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Congress Themes

Congress Themes

Catalyzing New Chemistry Solutions

Catalysis lies at the heart of modern chemistry, enabling transformative reactions and providing the foundation for new solutions in science, technology, and industry. From sustainable synthesis and energy conversion to breakthroughs in health and environmental technologies, catalysis continues to play a pivotal role in addressing global challenges. Under the theme “Catalyzing New Chemistry Solutions”, the congress will explore catalysis as both a conceptual foundation and as a powerful practical tool that drives progress for chemical discovery and innovation. The theme program will showcase cutting-edge advances in catalysis that pushes the boundaries of chemistry to find new solutions to global challenges in sustainability, energy, health, and the environment. To achieve this goal, we aim to integrate the expertise of both theoreticians and experimentalists to synthesize, characterize, and evaluate the performance of catalysts, covering both industrial and model systems. The scientific discussion will also include the role of modern technologies to improve the catalyst efficiency and improve the sustainability of the processes.

Key focus areas, but not limited to

  • Advanced Catalytic Systems: Homogeneous, heterogeneous, biocatalytic, photocatalytic, and hybrid catalytic systems with enhanced activity, selectivity, and durability. Emphasis will be placed on catalyst design guided by computational chemistry, machine learning, AI, and operando spectroscopy for various applications.
  • Sustainable and Green Chemistry: Development of atom-economical chemical transformations, methodologies based on the use of renewable feedstocks, and energy-efficient synthetic methodologies. Technologies for an efficient modern sustainable chemistry such as photocatalysis, electrocatalysis and synthesis, mechanochemistry, microwave assisted, continuous flow, and automated, chemistry. Topics include but are not limited to circular economy, CO₂ capture and conversion, and waste valorization. 
  • Catalysis for Energy and Environment: Novel strategies for energy conversion and storage, such as electrocatalysis, photocatalysis, and hydrogen production technologies, alongside chemical approaches for pollution control and environmental remediation including plastics upcycling and hazardous gaseous treatment.
  • Functional Materials and Interfaces: Progress in designing and characterizing advanced materials, including nanomaterials, MOFs, COFs, and hybrid organic–inorganic systems, with applications in catalysis.
  • Mechanistic and Reaction Engineering Insights: Elucidation of reaction pathways, integration of kinetic modeling, computational chemistry, machine learning, AI,and reactor design to optimize processes from laboratory scale to industrial implementation.

Theme co-chairs

Onder Metin (Koç University, Türkiye), Luigi Vaccaro (The University of Perugia, Italy), Kinga Gora-Marek (Jagiellonian University in Krakow, Poland)

Chemistry Meets Biology & Food Science

This interdisciplinary session focuses on most recent developments in chemical tools, techniques, and principles to study and manipulate biological systems and to analyze the nutrients and bioactive compounds of food that go beyond basic nutrition, helping to protect against chronic diseases, as well as the presence of contaminants and adulterants in food. By developing chemical probes and other synthetic molecules, chemical biologists gain detailed molecular insights into cellular processes, with the ultimate goal of understanding disease mechanisms and developing new therapies. Chemistry is providing tools to develop sustainable and circular strategies in agri-food systems (waste reduction and byproduct valorization) and to unravel the complex relationships between food processing and the bioavailability of bioactive molecules in the human gut.

Key focus areas, but not limited to

  • Computational and AI methods in chemical biology and drug discovery
  • Natural Compounds in chemical biology and medicinal chemistry
  • Chemistry in vivo
  • Targeting nucleic acids with small molecules
  • Chemical probes for medicine and pharmacology
  • Chemical inducers of proximity
  • Chemical glycobiology
  • Molecular aspects of microbiota and microbial infections
  • Nutritional Chemistry: Analysing the micro and macromolecular composition of foods
  • Metabolomics in Food Science
  • Novel, fast and portable methods to detect food contaminants and adulterants
  • Biobased, biodegradable and functional materials for food packaging
  • Sustainable and circular strategies in agri-food systems: waste reduction and byproduct valorization
  • Complex relationships between food processing, food physicochemistry, and the bioaccessibility/bioavailability of bioactives in the human gut

Theme co-chairs

Francesco Peri (University of Milano-Bicocca, Italy), Joana Amaral (Polytechnic Institute of Bragança, Portugal), Rachel Hevey (University of Basel, Switzerland), Sonsoles Martin-Santamaria (Spanish National Research Council, Spain), Jussara Amato (University of Naples Federico II, Italy)

Computational Chemistry & AI: The Power of Data

This theme will be devoted to all aspects of computational methods and artificial intelligence are driving concrete advances in chemical research, from the prediction of molecular behaviour to the design of new materials and catalytic processes. It is aimed at researchers who utilise or develop computational methods and data-driven tools to solve specific chemical problems.

Presentations will feature practical applications of AI, machine learning, and modelling techniques to accelerate molecular and materials discovery, optimise reaction pathways, and understand complex chemical and biological systems. Examples include quantum chemical calculations for reaction design, molecular dynamics simulations for property prediction, AI-assisted catalyst discovery, and digital workflows that integrate computation with high-throughput experimentation.

In addition to application-oriented contributions, the session will highlight methodological innovations, including new algorithms and methods, modelling approaches, and data infrastructures, that enable increased accuracy, reproducibility, and transparency in chemical research. It will also provide space to discuss the responsible use of AI, including data quality, explainability, and ethical considerations.

Key focus areas, but not limited to

  • Computational Chemistry
  • Artificial Intelligence
  • Machine Learning
  • Molecular Modelling
  • Simulation
  • Quantum Chemistry
  • Cheminformatics
  • Data Science
  • Materials Discovery
  • Digital Twins
  • Autonomous Labs
  • Responsible AI

Theme co-chairs

Jeremy Frey (University of Southampton, United Kingdom), Tanja Van Mourik (University of St Andrews, United Kingdom)

Energy, Environment & Sustainability

Chemistry is recognized as the central discipline: providing the molecules and materials that allow the transition towards a more sustainable society. A primary challenge is the shift from fossil to renewable energy resources, which not only requires efficient energy harvesting, but also innovative molecular and materials solutions for effective energy storage and conversion. Electrification and hence electrolyzers, batteries, fuel cells, electrosynthesis and (photo)electrochemistry are important areas of current research to be highlighted within this topic.

Respecting environmental planetary boundaries requires multiple strategies, including but not limited to employing chemical analysis tools, deploying pollution control catalysts, limiting chemical pollution, developing remediation processes and sustainable synthetic strategies, and careful design of carbon, nitrogen and phosphorus cycles. A sustainable society calls for designing molecules and materials through green processes emphasizing circularity, as well as reducing and replacing critical raw elements and reducing chemical pollution of key environmental compartments, such as water, soil, air and built environment. Contributors to this topic will share the approaches they have taken and progress they are making toward addressing these scientific challenges.

Key focus areas, but not limited to

  • Green chemistry & Circularity
  • Energy storage & Sustainable fuels
  • Sustainability assessment & implications for regulation
  • Air, water, and soil pollution & remediation strategies
  • Limiting and avoiding the use of critical raw materials
  • Novel battery chemistries (beyond lithium)
  • CO2 capture and utilization
  • Environmental chemistry
  • Sustainable synthetic strategies, such as mechanochemical processing
  • (Photo)electrochemistry
  • Electrifying conversions

Theme co-chairs

Mary Carroll (Union College, United States), Petra de Jongh (Utrecht University, the Netherlands), Adrian Covaci (University of Antwerp, Belgium), Evelina Colacino (University of Montpellier, France)

Innovative Materials

The discovery of new materials with specific properties is a milestone driving innovation across all sectors of science and technology. This theme is dedicated to research that enables a more sustainable use of the planet’s resources, allowing for substantial progress in the fields of energy and electronics. The sessions will highlight both fundamental innovation and application-driven development, connecting fundamental advances with major societal challenges in energy, environment, and health. This theme aims to stimulate discussion on how innovative materials research can shape the next decade.

Key focus areas, but not limited to

  • Hybrid Layered and Porous Materials
    Bridging molecules to materials with tunable functions, from catalysis and adsorption to electronics, sensing, and diagnostics.
  • Multifunctional Materials
    Compositionally complex or high-entropy systems offering multifunctionality, opening new approaches to mechanical, electronic, optical, magnetic, and catalytic applications.
  • Materials Discovery and Characterization Methodologies
    From trial-and-error to AI-driven discovery, integrating computational and experimental synergies with advanced characterization tools.
  • Sustainable and Circular Materials
    Designing materials for circularity through substitution, recycling, and responsible use of critical raw resources to address sustainability challenges.

Theme co-chairs

Mario Chiesa (University of Torino, Italy), Clara Gomes (Laboratório Associado para a Química Verde (LAQV), Portugal), Clément Sanchez (Collège de France, France)

Molecular Design & Reactivity

This theme is dedicated to advancing the fundamental knowledge of molecular design, chemical reactivity, and the creation of new functional systems, driving innovations across molecular and materials science with important societal applications supporting our quality of life. It covers a broad spectrum of modern synthetic chemistry, including organic, inorganic, and hybrid organic/inorganic synthesis. This includes synthetic method development, as well as its fundamental understanding. A key focus is catalysis, encompassing thermal and alternative activation methods such as mechanochemistry, light, and microwave activation. The theme places strong emphasis on detailed mechanistic studies in both organic and inorganic chemistry, including both experimental and theoretical approaches to understand reaction pathways. The scope encompasses the chemistry of complex systems, including the coordination chemistry of transition metals, lanthanides, and actinides, as well as organometallic chemistry and supramolecular and metallosupramolecular chemistry. A significant area is the rational design and crystal engineering of organic, inorganic, and hybrid solid-state architectures, driven by the understanding of intermolecular interactions. This leads to the creation of advanced functional materials such as molecular machines, coordination polymers, MOFs, COFs, and HOFs, as well as molecular magnetic, luminescent, and conductive materials. Finally, the theme addresses stereocontrol through asymmetric synthesis, and embraces resource-efficient syntheses, including renewable feedstocks. This collective focus highlights the pivotal role of synthetic chemistry in enabling future technologies.

Key focus areas, but not limited to

  • Organic synthesis; synthetic method development; total synthesis;
  • Synthesis involving renewable feedstock;
  • Catalysis;
  • Thermal and alternative activation methods (mechanochemistry, light, microwave)  
  • Mechanistic studies in organic and inorganic chemistry (experimental and theoretical); 
  • Coordination chemistry of transition metals, lanthanides and actinides; 
  • Organometallic chemistry; 
  • Supramolecular and metallosupramolecular chemistry; 
  • Molecular machines
  • Crystal engineering of organic, inorganic, hybrid solid state architectures; Intermolecular interactions in solid state;
  • Coordination polymers; MOFs, COFs, and HOFs 
  • Molecular magnetic materials
  • Molecular luminescent materials
  • Molecular conductors
  • Chirality; Asymmetric synthesis

Theme co-chairs

Marius Andruh (University of Bucharest, Romania), Bert Maes (University of Antwerp, Belgium)

Perspectives in Analytical & Physical Chemistry

This session explores the dynamic and rapidly evolving frontiers of Analytical and Physical Chemistry, showcasing transformative innovations that are reshaping scientific research, industrial applications, and societal impact. In Analytical and Physical Chemistry, the integration of artificial intelligence (AI) and machine learning is revolutionizing data interpretation, method development, and high-throughput screening. Advances in high-resolutions spectrometry, single-cell analysis, and lab-on-a-chip technologies are enabling real-time, ultra-sensitive detection across biomedical, environmental, and material science. Emphasis will be placed on green analytical chemistry, including solvent-free techniques and miniaturized systems that align with sustainability goals.

This session invites contributions that reflect the interdisciplinary nature of modern analytical and physical chemistry.

Key focus areas, but not limited to

  • Advanced separation and detection techniques
  • AI-assisted data analysis vs. chemometrics
  • Miniaturized and portable devices
  • Sustainable and green chemistry – from sample preparation to analysis – challenges in analytical method validation
  • Environmental analytical chemistry – from complex matrices via new sustainable methodologies to smart solutions
  • Applications in pharmaceutical, bioanalytical, forensic and biotechnological sciences

Theme co-chairs

Carla Seidel (BASF, Germany), Slavica Ražić (University of Belgrade, Serbia)

Responsible Chemistry for Society: Education, Ethics, History & Cultural Heritage

This theme explores the vital intersection of chemistry with society through the lenses of education, ethics, history, and cultural heritage. It invites contributions highlighting innovative practices and cross-disciplinary perspectives that offer lessons relevant for today’s societal challenges. The target audience includes chemists, educators, historians, ethicists, cultural heritage specialists, and practitioners engaged in science communication and outreach. The target audience includes chemists, educators, historians, ethicists, cultural heritage specialists, and practitioners engaged in science communication and outreach.

Key focus areas, but not limited to

  • Responsible Research and Innovation (RRI) in chemistry, with applications to sustainability, cultural heritage protection and conservation, and environmental responsibility.
  • Ethics in research and applied chemistry, including publishing, education, and mentoring, focused on integrity, accountability, and responsible use of AI in chemistry.
  • Historical perspectives on chemistry that inform current societal and environmental issues. (Other topics from the history of chemistry are also welcome.)
  • Science communication and outreach strategies that build trust and public engagement.
  • Educational opportunities and challenges, including the responsible use of generative AI in teaching and learning.

Theme co-chairs

Annette Lykknes (Norwegian University of Science and Technology, Norway), Iwona Maciejowska (Jagiellonian University, Poland), Maite Maguregui (University of the Basque Country, Spain), Anca Silvestru (Babes-Bolyai University, Romania)

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