https://sites.temple.edu/beaudry/
Once developed, we will use these methods for the synthesis of a variety of complex natural products. Specific areas of interest include nitrogen-rich alkaloids, enantioselective catalysis, chirality of organic molecules, cascade processes, radical reactions, and organometallic chemistry.
https://cst.temple.edu/
Prestigious scientific journal Nature has named an article about Temple-built genomics software among the top 100 most cited scientific works in history. In 2014, Laura H. Carnell Professor of Biology Sudhir Kumar joined Temple’s College of Science and […]
https://cst.temple.edu/directory/sarah-wengryniuk
Our lab aims to develop a multifaceted research program focusing on asymmetric methods development and natural product synthesis as the means for fueling biological investigations.
https://sites.temple.edu/beaudry/dr-beaudry/
His group works in the area of synthetic chemistry, natural products, biology and catalysis.
https://pharmacy.temple.edu/magidabougharbia
The group’s research further focuses on: (a) the use of receptor homology, bioisosteric replacement strategies, rational and structure-based drug design approaches; (b) utilizing natural products as a unique resource for discovering innovative therapeutics; (c) applying enabling technology platforms and in vitro ADME to evaluate drug-like ...
https://cst.temple.edu/events
Karl A. Scheidt: Discoveries, Detours and Destinations: Synthesis of the Secaloside Natural Products Natural products remain enduring sources of molecular inspiration, offering both unparalleled […]
https://tyler.temple.edu/directory/sasha-w-eisenman-phd
Sasha Eisenman is a botanist and horticulturist with a diverse portfolio of research projects. Currently, his primary area of research is on the survival, health and ecophysiological responses of plants in green infrastructure systems (tree trenches, bioswales and rain gardens).
https://www.temple.edu/academics/degree-programs/chemistry-phd-st-chem-phd
Organic Chemistry focuses on chemical synthesis, organic reaction mechanisms, as well as synthetic methods of development (e.g., silicon and hypervalent iodine reagents), organometallic chemistry and radical chemistry.
https://www.temple.edu/academics/degree-programs/biotechnology-psm-st-biot-psm
From biofuels to drug discovery and emerging diseases to environmental remediation, this professional program prepares students to not only understand biomolecular and cellular processes, but to be leaders in the development of new products and technologies.
https://events.temple.edu/calendar-list
Join us for an interactive workshop focused on self-care and community support. Natural products remain enduring sources of molecular inspiration, offering both unparalleled structural complexity and challenges that drive the d. Please use the following link for more details about this in-person event...