MMG104: Introduction to Recombinant DNA Technology

Coordinator: Stephanie Phelps

Offered each Spring  Section A: M & W 9:35 to 12:35

                                Section B: M & W 12:50 to 3:50

 

Introduction to the basic principles and techniques used in Recombinant DNA technology.  

 

      Techniques performed include:

Restriction digests

Yeast tetrad analysis and the halo assay

Electrophoresis

Yeast complementation and mating

Restriction mapping

Yeast 2-hybrid

Ligations

Mammalian cell subculturing

Bacterial Transformations

Eukaryotic transfections using GFP

Colony PCR

Fluorescent microscopy

Plasmid Isolation

PCR-RFLP analysis at 2 loci

Read a sequencing chromatograph

DNA profiling using 4 CODIS STRs

BLAST searches

Alu Element Insertion analysis at 2 loci

                                                                               

2009 Schedule

2009 Grading

MMG201: Molecular Cloning Lab

Coordinator: Stephanie Phelps

Offered each Fall      Section A: T & Th 1 to 5:15

                                Section B: M & W 11:45 to 3:50

 

An intensive one semester advanced laboratory course in which students will learn the fundamentals of recombinant DNA technology through the isolation and characterization of a eukaryotic gene. 

 

DNA/Cloning:

The plasmid containing a truncated p53 cDNA must be modified to clone in a full-length p53 driven by the GAL 1/10 promoter.

 

RNA:

To understand how p53 acts as a transcription factor and how it can have varying affinities for different enhancer sequences, the p53 plasmid and the enhancer/reporter plasmids will be transformed into yeast.  Total RNA will be isolated and analyzed for the amount of lacZ (reporter) mRNA made.

 

Protein:

We will examine the DNA binding domain (DBD) of p53 and how mutations introduced to that region can influence its ability to act as a transcription factor.  We will be mutagenizing the DBD via PCR and then recloning the full-length cDNA by homologous recombination in yeast.  Mutant and wild-type p53’s will be analyzed by Western blotting.

 

   Techniques performed include:

Restriction Digests

In-plate Β-Galactosidase Assay

Use of Purification Columns

Isolation of RNA from Yeast

Isolation of DNA from Gel

First Strand cDNA Synthesis

Ligations

Quantitative RT-PCR

Yeast Transformations

Liquid Β-Galactosidase Assay

Β-Galactosidase Assay on Media & Filter Lifts

Mutagenic PCR

Plasmid Isolation from Yeast

Isolation of Protein from Yeast

E. coli Transformations

Cycle Sequencing

Plasmid DNA Isolation

Sequence & Mutation Analysis

Making Yeast Competent Cells

Immunoprecipitation

Nucleic Acid Quantitation

SDS-PAGE Gels/Westerns

PCR

ECL Immunodetection

                                                                                               

2008 Schedule

2008 Grading

MMG 203: Mammalian Cell Culture in Molecular Biology

Coordinator: Stephanie Phelps

Offered Every Other Spring

        2009 – T & Th  11:30 to 3:45

Students will learn the basic principles and techniques of mammalian cell culture as well as cell and mammalian molecular genetics. 

        Techniques performed include:

Setting up a cell culture lab

Transfection with pEGFP-F

Medium making

FLOW analysis of the cell cycle

Cell subculturing

siRNA Transfection

Enumeration

Myoblast differentiation

Cell viability using PI and FLOW cytometry

Transfection with myoD

Growth curves

Indirect Immunofluorescence

Metaphase spreads & karyology

Cell fate switching: Making muscle into bone and making fat from fibroblasts

Mycoplasma detection

RT-PCR

Cryopreservation and thawing cells

Primary cell culture of Hair Follicles

 

 

2009 Schedule

 

2009 Grading

 

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Stephanie.Phelps@uvm.edu

Revised: February 2009