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中国农学通报 ›› 2026, Vol. 42 ›› Issue (16): 13-19.doi: 10.11924/j.issn.1000-6850.casb2025-0832

• 农学·农业基础科学 • 上一篇    下一篇

玉米风味相关研究进展

陈佳1(), 马浩然1, 王欣妹1, 李光祖1, 李伟军2, 包格根1, 刘鹏飞1()   

  1. 1 仲恺农业工程学院农业与生物学院, 广州 510225
    2 广东省惠州市惠阳农科服务中心, 广东惠阳 516200
  • 收稿日期:2025-09-30 修回日期:2026-07-14 出版日期:2026-08-25 发布日期:2026-08-20
  • 通讯作者:
    刘鹏飞,男,1982年出生,甘肃会宁人,教授,博士,主要从事玉米遗传育种研究。通信地址:510225 广州市海珠区东沙街24号 仲恺农业工程学院,E-mail:
  • 作者简介:

    陈佳,女,1999年出生,广东梅州人,在读硕士,主要从事玉米遗传育种研究。通信地址:510225 广州市海珠区东沙街24号 仲恺农业工程学院,E-mail:

  • 基金资助:
    2023年广东省普通高校自然科学类重点领域专项“鲜食玉米生物育种技术创新及新品选育与应用”(2023ZDZX4017); 广东省2024年省级乡村振兴战略专项资金种业振兴项目“广东省现代农业产业技术体系创新团队建设项目”(2024-NJS-00-005)

Research Advances on Corn Flavor

CHEN Jia1(), MA Haoran1, WANG Xinmei1, LI Guangzu1, LI Weijun2, BAO Gegen1, LIU Pengfei1()   

  1. 1 College of Agriculture and Biology, Zhongkai University of Agriculture and Engineering, Guangzhou 510225
    2 Huizhou Huiyang Agricultural Science Service Center, Guangdong Province, Huiyang, Guangdong 516200
  • Received:2025-09-30 Revised:2026-07-14 Published:2026-08-25 Online:2026-08-20

摘要:

风味化合物含量作为玉米关键品质性状,其重要性日益受到广泛关注。文章综述了玉米风味特性的物质基础、分析方法演进、调控机制及改良技术的研究进展。概述了玉米风味的主要物质构成,包括挥发性化合物(如醇类、酯类、醛类)和非挥发性化合物。回顾了风味分析方法的发展历程,从传统的色谱法,演进至色谱-质谱联用、核磁共振、电子鼻、光谱技术等多技术融合的高通量平台。分析了施肥调控、水分管理、温差调节等栽培措施对风味物质合成积累的影响,并提出了“品种-环境-管理”的协同调控模式。阐述了代谢组学结合多组学整合与CRISPR等生物技术在解析风味形成代谢机制与调控网络中的应用,探讨了这些技术与机器学习的融合在风味预测、关键成分识别、定向改良及智能育种中的巨大潜力。研究指出,玉米风味是多种成分协同作用下的综合感官表型,单一成分的调控难以实现品质的根本性跃升;鲜食玉米的风味稳定性受到采后贮藏与加工链的显著制约,现有技术体系在标准化评价方面仍显不足。因此,建立覆盖基因型、环境、栽培、加工和感官属性的玉米风味全维度数据库,将是推动风味性状定量化、标准化与可预测化的关键。展望未来,多组学与基因编辑的结合是破解关键风味基因功能、实现定向改良的核心路径,人工智能与合成生物学将加速优质风味玉米的精准育种与工业化创制,“品种-环境-管理-加工”的四位一体协同调控模式可最大化释放玉米风味的遗传潜力,是实现优质鲜食玉米高效产业化的必由之路。

关键词: 玉米风味物质, 挥发性化合物, 栽培技术, 生物技术

Abstract:

Flavor compounds of maize are important quality traits, and their flavor characteristics have attracted increasing attention. This paper reviews the research progress on the material basis of maize flavor characteristics, the evolution of analytical methods, regulatory mechanisms, and improvement technologies. It outlines the material composition of maize flavor (including volatile compounds such as alcohols, esters, and aldehydes, as well as non-volatile compounds), and the evolutionary process of flavor analytical methods, from traditional chromatography to high-throughput multi-technology integrated platforms including chromatography-mass spectrometry, nuclear magnetic resonance (NMR), electronic nose, and spectral techniques. Additionally, the paper analyzes the effects of cultivation measures (e.g., fertilization regulation, water management, and temperature difference adjustment) on the synthesis and accumulation of flavor substances, along with the ‘variety-environment-management’ synergistic regulation model. It also elaborates on the application of metabolomics combined with multi-omics integration and biotechnologies like CRISPR in deciphering the metabolic mechanisms and regulatory networks of flavor formation, as well as the role of integrating these technologies with machine learning in flavor prediction, identification of key components, directional improvement, and intelligent breeding. It is pointed out that maize flavor is a comprehensive sensory phenotype resulting from the synergistic action of multiple components, and regulation of a single component can hardly achieve a qualitative leap in quality. It is concluded that the flavor stability of fresh edible maize is significantly restricted by the postharvest storage and processing chain, and there is still a lack of standardized evaluation systems in existing technologies. It is proposed that a full-dimensional database of maize flavor covering genotype, environment, cultivation, processing and sensory attributes should be established to promote the quantification, standardization and predictability of flavor traits. It is believed that the combination of multi-omics and gene editing is the core approach to decipher the functions of key flavor genes and realize targeted improvement, while artificial intelligence and synthetic biology will accelerate the precision breeding and industrial creation of high-quality flavor maize. Analysis shows that the four-in-one synergistic regulation of ‘variety-environment-management-processing’ can maximize the genetic potential of maize flavor, which is the inevitable way for the efficient industrialization of high-quality fresh edible maize in the future.

Key words: corn flavor compounds, volatile compounds, cultivation technology, biotechnology

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