首页 > 过刊浏览>2023年第42卷第6期 >59-72. DOI:10.13300/j.cnki.hnlkxb.2023.06.009
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生物源新型铁螯合剂研究进展及其应用
CSTR:
[cstr]
作者:
作者单位:

1.养分利用和管理国家重点实验室/中国农业大学资源环境学院/国家农业绿色发展研究院,北京100193;2.西南大学资源环境学院,重庆400715;3.云南云天化股份有限公司研发中心,昆明650228

作者简介:

崔冬明，E-mail：m15779090586@163.com

通讯作者:

左元梅，E-mail：zuoym@cau.edu.cn

中图分类号:

Q945.1

基金项目:

“十四五”国家重点研发计划项目（2023YFD1700203，2022YFD1901500/2022YFD1901501）；国家自然科学基金项目（32372810）；云天化科技人才与平台计划项目（202305AF150055）


Progress and application of novel iron biochelates
Author:
Affiliation:

1.State Key Laboratory of Nutrient Use and Management/College of Resources and Environmental Sciences， China Agricultural University/National Academy of Agriculture Green Development， Beijing 100193， China;2.College of Resources and Environment， Southwest University， Chongqing 400715， China;3.Yunnan ICL YTH Phosphate Research and Technology Co.， Ltd.， Kunming 650228， China

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    摘要:

    铁是所有生物正常发育所必需的微量元素之一，尤其是通过生物强化培育富含铁营养的农产品是解决人类铁营养“隐性饥饿”的重要技术途径，而螯合态铁肥由于见效快被广泛应用。因此，创制和研发新型微量元素螯合剂始终是国内外研究的竞争热点。麦根酸类植物铁载体和微生物铁载体等，能够高效螯合难溶铁并被植物高效吸收利用，是潜在的新型生物源螯合剂。该类新型铁肥在改善植物铁营养的同时不需要外源铁的投入，而是发挥菌株自身活性物质较强的螯合特性高效活化土壤中丰富的铁资源，为植物提供足够的生物有效铁。为进一步挖掘和研发新型生物源的绿色、高效且稳定的螯合剂，并为绿色智能肥料研发、实现绿色农业的可持续发展提供新途径和技术突破，本文基于近年来植物和微生物对铁营养吸收利用的分子生理机制的不断深入研究，从植物缺铁现状及诱因、改善铁营养的途径，到机理Ⅱ植物根系分泌物吸收利用铁的分子生态优势以及微生物铁载体改善植物铁营养的潜力，对生物源新型铁螯合剂研究进展及其应用进行了系统综述。期望通过进一步的研究和开发，能够更深入地了解这些新型生物源螯合剂的作用机制以提高植物的铁营养吸收效率，为实现绿色农业的可持续发展提供新的解决方案。

    Abstract:

    Iron is an essential micronutrient for the normal development of all living things. In particular， cultivating iron-rich seeds through biofortification is an important technical solution to solve the "hidden hunger" of human beings， and chelated iron fertilizer is widely used due to its high efficiency. Therefore， the research and development of novel micronutrient chelators is always a competitive hotspot in the world.The plant-secreted mugineic acids and microbial-secreted siderophores， which can efficiently activate insoluble iron to be bioavailable for plants， are potential novel biochelates， especially microorganisms that can efficiently secrete siderophores have application potential. These novel iron fertilizers can improve the iron nutrition of plants without external iron input， but can activate the rich iron resources in the soil effectively by utilizing the strong chelating property of the active substance of the strain itself， and provide enough bioavailable iron for plants. Therefore， these findings offer applied opportunities for novel biochelates to improve plant iron nutrition and crop yield and sustainable development of agriculture. To further explore and develop those novel and green biochelates， provide new pathways for the development of green intelligent fertilizer， and achieve the sustainable development of agriculture， based on the research progress of the molecular and physiological mechanism of iron uptake and utilization by plants and microorganisms， the research progress and application of novel iron biochelates from plants and microorganisms were reviewed. The study covers the status and causes plant iron deficiency， ways to improve iron nutrition， molecular ecological advantages of iron absorption and utilization by plant root exudates under mechanism Ⅱ， as well as the potential of microbial siderophores to improve plant iron nutrition. It is expected that further research and development will lead to a deeper understanding of the mechanism of these novel biochelates to improve the efficiency of iron nutrient uptake in plants， and provide new ways for realizing the sustainable development of green agriculture. It is expected that further research and development will lead to a deeper understanding of the mechanism of these novel biochelates to improve the efficiency of iron nutrient uptake in plants， and provide new ways for realizing the sustainable development of green agriculture.

    表 6 微生物铁载体作为生物源螯合剂开发绿色智能肥料的特点和优势Table 6 Characteristics and advantages of microbial siderophores as biochelators towards the development of green intelligent fertilizers
    表 2 不同铁肥的种类及其功能特性Table 2 Types and characteristics of different iron fertilizers
    图1 植物吸收铁的生理分子机制Fig.1 Physiological and molecular mechanisms of iron uptake in plants
    表 5 微生物铁载体与植物铁载体螯合铁的能力比较分析Table 5 Comparative analysis of the ability of microbial siderophores and phytosiderophores to chelate iron
    表 4 微生物铁载体对改善植物铁营养的效应及其机制分析Table 4 Analysis of the effects and mechanisms of microbial siderophores on improving plant iron nutrition
    表 3 PDMA对于改善作物铁营养及提高产量方面的潜力与优势Table 3 Potentials and advantages of PDMA for improvement of crop iron nutrition and yield
    表 1 不同铁肥处理对植物铁营养和产量的影响Table 1 Effects of different iron fertilizer treatments on plant iron nutrition and yield
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崔冬明,单晨,史利桦,王坤光,豆哲超,迟志广,王国炜,匡家灵,左元梅.生物源新型铁螯合剂研究进展及其应用[J].华中农业大学学报,2023,42(6):59-72

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