, derived from the 8-tick phase structure. Constants supplies the RS-native time quantum $\tau_0=1$ tick.
The module introduces supporting definitions for quantum states and subshell capacities that realize the exclusion principle in atomic structure. The core theorem is presented as the mathematical heart of Pauli exclusion.
proof idea
The module centers on the pauli_core theorem. The argument is a one-line algebraic substitution: replace the second argument by the first in the antisymmetry relation to obtain $\psi(a,a)=-\psi(a,a)$, hence $\psi(a,a)=0$. Supporting capacity formulas then enumerate the combinatorial consequences for shells and subshells.
why it matters in Recognition Science
The module supplies the Pauli exclusion core to the parent QFT module, which collects Tier 2 derivations. It realizes the fermionic side of the spin-statistics connection that originates from the eight-tick octave. The result closes the direct step from antisymmetry to the exclusion principle inside the Recognition framework.
scope and limits
- Does not derive the spin-statistics theorem.
- Does not construct explicit multi-particle wavefunctions.
- Does not treat bosonic symmetric cases.
- Does not connect to experimental observables.
used by (1)
depends on (2)
declarations in this module (33)
-
theorem
pauli_core -
structure
QuantumState -
def
subshellCapacity -
theorem
s_subshell_capacity -
theorem
p_subshell_capacity -
theorem
d_subshell_capacity -
theorem
f_subshell_capacity -
theorem
subshell_capacity_formula -
def
shellCapacity -
theorem
first_shell_capacity -
theorem
second_shell_capacity -
theorem
third_shell_capacity -
theorem
fourth_shell_capacity -
def
nobleGasElectrons -
theorem
helium_electrons -
theorem
neon_electrons -
theorem
argon_electrons -
theorem
shell_filling_pattern -
def
fermiEnergyExponent -
def
degeneracyPressureExponent -
theorem
pressure_energy_relation -
def
chandrasekharLimit -
theorem
chandrasekhar_approx -
def
tovLimit -
theorem
tov_gt_chandrasekhar -
theorem
antisymmetry_implies_exclusion -
theorem
electron_is_fermion -
theorem
fermion_wavefunction_antisymmetric -
def
pauliViolationBound -
theorem
pauli_bound_very_small -
theorem
no_pauli_violation_observed -
structure
PauliProofSummary -
def
pauliProofs