lemma
proved
one
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IndisputableMonolith.RecogSpec.Core on GitHub at line 71.
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All declarations in this module, on Recognition.
explainer page
depends on
used by
-
costRateEL_implies_const_one -
geodesicEquationHolds -
actionJ_convex_on_interp -
actionJ_local_min_is_global -
actionJ_minimum_unique_value -
no_eighth_plot -
Jcost_anti_mono_on_unit_interval -
symmetryGroupPreferenceCert -
canonicalRecognitionCostSystem_cost_inv -
shiftedCompose_val -
windowSums -
PhiInt -
PhiInt -
phiInt_sq -
phi_ring_certificate -
canonicalPhiRingObj -
initial_morphism_exists -
phiRing_comp -
PhiRingHom -
PhiRingObj -
trivial -
eV_to_J_pos -
rs_pattern -
ml_nucleosynthesis_eq_phi -
NuclearTier -
r_orbit_adjacent_ratio_band -
bimodal_ratio_lt_phi_nine -
ml_is_phi_power -
fr_valence_one -
essentialSymmetry -
noble_gas_ea_zero -
normalizedEA -
predictedI1_eV -
ForcingDominatedConvergenceAt -
galerkin_duhamelKernel_identity -
coeffSign -
encodeIndex -
DecodedSimulationHypothesis -
decodeGalerkin2D -
SimulationHypothesis
formal source
68lemma zero (φ : ℝ) : PhiClosed φ (0 : ℝ) :=
69 (phiSubfield φ).zero_mem
70
71lemma one (φ : ℝ) : PhiClosed φ (1 : ℝ) :=
72 (phiSubfield φ).one_mem
73
74lemma add (hx : PhiClosed φ x) (hy : PhiClosed φ y) :
75 PhiClosed φ (x + y) :=
76 (phiSubfield φ).add_mem hx hy
77
78lemma sub (hx : PhiClosed φ x) (hy : PhiClosed φ y) :
79 PhiClosed φ (x - y) :=
80 (phiSubfield φ).sub_mem hx hy
81
82lemma neg (hx : PhiClosed φ x) : PhiClosed φ (-x) :=
83 (phiSubfield φ).neg_mem hx
84
85lemma mul (hx : PhiClosed φ x) (hy : PhiClosed φ y) :
86 PhiClosed φ (x * y) :=
87 (phiSubfield φ).mul_mem hx hy
88
89lemma inv (hx : PhiClosed φ x) : PhiClosed φ x⁻¹ :=
90 (phiSubfield φ).inv_mem hx
91
92lemma div (hx : PhiClosed φ x) (hy : PhiClosed φ y) :
93 PhiClosed φ (x / y) :=
94 (phiSubfield φ).div_mem hx hy
95
96lemma pow (hx : PhiClosed φ x) (n : ℕ) : PhiClosed φ (x ^ n) := by
97 simpa using (phiSubfield φ).pow_mem hx n
98
99lemma pow_self (φ : ℝ) (n : ℕ) : PhiClosed φ (φ ^ n) :=
100 pow (self φ) n
101