The interaction between specific genes and nutritional factors can play an influential role in embryonic development. Developing better means of identifying high-risk pregnancies and optimizing the use of nutritional factors to prevent preventable birth defects, and understanding the relationships between metabolic pathways and risk genes will have important relevance for a broad range of congenital birth defects.
Pediatric Oncology is a challenging specialized discipline in medicine concerned with diagnosing and treating children with cancer. Oftentimes, treating children with cancer involves very different strategies and medication than treatment for adults.
The regulation of gene expression has been the focus of many molecular biology and geneetic approaches to therapeutics for a variety of human diseases. The relatively recent discovery of RNA interference (RNAi) and small regulatory RNAs has dramatically changed the understanding of this importance regulation.
Most bacteria in their natural environments live on surfaces as slime-encased, biofilm communities and are quite resistant to environmental stresses such as harmful chemicals and antibiotics. While biofilms are the dominant form of growth of bacteria in nature, little is known about the biological factors that allow growth in biofilms.
Biological diversity, or biodiversity, is often defined as the variety of all forms of life, from genes to species, through the broad scale of ecosystems. Environmental conditions and variability often dictate the species distribution in a given ecosystem, thus playing an important role in the development of biodiversity. Please join Dr. Pantel as she discusses her recent research on the effects of environmental variability on the biological diversity of freshwater ponds.
Join the College of Science at the inaugural seminar in our Biological Sciences Distinguished Speaker Series as we welcome Schonna Manning, Ph.D., a research scientist from the Culture Collection of Algae at the University of Texas at Austin. Dr. Manning will share her exciting research about the use of algae as a promising source of pharmaceuticals, biomass, and biofuel. She will discuss various genetic and molecular biology techniques that her research utilizes to uncover the diversity of algae and its possible applications as a more environmentally-sensitive source for the world’s increasing energy demands.
DR. SCHONNA MANNING earned a Ph.D. in Plant Biology from the University of Texas at Austin in 2010, studying under Dr. John W. La Claire II, phycologist, molecular biologist, and microscopist. She also worked closely with Dr. Tom J. Mabry who is widely recognized for his contributions in the field of phytochemistry. During her time in the La Claire and Mabry laboratories, Dr. Manning’s doctoral research focused on the molecular biology and natural products chemistry of harmful bloom-forming algae. After graduation, Schonna worked as a Postdoctoral Fellow in the laboratory of Martin Poenie wherein her research focused on the characterization of lipids synthesized by microalgae relevant to the production of biofuels and nutraceutical applications. Currently, she is a Research Associate at UTEX, The Culture Collection of Algae at The University of Texas at Austin, evaluating algal productivity in large-scale bioreactors. Her research interests include expanding the characterization of algal metabolomes; interdisciplinary studies regarding the gene expression and synthesis of primary and secondary metabolites from algae; utilizing the remarkable diversity of algae for CO2 mitigation, and the production of pharmaceuticals, biomass, and biofuels. Dr. Manning has worked with algae and cyanobacteria for over 10 years and is a coauthor on numerous manuscripts and patents regarding the molecular biology, extraction, and chemical analysis of natural products from algae.