| Date / Time | 2026-07-20 13:30 -- 15:00 |
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| Room | Pierre Baudis - Guillaumet1 |
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| Synopsis | This session focuses on infectious disease modelling and forecasting for public health decision-making, with examples from South Korea and European contexts. It builds on the EKC2025 session and aligns with EKC2026 by critically examining where AI and machine learning are beginning to contribute, and where traditional mechanistic and statistical approaches remain essential.
Presentations will cover mechanistic and statistical models used in practice, integration of diverse data sources (surveillance, genomics, serology, mobility, wastewater, clinical data), and approaches for scenario planning and intervention evaluation. A dedicated portion will address emerging AI/hybrid methods and the evidence needed for adoption, including validation, uncertainty, interpretability, bias, and governance. The session aims to provide a realistic view of current capabilities and a roadmap for responsible progress.
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| Date / Time | 2026-07-21 09:00 -- 10:30 |
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| Room | Pierre Baudis - Guillaumet1 |
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MS. CHOI, Jeong Yun
Heidelberg Institute for Theoretical Studies, Heidelberg University Show Profile
DR. MINJAE, Kim
University College London (ERC research fellow & ESA project lead), Korean AeroSpace Administration (Deputy Director) Show Profile |
| Synopsis | Over the past two decades, astronomy has undergone a remarkable transformation fuelled by advances in computing, detector technology, and instrumentation. Modern facilities now provide data with unprecedented spatial, spectral, and temporal resolution while large-scale survey telescopes continuously map the sky across multiple wavelength regimes. This has also unlocked previously inaccessible windows of the electromagnetic spectrum and entirely new messengers. Consequently, the limiting factor is no longer data acquisition but our ability to extract robust and meaningful insights from exponentially growing datasets.
Our universe is full of fascinating and often surprising phenomena ranging from stellar interiors and compact objects to galaxy evolution and the large-scale structure of the cosmos. Understanding these phenomena demands not only deeper observations but also innovative methods and tools (e.g., artificial intelligence, data-driven astronomy, simulation, etc) capable of transforming raw data into physical understanding. In this session, we will discuss the development and deployment of these methodologies, empowering astronomers to navigate the data-rich landscape of modern astronomy and convert unprecedented observational volumes into transformative scientific knowledge. |
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| Date / Time | 2026-07-21 15:30 -- 17:00 |
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| Room | Pierre Baudis - Guillaumet1 |
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DR. JHUN, Bukyoung
Center for Critical Computational Studies, Goethe University Frankfurt Show Profile |
| Synopsis | This session explores emerging frontiers at the intersection of complexity science, network theory, machine learning, and data-driven modeling. The presentations cover a broad range of topics, including higher-order interactions in complex systems, hyperbolic representation learning, generative models and scientific machine learning, and reaction-network construction for self-assembling molecular systems. Together, these studies demonstrate how modern data science and computational methodologies are transforming our ability to uncover hidden structures, infer governing principles, and predict behaviors across diverse natural and engineered systems.
By integrating mathematical foundations, network analysis, artificial intelligence, and large-scale computational approaches, the session highlights novel frameworks for understanding complexity in high-dimensional and interconnected systems. It aims to foster interdisciplinary discussions among researchers working on data-driven discovery, machine learning, complex networks, and computational science. |
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| Date / Time | 2026-07-21 17:00 -- 18:30 |
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| Room | Pierre Baudis - Guillaumet1 |
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DR. WOO, Youngho
National Institute for Mathematical Sciences |
| Synopsis | This session introduces the idea of Mathematics-based AI, which combines data-driven AI with mathematical theory to improve reliability, stability, and real-time performance. As AI becomes a key part of industrial and medical systems, high accuracy alone is no longer enough. It is also important to understand how a model works and to provide clear mathematical support for its performance and safety. In this context, the National Institute for Mathematical Sciences (NIMS) presents its view on trustworthy and explainable AI based on its experience in industrial mathematics and computational science.
The session focuses on recent progress in generative models and Scientific Machine Learning (SciML), which are promising tools for analyzing high-dimensional medical data and for reconstructing complex biological phenomena. However, many current AI methods still have important limits, such as high computational cost, slow inference, weak interpretability, and limited clinical trust.
These problems are especially serious in cardiac and cerebral blood flow analysis. Such tasks must handle complex fluid motion described by the Navier–Stokes equations, incomplete noninvasive imaging data, patient-specific anatomy, and changing boundary conditions. Because of these challenges, black-box deep learning alone is often not enough for direct clinical use.
This session explores how mathematically grounded generative models and SciML can be combined to build more accurate, efficient, and trustworthy medical AI systems. The main goal is to show that future medical AI should be developed not only as a powerful prediction tool, but also as a mathematically principled framework that is interpretable, robust, and clinically meaningful. |
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| Date / Time | 2026-07-22 13:30 -- 15:00 |
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| Room | Pierre Baudis - Guillaumet1 |
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| Synopsis | The modern world is increasingly defined by the intricate connectivity between individual components, necessitating rigorous mathematical frameworks to understand their functional properties. This session focuses on the structural analysis and dynamical processes of networked systems, emphasising the role of topology in determining system-wide behaviour. We explore the application of graph theory, stochastic processes, and dynamical systems to model and optimise the flow of information, energy, and resources across various architectures.
The session will delve into key topics such as network robustness, synchronisation, and the stability of interconnected infrastructures. By highlighting methodological advancements in discrete mathematics and relational modelling, we aim to address practical challenges in critical infrastructure, communication systems, and biological pathways.
Through this interdisciplinary dialogue, we will examine how structural constraints and topological features influence the evolution and performance of networks, providing a robust platform for researchers in applied mathematics, engineering, and relational science. |
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| Date / Time | 2026-07-22 15:30 -- 17:00 |
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| Room | Pierre Baudis - Guillaumet1 |
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DR. JHUN, Bukyoung
Center for Critical Computational Studies, Goethe University Frankfurt Show Profile |
| Synopsis | This session focuses on fundamental physical principles governing equilibrium and nonequilibrium phenomena in complex systems. Topics include synchronization in decentralized power grids, phase transitions and critical phenomena in scale-free networks, quantum physics of nonequilibrium systems, and other emergent behaviors arising from interacting many-body systems. Bringing together perspectives from statistical physics, nonlinear dynamics, network science, and computational chemistry, the session provides insights into the mechanisms underlying stability, phase transitions, and self-organization in complex physical systems. The presentations collectively emphasize both theoretical advances and computational approaches that deepen our understanding of equilibrium states and dynamical processes across a wide range of scientific and engineering applications. |
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