›› 2027, Vol. 51 ›› Issue (动植物互作): 0-.DOI: 10.17521/cjpe.2025.0449

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昆虫虫瘿生态系统的复杂性及成瘿机制研究进展

刘志祥, 黎凤兰, 黄晓磊   

  1. 福建农林大学, 农林生物安全全国重点实验室,福州, 350002
  • 收稿日期:2025-12-20 修回日期:2026-02-09 出版日期:2027-01-28
  • 基金资助:
    国家自然科学基金项目(32570547); 国家科技基础资源调查专项(2022FY100500)

The complexity of insect gall ecosystem and advances in gall induction mechanisms

LIU Zhi-Xiang, LI Fenglan, HUANG Xiaolei   

  1. , State Key Laboratory of Agricultural and Forestry Biosecurity, Fujian Agriculture and Forestry University, Fuzhou 350002,
  • Received:2025-12-20 Revised:2026-02-09 Online:2027-01-28
  • Supported by:
    the National Natural Science Foundation of China(32570547); the National Science & Technology Fundamental Resources Investigation Program(2022FY100500)

摘要: 昆虫虫瘿系统存在复杂的生态互作,具有丰富的多样性和极高的农业经济价值。但虫瘿复杂性、形成机制及多样化成因等方面理解的欠缺阻碍了致瘿害虫高效防控和虫瘿资源规模化应用。该文对虫瘿复杂性、形成和多样化的多维调控机制进行综述并讨论了潜在的研究方向。虫瘿以昆虫-植物为核心构建复杂生态互作网络,生物和非生物因素共同影响虫瘿互作及表型的复杂性,但其复杂互作网络的生态后果仍待系统阐明。成瘿机制的复杂性或许是虫瘿复杂性和表型多样化的原因之一,目前研究表明基因表达改变、效应蛋白介导的互作、植物激素动态调控、次生代谢产物积累与解毒、植物生理生化参数变化、植物表观遗传调控与昆虫共生微生物均可能参与虫瘿形成和发育并影响其功能和表型多样化,但详细机制及多因子协同作用路径仍不清晰。未来研究可整合多组学、人工智能、实时可视化传感器与基因编辑等技术,开展以下研究:1.建立虫瘿多样性数据库及更多类似Ab‑GALFA的模式系统;2.解析更多昆虫效应蛋白及其作用靶标,揭示二者互作模式;3.明确激素(昆虫/植物源)调控网络的时空对话机制;4.阐明次生代谢产物介导的昆虫-植物攻防互作在虫瘿形成中的作用,强化昆虫对虫瘿次生代谢产物的解毒代谢机制研究;5.探讨表观遗传与昆虫共生微生物在成瘿中的作用;6.揭示多因子在虫瘿形成及多样化中的协同效应。相关突破将深化对虫瘿生态系统形成、维持及多样化调控机制的理解,并为开发基于成瘿机制的高效控害技术及虫瘿资源规模利用提供理论支撑。

关键词: 昆虫-植物互作, 生态系统工程, 防御-反防御, 虫瘿多样性, 致瘿昆虫, 昆虫效应因子

Abstract: The insect gall ecosystem exhibits complex ecological interactions, harbors rich biodiversity, and holds significant agricultural and economic importance. However, insufficient understanding regarding gall complexity, formation mechanisms, and diversification significantly hinders the effective control of gall-inducing pests and the large-scale application of valuable galls. This review discusses the multi-dimensional regulatory mechanisms underlying gall complexity, formation, and diversification, and proposes potential research directions. Galls constitute complex ecological interaction networks centered on insect-plant interactions, in which both biotic and abiotic factors collectively influence the interaction dynamics and phenotypic complexity of galls. Nevertheless, the ecological consequences of these intricate interactions still await systematic elucidation. The complexity of gall-formation mechanisms may explain the overall complexity and phenotypic diversity of galls. Current research implicates that multiple factors are involved in gall formation and diversification, including gene expression changes, effector protein interactions, hormone dynamics, secondary metabolite metabolism, plant physiological shifts, epigenetic modifications, and insect symbionts. However, the detailed mechanisms and synergistic pathways involving multiple factors remain unclear. Future research could integrate multi-omics, artificial intelligence, real-time visualization sensors, and gene editing technologies to advance the following areas: 1) Establish a gall diversity database and develop more model systems similar to Ab‑GALFA; 2) Identify additional insect effector proteins and their target proteins to elucidate their interaction patterns; 3) Clarify the spatiotemporal dialogue mechanisms within hormone regulatory networks (of both insect and plant origin); 4) Elucidate the role of secondary metabolite-mediated insect–plant defense/counter-defense interactions in gall formation and strengthen research on insect detoxification mechanisms targeting gall secondary metabolites. 5) Investigate the roles of epigenetic regulation and insect symbionts in the induction and development of galls; 6) Uncover the synergistic effects and underlying mechanisms of multiple factors in gall formation and diversification. Advances in these fields will elucidate the regulatory mechanisms governing gall ecosystem formation, maintenance, and diversification, thereby providing a theoretical foundation for developing efficient pest control strategies and enabling the large-scale utilization of economically valuable galls.

Key words: insect-plant interaction, ecosystem engineering, defense/counter-defense, gall diversity, gall-inducing insects, insect effectors