Founded in 2000 as a small team focused on preference modelling and fuzzy set theory, KERMIT (an acronym for “Knowledge Extraction, Representation and Management using Intelligent Techniques”) has grown into a leading research unit shaping the future of intelligent techniques and their applications. Over time, KERMIT evolved into a comprehensive team spanning all stages from data analysis to decision-making, with a focus on knowledge-based, predictive and spatio-temporal modelling paradigms. By maintaining a unique balance between theoretical advancements and practical applications, KERMIT has achieved remarkable success in output, visibility, and recognition. To accommodate growing specialization and enhance its reach, three subunits officially branched off in 2024: BionamiX, BioML and Biovism. Despite this structural evolution, KERMIT remains dedicated to its holistic philosophy, integrating diverse disciplines to tackle complex challenges.

KERMIT’s mission is to harness mathematics and computation to unravel life's complexities, optimize biological functions, and drive innovation in biodesign and decision-making under uncertainty. Focused on applied biological sciences—including biotechnology, environmental technology, plant breeding and food technology—, KERMIT refines existing methods and develops cutting-edge approaches across disciplines. The team is committed to creating accessible software tools that transform data streams into actionable and interpretable insights. Valuing continuous learning, interdisciplinary collaboration, and mental well-being, KERMIT embraces a holistic approach to solving challenges in our data-driven, interconnected world.

Mathematical modelling at KERMIT emphasizes intuitively appealing, rule-based paradigms—such as fuzzy modelling, cellular automata, and formal concept analysis—as well as cross-fertilizations thereof. The team has a particular interest in exploring the underutilized diversity of underlying mathematical structures and functions, contributing significantly to the foundations of order theory, uncertainty modelling and aggregation theory. Computational modelling at KERMIT is dedicated to developing and applying cutting-edge techniques—such as differentiable, probabilistic, and evolutionary computation—to enhance the understanding and engineering of biological systems. By integrating AI-driven simulations, the team bridges the gap between theoretical models and real-world applications.

The paper “Metapopulation models with anti-symmetric Lotka–Volterra systems” (A.S. Anish, B. De Baets and S. Rao) was declared one of two winners of the 2023-2024 Lord Robert May Prize for papers published in the Journal of Biological Dynamics.

The Prize Committee motivated its decision with the following comments:

“This paper treats Lotka-Volterra systems with anti-symmetric structure. It uses a metapopulation approach, with inter-patch migration, so the models are spatial as well as dynamic. It is shown that such migration among the patches may stabilize the whole system. The paper should be of interest to a broad audience because the mathematical analysis combines several theoretical approaches from graph theory, matrix theory, reaction network theory, and differential equations/dynamical systems.”

More information about past winners can be found here.