lamindb

Manage biological datasets and track computational lineage via a Python API.

Updated Jan 10, 2026
One-click install
npx skills add https://github.com/robinbarvaag/poynt --skill lamindb-robinbarvaag
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: lamindb
Source: https://github.com/robinbarvaag/poynt/tree/main/.github/skills/lamindb
Command: npx skills add https://github.com/robinbarvaag/poynt --skill lamindb-robinbarvaag

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

This Skill addresses the challenges of managing, tracking, and reproducing biological datasets by providing a unified framework for data management, lineage tracking, and annotation.

Core Features & Use Cases

  • Data Management: Store, version, and query diverse biological data formats (scRNA-seq, spatial, etc.).
  • Lineage Tracking: Automatically track computational workflows and data provenance.
  • Ontology Annotation: Standardize metadata using biological ontologies for enhanced discoverability and FAIR compliance.
  • Use Case: A researcher can use this Skill to manage multiple scRNA-seq datasets, track the analysis pipeline for each, and annotate cell types using standardized ontology terms, ensuring reproducibility and enabling complex queries across experiments.

Quick Start

Use the lamindb skill to initialize a new project in the current directory.

Frequently Asked Questions about lamindb

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I track data lineage and ensure reproducibility for scRNA-seq analysis pipelines?

To track data lineage and ensure reproducibility for scRNA-seq pipelines, this Skill automatically tracks computational workflows and data provenance while managing datasets through a Python API. It integrates biological ontologies for standardized annotation, enabling complex queries across experiments.

What is the best way to manage and version biological data formats like spatial transcriptomics?

The best way to manage and version biological data formats like spatial transcriptomics is using a FAIR data management framework. This Skill stores, versions, and queries diverse biological datasets while standardizing metadata with biological ontologies for enhanced discoverability.

Can I use biological ontologies to annotate flow cytometry data and validate metadata?

Yes, you can use biological ontologies to annotate flow cytometry data and validate metadata. This Skill supports data validation and querying across various biological data formats, integrating standardized ontology terms to ensure FAIR compliance and accurate cell type annotation.

Does this biological data management framework integrate with MLOps platforms and workflow managers?

Yes, this biological data management framework integrates with MLOps platforms and workflow managers. It provides a unified Python API to manage datasets, track computational lineage, and validate data, ensuring seamless integration within existing MLOps and workflow ecosystems.

How do I initialize a new project to manage biological data with FAIR principles?

To initialize a new project to manage biological data with FAIR principles, use the Skill to set up your project in the current directory. This creates a structured environment to store, version, query datasets, and track computational workflows.

Why should I standardize metadata using biological ontologies for biological data management?

Standardizing metadata using biological ontologies is essential for biological data management to achieve FAIR compliance. It enhances data discoverability, enables complex cross-experiment queries, and ensures consistent cell type annotation across diverse datasets like scRNA-seq and spatial transcriptomics.