genomics-ontology-starter

Provide a prebuilt genomics ontology for TextQL/Ana with governed metrics.

Updated Jun 26, 2026
One-click install
npx skills add https://github.com/TextQLLabs/ontology-starter-kits --skill genomics-ontology-starter
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: genomics-ontology-starter
Source: https://github.com/TextQLLabs/ontology-starter-kits/tree/main/genomics
Command: npx skills add https://github.com/TextQLLabs/ontology-starter-kits --skill genomics-ontology-starter

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill requires pandas, numpy, sqlalchemy, and includes scripts (resource) and references (resource) and assets (resource) components.

What problem does it solve?

This Skill provides a prebuilt, governed genomics lab + variant ontology, enabling fast, accurate, and secure analysis of genomic data.

Core Features & Use Cases

  • Prebuilt Ontology: Eliminates the need to build from scratch, saving time and resources.
  • Governed Metrics: Ensures consistent and reliable analysis across the lab.
  • Privacy and Security: Prioritizes genomic data privacy and security with default aggregate outputs and read-only access.
  • Use Case: Imagine you need to analyze variant yield and diagnostic yield in your genomic data. This Skill allows you to connect your data, validate the model, and ask governed questions without leaving the Ana interface.

Quick Start

Connect this repo to Ana, connect your warehouse, and validate the model. Then, ask Ana questions like 'Show me the diagnostic yield by ClinVar version' or 'What's the average coverage adequacy for WGS assays?'.

Frequently Asked Questions about genomics-ontology-starter

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

FAQPage Schema
How do I analyze genomic variant yield and diagnostic yield in a governed lab environment?

A prebuilt genomics ontology provides governed analysis for genomic data by defining subject, sample, assay, and variant relationships. It eliminates building from scratch and enables consistent metric tracking for sample throughput, QC pass rate, turnaround time, and variant yield across sequencing runs.

What metrics are included in a prebuilt genomics ontology for sequencing lab analysis?

Genomic ontology metrics include sample throughput, QC pass rate, turnaround time, variant yield, pathogenic-variant rate, coverage adequacy, call rate, and QC-fail or rerun rate. These governed metric surfaces ensure consistent and reliable analysis across sequencing runs and assays.

Can I use pandas and sqlalchemy with governed genomics data analysis workflows?

Yes, this governed genomic data analysis approach supports pandas, numpy, and sqlalchemy dependencies. These libraries enable data manipulation and warehouse connectivity while the prebuilt ontology maintains privacy-aware, read-only access for secure genomic querying.

Does governed genomic analysis protect data privacy when querying variant and sample data?

Governed genomic analysis protects data privacy by prioritizing genomic data security with default aggregate outputs and read-only access. This ensures sensitive subject, sample, and variant information remains secure while querying diagnostic yield, pathogenic-variant rate, and coverage adequacy metrics.

How do I connect my data warehouse to validate a prebuilt genomic ontology model?

To validate a prebuilt genomic ontology model, connect your repository to the analysis interface, link your warehouse, and run model validation. Once validated, you can ask governed questions about assay mix, ClinVar versions, or average coverage adequacy for WGS assays directly.

What is the best way to track QC fail and rerun rates for genomic sequencing runs?

The best way to track QC fail and rerun rates is using a prebuilt genomics ontology with dedicated metric surfaces for QC-fail rate and rerun rate. This enables governed, consistent tracking of sequencing run quality alongside sample throughput, turnaround time, and coverage adequacy metrics.