Single Cell RNA-seq Analysis Workshop
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Key Papers, Reviews & Benchmarks

A curated reading list spanning cross-cutting foundations and every module topic, with head-to-head method comparisons flagged so you can find them fast.

A reading list, not required reading. Papers tagged (benchmark) compare methods head-to-head — start there when you need to choose a tool rather than learn one. Each topic links to its workshop chapter; every chapter’s “Going further” section points back here.

Start here — cross-cutting foundations

Read these few first; each builds on the previous and frames the rest of the field.

Paper Why it matters
Tang et al. 2009, Nature Methods The first single-cell RNA-seq experiment. Useful historical context.
Macosko et al. 2015, Cell Drop-seq — the droplet-based throughput leap.
Zheng et al. 2017, Nature Communications The 10x Chromium platform paper; describes the chemistry the workshop dataset uses.
Luecken & Theis 2019, Mol Sys Bio “Current best practices in single-cell RNA-seq analysis” — still essential.
Kharchenko 2021, Nature Methods “The triumphs and limitations of computational methods for scRNA-seq” — a reality check.
Heumos et al. 2023, Nat Rev Genet Companion paper to the sc-best-practices book; high-level overview.
Lähnemann et al. 2020, Genome Biology “Eleven grand challenges in single-cell data science”.

By module topic

Overview & best practices — Chapter 0

  • Luecken & Theis 2019, Mol Syst Biol — the foundational end-to-end best-practices tutorial.
  • Heumos et al. 2023, Nat Rev Genet — best practices across modalities; companion to the sc-best-practices book.
  • Lähnemann et al. 2020, Genome Biology — “Eleven grand challenges in single-cell data science”.
  • Kharchenko 2021, Nature Methods — the triumphs and limitations of computational scRNA-seq methods.
  • Ziegenhain et al. 2017, Molecular Cell — head-to-head comparison of six scRNA-seq protocols (benchmark).

Preprocessing: QC & normalization — Chapter 1

  • Lun et al. 2019, Genome Biology — EmptyDrops; distinguishing real cells from empty droplets.
  • Young & Behjati 2020, GigaScience — SoupX; quantifying and removing ambient RNA.
  • Xi & Li 2021, Cell Systems — benchmark of nine doublet-detection methods (benchmark).
  • Hafemeister & Satija 2019, Genome Biology — sctransform; regularized NB normalization.
  • Ahlmann-Eltze & Huber 2023, Nature Methods — comparison of normalization/transformation choices (benchmark).

Dimensionality reduction & clustering — Chapter 2

  • Interactive explainer: Understanding UMAP (Google PAIR) — turn the n_neighbors/min_dist knobs and see what UMAP does and doesn’t preserve. The best cure for over-interpreting an embedding; start here if UMAP/t-SNE ever made your head spin.
  • Tutorial: Understanding UMAP: a guide to dimensionality reduction (DataCamp) — a written, step-by-step walkthrough of the method and its parameters.
  • Becht et al. 2019, Nature Biotechnology — UMAP for single-cell visualization.
  • Kobak & Berens 2019, Nature Communications — “The art of using t-SNE”.
  • Kobak & Linderman 2021, Nature Biotechnology — initialization, not the algorithm, preserves global structure.
  • Kiselev et al. 2019, Nat Rev Genet — challenges in unsupervised clustering.
  • Duò et al. 2018, F1000Research — performance evaluation of 14 clustering methods (benchmark).
  • Yu et al. 2022, Genome Biology — estimating the number of cell types (benchmark).

Markers & manual annotation — Chapter 3

  • Clarke et al. 2021, Nature Protocols — guidelines for annotating single-cell maps (manual + automated).
  • Soneson & Robinson 2018, Nature Methods — benchmark of 36 DE methods used for marker detection (benchmark).
  • Marker compendia: PanglaoDB and CellMarker 2.0.

Reference-based annotation — Chapter 4

  • Aran et al. 2019, Nature Immunology — SingleR; reference-based annotation.
  • Hao et al. 2021, Cell — Seurat v4 / Azimuth reference mapping.
  • Domínguez Conde et al. 2022, Science — CellTypist; cross-tissue immune atlas.
  • Abdelaal et al. 2019, Genome Biology — comparison of 22 automatic cell-identification methods (benchmark).
  • Pasquini et al. 2021, CSBJ — review of 32 automated annotation methods.
  • Tools: Azimuth, CellTypist.

Multi-sample integration — Chapter 5

  • Korsunsky et al. 2019, Nature Methods — Harmony; the recommended first integration tool.
  • Stuart, Butler et al. 2019, Cell — Seurat v3 anchor-based integration.
  • Lopez et al. 2018, Nature Methods — scVI; variational autoencoder for single-cell data.
  • Xu et al. 2021, Mol Syst Biol — scANVI; semi-supervised integration + annotation.
  • Tran et al. 2020, Genome Biology — benchmark of 14 batch-correction methods (benchmark).
  • Luecken et al. 2022, Nature Methods — benchmarking atlas-level data integration (benchmark).

Differential expression (bulk + pseudobulk) — Chapter 6

  • Love, Huber & Anders 2014, Genome Biology — DESeq2.
  • Robinson et al. 2010, Bioinformatics — edgeR.
  • Law et al. 2014, Genome Biology — limma-voom.
  • Rapaport et al. 2013, Genome Biology — bulk DE-method benchmark (benchmark).
  • Soneson & Robinson 2018, Nature Methods — single-cell DE benchmark (benchmark).
  • Squair et al. 2021, Nature Communications — why pseudobulk is the right default.
  • Crowell et al. 2020, Nature Communications — muscat; pseudobulk DE in practice.

Functional analysis: GO, GSEA, pathways — Chapter 7

  • Subramanian et al. 2005, PNAS — the original GSEA paper.
  • Khatri et al. 2012, PLoS Comput Biol — “Ten years of pathway analysis”; the field review.
  • Wu et al. 2021, The Innovation — clusterProfiler 4.0.
  • Korotkevich et al. 2021, bioRxiv — fgsea; fast preranked GSEA.
  • Gillespie et al. 2022, Nucleic Acids Res — the Reactome pathway knowledgebase.
  • Geistlinger et al. 2021, Brief Bioinform — gold-standard benchmark of enrichment methods (benchmark).

Differential abundance — Chapter 8

  • Dann et al. 2022, Nature Biotechnology — Milo; DA on k-NN neighbourhoods.
  • Büttner et al. 2021, Nature Communications — scCODA; Bayesian compositional analysis.
  • Mangiola et al. 2023, PNAS — sccomp; joint composition + variability modeling.
  • Yi et al. 2024, Genome Biology — benchmark of six differential-abundance methods (benchmark).

Co-expression networks (WGCNA) — Chapter 13

  • Zhang & Horvath 2005, Stat Appl Genet Mol Biol — the weighted co-expression framework.
  • Langfelder & Horvath 2008, BMC Bioinformatics — the WGCNA R package.
  • van Dam et al. 2018, Brief Bioinform — review of gene co-expression analysis (guilt-by-association).
  • Morabito et al. 2023, Cell Reports Methods — hdWGCNA; the single-cell/spatial adaptation.

Trajectory, velocity & cell–cell communication — Chapter 14

  • Saelens et al. 2019, Nature Biotechnology — comparison of 45 trajectory-inference methods (benchmark).
  • Trapnell et al. 2014, Nature Biotechnology — Monocle; pseudotemporal ordering. See also Monocle3.
  • Street et al. 2018, BMC Genomics — Slingshot; lineage/pseudotime.
  • La Manno et al. 2018, Nature — RNA velocity (foundational); see also scVelo.
  • Bergen et al. 2020, Nature Biotechnology — scVelo; dynamical-model velocity.
  • Armingol et al. 2021, Nat Rev Genet and Armingol et al. 2024, Nat Rev Genet — cell–cell communication reviews.
  • Dimitrov et al. 2022, Nature Communications — LIANA; CCC meta-resource. Jin et al. 2021, Nature Communications — CellChat.

ATAC-seq & chromatin accessibility — Chapter 15

  • Buenrostro et al. 2013, Nature Methods — the original ATAC-seq method.
  • Klemm, Shipony & Greenleaf 2019, Nat Rev Genet — chromatin accessibility and the regulatory epigenome (review).
  • Stuart et al. 2021, Nature Methods — Signac.
  • Granja et al. 2021, Nat Genet — ArchR.
  • De Rop et al. 2024, Nature Biotechnology — systematic benchmark of scATAC protocols (benchmark).
  • Luo et al. 2024, Genome Biology — benchmark of scATAC computational methods (benchmark).

Spatial transcriptomics — Chapter 16

  • Ståhl et al. 2016, Science — the method that launched array-based spatial transcriptomics (Visium’s basis).
  • Rao et al. 2021, Nature — exploring tissue architecture using spatial transcriptomics (review).
  • Moses & Pachter 2022, Nature Methods — the “museum” of spatial transcriptomics (review).
  • Bressan et al. 2023, Science — “The dawn of spatial omics” (review).
  • Palla et al. 2022, Nature Methods — squidpy; scalable spatial-omics analysis.
  • Visium / Stereo-seq / MERFISH platform docs.

FAIR data & sharing — Chapter 17

  • Wilkinson et al. 2016, Scientific Data — the FAIR Guiding Principles.
  • Regev et al. 2017, eLife — the Human Cell Atlas vision paper.
  • Osumi-Sutherland et al. 2021, Nature Cell Biology — cell-type ontologies & metadata standards for the HCA.
  • CZI Cell Science Program 2025, Nucleic Acids Res — CZ CELLxGENE Discover data platform.

Multi-omics & deep-learning foundations

  • Wolf, Angerer & Theis 2018, Genome Biology — Scanpy; the Python toolkit.
  • Argelaguet et al. 2021, Genome Biology — multi-omics factor analysis (MOFA+).
  • Lopez et al. 2018, Nature Methods — scVI; foundation for scvi-tools.
  • Tabula Sapiens consortium 2022, Science — a reference human atlas; a model for atlas construction.
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