Current Level

 Modeling
 Seq Anal
 Theory
 Bioinformatics
 Mo Bio Lecture
 Mo Bio Lab

Previous Level

 BioWeb Home
 Classical
 Evol/Pop
 Human
 Microbiology
 Molecular
 Student Resour
 Teacher Resour
 Bioinformatics

Bioinformatics  BIO/MIC 440/540

The term bioinformatics is often used as a synonym for "biocomputing" or "computational biology".   This field uses computers to study living systems and applies computer science and information technology to biological problems.  Much of the data analyzed in bioinformatics is molecular in nature, i.e. the sequence of nucleotides in DNA or RNA, or the amino acids in a protein. Being able to manipulate and study this information is the basis for the current revolution in Biotechnology.  Students with a strong background in bioinformatics will have many job opportunities in both corporate and academic settings. This course also gives students an opportunity to see the relationships between biology, microbiology, chemistry and computer science.

J-term Syllabus        Spring Syllabus        Grading            J-Term Grades

Sites we will use often in class

 

Syllabus J-Term 2010

Format:

2 Credits.  4-1/2  hours per day, Jan 4-15.  150 Murphy            

Instructors:      

Unit 1          Mike Abler (Biology)                    abler.mich@uwlax.edu              785-6962

Unit 2          Mike Abler (Biology)                    abler.mich@uwlax.edu              785-6962

Unit 3          Mike Abler (Biology)                     abler.mich@uwlax.edu              785-6962

Unit 4          Todd Weaver (Chemistry)             weaver.todd@uwlax.edu           785-8269

 

UNIT 1     Introduction to Databases and Alignments

Mon., Jan 4 Lecture: Background in Molecular Biology/ Introduction to bioinformatics.

Lab: Sequence databases (Genbank & Swissprot, dbEST, 16S rRNA, etc).  Reference databases (PubMed, OMIM). Entrez.                                                     

Lecture: Theory behind database searches and sequence alignments. Biology Workbench.                                                                                                        

Lab: Homology searches (BLAST, FASTA, etc.)

Tue., Jan 5 Lecture: Theory behind database searches and sequence alignments (cont.).        

Lab: Sequence Alignments (BLAST 2 Sequences).

UNIT 2     RNA

Wed., Jan 6

Quiz 1        Quiz1                                                                                                                   

                    Lecture: Identification of organisms using SSU rRNA. Aligning multiple sequences.

                    Lab: Taxonomic databases (NCBI, 16S rRNA database). Multiple alignments  (CLUSTALW).       

Thurs., Jan 7 Take-home assignment 1 due.                                                                     

Lecture: Creating phylogenetic trees from SSU rRNA protein and DNA sequences.

Lab: Generation of phylogenetic trees. Design of species-specific probes.

UNIT 3     Genomes

Fri., Jan. 8 Quiz2                                                                                                                    

Lecture: Genome mapping, types of maps, use of molecular markers.                    

Lab: Contig assembly, using molecular markers, HapMap.                                            

Lecture: Using genomic DNA sequences to discover genes.                                   

Lab: ORF prediction and work with GENSCAN.

Mon., Jan. 11 Take-home assignment 2 due.

"J-Term Break"  

Lecture: Comparative genomics, study of entire genomes.                                    

Lab: Comparative genomics, alignments.

Tue., Jan. 12 Lecture: Functional genomics, microarrays.                                                          

Lab: Microarray analysis.

 

UNIT 4     Protein Structure

Wed., Jan. 13

                    Quiz3                                                                                                            

                    Lecture: Prediction of protein structure, protein families.                                       

                    Lab: Prediction of protein structure (secondary structure, membrane spanning, motifs). Alignment of multiple protein sequences (CLUSTALW). Prediction of protein activity (metabolic databases).

Thurs., Jan. 14 Take-home assignment 3 due.                                                                                

Lecture: Molecular modeling.                                                                              

Lab: Molecular modeling of protein families. Molecular modeling of the same protein from several species (Protein Explorer with multiple sequence alignment coloring).

Fri., Jan. 15 Lecture: Overview and review.                                                                            

Lab: Complete take-home assignment.                                                                   

Quiz4 and Take-home assignment 4 due.

             

 

Syllabus Spring 2012

Format:

2 Credits.  2:15- 5:20, Tuesday and Thursday, 150 Murphy Library (7-week course)             

Instructors:        

Unit 1-2           Bonnie Jo Bratina (Microbiology)      bbratina@uwlax.edu               785-6994

Unit 3              Nicholas Downey (Biology)               ndowney@uwlax.edu             785-6975

Unit 4              Anton Sanderfoot (Biology)               asanderfoot@uwlax.edu         785-8240

Date         Topic

                 Unit 1: Databases and Introduction to Alignments           

Jan.    24  Course overview; background in molecular biology, databases and alignments  

 

                 Unit 2: Phylogenomics using ribosomal RNA as model molecule

Jan.    26  Overview of phylogeny, identification of organisms using SSU rRNA.

Jan.    31  Aligning multiple sequences and high throughput sequencing     

Feb.      2  Creating and interpreting phylogenetic trees                                                                    

 

                 Unit 3: Genomics                                                              

Feb.      7  Quiz 1 (25 pt, Unit 1 & 2)

                 Genomes, mapping and gene discovery

Feb.      9  Comparative genomics; Take home project for Unit 2 due (50 pt)

Feb.    14  The transcriptome, mapping gene expression

Feb.    16  Introduction to the methylome

 

                 Unit 4: Proteomics/Reactomics/Metabolomics                  

Feb.    21  Quiz 2  (25 pt, Unit 3)

                 Introduction, signal transduction, protein structure and domains

Feb.    23  Protein interactions and docking of structures; Take home project for Unit 3 due (50 pt)       

Feb.    28  Examples of docking and comparisons to known structures

Mar.    1  Introduction to the “reactome” and building pathways

Mar.    6  Quiz 2  (25 pt, Unit 4)

                 Group work day to prepare for project presentations                   

Mar.     8  Group project presentations for Unit 4 (50 pt)

                                        

           

            Grading:

Quizzes                              25 points each (x3)

Unit projects                      50 points each (x3)

Lab exercises, cumulative points    20 points

                           Total              245 points

 

                  A      92-100%

                  AB    88-92%

                  B      81-88%

                  BC   77-81%

                  C      70-77%

                  D      60-70%

   

 
uwsa_l5

 © 2000-2008 The Board of Regents of the University of Wisconsin System.

Click here to email comments to Scott Cooper regarding this site or its links.