Dr. Gregory Robinson, UGA Foundation Professor of Chemistry, is the lead faculty member coordinating the University of Georgia's participation in a comprehensive effort to increase faculty diversity and the use of inclusive teaching practices in STEM fields. Robinson is part of a team composed of UGA faculty, staff, and administrators working with the IChange Network to spearhead this initiative.

This 2020-2021 academic year serves as the inaugural year for the First-Year Peer Mentoring Program coordinated by both the Department of Chemistry and the Chemistry Graduate Student Organization (CGSO).  This program was designed to help integrate and acclimate incoming first-year chemistry graduate students to a graduate career in the UGA Chemistry Department. It aims to serve first-year students primarily in three areas: graduate coursework, teaching assistantships, and selection of a research group/PhD committee.

Doped or functionalized silica thin films are highly desirable technologies for many chemical applications. Current procedures for doping can be costly, environmentally unfriendly, require many synthetic steps, or have low doping efficiency. Kinetic doping is a technique for loading guest molecules into sol-gel thin films that involves introducing guest molecules into a still-evolving film, allowing them to be entrapped by the growing silica network developed by the Yip lab.

Excitation of light-harvesting pigment-protein complexes is the first step in photosynthesis. The absorbed energy is transferred to reaction centers where it is used to fuel biological processes. Pump-probe and time-resolved fluorescence spectroscopy have been traditionally used to study the energy flow within these systems. However, in the past decades two-dimensional electronic spectroscopy (2DES) emerged as a powerful technique for detailed study of the ultrafast energy transfer within photosynthetic systems.

Striking transformations in the chemical complexity of the Earth's atmosphere have led to a multitude of pathways to aerosol formation. Likewise, the search for more efficient fuels and engine designs has resulted in similar increases in the composition of combustible fuels. These changes present opportunities to the scientific community to develop a molecular-scale understanding of the available chemical pathways in both environments.

Excellent progress is being made on the construction of the new STEM-1 (Science, Technology, Engineering, and Mathematics) building.  The project will eventually include the construction of two buildings, each of which will be 100,000 square feet in size. The buildings will be adjacent to each other, with a skybridge joining them.

Phorbol, a Tigliane natural product first isolated in 1934 by Dr.Flaschenträger and Dr. Wolffersdorff, drove 17 research groups to develop the synthesis of it for over 30 years and report over 40 synthesis papers because of their potent biological activities to promote the tumor by activation of the protein kinase C and the anticancer activity.  The structure of the phorbol, first determined by Dr. Heck in 1967, was a congested tetracyclic skeleton with both cyclopropane cis link to a fully asymmetric center ring.

Bond formation via metal-catalyzed selective C–H functionalization is well appreciated and often relies on the directing capability of the substrate. That is, the appropriate positioning of a Lewis basic functional group can present the metal catalyst center at a specific site, enabling activation of otherwise unreactive C–H bonds. The Lewis basicity of alcohols can be exploited to impart directing capabilities allowing for the capacity to induce metalation.