IndisputableMonolith.Physics.Superfluidity
The Physics.Superfluidity module defines the Bose-Einstein occupation number at temperature T along with related quantities such as BEC temperature, lambda point, and quantized vortices. Researchers modeling quantum fluids or critical phenomena inside the Recognition Science framework would cite these objects. The module consists of direct definitions and simple positivity statements built on the imported J-cost core.
claimThe Bose-Einstein occupation number is $n(T) = 1/(e^{J(T)} - 1)$ together with the derived BEC temperature $T_{BEC}$, lambda point $T_λ$, and vortex quantum $h/m$.
background
The module sits inside the Recognition Science derivation of physics from the single functional equation and imports the J-cost core that supplies the J function (J(x) = (x + x^{-1})/2 - 1) and the Recognition Composition Law. It therefore inherits the phi-ladder mass formula, the eight-tick octave, and the native units in which c = 1, ħ = ϕ^{-5}. The sibling declarations introduce the occupation number, its positivity, the BEC temperature, the lambda point for ^{4}He, and the quantized circulation of vortices.
proof idea
this is a definition module, no proofs
why it matters in Recognition Science
The module supplies the concrete objects needed to connect the J-cost formalism to observed superfluid phenomena such as the lambda transition and vortex quantization. It therefore feeds any later derivation of critical exponents or hydrodynamic equations inside the Recognition Science chain. No downstream theorems are listed yet, indicating the module is still at the interface stage between the cost core and full fluid dynamics.
scope and limits
- Does not derive the full Gross-Pitaevskii or hydrodynamic equations.
- Does not prove the value of the critical exponent beyond the listed rs_critical_exponent declaration.
- Does not address finite-temperature corrections beyond the basic occupation number.
- Does not treat fermionic superfluidity or pairing mechanisms.
depends on (1)
declarations in this module (19)
-
def
be_occupation -
theorem
be_occupation_positive -
def
bec_temperature -
theorem
bec_temperature_positive -
def
lambda_point -
theorem
lambda_point_lt_bec -
def
lambda_point_He4 -
theorem
lambda_He4_in_range -
def
vortex_quantum -
theorem
vortex_quantum_positive -
theorem
vortex_quantized -
def
rs_critical_exponent -
lemma
golden_ratio_gt_one -
theorem
rs_critical_exponent_positive -
def
superfluid_fraction -
theorem
superfluid_fraction_at_zero -
theorem
superfluid_fraction_at_lambda -
theorem
superfluid_fraction_between -
theorem
he3_b_phase_global_minimum