Research-Stack/6-Documentation/docs/semantics/missingproofs/SUBAGENT_ASSIGNMENTS_MAX_PARALLEL.md

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Subagent Assignments — Maximum Parallelization (1 Subagent = 1 Theorem)

Generated: 2026-04-19
Total Remaining: 10 theorems
Max Parallelism: 10 subagents (1:1 assignment)
Critical Path: P0 theorem (blocking)
Wall Clock Time (if parallel): 5-7 days (determined by longest P0 theorem)


P0: Blocking Hardware Extraction (1 subagent)

Subagent Ω (ODE Specialist + Human Oversight)

Theorem 131: missingLinkODE — Continuous extension of discrete braid
Effort: 5-7 days (research problem)
Dependencies: None (blocks all Tier 1/2)
Deliverable:

  • Piecewise ODE formulation
  • Existence/uniqueness proof
  • Transition conditions at axial events
  • Lean 4 ODE tactic library

Blackboard Required: Yes — Human Architect + Analysis Specialist
Unblocks: Hardware extraction of continuous dynamics


P1: Algebraic Geometry (3 subagents, parallel)

Subagent α₁ (Diophantine Geometry)

Theorem 122: tipCoordinateMassResonance
Statement: an * bn = am * bm
Core Problem: Hyperbola intersection in shell coordinates
Approach:

-- Express a_n = n - k_n², b_n = (k_n+1)² - n
-- Mass resonance: (n - k²)((k+1)² - n) = (m - j²)((j+1)² - m)
-- Solve Diophantine with constraint k = ⌊√n⌋, j = ⌊√m⌋

Tactics: nlinarith, ring_nf, omega with bounds
Effort: 2-3 days
Dependencies: None


Subagent α₂ (Integer Arithmetic)

Theorem 123: tipCoordinateMirrorResonance
Statement: (an - bn) = -(am - bm)
Core Problem: Shell coupling, mirror condition
Approach:

-- (a-b)_n = -(a-b)_m
-- Requires: shell indices k_n, k_m related
-- Case analysis on |k_n - k_m|
-- Prove coupling exists iff shells adjacent

Tactics: omega, nlinarith, case analysis
Effort: 2 days
Dependencies: None (can parallel with α₁)
Note: May use lemmas from α₁ if available


Subagent α₃ (Fermat Factorization)

Theorem 124: fortyFiveLineFactorRevelation
Statement: 45° line contains all divisors d|n
Core Problem: Fermat factorization mapping to shell coordinates
Approach:

-- For even n, construct m on 45° line
-- Map divisor d|n to a_m or b_m
-- Fermat: n = x² - y² = (x+y)(x-y)
-- Show d = x+y or d = x-y appears in {a_m, b_m}

Tactics: Nat.divisors, explicit construction, use tactic
Effort: 2-3 days
Dependencies: None
Blackboard Required: Recommended for construction strategy


P2: Information Theory (4 subagents, parallel)

Subagent β₁ (RSCU Enumeration)

Theorem 159: rscuSumSynonymous
Statement: Σ RSCU(c) = degeneracy(aa)
Core Problem: Enumerate all codons per amino acid
Approach:

-- For each amino acid aa:
--   Filter codons where geneticCode c = aa
--   Compute RSCU for each
--   Sum and verify equals codonDegeneracy aa
-- Use Fin 64 enumeration + native_decide

Tactics: Finset.filter, Finset.sum, native_decide
Effort: 1 day
Dependencies: None
Parallelizable: Per-amino-acid sub-tasks (21 parallel threads possible)


Subagent β₂ (Kraft Inequality)

Theorem 160: kraftInequality
Statement: Σ 2^(-L(c)) ≤ 1
Core Problem: Numerical verification over 64 codons
Approach:

-- Enumerate all 64 codons
-- Compute optimalCodeLength for each
-- Sum 2^(-L(c)) via Float computation
-- Verify ≤ 1 via native_decide

Tactics: Finset.sum, native_decide, or symbolic Shannon proof
Effort: 1-2 days
Dependencies: None
Note: Can prove symbolically using Shannon source coding theorem


Subagent β₃ (Compression Bounds)

Theorem 163: speciesBetterThanGeneric
Statement: minRedundancyCodeSize s n < (n * 6.0) / 8.0 bytes
Core Problem: Entropy-based compression bound (average case)
Approach:

-- minRedundancyCodeSize = n * speciesEntropy s / 8
-- speciesEntropy s < 6.0 (proven)
-- Thus n * H_s / 8 < n * 6.0 / 8
-- Direct Float inequality

Tactics: native_decide with speciesEntropyLessThanUniform
Effort: 0.5 days
Dependencies: speciesEntropyLessThanUniform ( PROVEN)
Note: Changed from strict per-codon bound to average case — mathematically correct now


Subagent β₄ (Float Bounds)

Theorem 162: caiBounds
Statement: 0 ≤ CAI ≤ 1
Core Problem: Geometric mean bounds on RSCU
Approach:

-- RSCU > 0 (frequency > 0)
-- RSCU ≤ max(frequency) / min(expected)
-- For product: 0 < Π RSCU^(1/L) ≤ 1
-- Need: RSCU ≤ 1 for all codons in optimal gene

Tactics: Float.le, Float.mul, product inequalities
Effort: 1-2 days
Dependencies: Float inequality lemmas (may need library work)
Note: May require extending Lean 4 Float theory


P3: Documentation/Verification (2 subagents)

Subagent γ₁ (Template Sync)

Theorem 157: codonFrequencySum verification
Statement: Σ codonFrequency = 1000.0
Action: Verify marked-as-proven theorem actually has proof
Deliverable:

  • Confirm native_decide works for all 7 species
  • Add #eval witnesses
  • Sync template with main file Effort: 0.5 days
    Dependencies: None

Subagent γ₂ (Map Maintenance)

Documentation sync task
Action: Keep MATH_MODEL_MAP in sync with proofs
Deliverable:

  • Auto-update PROVEN markers
  • Track remaining sorry count
  • Generate daily reports Effort: Ongoing (0.25 days per update)
    Dependencies: All other subagents (receives notifications)

Parallelization Matrix

Day 1-2:  α₁, α₂, α₃, β₁, β₂, β₃, β₄, γ₁  (8 subagents active)
Day 3-5:  α₁, α₂, α₃ complete → β₄, Ω continue
Day 5-7:  Ω completes (critical path)
Day 7+:   γ₂ maintenance

Dependency Graph

graph TD
    Ω[Ω: missingLinkODE] --> Hardware
    
    α₁[α₁: MassResonance] --> AVMR_Geometry
    α₂[α₂: MirrorResonance] --> AVMR_Geometry
    α₃[α₃: 45Line] --> AVMR_Factorization
    
    β₁[β₁: RSCU] --> β₄
    β₂[β₂: Kraft] --> Compression
    β₃[β₃: SpeciesCompress] --> Compression
    β₄[β₄: CAI] --> Gene_Optimality
    
    γ₁[γ₁: FreqSum] --> Template_Sync
    γ₂[γ₂: MapMaint] --> Documentation
    
    style Ω fill:#f96,stroke:#333,stroke-width:4px
    style α₁ fill:#69f
    style α₂ fill:#69f
    style α₃ fill:#69f
    style β₁ fill:#9f9
    style β₂ fill:#9f9
    style β₃ fill:#9f9
    style β₄ fill:#9f9

Communication Protocol

Daily Standup (async):

Subagent: [ID]
Theorem: [Name]
Progress: [% complete]
Blockers: [None | Need X | Escalating]
ETA: [Date]

Escalation Triggers:

  • 24h with no progress update
  • Discovery of new dependency not in graph
  • Proof requires new Lean 4 tactic/library
  • Float/computational proof failing native_decide

Completion Handoff:

  1. Subagent submits PR with proof
  2. #eval witness included
  3. Map updated (γ₂ notified)
  4. Dependent subagents notified

Resource Allocation

Subagent CPU Memory Lean Expertise Math Domain
Ω 4 cores 8GB Expert ODE/Analysis
α₁-α₃ 2 cores each 4GB Intermediate Number Theory
β₁-β₄ 1 core each 2GB Intermediate Info Theory
γ₁-γ₂ 1 core 2GB Beginner Documentation

Total Resources: 15 cores, 26GB RAM


Success Metrics

Per Subagent:

  • Theorem complete with by tactic block
  • No sorry in final proof
  • #eval example with expected output
  • Time to completion ≤ ETA

Global:

  • P0 (Ω) resolved within 7 days
  • P1 theorems (α₁-α₃) resolved within 3 days
  • P2 theorems (β₁-β₄) resolved within 2 days
  • Layer M proven count: 33/66 (50%)

Risk Mitigation

Risk Probability Impact Mitigation
Ω takes >7 days Medium Critical Human Architect daily check-ins
α₃ (Fermat) needs new library Low High Pre-check Lean 4 Nat capabilities
β₄ needs Float extension Medium Medium Fallback to native_decide
Dependencies misidentified Low Medium Daily graph review

Assignment Commands

# Subagent Ω (Human + F3)
/assign subagent Ω theorem 131 priority P0

# Subagents α₁, α₂, α₃ (F2, F3)
/assign subagent α₁ theorem 122 priority P1
/assign subagent α₂ theorem 123 priority P1
/assign subagent α₃ theorem 124 priority P1

# Subagents β₁, β₂, β₃, β₄ (F1, F2)
/assign subagent β₁ theorem 159 priority P2
/assign subagent β₂ theorem 160 priority P2
/assign subagent β₃ theorem 163 priority P2
/assign subagent β₄ theorem 162 priority P2

# Subagents γ₁, γ₂ (F1)
/assign subagent γ₁ task freq-verification priority P3
/assign subagent γ₂ task map-maintenance priority P3 ongoing

Document ID: SUBAGENT_ASSIGNMENTS_MAX_PARALLEL
Authority: AGENTS.md §9 — Maximum parallelization strategy
Wall Clock Target: 7 days