AutoSurvey: Large Language Models Can Automatically Write Surveys
Yidong Wang, Qi Guo, Wenjin Yao, Hongbo Zhang, Xin Zhang, Zhen Wu et al. · arXiv (Cornell University) · 2024
AI-generated evidence extraction, verified across multiple analytical personas. Not a substitute for the peer-reviewed original.
This is an AI analysis. Read the peer-reviewed original at the publisher: https://doi.org/10.48550/arxiv.2406.10252
Methodology & findings
Study design
AutoSurvey employs a four-phase methodology: (1) Initial Retrieval and Outline Generation using embedding-based retrieval from 530,000 arXiv papers, with multiple parallel outlines synthesized into a comprehensive outline; (2) Subsection Drafting where specialized LLMs draft each section in parallel using Retrieved-Augmented Generation (RAG) with relevant papers; (3) Integration and Refinement where sections are individually refined and merged; (4) Rigorous Evaluation using Multi-LLM-as-Judge strategy.
Primary method
Design science research with iterative development and comparative evaluation against baselines
Main result
AutoSurvey demonstrates that "at 64k tokens, AutoSurvey achieves 82.25% recall and 77.41% precision in citation quality, outperforming naive RAG-based LLMs (68.79% recall and 61.97% precision) and approaching human performance (86.33% recall and 77.78% precision). In content quality at 64k tokens, AutoSurvey scores 4.73 in coverage, 4.33 in structure, and 4.86 in relevance, closely aligning with human performance (5.00, 4.66, and 5.00 respectively)."
Research paradigm
Design science / Engineering research
Author conclusions
The authors conclude: "In conclusion, to the best of our knowledge, AutoSurvey is the first system to explore the potential of large model agents in writing extensive academic surveys. It proposes evaluation criteria for surveys that align with human preferences, providing a valuable reference for future related research." They further state that AutoSurvey "significantly outperforms naive RAG-based LLM generation and matches human performance in content and citation quality, while also being highly efficient. This advancement offers a scalable and effective solution for synthesizing research literature, providing a valuable tool for researchers in rapidly evolving fields like artificial intelligence."
Risk of bias
Potential bias in human expert evaluation; selection bias in survey topics tested (limited to 20 computer science topics); parametric knowledge bias of LLMs leading to overgeneralization (51% of citation errors); potential variation in evaluation outcomes across different LLM raters.; Selection bias: Human surveys used for evaluation were excluded during retrieval, but the selection criteria for which surveys constitute 'high-quality' benchmarks is not fully transparent; Evaluator bias: LLM-based evaluation relies on model consistency; Spearman's rho of 0.5429 indicates only moderate correlation with human judgment; Parametric knowledge bias: LLMs show heavy reliance on internal knowledge (51% of errors are overgeneralizations), potentially biasing surveys toward patterns in training data; Limited topic diversity: Evaluation restricted to 20 computer science topics related to LLMs; generalizability to other fields uncertain; Annotation bias: Human expert evaluation used for 'meta-evaluation' but no inter-rater reliability (Cohen's kappa, Fleiss' kappa) reported; Corpus bias: Retrieval database of 530,000 papers limited to arXiv computer science papers; coverage of other fields/databases not addressed; Evaluation bias: Multiple LLM evaluators may share similar biases in assessing survey quality; Selection bias: Human surveys used for comparison were excluded from retrieval database, but may not represent typical human-written surveys; Model bias: AutoSurvey relies on parametric knowledge of LLMs, leading to overgeneralization (51% of errors); Citation hallucination: LLMs may generate plausible but inaccurate citations; Database bias: Evaluation limited to arXiv computer science papers (530,000 papers)
Limitations
- The authors identify three main categories of citation errors in their manual analysis: "Misalignment occurs when the connection between them is incorrectly made, such as an irrelevant citation
- Misinterpretation happens when the claim and source are related, but the claim incorrectly represents the information from the source
- Overgeneralization occurs when a claim extends the conclusions of the source material to a broader context than is supported." Notably, "Among the three types of errors, overgeneralization accounts for the largest proportion (51%), indicating that LLMs still rely heavily on their parametric knowledge for writing." Additionally, the authors note that "as our method relies on the performance of large models, it inevitably contains citation errors
- Therefore, the generated survey content is intended for reference only."
Open questions raised
- The paper identifies the lack of comprehensive surveys in many fields and the challenge of rapid information accumulation in fields like AI that outpaces scholarly review capacity. The authors note the need for more efficient methods to synthesize expanding literature and propose their system as addressing these gaps.
- Limited evaluation scope: Evaluation restricted to 20 topics in computer science; generalizability to other academic domains unexplored
- Moderate LLM-human alignment: Spearman's rho of 0.5429 indicates room for improvement in automated evaluation consistency with human judgment
- Overgeneralization persistence: 51% of citation errors are overgeneralizations, indicating need for improved mechanisms to constrain LLM parametric knowledge
- Long-form generation challenges: While addressed for surveys up to 64k tokens, scalability beyond this length and to other long-form formats not explored
- Real-time knowledge currency: RAG mechanism relies on arXiv database; timeliness and completeness of retrieval for emerging topics not quantified
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