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Introducing OnlySportsLM: A Focused Language Model for Sports

OnlySportsLM offers a tailored solution for effective sports language processing.

Zexin Chen, Chengxi Li, Xiangyu Xie, Parijat Dube

― 5 min read


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Table of Contents

This article discusses a new language model called OnlySportsLM, which is designed specifically for sports-related tasks. It aimed to use a smaller model trained on a large amount of sports data, making it efficient while still providing strong performance. The study introduces a dataset and evaluation method tailored for sports language processing.

The Need for Sports-Specific Language Models

General large language models (LLMs) perform well across many tasks, but they often require lots of computing power and can struggle with specific subjects like sports. A more targeted model could achieve good results in sports while being smaller and cheaper to run. This can help researchers and developers who may not have access to extensive computational resources.

There are many challenges with existing domain-specific models. For example, some powerful models need a vast amount of computing power, which is not practical for many institutions. Moreover, existing sports language models are often trained on much smaller datasets, which limits their effectiveness. This makes it clear that there is a demand for optimized, smaller models that focus specifically on sports.

Creating the OnlySports Dataset

The OnlySports Dataset is a large collection of sports-related text. It includes various types of content, such as articles, blogs, and match reports, gathered from the FineWeb dataset, which is a source of cleaned web data. The dataset consists of around 600 billion tokens, making it the largest sports-specific text collection available for training language models.

To create this dataset, the researchers used a two-step process. First, they filtered URLs to find relevant sports content. Then, they developed a classifier to accurately identify and extract sports-related documents. This approach ensured that they collected high-quality, relevant materials for training the OnlySportsLM model.

Filtering Sports Content

To find sports-related documents, the researchers started with a list of sports terms and organizations. This included general sports words (like "football" and "basketball") as well as names of teams and leagues (such as "NBA" and "NFL"). This step helped them quickly narrow down the vast amount of data to focus on relevant content.

After filtering the URLs, a sports text classifier was created. This classifier was trained on a balanced dataset that included both sports and non-sports documents. By using this method, the researchers ensured that the classifier was effective at distinguishing between sports-related and non-sports-related text.

Optimizing the Model Structure

Once the dataset was prepared, the researchers turned their attention to the model architecture. They wanted to see whether they could improve performance by changing the structure of the model. Based on previous studies, they hypothesized that using a deeper model with fewer dimensions might yield better results for small, specialized models.

They tested different configurations with a focus on models with approximately 196 million parameters. The researchers found that a model with 20 layers and a specific width performed well in sports-related tasks, leading to the creation of the OnlySportsLM model.

Training the OnlySportsLM Model

The training of OnlySportsLM was conducted on powerful GPUs, and it utilized part of the OnlySports Dataset. The model underwent numerous experiments to fine-tune its performance. It was evaluated on various tasks, including zero-shot commonsense reasoning and sports text generation.

In these tests, OnlySportsLM showed significant improvements over previous state-of-the-art models that had 135 million and 360 million parameters. It succeeded in matching the performance of larger models that had around 1.5 billion parameters specifically in sports tasks.

Evaluation with the OnlySports Benchmark

A crucial part of the research was the development of the OnlySports Benchmark, a unique evaluation method for testing the language model’s ability to generate sports knowledge. This benchmark used diverse prompts to assess the model's performance in a sports context, allowing for a better understanding of its strengths and weaknesses.

To create the evaluation dataset, they generated a variety of sports-related tags and crafted prompts based on these tags. Each prompt was designed to end abruptly, giving the model a chance to complete the sentence. This setup allowed for a clear assessment of how well the model could generate coherent and contextually relevant text.

Performance Metrics

The evaluation of OnlySportsLM involved two main criteria: Accuracy and Continuity. Accuracy measured how factually correct the model’s responses were, while continuity assessed how well the responses maintained the context of the original prompt.

The evaluation employed state-of-the-art models as judges to reduce bias and improve reliability. The researchers found that OnlySportsLM outperformed its smaller counterparts while providing competitive results against larger models.

Findings on Model Performance

The results from the experiments indicated that the OnlySportsLM model performed exceptionally well in sports-specific tasks. It surpassed the performance of models under one billion parameters significantly, demonstrating that a smaller, specialized model could be highly effective in a specific domain.

Interestingly, even though OnlySportsLM was trained specifically on sports content, it also showed signs of improved general language understanding. This suggests potential benefits to using domain-specific training processes, even for broader applications.

Future Work and Potential Enhancements

Encouraged by the results, the researchers plan to continue their work with OnlySportsLM. Future enhancements may include completing the training on the entire dataset to further improve performance. They also hope to explore new techniques that could optimize the model and possibly improve its performance on specific tasks.

Additionally, the researchers are interested in how well the methods used in sports can be adapted to other specialized fields. This could provide valuable insights for creating high-quality models in various domains, leading to more efficient AI solutions.

Conclusion

The creation of OnlySportsLM and the accompanying dataset marks a significant step in developing efficient language models tailored to specific areas. By focusing on sports, this research highlights the importance of targeted data and model structures. The advancements achieved show that even smaller models can compete with much larger ones when they are well-designed for a particular task. This approach could serve as a model for future developments in other specialized fields, paving the way for a new wave of efficient language processing tools.

Original Source

Title: OnlySportsLM: Optimizing Sports-Domain Language Models with SOTA Performance under Billion Parameters

Abstract: This paper explores the potential of a small, domain-specific language model trained exclusively on sports-related data. We investigate whether extensive training data with specially designed small model structures can overcome model size constraints. The study introduces the OnlySports collection, comprising OnlySportsLM, OnlySports Dataset, and OnlySports Benchmark. Our approach involves: 1) creating a massive 600 billion tokens OnlySports Dataset from FineWeb, 2) optimizing the RWKV architecture for sports-related tasks, resulting in a 196M parameters model with 20-layer, 640-dimension structure, 3) training the OnlySportsLM on part of OnlySports Dataset, and 4) testing the resultant model on OnlySports Benchmark. OnlySportsLM achieves a 37.62%/34.08% accuracy improvement over previous 135M/360M state-of-the-art models and matches the performance of larger models such as SomlLM 1.7B and Qwen 1.5B in the sports domain. Additionally, the OnlySports collection presents a comprehensive workflow for building high-quality, domain-specific language models, providing a replicable blueprint for efficient AI development across various specialized fields.

Authors: Zexin Chen, Chengxi Li, Xiangyu Xie, Parijat Dube

Last Update: 2024-08-30 00:00:00

Language: English

Source URL: https://arxiv.org/abs/2409.00286

Source PDF: https://arxiv.org/pdf/2409.00286

Licence: https://creativecommons.org/licenses/by-nc-sa/4.0/

Changes: This summary was created with assistance from AI and may have inaccuracies. For accurate information, please refer to the original source documents linked here.

Thank you to arxiv for use of its open access interoperability.

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