Topics and Scope Description

Synthesis of catalyst with designed composition and structure has never gone out of style. As the reactivity and selectivity of most catalytic processes are structure sensitive, obtaining well-defined architectures is indispensable for fundamental discovery as well as practical applications in the field. In the “advanced catalyst synthesis” session, the synthesis of catalyst materials with well-defined structures is the main focus. Key themes of this session include the synthesis of

1) nanocrystal catalysts

2) single-atom to several atom catalyst

3) porous catalytic materials (i.e., MOF/COF, zeolite, etc.), and other emerging unique catalyst materials

Advanced characterization, standing at the forefront of understanding catalytic processes, is essential to verifying hypotheses and proposing new theories. In this session, we welcome cutting-edge research that examines materials and chemical reactions at the molecular level to provide insights into the dynamic catalytic surfaces and reaction mechanisms. Key themes of this session include

1) In situ and operando spectroscopy

2) Advanced microscopy and imaging

3) Synchrotron X-ray techniques

4) Addressing structure-property correlations

5) Emerging tools and future perspectives

Biocatalysis, at the crossroads of biology and chemistry, represents a burgeoning field with transformative potential in diverse industrial sectors. This dynamic discipline leverages the power of enzymes and other biological catalysts to perform selective and efficient chemical transformations, offering innovative solutions for sustainable production processes. From fundamental research to industrial applications, our sessions will welcome themes like:

1) Enzyme engineering and design

2) Bioprocess development and optimization

3) Synthetic biology and metabolic engineering

4) Biocatalysis in sustainable chemistry

5) Industrial applications and case Studies; 6) Emerging trends and future perspectives

Computational catalysis, at the intersection of theoretical chemistry, materials science, and catalysis, plays a pivotal role in accelerating catalyst discovery, understanding reaction mechanisms, and optimizing catalytic performance. Key themes to be addressed include

1) Computational modeling techniques

2) Catalyst structure-activity relationships

3) Reaction mechanisms and kinetics

4) High-throughput screening and catalyst design

5) Multiscale modeling and catalyst-environment interactions

Electrocatalysis stands as a pivotal area within the realm of catalysis, driving innovation in energy conversion and storage technologies essential for a sustainable future. In this year’s conference, the key themes to be addressed include:

1) Electrocatalyst and electrocatalytic process for batteries and other energy storage devices

2) Electrocatalysis for hydrogen energy

3) Electrocatalytic conversion of carbon and nitrogen containing compounds

4) Beyond Energy: Expanding the horizons of electrocatalysis

Photocatalysis and photoelectrochemical catalysis, the harnessing of light to drive chemical transformations, represents a frontier in catalysis with profound implications for sustainable energy, environmental remediation, and synthetic chemistry. Key themes to be addressed include:

1) Photocatalyst design and synthesis

2) Mechanistic insights and kinetic studies

3) Solar energy conversion: Exploring photocatalysis in solar-driven energy conversion processes, including water splitting, CO₂ reduction, and nitrogen fixation

4) Environmental remediation and air purification

5) Photocatalysis in organic synthesis

Thermal catalysis, utilizing heat to drive chemical reactions, is critical for sustainable process intensification and efficient resource use. Key focus areas include:

1) Small molecule activation and conversion

2) Reaction kinetics and mechanistic studies

3) High-temperature catalytic processes

4) Biomass conversion and renewable resource utilization

5) Waste valorization and circular economy; 6) Catalysis for fuel production and utilization