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1.安徽大学物质科学与信息技术学院,安徽合肥 230601
2.青海理工学院,青海西宁 810016
Received:31 May 2025,
Accepted:18 March 2026,
Online First:07 May 2026,
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ZHANG Xiaoming, LIU Chengxiang, ZHONG Kai, et al. An Intelligent Bio-Inspired Design Solution Generation Method Integrating Dual-Granularity Knowledge Bases[J/OL]. ACTA ELECTRONICA SINICA, 2026, 1-17.
ZHANG Xiaoming, LIU Chengxiang, ZHONG Kai, et al. An Intelligent Bio-Inspired Design Solution Generation Method Integrating Dual-Granularity Knowledge Bases[J/OL]. ACTA ELECTRONICA SINICA, 2026, 1-17. DOI: 10.12263/DZXB.20250456.
仿生学通过借鉴自然界生物的优异特性,为工程创新提供了重要的方法支撑。然而,如何从丰富的生物信息中提取准确的知识并与设计需求有效对接,仍具有挑战。尽管大语言模型(Large Language Models,LLM)在自动化仿生设计过程中展现了潜力,但其依然存在局限性,包括:认知缺乏导致对仿生原理理解偏差;参数化知识约束引发时效性与准确性不足;外部知识库利用不足使得生成方案缺乏领域支撑。为此,本文提出一种融合双粒度知识库与LLM的智能化仿生设计方案生成方法(Intelligent Bio-Inspired Design,IBID),其核心是整合双粒度仿生知识库与LLM协同生成与评审机制,以实现从问题出发生成完整且有效的仿生设计方案。首先,针对知识表示与检索,本文收集生物优异特性及仿生实例,通过将每种生物策略拆分为连贯的片段,并依据主题相似性对其进行聚类,形成粗细两种粒度的知识表示,构建了双粒度仿生知识库,并设计了双粒度检索机制以提升知识检索的效率与准确性。其次,针对方案生成与优化,本文设计了分层协同的LLM工作流程:初始由基于LLM的仿生设计方案写作专家根据需求生成结构化大纲,进而设计了专家会商评审机制,由多个LLM形成普通专家组,基于知识证据独立扩展草案,再通过多轮德尔菲法进行意见交换、评估与迭代修订,以此集成多元视角、提升一致性与可靠性;最后,由基于LLM的高级专家进行终审,执行逻辑校验、细节补充与整体提升,避免观点漂移,提升方案的完整性与有效性。为验证IBID的有效性,本文在自主构建的仿生数据集上开展了实验分析,结果表明:IBID在Precision@1 (P@1)、Precision@3 (P@3)及Mean Average Precision (MAP)等检索指标上均优于最佳基线模型;在生成质量评估中,IBID在专业质量及内容相关性等大多数指标上优于GraphRAG、RAPTOR及其他基线模型。本方法有效缓解了LLM在专业领域的幻觉与知识局限问题,为高质量、高可靠的智能仿生设计提供了实用框架。
Bio-inspired design leverages the superior characteristics of biological organisms in nature
providing essential methodological support for engineering innovation. However
extracting accurate knowledge from abundant biological information and effectively aligning it with design requirements remains challenging. Although large language models (LLMs) have demonstrated potential in automating the bio-inspired design process
they still exhibit notable limitations
including: cognitive deficiencies leading to biased understanding of bio-inspired principles; parametric knowledge constraints resulting in insufficient timeliness and accuracy; and underutilization of external knowledge bases
which leaves generated solutions lacking domain-specific support. To address these issues
this paper proposes an intelligent bio-inspired design (IBID) method that integrates a dual-granularity knowledge base with LLMs for automated design solution generation. The core of IBID lies in the synergistic integration of a dual-granularity bio-inspired knowledge base with an LLM-based collaborative generation and review mechanism
enabling the generation of complete and effective bio-inspired design solutions from problem statements. First
regarding knowledge representation and retrieval
we collect biological superior characteristics and bio-inspired instances
decompose each biological strategy into coherent segments
and cluster them based on thematic similarity to form coarse- and fine-grained knowledge representations
thereby constructing a dual-granularity bio-inspired knowledge base. A corresponding dual-granularity retrieval mechanism is designed to improve the efficiency and accuracy of knowledge retrieval. Second
regarding solution generation and optimization
we design a hierarchically collaborative LLM workflow: an LLM-based bio-inspired design writing expert initially generates a structured outline based on the requirements; subsequently
an expert consultation and review mechanism is introduced
wherein multiple LLMs form a panel of general experts that independently expand drafts based on knowledge evidence
followed by multi-round Delphi-method-based opinion exchange
evaluation
and iterative revision to integrate diverse perspectives and enhance consistency and reliability; finally
an LLM-based senior expert conducts a final review
performing logical verification
detail supplementation
and overall refinement to prevent viewpoint drift and improve the completeness and effectiveness of the solution. To validate the effectiveness of IBID
experimental analyses are conducted on a self-constructed bio-inspired dataset. The results demonstrate that IBID outperforms the best baseline models across retrieval metrics including Precision@1 (P@1)
Precision@3 (P@3)
and Mean Average Precision (MAP). In the generation quality evaluation
IBID surpasses GraphRAG
RAPTOR
and other baseline models on most metrics
including professional quality and content relevance. The proposed method effectively mitigates hallucination and knowledge limitation issues of LLMs in specialized domains
providing a practical framework for high-quality and reliable intelligent bio-inspired design.
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