Agent skill · Data & Analytics

bio-spatial-transcriptomics-spatial-statistics

Compute spatial statistics for spatial transcriptomics data using Squidpy. Calculate Moran's I, Geary's C, spatial autocorrelation, co-occurrence analysis, and neighborhood enrichment. Use when computing spatial autocorrelation or co-occurrence statistics.

FreedomIntelligencegithub.com/FreedomIntelligenceGitHub ↗
claude-codeships scripts
Install
npx skills add FreedomIntelligence/OpenClaw-Medical-Skills --skill bio-spatial-transcriptomics-spatial-statistics --agent claude-code

Same command for any agent — swap --agent for codex, cursor, copilot.

Facts
Files in the skill folder: 3
SKILL.md size: 7 KB
Bundled scripts: yes
Path: skills/bio-spatial-transcriptomics-spatial-statistics/SKILL.md
Open the folder on GitHub →
Where it comes from
Stars: 2,909
Language: Python
Read our review of the source →

Weekly change comes from our own snapshots, not the repository page — it measures attention, not adoption.

From the SKILL.md

## Version Compatibility Reference examples tested with: numpy 1.26+, pandas 2.2+, scanpy 1.10+, scipy 1.12+, squidpy 1.3+ Before using code patterns, verify installed versions match. If versions differ: - Python: `pip show <package>` then `help(module.function)` to check signatures If code throws ImportError, AttributeError, or TypeError, introspect the installed package and adapt the example to match the actual API rather than retrying. # Spatial Statistics Compute spatial statistics and identify spatially variable features. ## Required Imports ```python import squidpy as sq import scanpy as sc import pandas as pd import numpy as np ``` ## Compute Spatial Autocorrelation (Moran's I) **Goal:** Identify genes whose expression is spatially autocorrelated across tissue. **Approach:** Build a spatial neighbor graph, then compute Moran's I statistic per gene to measure clustering of similar values. **"Find spatially variable genes"** -> Compute Moran's I autocorrelation on the spatial neighbor graph to rank genes by spatial patterning. ```python # Requires spatial neighbors sq.gr.spatial_neighbors(adata, coord_type='generic', n_neighs=6) # Compute Moran's I for all genes (can be slow)

What's inside
Steps it walks through
  1. Version Compatibility
  2. Required Imports
  3. Compute Spatial Autocorrelation (Moran's I)
  4. Interpret Moran's I
  5. Compute Geary's C
  6. Co-occurrence Analysis
  7. Interpret Co-occurrence
  8. Neighborhood Enrichment
  9. Extract Enrichment Z-scores
  10. Ripley's Statistics
  11. Centrality Scores
  12. Interaction Matrix
  13. Custom Spatial Statistic
  14. Local Moran's I (LISA)
Ships with 2 files
  • examples/spatial_autocorr.py
  • usage-guide.md
More from OpenClaw-Medical-Skills
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About this skill
What does the bio-spatial-transcriptomics-spatial-statistics skill do?

Compute spatial statistics for spatial transcriptomics data using Squidpy. Calculate Moran's I, Geary's C, spatial autocorrelation, co-occurrence analysis, and neighborhood enrichment. Use when computing spatial autocorrelation or co-occurrence statistics.

How do I install it?

Run `npx skills add FreedomIntelligence/OpenClaw-Medical-Skills --skill bio-spatial-transcriptomics-spatial-statistics --agent claude-code` — it drops the skill into your project so the agent can pick it up. Swap the --agent value for codex, cursor or copilot if you use one of those.

Where does this skill come from?

From FreedomIntelligence/OpenClaw-Medical-Skills, a repository with 2,909 stars. We read it straight from the repository tree rather than a submitted listing, so what you see here is what is actually published.

Is a popular skill a good skill?

Not necessarily. Stars measure attention, not adoption — a repository can trend for a week and be abandoned. That is why we show the weekly change from our own snapshots next to the total, instead of a single flattering number.

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