nemo-rl-auto-research

Orchestrate NeMo-RL research campaigns with git-based experiment branching and metric logging.

1|Updated Jul 12, 2026
One-click install
npx skills add https://github.com/Tyler-R-Kendrick/slm-training --skill nemo-rl-auto-research-tyler-r-kendrick
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: nemo-rl-auto-research
Source: https://github.com/Tyler-R-Kendrick/slm-training/tree/main/.agents/skills/nemo-rl-auto-research
Command: npx skills add https://github.com/Tyler-R-Kendrick/slm-training --skill nemo-rl-auto-research-tyler-r-kendrick

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill requires uv, and includes references (resource) components.

What problem does it solve?

This skill automates the repetitive, high-stakes lifecycle of iterative reinforcement learning research, ensuring that experiments are reproducible, tracked, and grounded in evidence rather than manual trial-and-error.

Core Features & Use Cases

  • Autonomous Experimentation: Manages the full loop of hypothesis testing, from branching and launching jobs to metric extraction and logging.
  • Research Ledger: Maintains a rigorous git-based journal and TSV logs to ensure every experiment, successful or failed, is auditable and reproducible.
  • Use Case: When tuning GRPO accuracy for a model, use this skill to systematically test prompt schemas, batch sizes, and reward scaling across multiple branches while enforcing strict stop conditions to manage compute budgets.

Quick Start

Use the nemo-rl-auto-research skill to plan and execute a research campaign for improving model accuracy on the current recipe.

Frequently Asked Questions about nemo-rl-auto-research

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

FAQPage Schema
How do I automate reinforcement learning experiment tracking with git branching?

You can automate reinforcement learning experiment tracking by orchestrating autonomous NeMo-RL research campaigns that manage git-based experiment branching, execute jobs, and log metrics. This maintains a reproducible research ledger across diverse compute environments.

What is the best way to run autonomous NeMo-RL hypothesis testing for model accuracy?

The best way to run autonomous NeMo-RL hypothesis testing is to systematically test prompt schemas, batch sizes, and reward scaling across multiple experiment branches while enforcing strict stop conditions to manage compute budgets.

Do I need uv to manage NeMo-RL research campaigns?

Yes, you need uv installed as a dependency to manage and execute autonomous NeMo-RL research campaigns. It supports the local git workflows and recipe-specific validation metrics required to maintain a reproducible research ledger.

Can I use git branching to manage reinforcement learning reward shaping experiments?

Yes, you can use git branching to manage reinforcement learning reward shaping experiments. The skill orchestrates directed hypothesis testing for reward shaping by managing experiment branching, job execution, and metric logging.

How does a research ledger improve reinforcement learning experimentation reproducibility?

A research ledger improves reinforcement learning experimentation reproducibility by maintaining a rigorous git-based journal and TSV logs. This ensures every experiment, successful or failed, is auditable and grounded in evidence.

When should I enforce stop conditions during reinforcement learning throughput optimization?

You should enforce stop conditions during reinforcement learning throughput optimization to manage compute budgets across diverse compute environments. This prevents runaway experiments while testing directed hypotheses for throughput optimization.