gtars

Perform end-to-end genomic interval analysis and tokenization with a Rust core and Python bindings.

321|26|Updated Mar 10, 2026
One-click install
npx skills add https://github.com/mkurman/tamux --skill gtars-mkurman
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: gtars
Source: https://github.com/mkurman/tamux/tree/main/skills/scientific-skills/gtars
Command: npx skills add https://github.com/mkurman/tamux --skill gtars-mkurman

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

gtars provides fast, end-to-end genomic interval analysis and tokenization tools for scalable bioinformatics workflows, unifying overlap, coverage, and reference sequence tasks under a single framework.

Core Features & Use Cases

  • Overlap detection with IGD enables rapid querying of overlapping genomic intervals.
  • Coverage track generation via uniwig supports conversion to wig/BigWig formats for visualization.
  • Genomic tokenization for ML workflows enables input preparation for transformer models.
  • Reference sequence management with GA4GH refget compatibility provides on-demand sequence retrieval.
  • CLI and Python API integration supports end-to-end pipelines for large-scale genomic analyses.

Quick Start

Install the gtars Python package and run a basic RegionSet example to compute overlaps and generate a coverage track.

Frequently Asked Questions about gtars

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

FAQPage Schema
How do I detect overlapping genomic intervals in large BED datasets?

Detect overlapping genomic intervals using IGD indexing, which enables rapid querying of overlapping regions across large genomic datasets. The Rust core with Python bindings processes BED data to return matched interval sets for downstream bioinformatics workflows.

What is genomic tokenization for machine learning preprocessing?

Genomic tokenization for ML workflows is the process of converting genomic intervals and sequences into input formats suitable for transformer models. It prepares high-throughput genomic data for machine learning pipelines by partitioning intervals into standardized tokens.

How do I generate coverage tracks and export them to BigWig format?

Generate coverage tracks via the uniwig module, which supports conversion to WIG and BigWig formats for genomic visualization. It processes input interval data to produce tracks representing per-base or region coverage across reference sequences.

Can I use Python to manage reference sequences with FASTA files?

Yes, you can manage reference sequences using the Python API with FASTA data inputs. The framework provides GA4GH refget compatibility for on-demand sequence retrieval, allowing Python pipelines to query and retrieve genomic sequences dynamically.

Does this genomic interval analysis framework scale for high-throughput workflows?

Yes, the Rust core architecture ensures fast, scalable genomic interval analysis tailored for high-throughput workflows. It handles large-scale genomic datasets efficiently by applying IGD indexing and modular processing across BED, WIG, BigWig, and FASTA formats.

What are the limitations of using a Rust core with Python bindings for genomic analysis?

The primary limitation of using a Rust core with Python bindings is the compilation and environment setup overhead required to bridge the two languages. Users must ensure proper Rust toolchain configuration to utilize the fast interval processing capabilities.