6th International Summit on Catalysis & Chemical Engineering

March 27, 2025 & March 28, 2025 | SRH University

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October 30, 2024

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32 Sessions

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Sessions and Tracks

Chemical Catalyst 2025 | SRH University, Berln, Germany

Metal-Based Catalysis

Metal-based catalysis forms the cornerstone of modern chemistry, playing a pivotal role in organic synthesis, industrial processes, and environmental remediation. This session delves into the multifaceted world of metal-based catalysis, covering a broad spectrum of topics:

  • Transition Metal Catalysis: Explore the rich chemistry enabled by transition metals such as palladium, nickel, and ruthenium. Learn about cross-coupling reactions, C-H activation, and other key transformations facilitated by these versatile catalysts.
  • Noble Metal Catalysis: Delve into the unique properties of noble metals like gold, platinum, and palladium, which exhibit exceptional catalytic activity and selectivity. Discover their applications in challenging transformations such as carbon-carbon and carbon-heteroatom bond formation.
  • Base Metal Catalysis: Uncover the potential of abundant and cost-effective base metals such as iron, copper, and manganese as catalysts for sustainable chemical synthesis. Explore their roles in catalytic reactions ranging from hydrogenation to oxidation and beyond.
  • Bimetallic and Multimetallic Catalysis: Investigate the synergistic effects arising from the interaction between two or more metal species in catalytic systems. Learn how bimetallic and multimetallic catalysts offer enhanced reactivity, selectivity, and stability compared to their monometallic counterparts.
  • Metal Nanoparticle Catalysis: Explore the unique properties of metal nanoparticles as catalytic entities. Understand their high surface area-to-volume ratio, tunable reactivity, and applications in diverse transformations, from carbon-carbon bond formation to environmental remediation.
  • Metal-Organic Frameworks (MOFs) in Catalysis: Discover the emerging role of MOFs as versatile platforms for catalytic applications. Learn how the tunable pore structures, high surface areas, and tailored functionalities of MOFs enable precise control over catalytic processes.

This session offers a comprehensive overview of metal-based catalysis, from fundamental principles to cutting-edge applications, providing valuable insights for researchers and practitioners in the field.

Organocatalysis

Organocatalysis, a burgeoning field at the intersection of organic chemistry and catalysis, offers an innovative approach to catalytic transformations using small organic molecules as catalysts. This session explores the diverse facets of organocatalysis, encompassing a range of topics:

  • Proton Transfer Catalysis: Delve into the mechanisms and applications of proton transfer catalysis, where organic molecules facilitate reactions by donating or accepting protons. Learn how this strategy enables the activation of substrates and the formation of new bonds under mild conditions.
  • Lewis Acid and Lewis Base Catalysis: Investigate the role of Lewis acidic and basic organic molecules in catalyzing a variety of transformations through coordination and activation of substrates. Explore the versatility of Lewis acid and Lewis base catalysis in asymmetric synthesis and other challenging reactions.
  • Brønsted Acid and Brønsted Base Catalysis: Explore the diverse array of reactions catalyzed by Brønsted acidic and basic organic molecules. Understand how these catalysts promote proton transfer reactions, rearrangements, and other key transformations, offering practical and environmentally benign synthetic routes.
  • Nucleophilic and Electrophilic Catalysis: Uncover the mechanisms and applications of nucleophilic and electrophilic catalysis, where organic molecules activate substrates by donating or accepting electron pairs. Learn how these catalysts enable the synthesis of complex molecules and functional materials with high efficiency and selectivity.
  • Phase-Transfer Catalysis: Discover the principles of phase-transfer catalysis, where organic catalysts facilitate the transfer of reactants between immiscible phases, enabling reactions that would otherwise be challenging in homogeneous conditions. Explore the applications of phase-transfer catalysis in organic synthesis and polymerization.

This session provides a comprehensive overview of organocatalysis, highlighting its versatility, efficiency, and potential for innovation in synthetic chemistry. Researchers and practitioners will gain valuable insights into the latest advancements and emerging trends in this dynamic field.

Enzymatic and Bioinspired Catalysis

Enzymatic and bioinspired catalysis draws inspiration from nature’s remarkable catalysts, enzymes, to design synthetic catalysts capable of mimicking their efficiency and selectivity. This session encompasses a diverse range of topics, shedding light on the intricacies of enzymatic and bioinspired catalysis:

 

  • Enzyme Immobilization Techniques: Explore methods for immobilizing enzymes onto solid supports or within structured materials, enhancing their stability and recyclability in catalytic processes. Learn about adsorption, covalent bonding, encapsulation, and other techniques for enzyme immobilization.
  • Directed Evolution of Enzymes: Investigate strategies for tailoring enzyme properties and catalytic activities through directed evolution, a powerful approach that involves iterative cycles of mutagenesis and screening. Discover how directed evolution enables the generation of novel biocatalysts with improved performance.
  • Artificial Enzyme Design: Delve into the design and engineering of synthetic enzyme mimetics capable of catalyzing specific reactions with high efficiency and selectivity. Learn about de novo enzyme synthesis, protein engineering, and other strategies for creating artificial enzymes inspired by natural catalysts.
  • Bioinspired Catalytic Systems: Uncover the principles underlying bioinspired catalytic systems, which draw inspiration from natural enzyme systems to design synthetic catalysts and biomimetic materials. Explore metalloenzymes, cofactor mimetics, and other bioinspired approaches for catalyzing complex reactions and performing sophisticated functions.

This session provides a comprehensive exploration of enzymatic and bioinspired catalysis, offering insights into the design, optimization, and application of catalysts inspired by nature’s ingenuity. Researchers and practitioners will gain valuable knowledge about the latest advancements and future prospects in this exciting field.

Heterogeneous Catalysis

Heterogeneous catalysis stands as a cornerstone of industrial chemistry, facilitating numerous vital processes across various sectors. This session delves into the complexities and advancements within heterogeneous catalysis, encompassing a broad spectrum of topics:

  • Catalyst Synthesis and Preparation Methods: Explore the diverse techniques employed in the fabrication and optimization of catalytic materials. From impregnation and precipitation to sol-gel methods, gain insight into the preparation techniques influencing catalytic activity and selectivity.
  • Catalytic Reactor Design and Engineering: Investigate the intricacies of designing and optimizing catalytic reactors. Understand the principles governing reactor types, flow regimes, and heat and mass transfer phenomena crucial for maximizing efficiency and productivity.
  • Mechanistic Studies and Kinetic Modeling: Delve into the mechanisms underpinning catalytic reactions and the methods used to elucidate them. From experimental techniques to computational modeling, gain a comprehensive understanding of reaction kinetics and pathways.
  • Support Materials and Catalyst Supports: Explore the role of support materials in stabilizing and enhancing catalytic activity. From porous materials to zeolites and carbon-based supports, uncover the influence of support structures on catalyst performance.
  • Catalyst Deactivation and Regeneration: Examine the challenges associated with catalyst deactivation and strategies for mitigation. From fouling and sintering to poisoning, learn about techniques for catalyst regeneration and rejuvenation to prolong catalyst lifespan and maintain performance.

This session provides a holistic perspective on heterogeneous catalysis, addressing fundamental principles, innovative methodologies, and practical applications. Researchers and practitioners will gain valuable insights into the latest advancements and future directions shaping the field of heterogeneous catalysis.

Computational Catalysis

Computational catalysis has emerged as a powerful tool for understanding, predicting, and optimizing catalytic processes at the atomic and molecular levels. This session explores the intersection of theory and experimentation in catalysis, covering a wide range of topics:

  • Density Functional Theory (DFT) Calculations: Dive into the principles and applications of DFT in catalysis, which allows researchers to model the electronic structure and energetics of catalytic systems with high accuracy. Explore how DFT calculations can elucidate reaction mechanisms, identify active sites, and predict catalytic properties.
  • Molecular Dynamics (MD) Simulations: Learn about MD simulations, which enable researchers to study the dynamics and kinetics of catalytic reactions in solution or at surfaces. Discover how MD simulations can provide insights into reaction pathways, solvent effects, and catalyst-substrate interactions under realistic conditions.
  • Quantum Mechanics/Molecular Mechanics (QM/MM) Methods: Explore the synergy between quantum mechanics and molecular mechanics in QM/MM simulations, which combine accurate quantum mechanical descriptions of active sites with a classical representation of the surrounding environment. Understand how QM/MM methods can capture the intricacies of enzymatic reactions and heterogeneous catalysis.
  • High-Throughput Screening and Virtual Screening: Discover computational screening methods for catalyst discovery and design, which leverage databases, algorithms, and machine learning techniques to search for promising catalyst candidates. Learn how high-throughput and virtual screening approaches can accelerate catalyst development and identify novel catalytic materials.
  • Machine Learning and Artificial Intelligence (AI) in Catalysis: Explore the growing role of machine learning and AI in catalysis, which enable data-driven approaches for predicting catalytic activity, designing new catalysts, and optimizing reaction conditions. Understand how machine learning algorithms can analyze vast datasets, uncover hidden correlations, and guide experimental efforts in catalysis.

This session provides a comprehensive overview of computational techniques in catalysis, highlighting their role in accelerating catalyst discovery, optimizing reaction pathways, and advancing our understanding of complex catalytic systems. Researchers and practitioners will gain valuable insights into the latest computational methodologies and their applications in catalysis research.

Characterization of Catalysts and Reactions

Understanding the structure and behaviour of catalysts is essential for optimizing their performance in catalytic processes. This session explores advanced characterization techniques and their applications in elucidating catalyst properties and reaction mechanisms:

  • Spectroscopic Techniques: Delve into spectroscopic methods such as Fourier-transform infrared spectroscopy (FTIR), ultraviolet-visible spectroscopy (UV-Vis), X-ray photoelectron spectroscopy (XPS), and nuclear magnetic resonance spectroscopy (NMR). Learn how these techniques provide valuable insights into catalyst composition, surface chemistry, and reaction intermediates.
  • Surface Analysis Techniques: Explore surface analysis methods including scanning electron microscopy (SEM), transmission electron microscopy (TEM), atomic force microscopy (AFM), and scanning tunnelling microscopy (STM). Understand how these techniques enable visualization of catalyst morphology, particle size, and surface structure at the nanoscale.
  • Catalytic Testing and Activity Measurement Methods: Investigate techniques for evaluating catalytic activity and selectivity, such as gravimetric analysis, gas chromatography-mass spectrometry (GC-MS), high-performance liquid chromatography (HPLC), and temperature-programmed techniques (TPR, TPD, TPO). Learn how these methods quantify catalytic performance under realistic reaction conditions.
  • In-Situ and Operando Characterization Techniques: Discover in-situ and operando characterization techniques, which allow researchers to monitor catalyst behavior and surface reactions in real-time under working conditions. Explore infrared spectroscopy (IR), X-ray diffraction (XRD), and synchrotron-based techniques for gaining insights into reaction mechanisms and catalyst performance.
  • Computational Approaches to Catalyst Characterization: Explore computational methods such as density functional theory (DFT) calculations and molecular modeling for predicting catalyst properties and behaviour. Understand how these theoretical approaches complement experimental characterization data and provide valuable insights into catalyst structure-function relationships.

This session offers a comprehensive overview of advanced characterization techniques in catalysis, providing researchers and practitioners with the tools and knowledge to unravel the mysteries of catalysts and reactions. Participants will gain valuable insights into the latest advancements and methodologies shaping the field of catalyst characterization.

Photocatalysis

Photocatalysis, a fascinating field at the intersection of chemistry and materials science, harnesses light energy to drive chemical reactions. In this session, we delve into the principles, applications, and recent advancements in photocatalysis, offering a comprehensive overview of this rapidly evolving area:

  • Fundamental Principles of Photocatalysis: Explore the fundamental concepts underlying photocatalysis, including the absorption of photons by semiconductor materials, generation of electron-hole pairs, and subsequent redox reactions on catalyst surfaces. Understand the key parameters influencing photocatalytic activity, such as bandgap energy, surface area, and charge carrier dynamics.
  • Types of Photocatalysts: Learn about the various types of photocatalysts employed in photocatalytic reactions, including metal oxides (e.g., titanium dioxide, zinc oxide), metal sulphides, and organic semiconductors. Discover the unique properties and applications of each type of photocatalyst, ranging from water splitting and pollutant degradation to organic synthesis and solar fuel production.
  • Photocatalytic Mechanisms and Reaction Pathways: Gain insight into the mechanistic aspects of photocatalytic reactions, including mechanisms of charge separation, surface reactions, and intermediates. Explore the role of reactive oxygen species (ROS) such as hydroxyl radicals and superoxide ions in driving photocatalytic transformations, as well as strategies for enhancing reaction efficiency and selectivity.
  • Applications of Photocatalysis: Explore the diverse applications of photocatalysis across various fields, including environmental remediation, energy conversion, and synthesis of fine chemicals. Learn about photocatalytic processes for water purification, air pollution control, carbon dioxide reduction, and the synthesis of value-added chemicals and pharmaceuticals.
  • Advanced Photocatalytic Materials and Design Strategies: Discover recent advancements in the design and engineering of advanced photocatalytic materials, including nanostructured catalysts, heterostructured composites, and plasmonic photocatalysts. Explore innovative strategies for enhancing photocatalytic performance through tailored material synthesis, surface modification, and cocatalyst deposition.

This session provides a platform for researchers, engineers, and practitioners to exchange ideas, share insights, and foster collaborations in the field of photocatalysis. Join us as we explore the transformative potential of light-driven chemistry in addressing global challenges and advancing sustainable technologies.

Catalysis at Electrodes

Catalysis at electrodes represents a burgeoning field with significant implications for energy conversion, environmental remediation, and electrochemical synthesis. This session delves into the fundamental principles, emerging trends, and practical applications of catalysis at electrodes, offering a comprehensive exploration of this dynamic area:

  • Electrocatalysis Fundamentals: Explore the fundamental principles underlying electrocatalysis, including the electrochemical double layer, charge transfer kinetics, and the role of active sites in catalytic reactions at electrode surfaces. Understand the key parameters influencing electrocatalytic activity, such as overpotential, exchange current density, and Tafel slopes.
  • Types of Electrocatalysts: Learn about the diverse range of materials and structures employed as electrocatalysts, including metals, metal oxides, carbon-based materials, and molecular catalysts. Discover the unique properties and advantages of each type of electrocatalyst, as well as strategies for enhancing catalytic performance through material design and surface engineering.
  • Electrochemical Reaction Mechanisms: Gain insight into the mechanisms of electrochemical reactions occurring at electrode surfaces, including hydrogen evolution, oxygen reduction, carbon dioxide reduction, and nitrogen fixation. Explore the complex interplay between adsorption, desorption, and electron transfer processes governing electrocatalytic pathways.
  • Applications of Electrocatalysis: Explore the diverse applications of electrocatalysis in energy storage and conversion, including fuel cells, water electrolysis, and electrochemical CO2 reduction. Learn about the role of electrocatalysts in enabling efficient and selective conversion of renewable energy sources into fuels and value-added chemicals.
  • Advanced Electrochemical Techniques and Characterization Methods: Discover advanced electrochemical techniques and characterization methods used to probe the structure, composition, and activity of electrocatalysts. Explore techniques such as cyclic voltammetry, electrochemical impedance spectroscopy, and in-situ spectroelectrochemistry for studying electrocatalytic processes in real-time.

This session provides a platform for researchers, engineers, and practitioners to exchange insights, discuss challenges, and explore opportunities in the field of catalysis at electrodes. Join us as we unravel the mysteries of electrochemical reactions and pave the way towards sustainable and efficient electrochemical technologies.

Acid-Base Catalysis

Acid-base catalysis stands as a cornerstone in organic synthesis and industrial processes, playing a pivotal role in facilitating a myriad of chemical transformations. In this session, we delve into the fundamental principles, diverse applications, and recent advancements in acid-base catalysis, offering a comprehensive exploration of this indispensable field:

  • Principles of Acid-Base Catalysis: Explore the fundamental concepts underlying acid-base catalysis, including the Brønsted-Lowry and Lewis acid-base theories. Understand how acid and base catalysts facilitate reactions by either donating or accepting protons, thereby activating substrates and lowering reaction barriers.
  • Types of Acid-Base Catalysis: Learn about the various types of acid and base catalysts employed in catalytic reactions, including mineral acids, organic acids, bases, and solid acid-base catalysts. Discover the unique properties and reactivities of each type of catalyst, as well as their applications in different chemical transformations.
  • Mechanisms of Acid-Base Catalytic Reactions: Gain insight into the mechanisms of acid-base catalyzed reactions, including protonation, deprotonation, nucleophilic addition, and elimination reactions. Explore how acid and base catalysts influence reaction pathways, selectivity, and stereochemistry in organic synthesis and other processes.
  • Applications of Acid-Base Catalysis: Explore the diverse applications of acid-base catalysis in organic synthesis, including esterification, hydrolysis, aldol condensation, and rearrangement reactions. Learn about the role of acid-base catalysts in industrial processes such as petroleum refining, polymerization, and pharmaceutical manufacturing.
  • Advanced Acid-Base Catalytic Systems: Discover recent advancements in the design and development of advanced acid-base catalytic systems, including bifunctional and cooperative catalysis. Explore innovative strategies for enhancing catalytic activity, selectivity, and recyclability through catalyst design and engineering.

This session provides a platform for researchers, chemists, and engineers to exchange knowledge, share insights, and explore the latest advancements in acid-base catalysis. Join us as we unravel the mysteries of proton transfer reactions and pave the way towards more efficient and sustainable catalytic processes.

Single-Atom Catalysis

Single-atom catalysis has emerged as a revolutionary paradigm in heterogeneous catalysis, offering unprecedented control over catalytic activity, selectivity, and stability. In this session, we delve into the principles, methodologies, and applications of single-atom catalysis, presenting a comprehensive overview of this cutting-edge field:

  • Fundamental Principles of Single-Atom Catalysis: Explore the fundamental concepts underlying single-atom catalysis, wherein individual metal atoms dispersed on supports serve as highly efficient and selective catalytic sites. Understand how the electronic structure, coordination environment, and geometric configuration of single atoms influence catalytic behaviour.
  • Synthesis and Characterization of Single-Atom Catalysts: Learn about the synthesis methods and characterization techniques employed in the preparation and analysis of single-atom catalysts. Discover how advanced spectroscopic and imaging techniques, such as aberration-corrected scanning transmission electron microscopy (STEM) and X-ray absorption spectroscopy (XAS), provide insights into the atomic-scale structure and reactivity of catalysts.
  • Mechanisms of Single-Atom Catalytic Reactions: Gain insight into the mechanisms of catalytic reactions facilitated by single-atom catalysts, including hydrogenation, oxidation, carbon-carbon bond formation, and nitrogen fixation. Explore how the unique electronic properties and coordination environments of single atoms dictate reaction pathways and product selectivity.
  • Applications of Single-Atom Catalysis: Explore the diverse applications of single-atom catalysis in key industrial processes, including fine chemical synthesis, energy conversion, environmental remediation, and fuel cell technology. Learn about the advantages of single-atom catalysts, such as enhanced activity, selectivity, and resistance to poisoning, in comparison to conventional nanoparticle catalysts.
  • Advanced Single-Atom Catalytic Systems: Discover recent advancements in the design and engineering of advanced single-atom catalytic systems, including support materials, anchoring strategies, and synergistic effects. Explore innovative approaches for tailoring catalytic performance through precise control over single-atom configurations and surface interactions.

This session provides a platform for researchers, chemists, and materials scientists to exchange ideas, share insights, and explore the transformative potential of single-atom catalysis. Join us as we delve into the fascinating world of atomic-scale catalysis and its implications for sustainable and efficient chemical processes.

Catalytic Reactions for Hydrogen Production and Utilization

Catalytic reactions for hydrogen production and utilization play a pivotal role in advancing clean energy technologies and addressing global energy challenges. In this session, we explore the fundamental principles, innovative strategies, and practical applications of catalytic processes for hydrogen generation and utilization, offering insights into the following key aspects:

  • Hydrogen Production Pathways: Explore various catalytic pathways for hydrogen production, including steam reforming, water electrolysis, biomass conversion, and photocatalytic water splitting. Understand the thermodynamics and kinetics of these reactions, as well as the advantages and limitations of different production methods in terms of efficiency, cost, and environmental impact.
  • Catalysts for Hydrogen Generation: Learn about the catalysts employed in hydrogen production processes, including noble metals (e.g., platinum, palladium), transition metal-based catalysts (e.g., nickel, iron), and non-metallic catalysts (e.g., metal oxides, carbon-based materials). Discover the role of catalyst design, composition, and morphology in enhancing catalytic activity and stability.
  • Hydrogen Storage and Transportation: Explore catalytic approaches for hydrogen storage and transportation, including hydrogenation of metal hydrides, adsorption on porous materials, and chemical hydrogen carriers. Discuss the challenges associated with storing and distributing hydrogen, as well as emerging technologies for overcoming these hurdles.
  • Hydrogen Utilization in Fuel Cells and Beyond: Examine the role of hydrogen as a clean energy carrier in fuel cells, where it undergoes electrochemical reactions to produce electricity with water as the only byproduct. Discover other applications of hydrogen, such as in ammonia synthesis, methanol production, and as a reducing agent in chemical processes.
  • Emerging Technologies and Future Directions: Discover recent advancements in catalytic technologies for hydrogen production and utilization, including novel catalyst materials, reactor designs, and integrated systems. Explore emerging trends such as artificial photosynthesis, solar-driven hydrogen production, and decentralized hydrogen production networks.

This session provides a platform for researchers, engineers, policymakers, and industry stakeholders to exchange knowledge, share perspectives, and explore collaborative opportunities in the field of catalytic reactions for hydrogen production and utilization. Join us as we explore the pivotal role of catalysis in unlocking the potential of hydrogen as a clean and sustainable energy carrier for the future.

Conversion of Nitrogen-Based Molecules (N2, NH3, NOx)

The conversion of nitrogen-based molecules, including nitrogen gas (N2), ammonia (NH3), and nitrogen oxides (NOx), presents both challenges and opportunities in various fields, ranging from agriculture to environmental remediation. In this session, we delve into the fundamental principles, catalytic strategies, and practical applications of nitrogen-based molecule conversion, offering insights into the following key aspects:

  • Nitrogen Fixation and Ammonia Synthesis: Explore catalytic processes for nitrogen fixation and ammonia synthesis, essential for the production of fertilizers and chemicals. Understand the challenges associated with breaking the stable N≡N triple bond in nitrogen gas and the strategies employed to activate nitrogen under mild conditions using catalysts such as transition metals and metal nitrides.
  • Selective Catalytic Reduction (SCR) of NOx: Learn about selective catalytic reduction (SCR) technologies for mitigating nitrogen oxide emissions from combustion sources, such as power plants and vehicles. Explore the role of catalysts, typically based on transition metals supported on zeolites or other porous materials, in promoting the reduction of NOx to harmless nitrogen and water in the presence of reducing agents like ammonia or urea.
  • Catalytic Nitrogen Oxides Decomposition: Investigate catalytic processes for the decomposition of nitrogen oxides (NOx) into nitrogen gas and oxygen, aiming to reduce air pollution in industrial exhaust gases. Discover catalysts capable of breaking down NOx species at elevated temperatures, including metal oxides, perovskite materials, and mixed-metal catalysts.
  • Nitrogen-Based Molecule Functionalization: Explore strategies for functionalizing nitrogen-based molecules to produce value-added chemicals and pharmaceuticals. Learn about catalytic transformations such as hydroamination, hydrodenitrogenation, and nitrogen-carbon bond formation, which enable the conversion of ammonia and other nitrogen-containing compounds into useful products.
  • Environmental Implications and Sustainability: Discuss the environmental impact of nitrogen-based molecule conversion processes, including their contributions to air and water pollution, greenhouse gas emissions, and ecosystem disruption. Explore sustainable catalytic approaches for minimizing environmental harm and enhancing resource efficiency in nitrogen utilization.

This session provides a platform for researchers, catalysis experts, environmental scientists, and policymakers to exchange insights, share best practices, and explore innovative solutions for the conversion of nitrogen-based molecules. Join us as we navigate the complex landscape of nitrogen chemistry and strive to address global challenges related to nitrogen management and utilization.

CO2 Conversion

The conversion of carbon dioxide (CO2) into valuable chemicals and fuels represents a promising approach for mitigating greenhouse gas emissions and addressing climate change. In this session, we explore the principles, technologies, and applications of CO2 conversion, shedding light on the following key aspects:

  • Catalytic CO2 Reduction: Delve into catalytic processes for the reduction of CO2 to produce fuels and chemical feedstocks, such as carbon monoxide (CO), methane (CH4), methanol (CH3OH), and higher hydrocarbons. Understand the challenges associated with the thermodynamic stability of CO2 and the design of catalysts capable of activating and selectively converting CO2 under mild reaction conditions.
  • Photocatalytic and Electrochemical CO2 Reduction: Learn about photocatalytic and electrochemical approaches for CO2 conversion, leveraging light energy or electrical power to drive CO2 reduction reactions. Explore the role of semiconductor materials, molecular catalysts, and electrocatalysts in facilitating CO2 activation and transforming it into value-added products, including solar fuels and chemical precursors.
  • Carbon Capture and Utilization (CCU): Explore strategies for capturing CO2 from industrial flue gases and utilizing it as a feedstock for chemical synthesis. Learn about CCU technologies, such as CO2 mineralization, chemical looping, and direct air capture, which aim to reduce CO2 emissions while simultaneously producing valuable products such as building materials, plastics, and carbon-neutral fuels.
  • Syngas and Hydrocarbon Synthesis: Investigate catalytic processes for the conversion of CO2 and hydrogen (H2) into syngas (a mixture of CO and H2) and higher hydrocarbons through Fischer-Tropsch synthesis and related pathways. Understand the role of catalysts, reaction conditions, and process engineering in optimizing syngas and hydrocarbon production from CO2-rich feedstocks.
  • Environmental and Economic Implications: Discuss the environmental benefits and economic viability of CO2 conversion technologies as part of a sustainable carbon management strategy. Explore the potential for CO2 utilization to contribute to circular economy principles, reduce dependence on fossil fuels, and mitigate climate change impacts.

This session provides a platform for researchers, engineers, policymakers, and industry stakeholders to exchange knowledge, share experiences, and explore collaborative opportunities in the field of CO2 conversion. Join us as we explore innovative approaches for transforming CO2 from a greenhouse gas into a valuable resource for a sustainable future.

Biomass and Waste Resource Conversion

The conversion of biomass and waste resources into valuable products holds immense potential for sustainable resource utilization and waste management. In this session, we delve into the principles, technologies, and applications of biomass and waste resource conversion, shedding light on the following key aspects:

  • Biomass Valorization: Explore catalytic processes for the conversion of biomass feedstocks, including lignocellulosic materials, agricultural residues, and algae, into biofuels, biochemicals, and bioproducts. Understand the challenges associated with biomass composition, pretreatment, and catalytic upgrading, as well as the role of catalysts in enhancing conversion efficiency and selectivity.
  • Waste-to-Energy Conversion: Learn about technologies for converting various waste streams, including municipal solid waste (MSW), sewage sludge, and industrial by-products, into energy carriers such as syngas, biofuels, and hydrogen. Discover catalytic thermochemical processes, anaerobic digestion, and biorefinery approaches for valorizing waste resources while minimizing environmental impact.
  • Catalytic Upgrading of Waste-Derived Intermediates: Investigate catalytic processes for upgrading intermediate products derived from biomass and waste conversion, such as pyrolysis oils, bio-oil fractions, and syngas streams. Explore catalytic reforming, hydrodeoxygenation, and Fischer-Tropsch synthesis for converting these intermediates into high-value fuels, chemicals, and materials.
  • Circular Economy and Resource Recovery: Discuss the role of biomass and waste resource conversion in promoting a circular economy and resource efficiency. Explore integrated biorefinery concepts, waste valorization cascades, and symbiotic industrial ecosystems that maximize the recovery of valuable materials and energy from diverse feedstocks and waste streams.
  • Environmental and Socioeconomic Implications: Examine the environmental benefits, social impacts, and economic feasibility of biomass and waste resource conversion technologies. Consider factors such as carbon footprint reduction, waste diversion from landfills, job creation, and community engagement in sustainable waste management and bio-based industries.

This session provides a platform for researchers, entrepreneurs, policymakers, and stakeholders from academia, industry, and government to exchange knowledge, share best practices, and explore innovative solutions in the field of biomass and waste resource conversion. Join us as we work towards realizing the potential of biomass and waste as renewable resources for a sustainable and circular economy.

Catalysis for Polymer Synthesis and Upcycling

Catalysis plays a pivotal role in both the synthesis of new polymers and the upcycling of existing polymer materials, contributing to the development of sustainable materials and waste reduction. In this session, we explore the principles, methodologies, and applications of catalysis for polymer synthesis and upcycling, elucidating the following key aspects:

  • Catalytic Polymerization Techniques: Explore catalytic methods for the synthesis of polymers with tailored properties and functionalities, including coordination polymerization, ring-opening polymerization (ROP), and metathesis polymerization. Understand the role of catalysts, co-catalysts, and reaction conditions in controlling polymerization kinetics, stereochemistry, and molecular weight distribution.
  • Bio-based and Renewable Polymer Synthesis: Learn about catalytic routes for the synthesis of bio-based polymers from renewable feedstocks, such as biomass-derived monomers, fatty acids, and plant oils. Discover how catalyst design and reaction engineering enable the efficient conversion of renewable resources into high-performance polymers with reduced environmental impact.
  • Catalytic Upcycling of Polymer Waste: Investigate catalytic processes for the upcycling and recycling of polymer waste streams, including depolymerization, chemical recycling, and feedstock recycling. Explore the role of catalysts in breaking down polymer chains into monomers or low-molecular-weight intermediates, which can be repolymerized or used as feedstock for new polymer synthesis.
  • Advanced Catalyst Design and Engineering: Discuss innovative catalyst design strategies, such as single-site catalysts, supported nanoparticles, and molecular catalysts, tailored for polymerization and depolymerization reactions. Explore the synergy between catalytic activity, selectivity, and stability, as well as the development of catalytic systems compatible with diverse polymer chemistries and processing conditions.
  • Catalysis for Specialty Polymer Applications: Explore catalytic approaches for the synthesis of specialty polymers with specific properties and applications, including functional polymers, block copolymers, and polymer blends. Learn about the role of catalysts in controlling polymer microstructure, morphology, and surface properties, enabling the design of materials for advanced technologies and niche markets.

This session provides a platform for researchers, polymer chemists, catalysis experts, and industry professionals to exchange knowledge, share insights, and explore collaborative opportunities in the field of catalysis for polymer synthesis and upcycling. Join us as we advance the development of sustainable polymers and catalytic technologies for a circular economy.

Non-Conventional Activation Methods and Media

In the domain of catalysis, exploring non-thermal plasma, sonocatalysis, microwave irradiation, deep eutectic solvents, ionic liquids, ball milling, supercritical fluids, and magnetic induction provides avenues for novel reaction pathways, improved selectivity, and enhanced efficiency. This session delves into innovative approaches and unconventional media utilized in catalysis, with a focus on the following keywords:

  • Non-thermal Plasma Catalysis: Investigate the utilization of non-thermal plasma as an unconventional activation method in catalytic reactions. Explore how plasma-generated species activate reactants and promote chemical transformations, offering opportunities for energy-efficient and environmentally friendly processes.
  • Sonocatalysis: Explore the application of ultrasound irradiation as a non-conventional activation method in catalytic reactions. Understand how acoustic cavitation generates localized hotspots and facilitates sonochemical reactions, leading to enhanced mass transfer and reaction kinetics.
  • Microwave-Assisted Catalysis: Learn about the use of microwave irradiation as an efficient heating method in catalytic reactions. Discover how microwaves selectively heat reaction mixtures, accelerating reaction rates and enabling rapid synthesis of target compounds.
  • Deep Eutectic Solvents and Ionic Liquids: Delve into the utilization of deep eutectic solvents and ionic liquids as alternative reaction media in catalysis. Understand how these solvents offer unique properties, such as low vapor pressure and high solubility, facilitating catalytic reactions under mild conditions.
  • Ball Milling Catalysis: Investigate mechanochemical approaches for catalytic transformations using ball milling. Explore how mechanical forces generated during milling drive chemical reactions, enabling the synthesis of complex molecules and functional materials.
  • Supercritical Fluid Catalysis: Explore the use of supercritical fluids as alternative reaction media in catalysis. Understand how supercritical conditions enhance mass transfer and substrate accessibility, enabling efficient catalytic processes with reduced solvent consumption.
  • Process Engineering in Catalysis: Discuss the role of process engineering in optimizing catalytic systems and reactor design. Explore strategies for scale-up, reactor optimization, and integration of catalytic processes into industrial operations.
  • Magnetic Induction Catalysis: Explore the application of magnetic induction as a non-conventional activation method in catalysis. Understand how magnetic fields induce localized heating in catalytic materials, promoting reaction kinetics and enabling precise control over reaction conditions.

This session provides a platform for researchers, catalysis enthusiasts, and process engineers to explore the frontier of non-conventional activation methods and media in catalysis. Join us as we push the boundaries of traditional catalytic approaches and harness the potential of innovative techniques for sustainable and efficient chemical transformations.

Catalysis in Refining and Petrochemistry: Current and Future Trends

Catalysis in refining and petrochemistry is at the forefront of efforts towards decarbonization, the production of biodegradable chemicals, advanced fuels, and the optimization of atom economy. This session explores the latest advancements in catalytic technologies within the refining and petrochemical industries, with a focus on the following keywords:

  • Decarbonization Strategies: Explore catalytic processes aimed at reducing carbon emissions and promoting sustainability in refining and petrochemistry. Discuss innovative approaches such as carbon capture and utilization (CCU), carbon-neutral fuel production, and renewable energy integration to achieve decarbonization goals while meeting growing energy demands.
  • Biodegradable Chemicals Synthesis: Investigate catalytic routes for the synthesis of biodegradable chemicals from renewable feedstocks, such as biomass-derived sugars, lignocellulosic materials, and waste streams. Discover how catalyst design and process optimization enable the production of bioplastics, bio-based polymers, and green solvents with reduced environmental impact and enhanced biodegradability.
  • Advanced Fuels Production: Delve into catalytic processes for the production of advanced fuels with improved efficiency, performance, and environmental properties. Explore advancements in hydroprocessing, catalytic cracking, and biofuel production, leveraging catalyst innovation and process engineering to enhance fuel quality, reduce emissions, and enable sustainable transportation solutions.
  • Atom Economy Optimization: Discuss strategies for optimizing atom economy in catalytic reactions, aiming to maximize the utilization of reactant atoms and minimize waste generation. Explore catalytic transformations with high atom efficiency, such as hydrogenation, oxidation, and C-C bond formation, enabled by rational catalyst design and reaction engineering.
  • Rational Catalyst Design: Learn about rational catalyst design approaches, leveraging computational tools, high-throughput screening, and materials synthesis techniques to tailor catalyst properties for specific applications. Explore the integration of multi-scale modeling, quantum chemistry simulations, and data-driven methods to accelerate catalyst discovery and optimization.
  • Multi-Scale Modeling in Catalysis: Explore the role of multi-scale modeling in elucidating catalytic mechanisms, predicting catalyst performance, and optimizing reaction conditions. Discuss how computational approaches, including density functional theory (DFT), kinetic modeling, and molecular dynamics simulations, provide insights into catalyst structure-activity relationships and guide experimental catalyst design efforts.

This session provides a platform for researchers, engineers, and industry professionals to explore the intersection of catalysis with decarbonization, biodegradable chemicals, advanced fuels, atom economy optimization, rational catalyst design, and multi-scale modeling in refining and petrochemistry. Join us as we navigate the evolving landscape of catalytic technologies shaping the future of sustainable energy and chemicals production.

Transitioning from Refining to Circular and Sustainable Chemistry: Transition Metal Sulfide Catalysts at the Crossroads

Transition metal sulphide catalysts play a pivotal role in the transition from traditional refining practices to circular and sustainable chemistry, enabling the production of clean fuels, biomass conversion in biorefineries, recycling and recovery processes, electrocatalysis for energy conversion, gas purification, and plastic recycling. This session explores the multifaceted applications of transition metal sulphide catalysts in the context of circular and sustainable chemistry, with a focus on the following keywords:

  • Clean Fuel Production: Investigate the role of transition metal sulphide catalysts in the production of clean fuels through processes such as hydrodesulfurization (HDS), hydrodenitrogenation (HDN), and hydrodeoxygenation (HDO). Explore how these catalysts enable the removal of sulphur, nitrogen, and oxygen-containing compounds from fossil fuels and bio-derived feedstocks, leading to the production of low-sulphur diesel, gasoline, and jet fuels.
  • Biomass Conversion and Biorefinery Applications: Explore the utilization of transition metal sulphide catalysts in biomass conversion processes within biorefineries. Discuss their role in biomass pyrolysis, hydrothermal liquefaction, and catalytic fast pyrolysis for the production of bio-oils, biochar, and syngas, as well as their integration into biorefinery platforms for the sustainable production of biofuels, biochemicals, and bioplastics.
  • Recycling and Recovery Processes: Delve into the use of transition metal sulphide catalysts in recycling and recovery processes for waste valorization. Explore their application in catalytic cracking, hydrocracking, and hydrotreating of waste plastics, waste oils, and biomass-derived residues to produce valuable chemicals, fuels, and materials, contributing to the circular economy and resource efficiency.
  • Electrocatalysis for Energy Conversion: Investigate the electrocatalytic properties of transition metal sulphide catalysts for energy conversion and storage applications. Discuss their role in hydrogen evolution reaction (HER), oxygen evolution reaction (OER), and CO2 reduction reactions (CO2RR) in electrolysis cells and photoelectrochemical systems, enabling the production of renewable hydrogen, oxygen, and carbon-based fuels.
  • Gas Purification and Environmental Remediation: Explore the use of transition metal sulfide catalysts for gas purification and environmental remediation applications. Discuss their effectiveness in removing sulfur-containing compounds (e.g., H2S, SOx) from natural gas streams, flue gases, and industrial emissions, as well as their potential for photocatalytic degradation of organic pollutants in air and water.
  • Plastic Recycling and Valorization: Investigate the catalytic conversion of plastic waste using transition metal sulphide catalysts for plastic recycling and valorization. Explore their role in pyrolysis, depolymerization, and chemical recycling processes for transforming plastic waste into value-added products, such as fuels, monomers, and chemicals, thereby mitigating plastic pollution and promoting circularity in the plastics industry.
  • Phosphide, Nitride, Carbide Catalysts: Discuss the emerging trends and potential applications of phosphide, nitride, and carbide-based catalysts as alternatives or complements to transition metal sulphide catalysts in various catalytic processes. Explore their unique catalytic properties, stability, and performance in clean fuel production, biomass conversion, electrocatalysis, gas purification, and plastic recycling.
  • Photocatalysis for Sustainable Chemistry: Explore the photocatalytic capabilities of transition metal sulphide catalysts for sustainable chemistry applications. Discuss their role in photocatalytic water splitting, CO2 reduction, pollutant degradation, and organic synthesis under solar irradiation, offering a green and renewable approach to chemical transformations and energy generation.

This session provides a comprehensive platform for researchers, catalysis experts, and industry stakeholders to explore the diverse applications and potential of transition metal sulfide catalysts in the transition towards circular and sustainable chemistry. Join us as we navigate the crossroads of catalytic innovation and sustainability, paving the way for a more resilient and resource-efficient future.

Catalysis by Metals and Metal Oxides

Catalysis by metals and metal oxides represents a cornerstone of modern catalysis, playing a critical role in the transformation of organic molecules into valuable products. This session delves into the multifaceted applications and mechanisms of metal and metal oxide catalysts, exploring their impact on reaction kinetics, stability, and recycling. The focus will be on the following keywords:

  • Transformation of Organic Molecules: Investigate the versatile applications of metal and metal oxide catalysts in the transformation of organic molecules. Discuss their role in key processes such as hydrogenation, oxidation, carbon-carbon coupling, and other organic transformations. Highlight case studies where these catalysts have been pivotal in producing pharmaceuticals, fine chemicals, and intermediates for various industrial applications.
  • Metal and Oxide Catalysts: Explore the unique properties and applications of both pure metal catalysts and metal oxide catalysts. Examine the catalytic performance of metals like platinum, palladium, and gold, as well as metal oxides such as titanium dioxide, zinc oxide, and cerium oxide. Discuss how the choice of metal or oxide influences the reaction pathways and product selectivity in various catalytic processes.
  • Catalysts Associating a Metal and a p-Block Element: Delve into the innovative field of catalysts that combine metals with p-block elements (e.g., boron, aluminum, silicon). Discuss how these hybrid catalysts leverage the strengths of both components to enhance catalytic activity, selectivity, and stability. Highlight recent advancements and applications in cross-coupling reactions, hydrogenation, and dehydrogenation processes.
  • Kinetics: Investigate the kinetic aspects of catalytic reactions involving metals and metal oxides. Discuss methodologies for studying reaction rates, activation energies, and the influence of catalyst structure on reaction kinetics. Highlight the importance of understanding kinetics for the design and optimization of catalytic processes in both academic research and industrial applications.
  • Catalyst Stability and Recycling: Explore strategies for enhancing the stability and recyclability of metal and metal oxide catalysts. Discuss the challenges associated with catalyst deactivation, such as sintering, leaching, and poisoning, and present solutions to mitigate these issues. Highlight successful examples of catalyst recycling in industrial processes, emphasizing economic and environmental benefits.
  • Mechanisms: Delve into the mechanistic understanding of catalytic reactions facilitated by metals and metal oxides. Discuss advanced techniques for elucidating reaction mechanisms, such as in-situ spectroscopy, computational modeling, and surface science studies. Highlight how mechanistic insights guide the rational design of more efficient and selective catalysts.

This session provides a comprehensive platform for researchers, catalysis experts, and industry stakeholders to explore the dynamic field of metal and metal oxide catalysis. Join us to uncover the latest advancements, share insights, and foster collaborations that will drive innovation and sustainability in catalytic science and technology.

Valorisation of C1 Molecules (CH4, CO, MeOH) except CO2

The valorisation of C1 molecules such as methane (CH4), carbon monoxide (CO), and methanol (MeOH) is pivotal for developing sustainable and efficient chemical processes. This session explores advanced catalytic strategies and reactions for transforming these simple molecules into valuable chemicals and fuels. Key topics include:

  • Reforming: Examine the role of catalytic reforming processes, such as steam reforming and dry reforming, in converting methane into syngas (a mixture of H2 and CO). Discuss the catalyst types and reaction conditions that optimize these processes for industrial applications.
  • (Reverse) Water-Gas Shift: Explore the water-gas shift (WGS) and reverse water-gas shift (RWGS) reactions, focusing on their catalytic mechanisms and applications in adjusting the H2/CO ratio in syngas for downstream processes like Fischer-Tropsch synthesis and methanol production.
  • Methanol/DME: Discuss catalytic methods for converting syngas into methanol and dimethyl ether (DME), highlighting the catalysts and process conditions that maximize yield and selectivity. Address the importance of these compounds as clean fuel alternatives and chemical feedstocks.
  • Higher Alcohols: Investigate the catalytic production of higher alcohols from C1 molecules, focusing on the synthesis of ethanol, propanol, and butanol. Discuss the challenges and innovations in catalyst design that enhance the selectivity and efficiency of these processes.
  • Fischer-Tropsch: Delve into the Fischer-Tropsch synthesis for converting syngas into long-chain hydrocarbons. Discuss catalyst developments and process optimizations that improve product distribution towards valuable fuels and chemicals.
  • Syngas: Highlight the importance of syngas as an intermediate for various catalytic processes, including its production from methane and its utilization in synthesizing hydrocarbons, alcohols, and other chemicals.
  • Oxidative Coupling of Methane: Explore the oxidative coupling of methane (OCM) as a direct route to ethylene and other valuable hydrocarbons. Discuss the catalytic materials and reaction conditions that enable efficient OCM processes.
  • Cracking, Aromatisation: Examine the catalytic cracking and aromatization of methane and methanol to produce light olefins and aromatic compounds. Highlight advancements in catalysts that enhance selectivity and yield.
  • Methanol-to-Olefins: Investigate the methanol-to-olefins (MTO) process, focusing on the catalysts and reaction conditions that convert methanol into ethylene and propylene, key building blocks for the petrochemical industry.
  • Sustainable Processes: Emphasize the development of sustainable catalytic processes for C1 molecule valorisation, highlighting efforts to minimize environmental impact and improve process efficiency. Discuss the integration of renewable energy sources and feedstocks to achieve greener chemical production.

This session offers a platform for researchers, industry experts, and stakeholders to share insights and advancements in the catalytic valorisation of C1 molecules, fostering innovation and sustainability in the chemical industry.

Water and Air Treatment

Catalysis plays a pivotal role in addressing the environmental challenges associated with water and air pollution. This session explores cutting-edge catalytic technologies for the treatment of contaminants, aiming to provide sustainable and efficient solutions. Key topics include:

  • Persistent Water Contaminants: Investigate catalytic strategies for removing persistent organic pollutants (POPs), pharmaceuticals, and heavy metals from water. Discuss the development of catalysts that can effectively degrade these stubborn contaminants to ensure safe and clean water supplies.
  • Disruptive After-Treatment Technologies: Explore innovative after-treatment catalytic technologies designed to handle a broad spectrum of pollutants. Highlight advancements in catalytic materials and processes that disrupt traditional methods, offering enhanced efficiency and effectiveness in water and air purification.
  • Organic Volatile Compounds (OVCs): Examine the catalytic oxidation and reduction of organic volatile compounds (OVCs) in air treatment. Discuss the catalysts, such as metal oxides and zeolites, that enable the effective breakdown of OVCs, reducing their impact on air quality and human health.
  • Post-Combustion Catalysis: Delve into the catalytic processes used in post-combustion treatment to reduce emissions from industrial and vehicular sources. Discuss technologies like selective catalytic reduction (SCR) and catalytic converters that minimize the release of harmful gases, such as NOx and CO.
  • Hybrid Abatement Technologies: Explore hybrid catalytic systems that combine multiple treatment methods, such as adsorption, photocatalysis, and biological processes, to enhance the removal of contaminants from water and air. Discuss the synergies achieved through these integrated approaches.
  • Precious Metal-Free Catalysts: Investigate the development and application of non-precious metal catalysts in environmental remediation. Highlight advancements in materials such as metal oxides, carbon-based catalysts, and transition metal carbides and nitrides that offer cost-effective and sustainable alternatives to traditional precious metal catalysts.
  • N-Containing Pollutant Removal: Examine catalytic methods for the removal of nitrogen-containing pollutants, such as ammonia, nitrates, and nitrogen oxides (NOx), from water and air. Discuss the catalysts and processes that efficiently convert these pollutants into harmless nitrogen and water, mitigating their environmental impact.
  • Greenhouse Gas (GHG) Mitigation: Explore catalytic technologies aimed at reducing greenhouse gas emissions, focusing on methane (CH4) and nitrous oxide (N2O). Discuss catalytic oxidation and reforming processes that convert these potent GHGs into less harmful substances, contributing to climate change mitigation efforts.
  • Lean-Burn Application: Investigate the use of catalysts in lean-burn engines, which operate with excess air to improve fuel efficiency and reduce CO2 emissions. Discuss the challenges and solutions in developing catalysts that effectively reduce NOx emissions under lean-burn conditions, ensuring compliance with stringent environmental regulations.

This session provides a comprehensive platform for researchers, engineers, and industry professionals to discuss the latest advancements in catalytic water and air treatment technologies. Join us to explore innovative solutions, share insights, and foster collaborations that will drive progress towards a cleaner and more sustainable environment

Chemicals and Fine Chemistry

The session on Chemicals and Fine Chemistry will explore the innovative catalytic strategies and processes that drive efficiency and sustainability in the production of chemicals and high-added value products. Emphasizing principles like step-economy and atom-economy, this session will cover a range of topics crucial for advancing both fine and commodity chemical industries. Key areas of focus include:

  • Step-Economy: Investigate catalytic processes that maximize step-economy, reducing the number of steps required in chemical synthesis. Discuss examples where catalysts streamline synthetic routes, minimizing time, energy, and resource consumption, thereby enhancing overall process efficiency.
  • Atom-Economy: Explore the principle of atom-economy in catalysis, which aims to incorporate the maximum number of atoms from starting materials into the final product. Highlight catalytic methods that achieve high atom-economy, reducing waste and improving sustainability in chemical manufacturing.
  • High-Added Value Products: Examine the role of catalysis in the production of high-added value chemicals, such as pharmaceuticals, agrochemicals, and specialty chemicals. Discuss the development of catalysts that enhance the yield, purity, and selectivity of these valuable products.
  • Active Pharmaceutical Ingredients (APIs): Delve into catalytic strategies for the efficient synthesis of active pharmaceutical ingredients (APIs). Highlight case studies where catalysts have significantly improved the synthesis of APIs, reducing costs and environmental impact while ensuring high purity and efficacy.
  • Mechanisms: Investigate the underlying mechanisms of catalytic reactions in the context of fine and commodity chemical production. Discuss advanced techniques used to elucidate these mechanisms, such as spectroscopy, computational modeling, and kinetic studies, and how this understanding guides the rational design of more effective catalysts.
  • Commodity Chemicals: Explore the catalytic processes used in the large-scale production of commodity chemicals, such as ethylene, propylene, and benzene. Discuss innovations in catalyst development and process optimization that enhance efficiency, selectivity, and sustainability in the manufacture of these essential building blocks.

This session offers a platform for researchers, industry experts, and stakeholders to share insights and advancements in catalytic processes for fine and commodity chemical production. Join us to discuss the latest trends, foster collaborations, and drive innovations that will shape the future of chemical manufacturing towards greater efficiency and sustainability.

Transient Methods in Heterogeneous Catalysis

The session on Transient Methods in Heterogeneous Catalysis will delve into advanced techniques and methodologies that provide insights into catalytic processes occurring at the active sites of catalysts. These transient methods are essential for understanding reaction mechanisms, identifying active sites, and developing more efficient catalytic systems. Key topics include:

  • Temporal Analysis: Explore the application of temporal analysis techniques, such as temporal analysis of products (TAP), to study the dynamics of catalytic reactions. Discuss how these techniques provide time-resolved data on the behavior of reactants and products, enabling a deeper understanding of reaction pathways and intermediates.
  • Isotopic Exchange: Investigate the use of isotopic exchange methods to probe reaction mechanisms and active sites in heterogeneous catalysis. Highlight how isotopic labeling and monitoring of isotopic distribution can reveal detailed information about the steps involved in catalytic processes and the nature of active sites.
  • Mechanisms: Examine the mechanistic insights gained from transient methods, focusing on how these techniques elucidate the fundamental steps of catalytic reactions. Discuss the importance of understanding these mechanisms for the rational design and optimization of catalysts.
  • Active Sites: Delve into the identification and characterization of active sites using transient methods. Discuss how these techniques help to pinpoint the exact locations on the catalyst where reactions occur and provide information on the electronic and structural properties that make these sites active.
  • New Methodologies for Kinetic Studies: Explore innovative methodologies for kinetic studies in heterogeneous catalysis. Highlight advancements in experimental techniques and data analysis methods that enhance the accuracy and resolution of kinetic measurements, providing more detailed insights into catalytic behavior under various reaction conditions.

This session provides a comprehensive platform for researchers and industry professionals to discuss the latest advancements in transient methods for studying heterogeneous catalysis. Join us to share insights, explore new methodologies, and foster collaborations that will drive forward the understanding and development of catalytic systems.

Chemical Engineering and Process Technologies for Catalysis

The session on Chemical Engineering and Process Technologies for Catalysis will explore cutting-edge advancements in reactor design, process modeling, and innovative methodologies that enhance the efficiency and sustainability of catalytic processes. Emphasizing multi-scale approaches and process intensification, this session will cover a range of topics vital for the optimization and innovation in chemical engineering. Key areas of focus include:

  • Reactor, Process, and Multi-Scale Modeling: Investigate the latest developments in reactor and process modeling, focusing on multi-scale approaches that integrate molecular, reactor, and process levels. Discuss how advanced modeling techniques provide detailed insights into reaction kinetics, transport phenomena, and catalyst behavior, enabling the design of more efficient and effective catalytic reactors.
  • Process Coupling and Other Intensification: Explore strategies for process intensification through process coupling, where multiple processes are integrated to enhance overall efficiency and productivity. Highlight examples of catalytic systems where process intensification leads to reduced energy consumption, lower emissions, and improved product yields.
  • New Methodologies & Tools for Kinetics: Examine innovative methodologies and tools for studying reaction kinetics in catalytic processes. Discuss the development and application of advanced kinetic modeling techniques, experimental tools, and computational methods that provide deeper insights into reaction mechanisms and catalyst performance.
  • Process Electrification: Delve into the electrification of chemical processes, focusing on the integration of renewable electricity into catalytic systems. Discuss how process electrification can drive sustainable chemical production by reducing dependence on fossil fuels, lowering greenhouse gas emissions, and enabling more flexible and modular process designs.
  • Catalytic Chemical Engineering: Explore the role of chemical engineering principles in the design and optimization of catalytic processes. Discuss advancements in catalyst development, reactor engineering, and process optimization that enhance the performance and scalability of catalytic technologies in industrial applications.

This session offers a platform for researchers, engineers, and industry professionals to share insights and advancements in chemical engineering and process technologies for catalysis. Join us to explore innovative solutions, foster collaborations, and drive progress towards more efficient, sustainable, and economically viable catalytic processes.

Surface Science Approaches

The session on Surface Science Approaches will delve into the advanced techniques and methodologies used to study the surfaces of catalysts, which are critical for understanding and improving catalytic performance. Focusing on single crystals, surface reactivity, and modifications, this session will cover a range of topics essential for advancing surface science in catalysis. Key areas of focus include:

  • Single Crystals: Investigate the use of single crystal surfaces to gain fundamental insights into catalytic processes. Discuss how studying well-defined single crystal surfaces helps in understanding the intrinsic properties of catalysts, including adsorption, reaction mechanisms, and surface reactivity.
  • Reactivity: Explore the reactivity of catalytic surfaces, focusing on how different surface structures and compositions influence catalytic performance. Discuss the factors that govern surface reactivity, such as electronic structure, surface defects, and active sites.
  • Surface Modification: Examine techniques for modifying catalytic surfaces to enhance their activity, selectivity, and stability. Highlight methods such as doping, alloying, and the creation of surface nanostructures that tailor surface properties to optimize catalytic performance.
  • Characterization: Delve into advanced surface characterization techniques that provide detailed information about catalyst surfaces. Discuss the use of techniques such as scanning tunneling microscopy (STM), atomic force microscopy (AFM), X-ray photoelectron spectroscopy (XPS), and others to study surface structure, composition, and electronic properties.
  • In Situ and Operando Techniques: Explore in situ and operando techniques that allow for the real-time observation of catalytic processes under actual reaction conditions. Discuss how these techniques bridge the gap between model studies and practical applications, providing insights into dynamic changes on catalyst surfaces during reactions.
  • Pressure Gap: Investigate the pressure gap challenge, where catalytic behavior observed under high vacuum conditions differs from that under practical operating pressures. Discuss strategies and techniques to address this gap and provide more relevant insights for industrial catalysis.
  • Materials Gap: Examine the materials gap, focusing on the differences between idealized model catalysts and real-world heterogeneous catalysts. Discuss approaches to bridge this gap, including the study of more complex and realistic catalytic systems.
  • Electrochemistry: Explore the role of surface science in electrochemical catalysis, focusing on the characterization and modification of electrode surfaces. Discuss how surface science techniques are used to understand and improve electrocatalytic processes for applications such as fuel cells and electrolyzers.
  • Kinetics: Delve into the study of reaction kinetics on catalytic surfaces, emphasizing the role of surface science in determining reaction rates and mechanisms. Discuss advanced kinetic modeling and experimental techniques that provide a detailed understanding of the factors influencing catalytic activity.

This session provides a comprehensive platform for researchers and industry professionals to discuss the latest advancements in surface science approaches to catalysis. Join us to explore innovative methodologies, share insights, and foster collaborations that will drive forward the understanding and development of catalytic surfaces.

Data as the Key Resource in Digital Catalysis

In the session on Data as the Key Resource in Digital Catalysis, we will explore the transformative role of data in catalysis research and innovation. With a focus on standardization, sharing, and utilization of catalysis data, this session aims to drive advancements in catalysis informatics and foster community-driven infrastructure for digital research. Key areas of focus include:

  • Standardization of Catalysis Data: Investigate efforts to standardize catalysis data formats, terminology, and metadata to facilitate data interoperability and reproducibility. Discuss the importance of standardization in enabling seamless integration and analysis of diverse datasets from experimental and computational studies.
  • Data Sharing and Curation: Explore strategies for promoting data sharing and curation within the catalysis community. Discuss the benefits of open-access data repositories, collaborative platforms, and data citation practices in enhancing transparency, collaboration, and knowledge dissemination.
  • Catalysis Informatics: Delve into the emerging field of catalysis informatics, which leverages data science and machine learning techniques to extract insights from catalysis data. Highlight applications such as predictive modeling, reaction network analysis, and catalyst design optimization enabled by catalysis informatics approaches.
  • Community-Driven Infrastructure: Examine initiatives aimed at developing community-driven infrastructure for catalysis data management and analysis. Discuss the role of collaborative platforms, data standards organizations, and community forums in fostering interdisciplinary collaboration and resource sharing.
  • Digital Research: Explore the evolving landscape of digital research in catalysis, encompassing computational modeling, high-throughput experimentation, and data-driven discovery approaches. Discuss how digital technologies are revolutionizing the way catalysis research is conducted, accelerating discovery and innovation.

This session offers a platform for researchers, data scientists, and catalysis experts to discuss the latest advancements and challenges in leveraging data as a key resource in catalysis research. Join us to explore innovative methodologies, share best practices, and shape the future of digital catalysis.

Advanced Materials for Catalysis

In the session on Advanced Materials for Catalysis, we will explore the latest developments in materials science and engineering that are driving innovation in catalytic processes. With a focus on novel materials design, synthesis methods, and characterization techniques, this session aims to highlight advancements that enable improved catalytic activity, selectivity, and sustainability. Key areas of focus include:

  • Nanostructured Materials: Investigate the design and synthesis of nanostructured materials tailored for catalytic applications. Discuss how the unique properties of nanomaterials, such as high surface area and enhanced reactivity, enable superior catalytic performance in various reactions.
  • Heterogeneous Catalysts: Delve into the development of heterogeneous catalysts with advanced functionalities and tailored properties. Explore innovative approaches for synthesizing catalysts with controlled morphology, composition, and surface chemistry to achieve desired catalytic outcomes.
  • Supported Catalysts: Examine supported catalysts comprising active components dispersed on high-surface-area supports. Discuss strategies for optimizing catalyst-support interactions, maximizing active site accessibility, and enhancing stability for prolonged catalytic operation.
  • Metal-Organic Frameworks (MOFs) and Covalent Organic Frameworks (COFs): Explore the unique properties of MOFs and COFs that make them promising candidates for catalysis. Discuss their tunable structures, high porosity, and diverse functionalities, which enable applications in gas storage, separation, and catalytic transformations.
  • Zeolites and Porous Materials: Investigate the catalytic properties of zeolites and other porous materials in various industrial processes. Discuss advancements in zeolite synthesis, modification, and functionalization for applications ranging from hydrocarbon conversion to environmental remediation.
  • Carbon-Based Materials: Delve into the diverse applications of carbon-based materials, including carbon nanotubes, graphene, and activated carbon, in catalysis. Discuss their unique electronic and surface properties that enable catalytic transformations, such as electrocatalysis and heterogeneous reactions.
  • Bimetallic and Alloy Catalysts: Explore the synergistic effects of bimetallic and alloy catalysts in catalytic reactions. Discuss how the controlled combination of different metals can enhance catalytic activity, selectivity, and stability compared to monometallic counterparts.
  • Catalyst Design and Optimization: Investigate strategies for rational catalyst design and optimization using advanced computational methods and high-throughput experimentation. Discuss how computational modeling, machine learning, and data-driven approaches are revolutionizing catalyst discovery and development.

This session offers a platform for researchers, materials scientists, and catalysis experts to discuss the latest advancements and challenges in the field of advanced materials for catalysis. Join us to explore innovative materials design strategies, share insights into catalytic mechanisms, and foster collaborations that drive progress toward more efficient and sustainable catalytic processes.

Catalysis for Sustainable Energy

The session on Catalysis for Sustainable Energy will explore the pivotal role of catalysis in advancing renewable energy technologies and addressing global energy challenges. With a focus on clean energy production, conversion, and storage, this session aims to highlight innovative catalytic solutions that contribute to a more sustainable and resilient energy future. Key areas of focus include:

  • Hydrogen Production: Investigate catalytic methods for sustainable hydrogen production, such as water electrolysis, steam reforming of methane, and biomass conversion. Discuss advancements in catalyst design and reactor engineering to enhance efficiency, reduce costs, and minimize environmental impact in hydrogen generation.
  • Carbon Capture and Utilization (CCU): Delve into catalytic processes for carbon capture and utilization, including CO2 conversion to value-added products such as fuels, chemicals, and building materials. Discuss catalysts and reaction pathways that enable the transformation of CO2 into valuable commodities, contributing to carbon neutrality and circular economy principles.
  • Biomass Conversion: Explore catalytic strategies for biomass conversion into renewable fuels and chemicals. Discuss bio-based feedstock utilization, catalytic upgrading processes, and integrated biorefinery concepts that maximize resource efficiency and minimize waste generation in bioenergy production.
  • Solar Fuel Generation: Investigate catalytic approaches for solar fuel generation through artificial photosynthesis and photocatalytic water splitting. Discuss the design of photoactive materials, cocatalysts, and reaction systems that harness solar energy to produce clean hydrogen or carbon-based fuels from water and CO2.
  • Electrocatalysis: Delve into electrocatalytic processes for energy conversion and storage, including hydrogen evolution, oxygen reduction, and CO2 electroreduction. Discuss advancements in catalyst materials, electrode architectures, and electrolyte design that improve the efficiency and stability of electrochemical energy systems.
  • Fuel Cells: Explore the role of catalysis in fuel cell technologies for clean and efficient power generation. Discuss proton exchange membrane fuel cells (PEMFCs), solid oxide fuel cells (SOFCs), and other fuel cell types, highlighting catalyst developments and system integration strategies to enhance performance and durability.
  • Energy Storage: Investigate catalytic materials and processes for energy storage applications, including rechargeable batteries, redox flow batteries, and chemical fuel storage systems. Discuss catalysts for electrode reactions, electrolyte management, and system design considerations to optimize energy storage performance and cycle life.
  • Renewable Fuel Synthesis: Explore catalytic routes for synthesizing renewable fuels from sustainable feedstocks, such as biomass, CO2, and water. Discuss Fischer-Tropsch synthesis, methanol-to-gasoline, and other catalytic processes that enable the production of drop-in biofuels and green chemicals for transportation and industry.

This session offers a platform for researchers, engineers, and policymakers to discuss the latest advancements and challenges in catalysis for sustainable energy applications. Join us to explore innovative solutions, share insights into catalytic mechanisms, and foster collaborations that drive progress toward a cleaner, more sustainable energy landscape.

Catalytic Green Chemistry

The session on Catalytic Green Chemistry will delve into the principles and applications of catalysis in promoting sustainable and environmentally friendly chemical processes. With a focus on reducing waste, minimizing energy consumption, and utilizing renewable resources, this session aims to highlight innovative catalytic strategies that contribute to the principles of green chemistry. Key areas of focus include:

  • Atom Economy: Explore catalytic reactions with high atom economy, where the majority of atoms from the reactants are incorporated into the desired products. Discuss how catalysts enable more efficient utilization of starting materials, reducing waste generation and increasing overall process efficiency.
  • Solvent-Free Reactions: Investigate catalytic reactions that can be performed without the use of organic solvents, leading to reduced environmental impact and improved safety. Discuss the development of solid-supported catalysts and alternative reaction media that enable solvent-free or low-solvent conditions.
  • Catalytic Biorefining: Delve into catalytic processes for the conversion of biomass and renewable feedstocks into value-added chemicals, fuels, and materials. Discuss the role of catalysts in biomass depolymerization, sugar and lignin conversion, and the production of bio-based polymers and platform chemicals.
  • Green Solvents: Explore the use of environmentally benign solvents, such as water, ionic liquids, and supercritical fluids, in catalytic reactions. Discuss how the choice of solvent can impact reaction selectivity, efficiency, and sustainability, highlighting advances in solvent selection and recycling.
  • Renewable Feedstock Utilization: Investigate catalytic processes for utilizing renewable feedstocks, such as CO2, bio-based sugars, and waste materials, as starting materials for chemical synthesis. Discuss the development of catalysts and reaction systems that enable the conversion of renewable resources into valuable products while minimizing environmental impact.
  • Catalytic Upcycling: Delve into catalytic processes for the upcycling of waste materials, such as plastics, biomass residues, and industrial by-products, into high-value chemicals and fuels. Discuss the role of catalysts in depolymerization, hydrocracking, and selective functionalization of waste streams to create new products and reduce landfilling.
  • Green Catalytic Technologies: Explore emerging catalytic technologies that promote the principles of green chemistry, such as flow chemistry, microwave-assisted catalysis, and photocatalysis. Discuss how these technologies enable more efficient, selective, and sustainable chemical transformations compared to traditional batch processes.
  • Life Cycle Assessment (LCA): Investigate the environmental impacts of catalytic processes through life cycle assessment (LCA), considering factors such as energy consumption, resource utilization, and waste generation. Discuss strategies for optimizing catalytic processes based on LCA insights to minimize overall environmental footprint.

This session offers a platform for researchers, chemists, engineers, and policymakers to discuss the latest advancements and challenges in catalytic green chemistry. Join us to explore innovative catalytic strategies, share insights into sustainable process development, and foster collaborations that drive progress toward a greener and more sustainable chemical industry.

Catalysis for Environmental Remediation

The session on Catalysis for Environmental Remediation will focus on the application of catalytic processes to address pollution and environmental challenges. With a focus on removing contaminants from air, water, and soil, this session aims to explore innovative catalytic technologies that contribute to the preservation and restoration of environmental quality. Key areas of focus include:

  • Air Pollution Control: Investigate catalytic methods for mitigating air pollution, including the removal of volatile organic compounds (VOCs), nitrogen oxides (NOx), sulfur oxides (SOx), and particulate matter (PM). Discuss the design and optimization of catalytic converters, scrubbers, and other emission control systems for industrial and vehicular applications.
  • Water Treatment: Delve into catalytic processes for treating contaminated water sources, including wastewater from industrial, agricultural, and municipal sources. Discuss the removal of organic pollutants, heavy metals, nutrients, and pathogens using catalytic oxidation, reduction, adsorption, and photocatalysis.
  • Soil Remediation: Explore catalytic techniques for remediating soil contaminated with hazardous chemicals, such as petroleum hydrocarbons, pesticides, and heavy metals. Discuss approaches for soil washing, soil vapor extraction, and in situ chemical oxidation using catalytic materials to restore soil quality and prevent further environmental damage.
  • Hazardous Waste Management: Investigate catalytic methods for the treatment and disposal of hazardous wastes, including solid waste, sludge, and hazardous chemicals. Discuss catalytic incineration, pyrolysis, and chemical conversion processes that minimize waste volume, toxicity, and environmental impact.
  • Emerging Contaminants: Delve into the removal of emerging contaminants, such as pharmaceuticals, personal care products, and microplastics, from environmental matrices. Discuss the challenges associated with detecting and treating these contaminants and explore innovative catalytic approaches for their removal and degradation.
  • Advanced Oxidation Processes (AOPs): Explore the application of advanced oxidation processes, such as Fenton oxidation, ozonation, and photocatalytic oxidation, for environmental remediation. Discuss the role of catalysts in generating highly reactive oxygen species to degrade organic pollutants and disinfect water and air.
  • Nanomaterials for Remediation: Investigate the use of nanomaterials, such as nanoparticles, nanotubes, and nanocomposites, in environmental remediation applications. Discuss the unique properties of nanomaterials that enhance catalytic activity, adsorption capacity, and environmental compatibility for pollutant removal.
  • Green and Sustainable Remediation: Delve into strategies for green and sustainable remediation that minimize energy consumption, waste generation, and environmental footprint. Discuss the integration of renewable energy sources, green chemistry principles, and ecosystem-based approaches into catalytic remediation strategies.

This session offers a platform for researchers, environmental scientists, engineers, and policymakers to discuss the latest advancements and challenges in catalysis for environmental remediation. Join us to explore innovative catalytic technologies, share insights into sustainable remediation practices, and foster collaborations that contribute to a cleaner and healthier environment.

Industrial Catalysis and Process Optimization

The session on Industrial Catalysis and Process Optimization will focus on the application of catalysis in industrial-scale chemical processes and the strategies for optimizing efficiency, selectivity, and sustainability. With a focus on real-world applications and challenges faced by the chemical industry, this session aims to explore innovative catalytic solutions and process optimization methodologies. Key areas of focus include:

  • Scale-Up Challenges: Investigate the challenges associated with scaling up catalytic processes from laboratory-scale to industrial production. Discuss factors such as reactor design, heat and mass transfer, catalyst deactivation, and safety considerations that influence the successful implementation of catalytic technologies at large scales.
  • Catalyst Development and Selection: Delve into the process of catalyst development and selection for industrial applications. Discuss the criteria for evaluating catalyst performance, including activity, selectivity, stability, and cost-effectiveness, and explore methodologies for catalyst screening, optimization, and characterization.
  • Reaction Engineering: Explore the principles of reaction engineering as applied to catalytic processes in industrial settings. Discuss reactor design, kinetics modeling, heat and mass transfer phenomena, and process intensification strategies for maximizing productivity and minimizing energy consumption and waste generation.
  • Process Integration: Investigate strategies for integrating catalytic processes into complex chemical production systems. Discuss the design of integrated process units, such as multi-step reactors, separation systems, and recycle loops, to optimize resource utilization, minimize environmental impact, and improve overall process efficiency.
  • Process Safety and Risk Management: Delve into the importance of process safety and risk management in industrial catalysis. Discuss strategies for identifying and mitigating potential hazards associated with catalytic reactions, including runaway reactions, thermal decomposition, and release of toxic or flammable materials.
  • Energy Efficiency and Sustainability: Explore approaches for enhancing energy efficiency and sustainability in industrial catalytic processes. Discuss the use of alternative energy sources, waste heat recovery, and process integration techniques to reduce energy consumption, greenhouse gas emissions, and environmental footprint.
  • Quality Control and Productivity: Investigate methodologies for quality control and productivity optimization in industrial catalysis. Discuss online and offline analytical techniques, process monitoring, and control strategies for ensuring product quality, consistency, and throughput in chemical manufacturing.
  • Life Cycle Assessment (LCA): Examine the environmental impacts of industrial catalytic processes through life cycle assessment (LCA). Discuss the role of LCA in evaluating the sustainability performance of chemical processes and guiding decision-making towards more environmentally friendly and socially responsible practices.

This session offers a platform for researchers, engineers, process chemists, and industrial practitioners to discuss the latest advancements and challenges in industrial catalysis and process optimization. Join us to explore innovative catalytic technologies, share insights into best practices for industrial-scale implementation, and foster collaborations that drive progress towards a more efficient, sustainable, and competitive chemical industry.

Catalysis and Sustainable Development Goals (SDGs)

The session on Catalysis and Sustainable Development Goals (SDGs) will explore the role of catalysis in addressing the global challenges outlined by the United Nations Sustainable Development Goals. With a focus on catalytic solutions that contribute to sustainable development, this session aims to highlight the potential of catalysis to advance progress towards achieving the SDGs. Key areas of focus include:

  • SDGs Alignment: Investigate how catalytic technologies can contribute to achieving specific Sustainable Development Goals, such as clean energy (SDG 7), responsible consumption and production (SDG 12), climate action (SDG 13), and clean water and sanitation (SDG 6).
  • Renewable Energy: Delve into catalytic processes for renewable energy production, such as hydrogen generation from water electrolysis, biomass conversion to biofuels, and solar fuel synthesis. Discuss how these technologies contribute to SDG 7 by promoting access to affordable, reliable, sustainable, and modern energy for all.
  • Circular Economy: Explore catalytic solutions for promoting a circular economy, including waste valorization, resource recycling, and upcycling of waste materials into value-added products. Discuss how these approaches contribute to SDG 12 by promoting sustainable consumption and production patterns and reducing waste generation.
  • Climate Mitigation: Investigate catalytic processes for mitigating climate change by reducing greenhouse gas emissions and sequestering carbon dioxide. Discuss carbon capture and utilization (CCU) technologies, CO2 conversion to fuels and chemicals, and other climate-positive catalytic strategies aligned with SDG 13.
  • Water and Air Quality: Delve into catalytic solutions for improving water and air quality through pollution control and environmental remediation. Discuss catalytic oxidation, adsorption, and filtration technologies that contribute to achieving SDG 6 by ensuring access to clean water and sanitation and SDG 3 by promoting human health and well-being.
  • Access to Healthcare: Explore catalytic applications in pharmaceutical synthesis, drug manufacturing, and healthcare technologies that contribute to SDG 3 by promoting access to affordable and essential healthcare services and medicines.
  • Rural Development: Investigate catalytic solutions for promoting rural development and sustainable agriculture, including catalytic processes for fertilizer production, soil remediation, and crop protection. Discuss how these technologies contribute to SDG 2 by promoting food security, sustainable agriculture, and rural livelihoods.
  • Partnerships and Collaboration: Discuss the importance of partnerships and collaboration between governments, academia, industry, and civil society in advancing catalytic solutions for sustainable development. Explore opportunities for cross-sectoral collaboration and knowledge sharing to accelerate progress towards achieving the SDGs.

This session offers a platform for researchers, policymakers, industry stakeholders, and community leaders to discuss the potential of catalysis to contribute to sustainable development and achieve the United Nations Sustainable Development Goals. Join us to explore innovative catalytic solutions, share insights into best practices for sustainability, and foster collaborations that drive progress towards a more sustainable and equitable future for all.

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