BIOINFORMATICS: A Practical Guide to the Analysis of Genes and Proteins. A.D. Baxevanis and B.F.F. Ouellette, Eds., Wiley-Interscience, NY, 1998. Supplementary readings for this course will consist of Chapter assignments from this text {CH#}, as noted below, as well as HTML and Adobe Acrobat (*.pdf) documents to be specified.
Week Date Lecture/Recitation 1 March 28th Course Overview
Overview of nucleic acid and protein structure and organization2 April 4th Information theory and the informational content of biomolecules (nucleic acids, proteins and polysaccharides)
Major databases relevant to the primary sequences of DNA, RNA, proteins and polysaccharides {CH1, CH2, CH5}3 April 11th Computer-aided analyses of genomic DNA: control elements, intron/exon assignments, etc.
Principles of global and local primary sequence alignments {CH7, CH8, CH10}4 April 18th Continuation of Lecture #3 (Dynamic Programming for sequence alignments)
Program suites for computer-aided recombinant DNA research, e.g., the Genetics Computer Group (GCG) {CH4}5 April 25th Genomics: an emerging resource for determining evolutionary relationships {CH13}
Special Projects List (Handout)6 May 2nd Consensus protein motif sequences: the structure and application of Prosite and related databases {CH8}
Secondary and higher order protein structure databases {CH11}7 May 9th Proteome Informatics: Approaches and applications of genome-encoded proteins
Protein Data Bank (PDB): the organization of PDB files for analyzing 3-dimensional biomolecular structures {CH13}8 May 16th Molecular model visualization and molecular "modeling-by-homology"-I {CH8, CH11}
Molecular "modeling-by-homology"-II9 May 23rd Bioengineering proteins by molecular "modeling-by-homology"
Student Recitations: Special Projects10 May 30th Student Recitations: Special Projects 11 June 6th Final Exam