Core Chemistry

Core chemistry serves as the foundation of modern chemical research and industrial developments, which are essential for the manufacturing of pharmaceuticals, polymers, and functional materials. Peking Chemistry aims at advancing these fields by developing innovative synthetic methodologies, advanced characterisation techniques, catalysts, and materials to address global challenges related to health, energy, and the environment.

AI-Chemistry

The rapid advancement of computer hardware and software has transformed the field of molecular sciences through the application of AI-driven computational methods. This research endeavours to enhance the computational capabilities within molecular science by developing specialised hardware and algorithms tailored for tasks, such as molecular dynamics simulations andmachine learning. Our objectives include optimising high-throughput and efficient simulation methodologies, integrating artificial intelligence with physical models to effectively address the trade-off between accuracy and speed, and creating next-generation molecular computation programs utilising advanced AI frameworks. By synthesising systematic experimental data, high-accuracy theoretical calculations, and artificial intelligence, we aim to uncover novel patterns and insights, thereby improving the efficiency and accuracy of complex chemical systems simulations and advancing the frontiers of computational chemistry.

Materials Chemistry

Materials serve as the cornerstone of technological progression. Materials Chemistry, a branch of chemistry with a practical orientation, concentrates on the design, synthesis, structure, properties, and applications of advanced materials. We prioritise the discovery of materials exhibiting exceptional adsorption, separation, optical, electrical, magnetic, thermal and catalytic properties, with particular emphasis on applications in industrial separation, clean air, information technology, energy, environmental science, biology, medicine, and aerospace. Key research areas include the precision synthesis and preparation of materials such as graphene and rare earth functional materials, in situ and operando characterisation techniques, property tuning and optimisation, as well as the exploration of innovative applications in biomedical imaging, catalysis, and high-performance electronics. Our objective is to deliver ground-breaking innovations in advanced materials, methodologies, and technologies, thereby positioning ourselves at the forefront of materials chemistry and addressing national strategic demands.

Chemical Biology

Chemical Biology focuses on the convergence of clinical medicine and chemical biology. Our objective is to establish a comprehensive research programme that encompasses the analysis of molecular mechanisms, early diagnosis of diseases, and the discovery of novel therapeutics. This initiative aspires to create a world-class centre that aligns with national strategic priorities and promotes sustainable development. The field employs chemical methodologies to provide innovative strategies and technologies, thereby enhancing our understanding of biological mechanisms, identifying new therapeutic targets, and developing advanced diagnostic and therapeutic modalities. Recognising the importance of interdisciplinary collaboration, we aim to leverage the strong foundation in science and engineering of Peking University, along with its extensive clinical resources, to facilitate cross-disciplinary partnerships. This approach seeks to achieve significant breakthroughs and foster a world-leading discipline in clinical chemical biology.

Chemical Engineering

Emerging Chemical Engineering represents an innovative research domain within CCME, focusing on global challenges related to energy landscape and environmental sustainability. This field emphasises two primary areas: resource recycling and the efficient utilisation of renewable energy. Key research initiatives include the development of efficient catalytic technologies for unconventional carbon sources, such as carbon dioxide, biomass, and waste plastics, as well as the direct conversion of dinitrogen into valuable compounds. Furthermore, the integration of renewable electrical energy into chemicals through advanced electrochemical methods will enhance the efficiency and sustainability of industrial processes. These innovations are essential for achieving a sustainable future and meeting the global carbon neutrality target, positioning Emerging Chemical Engineering as a vital component of our commitment to the future of green technology and sustainable environment.