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Science Education Abstracts

Click on the PubMed link below the abstract to view the article on PubMed

 

Science. 2011 Jan 14;331(6014):152-3

Science education. Changing the culture of science education at research universities.

Anderson, WA, CL Drennan, U Banerjee, SCR Elgin, IR Epstein, J Handelsman, GF Hatfull, R Losick, DK O’Dowd, BM Olivera, SA Strobel, GC Walker, IM Warner

Howard University, Washington, DC 20059, USA.

Professors have two primary charges: generate new knowledge and educate students. The reward systems at research universities heavily weight efforts of many professors toward research at the expense of teaching, particularly in disciplines supported extensively by extramural funding (1). Although education and lifelong learning skills are of utmost importance in our rapidly changing, technologically dependent world (2), teaching responsibilities in many STEM (science, technology, engineering, and math) disciplines have long had the derogatory label “teaching load” (3, 4). Some institutions even award professors “teaching release” as an acknowledgment of their research accomplishments and success at raising outside research funds.

PubMed

  PLoS One. 2011 Jan 27;6(1):e16329

Expanding the diversity of mycobacteriophages: insights into genome architecture and evolution.

Pope, WH, ….Elgin, SCR, …Hatfull, GF

Department of Biological Sciences, University of Pittsburgh, Pittsburgh, Pennsylvania, United States of America.

Mycobacteriophages are viruses that infect mycobacterial hosts such as Mycobacterium smegmatis and Mycobacterium tuberculosis. All mycobacteriophages characterized to date are dsDNA tailed phages, and have either siphoviral or myoviral morphotypes. However, their genetic diversity is considerable, and although sixty-two genomes have been sequenced and comparatively analyzed, these likely represent only a small portion of the diversity of the mycobacteriophage population at large. Here we report the isolation, sequencing and comparative genomic analysis of 18 new mycobacteriophages isolated from geographically distinct locations within the United States. Although no clear correlation between location and genome type can be discerned, these genomes expand our knowledge of mycobacteriophage diversity and enhance our understanding of the roles of mobile elements in viral evolution. Expansion of the number of mycobacteriophages grouped within Cluster A provides insights into the basis of immune specificity in these temperate phages, and we also describe a novel example of apparent immunity theft. The isolation and genomic analysis of bacteriophages by freshman college students provides an example of an authentic research experience for novice scientists.

PubMed

CBE Life Sci Educ. 2010 Spring;9(1):55-69

The genomics education partnership: successful integration of research into laboratory classes at a diverse group of undergraduate institutions.

Shaffer, C, C Alvarez, C Bailey, D Barnard, S Bhalla, C Chandrasekaran, V Chandrasekaran, HM Chung, D Dorer, C Du, T Eckdahl, J Poet, D Frohlich, A Goodman, Y Gosser, C Hauser, L Hoopes, D Johnson, C Jones, M Kaehler, N Kokan, O Kopp, G Kuleck, G McNeil, R Moss, J Myka, A Nagengast, R Morris, P Overvoorde, E Shoop, S Parrish, K Reed, E Regisford, D Revie, A Rosenwald, K Saville, S Schroeder, M Shaw, C Smith, G Skuse, M Smith, E Spana, M Spratt, J Stamm, J Thompson, M Wawersik, B Wilson, J Youngblom, W Leung, J Buhler, E Mardis, D Lopatto, SCR Elgin
Department of Biology, Washington University in St Louis, St Louis, Missouri, USA.

Genomics is not only essential for students to understand biology but also provides unprecedented opportunities for undergraduate research. The goal of the Genomics Education Partnership (GEP), a collaboration between a growing number of colleges and universities around the country and the Department of Biology and Genome Center of Washington University in St. Louis, is to provide such research opportunities. Using a versatile curriculum that has been adapted to many different class settings, GEP undergraduates undertake projects to bring draft-quality genomic sequence up to high quality and/or participate in the annotation of these sequences. GEP undergraduates have improved more than 2 million bases of draft genomic sequence from several species of Drosophila and have produced hundreds of gene models using evidence-based manual annotation. Students appreciate their ability to make a contribution to ongoing research, and report increased independence and a more active learning approach after participation in GEP projects. They show knowledge gains on pre- and postcourse quizzes about genes and genomes and in bioinformatic analysis. Participating faculty also report professional gains, increased access to genomics-related technology, and an overall positive experience. We have found that using a genomics research project as the core of a laboratory course is rewarding for both faculty and students.

PubMed

Science. 2008 Oct 31;322(5902):684-5

Undergraduate research. Genomics Education Partnership.

Lopatto, D, C Alvarez, D Barnard, C Chandrasekaran, H-M Chung, C Du, T Eckdahl, AL Goodman, C Hauser, CJ Jones, OR Kopp, GA Kuleck, G McNeil, R Morris, JL Myka, A Nagengast, PJ Overvoorde, JL Poet, K Reed, G Regisford, D Revie, A Rosenwald, K Saville, M Shaw, GR Skuse, C Smith, M Smith, M Spratt, J Stamm, JS Thompson, BA Wilson, C Witkowski, J Youngblom, W Leung, CD Shaffer, J Buhler, E Mardis, SCR Elgin

Grinnell College, Grinnell, Iowa, USA

The Genomics Education Partnership offers an inclusive model for undergraduate research experiences incorporated into the academic year science curriculum, with students pooling their work to contribute to international data bases.

 

PubMed
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Cell Biol Educ. 2005 Winter;4(4):291-7

Genome science: a video tour of the Washington University Genome Sequencing Center for high school and undergraduate students.

Flowers, S.K., Easter, C., Holmes, A., Cohen, B., Bednarski, A., Mardis, E.R., Wilson, R.K., and Elgin, S.C.R.

Department of Biology, Washington University, St. Louis, MO 63130, USA

Sequencing of the human genome has ushered in a new era of biology. The technologies developed to facilitate the sequencing of the human genome are now being applied to the sequencing of other genomes. In 2004, a partnership was formed between Washington University School of Medicine Genome Sequencing Center's Outreach Program and Washington University Department of Biology Science Outreach to create a video tour depicting the processes involved in large-scale sequencing. "Sequencing a Genome: Inside the Washington University Genome Sequencing Center" is a tour of the laboratory that follows the steps in the sequencing pipeline, interspersed with animated explanations of the scientific procedures used at the facility. Accompanying interviews with the staff illustrate different entry levels for a career in genome science. This video project serves as an example of how research and academic institutions can provide teachers and students with access and exposure to innovative technologies at the forefront of biomedical research. Initial feedback on the video from undergraduate students, high school teachers, and high school students provides suggestions for use of this video in a classroom setting to supplement present curricula.

PubMed

Cell Biol Educ. 2005 Fall;4(3):207-20

An inquiry into protein structure and genetic disease: introducing undergraduates to bioinformatics in a large introductory course.

Bednarksi, A.E., Elgin, S.C.R., and Pakrasi, H.B.

Department of Biology, Washington University, St. Louis, MO 63130, USA

This inquiry-based lab is designed around genetic diseases with a focus on protein structure and function. To allow students to work on their own investigatory projects, 10 projects on 10 different proteins were developed. Students are grouped in sections of 20 and work in pairs on each of the projects. To begin their investigation, students are given a cDNA sequence that translates into a human protein with a single mutation. Each case results in a genetic disease that has been studied and recorded in the Online Mendelian Inheritance in Man (OMIM) database. Students use bioinformatics tools to investigate their proteins and form a hypothesis for the effect of the mutation on protein function. They are also asked to predict the impact of the mutation on human physiology and present their findings in the form of an oral report. Over five laboratory sessions, students use tools on the National Center for Biotechnology Information (NCBI) Web site (BLAST, LocusLink, OMIM, GenBank, and PubMed) as well as ExPasy, Protein Data Bank, ClustalW, the Kyoto Encyclopedia of Genes and Genomes (KEGG) database, and the structure-viewing program DeepView. Assessment results showed that students gained an understanding of the Web-based databases and tools and enjoyed the investigatory nature of the lab.

PubMed

Science Education Publication Page

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