omics.co.in logo omics.co.in
🧬 Complete 18-Chapter Curriculum Beginner • Intermediate • Advanced Bulk & Single-Cell • DESeq2 • GSEA • WGCNA • Seurat v5 • Undergraduate | Postgraduate | Faculty & Staff | Scientists & Researchers

Transcriptomics for Biomedical Research

Unlocking the Secrets of Gene Expression: Empower Your Biomedical Research with Practical RNA-seq Data Analysis Skills

Master modern transcriptomic analysis from physical sequencing principles to single-cell resolution. Covers study design, public data mining (GEO/TCGA), expression normalization, exploratory PCA, DESeq2 modeling, publication visualizations, GSEA pathway enrichment, STRING network biology, WGCNA co-expression, unsupervised machine learning, and complete 10x Genomics Seurat v5 single-cell workflows.

Start Chapter 1 → Single-Cell Specialization → Practical Genomics → 18 Modules • Beginner → Intermediate → Advanced

Curriculum Modules

Click on any module below for deep-dive production code, mathematical derivations, reproducible pipelines, and figures.

18 Comprehensive Chapters
Chapter 1 Beginner: NGS Principles

Chapter 1: Next-Generation Sequencing Technology: Types, Principles & RNA-Seq File Formats

Illumina SBS, DNBSeq, PacBio HiFi & ONT direct RNA sequencing, Poly(A) vs Ribo-Zero library prep, and FASTQ, BAM, GTF & count matrix structures.

Explore Chapter 1 →
Chapter 2 Beginner: Study Design

Chapter 2: Biomedical Literature Mining, Experimental Study Design & Statistical Power

Designing robust transcriptomic experiments: biological vs technical replicates, confounding batch control, and statistical power modeling with RNASeqPower.

Explore Chapter 2 →
Chapter 3 Beginner: Repositories

Chapter 3: Open Biomedical Repositories: GEO, TCGA, GDC & SRA Data Extraction

Programmatic retrieval of public RNA-Seq cohorts using GEOquery and TCGAbiolinks across clinical oncology and disease datasets.

Explore Chapter 3 →
Chapter 4 Beginner: Metadata

Chapter 4: Clinical Metadata Handling, Patient Cohort Filtering & Pivot Table Exploration

Wrangling clinical annotations, sample sanitization, factor level recoding, cohort contingency tables, and count-matrix alignment.

Explore Chapter 4 →
Chapter 5 Beginner: Normalization

Chapter 5: Expression Count Normalization, Library Sizing & Log Transformation

Mathematical formulations of CPM, RPKM, FPKM, TPM, DESeq2 median of ratios, edgeR TMM, and variance-stabilizing transformations (VST).

Explore Chapter 5 →
Chapter 6 Beginner: EDA & PCA

Chapter 6: Exploratory Data Analysis & Dimensionality Reduction: PCA, MDS & t-SNE

High-dimensional transcriptomic exploration: Principal Component Analysis (PCA), Scree plots, Multi-Dimensional Scaling, and non-linear t-SNE.

Explore Chapter 6 →
Chapter 7 Beginner: Stat Screening

Chapter 7: Preliminary Statistical Tests & Spreadsheets: t-Tests, FDR & Volcano Screening

Student/Welch t-tests, Mann-Whitney U, multiple testing correction with Benjamini-Hochberg FDR, and building differential expression spreadsheets.

Explore Chapter 7 →
Chapter 8 Intermediate: DESeq2

Chapter 8: Differential Gene Expression Analysis with DESeq2: Negative Binomial GLMs

Dispersion shrinkage, Empirical Bayes estimation, complex multi-factor design formulas, Wald tests, LRT, and apeglm log2 fold change shrinkage.

Explore Chapter 8 →
Chapter 9 Intermediate: Visualization

Chapter 9: Publication-Quality DEG Visualizations: Enhanced Volcano, MA Plots & ComplexHeatmap

High-impact journal graphics: customized EnhancedVolcano plots, MA diagnostics, and ComplexHeatmap clustering with multi-track clinical annotations.

Explore Chapter 9 →
Chapter 10 Intermediate: Pathways

Chapter 10: Pathway Annotation & Functional Over-Representation: DAVID, Reactome, KEGG & iLINCS

Hypergeometric over-representation testing, Gene Ontology (BP/MF/CC), Reactome/KEGG signaling cascades, and drug repurposing signatures with iLINCS.

Explore Chapter 10 →
Chapter 11 Intermediate: GSEA

Chapter 11: Gene Set Enrichment Analysis (GSEA) & clusterProfiler Workflows

Subramanian GSEA algorithm, MSigDB Hallmark signatures, running enrichment scores, multi-pathway dotplots, ridgeplots, and cnetplot network graphs.

Explore Chapter 11 →
Chapter 12 Intermediate: Networks

Chapter 12: Molecular Interaction Networks: Cytoscape, STRING, GeneMANIA & X2K

Protein-protein interaction (PPI) topology, hub bottlenecks, Cytoscape programmatic styling with RCy3, and upstream kinase/TF discovery with X2K.

Explore Chapter 12 →
Chapter 13 Advanced: WGCNA

Chapter 13: Correlation & Regression Analysis in RNA-Seq: WGCNA Co-Expression Modules

Pairwise gene correlations, scale-free topology soft thresholding, Topological Overlap Matrix (TOM), Dynamic Tree Cut, and clinical trait association.

Explore Chapter 13 →
Chapter 14 Advanced: Machine Learning

Chapter 14: Unsupervised Machine Learning: Hierarchical Clustering & Consensus Subtyping

Dissecting patient heterogeneity with ConsensusClusterPlus, PAM50 validation, silhouette scoring, and Kaplan-Meier clinical survival association.

Explore Chapter 14 →
Chapter 15 Advanced: scRNA-Seq QC

Chapter 15: Introduction to Single-Cell RNA-Seq: 10x Genomics, Cell Ranger & Quality Control

Droplet-based scRNA-Seq microfluidics, Cell Barcode/UMI deduplication, Cell Ranger count pipelines, and empty droplet vs doublet filtering.

Explore Chapter 15 →
Chapter 16 Advanced: Seurat v5

Chapter 16: Single-Cell Analysis Workflow: Seurat v5, SCTransform, Clustering & UMAP

Modern Seurat v5 layer architectures, SCTransform variance stabilization, HVG detection, SNN graphs, Louvain/Leiden modularity, and 2D UMAP projections.

Explore Chapter 16 →
Chapter 17 Advanced: sc Markers

Chapter 17: scRNA-Seq Differential Expression, Marker Prioritization & Label Assignment

Cell-level differential expression with Wilcoxon & MAST, cellular detection rate adjustments, marker ranking, and multi-gene DotPlot/Violin visualizations.

Explore Chapter 17 →
Chapter 18 Advanced: Cell Annotation

Chapter 18: Automated Cell Type Annotation (SingleR, Azimuth, CellTypist) & Functional Analysis

Reference-based automated label transfer with SingleR and Azimuth, prediction scores, pseudobulk differential expression, and cell-cell communication modeling.

Explore Chapter 18 →