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Contact Us
Health Science Campus
Health Education Building & Center for Creative Education Building
BPG Computer Classroom: HEB 1st Floor, Room #127
Genomic Core Lab: HEB 2nd Floor, Room #200
BPG Office: CCE 3rd Floor, Lobby
Phone: 419.383.6883
Fax: 419.383.3251
Introduction to Bioinformatic Computation
UT- BPG course #: BIPG 6100/8100 - 3 cr
Prerequisites: BIPG 5100/7100 - Fundamentals of BPG (recommended)
Offered: Spring semester, Monday/Wednesday afternoons, room 127HEB
Course director: Dr. Alexei Fedorov, Dept. of Medicine, Director of Bioinformatics Lab, (419) 383-5270, Alexei.Fedorov@utoledo.edu. Dr. Fedorov's lab website can be viewed here.
Summary: Bioinformatics is a fundamental component of modern biomedical sciences.
Only computers have the capability to collect, organize, annotate, and process the
enormous amounts of information about the organization and structure of the biosphere.
Familiarity with a computer language is essential to those who seek expertise in bioinformatics.
The main goal of this course is to provide basic programming skills to biological
and medical students who may lack a background in computer sciences. Programming will
be taught using important biological examples. This course focuses in particular on
PERL because it is easy to acquire and is the most commonly-used language used in
genomics and database analysis. Since UNIX is the dominant platform in present-day
computational biology, students will be made familiar with UNIX environments, including
Linux and OSX. Each registered student will be given an account on the MUO Linux computer
cluster, the most powerful computer within the College. Hands-on programming experience
will be obtained in the Bioinformatics Computer Lab at UT. Students are encouraged
to bring their own problems and projects to work on during this course. In addition
to learning programming and other bioinformatic skills, the students of this course
acquire knowledge in how to present the final product of bioinformatic research and
how to write a scientific paper on the subject. This work resulted in the publication
of the articles listed below.* The major course objectives are to familiarize the
student with:
1. use of UNIX-based operating systems;
2. use of the PERL programming language in bioinformatic applications;
3. advanced use of key desktop applications (local BLAST, CLUSTALW, etc.);
4. database management;
5. object-oriented programming.
Grading: The course grade will be determined by performance on the midterm project
(50%), activities and commitment during labs (30%), and the final exam (20%).
Instruction: The course is primarily taught by the course director, with some lectures
from the faculty at the University of Toledo and Bowling Green State University.
Text: Schwartz & Christiansen, Learning Perl (3rd ed) and The Perl Cookbook (2nd ed),
O’Reilly http://www.oreilly.com/catalog/lperl3/
Syllabus for Computation Course: BIPG 6100 Syllabus, Spring 2013
END-OF-COURSE STUDENT EVALUATION FORM: please click here (pdf document)
After completion of the Computation course, please click on the above link, print
out the Evaluation Form, complete and return anonymously to:
Jo Anne Gray
BPG Program
3rd Floor CCE Building
Mail Stop: 1034
EDUCATIONAL PROGRAM OBJECTIVES (EPO's) for Computation Course
A BPG Graduate Student Will Be Knowledgeable
In the course of their educational program, students are provided the opportunity
to gain knowledge through instruction by content experts and by supervised participation
in research projects. Knowledge will be assessed by the student’s ability to define,
describe, and explain facts and concepts, as well as at higher levels of cognition
that will be measured by the ability to apply, analyze, and integrate content.
Before graduation, a student will have demonstrated to the satisfaction of the faculty:
K1. Knowledge of fundamental systems biology technologies, such as proteomics, genomics
and transcriptomics.
K2. Knowledge of algorithmic and statistical methods for analysis of nucleic acid
and protein sequences, such as hidden Markov models and Bayesian statistics.
K3. Knowledge of at least one modern computer programming language, such as PERL.
A BPG Graduate Will Be Skilled
The BPG curriculum provides a training environment in which research and teaching
skills are learned in concert
with the correlated knowledge. Students have the opportunity to gain these skills
under the supervision of a faculty
mentors with the advice and guidance of the student advisory committee, through direct
contact with content and/or
technical experts, and through direct participation in research projects.
Before graduation, a student will have demonstrated to the satisfaction of the faculty:
S1. The ability to perform procedures necessary for the completion of the student’s thesis (M.S.) research project(s).
S2. The ability to perform research productively as an individual or member of a research team.
S3. The ability to use electronic databases via automated scripting.
S4. The ability to retrieve biomedical information for solving problems that are relevant to the appropriate completion of a research project, and accurate reporting of the results.
A BPG Graduate Will Be Professional
The University of Toledo College of Medicine and the Biomedical Sciences Program recognize
the importance of role-modeling and directly training the professional conduct and
character of its students. The institution and the BPG Track devote curricular and
extracurricular time to the development of ethical standards humanistic and professional
behaviors by its students.
Before graduation, students will have met the following institutional and program standards:
P1. Respect for, and adherence to, all laws & regulations governing ethical use of computers and remote computational facilities.
P2. Respect for, and adherence to, the principles and legal responsibilities that govern responsible conduct of research.
Link to course page for registered students: not available at present
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