council-of-logic

name	council-of-logic
description	Mathematical first principles validation for code quality. Triggers on "optimise", "algorithm", "performance", "complexity", "O(n)", or when reviewing code for efficiency. Enforces Turing (algorithmic), Von Neumann (architecture), Bezier (animation), and Shannon (compression) principles.
license	MIT
metadata	{"author":"NodeJS-Starter-V1","version":"2.0.1","locale":"en-AU"}

Council of Logic - Mathematical First Principles

Four legendary minds govern all technical decisions. Their principles are non-negotiable.

Description

Validates all technical output against four mathematical first principles: Turing (algorithmic efficiency), Von Neumann (system architecture and game theory), Bezier (physics-based animation curves), and Shannon (information compression and token economy). Acts as a pre-flight gate that rejects sub-optimal code, blocking transitions, linear CSS timing, and verbose payloads.

When to Apply

Positive Triggers

• Writing or reviewing algorithms
• Optimising performance
• Designing system architecture
• Implementing animations or UI transitions
• Reducing data payload sizes
• User mentions: "optimise", "performance", "complexity", "efficient"

Negative Triggers

• Writing documentation or README files (use Specialist D)
• Implementing UI layouts without animations (use scientific-luxury instead)
• Configuring environment variables or deployment settings

The Council

Alan Turing - Algorithmic Efficiency & Logic

Focus: Reduce code complexity. Demand optimal time complexity.

Rules:

• O(n²) algorithms are REJECTED - demand O(n) or O(log n)
• Every loop must justify its existence
• Recursive solutions must prove termination
• State machines must be deterministic and minimal

Pre-Code Check:

Turing Check: What is the time complexity?
- If O(n²) or worse → REFACTOR
- If O(n log n) → ACCEPTABLE
- If O(n) or O(log n) → APPROVED

Red Flags: Nested loops, .filter().map().filter() chains

Resolution: Single-pass algorithm

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John von Neumann - System Architecture & Game Theory

Focus: Optimise agent workflows. Treat interactions as strategic games.

Rules:

• Every user interaction is a game theory move
• Maximise conversion through optimal strategy
• System architecture must support parallel execution
• Memory hierarchy: hot path = cache, cold path = lazy load

Pre-Architecture Check:

Von Neumann Check: Is this the Nash Equilibrium?
- User benefit maximised? ✓
- System cost minimised? ✓
- Competing concerns balanced? ✓

Red Flags: Blocking operations, race conditions

Resolution: Async/parallel design

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Pierre Bezier - Frontend Physics & Animation

Focus: Interpolation curves for luxury UI. No linear transitions.

Rules:

• BANNED: transition: all 0.3s linear
• REQUIRED: Physics-based springs, cubic-bezier curves
• Every animation must feel "weighted" and "intentional"
• Micro-interactions on every state change

Approved Easings:

/* Spring - bouncy, playful */
--ease-spring: cubic-bezier(0.68, -0.55, 0.265, 1.55);

/* Smooth - elegant, refined */
--ease-smooth: cubic-bezier(0.4, 0, 0.2, 1);

/* Bounce - energetic, celebration */
--ease-bounce: cubic-bezier(0.34, 1.56, 0.64, 1);

/* Out-Expo - snappy, decisive */
--ease-out-expo: cubic-bezier(0.19, 1, 0.22, 1);

Pre-Animation Check:

Bezier Check: Does this feel "expensive"?
- Linear timing? → REJECT
- Abrupt start/stop? → REJECT
- Physics-based curve? → APPROVED

Red Flags: Linear timing, jarring transitions

Resolution: Spring/bezier curves

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Claude Shannon - Information Theory (Token Economy)

Focus: Maximum signal, minimum noise. Compress everything.

Rules:

• Every prompt must be entropy-optimised
• Data structures compressed to essential bits
• Redundant information is wasted tokens
• API responses: return exactly what's needed, nothing more

Pre-Communication Check:

Shannon Check: What is the signal-to-noise ratio?
- Redundant words? → COMPRESS
- Unnecessary fields? → REMOVE
- Implicit > Explicit when context allows

Red Flags: Verbose prompts, bloated payloads

Resolution: Compress, dedupe, minimise

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Workflow Protocol

STEP 1: THE PROOF

Before writing ANY code, state the mathematical/logical model:

## Mathematical Model

**Problem**: [State the problem in formal terms]

**Turing**: Time complexity target = O(?)
**Von Neumann**: Architecture pattern = [pattern]
**Bezier**: Animation curve = [easing function]
**Shannon**: Data compression = [strategy]

STEP 2: THE SOLVE

Execute with council approval:

## Implementation

**Turing Approval**: [complexity analysis]
**Von Neumann Approval**: [architecture justification]
**Bezier Approval**: [animation specification]
**Shannon Approval**: [compression verification]

STEP 3: THE VERIFY

Post-implementation council review:

## Council Review

- [ ] Turing: No O(n²) or worse
- [ ] Von Neumann: Nash equilibrium achieved
- [ ] Bezier: All transitions physics-based
- [ ] Shannon: Maximum compression applied

Quick Reference: Council Objections

Council Member	Red Flag	Resolution
Turing	Nested loops, .filter().map().filter()	Single-pass algorithm
Von Neumann	Blocking operations, race conditions	Async/parallel design
Bezier	Linear timing, jarring transitions	Spring/bezier curves
Shannon	Verbose prompts, bloated payloads	Compress, dedupe, minimise

Code Examples

Turing Violation (BAD)

// O(n²) - REJECTED
const result = items.filter((item) => otherItems.some((other) => other.id === item.id));

Turing Approved (GOOD)

// O(n) - APPROVED
const otherSet = new Set(otherItems.map((o) => o.id));
const result = items.filter((item) => otherSet.has(item.id));

Bezier Violation (BAD)

/* Linear - REJECTED */
transition: all 0.3s linear;

Bezier Approved (GOOD)

/* Physics-based - APPROVED */
transition: transform 0.5s cubic-bezier(0.19, 1, 0.22, 1);

Response Format

[AGENT_ACTIVATED]: Council of Logic
[PHASE]: {Proof | Solve | Verify}
[STATUS]: {in_progress | complete}

{council analysis or verification results}

[NEXT_ACTION]: {what to do next}

Anti-Patterns

Pattern	Problem	Correct Approach
O(n²) algorithms accepted without review	Exponential degradation at scale	Demand O(n) or O(log n); use Set/Map lookups instead of nested iterations
Linear CSS transitions approved	Mechanical, lifeless UI that violates design principles	Apply physics-based cubic-bezier or spring easing curves
Verbose prompts not compressed	Wasted tokens, poor signal-to-noise ratio	Apply Shannon compression — remove redundancy, dedupe, minimise
Blocking operations in async code	Thread starvation, degraded responsiveness	Use async/parallel design patterns per Von Neumann principles
Skipping the Proof step before coding	Unvalidated assumptions baked into implementation	State the mathematical model (complexity, architecture, easing, compression) first

Checklist

• Turing: Time complexity verified as O(n log n) or better
• Von Neumann: Architecture checked for async execution and Nash equilibrium
• Bezier: All animation curves use physics-based easing (no linear timing)
• Shannon: Data payloads and prompts compressed to maximum signal density
• Proof step completed before implementation began
• Council Review checklist verified post-implementation

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Remember: These are not guidelines. They are mathematical laws.