ml-integration-patterns

Integrates ML workflows for rRNA sequence classification, tree consensus, and generative tree synthesis using Python libraries.

Updated Nov 20, 2025
One-click install
npx skills add https://github.com/roeimed0/rrna-phylo --skill ml-integration-patterns
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: ml-integration-patterns
Source: https://github.com/roeimed0/rrna-phylo/tree/main/.claude/skills/ml-integration-patterns
Command: npx skills add https://github.com/roeimed0/rrna-phylo --skill ml-integration-patterns

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

The Skill provides structured patterns to integrate machine learning into the rRNA-Phylo project, enabling scalable ML-driven workflows for sequence classification, tree consensus, and generative tree synthesis.

Core Features & Use Cases

  • rRNA Sequence Classification: Supervised learning to identify rRNA types from DNA/RNA sequences using feature engineering (e.g., k-mer frequencies) and classical or deep learning models.
  • Multi-Tree Consensus: Ensemble approaches to combine trees from different methods into a robust consensus.
  • Generative Tree Synthesis: Experimental Graph Neural Networks and Transformers-based approaches to generate phylogenetic trees from multiple inputs.
  • Model Serving & Versioning: Patterns for serving models via APIs and versioning with performance metrics.

Quick Start

Train a small k-mer based classifier using the provided feature extractor and a RandomForest model on a labeled rRNA dataset to see results quickly.

Frequently Asked Questions about ml-integration-patterns

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

FAQPage Schema
How do I integrate machine learning into rRNA sequence classification workflows?

To integrate machine learning into rRNA sequence classification, use feature engineering like k-mer frequencies and apply classical or deep learning models. The Skill provides reusable patterns to train classifiers and evaluate models using libraries such as scikit-learn and PyTorch.

What is the best way to generate phylogenetic trees using Graph Neural Networks and Transformers?

Generative tree synthesis uses experimental Graph Neural Networks and Transformers to generate phylogenetic trees from multiple inputs. This approach provides structured patterns to synthesize trees and combine them into a robust consensus using ensemble methods.

Can I use scikit-learn and PyTorch Geometric for multi-tree consensus in phylogenetic analysis?

Yes, multi-tree consensus can be achieved using ensemble approaches that combine trees from different methods. The Skill relies on Python libraries including scikit-learn, PyTorch, and PyTorch Geometric to guide implementation, testing, and deployment of these models.

How do I serve and version ML models for rRNA-Phylo workflows?

Model serving and versioning patterns allow you to deploy models via APIs and track performance metrics. The Skill provides structured recipes to serve, version, and evaluate models across classical ML and deep learning approaches for rRNA-Phylo workflows.

Do I need hyperparameter tuning for k-mer based rRNA classifiers?

Hyperparameter tuning is covered as part of the workflow to optimize k-mer based classifiers. The Skill provides patterns for feature extraction, model training, and tuning to ensure robust evaluation across classical ML and deep learning approaches.

What are the limitations of using deep learning for phylogenetic tree synthesis?

Generative tree synthesis with Graph Neural Networks and Transformers is experimental. The Skill provides workflow recipes for implementation and testing, but deep learning approaches for phylogenetic tree generation may have constraints compared to established classical ML methods.