IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.Kernel
IndisputableMonolith/Foundation/PrimitiveRecognitionCalculus/Kernel.lean · 254 lines · 2 declarations
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1/-
2 PrimitiveRecognitionCalculus/Kernel.lean
3
4 Round-trip source:
5 PRC_Kernel_Spec_20260526.html
6
7 Aggregate import for the first PRC kernel pass:
8
9 δ → trace → SameT/DiffT → substitution → quotient → ℕ → ℤ → ℚ
10
11 The ℤ and ℚ stages are PRC-owned quotient surfaces with internal
12 equivalence relations (balanced length for `PRCInt`; cross-multiplication
13 for `PRCRat`). The maps into Lean's `ℤ` and `ℚ` are conservative verifier
14 displays, proved well-defined from the internal characterizations.
15-/
16
17import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.Strength
18import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.Basic
19import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.SameDiff
20import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.TraceLogic
21import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.FormalSystem
22import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.Inevitability
23import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.Quotient
24import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.Orbit
25import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.OrbitArithmetic
26import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.IntegerRational
27import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.IntegerOrder
28import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.OrbitDivisibility
29import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.OrbitEuclidean
30import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.PRCJCost
31import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RationalField
32import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RecognizerBridge
33import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.TraceClosure
34import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RealCauchy
35import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RealNullSetoid
36import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.PRCJCostDistanceTriangle
37import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.PRCJCostDistanceVerifierTriangle
38import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.PRCJCostDistanceIncrementTriangle
39import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RealCompleteOrderedField
40import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RealMulBoundedContinuity
41import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RealBoundednessModulus
42import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RealProductContinuity
43import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RealOrderCongruence
44import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RealCompleteness
45import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RealCompleteOrderedFieldPromoted
46import IndisputableMonolith.Foundation.PrimitiveRecognitionCalculus.RealCompletion
47
48namespace IndisputableMonolith
49namespace Foundation
50namespace PrimitiveRecognitionCalculus
51
52/-- K7/A2. First-pass PRC kernel certificate:
53the analytic specification has concrete Lean objects for each stage in the
54first theorem chain. This is a bundling certificate, not yet the final
55inevitability theorem. -/
56structure KernelFirstPassCertificate : Prop where
57 strength_tags_exist : Nonempty StrengthTag
58 trace_syntax_exists : Nonempty Trace
59 judgment_surface_exists : Nonempty TraceJudgment
60 /-- Stable finite-trace predicates carry the first PRC logic surface. -/
61 trace_logic : TraceLogicCertificate
62 /-- Expressive formal systems admit a PRC trace embedding. -/
63 formal_system : FormalSystemCertificate
64 /-- Every admissible foundation carries a PRC trace core. -/
65 inevitability : PRCInevitabilityCertificate
66 quotient_surface_exists :
67 ∀ (J : TraceJudgment) (T : Trace), Nonempty (EndpointClass J T)
68 orbit_nat_equivalence : Nonempty (DistinctionNat ≃ Nat)
69 /-- Orbit addition is verifier-faithful. -/
70 orbit_add_faithful :
71 ∀ a b : DistinctionNat, (a + b).toNat = a.toNat + b.toNat
72 /-- Orbit multiplication is verifier-faithful. -/
73 orbit_mul_faithful :
74 ∀ a b : DistinctionNat, (a * b).toNat = a.toNat * b.toNat
75 prc_integer_surface_exists : Nonempty PRCInt
76 prc_rational_surface_exists : Nonempty PRCRat
77 /-- The internal balanced-length relation characterizes signed-orbit
78 equivalence in PRC integers (K4.9). -/
79 prc_int_balanced_iff_display :
80 ∀ a b : SignedOrbit,
81 SignedOrbit.balanced a b ↔ a.toInt = b.toInt
82 /-- The internal cross-multiplication relation characterizes ratio-orbit
83 equivalence in PRC rationals (K4.10). -/
84 prc_rat_cross_iff_display :
85 ∀ a b : RatioOrbit,
86 RatioOrbit.crossEq a b ↔ a.toRat = b.toRat
87 /-- The PRC integer display is injective on the quotient. -/
88 prc_int_display_injective : Function.Injective PRCInt.toInt
89 /-- The PRC rational display is injective on the quotient. -/
90 prc_rat_display_injective : Function.Injective PRCRat.toRat
91 /-- The PRC integer surface is isomorphic to verifier `ℤ`. -/
92 prc_int_equiv_int : Nonempty (PRCInt ≃ ℤ)
93 /-- Internal signed-orbit order and absolute value are closed. -/
94 integer_order : IntegerOrderCertificate
95 /-- Native orbit divisibility, units, factorization, and prime-orbit predicates are closed. -/
96 orbit_divisibility : DistinctionNat.OrbitDivisibilityCertificate
97 /-- Native Euclidean quotient/remainder, GCD, and coprime predicates are closed. -/
98 orbit_euclidean : DistinctionNat.OrbitEuclideanCertificate
99 /-- PRC rational J-cost, canonical RCL, and bridge to existing real uniqueness are closed. -/
100 prc_jcost : PRCJCost.PRCJCostCertificate
101 /-- PRC rational field-style laws, division, positivity, and quotient-level J-cost are packaged. -/
102 rational_field : RationalFieldCertificate
103 /-- Positive PRC ratios carry recognition cost and bridge to the Law-of-Logic J-cost chain. -/
104 recognizer_bridge : PRCRecognizerBridgeCertificate
105 /-- Addition on PRC integers is commutative. -/
106 prc_int_add_comm : ∀ a b : PRCInt, a + b = b + a
107 /-- Addition on PRC integers is associative. -/
108 prc_int_add_assoc : ∀ a b c : PRCInt, a + b + c = a + (b + c)
109 /-- Multiplication on PRC integers is commutative. -/
110 prc_int_mul_comm : ∀ a b : PRCInt, a * b = b * a
111 /-- Multiplication on PRC integers is associative. -/
112 prc_int_mul_assoc : ∀ a b c : PRCInt, a * b * c = a * (b * c)
113 /-- Multiplication distributes over addition. -/
114 prc_int_left_distrib :
115 ∀ a b c : PRCInt, a * (b + c) = a * b + a * c
116 /-- Negation is the additive inverse on PRC integers. -/
117 prc_int_add_negate : ∀ a : PRCInt, a + (-a) = 0
118 /-- The PRC rational display preserves addition. -/
119 prc_rat_display_add :
120 ∀ a b : PRCRat, (a + b).toRat = a.toRat + b.toRat
121 /-- The PRC rational display preserves multiplication. -/
122 prc_rat_display_mul :
123 ∀ a b : PRCRat, (a * b).toRat = a.toRat * b.toRat
124 /-- The PRC rational display preserves reciprocal. -/
125 prc_rat_display_inv :
126 ∀ a : PRCRat, (a⁻¹).toRat = (a.toRat)⁻¹
127 /-- Ratio reciprocal uses internal signed-orbit absolute value for the denominator. -/
128 ratio_recip_internal_den :
129 ∀ (a : RatioOrbit)
130 (h : ¬ SignedOrbit.balanced a.num SignedOrbit.zero),
131 (RatioOrbit.recipNonzero a h).den = a.num.abs
132 /-- Addition on PRC rationals is commutative. -/
133 prc_rat_add_comm : ∀ a b : PRCRat, a + b = b + a
134 /-- Multiplication on PRC rationals is commutative. -/
135 prc_rat_mul_comm : ∀ a b : PRCRat, a * b = b * a
136 /-- Multiplication distributes over addition on PRC rationals. -/
137 prc_rat_left_distrib :
138 ∀ a b c : PRCRat, a * (b + c) = a * b + a * c
139 /-- Nonzero PRC rationals multiply by their reciprocal to one. -/
140 prc_rat_mul_recip_cancel :
141 ∀ a : PRCRat, a.toRat ≠ 0 → a * a⁻¹ = 1
142 /-- The completed trace boundary is inhabited and trace-closure tagged. -/
143 trace_closure_boundary : TraceClosureCertificate
144 /-- Internal Cauchy ledgers and the first PRC real quotient carrier are trace-closure tagged. -/
145 real_cauchy : PRCRealCauchyCertificate
146 /-- The final null-distance setoid is reduced to the exact J-cost triangle-modulus target. -/
147 real_null_setoid : PRCRealNullSetoidConditionalCertificate
148 /-- The J-cost distance triangle target is reduced to an exact rational display inequality. -/
149 jcost_distance_triangle : PRCJCostDistanceTriangleConditionalCertificate
150 /-- The verifier-rational triangle target is reduced to an increment-only modulus. -/
151 jcost_distance_verifier_triangle : PRCJCostDistanceVerifierTriangleConditionalCertificate
152 /-- The increment-only J-cost modulus closes the null-distance setoid chain. -/
153 jcost_distance_increment_triangle : PRCJCostDistanceIncrementTriangleCertificate
154 /-- The first complete ordered field pass closes add/neg and names mul/order/completeness targets. -/
155 real_complete_ordered_field : PRCRealCompleteOrderedFieldConditionalCertificate
156 /-- Multiplication on the null quotient is reduced to boundedness and bounded product continuity. -/
157 real_mul_bounded_continuity : PRCRealMulBoundedContinuityConditionalCertificate
158 /-- Every J-cost Cauchy ledger is eventually PRC-bounded. -/
159 real_boundedness_modulus : PRCRealBoundednessModulusCertificate
160 /-- Bounded product-continuity closes multiplication on the null quotient. -/
161 real_product_continuity : PRCRealProductContinuityCertificate
162 /-- Eventual non-strict order descends to the null-distance quotient. -/
163 real_order_congruence : PRCRealOrderCongruenceCertificate
164 /-- Internal completeness is sharpened to the exact Cauchy-of-Cauchy diagonal target. -/
165 real_completeness : PRCRealCompletenessSharpenedCertificate
166 /-- The complete ordered-field certificate surface now carries proved mul, order, and completeness targets. -/
167 real_complete_ordered_field_promoted :
168 PRCRealCompleteOrderedFieldPromotedCertificate
169 /-- The real-completion boundary is inhabited and classical-extension tagged. -/
170 real_completion_boundary : RealCompletionBoundaryCertificate
171 signed_orbit_display : Nonempty (SignedOrbit → ℤ)
172 ratio_orbit_display : Nonempty (RatioOrbit → ℚ)
173
174/-- K7/A2. The first-pass kernel certificate is inhabited. -/
175theorem kernel_first_pass_certificate :
176 KernelFirstPassCertificate where
177 strength_tags_exist := ⟨StrengthTag.deltaOnly⟩
178 trace_syntax_exists := ⟨Trace.empty⟩
179 judgment_surface_exists := ⟨verifierEqualityJudgment⟩
180 trace_logic := trace_logic_certificate
181 formal_system := formal_system_certificate
182 inevitability := prc_inevitability_certificate
183 quotient_surface_exists := by
184 intro J T
185 exact ⟨endpointClassOf J T Endpoint.left⟩
186 orbit_nat_equivalence := ⟨DistinctionNat.equivNat⟩
187 orbit_add_faithful := DistinctionNat.toNat_add
188 orbit_mul_faithful := DistinctionNat.toNat_mul
189 prc_integer_surface_exists := ⟨PRCInt.zero⟩
190 prc_rational_surface_exists := by
191 let one : DistinctionNat := DistinctionNat.succ DistinctionNat.zero
192 have hone : one ≠ DistinctionNat.zero := by
193 intro h
194 exact DistinctionNat.zero_ne_succ DistinctionNat.zero h.symm
195 exact ⟨PRCRat.mk ⟨SignedOrbit.zero, one, hone⟩⟩
196 prc_int_balanced_iff_display := SignedOrbit.balanced_iff_toInt_eq
197 prc_rat_cross_iff_display := RatioOrbit.crossEq_iff_toRat_eq
198 prc_int_display_injective := PRCInt.toInt_injective
199 prc_rat_display_injective := PRCRat.toRat_injective
200 prc_int_equiv_int := ⟨PRCInt.equivInt⟩
201 integer_order := integer_order_certificate
202 orbit_divisibility := DistinctionNat.orbit_divisibility_certificate
203 orbit_euclidean := DistinctionNat.orbit_euclidean_certificate
204 prc_jcost := PRCJCost.prc_jcost_certificate
205 rational_field := rational_field_certificate
206 recognizer_bridge := prc_recognizer_bridge_certificate
207 prc_int_add_comm := PRCInt.add_comm
208 prc_int_add_assoc := PRCInt.add_assoc
209 prc_int_mul_comm := PRCInt.mul_comm
210 prc_int_mul_assoc := PRCInt.mul_assoc
211 prc_int_left_distrib := PRCInt.left_distrib
212 prc_int_add_negate := PRCInt.add_negate
213 prc_rat_display_add := PRCRat.toRat_add'
214 prc_rat_display_mul := PRCRat.toRat_mul'
215 prc_rat_display_inv := PRCRat.toRat_inv'
216 ratio_recip_internal_den := by
217 intro a h
218 rfl
219 prc_rat_add_comm := PRCRat.add_comm
220 prc_rat_mul_comm := PRCRat.mul_comm
221 prc_rat_left_distrib := PRCRat.left_distrib
222 prc_rat_mul_recip_cancel := by
223 intro a h
224 simpa using PRCRat.mul_recip_cancel (a := a) h
225 trace_closure_boundary := trace_closure_certificate
226 real_cauchy := real_cauchy_certificate
227 real_null_setoid := real_null_setoid_conditional_certificate
228 jcost_distance_triangle := prc_jcost_distance_triangle_conditional_certificate
229 jcost_distance_verifier_triangle :=
230 prc_jcost_distance_verifier_triangle_conditional_certificate
231 jcost_distance_increment_triangle :=
232 prc_jcost_distance_increment_triangle_certificate
233 real_complete_ordered_field :=
234 prc_real_complete_ordered_field_conditional_certificate
235 real_mul_bounded_continuity :=
236 prc_real_mul_bounded_continuity_conditional_certificate
237 real_boundedness_modulus :=
238 prc_real_boundedness_modulus_certificate
239 real_product_continuity :=
240 prc_real_product_continuity_certificate
241 real_order_congruence :=
242 prc_real_order_congruence_certificate
243 real_completeness :=
244 prc_real_completeness_sharpened_certificate
245 real_complete_ordered_field_promoted :=
246 prc_real_complete_ordered_field_promoted_certificate
247 real_completion_boundary := real_completion_boundary_certificate
248 signed_orbit_display := ⟨SignedOrbit.toInt⟩
249 ratio_orbit_display := ⟨RatioOrbit.toRat⟩
250
251end PrimitiveRecognitionCalculus
252end Foundation
253end IndisputableMonolith
254