STA 278/BGT 208: Gene Expression Analysis
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Schedule: | Spring 2004
|
Schedule: | 2:50-5:30pm, Mon
|
Place: | 130B North Building |
Instructors: | Joe Nevins, Department of Molecular Genetics & Microbiology
Mike West, Duke Statistics |
Prerequisites: Expertise and facility in molecular biology and genetics at the
level of BGT 203 & BGT 206 . Expertise and facilty in statistical
theory, methods and computation at the level of
BGT 200 & STA 244 -- students
must be proficient in statistics and computing at this level, including programming with applied
computing environments (Matlab, R/S-Plus) as well as in low level languages (C/C++ or Fortran).
Students will program either on the Duke Statistics system or on personal computers, the latter
involving download of the free R software and a number of related packages, an Matlab
installation under Duke site licenses (via the OIT web site) .
Coverage/Topics:
- Biological phenotypes
- Gene expression: principles, biology and biochemistry
- - gene structure
- - gene regulation
- - transcription
- - gene pathways
- - concept of steady state
- Gene expression: measurement, technology and applications
- - RNA isolation, hybridization
- - Northern analysis
- - RT-PCR
- DNA microarrays - technology, data and analytics
- - Oligonucleotide technologies (Affymetrix)
- - Printed cDNA and oligo arrays
- - Informatics aspects: data processing and scanning, data-basing,
data quality and evaluation
- Statistics and computation
- - graphical and numerical exploratory data analysis
- - multivariate analysis, classification and discrimination
- - prediction and regression analysis methods
- - factor analysis and data representation & reduction
- - data processing, imaging, normalization & other aspects of low-level
analysis
- Experimental generation of microarray data (wet lab component)
- - isolation of RNA from cell cultures
- - analysis of RNA quality
- Applications in
- - phenotyping: understanding genes implicated in clinical
and physiological outcomes
- - various applications in cancer phenotyping and pathway studies
- - pattern analysis in cell cycle regulations, and other areas
- - pathway exploration
- Statistical modelling
- - EM, search and MCMC methods for fitting statistical models
- - Statistical computing for non-linear and regularised regression
- - Survival analysis: e.g., predicting recurrence in cancer based on
gene expression profiles
- - Non-linear association, retrospective studies
- - Graphical models for visualisation and exploration
- Information systems and development of integrated tools
- - DIG information systems
- - Gene annotations and public data bases
- - Annotation access tools and connecting with statistical visualization
tools