Topics
As the world progresses towards a cleaner, hydrogen-powered future, the importance of understanding hydrogen's interaction with materials has never been more critical. This conference brings together leading experts, researchers, and industry professionals to discuss the latest advancements, challenges, and opportunities in the following topics:
- TopicA: Material testing under hydrogen influence (including standards)
Explore the latest advancements in material testing methodologies in the presence of hydrogen, including the development and application of international standards. This topic aims to enhance understanding of hydrogen's effects on materials, ensuring safety and reliability in hydrogen technologies across gaseous and electrochemical charging conditions, including high pressure systems.
- TopicB: Optimization of selective hydrogen analysis
Dive into innovative approaches for the selective analysis of hydrogen within materials, optimizing detection techniques for better accuracy and efficiency. This session focuses on refining analytical methods to further our understanding of hydrogen's behavior and interaction with various materials.
- TopicC: Spatially resolved methods for imaging hydrogen
Discover cutting-edge spatially resolved imaging techniques that provide insights into the distribution and migration of hydrogen in materials. This research is pivotal for identifying and mitigating issues related to hydrogen embrittlement and facilitating the development of more resilient materials.
- TopicD: Hydrogen within the industry (focus on the materials not thermodynamics)
Investigate the role of hydrogen across various industrial sectors, with a focus on material challenges and innovations. This area emphasizes the practical aspects of hydrogen use, from infrastructure to transportation, highlighting material advancements that support hydrogen's integration into the industrial landscape, including components, joining, and lifetime assessment.
- TopicD.1: Hydrogen direct reduction
Delve into hydrogen direct reduction processes as a groundbreaking approach to producing steel with a lower carbon footprint. This session explores the materials science behind these transformative technologies, which use hydrogen instead of carbon, significantly reducing greenhouse gas emissions.
- TopicD.2: Hydrogen combustion (gas turbines, engines etc.)
Examine the latest developments in hydrogen combustion technologies, including gas turbines and engines. This discussion covers the engineering and materials science challenges of adapting combustion systems to hydrogen fuel, aiming for efficiency and reduced environmental impact.
- TopicD.3: Materials for hydrogen storage
Address the critical issue of safely and efficiently storing hydrogen. This topic covers innovative materials and technologies designed for hydrogen storage, from metal hydrides to advanced composite materials, contributing to the viability of hydrogen as a widespread energy carrier.
- TopicE: New hydrogen resistant materials and surface engineering
Uncover the development of new materials designed to resist the adverse effects of hydrogen exposure. This research is key to enhancing the durability and longevity of components used in hydrogen technologies, paving the way for more reliable and robust hydrogen infrastructure.
- TopicF: Hydrogen permeation
Explore the phenomenon of hydrogen permeation in materials, crucial for understanding and mitigating risks associated with hydrogen fuel use. This topic focuses on the mechanisms of hydrogen uptake, migration, diffusion, trapping, interfaces, barriers and its implications for material integrity and performance.
- TopicG: Elevated temperatures and thermal cycling
Investigate the behavior of materials in the presence of hydrogen at elevated temperatures, a critical aspect for many hydrogen applications. This area of study seeks to understand how high temperatures affect hydrogen interaction with materials, informing the design and selection of materials for high-temperature hydrogen environments.
- TopicH: Simulation and data-driven modelling
Explore computational models and simulations to predict and analyze hydrogen interactions with various materials, including multi-physics, multi-scale approaches, and machine learning aided modelling.