training-optimization

Configure learning rates, LoRA, batch sizes, and gradient strategies for LLM fine-tuning.

1|1|Updated Sep 21, 2025
One-click install
npx skills add https://github.com/ScientiaCapital/unsloth-mcp-server --skill training-optimization
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: training-optimization
Source: https://github.com/ScientiaCapital/unsloth-mcp-server/tree/main/.claude/skills/training-optimization
Command: npx skills add https://github.com/ScientiaCapital/unsloth-mcp-server --skill training-optimization

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This Skill provides a structured approach to optimizing LLM fine-tuning, helping teams achieve better model performance with efficient use of compute and data.

Core Features & Use Cases

  • Learning rate optimization: Select schedulers, warmup, and values that promote stable convergence.
  • LoRA configuration: Tune rank, alpha, and target modules to balance capacity and efficiency.
  • Batch size, sequence length, and precision: Balance memory and throughput for different hardware.
  • Hyperparameter tuning workflows: Grid search and Bayesian optimization to find strong defaults.
  • Monitoring & reproducibility: Integrate with WandB/TensorBoard to compare runs and track experiments.
  • Use Case: Fine-tune a 7B model on a budget GPU while achieving target eval metrics.

Quick Start

  • Install dependencies: pip install transformers trl wandb accelerate
  • Prepare a small dataset and a baseline model checkpoint
  • Run a starter training script with recommended defaults (lr=2e-4, r=16, target_modules all, cosine warmup)

Frequently Asked Questions about training-optimization

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

FAQPage Schema
How do I optimize learning rates when fine-tuning large language models?

Learning rate optimization involves selecting schedulers, warmup strategies, and values that promote stable convergence during LLM fine-tuning. Common approaches use cosine annealing with warmup and initial rates around 2e-4 for 7B models, adjusting based on batch size and dataset characteristics.

What is LoRA and how do I configure it for efficient fine-tuning?

LoRA (Low-Rank Adaptation) reduces fine-tuning parameters by adding trainable rank decomposition matrices to model weights. Configure it by tuning rank (typically 8-16), alpha scaling, and target modules to balance model capacity against memory constraints and training speed.

Can I fine-tune large language models on budget GPUs with limited memory?

Yes. Memory-constrained fine-tuning combines LoRA, reduced batch sizes, sequence length optimization, mixed precision training, and gradient accumulation. These techniques enable efficient training of 7B+ models on consumer-grade GPUs while maintaining target evaluation metrics.

How do I set up reproducible LLM fine-tuning experiments with monitoring?

Integrate WandB or TensorBoard to track hyperparameters, loss curves, and evaluation metrics across runs. Use fixed random seeds, version control for datasets and model checkpoints, and log all hyperparameter configurations to enable comparison and reproduction of results.

What hyperparameter tuning methods work best for finding optimal LLM fine-tuning settings?

Grid search suits smaller parameter spaces, while Bayesian optimization efficiently explores high-dimensional hyperparameter landscapes. Start with recommended defaults (learning rate 2e-4, LoRA rank 16), then systematically vary learning rate schedules, batch size, and gradient strategies based on validation performance.

Do Transformers, TRL, and Accelerate libraries work together for fine-tuning workflows?

Yes. Transformers provides model loading and tokenization, TRL supplies fine-tuning utilities and trainer abstractions, and Accelerate handles distributed training and memory optimization across different hardware. These libraries integrate seamlessly for end-to-end LLM fine-tuning pipelines.