Investigating Cost-Efficiency of LLM-Generated Training Data for Conversational Semantic Frame Analysis
Shiho Matta, Yin Jou Huang, Fei Cheng, Hirokazu Kiyomaru, Yugo, Murawaki

TL;DR
This paper explores how to balance cost and quality in training data for conversational semantic analysis by combining human and GPT-4 generated data, optimizing performance across different budgets.
Contribution
It introduces a method for allocating budgets between human and LLM-generated data to maximize cost-efficiency in training models.
Findings
Optimal performance is achieved by combining human and LLM data.
Higher proportions of LLM data are preferable at lower budgets.
Mixing data sources improves cost-efficiency across various budget levels.
Abstract
Recent studies have demonstrated that few-shot learning allows LLMs to generate training data for supervised models at a low cost. However, the quality of LLM-generated data may not entirely match that of human-labeled data. This raises a crucial question: how should one balance the trade-off between the higher quality but more expensive human data and the lower quality yet substantially cheaper LLM-generated data? In this paper, we synthesized training data for conversational semantic frame analysis using GPT-4 and examined how to allocate budgets optimally to achieve the best performance. Our experiments, conducted across various budget levels, reveal that optimal cost-efficiency is achieved by combining both human and LLM-generated data across a wide range of budget levels. Notably, as the budget decreases, a higher proportion of LLM-generated data becomes more preferable.
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Taxonomy
TopicsNatural Language Processing Techniques · Topic Modeling
MethodsDense Connections · Adam · Linear Layer · Residual Connection · Position-Wise Feed-Forward Layer · Attention Is All You Need · Label Smoothing · Dropout · Byte Pair Encoding · Absolute Position Encodings
