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Research
Areas
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Developmental
and Behavioral Genetics
Faculty members working in this area constitute an especially diverse group. Graduate students can train in laboratories employing the most powerful of genetic model systems in animals (mouse and Drosophila), plants (Arabidopsis) or microbes toward investigating the molecular underpinnings of establishing a body plan, differentiation and specialization of cells, or behavioral responses to external stimuli. Students also have the opportunity to train in systems that have obvious connections to improving agricultural production. Additionally, students can explore the relationship between mutations and disease in humans or animals. Regardless of the research mentor, students in this area gain broad training in classical genetics, molecular genetics, and molecular biology, with specialized training in fields ranging from learning and memory, genomic analyses, anatomy, breeding, linkage analyses and regulation of gene expression. |
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FACULTY NAME |
RESEARCH DESCRIPTION |
| David Arnosti | regulation of transcription via transcriptional repressors during development of the fruit fly Drosophila |
| Wendy Champness | genetic basis for development and cellular differentiation in the fungus-like soil bacterium Streptomycetes |
| Todd Ciche | genetic basis of the interdependence of nematode and enteric bacteria for the establishment of successful infections of insects |
| Ke Dong | Molecular genetics, electrophysiology, and pharmacologyof insect voltage-gated sodium and calcium channels; molecular mechanisms of insecticide resistance. |
| Catherine Ernst | regulation of gene expression in developing mammalian skeletal muscle and adipose tissue |
| David R. Foran | Development and gene expression of forensically useful flies |
| Jianping Hu | genetic analysis of peroxisome functions in embryogenesis, photomorphogenesis, and other developmental pathways |
| Will Kopachik | gene regulation during development in mammals |
| Lee Kroos | regulation of gene expression during cellular differentiation of the soil bacterium Bacillus subtilis |
| Beronda Montgomery-Kaguri | genetic basis for photomorphogenesis in plants and cyanobacteria |
| Tao Sang | genetics of adaptation |
| Francis Trail | genetic and genomic analysis of gene expression and development of the mycotoxigenic fungus Gibberella zeae |
| Steve van Nocker | molecular basis for flowering and fruiting in the model plant Arabidopsis thaliana |
| Patrick Venta | genetics of canine diseases, breeding strategies for eliminating disease alleles in canine populations |
| Peter
Wolk |
genetic basis for development of heterocysts in the filamentous cyanobacterium Anabaena |