TensorX
返回文献探索

Paper · arXiv 2412.11231

Smaller Language Models Are Better Instruction Evolvers

Tingfeng Hui, Lulu Zhao, Guanting Dong, Yaqi Zhang, Hua Zhou, Sen Su

29 upvotesDecember 15, 2024arXiv 预印本
AI 摘要

Smaller language models can generate more effective and diverse instructions than larger models, challenging the assumption that model size directly correlates with instruction synthesis quality.

instruction tuninglarge language modelsinstruction evolutionsmaller language modelsinstruction complexityIFD scoreIC-IFD

Abstract

Instruction tuning has been widely used to unleash the complete potential of large language models. Notably, complex and diverse instructions are of significant importance as they can effectively align models with various downstream tasks. However, current approaches to constructing large-scale instructions predominantly favour powerful models such as GPT-4 or those with over 70 billion parameters, under the empirical presumption that such larger language models (LLMs) inherently possess enhanced capabilities. In this study, we question this prevalent assumption and conduct an in-depth exploration into the potential of smaller language models (SLMs) in the context of instruction evolution. Extensive experiments across three scenarios of instruction evolution reveal that smaller language models (SLMs) can synthesize more effective instructions than LLMs. Further analysis demonstrates that SLMs possess a broader output space during instruction evolution, resulting in more complex and diverse variants. We also observe that the existing metrics fail to focus on the impact of the instructions. Thus, we propose Instruction Complex-Aware IFD (IC-IFD), which introduces instruction complexity in the original IFD score to evaluate the effectiveness of instruction data more accurately. Our source code is available at: https://github.com/HypherX/Evolution-Analysis{https://github.com/HypherX/Evolution-Analysis}

北京市昌平区探索星信息技术及软件开发工作室

京ICP备2026059466号
Smaller Language Models Are Better Instruction Evolvers | TensorX