12,445 papers · continuously updated · last export: 10 Aug 2026livingmeta.ai
← Browse all papers
AI evidence extraction

MemoNoveltyAgent: A Historical Research Memory-Aware Agent Workflow for Paper Novelty Assessment

Jiajun Hou, Hexuan Deng, Wenxiang Jiao, Xuebo Liu, Xiaopeng Ke, Min Zhang · arXiv (Cornell University) · 2026

AI-generated evidence extraction, verified across multiple analytical personas. Not a substitute for the peer-reviewed original.

9/10
Relevance
1/4
Quality (LMQS)
D
Evidence
0
Citations
0.00
FWCI

Methodology & findings

Study design

The research employs a design science methodology with artifact development, comparative evaluation against multiple baselines, ablation studies, human alignment validation, and cross-venue generalization testing.

Primary method

Design Science Research with iterative development, comparative evaluation against baselines, ablation studies, human alignment validation, and cross-venue generalization testing

Main result

MemoNoveltyAgent outperforms existing baselines significantly. "Extensive experiments demonstrate that MemoNoveltyAgent outperforms GPT-5 DeepResearch by 13.69%" on the main benchmark. The system achieves an overall score of 9.30 out of 10, compared to 8.18 for GPT-5 DeepResearch and 8.68 for DeepReview. The proposed checklist-based evaluation method demonstrates high alignment with human judgments, with Gemini-2.5-Flash achieving an MSE of 0.28 and MAE of 0.44 on the proxy ground truth task.

Research paradigm

Design Science Research / Engineering

Author conclusions

"In this work, we present MemoNoveltyAgent, a multi-agent workflow for analyzing the novelty of academic papers and generating comprehensive, faithful reports. At its core, the system introduces a historical research memory assisted by a point-wise analysis and self-validation architecture. To support a reliable evaluation of this open task, we also propose a checklist-based evaluation method. We hope MemoNoveltyAgent can serve as a reliable tool for high-quality novelty analysis, reducing the cost of paper screening and helping researchers quickly identify truly original papers."

Risk of bias

Sample representativeness concern: Only 50 papers from ICLR 2025 used in main evaluation, though stratified sampling attempted to ensure diversity across score ranges and research fields; Domain-specific bias: Historical research memory constructed exclusively from ICLR papers (2017-2025), causing cross-venue domain shift when applied to other venues (scores decline by ~0.24 points overall); Evaluator consistency bias: LLM-as-judge evaluation relies on multiple LLM models as proxy gold standard; potential systematic bias from LLM architecture similarities; Human annotation bias: Master's students with AI specialization may have different evaluation standards than domain experts from other fields; Publication bias in memory construction: Only accepted ICLR papers included, not rejected papers or works from other venues; Domain-specific bias toward Computer Science papers (ICLR 2017-2025); Potential LLM biases in evaluation and report generation; Evaluation dataset limited to 50 ICLR papers (small sample); Cross-venue domain shift acknowledged in results; Dataset selection bias: 50-paper ICLR 2025 dataset stratified by score ranges; may not represent full population of papers; Evaluator bias: LLM-as-a-judge evaluation; Gemini-2.5-Flash selected as primary evaluator based on consistency metrics; Domain bias: Historical memory constructed from ICLR papers only; cross-venue evaluation shows performance decline on other venues; Human evaluator bias: Master's students with AI specialization may have limited diversity in background perspectives

Limitations

  • The authors acknowledge several limitations: "First, our proposed agent framework relies heavily on open-access academic papers, which is why our current evaluation and application are primarily focused on the Computer Science (CS) domain
  • In several other disciplines, such as biological sciences, a substantial portion of academic literature is behind paywalls and lacks public retrieval methods." Additionally, "for every target input, our framework dynamically constructs a local literature database, which necessitates downloading a large volume of PDF files in real time
  • This process imposes a significant demand on network resources." Finally, "the execution time for processing a single paper is relatively long" though this is "primarily evident in sequential, single-instance runs
  • when processing large batches of papers, the overall time cost can be effectively mitigated through parallel execution and distributed deployment."

Open questions raised

  • Extension to non-CS disciplines: Authors identify the need for alternative technical routes to handle restricted-access literature in biological sciences and other fields requiring paywalled content
  • Network efficiency improvements: Future work should address the bottleneck of dynamic PDF acquisition for real-time literature database construction
  • Execution time optimization: Need for strategies beyond parallel execution to reduce single-instance processing time
  • Cross-domain generalization: The historical memory trained on ICLR papers shows performance decline on other venues; future work needed for domain adaptation
  • Extension to restricted domains beyond Computer Science (e.g., biological sciences with paywalled literature)
  • Improved network efficiency for PDF acquisition in low-connectivity environments
Data: ICLR 2025 submissions dataset from OpenReview (50 papers for main evaluation); Cross-venue dataset (50 papers from ACL, CVPR, ACM MM, TPAMI, and JMLR); Historical novelty extraction dataset: "approximately 32K historical novelty points from more than 8K accepted papers" from ICLR 2017-2025; ICLR 2025 submissions (from OpenReview) - 50 papers; ICLR historical papers 2017-2025 (approximately 8K papers); Cross-venue dataset: 50 papers from ACL, CVPR, ACM MM, TPAMI, JMLR; ICLR 2025 submissions from OpenReview (50-paper primary dataset); Cross-venue dataset: 50 papers from ACL, CVPR, ACM MM, TPAMI, and JMLR; Historical memory: ~32K historical novelty points from 8K+ ICLR papers (2017-2025); Code and demo stated as available at: https://github.com/SStan1/MemoNoveltyAgentCode: https://github.com/SStan1/MemoNoveltyAgent (Code and demo mentioned as available); https://github.com/SStan1/MemoNoveltyAgentExtracted from: pdfAgreement 49%

Explore related topics

Related papers