The Functional Molecular Materials Group focuses on the design and synthesis of functional molecular systems with tailored optical, electronic, and responsive properties. We aim to investigate how molecular structure, electronic communication, and intermolecular interactions govern function, and use these structure–property relationships to develop molecules and materials for emerging applications.
Our work integrates molecular design, synthesis, characterization, and structure-property relationships, with device studies and interdisciplinary collaborations where appropriate. By connecting fundamental molecular chemistry with functional applications, we aim to develop new molecular systems that bridge chemistry, electronics, photonics, and biological science.
Our research begins with the rational design and synthesis of functional molecules, including organic, organometallic, and inorganic–organic hybrid systems. By controlling molecular architecture, electronic structure, and interactions between molecules, we aim to create systems with specific optical, electronic, redox, and stimuli responsive properties.
A central goal of our research is to understand how molecular structure translates into measurable function. Through spectroscopy, electrochemistry, structural characterization, and electronic studies, we establish structure–property–function relationships that provide design principles for developing new functional molecular materials.
We explore these molecular systems across three interconnected areas:
Optoelectronics: molecular systems for light absorption and emission, sensing, and related photonic technologies.
Molecular Electronics: molecules for single-molecule charge transport and molecular-scale electronic devices.
Translational Applications: functional molecules for sensing, imaging, and other emerging biological applications.