Posted: Aug 16, 2022
The exponential growth of financial data presents unprecedented challenges for database management systems in the financial sector. Large-scale financial databases now routinely handle petabytes of transactional data, complex analytical queries, and real-time processing requirements that traditional optimization techniques struggle to accommodate. Financial institutions face the dual challenge of maintaining sub-second response times for critical trading operations while supporting complex analytical workloads that require sophisticated join operations across multiple dimensions of financial data. Current database optimization approaches, including cost-based optimization, heuristic methods, and machine learning-enhanced techniques, have shown limitations when applied to the unique characteristics of financial data. These limitations include inadequate handling of high-frequency data patterns, poor scalability with increasing data volumes, and insufficient adaptability to rapidly changing query workloads. The financial domain's specific requirements, such as regulatory compliance, audit trails, and real-time risk assessment, further complicate the optimization landscape. This paper addresses these challenges through the development of a quantum-inspired optimization framework that represents a fundamental departure from conventional approaches. By integrating principles from quantum computing with adaptive neural networks, our system achieves significant performance improvements while maintaining the robustness and reliability required in financial applications. The novelty of our approach lies in its ability to simultaneously evaluate multiple optimization paths, adapt to changing data patterns in real-time, and scale effectively with increasing data volumes and complexity.
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