Special sessions
In addition to submissions about general LION themes, we also welcome submissions
related to one of our
special sessions. The special sessions will be part of the regular conference and are
subject to the
same peer-review as all other submissions. Please address proposals for special sessions to the TPC Chair:
prof. Maximilian Schiffer - schiffer(AT)tum.de, with CC: roberto.battiti(AT)unitn.it
Special session 1: AI-Driven Optimization: Transforming Optimization with LLMs
Organizers:
Lin Xie^1, Yingqian Zhang ^2, and Yaoxin Wu^2
1 Chair of Information Systems and Business Analytics, Brandenburg University of Technology, Germany (email: lin.xie@b-tu.de)
2 Eindhoven University of Technology, Netherlands
Abstract:
Large Language Models (LLMs) are emerging as powerful tools for optimization, complementing and extending traditional methods. Their ability to understand problem descriptions, generate heuristics, and support human-in-the-loop decision making opens new possibilities for modeling and solving complex real-world problems. This session invites contributions on how LLMs and related AI techniques can be applied to domains such as logistics, scheduling, energy systems, and finance. Topics of interest include AI-assisted problem formulation, heuristic discovery, end-to-end methods, hybrid approaches that combine LLMs with classical algorithms, and practical applications that demonstrate their impact. Special attention will be given to challenges of scalability, interpretability, and reliability in operational settings. The session aims to bring together researchers and practitioners to explore how LLMs can transform optimization research and practice.
Special session 2: Learning to Optimize: RL as an optimizer
Organizers:
Konstantinos Asimakopoulos, Laboratory of Automation and Robotics (LAR), University of Patras, Greece
Konstantinos Chatzilygeroudis, Laboratory of Automation and Robotics (LAR), University of Patras, Greece
Abstract:
Can optimizers themselves be learned? Traditional solvers must re-solve from scratch every time even within families of very familiar problems. Typically the user needs to hand-design heuristics such as step sizes, branching rules etc. Another interesting way to approach this is to use reinforcement learning (RL) to learn decision rules that guide an optimization process across families of problem instances. In this special session, we invite research where RL discovers update rules, search heuristics, or branching strategies that outperform hand-crafted counterparts on families of problems.
Special session 3: Learning and Optimization under Uncertainty for
Dynamic Autonomous Navigation
Organizers:
Carolina Crespi, Department of Mathematics and Computer Science, University of Catania –
carolina.crespi@unict.it
Alessio Mezzina, Department of Mathematics and Computer Science, University of Catania –
alessio.mezzina@phd.unict.it
Mario Pavone, Department of Mathematics and Computer Science, University of Catania –
mpavone@dmi.unict.it
Abstract:
Dynamic autonomous navigation is a challenging problem at the intersection of optimization, machine
learning, and artificial intelligence. Real-world applications, such as robotics, autonomous vehicles,
and, in general, exploration of unknown or evolving environments require intelligent agents to adapt in
real time to incomplete information, uncertain dynamics, and limited resources. These problems
naturally fall under the scope of hard optimization, where classical methods often need to be extended
or combined with learning strategies to achieve robust and scalable solutions.
This special session focuses on novel models, algorithms, and learning-based approaches to address
uncertainty and complexity in autonomous navigation. It welcomes contributions on advanced
optimization techniques, machine learning methods for decision-making, and hybrid systems that
combine both. The session encourages work that emphasizes experimental methodologies,
performance evaluation, and the application of results to real-world case studies. Covering both
theoretical developments and practical implementations, it aims to advance the understanding of how
optimization and learning can eDectively address the challenges of dynamic, uncertain, and multi-agent
navigation scenarios.
Keywords:
Optimization under uncertainty,
Machine learning for optimization,
Dynamic autonomous navigation,
Real-time decision-making,
Multi-agent systems
Topics of Interest:
Relevant topics include, but are not limited to:
Learning-based optimization methods for uncertain and dynamic environments,
Adaptive and real-time decision-making algorithms,
Hybrid approaches combining optimization and machine learning,
Reinforcement learning and probabilistic models for navigation tasks,
Multi-agent coordination and collective intelligence,
Performance evaluation and algorithm selection for complex tasks,
Robust and scalable techniques for hard optimization problems,
Applications in robotics, transportation, disaster response, and smart infrastructures