Chem 451/651 Mechanisms of Organic Reactions. Dr. Paul Smith (T Th 10 – 11:15 am)
Area: Organic Chemistry. Methods used to determine the mechanisms of organic reactions and factors affecting reactivity are discussed, along with a limited survey of specific reaction types and practice using arrow-pushing formalisms.
Chem 490/684. RNA Structure and Function. Dr. Deepak Koirala (MWF 11 – 11:50 am)
Area: Biochemistry. This interdisciplinary course is designed for upper-level undergraduate and graduate students majoring in chemistry, biochemistry, or biology. It aims to offer students a thorough understanding of recent advancements and prospects in functional RNA structures. The course will encompass essential aspects of RNA structures, methods and approaches for RNA structure determination, functional and regulatory RNA systems, and the utilization of RNA in therapeutics, all based on the latest literature, focusing on practical applications. Upon successful completion of this course, students will demonstrate a comprehensive understanding of the roles of RNA structures in governing fundamental biological processes, the structural basis of biochemical reactions occurring at various stages of these processes, and the cellular functions regulated through RNA interactions with RNAs, proteins, small molecules, and metal ions. Additionally, students will be able to implement methods for studying RNA structures, analyze the roles of RNA from the origin of life and an evolutionary perspective, and utilize RNA structure-based techniques for medicinal and biotechnological applications. Furthermore, students will be able to evaluate published literature critically, identify current problems, and develop appropriate research strategies in RNA chemistry and biochemistry.
Chem 490/684. Advanced Materials. Dr. Zeev Rosenzweig (T Th 8:30 – 9:45 am)
The Advanced Materials elective course will focus on recent innovations in the field of materials chemistry. These include novel nanomaterials, 2D materials and biomaterials and their use in diverse applications ranging from consumer electronics to nano medicine. The course will cover recent developments in creating complex nanoarchitectures and hybrid materials to form greatly improved catalysts, batteries and sensors. The course will also cover efforts to produce sustainable and non-toxic materials without adversely impacting their functional properties. Pre-req: Chem 352
All elective courses listed above are approved for both CHEM and BIOC Majors.