Learning-assisted Algorithm Design for
Evolutionary Computation
Learning-assisted Algorithm Design for
Evolutionary Computation
November 17 - November 20, PRICAI 2026 | Guangzhou, China
Learning-assisted algorithm design is becoming an important direction in evolutionary computation and optimization. Recent advances in machine learning, reinforcement learning, neural optimization, meta-learning, foundation models, and large language models are creating new opportunities to automate and improve the design of optimization algorithms. This workshop will focus on learning-assisted and data-driven methods for designing, configuring, and enhancing optimization algorithms. Topics include learning to optimize, neural combinatorial optimization, meta black-box optimization, large-language-model-based algorithm design, automated algorithm selection and configuration, data-driven evolutionary algorithms, surrogate-assisted optimization, and reinforcement-learning-assisted evolutionary computation. The workshop aims to bring together researchers from evolutionary computation, machine learning, operations research, and real-world optimization applications to discuss recent progress, open challenges, and future directions in learning-assisted algorithm design. The objectives and scope of the workshop are as follows:
Advance learning-driven algorithm design for optimization: The workshop will cover machine learning and reinforcement learning methods for algorithm configuration, operator selection, algorithm selection, parameter control, and adaptive search strategy design.
Promote automated algorithm design across emerging paradigms: Relevant topics include meta black-box optimization, large-language-model-assisted automated algorithm design, autoregressive learning for algorithm generation, hyper-heuristics, and pre-trained or foundational optimization models.
Support data-driven optimization modeling: The workshop welcomes research on surrogate modeling in online and offline evolutionary systems, data-driven optimization modeling, large-language-model-assisted optimization modeling, and learning-based representations of optimization problems.
Encourage cross-disciplinary integration: Topics include evolutionary reinforcement learning, large language models for foundational optimization systems, self-evolved agentic systems, and other hybrid approaches that connect evolutionary computation, machine learning, automated algorithm design, and intelligent agents.
Build foundations for reliable evaluation and deployment: The workshop will include exploratory landscape analysis, fitness landscape analysis, instance space analysis, benchmark construction, tools, platforms, evaluation metrics, and performance assessment for learning-assisted optimization methods.