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Can GPT-4 Support Analysis of Textual Data in Tasks Requiring Highly Specialized Domain Expertise? (2306.13906v1)

Published 24 Jun 2023 in cs.CL

Abstract: We evaluated the capability of generative pre-trained transformers~(GPT-4) in analysis of textual data in tasks that require highly specialized domain expertise. Specifically, we focused on the task of analyzing court opinions to interpret legal concepts. We found that GPT-4, prompted with annotation guidelines, performs on par with well-trained law student annotators. We observed that, with a relatively minor decrease in performance, GPT-4 can perform batch predictions leading to significant cost reductions. However, employing chain-of-thought prompting did not lead to noticeably improved performance on this task. Further, we demonstrated how to analyze GPT-4's predictions to identify and mitigate deficiencies in annotation guidelines, and subsequently improve the performance of the model. Finally, we observed that the model is quite brittle, as small formatting related changes in the prompt had a high impact on the predictions. These findings can be leveraged by researchers and practitioners who engage in semantic/pragmatic annotations of texts in the context of the tasks requiring highly specialized domain expertise.

Analysis of GPT-4's Capabilities in Legal Textual Interpretation Tasks

The paper "Can GPT-4 Support Analysis of Textual Data in Tasks Requiring Highly Specialized Domain Expertise?" provides a comprehensive evaluation of OpenAI's GPT-4 model in performing semantic analysis on court opinions, particularly in understanding legal concepts as expressed in statutory law. This investigation reveals significant insights into how LLMs like GPT-4 can be applied in specialized domains requiring advanced domain expertise, such as legal analysis, potentially transforming how these tasks are approached.

Evaluation and Comparison

The authors benchmark GPT-4 against human annotators—specifically, law students—and identify that GPT-4 performs comparably to these annotators when prompted with detailed annotation guidelines. The research reveals that GPT-4 achieves an overall F1 score of .53 in the context of analyzing sentences from case law. This performance metric, combined with Krippendorff's α\alpha reliability figures which indicate GPT-4's annotations align closely with well-trained law student annotators, showcases the effectiveness of LLMs in legal text analysis. However, the paper points out a notable issue with the model’s predictions, particularly in distinguishing the "Potential value" class from other categories, which contributes to a reduction in overall performance.

Techniques and Cost Considerations

A significant aspect of the paper is the exploration of batch predictions using GPT-4, demonstrating that while there is a minor trade-off in performance (a slight decrease in F1 score to .52), this method drastically reduces costs compared to single prediction submissions. The paper employs prompt engineering methods, such as chain-of-thought prompting, to encourage more accurate predictions. However, these interventions did not lead to improved results, suggesting potential limitations of these techniques in this specific task.

Mitigating Annotation Deficiencies

The authors identify deficiencies in the original annotation guidelines through a detailed analysis of GPT-4 predictions, leading to refined guidelines that improve the model’s performance to a moderate extent (F1 score of .57 with updated guidelines). This iterative process highlights the importance of refining instructions to optimize model performance and demonstrates the brittleness of GPT-4 predictions, where minor prompt formatting changes significantly affect outcomes.

Practical and Theoretical Implications

With GPT-4 reflecting human-like performance in complex annotation tasks, its application can substantially lower the barrier to entry for resource-intensive legal studies. This can broaden the scope of AI in law research and practical workflows, such as eDiscovery and contract review, by automating parts of the annotation process traditionally reliant on expensive and scarce human expertise. However, the noted brittleness issues suggest a need for stability improvements in these models for robust and reliable deployment in high-stakes environments.

Future Directions

The paper suggests several avenues for further exploration, such as extending evaluation across a wider range of legal tasks and exploring methods to enhance model robustness against prompt variations. The potential for model fine-tuning and incorporating few-shot learning to improve task-specific accuracy also remains open for exploration. These future studies are critical for advancing the usability of LLMs in specialized domains, ensuring their reliability and consistency meet professional standards.

In conclusion, the research makes significant strides in applying LLMs to specialized fields like law, highlighting both their potential and the challenges that need to be addressed to fully utilize these technologies.

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Authors (5)
  1. Jaromir Savelka (47 papers)
  2. Kevin D. Ashley (11 papers)
  3. Hannes Westermann (16 papers)
  4. Huihui Xu (9 papers)
  5. Morgan A Gray (1 paper)
Citations (75)
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