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THE CILIATE GENOMICS CONSORTIUM CGC is a National Science Foundation funded consortium of undergraduate student researchers and faculty members involved in the functional annotation of genes in ciliated protozoans. So far the consortium has concentrated on genes in Tetrahymena thermophila. To study the function of Tetrahymena genes, research modules have been developed for implementation as molecular biology class laboratory exercises to involve a large number of undergraduate students in original research. The experimental results produced by students are published on a database that is shared with the broader scientific community (http://tet.jsd.claremont.edu) Molecular Biology instructors can integrate these research modules into their regular molecular laboratory class time to teach basic cloning and genetic engineering techniques. Consortium Research Modules I. BIOINFORMATICS – A 1-2 week series of exercises to familiarize students with basic gene structure and use of sequence databases to investigate putative gene function. Oligonucleotides to use as primers in subsequent cloning molecules are designed. II. GENE TAG CONSTRUCTION (GTC) – A 11-13 week series of cloning exercises that teach basic cloning and genetic engineering techniques in context of making constructs that fuse genes of interest to common protein tags. Tags Green fluorescent protein (GFP) – for protein localization in live cells Yellow fluorescent protein (YFP) – for protein localization in live cells Cyan fluorescent protein (CFP) – for protein localization in live cells 2xHA – for protein localization in fixed cells by immunoflourescence, and analysis of protein complexes by immunoprecipitation FLAG-HIS6 – for purification of protein and/or analysis of protein complexes In this module, students will be able to transform their constructs into Tetrahymena and visualize their tagged proteins by either direct fluorescence microscopy (GFP, YFP, CFP tags) or by immunofluorescence/immunoblotting (2xHA & FLAG-HIS). These activities can also be carried out by students in cell biology class laboratories. III. KNOCKOUT CONSTRUCTION (KOC) – A 13-lab series of cloning exercises applying basic cloning and genetic engineering techniques toward the generation of gene knockout constructs. Within this period of time students will be able to make a gene knockout construct. Transformation of the construct and selection of the transformants is performed outside of this module. Once transformants are obtained they can be analyzed for phenotypes by future students in other classes such as cell biology. IV. GENE EXPRESSION ANALYSIS (GE) – A 3-lab module in which students analyze expression of a Tetrahymena gene throughout the life cycle, or in response to different treatments. THE TETRAHYMENA GENOMICS IN THE CLASSROOM WORKSHOP This workshop brings together undergraduate teaching faculty from a variety of institutions to learn how to integrate and implement the Tetrahymena genomics research modules in their classrooms. The hope is that this workshop will provide the practical foundation, collegial support, and materials necessary to increase the number of undergraduates engaging original research on the function of Tetrahymena genes at the participating institutions. Students and faculty involved in this research effort may publish their experimental results on a common database, which is accessible to the broader scientific community, and which facilitates scientific communication between members of the consortium.