Atlas / Skills / freedomintelligence / Gene Database

Gene DatabaseSAFE

skills/freedomintelligence/gene-database

The largest open-source medical AI skills library for OpenClaw🦞.

Verdict
SAFE
Grade
B
Trust score
89 /100
Version
—
Hosts
—
License
—
Stars
3,053
01

Overview

The largest open-source medical AI skills library for OpenClaw🦞.

Read from source at commit 29f31a89230cOBSERVED · 2026-10-08
02

What it tells the agent

The instruction file, verbatim from the audited commit — this is the text the model reads, and the surface the audit's instruction layer examines. Quoted here so you can judge it without cloning anything.

---
name: gene-database
description: "Query NCBI Gene via E-utilities/Datasets API. Search by symbol/ID, retrieve gene info (RefSeqs, GO, locations, phenotypes), batch lookups, for gene annotation and functional analysis."
---

# Gene Database

## Overview

NCBI Gene is a comprehensive database integrating gene information from diverse species. It provides nomenclature, reference sequences (RefSeqs), chromosomal maps, biological pathways, genetic variations, phenotypes, and cross-references to global genomic resources.

## When to Use This Skill

This skill should be used when working with gene data including searching by gene symbol or ID, retrieving gene sequences and metadata, analyzing gene functions and pathways, or performing batch gene lookups.

## Quick Start

NCBI provides two main APIs for gene data access:

1. **E-utilities** (Traditional): Full-featured API for all Entrez databases with flexible querying
2. **NCBI Datasets API** (Newer): Optimized for gene data retrieval with simplified workflows

Choose E-utilities for complex queries and cross-database searches. Choose Datasets API for straightforward gene data retrieval with metadata and sequences in a single request.

## Common Workflows

### Search Genes by Symbol or Name

To search for genes by symbol or name across organisms:

1. Use the `scripts/query_gene.py` script with E-utilities ESearch
2. Specify the gene symbol and organism (e.g., "BRCA1 in human")
3. The script returns matching Gene IDs

Example query patterns:
- Gene symbol: `insulin[gene name] AND human[organism]`
- Gene with disease: `dystrophin[gene name] AND muscular dystrophy[disease]`
- Chromosome location: `human[organism] AND 17q21[chromosome]`

### Retrieve Gene Information by ID

To fetch detailed information for known Gene IDs:

1. Use `scripts/fetch_gene_data.py` with the Datasets API for comprehensive data
2. Alternatively, use `scripts/query_gene.py` with E-utilities EFetch for specific formats
3. Specify desired output format (JSON, XML, or text)

The Datasets API returns:
- Gene nomenclature and aliases
- Reference sequences (RefSeqs) for transcripts and proteins
- Chromosomal location and mapping
- Gene Ontology (GO) annotations
- Associated publications

### Batch Gene Lookups

For multiple genes simultaneously:

1. Use `scripts/batch_gene_lookup.py` for efficient batch processing
2. Provide a list of gene symbols or IDs
3. Specify the organism for symbol-based queries
4. The script handles rate limiting automatically (10 requests/second with API key)

This workflow is useful for:
- Validating gene lists
- Retrieving metadata for gene panels
- Cross-referencing gene identifiers
- Building gene annotation tables

### Search by Biological Context

To find genes associated with specific biological functions or phenotypes:

1. Use E-utilities with Gene Ontology (GO) terms or phenotype keywords
2. Query by pathway names or disease associations
3. Filter by organism, chromosome, or other attributes

Example searches:
- By GO term: `GO:0006915[biological process]` (apoptosis)
- By phenotype: `diabetes[phenotype] AND mouse[organism]`
- By pathway: `insulin signaling pathway[pathway]`

### API Access Patterns

**Rate Limits:**
- Without API key: 3 requests/second for E-utilities, 5 requests/second for Datasets API
- With API key: 10 requests/second for both APIs

**Authentication:**
Register for a free NCBI API key at https://www.ncbi.nlm.nih.gov/account/ to increase rate limits.

**Error Handling:**
Both APIs return standard HTTP status codes. Common errors include:
- 400: Malformed query or invalid parameters
- 429: Rate limit exceeded
- 404: Gene ID not found

Retry failed requests with exponential backoff.

## Script Usage

### query_gene.py

Query NCBI Gene using E-utilities (ESearch, ESummary, EFetch).

```bash
python scripts/query_gene.py --search "BRCA1" --organism "human"
python scripts/query_gene.py --id 672 --format json
python scripts/query_gene.py --search "insulin[gene] AND diabetes[disease]"
```

### fetch_gene_data.py

Fetch comprehensive gene data using NCBI Datasets API.

```bash
python scripts/fetch_gene_data.py --gene-id 672
python scripts/fetch_gene_data.py --symbol BRCA1 --taxon human
python scripts/fetch_gene_data.py --symbol TP53 --taxon "Homo sapiens" --output json
```

### batch_gene_lookup.py

Process multiple gene queries efficiently.

```bash
python scripts/batch_gene_lookup.py --file gene_list.txt --organism human
python scripts/batch_gene_lookup.py --ids 672,7157,5594 --output results.json
```

## API References

For detailed API documentation including endpoints, parameters, response formats, and examples, refer to:

- `references/api_reference.md` - Comprehensive API documentation for E-utilities and Datasets API
- `references/common_workflows.md` - Additional examples and use case patterns

Search these references when needing specific API endpoint details, parameter options, or response structure information.

## Data Formats

NCBI Gene data can be retrieved in multiple formats:

- **JSON**: Structured data ideal for programmatic processing
- **XML**: Detailed hierarchical format with full metadata
- **GenBank**: Sequence data with annotations
- **FASTA**: Sequence data only
- **Text**: Human-readable summaries

Choose JSON for modern applications, XML for legacy systems requiring detailed metadata, and FASTA for sequence analysis workflows.

## Best Practices

1. **Always specify organism** when searching by gene symbol to avoid ambiguity
2. **Use Gene IDs** for precise lookups when available
3. **Batch requests** when working with multiple genes to minimize API calls
4. **Cache results** locally to reduce redundant queries
5. **Include API key** in scripts for higher rate limits
6. **Handle errors gracefully** with retry logic for transient failures
7. **Validate gene symbols** before batch processing to catch typos

## Resources

This skill includes:

### scripts/
- `query_gene.py` - Query genes using E-utilities
03

Trust audit

SAFEgrade B · trust 89/100 Nothing in the source contradicts what it says it does. Grade A is reserved for packages that have also passed the behavioural sandbox.

LayerWhat it checksResult
L0Provenance & inventoryPASS
L1Static analysis of the codePASS
L2Instruction surface (what it tells the agent)PASS
L3Class-specific surfacePASS
L4Behavioural (sandbox)SKIPPED

What the source does

Filesystem
none-observed
Network
declared (5 observation(s))
Shell
none-observed
Dependencies
pinned
Secrets in source
none-found

Findings (0)

No findings outside the package's declared scope.

Gates applied: no_behavioural_pass.

Audited 2026-10-08 · audit v0.4.1 · source sha 29f31a89230cfull audit observations/trust-audit/skill/freedomintelligence__gene-database.json · Report an issue / request a re-scan
04

Audit history

Every audit this skill has had.

DateSourceVerdictGradeScoreChange
2026-10-0829f31a89230cSAFEB89first audit
05

Questions

What does the Gene Database skill do?

The largest open-source medical AI skills library for OpenClaw🦞.

Is Gene Database safe to install?

The audit found nothing in the source that contradicts what it says it does, and graded it B (89/100). Grade A is held back for packages that have also passed a sandboxed behavioural run, which is why a clean skill reads B.

What can Gene Database access on my machine?

The audit observed that it reaches the network. Each of those is consistent with what it says it does. Secrets in the source: none found.

How current is this page?

The grade is for one exact copy of the source (29f31a89230c), read on 2026-10-08. The repository is watched, and a new audit runs when it changes — this is the first audit.

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