BIO 315 Molecular Biology |
Fall 2010 |
All Reading Assignments* are from the texts: Molecular Biology of the Gene (MBG), Watson et. al., 6th ed. Calculations for Molecular Biology and Biotechnology, F.H. Stephenson, 2003, and distributed articles |
*Please Note: Reading Assignment code: textbook abbreviation, MBG, CMBB, then the chapter & page numbers in parentheses, e.g., MBG (1:31-35). See the CRAaP page for all reading assignments |
Please note: the organization and presentation of this course may be different than other science courses that you may have taken. In particular, note the following 5 points: 5. Optional Exercise: In order to answer the last question in part (4), you all will assist me in selecting the reading topics and exact page numbers from the texts for this course. |
And see: the CRAaP page for all Topics, Reading Assignments, OnePts, and Problems
LAB EXERCISES (the Practice) ‹—› LECTURES (the Theory) |
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1 |
Lab Check-in and introduction to the Lab Research Project and its exercises; organization of lab groups into assigned stations; pipet calibrations with calculations of standard deviations by the Excel program, and % error calculations (see detailed lab Schedule and Protocols (SaP) sheet/handout) |
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2 |
1. PCR Theory & Practice; 2. Primer Design and Analysis: Unique and degenerate Hox Gene Primers and “universal” unique rRNA Gene Primers; Making Pirmers Exercises for 'imaginary' and 'real' primres; Tm calculations by %GC, salt-adjusted, and nearest neighbor thermodynamics; BioMath Calculators; OligoCalculations ; Homeodomain resource ; (see detailed lab Schedule and Protocols (SaP) sheet/handout) |
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3 |
1. PCR and re-PCR of genomic DNA templates with unique rRNA and degenerateHox gene primers; 2. continuation of Lab#2 exercises: BLAST and in silico PCR; 3. start new Eukaryotic Gene Structure exercises (see detailed lab Schedule and Protocols (SaP) sheet/handout) |
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4 |
1. re-PCR of selected PCRs; 2. continuation of Eukaryotic Gene Structure exercises; start What Is a Homeobox? exercise; finish Tree of Life exercise; start and finish KEGG exercises with questions for HOXA1 |
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5 |
1. Introduction to Chimera; 2. Chimera Structural Bioinformatics Exercise on DNA & DNA-protein interactions |
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6 |
1. Cloning PCR products into the TOPO vector; 2.Transformation of Cloning Reactions into E.coli |
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7 |
Plasmid Isolation, Analysis by Spectroscopy (see SaP sheet) |
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8 |
1. Theory of electrophoresis; 2. AGE and sizing of PCR Products; Plasmid Analysis by AGE & REDs; sizing of inserts |
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9 |
Fall Break: Oct. 16-24 |
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10 |
1. Theory of capillary electrophoresis (CE) and Di-deoxy sequencing; 2. DNA cycle sequencing reactions and purifications |
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11 |
DNA Sequencing in the Beckman-Coulter automated sequencer; preliminary analysis of results |
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12 |
Detailed analysis of sequencing data and interpretations |
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13 |
Bioinformatics analysis of sequencing results |
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14 |
Thanksgiving Holiday: Wed. Nov. 24- Sun. 28 |
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15 |
Chimera Structural Bioinformatics Module |
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16 |
Work on final Lab Reports (see Final Labs Guide) |
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Dec. 10th, Friday - last day of classes; Final Exams = Monday Dec. 13 to Dec. 17 - Friday |
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