structure
definition
Physical
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IndisputableMonolith.Bridge.DataCore on GitHub at line 28.
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All declarations in this module, on Recognition.
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depends on
-
BridgeData -
c_pos -
G -
G_pos -
hbar -
hbar_pos -
c_pos -
G -
G_pos -
hbar -
hbar_pos -
G -
c_pos -
G_pos -
from -
BridgeData -
G -
hbar -
hbar
used by
-
lambda_rec_dimensionless_id_physical -
lambda_rec_pos -
alphaInv_gauge_invariant -
tau0_pos -
curvature_term_complete_derivation -
dimensions_status -
dim_M -
eleven_is_passive_edges -
inflation_flattens -
via -
dimension_forced -
bridge_T5_T6 -
rs_real_one -
physical_light_after_spacetime -
RecognitionLight -
lorentzEmergenceCert -
D_3_forced_from_structure -
dimension_forcing -
fibonacci_connection_explained -
btfr_mass_velocity_relation -
lock_stiffness -
C_xi_pos -
p_steepness_pos -
upsilon_star_bounds_implies_pos -
eight_tick_universal_gates -
church_turing_physics_from_ledger -
computation_takes_time -
depolarizing -
nontriviality_from_cost -
thirteen_natural_interpretations -
phases_require_complex -
axiom_summary -
exchange_invariance_status -
identity_cost_status -
meta_principle_status -
recognition_distinguishability_status -
velocityGradientMag -
ZeroInducedProxyPhysicalizationBridge -
unit_sensor_not_physical_cert -
RSPhysicalThesis
formal source
25 ell0 : ℝ
26
27/-- Minimal physical assumptions on bridge anchors reused by analytical lemmas. -/
28structure Physical (B : BridgeData) : Prop where
29 c_pos : 0 < B.c
30 hbar_pos : 0 < B.hbar
31 G_pos : 0 < B.G
32
33/-- Recognition length from anchors: λ_rec = √(ħ G / c^3). -/
34noncomputable def lambda_rec (B : BridgeData) : ℝ :=
35 Real.sqrt (B.hbar * B.G / (Real.pi * (B.c ^ 3)))
36
37/-- Dimensionless identity for λ_rec (under mild physical positivity assumptions):
38 (c^3 · λ_rec^2) / (ħ G) = 1/π. -/
39lemma lambda_rec_dimensionless_id (B : BridgeData)
40 (hc : 0 < B.c) (hh : 0 < B.hbar) (hG : 0 < B.G) :
41 (B.c ^ 3) * (lambda_rec B) ^ 2 / (B.hbar * B.G) = 1 / Real.pi := by
42 -- Expand λ_rec and simplify using sqrt and algebra
43 unfold lambda_rec
44 have h_pos : 0 < B.hbar * B.G / (Real.pi * B.c ^ 3) := by
45 apply div_pos (mul_pos hh hG)
46 exact mul_pos Real.pi_pos (pow_pos hc 3)
47 -- Use (sqrt x)^2 = x for x ≥ 0
48 have h_nonneg : 0 ≤ B.hbar * B.G / (Real.pi * B.c ^ 3) := le_of_lt h_pos
49 have hsq : (Real.sqrt (B.hbar * B.G / (Real.pi * B.c ^ 3))) ^ 2 =
50 B.hbar * B.G / (Real.pi * B.c ^ 3) := by
51 simpa using Real.sq_sqrt h_nonneg
52 -- Now simplify the target expression
53 calc
54 (B.c ^ 3) * (Real.sqrt (B.hbar * B.G / (Real.pi * B.c ^ 3))) ^ 2 / (B.hbar * B.G)
55 = (B.c ^ 3) * (B.hbar * B.G / (Real.pi * B.c ^ 3)) / (B.hbar * B.G) := by
56 simp [hsq]
57 _ = ((B.c ^ 3) * (B.hbar * B.G)) / ((Real.pi * B.c ^ 3) * (B.hbar * B.G)) := by
58 field_simp