Drosophila Finishing Problem Set
Students can practice using Consed by working on two Drosophila projects. This exercise poses various challenges that students may encounter when working on their own projects.
Students can practice using Consed by working on two Drosophila projects. This exercise poses various challenges that students may encounter when working on their own projects.
This document illustrates how students can apply the sequence improvement protocol described in the “Sequence Improvement Protocol for GEP Hybrid Assembly Projects” document to specific problems in a D. biarmipes sequence improvement project. Specifically, the walkthrough describes techniques for correcting consensus errors and for closing gaps.
This exercise was developed by Dr. Anya Goodman (California Polytechnic State University) and Dr. James Youngblom (California State University, Stanislaus). This exercise engages students in annotating genomic DNA from less famous species of Drosophila while teaching basic bioinformatics skills.
Dr. Justin R. DiAngelo (Penn State Berks) has developed an exercise that takes students through a series of steps to annotate a gene in a Drosophila biarmipes contig. Students will construct a gene model using gene predictions, BLASTX searches, and the GEP UCSC Genome Browser mirror. Students will then verify their final gene model using the Gene Model Checker.
Dr. Marian Kaehler (Luther College), in collaboration with Jacob Jibb, has written an annotation lab. This lab will ask students to annotate a gene from the D. erecta genome.
An introductory exercise using BLAST to annotate a region in the Drosophila melanogaster genome. Students can use this exercise to gain familiarity with performing BLAST searches and interpreting BLAST output. An answer key is provided for instructors.