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106 lines
2.4 KiB
Markdown
106 lines
2.4 KiB
Markdown
# Codon-Level Efficiency Modeling
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To extend the OTOM framework to genetics at the atomic informational level, we define a codon-level efficiency functional that evaluates individual triplets within the genetic code.
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## Codon Space
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A codon is defined as a triplet:
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```
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c = (b_1, b_2, b_3), b_i ∈ {A, C, G, U}
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```
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with total space:
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```
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|𝒞| = 4³ = 64
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```
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## Degeneracy Structure
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Each codon maps to an amino acid with synonymous degeneracy:
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```
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d(c) = |{c' ∈ 𝒞 : aa(c') = aa(c)}|
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```
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This degeneracy introduces ambiguity and reduces informational specificity.
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## Codon Efficiency Functional
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We define the codon efficiency functional:
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```
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Φ_codon(c) = (w_ρ·ρ̂_triplet(c) + w_q·q̂_conservation(c) + w_τ·τ̂_translation(c) - w_H·Ĥ_local(c) - w_ε·ε̂_mutation(c)) / (ln 64 + λ ln d(c) + C_0)
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```
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## Interpretation of Terms
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- **ρ̂_triplet**: coding validity and reading-frame stability
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- **q̂_conservation**: evolutionary conservation signal
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- **τ̂_translation**: translational efficiency or structural relevance
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- **Ĥ_local**: codon-level entropy
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- **ε̂_mutation**: mutation-induced deviation
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## Connection to Universal Efficiency
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This is a direct instantiation of the universal efficiency principle:
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```
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Φ = Useful Structure / (Physical / Informational Cost)
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```
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with:
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```
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Cost(c) = ln 64 + λ ln d(c) + C_0
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```
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## Sequence-Level Reconstruction
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For a coding sequence S = (c_1, …, c_n):
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```
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Φ_CDS(S) = (1/n) Σ_{i=1}^n Φ_codon(c_i)
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```
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or with context:
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```
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Φ_CDS(S) = (1/n) Σ_{i=1}^n Φ_codon(c_i | c_{i-1}, c_{i+1})
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```
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## Mutation Dynamics
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A mutation c → c' induces:
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```
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ΔΦ = Φ_codon(c') - Φ_codon(c)
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```
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which defines a local selection gradient:
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**Mutations that increase Φ_codon are favored.**
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## Interpretation
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The codon-level model reveals that:
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- Genetic sequences optimize informational efficiency at the triplet level
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- Degeneracy introduces a thermodynamic-like cost
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- Mutation selection operates as local efficiency maximization
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**Genetic evolution is a reinforcement process over codon efficiency.**
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## Implementation Location
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- **Lean Module:** `0-Core-Formalism/lean/Semantics/Semantics/GenomicCompression.lean`
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- **MATH_MODEL_MAP Entry:** 1.2.1 (Codon_Fitness_Function)
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- **Domain:** LAYER_A_COMPRESSION
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- **Bind Class:** informational_bind
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## References
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- OTOM v2.0.0-Cambrian-Bind
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- Universal Efficiency Principle (Phi_Universal, MATH_MODEL_MAP entry 0)
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- Genetic Code Optimization (MATH_MODEL_MAP entry 1.2)
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