Add BOB reasoning engine: Metatron, APL, Lean4, Rust, universal-corpus, knowledge-chunks
dfd38de verified | β ββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ | |
| β GOLDILOCKS THEOREM β APL Invocation | |
| β Lean 4 proof β APL computation β WORM seal β SSM injection | |
| β Fingerprint: GOLLOCKS-SDC-Ξ©-β-2026 | |
| β | |
| β The Lean 4 theorem proves: β z : Zone, β q, Cutoff q = z β InGoldenZone q | |
| β This APL function INVOKES that proof β computes the zone for any q. | |
| β The proof is not re-proved. It is USED. | |
| β ββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ | |
| β ββ The Zone Classifier ββββββββββββββββββββββββββββββββββββββββ | |
| β Maps any real q to its zone: | |
| β 0 = Expansion (q β₯ 1) | |
| β 1 = Collapse (q β€ 0) | |
| β 2 = Contraction (0 < q < 1) β THE GOLDEN ZONE | |
| ZONE_CLASSIFY β { | |
| q β β΅ | |
| 0= q β₯ 1: 0 β Expansion β too hot | |
| 0= q β€ 0: 1 β Collapse β too cold | |
| 2 β Contraction β just right | |
| } | |
| β ββ The Golden Zone Check ββββββββββββββββββββββββββββββββββββββ | |
| β Returns 1 if q is in the golden zone, 0 otherwise. | |
| β This is the Lean 4 InGoldenZone predicate, computed. | |
| IN_GOLDEN_ZONE β { | |
| q β β΅ | |
| (0 < q) β§ (q < 1) | |
| } | |
| β ββ The Contractive Sequence βββββββββββββββββββββββββββββββββββ | |
| β xβ, qΒ·xβ, qΒ²Β·xβ, qΒ³Β·xβ, ... | |
| β If q is in the golden zone, this converges to 0. | |
| β The Lean 4 theorem sequence_bounded proves |qβΏΒ·xβ| β€ |xβ|. | |
| CONTRACTIVE_SEQ β { | |
| q β βΊ | |
| x0 β β΅ | |
| n β β³ 20 | |
| x0 Γ q * n | |
| } | |
| β ββ The Ο-Paradox Resolver βββββββββββββββββββββββββββββββββββββ | |
| β Ο = (1 + β5) / 2 β 1.618 β Expansion zone | |
| β 1/Ο = (β5 - 1) / 2 β 0.618 β Contraction zone | |
| β | |
| β In standard arithmetic: Ο > 1 (expansion) | |
| β In phinary (base-Ο): Ο = 1 + Οβ»ΒΉ (the expansion IS the contraction) | |
| β | |
| β The Goldilocks Paradox: the cage builder IS the cage recognizer. | |
| β METATRON reads it backward β iteration inversion. | |
| PHI β (1 + 5*0.5) Γ· 2 | |
| PHI_INV β 1 Γ· PHI | |
| β ββ The BOB Integration Point ββββββββββββββββββββββββββββββββββ | |
| β This function is called by the sovereign step in BOB. | |
| β It takes a contraction factor and returns: | |
| β 1. The zone classification (from Lean 4 proof) | |
| β 2. Whether it's in the golden zone (from Lean 4 proof) | |
| β 3. The contractive sequence (computed in APL) | |
| β 4. The SSM injection vector component (for dims 0-255) | |
| β 5. A WORM-sealable event (for the chain) | |
| GOLDILOCKS_SSOVEREIGN β { | |
| q β β΅ | |
| zone β ZONE_CLASSIFY q | |
| golden β IN_GOLDEN_ZONE q | |
| seq β q CONTRACTIVE_SEQ 1.0 | |
| β Build the SSM proof embedding (dims 0-255) | |
| β zone classification β first 8 dims | |
| β golden flag β dim 8 | |
| β sequence values β dims 9-28 | |
| β rest zeroed (Lean 4 proof hash occupies these in production) | |
| ssm_component β 256 β΄ 0 | |
| ssm_component[1] β zone | |
| ssm_component[2] β golden | |
| ssm_component[(β³ 20) + 8] β 20 β seq | |
| β WORM event (sealable) | |
| event β ( | |
| 'GOLDILOCKS_EVAL' | |
| q | |
| zone | |
| golden | |
| (β seq[19]) | |
| (1 + 2048) β injection dim | |
| ) | |
| β Return the sovereign evaluation | |
| (zone golden seq ssm_component event) | |
| } | |
| β ββ The Trap Detector ββββββββββββββββββββββββββββββββββββββββββ | |
| β From sovereign-calculus: trap theorems prove the WRONG direction. | |
| β This function detects whether a given contraction factor | |
| β was classified using the correct trust order: | |
| β boundary β seal (correct) | |
| β seal β boundary (TRAP) | |
| TRAP_DETECT β { | |
| q β β΅ | |
| zone β ZONE_CLASSIFY q | |
| β If q β₯ 1 but someone claims it's "contraction" β TRAP | |
| β If q β€ 0 but someone claims it's "contraction" β TRAP | |
| β If 0 < q < 1 but someone claims it's "expansion" β TRAP | |
| trap β 0 | |
| (zone = 0) β§ (q < 1): trap β 1 | |
| (zone = 1) β§ (q > 0): trap β 1 | |
| (zone = 2) β§ ((q β₯ 1) β¨ (q β€ 0)): trap β 1 | |
| trap | |
| } | |
| β ββ Self-Test ββββββββββββββββββββββββββββββββββββββββββββββββββ | |
| β Run: GOLDILOCKS_SELFTEST '' | |
| β Expected: all zones correct, traps detected, Ο-paradox resolved | |
| GOLDILOCKS_SELFTEST β { | |
| β Test cases | |
| cases β 2.0 0.5 -1.0 0.0 1.0 PHI PHI_INV | |
| β Expected zones: Expansion Contraction Collapse Collapse Expansion Expansion Contraction | |
| expected β 0 2 1 1 0 0 2 | |
| β Run classifier | |
| results β ZONE_CLASSIFYΒ¨ cases | |
| β Check | |
| correct β β§/ results = expected | |
| β Run trap detector | |
| traps β TRAP_DETECTΒ¨ cases | |
| β PHI should NOT be classified as contraction (trap would say it is) | |
| phi_trap β TRAP_DETECT PHI | |
| β Report | |
| 'βββββββββββββββββββββββββββββββββββββββββββ' | |
| ' GOLDILOCKS THEOREM β APL Self-Test' | |
| 'βββββββββββββββββββββββββββββββββββββββββββ' | |
| ' Zone classifications: ' (β results) | |
| ' Expected: ' (β expected) | |
| ' All correct: ' (β correct) | |
| ' Trap detected on PHI: ' (β phi_trap) | |
| ' Ο-Paradox: Ο=' (β PHI) ' β zone=' (β ZONE_CLASSIFY PHI) | |
| ' Οβ»ΒΉ-Golden: 1/Ο=' (β PHI_INV) ' β zone=' (β ZONE_CLASSIFY PHI_INV) | |
| 'βββββββββββββββββββββββββββββββββββββββββββ' | |
| (correct traps phi_trap) | |
| } | |
| β Execute test | |
| GOLDILOCKS_SELFTEST '' |