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MR.PARETO - Modules & Recipes for Pragmatic Augmentation of Research Efficiency Towards Optimum

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🚀 MR.PARETO - Modules & Recipes for Pragmatic Augmentation of Research Efficiency Towards Optimum

"For many outcomes, roughly 80% of consequences come from 20% of causes (the "vital few")." - The Pareto Principle by Vilfredo Pareto

Get 80% of all standard (biomedical) data science analyses done semi-automated with 20% of the effort, by leveraging Snakemake's module functionality to use and combine pre-existing workflows into arbitrarily complex analyses.

⏳ TL;DR - More Time for Science!

"Programming is about trying to make the future less painful. It’s about making things easier for our teammates." from The Pragmatic Programmer by Andy Hunt & Dave Thomas

  • Why: Time is the most precious resource. By taking care of efficiency (i.e., maximum output with limited resources) scientists can re-distribute their time to focus on effectiveness (i.e., the biggest impact possible).
  • How: Leverage the latest developments in workflow management to (re-)use and combine independent computational modules into arbitrarily complex analyses in combination with modern innovation methods (e.g., fast prototyping, design thinking, and agile concepts).
  • What: Independent computational Modules implemented as Snakemake workflows, encoding best practices and standard approaches, are used to scale, automate, and parallelize analyses. Snakemake's module functionality enables arbitrarily complex combinations of pre-existing modules for any Project. Recipes combine modules into the most conceivable standard analyses, thereby accelerating projects to the point of the unknown.

Altogether this enables complex, portable, transparent, reproducible, and documented analysis of biomedical data analysis at scale.

🧩 Modules

"Is it functional, multifunctional, durable, well-fitted, simple, easy to maintain, and thoroughly tested? Does it provide added value, and doesn't cause unnecessary harm? Can it be simpler? Is it an innovation?" - Patagonia Design Principles

Modules are Snakemake workflows, consisting of Rules for multi-step analyses, that are independent and self-contained. A {module} can be general-purpose (e.g., Unsupervised Analysis) or modality-specific (e.g., ATAC-seq processing). Currently, the following nine modules are available, ordered by their applicability from general to specific:

Module Type (Data Modality) DOI Stars
Unsupervised Analysis General Purpose
(tabular data)
DOI GitHub Repo stars
Split, Filter, Normalize and Integrate Sequencing Data Bioinformatics
(NGS counts)
DOI GitHub Repo stars
Differential Analysis with limma Bioinformatics
(NGS data)
DOI GitHub Repo stars
Enrichment Analysis Bioinformatics
(genes/genomic regions)
DOI GitHub Repo stars
Genome Track Visualization Bioinformatics
(aligned BAM files)
DOI GitHub Repo stars
ATAC-seq Processing Bioinformatics
(ATAC-seq)
DOI GitHub Repo stars
scRNA-seq Processing using Seurat Bioinformatics
(scRNA-seq)
DOI GitHub Repo stars
Differential Analysis using Seurat Bioinformatics
(scRNA-seq)
DOI GitHub Repo stars
Perturbation Analysis using Mixscape from Seurat Bioinformatics
(scCRISPR-seq)
DOI GitHub Repo stars

Note

⭐️ Star and share modules you find valuable 📤 — help others discover them, and guide our focus for future work!

Tip

For detailed instructions on the installation, configuration, and execution of modules, you can check out the wiki. Generic instructions are also shown in the modules' respective Snakmake workflow catalog entry.

📋 Projects using multiple Modules

“Absorb what is useful. Discard what is not. Add what is uniquely your own.” - Bruce Lee

You can (re-)use and combine pre-existing workflows within your projects by loading them as Modules since Snakemake 6. The combination of multiple modules into projects that analyze multiple datasets represents the overarching vision and power of MR.PARETO.

Note

When applied to multiple datasets within a project, each dataset should have its own result directory within the project directory.

Three components are required to use a module within your Snakemake workflow (i.e., a project).

  • Configuration: The config/config.yaml file has to point to the respective configuration files per dataset and workflow.
    #### Datasets and Workflows to include ###
    workflows:
        MyData:
            other_workflow: "config/MyData/MyData_other_workflow_config.yaml"
  • Snakefile: Within the main Snakefile (workflow/Snakefile) we have to:
    • load all configurations;
    • include the snakefiles that contain the dataset-specific loaded modules and rules (see next point);
    • and add all modules' outputs to the target's rule input.
  • Modules: Load the required modules and their rules within separate snakefiles (*.smk) in the rule/ folder. Recommendation: Use one snakefile per dataset.
      module MyData_other_workflow:
        # here, plain paths, URLs and the special markers for code hosting providers (e.g., github) are possible.
        snakefile: "other_workflow/Snakefile"
        config: config["MyData_other_workflow"]
    
      use rule * from MyData_other_workflow as MyData_other_workflow_*

Tip

A full tutorial is available on the wiki.

📜 Recipes

"Civilization advances by extending the number of important operations which we can perform without thinking of them." - Alfred North Whitehead, author of Principia Mathematica

Recipes are combinations of existing modules into end-to-end best practice analyses. They can be used as templates for standard analyses by leveraging existing modules, thereby enabling fast iterations and progression into the unknown. Every recipe is described and presented using a wiki page by application to a public data set.

Tip

Process each dataset module by module. Check the results of each module to inform the configuration of the next module. This iterative method allows for quick initial completion, followed by refinement in subsequent iterations based on feedback from yourself or collaborators. Adjustments in later iterations are straightforward, requiring only changes to individual configurations or annotations. Ultimately you end up with a reproducible and readable end-to-end analysis for each dataset.

Recipe Description # Modules Results
ATAC-seq Analysis From raw BAM files to enrichemnts of differentially accessible regions. 6(-7) ...
RNA-seq Analysis From raw BAM files to enrichemnts of differentially expressed genes. 6(-7) ...
Integrative ATAC-seq & RNA-seq Analysis From count matrices to epigenetic potential and relative transcriptional abundance. 7(-8) ...
scRNA-seq Analysis From count matrix to enrichemnts of differentially expressed genes. 5(-6) ...
scCRISPR-seq Analysis From count matrix to knockout phenotype enrichemnts. 6(-7) ...

Note

⭐️ Star this repository and share recipes you find valuable 📤 — help others discover them, and guide our focus for future work!

📚 Resources

⭐ Star History of Modules

Star History Chart