May 8 - 10, 2026
Granada, Spain
This Workshop is an activity of the IEEE CIS Task Force on "LLMs and Computational Intelligence for General-Purpose Artificial Intelligence Systems (GPAIS)"
In Artificial Intelligence, there is an increasing demand for adaptive models capable of dealing with a diverse spectrum of learning tasks, surpassing the limitations of systems designed to tackle a single task. The goal is to design AI models with the ability not only to perform well in the modeling tasks for which they were originally designed, but also to carry out some tasks for which they were not explicitly trained.
In this context, a General-Purpose Artificial Intelligence System (GPAIS) refers to an advanced AI system capable of effectively performing a range of distinct tasks. Its degree of autonomy and ability is determined by several key characteristics, including the capacity to adapt or perform well on new tasks that arise at a future time, the demonstration of competence in domains for which it was not intentionally and specifically trained, the ability to learn from limited data, and the proactive acknowledgement of its own limitations in order to enhance its performance. The overarching design goal of a GPAIS is to design AI models with the ability not only to perform. Several AI techniques have been identified as promising approaches to enhance GPAIS.
Topics of Interest
Within the field of GPAIS, several research areas contribute to the design of AI models with greater versatility, facilitating the learning of new tasks. These areas include, but are not limited to Multi-task models, which handle multiple tasks simultaneously; few-shot learning models, which require fewer training data points to understand and perform new tasks; auto machine learning (AutoML) and neural architecture search (NAS) systems, which can automatically adapt the AI model to a new problem; and models adaptation for new problems capable of taking advantage of prior knowledge. Collectively, these research areas are making progress in the development of GPAIS models. The flexibility and ease of adaptation of EC make them a perfect match to cope with the stringent properties sought for GPAIS, including the multimodality of the tasks being solved, their variability over time or the large dimensionality of the design and construction of GPAIS. Actually, there are many research areas in EC that can be useful in either designing or enriching these AI models. However, the research in this line is often developed in parallel, without communication channels between them, which would allow a global vision of how EC can improve the design of these increasingly generic models.
In this Workshop, we encourage researchers to submit original contributions proposing new algorithmic approaches, improvements for GPAIS. Potential topics of interest for the workshop include, but are not limited to, the following:
Using Computational Intelligence (CI) to Enhance GPAIS Performance and Expand GPAIS Application Boundaries
• Neuro-symbolic and CI-enhanced LLM architectures
• CI-based preprocessing for GPAIS
• Foundation models
• Explainability and safety in GPAIS
• Low-resource adaptation and efficiency for GPAIS
• CI for robust multi-modal and multi-agent AI
• Evolutionary fine-tuning and prompt optimization
• Structural optimization of LLM for different objectives (alignment, XAI, efficiency)
• Large scale transformers and distributed computing strategies to build GPAIS
Using GPAIS to Advance Intelligent, Explainable, and Semantic-Aware CI: Leverage GPAIS to select:
• GPAIS-driven intelligent evolutionary algorithms.
• GPAIS-driven intelligent fuzzy systems
• GPAIS for automated CI algorithm configuration and new CI algorithm design.
• Automated algorithm construction using LLM translated domain knowledge.
• GPAIS-driven explainable CI techniques
• Design of more efficient CI techniques
Application scenarios for CI+GPAIS:
• Benchmarks and validation frameworks for GPAIS
• Robotics
Conversational agents
• Bioinformatics
• Healthcare diagnosis with CI-enhanced LLMs
• Neuro-symbolic architectures in autonomous vehicle navigation systems
Submission and Publication Information
Paper Submission Deadline: January 30, 2026
Authors Notification: February 10, 2026
Camera-Ready Final version: February 15, 2026
The papers must follow the guidelines in https://www.ieeesmc.org/cai-2026/author-instructions-and-templates-for-conference-proceedings/.
To submit a contribution for this workshop, please use the conference submission wizard on Papercept, using the code W7-GPAIS.
Submitted papers will be peer-reviewed with the same criteria as other IEEE CAI 2026 workshops.
Organisers
Prof. Dr. Xingyu Wu
Dept. of Data Science and Artificial Intelligence.
The Hong Kong Polytecnic University (PolyU), Hong Kong SAR, China
Prof. Dr. Isaac Triguero
Dept. of Computer Science and Artificial Intelligence.
DaSCI, Andalusian Research Institute in Data Science and Computational Intelligence
University of Granada, Spain
Prof. Dr. Daniel Molina
Dept. of Computer Science and Artificial Intelligence.
DaSCI, Andalusian Research Institute in Data Science and Computational Intelligence
University of Granada, Spain
Prof. Dr. Javier del Ser
TECNALIA, Basque Research & Technology Alliance (BRTA), and Department of Mathematics
University of the Basque Country (UPV/EHU)
See you in Granada!
Acknowledgements
This special session is part of the Project “Ethical, Responsible and General Purpose Artificial Intelligence: Applications In Risk Scenarios” (IAFER) Exp.:TSI-100927-2023-1 funded through the Creation of university-industry research programs (Enia Programs), aimed at the research and development of artificial intelligence, for its dissemination and education within the framework of the Recovery, Transformation and Resilience Plan from the European Union Next Generation EU through the Ministry for Digital Transformation and the Civil Service.