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#56, v3.0 Published:
#2404, v1.0 Published:

Title

Old VersionNew Version
1Bioinformatics - Investigating Sequence Similarity 1Developing a phylogram from computational resources.

Authors

Old VersionNew Version
1Adam Kleinschmit (Adams State University) 1Melanie Lenahan ()
2Benita Brink (Adams State University) 2Shea Cinquemani (Raritan Valley Community College)
3Steven Roof (Hampshire College) 3Melanie Lenahan ()
4Komal Vig (Alabama State University)   
5Carlos Christopher Goller (North Carolina State University)   
6Sabrina Robertson (NC State)   
7Hayley Orndorf (University of Pittsburgh)   

Description

Old VersionNew Version
1<p>This laboratory module, leads introductory biology students in the exploration of a basic set of bioinformatics concepts and tools. The exercise utilizes simple paper models to help students understand matrices and algorithms prior to use of web-based computational tools. Students start the module by defining sequence similarity and then investigating how similarity can be quantitatively compared between two similar length proteins using a BLOSUM scoring matrix. Students then consider finding local regions of similarity between a sequence query and subjects within a large database using BLAST. Lastly, students practice accessing FASTA formatted sequence information via NCBI databases as they collect sequences for a multiple sequence alignment in order to generate a phylogenetic tree.</p> 1<p>Introductory bioinformatics exercises often walk students through the use of computational tools, but often provide little understanding of what a computational tool does &quot;under the hood.&quot; A solid understanding of how a bioinformatics computational algorithm functions, including its limitations, is key for interpreting the output in a biologically relevant context. This introductory bioinformatics exercise integrates an introduction to web-based sequence alignment algorithms with models to facilitate student reflection and appreciation for how computational tools provide similarity output data. The exercise concludes with a set of inquiry-based questions in which students may apply computational tools to solve a real biological problem.</p>
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   3<p>In the module, students access text-based FASTA-formatted sequence information via National Center for Biotechnology Information (NCBI) databases as they collect sequences for a multiple sequence alignment using Clustal Omega to generate a phylogram and evaluate evolutionary relationships. The combination of diverse, inquiry-based questions, paper models, and web-based computational resources provides students with a solid basis for more advanced bioinformatics topics and an appreciation for the importance of bioinformatics tools across the discipline of biology.</p>
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   5<p><strong>CourseSource Citation</strong></p>
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   7<p>Kleinschmit, A., Brink, B., Roof, S., Goller, C., and Robertson, S.D. &nbsp;2019. Sequence Similarity: An inquiry based and &ldquo;under the hood&rdquo; approach for incorporating molecular sequence alignment in introductory undergraduate biology courses. CourseSource. <a href="https://doi.org/10.24918/cs.2019.5">https://doi.org/10.24918/cs.2019.5</a></p>

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Attachments

1 file — Version 2/S1.BioinformaticsActivity-StudentHandout.docx.docx 1 file — Sequence Similarity - Exercise 3_Cinquemani_Lenahan.docx
2 file — Version 2/S10. Zika Genomic Seqs instructor.txt 2 file — Sequence Similarity - Exercise 3_Cinquemani_Lenahan.pdf
3 file — Version 2/S2.BioinformaticsActivity-SuggestedSolutions.docx.docx 3 file — publication_1264_2596/sequence_sim.JPG
4 file — Version 2/S3. Bioinformatics Activity-BLAST Model.docx
5 file — Version 2/S4. Bioinformatics Activity-MSA Calculation Template.docx
6 file — Version 2/S5. Bioinformatics Activity-Cytochrome C Protein Sequences instructor.txt
7 file — Version 2/S6. Bioinformatics Activity-Cytochrome C Neighbor Joining.docx
8 file — Version 2/S7. Hominid ADH2 Protein Seqs student.txt
9 file — Version 2/S8. Hominid ADH2 Protein Seqs instructor.txt
10 file — Version 2/S9. Zika Genomic Seqs student.txt