| --- |
| language: |
| - "en" |
| license: "apache-2.0" |
| tags: |
| - "benchmark" |
| - "fine-tuning" |
| - "performance" |
| - "LLM" |
| - "configuration" |
| annotations_creators: |
| - "expert-generated" |
| - "ado" |
| language_details: "en-US" |
| pretty_name: "LLMFineTuningBench" |
| size_categories: |
| - ">30K" |
| task_categories: |
| - "tabular-regression" |
| - "tabular-classification" |
| task_ids: |
| - "tabular-single-column-regression" |
| - "tabular-multi-class-classification" |
| configs: |
| - config_name: "default" |
| data_files: |
| - split: "all" |
| path: "ado-sfttrainer-v1-0-0.csv" |
| --- |
| |
| # Dataset Card for LLMFineTuningBench |
|
|
| A dataset of over 30,000 LLM fine-tuning experiments, capturing detailed performance metrics from jobs run on high-performance computing (HPC) clusters. It spans a wide range of models, fine-tuning methods, and hardware configurations, and is intended to support research on predictive resource allocation, performance optimization, and cost estimation for LLM fine-tuning workloads. |
|
|
| ## Dataset Details |
|
|
| ### Dataset Description |
|
|
| The rapid adoption of Large Language Models (LLMs) has led to a surge in fine-tuning activities to adapt these models for specific tasks. However, selecting the optimal hardware and software configuration for fine-tuning is a complex, multi-dimensional problem that can lead to significant resource wastage and computational overhead. To address this challenge, we introduce a comprehensive dataset of over 15,000 LLM fine-tuning experiments. The dataset captures detailed performance metrics from jobs executed on high-performance computing clusters, covering a wide range of models, fine-tuning methods, and hardware configurations. |
|
|
| ### Dataset Sources |
|
|
| <!-- Provide the basic links for the dataset. --> |
|
|
| The dataset was collected by systematically exploring the parameter space of LLM fine-tuning across different hardware and software configurations on a high-performance cluster equipped with GPUs. This exploration was conducted using IBM's [ado (accelerated discovery orchestrator)](https://ibm.github.io/ado/) framework. ado features multiple [actuators](https://ibm.github.io/ado/actuators/working-with-actuators/) for executing experiments and collecting data. |
|
|
| The data for LLM Fine-tuning benchmarking was collected by the [SFTTrainer actuator](https://ibm.github.io/ado/actuators/sft-trainer/). Under the hood, this actuator wraps the [fms-hf-tuning](https://github.com/foundation-model-stack/fms-hf-tuning) library, which itself builds on the [`SFTTrainer` API from Hugging Face Transformers](https://huggingface.co/docs/trl/sft_trainer). The data is collected using AIM (AI Metadata) to capture profiling metadata during training runs. |
|
|
| - **Repository:** [ado SFTTrainer](https://github.com/IBM/ado/blob/main/plugins/actuators/sfttrainer/ado_actuators/sfttrainer/README.md) |
|
|
| ## Uses |
|
|
| This dataset is intended to support the development of predictive models that map a proposed job configuration (model, hardware, method) to expected throughput and resource utilization — enabling "cost-calculator" or recommendation tools that guide users toward efficient fine-tuning setups. |
|
|
| ### Direct Use |
|
|
| - Transfer learning approaches |
| - Performance prediction models |
| - Handling categorical configuration space expansion |
| - Sample-efficient model building strategies |
|
|
| See [ado Autoconf](https://github.com/IBM/ado/tree/main/plugins/custom_experiments/autoconf) for examples of how this data was used for building predictive models for automated configuration of resources for fine-tuning workloads |
|
|
| ## Dataset Structure |
|
|
| These columns are produced from the data collected by the SFTTrainer actuator. The parameter descriptions have been sourced from the [ado SFTTrainer actuator documentation](https://ibm.github.io/ado/actuators/sft-trainer/#finetune_full_benchmark-v100). |
|
|
| In case of any discrepancy, please refer to the actuator documentation for the most accurate and up-to-date information. |
| Key columns in the dataset: |
|
|
| | Column | Description | |
| | --- | --- | |
| | `model_name` | Name of the base LLM (e.g., `llama3-8b`, `mixtral-8x7b-instruct-v0.1`) | |
| | `method` | Fine-tuning technique used: `full`, `lora`, or `gptq-lora` | |
| | `number_gpus` | Number of GPUs allocated for the job | |
| | `gpu_model` | GPU model used (e.g., `L40S`) | |
| | `batch_size` | Number of samples processed per training step | |
| | `tokens_per_sample` | Sequence length of each sample | |
| | `is_valid` | Binary flag (1 or 0) indicating whether the run completed successfully | |
| | `dataset_tokens_per_second` | Primary throughput metric — tokens processed per second from the dataset; the most reliable performance measure | |
|
|
| Other columns capture additional metrics such as GPU memory utilization, GPU compute utilization, GPU power draw, and total training runtime. |
|
|
| ## Dataset Creation |
|
|
| #### Data Collection and Processing |
|
|
| We benchmarked **30,190 jobs**, varying parameters of `SFTTrainer` including the base model, fine-tuning method, number of GPUs, and batch size. Training data consisted of random text, since the primary goal was to measure computational performance rather than model accuracy — the resulting fine-tuned model weights were discarded after each run. |
|
|
| ## Citation [optional] |
|
|
| If you use this dataset, please cite it as: |
| ``` |
| @misc{lotito26finetuning, |
| title={LLM Fine-Tuning Benchmark Dataset}, |
| author={Lotito, Daniele and Vassiliadis, Vassilis and |
| Pomponio, Alessandro and Venugopal, Srikumar and Johnston, Michael}, |
| howpublished={Hugging Face Datasets}, |
| url = {https://huggingface.co/datasets/ibm-research/LLMFineTuningBench/}, |
| year={2026} |
| } |
| ``` |
|
|
| ## Contact Information |
|
|
| For any comments or questions, please email [Daniele Lotito](mailto:daniele.lotito@ibm.com), [Vassilis Vassiliadis](mailto:vassilis.vassiliadis@ibm.com) and [Srikumar Venugopal](mailto:srikumarv@ie.ibm.com). |
|
|