Exploring innovative hybrid approaches that integrate mathematical modeling, artificial intelligence, and intelligent optimization to address the challenges of complex and interconnected systems.
Scope of the Workshop
analyzing, and optimizing complex systems across science, engineering, technology, and society. It emphasizes the integration of mathematical methods, artificial intelligence, machine learning, and computational intelligence to develop effective solutions for dynamic, nonlinear, and data-intensive environments. Particular attention is given to hybrid and data-driven modeling, intelligent and multicriteria optimization, decision-making under uncertainty, cyber-physical systems, digital twins, and advanced computational simulation. The workshop also addresses scalable computational approaches, intelligent monitoring and control, distributed and multi-agent systems, and emerging technologies for analyzing and optimizing large-scale interconnected systems.
The scientific scope further encompasses data mining, deep learning, multimodal analytics, computer vision, pattern recognition, and knowledge discovery, alongside adaptive intelligence, evolutionary and bio-inspired computation, reinforcement learning, and explainable and trustworthy artificial intelligence. Special emphasis is placed on combining analytical models with data-driven techniques to improve forecasting, risk assessment, intelligent decision support, and system performance. The workshop encourages interdisciplinary research and practical applications in industry, manufacturing, energy, transportation, agriculture, environmental engineering, finance, healthcare, and education. By bringing together researchers and practitioners from diverse disciplines, HMMOCS-V 2026 aims to foster international collaboration and advance innovative, scalable, and sustainable solutions to real-world challenges.