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IndisputableMonolith.Foundation.SpectralEmergence on GitHub at line 81.
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applied -
energyConservationCert -
EnergyConservationCert -
conjugateMomentum -
energy_conservation -
hamilton_equations_from_EL -
hamiltonPDotEquation -
hamiltonQDotEquation -
standardHamiltonian -
totalEnergy -
NewtonSecondLawCert -
energy_conservation_of_J_action -
space_translation_invariance_implies_momentum_conservation -
kineticAction -
newton_second_law -
standardEL -
standardLagrangian -
Cycle -
caTimeBound -
Q3_faces -
potential_positive -
powerSpectrum -
slow_roll_at_large_phi -
slowRollEpsilon -
slowRollEta -
InflatonPotentialCert -
V -
V_eq_quadratic -
V_nonneg -
V_pos_off_vacuum -
V_quadratic_at_origin -
V_reciprocal_symm -
V_vacuum -
fluctuations_from_jcost -
cube_face_identity -
energy_storage_density_hierarchy -
stable_end_state_exists -
cooper_pair_binding_exceeds_thermal -
valueFunctional_nonneg -
anita_inconclusive
formal source
78gap-45 synchronization, and self-similar cost structure. -/
79
80/-- Vertices of the D-dimensional binary cube: |V| = 2^D. -/
81def V (D : ℕ) : ℕ := 2 ^ D
82
83/-- Edges of the D-cube: |E| = D × 2^(D-1). Each vertex has D neighbors;
84 each edge is shared between 2 vertices. -/
85def E (D : ℕ) : ℕ := D * 2 ^ (D - 1)
86
87/-- 2-faces (squares) of the D-cube: each pair of coordinate axes gives
88 a family of 2^(D-2) parallel squares. Total = C(D,2) × 2^(D-2). -/
89def F₂ (D : ℕ) : ℕ := (D * (D - 1) / 2) * 2 ^ (D - 2)
90
91/-- Face pairs: opposite faces sharing a normal axis. For the D-cube,
92 the number of 2-face pair axes equals C(D,2). -/
93def face_pairs (D : ℕ) : ℕ := D * (D - 1) / 2
94
95/-- Order of the hyperoctahedral group B_D = Aut(Q_D): signed
96 permutations of D coordinate axes. |B_D| = 2^D × D!. -/
97def aut_order (D : ℕ) : ℕ := 2 ^ D * Nat.factorial D
98
99/-! ### Q₃-Specific Values (D = 3) -/
100
101theorem Q3_vertices : V 3 = 8 := by norm_num [V]
102theorem Q3_edges : E 3 = 12 := by norm_num [E]
103theorem Q3_faces : F₂ 3 = 6 := by native_decide
104theorem Q3_face_pairs : face_pairs 3 = 3 := by native_decide
105theorem Q3_aut_order : aut_order 3 = 48 := by norm_num [aut_order, Nat.factorial]
106
107/-- Euler characteristic of the Q₃ surface: V + F = E + 2 (sphere).
108 Written as V + F = E + 2 to avoid natural subtraction underflow. -/
109theorem Q3_euler_characteristic : V 3 + F₂ 3 = E 3 + 2 := by native_decide
110
111/-- The Q₃ cube is self-dual: the number of vertices equals the number