GCB/CIS 535: Introduction to Bioinformatics (Spring 2013) Course ...

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GCB/CIS 535: Introduction to Bioinformatics. (Spring 2013). Course Directors: Stephen Master, MD, PhD. Department of Pathology and Laboratory Medicine.
GCB/CIS 535: Introduction to Bioinformatics (Spring 2013) Course Directors: Stephen Master, MD, PhD Department of Pathology and Laboratory Medicine 613A Stellar-Chance Labs 215-898-8198 [email protected] Benjamin F. Voight, PhD Department of Pharmacology Department of Genetics 10-126 Smilow Center for Translational Research (SCTR) 3400 Civic Center Blvd 215-746-8083 [email protected] TAs: Varun Aggarwala Yih-Chii Hwang

[email protected] [email protected]

Guest Lecturers: Logan Everett Shane Jensen Kim Sharp Li-San Wang Maja Bucan

[email protected] [email protected] [email protected] [email protected] [email protected]

Location/Time: MW 10-11 AM F 10-11 AM

Lecture Lab

Office Hours: Steve Ben Varun Yih-Chii

Wed 11-12p Tue 12-1 PM By appointment Wed 4-5 PM By appointment Mon 3-4 PM By appointment

11-146 SCTR 11-146 SCTR 613A Stellar-Chance Labs 10-146 SCTR 10-146 SCTR 10-120 SCTR 1406 Blockley

Course web site: Available through Blackboard (https://courseweb.library.upenn.edu/)

Course Description: The course provides a broad overview of bioinformatics and computational biology as applied to biomedical research. Course material will be geared towards answering specific biological questions ranging from detailed analysis of a single gene through whole-genome analysis, transcriptional profiling, and systems biology. The relevant principles underlying these methods will be addressed at a level appropriate for biologists without a background in computational sciences. This course should enable students to integrate modern bioinformatics tools into their research program. Should I take the course? This course will emphasize hands-on experience with application to current biological research problems. However, it is not intended for computer science students who want to learn about biologically motivated algorithmic problems; GCB/CIS/BIO536 would be more appropriate for such individuals. The course will assume a solid knowledge of modern biology. An advanced undergraduate course such as BIO421 or a graduate course in Biology such as BIOL526 (Experimental Principles in Cell and Molecular Biology), BIOL527 (Advanced Molecular Biology and Genetics), BIOL528 (Advanced Molecular Genetics), BIOL540 (Genetic Systems), or equivalent, is a prerequisite. Equipment prerequisite: IMPORTANT To accommodate for an increasing demand for this class, we now require that all students bring a laptop to the lab session on Fridays. TAs will provide help with the material but you should be well versed with your own laptop and should be willing/capable to download and install free software off the internet. Grading: 3 HW (45%); Labs (15%); Project (30%); Class participation (10%) To be fair to all, late submission will be penalized: up to 2 days (10% off), up to 1 week (30% off) after 1 week (80% off). Reference Texts: As this is still a rapidly moving field, there is no textbook required for this course. We will rely on a combination of online material, lecture notes and powerpoint slides. Your best bet for any topic is often to see if there has been a recent tutorial published in a journal like PLOS Computational Biology. A link to these articles can be found at: http://www.ploscollections.org/article/browseIssue.action?issue=info:doi/10.1371/issue.pcol.v03. i02

In addition, the following books and online sources can serve as references: 1. Bioinformatics for Biologists, eds. Pavel Pevzner and Ron Shamir, Cambridge University Press, 2011. 2. Bioinformatics and Functional Genomics by Jonathan Pevsner (www.bioinfbook.org/). This compiles material used for a course at Johns Hopkins. 3. Bioinformatics for Dummies, by Jean-Michel Claverie, Cedric Notredame. This is a hands-on reference for bioinformatics analysis without any description of methods.

Date   9-­‐Jan   14-­‐Jan   16-­‐Jan  

Type   Lecture  Schedule  

Lecturer  

Lecture   Intro/Databases   Lecture   Stats  for  Bioinformatics   Lecture   Sequence  Alignment  

           

HW1  Distributed                           HW1  Due,     HW2  Distributed              

21-­‐Jan  

MLK  -­‐  No  Class  

23-­‐Jan   28-­‐Jan   30-­‐Jan   4-­‐Feb   6-­‐Feb   11-­‐Feb   13-­‐Feb  

Lecture   Next-­‐Gen  Sequencing  Technologies  and  Principles  of   Design   Lecture   Sequence  Alignment  for  Next-­‐Gen  Data   Lecture   Multiple  Sequence  Alignment   Lecture   Comparative  Genomics   Lecture   Tree  reconstruction   Lecture   Genomic  Variation  and  its  Discovery   Lecture   Analysis  of  Genetic  Variation  

Voight   Wang   Wang   Bucan   Wang   Voight   Voight  

18-­‐Feb  

Lecture   Gene  Expression  Analysis  -­‐  I  

Master  

20-­‐Feb   25-­‐Feb   27-­‐Feb  

Lecture   Gene  Expression  Analysis  -­‐  II   Lecture   Functional  Analysis   Lecture   Proteomics  

Master   Master   Master  

-­‐  

Due  Dates  

Master   Jensen   Voight  

SPRING  BREAK  

11-­‐Mar  

Lecture   Protein  Domains  and  families  

Master  

13-­‐Mar  

Lecture   Protein  Structure  Visualization  

Sharp  

18-­‐Mar   20-­‐Mar   25-­‐Mar   27-­‐Mar   1-­‐Apr   3-­‐Apr   8-­‐Apr   10-­‐Apr   15-­‐Apr   17-­‐Apr   19-­‐Apr   22-­‐Apr  

Lecture   Lecture   Lecture   Lecture   Lecture   Lecture   Lecture   Lecture   Lecture   Lecture   Lab   Lecture  

Motif  Discovery   Detecting  cis  regulatory  Modules   Transcription  Regulation  Analysis  

Everett   Everett   Everett  

microRNA  informatics   Systems  Biology  -­‐  I   Systems  Biology  -­‐  II   Data  Management  for  Informatics   Student  Presentations   Student  Presentations   Student  Presentations   Student  Presentations   Student  Presentations  

Voight   Master   Master   Master   -­‐   -­‐   -­‐   -­‐   -­‐  

Date  

Type  

Lab  Schedule  

11-­‐Jan   18-­‐Jan   25-­‐Jan   1-­‐Feb   8-­‐Feb   15-­‐Feb   22-­‐Feb  

Lab   Lab   Lab   Lab   Lab   Lab   Lab  

#1:  Seeking  biological  information  online   #2:  Introduction  to  R   #3:  Looking  for  functional  SNPs   #4:  Alignment,  BLAST,  Finding  homologs/orthologs   #5:  Building  phylogenies  from  alignments   #6:  Tools  for  the  analysis  of  Genetic  Variation   #7:  Interpreting  gene  expression  data,  Introduction  to  Mev  

1-­‐Mar  

Lab  

Project  Meeting  

15-­‐Mar  

Lab  

#8:Deducing  protein  structures  

22-­‐Mar  

Lab  

#9:  Discovering  novel  motifs  in  promoters  

5-­‐Apr   12-­‐Apr  

Lab   Lab  

#10:  microRNAs  and  their  targets   #11:  Constructing  regulatory  networks  

    HW2  Due,     HW3  Distributed              

        HW3  Due                   #11  Lab  HW  Due   Project  Due  

                               

Due  Dates  

   

-­‐   #1  Lab  HW  Due   #2  Lab  HW  Due   #3  Lab  HW  Due   #4  Lab  HW  Due   #5  Lab  HW  Due   #6  Lab  HW  Due   #7  Lab  HW  Due,     Prelim  Project  Proposal  

   

-­‐  

           

#8  Lab  HW  Due,     Project  Approval   #9  Lab  HW  Due   #10  Lab  HW  Due  

HW1  includes  –  Alignment,  data  bases,  tree  reconstruction   HW2  includes  –  Gene  expression,  functional  analysis,  protein  structure/proteomics   HW3  includes  –  Motif  discovery,  microRNAs,  networks