bio-analysis-system

SkillMedia

bio-analysis-system is a skill that gives your AI a set of biomedical research capabilities. Once added, your AI can help with work in genomics, proteomics, single-cell analysis, clinical AI, and protein design. It is a curated collection of skills put together for biomedical research.

Available today. Use it from your connected AI after setup.

Add the skill, then ask your AI to help with a biomedical research task, such as analyzing genomic data or working on protein design.

Then ask your AI: use the bio-analysis-system skill

What your AI can do with it

  • Analyze genomic data, such as genes and DNA
  • Work with proteomics data on proteins
  • Carry out single-cell analysis
  • Support clinical AI projects
  • Help with protein design tasks

What this skill tells your AI

The instructions your AI receives, as published by biotender-max/awesome-bio-agent-skills in skills/bioclaw/bio-analysis-system/SKILL.md and read by ahel’s review.

Step 5: Analysis system design (分析方法体系构建)

Build the analysis layer for the manuscript by identifying which analyses, tools, and biological validations should support each figure and each task.

Purpose

  1. Extract analysis patterns from related work
  2. Borrow useful analyses from adjacent domains when needed
  3. Map analyses to BioClaw-compatible tools or fallback software
  4. Explain why each analysis is included and what biological claim it supports
  5. Connect analyses to figure panels

Input Format

topic: [research topic]
paper_count: [number of related papers]
task_system: [task system]
metric_system: [metric system]
dataset_catalog: [dataset catalog]

Workflow

Step 5.1: Extract analyses from existing work

If enough related papers exist, inspect their figures and extract:

  • panel type
  • analysis method
  • software / package
  • important parameters
  • the scientific or biological conclusion the panel supports

Step 5.2: Borrow from adjacent fields

If the field is still thin, adapt common analyses from nearby areas such as:

  • clustering
  • marker visualization
  • latent embedding visualization
  • pathway enrichment
  • cell-cell communication
  • spatial statistics
  • GRN analysis

Step 5.3: Categorize analyses

Use three broad groups:

  • Quantitative analyses
    • clustering
    • metric computation
    • statistical tests
    • baseline comparisons
  • Qualitative analyses
    • spatial visualization
    • feature / violin plots
    • UMAP / t-SNE
    • before / after alignment comparisons
    • heatmaps
  • Biological analyses
    • cell annotation
    • marker genes
    • pathway enrichment
    • GRN
    • ligand-receptor communication
    • spatial statistics
    • trajectory analysis

Step 5.4: Map to BioClaw or fallback tools

Whenever possible, map analysis needs to BioClaw-compatible skills or established tools.

Examples:

  • clustering -> Scanpy / Leiden
  • annotation -> CellTypist / SingleR
  • marker plots -> Scanpy
  • enrichment -> gseapy
  • spatial statistics -> squidpy
  • GRN -> pySCENIC
  • communication -> CellChat-like workflow

Step 5.5: Standardize analysis descriptions

For each analysis, define:

  • category
  • purpose
  • biological claim supported
  • preferred tool
  • fallback tool
  • key function
  • recommended parameters
  • inputs / outputs
  • mapped task
  • mapped figure / panel

Output Format

# Analysis System

## Analysis Sources
- Extracted from related papers:
- Borrowed from adjacent domains:

## Quantitative Analyses

### Clustering
- Category:
- Purpose:
- Biological claim supported:
- Preferred tool:
- Fallback tool:
- Key function:
- Recommended parameters:
- Inputs / outputs:
- Relevant tasks:
- Figure mapping:

### Metric computation
- Category:
- Purpose:
- Preferred tools:
- Relevant tasks:
- Figure mapping:

## Qualitative Analyses
- spatial plot
- marker / feature plot
- latent embedding plot
- heatmap
- before / after alignment visualization

## Biological Analyses
- annotation
- marker recovery
- pathway enrichment
- GRN
- communication
- trajectory

## Next Step
- Use the analysis system to design figures in Step 6

Usage

/bio-analysis-system "spatial multi-omics integration | paper_count: 5 | task_system: [...] | metric_system: [...] | dataset_catalog: [...]"

Notes

  1. Prefer analyses that directly support paper claims.
  2. Make the biological readouts visible early; they should not appear only at the very end.
  3. Map each major analysis to a concrete figure panel.

Signals

GitHub stars
178
Forks
32
Last commit
Jul 2026
Advanced
Catalog kind
skill
Gateway key
bio-analysis-system
Source
github.com/biotender-max/awesome-bio-agent-skills