Genomics, Systems Biology & Bioinformatics
Molecular Data Integration and Computational Modeling
Course Overview
This course provides a conceptual and computational framework for analyzing molecular data across biological scales, from genome to transcriptome to systems-level organization.
The focus is on understanding how genetic and environmental variation influence molecular phenotypes and complex traits through modern high-throughput technologies and statistical modeling.
The course integrates biological interpretation, statistical methodology, and practical implementation in R.
Core Themes
The material is organized around five interconnected themes:
- Molecular Technologies
- DNA sequencing technologies
- Genotyping platforms
- RNA-seq and transcriptomics
- Epigenomic and multi-omics profiling
- DNA sequencing technologies
- Genomic Association and Mapping
- GWAS principles
- Population structure and confounding
- Fine-mapping
- Functional annotation
- GWAS principles
- Multi-Omics Integration
- Transcriptome-wide association
- eQTL and regulatory variation
- Integrative modeling across data layers
- Transcriptome-wide association
- Systems-Level Modeling
- Gene regulatory networks
- Pathway analysis
- Network-based interpretation
- Causal modeling concepts
- Gene regulatory networks
- Computational and Statistical Methods
- High-dimensional regression
- Regularization and shrinkage
- Machine learning approaches
- Reproducible workflows in R
- High-dimensional regression
Learning Objectives
After completing the course, students should be able to:
- Explain how sequencing technologies generate molecular data
- Evaluate appropriate statistical models for genomic data
- Analyze high-dimensional datasets using R
- Interpret GWAS and fine-mapping results
- Integrate multi-omics datasets conceptually and computationally
- Connect molecular variation to complex phenotypes
Structure of the Book
The course progresses from molecular data generation to systems-level interpretation.
Each chapter includes:
- Conceptual background
- Statistical framework
- Applied examples
- Executable R code
- Visualizations and case studies
Students are encouraged to actively reproduce analyses and explore parameter choices to deepen understanding.
Prerequisites
Students are expected to have:
- Basic molecular biology knowledge
- Introductory statistics
- Familiarity with R
Prior exposure to linear models and quantitative genetics is beneficial but not required.
Recommended Use
This material is designed to support:
- Lecture-based instruction
- Computational lab sessions
- Project-based learning
- Independent exploration of genomic datasets
Emphasis is placed on connecting biological mechanisms with statistical modeling in a reproducible framework.