Electron spin, the quantum of angular momentum inherent in all elementary particles, plays a pivotal role in determining the assembly or growth, as well as the multifunctional properties of matter. Our group is dedicated to advancing our understanding of the role of spin in shaping molecular framework materials, such as magnetic metal-organic frameworks (MOFs), covalent organic frameworks (COFs) as well as spin crossover materials, and its fundamental impact on their multifunctional properties.

Magnetic and Electrical Properties of MOFs.

By integrating spin chemistry into the design of MOFs, we are unlocking new pathways to control their magnetic and electrical characteristics. Our team is dedicated to fine-tuning the charge transfer and spin states at the molecular level through external stimuli. This precise control over electric permittivity, conductivity, and magnetism holds promise for the development of innovative molecular spintronic devices.

Catalytic Performance of MOFs and COFs.

Catalytic processes are influenced by a multitude of complex factors, among which the role of electron spin in the catalytic activity and selectivity of molecular frameworks recently stands out as a particularly intriguing area of study. We seek to understand the role of electron spin in the catalytic activity and selectivity of molecular framework, aiming to establish new principles for spin-based catalysis, transforming industrial chemical processes.

Growth and characterization of Chiral molecular framework.

Chirality is a crucial factor in many biological and chemical processes. Our research is dedicated to synthesis of chiral molecules that involves the use of chiral building blocks or chiral catalysts to guide the assembly process. The ability to tailor these chiral structures for functional properties could lead to significant advancements in technology and medicine.