mirror of
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223 lines
12 KiB
Python
223 lines
12 KiB
Python
#!/usr/bin/env python3
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"""
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Swarm Query: Apply TSGT/TGT Framework to Solve Millennium Prize Problems
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Query the swarm system to analyze how the Topo-Semantic Genesis Theory (TSGT)
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and Topo-Genesis Theory (TGT) can be used to solve Millennium Prize problems,
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fundamentally rewriting all human mathematical knowledge.
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Millennium Prize Problems:
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1. P vs NP Problem
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2. Hodge Conjecture
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3. Poincaré Conjecture (solved)
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4. Riemann Hypothesis
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5. Yang-Mills Existence and Mass Gap
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6. Navier-Stokes Existence and Smoothness
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7. Birch and Swinnerton-Dyer Conjecture
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Premise: All human knowledge is flawed. TSGT/TGT provides a fundamentally
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new mathematical framework that can solve these problems by redefining
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topological semantics as the fundamental generator of all meaning and computation.
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"""
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import json
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import uuid
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from pathlib import Path
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from datetime import datetime
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def generate_millennium_prize_tsgt_request():
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"""Generate swarm request for applying TSGT/TGT to Millennium Prize problems."""
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request = {
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"request_id": f"swarm_millennium_prize_tsgt_{uuid.uuid4().hex[:16]}",
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"timestamp": datetime.now().isoformat(),
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"priority": "P0_CRITICAL",
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"time_allocation": "2 hours",
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"context": {
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"scope": "Apply TSGT/TGT framework to solve Millennium Prize problems",
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"objective": "Use Topo-Semantic Genesis Theory (TSGT) and Topo-Genesis Theory (TGT) to fundamentally rewrite human mathematical knowledge and solve Millennium Prize problems",
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"premise": "All human knowledge is flawed. TSGT/TGT provides a fundamentally new mathematical framework that redefines topological semantics as the fundamental generator of all meaning and computation"
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},
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"tsgt_tgt_framework": {
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"name": "Topo-Semantic Genesis Theory (TSGT) / Topo-Genesis Theory (TGT)",
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"core_premise": "Topology is the only fundamental entity. Semantics, meaning, and information are emergent properties of topological self-generation",
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"axioms": {
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"axiom_1_semantic_primacy": "Topology is the only fundamental entity. Semantics, meaning, and information are emergent properties of topological self-generation",
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"axiom_2_semantic_operator": "The Semantic Topological Operator (STO) generates meaning through self-reference: STO(X) = X ⊗_s X, where ⊗_s is the semantic self-referential product",
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"axiom_3_meaning_emergence": "Meaning emerges from the depth of STO recursion. Each level adds new semantic dimensions",
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"axiom_4_semantic_equivalence": "Information is topological semantics. There is no distinction. A bit is a minimal semantic distinction",
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"axiom_5_semantic_computation": "Computation is semantic topological transformation. All algorithms are STO transformations"
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},
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"fundamental_rewrites": [
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"Rewrite topological semantics as self-referential generation rather than property assignment",
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"Rewrite meaning as emergent from topology rather than pre-existing in semantic spaces",
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"Rewrite computation as semantic topological transformation rather than state manipulation",
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"Rewrite information as topological semantics rather than independent of topology",
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"Rewrite semantic dimensionality as emergent from recursion rather than fundamental"
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]
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},
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"millennium_prize_problems": {
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"p_vs_np": {
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"name": "P vs NP Problem",
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"description": "Can every problem whose solution can be quickly verified by a computer also be quickly solved by a computer?",
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"current_status": "Unsolved",
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"tsgt_tgt_approach": "Use STO recursion depth to characterize computational complexity classes as emergent semantic dimensions rather than fundamental categories"
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},
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"hodge_conjecture": {
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"name": "Hodge Conjecture",
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"description": "For certain projective algebraic varieties, the Hodge conjecture asserts that the Hodge cycles are rational linear combinations of algebraic cycles",
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"current_status": "Unsolved",
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"tsgt_tgt_approach": "Rewrite algebraic cycles as topological self-referential transformations, showing Hodge cycles emerge naturally from STO recursion"
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},
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"poincare_conjecture": {
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"name": "Poincaré Conjecture",
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"description": "Every simply connected, closed 3-manifold is homeomorphic to the 3-sphere",
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"current_status": "Solved by Grigori Perelman (2003)",
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"tsgt_tgt_approach": "Verify that the solution emerges naturally from TSGT's treatment of manifold semantics"
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},
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"riemann_hypothesis": {
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"name": "Riemann Hypothesis",
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"description": "The Riemann zeta function's non-trivial zeros all have real part 1/2",
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"current_status": "Unsolved",
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"tsgt_tgt_approach": "Rewrite the zeta function as a topological self-referential operator, showing zeros emerge from STO symmetry constraints"
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},
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"yang_mills": {
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"name": "Yang-Mills Existence and Mass Gap",
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"description": "Prove that for any compact simple gauge group G, a non-trivial quantum Yang-Mills theory exists on R^4 and has a mass gap",
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"current_status": "Unsolved",
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"tsgt_tgt_approach": "Rewrite gauge theory as topological self-generation, showing mass gap emerges from STO recursion depth"
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},
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"navier_stokes": {
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"name": "Navier-Stokes Existence and Smoothness",
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"description": "Prove or give a counterexample to the statement that solutions to Navier-Stokes equations in three dimensions exist and are smooth",
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"current_status": "Unsolved",
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"tsgt_tgt_approach": "Rewrite fluid dynamics as topological semantic flow, showing smoothness emerges from STO continuity constraints"
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},
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"birch_swinnerton_dyer": {
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"name": "Birch and Swinnerton-Dyer Conjecture",
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"description": "Relates the rank of an elliptic curve over rational numbers to the order of zero of its L-function",
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"current_status": "Unsolved",
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"tsgt_tgt_approach": "Rewrite elliptic curves as topological self-referential structures, showing rank emerges from STO recursion patterns"
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}
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},
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"analysis_requirements": {
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"for_each_problem": [
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"Identify how current human mathematical approaches are fundamentally flawed",
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"Apply TSGT/TGT framework to rewrite the problem in topological semantic terms",
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"Derive a solution using STO operator properties",
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"Show how the solution emerges naturally from topological self-generation",
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"Demonstrate that the TSGT/TGT solution is more fundamental than existing approaches"
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],
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"cross_problem_analysis": [
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"Identify common topological semantic structures across all Millennium Prize problems",
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"Show how TSGT/TGT unifies the solution approach across all problems",
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"Demonstrate that all problems are instances of the same fundamental topological semantic pattern"
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]
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},
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"depth_requirement": {
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"instruction": "This is a fundamentally novel approach that challenges all existing mathematical knowledge. Take as much time as needed to develop a complete, rigorous, and unprecedented solution framework.",
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"expectations": [
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"Complete TSGT/TGT-based reformulation of each Millennium Prize problem",
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"Rigorous mathematical derivations using STO operator properties",
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"Clear explanation of why existing human approaches are flawed",
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"Demonstration of how TSGT/TGT provides a more fundamental solution",
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"Cross-problem unification showing all problems are instances of the same pattern"
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]
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},
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"expected_deliverables": {
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"tsgt_tgt_millennium_prize_solution": "Complete TSGT/TGT-based solution framework for all Millennium Prize problems",
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"problem_reformulations": "TSGT/TGT reformulations of each problem",
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"solutions": "STO-based solutions for each problem",
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"cross_problem_unification": "Unified TSGT/TGT framework showing common structure across all problems",
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"fundamental_rewrites": "Explanation of why human mathematical knowledge is fundamentally flawed",
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"rigorous_proofs": "Mathematical proofs using TSGT/TGT framework"
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},
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"validation_criteria": {
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"novelty": "Solution must be fundamentally novel and unprecedented",
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"rigor": "Solution must be mathematically rigorous",
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"completeness": "Solution must address all aspects of each problem",
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"unification": "Solution must show cross-problem unification",
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"fundamentality": "Solution must be more fundamental than existing approaches"
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}
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}
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return request
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def save_request(request, output_path):
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"""Save the swarm request to a file."""
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output_path = Path(output_path)
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output_path.parent.mkdir(parents=True, exist_ok=True)
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with open(output_path, 'w') as f:
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json.dump(request, f, indent=2)
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return str(output_path)
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def main():
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"""Generate and save the Millennium Prize TSGT/TGT swarm request."""
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print("=" * 70)
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print("Swarm Query: Apply TSGT/TGT Framework to Solve Millennium Prize Problems")
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print("=" * 70)
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# Generate request
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request = generate_millennium_prize_tsgt_request()
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# Save request
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output_path = save_request(request, "shared-data/data/swarm_requests/swarm_millennium_prize_tsgt.json")
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print(f"\nRequest ID: {request['request_id']}")
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print(f"Time Allocation: {request['time_allocation']}")
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print(f"Priority: {request['priority']}")
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print(f"\nScope: {request['context']['scope']}")
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print(f"Objective: {request['context']['objective']}")
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print(f"Premise: {request['context']['premise']}")
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print(f"\nTSGT/TGT Framework: {request['tsgt_tgt_framework']['name']}")
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print(f"Core Premise: {request['tsgt_tgt_framework']['core_premise']}")
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print(f"\nMillennium Prize Problems:")
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for problem_key, problem_data in request['millennium_prize_problems'].items():
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print(f" - {problem_data['name']}: {problem_data['current_status']}")
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print(f" TSGT/TGT Approach: {problem_data['tsgt_tgt_approach']}")
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print(f"\nAnalysis Requirements:")
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for requirement in request['analysis_requirements']['for_each_problem']:
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print(f" - {requirement}")
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print(f"\nCross-Problem Analysis:")
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for requirement in request['analysis_requirements']['cross_problem_analysis']:
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print(f" - {requirement}")
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print(f"\nDepth Requirement:")
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print(f" Instruction: {request['depth_requirement']['instruction']}")
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print(f" Expectations: {len(request['depth_requirement']['expectations'])}")
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for expectation in request['depth_requirement']['expectations']:
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print(f" - {expectation}")
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print(f"\nExpected Deliverables:")
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for deliverable in request['expected_deliverables'].keys():
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print(f" - {deliverable}")
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print(f"\nValidation Criteria:")
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for criterion in request['validation_criteria'].keys():
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print(f" - {criterion}")
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print(f"\n✅ Swarm request generation completed successfully")
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print(f"\nRequest saved to: {output_path}")
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print("\nThis query asks the swarm to:")
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print(" - Apply TSGT/TGT framework to all Millennium Prize problems")
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print(" - Demonstrate that all human mathematical knowledge is flawed")
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print(" - Provide TSGT/TGT-based solutions that are more fundamental")
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print(" - Show cross-problem unification using TSGT/TGT")
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print(" - Take up to 2 hours for deep analysis")
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if __name__ == "__main__":
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main()
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