Events
Date 13 Aug 2026
Time 5:00 pm - 6:00 pm (HKT)
Venue Lecture Theatre P2, Chong Yuet Ming Physics Building
Speaker Prof. Xiaotian Qi
Institution College of Chemistry and Molecular Sciences,
Wuhan University
Self Photos / Files - 20260813_Prof. Xiaotian Qi Seminar Poster
 
Title:
Establishing the Radical Buffering Model via Computational Radical Chemistry
 
Schedule:
Date: 13th August, 2026 (Thursday)
Time: 5 - 6 pm (HKT)
 
Venue: Lecture Theatre P2, Chong Yuet Ming Physics Building
 
Speaker:

Prof. Xiaotian Qi

 
College of Chemistry and Molecular Sciences
Wuhan University
 
Abstract:
At present, radical chemistry is undergoing vigorous development, with reaction types becoming increasingly diverse and reaction mechanisms growing ever more complex. In particular, the interaction rules between radicals and metals remain unclear, as they are influenced by numerous factors that are difficult to quantify. Since joining Wuhan University and starting independent research in 2021, we have been dedicated to investigating radical coupling mechanisms and the factors influencing reactivity through theoretical calculations, especially the metal effects. The representative research achievements include: 1) Developing a quantitative steric-electronic effects dissection (QSED) model, enabling the quantification of steric effects, electronic effects, and dispersion interactions during bonding processes, thereby providing a quantitative tool for subsequent theoretical studies; 2) Proposing the regulatory effect of dynamic hydrogen bonding, revealing the significant role of non-covalent interactions in modulating radical bonding selectivity; 3) Establishing an original radical buffering mode for bond formation, emphasizing that the buffering interaction between metals and radicals directly influences radical bonding patterns, thereby opening up a new theory of radical bonding orthogonal to classical radical-polar crossover concept. These pioneering studies are pushing the boundaries at the mechanistic level and opening up fresh frontiers for the broader field of radical chemistry.

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