Advances in Quantum Chemical Topology Beyond QTAIM

Juan I. Rodríguez is a full professor at Instituto Politécnico Nacional-México since 2014. He obtained his PhD in quantum chemistry under the supervision of Prof. Paul Ayers developing efficient Density Functional Theory (DFT) numerical methodologies. He also worked with Prof. Richard Bader as a postdoctoral research assistant focusing on developing high performance algorithms for computing Bader's QTAIM properties of "big” CPU-time-prohibiting systems. These methods were implemented in the "Amsterdam Density Functional” package (ADF). Currently prof. Rodríguez and his research group uses DFT-QTAIM based calculations to study materials for technological applications in organic solar cells, hydrogen evolution catalyst, virus biosensors, water pollution, etc.
Fernando Cortés-Guzmán is a full professor at the Instituto de Química, Universidad Nacional Autónoma de México since 2008. He received his Ph.D. under Dr. Gabriel E. Cuevas González Bravo at UNAM. He also worked with Prof. Richard Bader as a postdoctoral research assistant focusing Metal-Ligand interactions. He focuses on the study of the evolution of specific interactions throughout a chemical process, both in the basal and excited state, using the local and integrated properties of scalar fields in order to understand and predict reactivity and molecular recognition.
James S. M. Anderson is an associate professor at Instituto de Química, Universidad Nacional Autónoma de México since 2019. He received his Ph.D. under Prof. Paul W. Ayers at McMaster University where he developed algorithms for finding exact solutions for the equations appropriate for quantum chemistry. He completed a postdoctoral stays with Prof. Takaharu Otsuka at the University of Tokyo, Prof. Wenjian Liu at Peking University, Dr. Seiji Yunoki at RIKEN, and Prof. Koichi Yamashita at the University of Tokyo. Currently Prof. Anderson and coworkers carry out research in: 1) Developing methods that accurately approximate the electronic structure of atoms, molecules, clusters, and chemical systems. 2) Developing computational facile models that provide intuition into a molecules or chemical system, with a strong preference for models that are derived directly from formal mathematics. 3) Using mathematical theorems and analytic solutions to model equations to gain insight into chemistry.