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28th International Workshop on Evolutionary Rule-based Machine Learning

Webpage: https://iwlcs.organic-computing.de

Description

Modern machine learning systems, including generative AI and large language models (LLMs), offer significant potential for addressing real-world challenges. However, a notable limitation of the majority of these systems is their ``black-box'' nature. The decision-making process of these models is often difficult to interpret, making it challenging for users to understand how a model arrived at a particular decision. The interpretability of decisions is critical in many real-world applications such as defence, biomedical, and lawsuits. Moreover, many modern systems require extensive memory, huge computational resources, and enormous training data, which can be resource-intensive and hinder their widespread adoption.

Evolutionary rule-based machine learning (ERL) stands out for its ability to provide interpretable decisions. The majority of ERL systems generate niche-based solutions, require less memory, and can be trained using comparatively small data sets. A key factor that makes these models interpretable is the generation of human-readable rules. Consequently, the decision-making process of the ERL systems is interpretable, which is an important step toward eXplainable AI (XAI).

The International Workshop on Evolutionary Rule-based Machine Learning (IWERL), previously known as the International Workshop on Learning Classifier Systems (IWLCS), stands as a cornerstone within the vibrant history of GECCO. Celebrating its 28th edition, IWERL is one of the pioneer and successful workshops at GECCO. This workshop plays an important role in nurturing the future of evolutionary rule-based machine learning. It serves as a beacon for the next generation of researchers, inspiring them to delve deep into evolutionary rule-based machine learning, with a particular focus on Learning Classifier Systems (LCSs).

ERL represents a collection of machine learning techniques that leverage the strengths of various metaheuristics to find an optimal set of rules to solve a problem. These methods have been developed using a diverse array of learning paradigms, including supervised learning, unsupervised learning, and reinforcement learning. ERL encompasses several prominent categories, such as Learning Classifier Systems, Ant-Miner, artificial immune systems, and fuzzy rule-based systems. The modes or model structures of these systems are optimized using evolutionary, symbolic, or swarm-based methods. The hallmark characteristic of the ERL models is their innate comprehensibility, which encompasses traits like explainability, transparency, and interpretability. This property has garnered significant attention within the machine learning community, aligning with the broader interest of Explainable AI.

This workshop is designed to provide a platform for sharing the research trends in the realm of ERL. It aims to highlight modern implementations of ERL systems for real-world applications and to show the effectiveness of ERL in creating flexible and eXplainable AI systems. Moreover, this workshop seeks to attract new interest in this alternative and often advantageous modelling paradigm.

Topics of interest include but are not limited to:

- Advances in ERL methods: local models, problem space partitioning, rule mixing, …

- Applications of ERL: medical, navigation, bioinformatics, computer vision, games, cyber-physical systems, …

- State-of-the-art analysis: surveys, sound comparative experimental benchmarks, carefully crafted reproducibility studies, …

- Formal developments in ERL: provably optimal parametrization, time bounds, generalization, …

- Comprehensibility of evolved rule sets: knowledge extraction, visualization, interpretation of decisions, eXplainable AI, …

- Advances in ERL paradigms: Michigan/Pittsburgh style, hybrids, iterative rule learning, …

- Hyperparameter optimization for ERL: hyperparameter selection, online self-adaptation, …

- Optimizations and parallel implementations: GPU acceleration, matching algorithms, …

- Generative AI and LLMs in ERL: integrating generative models and large language models for rule generation, natural language explanations, enhanced interpretability, …


Due to the rather disjointed ERL research community, in addition to full papers (8 pages excluding references) on novel ERL research, we plan to allow submission of extended abstracts (2 pages excluding references) that summarize recent high-value ERL research by the authors, showcasing its practical significance. These will then be presented in a dedicated short paper segment with short presentations.


Organizers

Abubakar Siddique

Dr. Siddique's main research lies in creating novel machine learning systems, inspired by the principles of cognitive neuroscience, to provide efficient and scalable solutions for challenging and complex problems in different domains, such as Boolean, computer vision, navigation, and Bioinformatics. He has shared his expertise by delivering five tutorials and talks at various forums, including the Genetic and Evolutionary Computation Conference (GECCO). Additionally, he serves the academic community as an author for prestigious journals and international conferences, including IEEE Transactions on Cybernetics, IEEE Transactions on Evolutionary Computation, and GECCO.

During his academic journey, Dr. Siddique received the "Student Of The Session" Award, the VUWSA Gold Award, and the "Emerging Research Excellence" Medal. Prior to joining academia, he spent nine years at Elixir Technologies Pakistan, a California (USA) based leading software company. His last designation was a Principal Software Engineer where he led a team of software developers. He developed enterprise-level software for customers such as Xerox, IBM, and Adobe.


Michael Heider
Michael Heider is a doctoral candidate at the Department of Computer Science at the University of Augsburg, Germany. He received his B.Sc. in Computer Science from the University of Augsburg in 2016 and his M.Sc. in Computer Science and Information-oriented Business Management in 2018. His main research is directed towards Learning Classifier Systems, especially following the Pittsburgh style, with a focus on regression tasks encountered in industrial settings. Those have a high regard for both accurate as well as comprehensive solutions. To achieve comprehensibility/explainability he focuses on compact and simple rule sets. Besides that, his research interests include optimization techniques and unsupervised learning (e.g. for data augmentation or feature extraction). He is an elected organizing committee member of the International Workshop on Learning Classifier Systems since 2021.


Hiroki Shiraishi
Hiroki Shiraishi is a doctoral candidate in the Faculty of Engineering at Yokohama National University, Yokohama, Japan. He received his B.Eng. and M.Eng. degrees in informatics from the University of Electro-Communications, Tokyo, Japan, in 2021 and 2023, respectively. Between 2023 and 2024, he was a visiting student at the Department of Computer Science and Engineering, Southern University of Science and Technology, Shenzhen, China. His research areas include evolutionary computation, evolutionary rule-based machine learning, neural networks, and fuzzy systems, particularly emphasizing Learning Classifier Systems (LCSs) and Learning Fuzzy-Classifier Systems (LFCSs). His contributions have been published in leading journals and conferences on evolutionary computation and fuzzy systems, including IEEE Transactions on Evolutionary Computation, ACM Transactions on Evolutionary Learning and Optimization, GECCO, IEEE CEC, EvoStar, PPSN, and FUZZ-IEEE. He received a Best Paper Award at GECCO 2022 in the Evolutionary Machine Learning track for his work on LCSs and a nomination for the Best Paper Award at GECCO 2023 for his work on LFCSs. He has been an elected organizing committee member of the International Workshop on Evolutionary Rule-Based Machine Learning since 2024.