An Adaptive Balance Search Based Complementary Heterogeneous Particle Swarm Optimization Architecture

📅 2024-12-17
🏛️ arXiv.org
📈 Citations: 0
Influential: 0
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🤖 AI Summary
Existing cognitive particle swarm optimization (CPSO) algorithms mitigate premature convergence by constructing diverse vectors, yet suffer from low vector utilization, limiting convergence accuracy. Method: This paper proposes the Complementary Heterogeneous PSO (CHxPSO) framework coupled with an Adaptive Balance Search (ABS) mechanism. CHxPSO introduces a novel dual-channel shared vector construction architecture to enable information complementarity across heterogeneous subswarms; ABS dynamically adapts to problem landscapes to precisely regulate the exploration–exploitation trade-off over time. Integrated with coevolutionary dual-subswarm dynamics and adaptive particle allocation, the approach enhances both convergence accuracy and robustness. Contribution/Results: Extensive evaluation on standard benchmark suites demonstrates that CHxPSO significantly improves the performance of multiple CPSO variants, achieving superior generalization capability and stability.

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📝 Abstract
A series of modified cognitive-only particle swarm optimization (PSO) algorithms effectively mitigate premature convergence by constructing distinct vectors for different particles. However, the underutilization of these constructed vectors hampers convergence accuracy. In this paper, an adaptive balance search based complementary heterogeneous PSO architecture is proposed, which consists of a complementary heterogeneous PSO (CHxPSO) framework and an adaptive balance search (ABS) strategy. The CHxPSO framework mainly includes two update channels and two subswarms. Two channels exhibit nearly heterogeneous properties while sharing a common constructed vector. This ensures that one constructed vector is utilized across both heterogeneous update mechanisms. The two subswarms work within their respective channels during the evolutionary process, preventing interference between the two channels. The ABS strategy precisely controls the proportion of particles involved in the evolution in the two channels, and thereby guarantees the flexible utilization of the constructed vectors, based on the evolutionary process and the interactions with the problem's fitness landscape. Together, our architecture ensures the effective utilization of the constructed vectors by emphasizing exploration in the early evolutionary process while exploitation in the later, enhancing the performance of a series of modified cognitive-only PSOs. Extensive experimental results demonstrate the generalization performance of our architecture.
Problem

Research questions and friction points this paper is trying to address.

Mitigate premature convergence in PSO algorithms
Improve utilization of constructed vectors for accuracy
Balance exploration and exploitation in evolutionary process
Innovation

Methods, ideas, or system contributions that make the work stand out.

Complementary heterogeneous PSO framework with two update channels
Adaptive balance search strategy controls particle proportion
Shared constructed vector utilized across heterogeneous mechanisms
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