Molecular Biology and Genetics
Marcel P. Bruchez
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Charles A. EttensohnProfessorThe Ettensohn laboratory studies complex gene regulatory networks that underlie embryonic development and uses gene knockdown techniques to dissect the developmental functions of genes.Faculty Webpage |
N. Luisa Hiller
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Jonathan W. JarvikAssociate ProfessorIn the Jarvik laboratory, viral vectors are used to create mammalian cell lines expressing reporter-tagged proteins that exhibit native regulation while retaining native biochemical and structural integrity.Faculty Webpage |
Adam D. LinstedtProfessorThe Linstedt group is investigating molecular mechanisms that establish and maintain the membrane-bounded compartments of the secretory and endocytic pathways. Approaches include permeabilized cell assays, biochemical reconstitutions, cell imaging techniques and molecular genetic experiments.Faculty Webpage |
A. Javier LópezAssociate ProfessorThe Lopez group employs genetic, genomic, and molecular approaches in Drosophila to characterize regulatory mechanisms for alternative splicing and how they influence development. The role of recursive splicing in the expression and evolution of large transcription units are principal areas of study.Faculty Webpage |
Brooke M. McCartneyAssociate ProfessorIn the field of developmental genetics, the McCartney laboratory uses the powerful genetic tools available in Drosophila to investigate questions of signal transduction and cytoskeletal organization.Faculty Webpage |
C. Joel McManusAssistant ProfessorThe McManus group studies the structure and function of RNA sequences that regulate alternative splicing and mRNA translation using molecular biology and genetics techniques. We are also investigating the genetic mechanisms of gene regulatory network evolution.Faculty Webpage, Laboratory Website |
Jonathan S. MindenProfessorResearchers in the Minden laboratory are using genetics and molecular biology approaches to study to role certain genes and proteins play in controlling how cells change shape during Drosophila embryogenesis. They are also using the same methods to study early protein changes during developmentally regulated cell death.Faculty Webpage |
Aaron P. MitchellProfessorThe Mitchell laboratory applies new gene disruption and overexpression strategies to identify C. albicans genes that govern pathogenesis and to understand their functional relationships, and to understand the mechanistic relationships in a fungal endosome-associated signal transduction pathway.Faculty Webpage |
Manojkumar A. Puthenveedu
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Russell S. SchwartzProfessorThe Schwartz laboratory is developing of mathematical models and computational methods for analyzing genetic polymorphism data, and applying them to problems in intraspecies phylogenetics and detecting correlations between genotype and phenotype. In addition, they are developing new methods for reconstructing evolutionary histories of cell lineages in cancers.Faculty Webpage |
John L. WoolfordProfessorThe Woolford group is studying the biogenesis of ribosomes in yeast. They have been developing methods for purification and characterization of ribosome assembly intermediates. Both site-directed mutagenesis as well as genome-wide genetic screens and selections are being employed to identify networks of physical and functional interactions necessary for biogenesis of ribosomes.Faculty Webpage |
Eric XingAffiliated Biological Sciences Faculty
Eric Xing develops statistical models and machine learning algorithms for biological network inference and characterization, cis-regulatory module decoding, regulatory evolution modeling, quantitative trait locus mapping, genome polymorphism patterning, and population genetic analysis. He is also applying these quantitative approaches to investigate the mechanisms of breast cancer development and metazoan morphagenesis. |

