Bridging Pattern-Aware Complexity with NP-Hard Optimization: A Unifying Framework and Empirical Study

13 February 2026, Version 1
This content is an early or alternative research output and has not been peer-reviewed by Cambridge University Press at the time of posting.

Abstract

NP-hard optimization problems like the Traveling Salesman Problem (TSP) defy efficient solutions in the worst case, yet real-world instances often exhibit exploitable patterns. We propose a novel patternaware complexity framework that quantifies and leverages structural regularities—e.g., clustering, symmetry—to reduce effective computational complexity across domains, including financial forecasting and LLM optimization. With rigorous definitions, theorems, and a meta-learning-driven solver pipeline, we introduce metrics like Pattern Utilization Efficiency (PUE) and achieve up to 79% solution quality gains in TSP benchmarks (22–2392 cities). Distinct from theoretical NP-hardness, our approach offers a unified, practical lens for pattern-driven efficiency.

Keywords

NP-Hard Optimization
Pattern Aware Complexity
Computational Complexity
Algorithm Selection
Meta Learning
Optimization
Complexity
Pattern Detection
Solver Portfolio
Adaptive Optimization
Algorithmic Effeciency
Entropy Based Analysis
Financial Forecasting
Large Language Models
Pattern Utilization Efficiency (PUE)
Solution Quality Factor (SQF)
Combinatorial Optimization
Complexity Reduction
Parameterized Complexity
Clustering Analysis
Systemic Trading
Traveling Salesman Problem (TSP)

Supplementary weblinks

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