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

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

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

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

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

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

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

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