Large Language Models As Evolution Strategies
education
production
architectures
prompt-engineering
Large language models can perform evolutionary optimization algorithms without explicit task specification.
Summary:
- Large language models (LLMs) are investigated to determine if they can implement evolutionary optimization algorithms.
- A novel prompting strategy is introduced to enable LLMs to propose improvements to the mean statistic for black-box optimization.
- Empirical findings show that the setup allows for an LLM-based evolution strategy, EvoLLM, to outperform baseline algorithms on synthetic BBOB functions and small neuroevolution tasks.
Major Findings:
- LLMs can act as ‘plug-in’ in-context recombination operators for evolutionary optimization algorithms.
- EvoLLM robustly outperforms baseline algorithms such as random search and Gaussian Hill Climbing on synthetic BBOB functions and small neuroevolution tasks.
- The performance of EvoLLM is influenced by the model size, prompt strategy, and context construction.
Analysis and Critique:
- The study provides valuable insights into the potential of LLMs for implementing evolutionary optimization algorithms.
- The findings suggest that LLMs can be leveraged for autonomous optimization, but further research is needed to understand the impact of pretraining and fine-tuning protocols on EvoLLM’s performance.
- The study highlights the importance of careful solution representation and context construction for LLM-based optimization.
- The potential ethical considerations of using LLMs for autonomous optimization purposes are acknowledged, emphasizing the need for careful monitoring of their agency.
Appendix
Model | gpt-3.5-turbo-1106 |
Date Generated | 2024-02-29 |
Abstract | https://arxiv.org/abs/2402.18381v1 |
HTML | https://browse.arxiv.org/html/2402.18381v1 |
Truncated | False |
Word Count | 7331 |