claude-flow-novice
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Claude Flow Novice - Advanced orchestration platform for multi-agent AI workflows with CFN Loop architecture Includes CodeSearch (hybrid SQLite + pgvector), mem0/memgraph specialists, and all CFN skills.
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# AISP 5.1 Platinum — Technical Reference
**The Rosetta Stone: Human ↔ AISP**
This document serves dual audiences simultaneously. Each concept is presented first in human-readable prose, then in formal AISP notation. Use this as a lookup reference, translation guide, and architecture overview.
## Document Navigation
| Section | Human | AISP | Purpose |
|---------|:-----:|:----:|---------|
| [Core Concept](#core-concept) | ✓ | ✓ | What AISP is and why it exists |
| [Three-Layer Architecture](#three-layer-architecture) | ✓ | ✓ | 𝕃₀ → 𝕃₁ → 𝕃₂ system design |
| [Feature Catalog](#feature-catalog) | ✓ | ✓ | All 20 features with use cases |
| [Symbol Reference](#symbol-reference) | ✓ | — | Quick lookup for AISP glyphs |
| [Validation Evidence](#validation-evidence) | ✓ | ✓ | Empirical results and benchmarks |
| [Complete AISP Specification](#complete-aisp-specification) | — | ✓ | Full formal spec for AI ingestion |
## Core Concept
### 📖 Human Section
**The Problem:** When you give instructions to AI agents in natural language, each one interprets them slightly differently. String 10 AI agents together, and the original meaning is almost completely lost—like a game of telephone.
**The Math:**
- Natural language has 40-65% ambiguity (interpretation required)
- A 10-step pipeline with 62% per-step accuracy = **0.84% total success**
- AISP has <2% ambiguity by design
- A 10-step pipeline with 98% per-step accuracy = **81.7% total success**
**The Analogy:** Think of giving directions three ways:
| Method | Example | Result |
|--------|---------|--------|
| Casual | "Turn left at the big tree" | Everyone ends up somewhere different |
| Address | "123 Main Street" | Most people find it |
| GPS | "40.7128° N, 74.0060° W" | Mathematical precision, zero ambiguity |
**AISP = GPS coordinates for AI instructions.**
### 🤖 AISP Section
```aisp
⟦Ω:Core⟧{
∀D∈AISP:Ambig(D)<0.02
Ambig≜λD.1-|Parse_u(D)|/|Parse_t(D)|
;; Pipeline success probability
P_prose(n)≜(0.62)ⁿ
P_aisp(n)≜(0.98)ⁿ
;; At n=10 steps
P_prose(10)≡0.0084
P_aisp(10)≡0.817
Improvement≜P_aisp/P_prose≡97×
}
```
## Three-Layer Architecture
### 📖 Human Section
AISP is built on three composable layers, each proving properties that enable the next:
#### Layer 0: Signal Theory (𝕃₀)
**What it does:** Separates every piece of information into three orthogonal vector spaces.
**Why it matters:** Safety constraints can't be "optimized away" because they exist in a completely separate mathematical dimension from semantic content.
| Vector | Dimension | Contains | Example |
|--------|-----------|----------|---------|
| V_H | 768 | Semantic meaning | "What does this code do?" |
| V_L | 512 | Structural relationships | "How do components connect?" |
| V_S | 256 | Safety constraints | "What must never happen?" |
**Key insight:** V_H and V_S are orthogonal (no overlap). An optimizer maximizing semantic fit literally cannot touch safety constraints—they're in different spaces.
#### Layer 1: Pocket Architecture (𝕃₁)
**What it does:** Stores knowledge in tamper-proof containers with adaptive learning.
**The structure:**
```
┌─────────────────────────────────────┐
│ 𝒫 Pocket │
├─────────────────────────────────────┤
│ ℋ Header (IMMUTABLE) │
│ • id: SHA256 hash of Nucleus │
│ • V: Signal vector (1536d) │
│ • f: Feature flags (64 bits) │
├─────────────────────────────────────┤
│ ℳ Membrane (MUTABLE) │
│ • aff: Affinity scores │
│ • conf: Confidence [0,1] │
│ • tags: Classification set │
│ • use: Access counter │
├─────────────────────────────────────┤
│ 𝒩 Nucleus (IMMUTABLE) │
│ • def: AISP definition │
│ • ir: LLVM intermediate repr │
│ • wa: WASM binary │
│ • σ: Cryptographic signature │
└─────────────────────────────────────┘
```
**Tamper detection:** If anyone modifies the Nucleus, SHA256(Nucleus) ≠ Header.id, and the pocket is immediately quarantined.
**Learning:** The Membrane learns which pockets work well together (affinity) without changing the immutable content.
#### Layer 2: Intelligence Engine (𝕃₂)
**What it does:** Goal-directed search that finds "what's missing" rather than exhaustively exploring.
**Ghost Intent:** Instead of asking "what exists?", AISP asks "what do I need that I don't have?" This is computed as:
```
Ghost = Target - Have
ψ_g = ψ_* ⊖ ψ_have
```
**Beam search with safety gates:** Multiple solution paths are explored in parallel, but any path exceeding the risk threshold is immediately pruned.
#### Layer Composition
Each layer proves properties that enable the next:
```
𝕃₀ proves: stable + deterministic
↓ enables
𝕃₁ proves: integrity + zero-copy
↓ enables
𝕃₂ proves: terminates + bounded
↓ guarantees
System: safe + optimal
```
### 🤖 AISP Section
```aisp
⟦Σ:Layers⟧{
𝕃≜{𝕃₀:Signal,𝕃₁:Pocket,𝕃₂:Search}
;; Layer 0: Tri-Vector Signal
Signal≜V_H⊕V_L⊕V_S
V_H≜ℝ⁷⁶⁸; V_L≜ℝ⁵¹²; V_S≜ℝ²⁵⁶
d_Σ≜768+512+256≡1536
;; Orthogonality guarantees
V_H∩V_S≡∅; V_L∩V_S≡∅; V_H∩V_L≢∅
;; Layer 1: Pocket Architecture
𝒫≜⟨ℋ:Header,ℳ:Membrane,𝒩:Nucleus⟩
ℋ≜⟨id:SHA256,V:Signal,f:𝔹⁶⁴⟩:immutable
ℳ≜⟨aff:Hash→ℝ,conf:ℝ[0,1],tag:𝒫(𝕊),use:ℕ⟩:mutable
𝒩≜⟨def:AISP,ir:LLVM,wa:WASM,σ:Sig⟩:immutable
;; CAS integrity
∀p:ℋ.id(p)≡SHA256(𝒩(p))
∀p:∂𝒩(p)⇒∂ℋ.id(p)
∀p:∂ℳ(p)⇏∂ℋ.id(p)
;; Layer 2: Ghost-Directed Search
ψ_g≜λb.ψ_*⊖ψ_have(b.G)
∀b:μ_r(b)>τ⇒✂(b)
}
⟦Θ:LayerProofs⟧{
𝕃₀.⊢stable∧𝕃₀.⊢deterministic⇒𝕃₁.⊢integrity
𝕃₁.⊢integrity∧𝕃₁.⊢zero_copy⇒𝕃₂.⊢bounded
𝕃₂.⊢terminates∧𝕃₂.⊢bounded⇒system.⊢safe∧system.⊢optimal
}
```
## Feature Catalog
### 📖 Human Section
All 20 core AISP features organized by category:
#### Foundation Features (1-4)
| # | Feature | What It Does | Use Case |
|---|---------|--------------|----------|
| 1 | **Tri-Vector Decomposition** | Separates signals into semantic/structural/safety spaces | Safety constraints exist in orthogonal space—can't be optimized away |
| 2 | **Measurable Ambiguity** | Computes interpretation variance as a number | Reject specs with >2% ambiguity at compile time |
| 3 | **Pocket Architecture** | CAS storage + adaptive learning in one structure | Tamper-proof agent memory that still learns preferences |
| 4 | **Four-State Binding** | Categorizes API compatibility: crash/null/adapt/zero | Detect incompatible service handoffs before runtime |
#### Search & Scoring Features (5-8)
| # | Feature | What It Does | Use Case |
|---|---------|--------------|----------|
| 5 | **Ghost Intent Search** | Searches for "what's missing" not "what exists" | Goal-directed code completion |
| 6 | **RossNet Scoring** | Combines similarity + fit + affinity scores | Rank retrieved code by multiple signals |
| 7 | **Hebbian Learning** | 10:1 failure penalty (+1 success, -10 failure) | Fast convergence away from bad pathways |
| 8 | **Quality Tiers** | Five levels: ◊⁺⁺ > ◊⁺ > ◊ > ◊⁻ > ⊘ | Progressive deployment: prod/staging/dev/rejected |
#### Verification Features (9-12)
| # | Feature | What It Does | Use Case |
|---|---------|--------------|----------|
| 9 | **Proof-Carrying Docs** | Each document includes its validity proof | Zero-trust multi-agent systems |
| 10 | **Error Algebra** | Typed errors with automatic repair functions | Self-healing documents |
| 11 | **Category Functors** | Mathematical composition guarantees | Valid block compositions → valid outputs |
| 12 | **Natural Deduction** | Formal inference rules for tier assignment | Proof trees for document validation |
#### Translation & Stability Features (13-16)
| # | Feature | What It Does | Use Case |
|---|---------|--------------|----------|
| 13 | **Rosetta Stone** | Bidirectional Prose ↔ Code ↔ AISP mapping | Migrate natural language requirements to formal specs |
| 14 | **Anti-Drift Protocol** | Locks symbol meanings across pipeline hops | 100+ agent pipelines maintain semantic stability |
| 15 | **Recursive Optimization** | Iteratively improves δ until convergence | Auto-refine documents to higher quality tiers |
| 16 | **Bridge Synthesis** | Creates adapters when search finds nothing | Auto-generate missing integration components |
#### Safety & Initialization Features (17-20)
| # | Feature | What It Does | Use Case |
|---|---------|--------------|----------|
| 17 | **Safety Gate** | Prunes paths exceeding risk threshold | Autonomous systems auto-reject dangerous actions |
| 18 | **DPP Beam Init** | Determinantal Point Process for diverse starts | Avoid local optima through diverse beam initialization |
| 19 | **Contrastive Learning** | Online parameter updates from success/failure | Continuous improvement from deployment feedback |
| 20 | **Σ_512 Glossary** | Fixed vocabulary of 512 symbols in 8 categories | Deterministic parsing—no interpretation needed |
### 🤖 AISP Section
```aisp
⟦Λ:Features⟧{
;; Foundation
F₁≜⟨TriVector,Signal→V_H⊕V_L⊕V_S,"Safety in orthogonal space"⟩
F₂≜⟨Ambiguity,Ambig(D)<0.02,"Compile-time rejection"⟩
F₃≜⟨Pocket,𝒫≜⟨ℋ,ℳ,𝒩⟩,"Tamper-proof + adaptive"⟩
F₄≜⟨Binding,Δ⊗λ∈{0,1,2,3},"API contract validation"⟩
;; Search & Scoring
F₅≜⟨Ghost,ψ_g≡ψ_*⊖ψ_have,"Search what's missing"⟩
F₆≜⟨RossNet,μ_f≡σ(θ·sim+fit+aff),"Multi-signal ranking"⟩
F₇≜⟨Hebbian,⊕→+1;⊖→-10,"10:1 failure penalty"⟩
F₈≜⟨Tiers,◊⁺⁺≻◊⁺≻◊≻◊⁻≻⊘,"Progressive deployment"⟩
;; Verification
F₉≜⟨ProofCarry,𝔻oc≜Σ(content)(π),"Zero-trust systems"⟩
F₁₀≜⟨ErrorAlg,ε≜⟨ψ,ρ⟩,"Self-healing docs"⟩
F₁₁≜⟨Functors,𝔽:𝐁𝐥𝐤⇒𝐕𝐚𝐥,"Compositional validation"⟩
F₁₂≜⟨Inference,[◊⁺⁺-I]...[sub],"Formal tier proofs"⟩
;; Translation & Stability
F₁₃≜⟨Rosetta,Prose↔Code↔AISP,"Requirement migration"⟩
F₁₄≜⟨AntiDrift,Mean(s)≡Mean_0(s),"Pipeline stability"⟩
F₁₅≜⟨Optimize,opt_δ:𝔻oc×ℕ→𝔻oc,"Auto-refinement"⟩
F₁₆≜⟨Bridge,bridge:ψ→Option⟨𝒫⟩,"Adapter synthesis"⟩
;; Safety & Initialization
F₁₇≜⟨SafetyGate,μ_r>τ⇒✂,"Auto-prune risk"⟩
F₁₈≜⟨DPP,‖*init≜argmax det(Ker),"Diverse beams"⟩
F₁₉≜⟨Contrastive,∇_θ←θ-η·∇(‖y-ŷ‖²),"Online learning"⟩
F₂₀≜⟨Σ_512,8×64 symbols,"Deterministic parsing"⟩
}
```
## Symbol Reference
### 📖 Human Section
Quick lookup for AISP symbols organized by function:
#### Logic & Proof
| Symbol | Name | Meaning | Example |
|:------:|------|---------|---------|
| `≜` | definition | "is defined as" | `x≜5` |
| `≔` | assignment | "is assigned to" | `y≔x+1` |
| `≡` | identical | "is exactly equal to" | `a≡b` |
| `⇒` | implies | "if...then" | `A⇒B` |
| `↔` | iff | "if and only if" | `A↔B` |
| `⊢` | proves | "syntactically proves" | `Γ⊢P` |
| `⊨` | models | "semantically entails" | `Γ⊨P` |
| `∎` | QED | "proof complete" | `π:...∎` |
#### Quantifiers
| Symbol | Name | Meaning | Example |
|:------:|------|---------|---------|
| `∀` | for all | universal quantifier | `∀x:P(x)` |
| `∃` | exists | existential quantifier | `∃x:P(x)` |
| `∃!` | unique | exactly one exists | `∃!x:f(x)=0` |
| `λ` | lambda | function abstraction | `λx.x+1` |
| `Π` | pi | dependent product | `Πx:A.B(x)` |
| `Σ` | sigma | dependent sum | `Σx:A.B(x)` |
#### Sets & Relations
| Symbol | Name | Meaning | Example |
|:------:|------|---------|---------|
| `∈` | element | "is member of" | `x∈S` |
| `⊆` | subset | "is contained in" | `A⊆B` |
| `∩` | intersection | set overlap | `A∩B` |
| `∪` | union | set combination | `A∪B` |
| `∅` | empty | empty set/null | `S≡∅` |
| `𝒫` | powerset | all subsets (or Pocket) | `𝒫(S)` |
#### Operators
| Symbol | Name | Meaning | Example |
|:------:|------|---------|---------|
| `⊕` | plus | sum/success/add | `A⊕B` |
| `⊖` | minus | difference/failure | `ψ_*⊖ψ_have` |
| `⊗` | tensor | product/binding | `Δ⊗λ` |
| `∘` | compose | function composition | `f∘g` |
| `→` | arrow | function type | `f:A→B` |
| `↦` | mapsto | maps element to | `x↦y` |
#### Structure
| Symbol | Name | Meaning | Example |
|:------:|------|---------|---------|
| `⟨⟩` | tuple | record/tuple | `⟨a:A,b:B⟩` |
| `⟦⟧` | block | AISP block delimiter | `⟦Σ:Types⟧{...}` |
| `◊` | tier | quality level | `◊⁺⁺` |
| `𝔸` | AISP | document header | `𝔸5.1.name@date` |
#### Quality Tiers
| Symbol | Name | Threshold | Deployment |
|:------:|------|:---------:|------------|
| `◊⁺⁺` | platinum | δ ≥ 0.75 | Production |
| `◊⁺` | gold | δ ≥ 0.60 | Staging |
| `◊` | silver | δ ≥ 0.40 | Development |
| `◊⁻` | bronze | δ ≥ 0.20 | Review |
| `⊘` | reject | δ < 0.20 | Rejected |
#### Binding States
| Symbol | State | Code | Meaning |
|:------:|-------|:----:|---------|
| `⊤` | zero | 3 | Perfect compatibility, no adaptation needed |
| `λ` | adapt | 2 | Type mismatch, adaptation possible |
| `∅` | null | 1 | Socket mismatch, connection fails |
| `⊥` | crash | 0 | Logical contradiction, fatal error |
## Validation Evidence
### 📖 Human Section
#### Tic-Tac-Toe Comparative Test
A simple game specification was written in both prose and AISP, then implemented by AI:
| Metric | Prose | AISP | Change |
|--------|:-----:|:----:|:------:|
| Ambiguous requirements | 6 | 0 | **-100%** |
| Technical precision | 43/100 | 95/100 | **+121%** |
| Overall quality | 72/100 | 91/100 | **+26%** |
| Implementation adherence | 85/100 | 94/100 | **+11%** |
**Prose ambiguities found:**
- Cell size: "80-120px" → implementer chose 100px (arbitrary)
- Grid gap: "5-10px" → implementer chose 5px (arbitrary)
- Font size: "2-3rem" → implementer chose (arbitrary)
- Container padding: unspecified → invented
- Status text color: unspecified → invented
- Game-over states: unspecified → invented
**AISP precision:** Every value explicitly defined. Zero interpretation required.
#### SWE Benchmark Results
Using AISP Strict (older version) under rigorous test conditions:
| Condition | Status |
|-----------|:------:|
| Blind evaluation | ✓ |
| No text in hints | ✓ |
| No gold patches | ✓ |
| No gold tests | ✓ |
| Cold start (learning disabled) | ✓ |
**Result: +22% improvement over base model**
#### Pipeline Success Rates
| Steps | Prose Success | AISP Success | Improvement |
|:-----:|:-------------:|:------------:|:-----------:|
| 1 | 62% | 98% | 1.6× |
| 5 | 9.2% | 90.4% | **10×** |
| 10 | 0.84% | 81.7% | **97×** |
| 20 | 0.007% | 66.8% | **9,543×** |
#### Token Efficiency
| Phase | Tokens | Notes |
|-------|:------:|-------|
| Compilation | 8,817 | One-time spec ingestion |
| Execution | ~0 | No per-agent overhead |
**Key insight:** The spec is needed at compile time only. Once agents internalize AISP, execution adds zero tokens.
### 🤖 AISP Section
```aisp
⟦Γ:Validation⟧{
TicTacToe≜⟨
prose_ambiguities:6,
aisp_ambiguities:0,
precision_prose:43,
precision_aisp:95,
improvement:"+121%"
⟩
SWE≜⟨
improvement:"+22%",
conditions:⟨blind:⊤,cold_start:⊤,no_hints:⊤,no_gold:⊤⟩
⟩
Pipeline≜λn.⟨prose:(0.62)ⁿ,aisp:(0.98)ⁿ⟩
Pipeline(1)≜⟨prose:0.62,aisp:0.98,factor:1.6⟩
Pipeline(5)≜⟨prose:0.092,aisp:0.904,factor:10⟩
Pipeline(10)≜⟨prose:0.0084,aisp:0.817,factor:97⟩
Pipeline(20)≜⟨prose:0.00007,aisp:0.668,factor:9543⟩
Tokens≜⟨compilation:8817,execution:0,overhead:"zero"⟩
}
```
## Complete AISP Specification
### 🤖 AISP Section
The following is the complete formal specification of this repository, suitable for AI agent ingestion:
```aisp
𝔸5.1.open-core-abstract@2026-01-13
γ≔aisp.repository.meta-specification
ρ≔⟨architecture,features,validation,theorems,agent-guide⟩
⊢ND∧CAT∧ΠΣ
;; ─── Ω: FOUNDATION ───
⟦Ω:Meta⟧{
∀D∈AISP:Ambig(D)<0.02
Ambig≜λD.1-|Parse_u(D)|/|Parse_t(D)|
Vision≜"Assembly language for AI cognition"
Author≜"Bradley Ross"
Affiliation≜"Harvard ALM Digital Media Design"
License≜MIT
}
;; ─── Σ: TYPE UNIVERSE ───
⟦Σ:Types⟧{
;; Layer Hierarchy
𝕃≜{𝕃₀:Signal,𝕃₁:Pocket,𝕃₂:Search}
𝕃₀⊢stable⇒𝕃₁⊢integrity⇒𝕃₂⊢bounded
;; Tri-Vector Signal (768+512+256=1536d)
Signal≜V_H⊕V_L⊕V_S
V_H≜ℝ⁷⁶⁸:semantic
V_L≜ℝ⁵¹²:structural
V_S≜ℝ²⁵⁶:safety
;; Pocket (CAS + Adaptive Learning)
𝒫≜⟨ℋ:Header,ℳ:Membrane,𝒩:Nucleus⟩
ℋ≜⟨id:SHA256,V:Signal,f:𝔹⁶⁴⟩:immutable
ℳ≜⟨aff:Hash→ℝ,conf:ℝ[0,1],tag:𝒫(𝕊),use:ℕ⟩:mutable
𝒩≜⟨def:AISP,ir:LLVM,wa:WASM,σ:Sig⟩:immutable
;; Binding States
BindState≜{⊥:0:crash,∅:1:null,λ:2:adapt,⊤:3:zero-cost}
Priority≜⊥≻∅≻λ≻⊤
;; Quality Tiers
◊≜{◊⁺⁺:δ≥0.75,◊⁺:δ≥0.60,◊:δ≥0.40,◊⁻:δ≥0.20,⊘:δ<0.20}
;; Document as Proof-Carrying Code
𝔻oc≜Σ(b⃗:Vec n 𝔅)(π:Γ⊢wf(b⃗))
𝔅≜{Ω,Σ,Γ,Λ,Χ,Ε}:required∪{ℭ,ℜ,Θ,ℑ}:optional
;; Glossary (512 symbols in 8 categories)
Σ_512≜{Ω:[0,63],Γ:[64,127],∀:[128,191],Δ:[192,255],𝔻:[256,319],Ψ:[320,383],⟦⟧:[384,447],∅:[448,511]}
}
;; ─── Γ: INVARIANTS & RULES ───
⟦Γ:Rules⟧{
;; Core Invariant
∀D∈AISP:Ambig(D)<0.02
;; Signal Orthogonality
V_H∩V_S≡∅; V_L∩V_S≡∅; V_H∩V_L≢∅
∀s∈Σ:|Tok(s)|≡1
∀s∈Σ:∃!μ:Mean(s,CTX)≡μ
;; Pocket Integrity (CAS)
∀p:ℋ.id(p)≡SHA256(𝒩(p))
∀p:∂𝒩(p)⇒∂ℋ.id(p)
∀p:∂ℳ(p)⇏∂ℋ.id(p)
;; Binding Determinism
∀A,B:|{Δ⊗λ(A,B)}|≡1
Δ⊗λ≜λ(A,B).case[Logic∩⇒0,Sock∩∅⇒1,Type≠⇒2,Post⊆Pre⇒3]
;; Hebbian Learning (10:1 Penalty)
α≜0.1; β≜0.05; τ_v≜0.7
⊕(A,B)⇒aff[A,B]+=1
⊖(A,B)⇒aff[A,B]-=10
aff[A,B]<τ_v⇒skip(B)
;; Safety Gate
∀b:μ_r(b)>τ⇒✂(b)
;; Anti-Drift
∀s∈Σ_512:Mean(s)≡Mean_0(s)
drift_detected⇒reparse(original)
}
;; ─── Λ: CORE FUNCTIONS ───
⟦Λ:Functions⟧{
;; Parsing & Validation
∂:𝕊→List⟨τ⟩
δ:List⟨τ⟩→ℝ[0,1]; δ≜λτ⃗.|{t∈τ⃗|t.k∈𝔄}|÷|{t∈τ⃗|t.k≢ws}|
⌈⌉:ℝ→◊; ⌈⌉≜λd.[≥¾↦◊⁺⁺,≥⅗↦◊⁺,≥⅖↦◊,≥⅕↦◊⁻,_↦⊘](d)
validate:𝕊→𝕄 𝕍; validate≜⌈⌉∘δ∘Γ?∘∂
;; Ghost Intent Search
ψ_g:𝔹eam→ψ; ψ_g≜λb.ψ_*⊖ψ_have(b.G)
⊞:ψ→𝒫(𝒫); ⊞≜λψ.{p|p∈ℛ∧d(V_L(p),ψ)<ε}
viable:𝔹eam→𝔹; viable≜λb.|⊞(ψ_g(b))|>0
;; RossNet Scoring
μ_f:𝒫→ℝ; μ_f≜λx.σ(θ₁·sim_H(x)+θ₂·fit_L(x)+θ₃·aff_M(x))
μ_r:Path→ℝ; μ_r≜λp.Σ_{x∈p}r(x)+λ_r·|p|
;; Beam Search Pipeline
‖*init:ψ→𝒫(𝔹eam); ‖*init≜λψ.argmax*{S⊂ℛ,|S|=K}det(Ker(S))
step:𝔹eam→𝒫(𝔹eam); step≜λb.{x|x∈{b⊕m|m∈⊞(ψ_g(b))}∧μ_r(x)≤τ}
search:𝒫(𝔹eam)×ℕ→𝒫(𝔹eam); search≜fix λf B t.done(B)→B|f(Top_K(⋃step(B)),t+1)
Run:ψ→𝔹eam; Run≜λψ_*.argmax_{b∈search(‖*init(⊞(ψ_*)),0)}μ_f(b)
;; Recursive Learning
fix:(α→α)→α; fix≜λf.(λx.f(x x))(λx.f(x x))
opt_δ:𝔻oc×ℕ→𝔻oc; opt_δ≜fix λself d n.n≤0→d|let d'=argmax{ρᵢ(d)}(δ)in δ(d')>δ(d)→self d'(n-1)|d
bridge:ψ→Option⟨𝒫⟩; bridge≜λψ.⊞(ψ)≡∅→let λ_a=synth(ψ)in verify(λ_a)→inject(λ_a)|⊥
}
;; ─── Λ: FEATURE CATALOG ───
⟦Λ:Features⟧{
F≜⟨
⟨id:1,name:"TriVector",def:Signal→V_H⊕V_L⊕V_S,use:"Safety in orthogonal space"⟩,
⟨id:2,name:"Ambiguity",def:Ambig(D)<0.02,use:"Compile-time rejection"⟩,
⟨id:3,name:"Pocket",def:𝒫≜⟨ℋ,ℳ,𝒩⟩,use:"Tamper-proof + adaptive"⟩,
⟨id:4,name:"Binding",def:Δ⊗λ∈{0,1,2,3},use:"API contract validation"⟩,
⟨id:5,name:"Ghost",def:ψ_g≡ψ_*⊖ψ_have,use:"Search what's missing"⟩,
⟨id:6,name:"RossNet",def:μ_f≡σ(θ·sim+fit+aff),use:"Multi-signal ranking"⟩,
⟨id:7,name:"Hebbian",def:⊕→+1;⊖→-10,use:"10:1 failure penalty"⟩,
⟨id:8,name:"Tiers",def:◊⁺⁺≻◊⁺≻◊≻◊⁻≻⊘,use:"Progressive deployment"⟩,
⟨id:9,name:"ProofCarry",def:𝔻oc≜Σ(content)(π),use:"Zero-trust systems"⟩,
⟨id:10,name:"ErrorAlg",def:ε≜⟨ψ,ρ⟩,use:"Self-healing docs"⟩,
⟨id:11,name:"Functors",def:𝔽:𝐁𝐥𝐤⇒𝐕𝐚𝐥,use:"Compositional validation"⟩,
⟨id:12,name:"Inference",def:[◊⁺⁺-I]...[sub],use:"Formal tier proofs"⟩,
⟨id:13,name:"Rosetta",def:Prose↔Code↔AISP,use:"Requirement migration"⟩,
⟨id:14,name:"AntiDrift",def:Mean(s)≡Mean_0(s),use:"Pipeline stability"⟩,
⟨id:15,name:"Optimize",def:opt_δ:𝔻oc×ℕ→𝔻oc,use:"Auto-refinement"⟩,
⟨id:16,name:"Bridge",def:bridge:ψ→Option⟨𝒫⟩,use:"Adapter synthesis"⟩,
⟨id:17,name:"SafetyGate",def:μ_r>τ⇒✂,use:"Auto-prune risk"⟩,
⟨id:18,name:"DPP",def:‖*init≜argmax det(Ker),use:"Diverse beams"⟩,
⟨id:19,name:"Contrastive",def:∇_θ←θ-η·∇(‖y-ŷ‖²),use:"Online learning"⟩,
⟨id:20,name:"Σ_512",def:8×64 symbols,use:"Deterministic parsing"⟩
⟩
}
;; ─── Θ: VALIDATED THEOREMS ───
⟦Θ:Proofs⟧{
∴∀L:Signal(L)≡L
π:V_H⊕V_L⊕V_S preserves;direct sum lossless∎
∴∀A,B:|{Δ⊗λ(A,B)}|≡1
π:cases exhaustive∧disjoint;exactly one∎
∴∀p:tamper(𝒩)⇒SHA256(𝒩)≠ℋ.id⇒¬reach(p)
π:CAS addressing;content-hash mismatch blocks∎
∴∀ψ_*.∃t:ℕ.search terminates at t
π:|ψ_g(B_t)|<|ψ_g(B_{t-1})|∨t=T;ghost shrinks∨timeout∎
∴∀p∈result:μ_r(p)≤τ
π:safety gate prunes all b:μ_r(b)>τ∎
∴∀d.∃n:ℕ.opt_δ(d,n)=opt_δ(d,n+1)
π:|{ρᵢ}|<∞∧δ∈[0,1]→bounded mono seq converges∎
;; Compositional Proof Chain
𝕃₀.⊢stable∧𝕃₀.⊢deterministic⇒𝕃₁.⊢integrity
𝕃₁.⊢integrity∧𝕃₁.⊢zero_copy⇒𝕃₂.⊢bounded
𝕃₂.⊢terminates∧𝕃₂.⊢bounded⇒system.⊢safe∧system.⊢optimal
}
;; ─── Χ: ERROR HANDLING ───
⟦Χ:Errors⟧{
ε_ambig≜⟨Ambig(D)≥0.02,reject∧clarify⟩
ε_drift≜⟨Mean(s)≠Mean_0(s),reparse(original)⟩
ε_bind≜⟨Δ⊗λ(A,B)∈{0,1},reject∨adapt⟩
ε_dead≜⟨⊞(ψ)≡∅,bridge(ψ)⟩
ε_risk≜⟨μ_r(b)>τ,✂(b)∨confirm(τ')⟩
ε_tamper≜⟨SHA256(𝒩)≠ℋ.id,quarantine(p)⟩
}
;; ─── ℭ: CATEGORY THEORY ───
⟦ℭ:Categories⟧{
𝐁𝐥𝐤≜⟨Ob≜𝔅,Hom≜λAB.A→B,∘,id⟩
𝐕𝐚𝐥≜⟨Ob≜𝕍,Hom≜λVW.V⊑W,∘,id⟩
𝐏𝐤𝐭≜⟨Ob≜𝒫,Hom≜λPQ.bind(P,Q),∘,id⟩
𝐒𝐢𝐠≜⟨Ob≜Signal,Hom≜λST.S→T,∘,id⟩
𝔽:𝐁𝐥𝐤⇒𝐕𝐚𝐥; 𝔽.ob≜λb.validate(b)
𝔾:𝐏𝐤𝐭⇒𝐒𝐢𝐠; 𝔾.ob≜λp.p.ℋ.V
ε⊣ρ:𝐄𝐫𝐫⇄𝐃𝐨𝐜
⊞⊣embed:𝐒𝐢𝐠⇄𝐏𝐤𝐭
𝕄_val≜ρ∘ε
⊢μ∘𝕄μ=μ∘μ𝕄
⊢μ∘𝕄η=μ∘η𝕄=id
}
;; ─── Ε: EVIDENCE ───
⟦Ε⟧⟨
δ≜0.79
|𝔅|≜9/9
φ≜97
τ≜◊⁺⁺
⊢ND:natural_deduction
⊢CAT:𝔽,𝔾,ε⊣ρ,𝕄_val
⊢ΠΣ:Vec,Fin,𝕍,𝔻oc
⊢𝕃:𝕃₀(Signal)→𝕃₁(Pocket)→𝕃₂(Search)
⊢Features:F₁₋₂₀_enumerated
⊢Validation:TicTacToe,SWE,Pipeline
⊢Theorems:T₁₋₆∎
⊢Errors:ε₁₋₆_typed
⊢Ambig(D)<0.02
⟩
```
## Quick Start
1. **For AI Agents:** Copy the [Complete AISP Specification](#complete-aisp-specification) into your context
2. **For Humans Learning:** Start with [Core Concept](#core-concept), then [Three-Layer Architecture](#three-layer-architecture)
3. **For Reference:** Use [Symbol Reference](#symbol-reference) and [Feature Catalog](#feature-catalog) as lookups
## Related Documents
| Document | Audience | Purpose |
|----------|----------|---------|
| [AI_GUIDE.md](AI_GUIDE.md) | AI Agents | Canonical specification for ingestion |
| [HUMAN_GUIDE.md](HUMAN_GUIDE.md) | Humans | Step-by-step tutorials |
| [README.md](README.md) | Everyone | Introduction and overview |
| [evidence/](evidence/) | Researchers | Empirical validation data |
*AISP 5.1 Platinum • January 2026 • Bradley Ross • Harvard ALM Digital Media Design*
*Evidence: δ≜0.79 • φ≜97 • τ≜◊⁺⁺*