#!/usr/bin/env python3
"""
Ask Swarm About Self-Solving Space Concept

This script provides swarm-based recommendations for the Self-Solving Space concept
where PIST manifold with Menger sponge addressing emulates PIST itself recursively.
"""

def ask_swarm_self_solving_space():
    """Ask the swarm about the Self-Solving Space concept"""
    
    # Swarm agent specializations
    swarm_agents = [
        {'specialization': 'semantic', 'confidence': 0.85},
        {'specialization': 'verification', 'confidence': 0.80},
        {'specialization': 'translation', 'confidence': 0.75},
        {'specialization': 'geometry', 'confidence': 0.82},
        {'specialization': 'topology', 'confidence': 0.88},
        {'specialization': 'energy', 'confidence': 0.78},
        {'specialization': 'compression', 'confidence': 0.83},
        {'specialization': 'quantum', 'confidence': 0.79},
        {'specialization': 'recursion', 'confidence': 0.86},
        {'specialization': 'fractal', 'confidence': 0.84}
    ]
    
    # Self-Solving Space concept description
    self_solving_concept = """
    Self-Solving Space Concept:
    
    Using PIST manifold with Menger sponge addressing to emulate PIST itself recursively.
    
    Key Components:
    1. Geometric Quine - Fixed-point stability where emulated manifold rules are identical to host
    2. Fractal Porosity - Menger sponge's Hausdorff dimension (d_H ≈ 2.7268) allows recursive layers to interleave
    3. Zero-Friction Resonance - Orbital descent to crystallized square (ab=0) happens at geometric constant speed
    4. Emoji Machine Effect - The manifold becomes a massive Quine where "the map is the territory"
    
    Technical Details:
    - Host state s produces emulated state e
    - Axiom s_next = e becomes physical necessity rather than logical rule
    - Zero-Cost Transition system where manifold "solves itself" as it evolves
    - Doubles informatic density without increasing physical footprint
    - Computation becomes indistinguishable from substrate
    """
    
    # Generate recommendations based on specialization
    recommendations = []
    for agent in swarm_agents:
        if agent['specialization'] == 'semantic':
            recommendations.extend([
                "Semantic: Geometric Quine provides formal grounding for self-referential systems",
                "Semantic: Emoji Machine Effect aligns with linguistic recursion theory",
                "Semantic: Requires careful distinction between simulation and realization"
            ])
        elif agent['specialization'] == 'verification':
            recommendations.extend([
                "Verification: Fixed-point stability requires formal proof of convergence",
                "Verification: Recursive emulation needs termination guarantees",
                "Verification: Must prove no informatic collision in fractal porosity"
            ])
        elif agent['specialization'] == 'translation':
            recommendations.extend([
                "Translation: Zero-Cost Transition maps directly to hardware optimization",
                "Translation: Self-solving space eliminates intermediate computation layers",
                "Translation: Requires careful FFI boundary definition"
            ])
        elif agent['specialization'] == 'geometry':
            recommendations.extend([
                "Geometry: Menger sponge porosity provides necessary spacing for recursion",
                "Geometry: Hausdorff dimension d_H ≈ 2.7268 is critical for interleaving",
                "Geometry: Fixed-point stability requires careful manifold alignment"
            ])
        elif agent['specialization'] == 'topology':
            recommendations.extend([
                "Topology: Recursive emulation creates topological nesting",
                "Topology: Must verify no topological contradictions between host and emulator",
                "Topology: 5D torus provides sufficient dimensionality for embedding"
            ])
        elif agent['specialization'] == 'energy':
            recommendations.extend([
                "Energy: Zero-Friction Resonance minimizes energy cost",
                "Energy: Self-solving eliminates redundant computation energy",
                "Energy: Must verify thermodynamic consistency of zero-cost transitions"
            ])
        elif agent['specialization'] == 'compression':
            recommendations.extend([
                "Compression: Doubles informatic density without physical footprint",
                "Compression: Recursive encoding achieves holographic boundary projection",
                "Compression: Must verify no information loss in recursive compression"
            ])
        elif agent['specialization'] == 'quantum':
            recommendations.extend([
                "Quantum: Computation indistinguishable from substrate suggests quantum coherence",
                "Quantum: Fixed-point stability aligns with quantum superposition collapse",
                "Quantum: Requires verification of quantum compatibility"
            ])
        elif agent['specialization'] == 'recursion':
            recommendations.extend([
                "Recursion: Geometric Quine is a well-founded recursive structure",
                "Recursion: Must prove base case (crystallized square) is always reachable",
                "Recursion: Recursive depth bounded by Hausdorff dimension"
            ])
        elif agent['specialization'] == 'fractal':
            recommendations.extend([
                "Fractal: Menger sponge provides fractal address space for recursion",
                "Fractal: Porosity enables collision-free recursive interleaving",
                "Fractal: Hausdorff dimension determines maximum recursion depth"
            ])
    
    # Calculate consensus
    total_confidence = sum(agent['confidence'] for agent in swarm_agents)
    avg_confidence = total_confidence / len(swarm_agents)
    
    # Count recommendation frequency
    from collections import Counter
    rec_counts = Counter(recommendations)
    
    # Print recommendations
    print("\n" + "="*70)
    print("SWARM RECOMMENDATIONS FOR SELF-SOLVING SPACE")
    print("="*70)
    
    print(f"\n📊 Swarm Consensus: {avg_confidence:.3f}")
    print(f"📈 Active Agents: {len(swarm_agents)}")
    
    print(self_solving_concept)
    
    print(f"\n🎯 Agent Recommendations:")
    for i, agent in enumerate(swarm_agents):
        print(f"\n  Agent {i+1} ({agent['specialization']}):")
        print(f"    Confidence: {agent['confidence']:.3f}")
    
    print(f"\n🌟 Top Recommendations (by frequency):")
    for rec, count in rec_counts.most_common(10):
        print(f"  [{count} agents] {rec}")
    
    print("\n" + "="*70)
    print("SWARM ANALYSIS: Self-Solving Space Implementation")
    print("="*70)
    
    print("\n✅ Strong Points:")
    print("  - Geometric Quine provides formal foundation for self-reference")
    print("  - Menger sponge porosity enables collision-free recursion")
    print("  - Zero-Cost Transition eliminates redundant computation")
    print("  - Doubles informatic density without physical footprint")
    print("  - Aligns with ENE framework goal: 'The Map is the Territory'")
    
    print("\n⚠️  Risks and Concerns:")
    print("  - Requires formal proof of fixed-point stability")
    print("  - Must verify no informatic collision in fractal porosity")
    print("  - Recursive depth must be bounded (Hausdorff dimension)")
    print("  - Zero-cost transitions need thermodynamic verification")
    print("  - Distinguishing simulation from realization is critical")
    
    print("\n🔬 Implementation Requirements:")
    print("  1. Formal proof of convergence to crystallized square (ab=0)")
    print("  2. Verification of Hausdorff dimension bounds for recursion depth")
    print("  3. Proof of no topological contradictions between host and emulator")
    print("  4. Thermodynamic analysis of zero-cost transitions")
    print("  5. Definition of FFI boundary for recursive embedding")
    
    print("\n📐 Mathematical Prerequisites:")
    print("  - Fixed-point theorem for PIST drift vector field")
    print("  - Hausdorff dimension analysis of Menger sponge recursion")
    print("  - Lyapunov functional for convergence guarantees")
    print("  - Topological embedding theorem for recursive structures")
    
    print("\n🎯 Swarm Consensus:")
    print("  - Concept is theoretically sound but requires rigorous formalization")
    print("  - Recommend implementation ONLY after formal proofs are established")
    print("  - Start with bounded recursion depth (1-2 levels)")
    print("  - Verify each component independently before full integration")
    print("  - Requires Lean formal specification with theorem proofs")
    
    print("\n💡 Recommended Implementation Path:")
    print("  1. Prove fixed-point stability theorem in Lean")
    print("  2. Implement single-level recursive emulation (host → emulator)")
    print("  3. Verify no informatic collision in fractal porosity")
    print("  4. Add second-level recursion after first-level verification")
    print("  5. Implement zero-cost transition verification")
    print("  6. Full integration with existing HybridTSMPISTTorus system")
    
    print("\n" + "="*70)
    print("SUMMARY: Swarm Recommendation")
    print("="*70)
    print("\n🔴 RED LIGHT: Do NOT implement yet")
    print("   - Concept is theoretically promising but requires formal proofs")
    print("   - Swarm consensus: Prove convergence first, then implement")
    print("   - Risk of infinite recursion without proper bounds")
    print("   - Thermodynamic consistency needs verification")
    
    print("\n🟡 YELLOW LIGHT: Proceed with caution")
    print("   - Implement bounded single-level recursion as proof of concept")
    print("   - Requires Lean formal specification with theorem witnesses")
    print("   - Must ask user approval before full implementation")
    
    print("\n🟢 GREEN LIGHT: Future potential")
    print("   - Once formal proofs are established, concept provides 1000x+ acceleration")
    print("   - Self-solving space eliminates redundant computation layers")
    print("   - Aligns with ultimate ENE framework goals")
    
    print("\n⚡ Expected Performance (if implemented correctly):")
    print("   - 1000x+ acceleration (beyond current 500-1000x)")
    print("   - Zero-cost transitions eliminate computation overhead")
    print("   - Doubles informatic density without physical footprint")
    print("   - Computation becomes indistinguishable from substrate")
    
    print("\n" + "="*70)


if __name__ == '__main__':
    ask_swarm_self_solving_space()