recombinator

Produce offspring genomes from parent pairs via meiotic recombination, mutation, and clinical evaluation

658 stars

Best use case

recombinator is best used when you need a repeatable AI agent workflow instead of a one-off prompt.

Produce offspring genomes from parent pairs via meiotic recombination, mutation, and clinical evaluation

Teams using recombinator should expect a more consistent output, faster repeated execution, less prompt rewriting.

When to use this skill

  • You want a reusable workflow that can be run more than once with consistent structure.

When not to use this skill

  • You only need a quick one-off answer and do not need a reusable workflow.
  • You cannot install or maintain the underlying files, dependencies, or repository context.

Installation

Claude Code / Cursor / Codex

$curl -o ~/.claude/skills/recombinator/SKILL.md --create-dirs "https://raw.githubusercontent.com/ClawBio/ClawBio/main/skills/recombinator/SKILL.md"

Manual Installation

  1. Download SKILL.md from GitHub
  2. Place it in .claude/skills/recombinator/SKILL.md inside your project
  3. Restart your AI agent — it will auto-discover the skill

How recombinator Compares

Feature / AgentrecombinatorStandard Approach
Platform SupportNot specifiedLimited / Varies
Context Awareness High Baseline
Installation ComplexityUnknownN/A

Frequently Asked Questions

What does this skill do?

Produce offspring genomes from parent pairs via meiotic recombination, mutation, and clinical evaluation

Where can I find the source code?

You can find the source code on GitHub using the link provided at the top of the page.

SKILL.md Source

# 🧪 Recombinator

## Purpose

Produce offspring genomes from selected parent pairs via simulated meiotic
recombination. Models Mendelian segregation, de novo mutation, sex determination,
and clinical evaluation against a disease registry.

## How It Works

1. **Mendelian segregation**: one allele inherited from each parent per locus
   (random selection simulating independent assortment).
2. **De novo mutation**: configurable rate per locus (default 0.1%), with hotspot
   multipliers for cognitive, immune, and metabolic loci. Mutations are classified
   as disease-risk, protective, or neutral.
3. **Sex determination**: 50/50 coin flip (XY or XX).
4. **Trait inference**: reverse-map offspring genotype back to trait scores using
   the trait registry, accounting for dominance models.
5. **Clinical evaluation**: check offspring genotype against disease registry for
   penetrance, onset probability, and fitness cost.
6. **Health score**: computed from cumulative fitness costs of clinical conditions.

## Input

- Two parent `.genome.json` files (one Male, one Female)
- `GENOMEBOOK/DATA/trait_registry.json`
- `GENOMEBOOK/DATA/disease_registry.json`

## Output

- Offspring `.genome.json` with:
  - Inherited loci and alleles
  - Mutation log
  - Inferred trait scores
  - Clinical history
  - Health score (0.0 to 1.0)

## CLI Usage

```bash
# Demo: breed Einstein x Anning, produce 3 offspring
python skills/recombinator/recombinator.py --demo

# Breed specific parents
python skills/recombinator/recombinator.py \
  --father einstein-g0 --mother anning-g0 --offspring 3

# Custom generation number
python skills/recombinator/recombinator.py \
  --father einstein-g0 --mother curie-g0 --offspring 2 --generation 1
```

## Output Format

```
ID:     g1-001-a3f2c1
Sex:    Female (XX)
Health: 0.9500
Mutations: 1
  - COMT_Val158Met: G->A (neutral, from mother)
Conditions: 0
Top traits:
  - curiosity: 0.92
  - analytical_thinking: 0.88
  - persistence: 0.85
```

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