Ecology, Evolution, and Organismal Biology
Wetland Ecology
Robert D. Doyle, Ph.D.
The Doyle lab is interested in the structure and function of shallow water systems- especially wetlands. One focus of our lab is on rooted aquatic plants, including impacts of invasive plant species, species flood tolerance, plant competition and restoration of native communities for habitat. Additionally, we are interested in nutrient cycling- especially the process of nitrogen fixation as well as determination of bioavailable carbon within surface waters. We are interested in both basic and applied science issues related to wetland systems. More recently I’ve become involved with science education and outreach for K-12 as well as the general public.
Aquatic Microbial Ecology
Katelyn McKindles, PhD.
The McKindles Lab utilizes a combination of environmental sampling and lab culturing to explore fundamental ecological processes in aquatic microbial systems and applications for harmful algal bloom mitigation and control. Lab members will become familiar with molecular techniques such as PCR, qPCR, RT-PCR, DNA/RNA extraction, metagenomics and metatransciptomics. They will also learn how to sample in the field, generate novel model systems from the environment, and generate and maintain laboratory cultures.
Global Change, Aquatic Ecosystem Analysis
Stephen Powers, PhD.
Dr. Powers Lab at Baylor University studies global change, with emphasis on surface water bodies and watersheds, using data-intensive approaches to understand large-scale pattern and process. Interests include freshwater-climate interactions, watershed biogeochemistry, river-lake connections, environmental data synthesis methods, dams, seasonal cycles, and the “food-energy-water nexus.”
Limnology and Aquatic Biogeochemistry
J. Thad Scott, Ph.D.
The Scott lab conducts research on the reciprocal relationship between aquatic microorganisms (phytoplankton, bacterioplankton, periphyton) and their chemical environment across spatiotemporal scales from populations to ecosystems. Our work involves both basic and applied questions such as the role of diazotrophs in controlling the nitrogen pool of lakes and the causes and effects of harmful algal blooms, respectively. We are interested in applying limnology to understand general ecological patterns and processes in nature, and to understand how microbial biogeochemistry impacts human welfare through water quality.
EEO Faculty with Secondary Appointments in Biology
Mary Lauren Benton, Bioinformatics
The explosion of biological data generated in ever larger populations and across multiple -omic platforms holds great promise in understanding the how DNA sequence is tied to both genome function and disease risk. In addition, increasingly sophisticated experimental techniques requires the development of new computational approaches that can handle the scale of such data. The Benton Lab develops integrative computational approaches to mapping the relationship between gene regulatory sequences, gene expression levels, and disease risk.
Bryan Brooks, Environmental Health
Researchers in my group are engaged in interdisciplinary projects that often incorporate laboratory and field studies in aquatic, environmental and comparative toxicology, environmental risk assessment, and water resources research.
Ramon Lavado, Environmental Toxicology
Dr. Lavado is an environmental toxicologist that is working toward investigating biological mechanisms involved in the biotransformation of legacy compounds and advancing in vitro approaches to enable resource-efficient environmental monitoring of the aquatic system. His three main research areas within his overall program are: 1) advancement of in vitro approaches to enable efficient environmental monitoring and a reduction in the use of animals in toxicology; 2) endocrine disruption determination in wildlife associated with environmental pollutants; and 3) drug-metabolizing enzymes and their role in the biotransformation of contaminants of emerging concern and their metabolites in vertebrates, including fish and humans.
Cole Matson, Environmental Toxicology
Matson is an environmental toxicologist specializing in the genetic effects of contaminants on wildlife. His research focus is currently the genetic and developmental impacts of environmental contaminants on fish, with a particular interest in how environmental gradients affect the toxicity of nanomaterials and polycyclic aromatic hydrocarbons.
Ryan McManamay, Human-Environmental Systems
The McManamay Lab seeks to understand how humans alter landscapes and we seek to find balances between societal demands and ecosystem needs. We answer these questions through the lens of spatial analysis and modeling that integrates biophysical and socioeconomic systems. Our work includes aspects of resource assessments (e.g., renewable energy potential), land use and land cover change, hydrology, biogeography, ecosystem assessment, and decision-support, spans a number of scales, and includes both field and modeling.
Elizabeth Petsios, Invertebrate Paleontology
Broadly, my research interests lie in understanding ecological and evolutionary trends across dynamic periods in Earth’s history, as they relate to marine benthic invertebrate communities. Specifically, I am interested in ecosystem responses during interval of mass extinctions (e.g. the Permian-Triassic extinction) and mass radiations (e.g. the Mesozoic Marine Revolution), and I incorporate both paleobiological and paleoenvironmental data into understanding these events and their consequences.
Samuel Urlacher, Human Evolutionary Biology and Health
Members of the Urlacher Lab investigate the evolved bio-energetic pathways that drive variation in human development, metabolism & health. Our integrated field (e.g., Ecuador, Papua New Guinea, USA) and lab (e.g., stable isotope, immunoassay) research program spans the fields of human biology, behavioral ecology, evolutionary medicine, and global health. We are particularly interested in how children allocate calories between competing physiological tasks (e.g., growth, immune activity, brain development) and the impact of early adversity on lifetime metabolic disease risk.