数字农科院2.0

Developing Sustainable Agriculture Systems in Medicinal and Aromatic Plant Production by Using Chitosan and Chitin-Based Biostimulants

文献类型： 外文期刊

作者： Wenli Sun;Mohamad Hesam Shahrajabian;Spyridon A. Petropoulos;Nazanin Shahrajabian

作者机构：

关键词： biostimulant;chitin;chitosan;medicinal and aromatic plants;natural products;stress resistance

期刊名称： Plants

ISSN： 2223-7747

年卷期： 2023 年 12 卷 13 期

页码：

收录情况： SCIE（2023版）

摘要： Chitosan is illustrated in research as a stimulant of plant tolerance and resistance that promotes natural defense mechanisms against biotic and abiotic stressors, and its use may lessen the amount of agrochemicals utilized in agriculture. Recent literature reports indicate the high efficacy of soil or foliar usage of chitin and chitosan in the promotion of plant growth and the induction of secondary metabolites biosynthesis in various species, such as Artemisia annua, Curcuma longa, Dracocephalum kotschyi, Catharanthus roseus, Fragaria × ananassa, Ginkgo biloba, Iberis amara, Isatis tinctoria, Melissa officinalis, Mentha piperita, Ocimum basilicum, Origanum vulgare ssp. Hirtum, Psammosilene tunicoides, Salvia officinalis, Satureja isophylla, Stevia rebaudiana, and Sylibum marianum, among others. This work focuses on the outstanding scientific contributions to the field of the production and quality of aromatic and medicinal plants, based on the different functions of chitosan and chitin in sustainable crop production. The application of chitosan can lead to increased medicinal plant production and protects plants against harmful microorganisms. The effectiveness of chitin and chitosan is also due to the low concentration required, low cost, and environmental safety. On the basis of showing such considerable characteristics, there is increasing attention on the application of chitin and chitosan biopolymers in horticulture and agriculture productions.

分类号：

  • 相关文献

[1]Anti-Inflammatory, Antipyretic, and Analgesic Potential of Chitin and Chitosan Derived from Cockroaches (Periplaneta americana) and Termites. Khushbakht Asad,Sumaira Shams,Eliana Ibáñez-Arancibia,Patricio R. De los Ríos-Escalante,Farhad Badshah,Farooq Ahmad,Muhammad Salman Khan,Asar Khan. 2024

[2]Melatonin enhances drought tolerance by affecting jasmonic acid and lignin biosynthesis in wheat (Triticum aestivum L.). Mingzhao Luo,Daoping Wang,Pierre Delaplace,Yinghong Pan,Yongbin Zhou,Wensi Tang,Kai Chen,Jun Chen,Zhaoshi Xu,Youzhi Ma,Ming Chen. 2023

[3]Application of enhanced-efficiency nitrogen fertilizers reduces mineral nitrogen usage and emissions of both N2O and NH3 while sustaining yields in a wheat-rice rotation system. Yi Cheng,Ahmed S. Elrys,Jing Wang,Cheng Xu,Kang Ni,Jinbo Zhang,Shenqiang Wang,Zucong Cai,Andreas Pacholski. 2022

[4]A New Method for Discovering Plant Biostimulants. Gao P.,Wang K.,Qi C.,Chen K.,Xiang W.,Zhang Y.,Zhang J.,Shu C.. 2024

[5]A Study of the Different Strains of the Genus Azospirillum spp. on Increasing Productivity and Stress Resilience in Plants. Wenli Sun,Mohamad Hesam Shahrajabian,Na Wang. 2025

[6]Biostimulant and Beyond: Bacillus spp., the Important Plant Growth-Promoting Rhizobacteria (PGPR)-Based Biostimulant for Sustainable Agriculture. Sun, Wenli,Shahrajabian, Mohamad Hesam. 2025

[7]Molecular marker-assisted breeding options for maize improvement in Asia. Prasanna, B. M.,Pixley, Kevin,Pixley, Kevin,Warburton, Marilyn L.,Xie, Chuan-Xiao.

[8]Genetic Engineering of Alfalfa (Medicago sativa L.). Wang, Dan,Wang, Dan,Sun, ZhanMin,Tang, YiXiong,Zhou, MeiLiang,Wu, YanMin,Khurshid, Muhammad.

[9]Chromosome-level genome assemblies of four wild peach species provide insights into genome evolution and genetic basis of stress resistance. Cao, Ke,Peng, Zhen,Zhao, Xing,Li, Yong,Liu, Kuozhan,Arus, Pere,Fang, Weichao,Chen, Changwen,Wang, Xinwei,Wu, Jinlong,Fei, Zhangjun,Wang, Lirong. 2022

[10]Reconstructing the transcription regulatory network to optimize resource allocation for robust biosynthesis. Xiaoyan Ma,Lianjie Ma,Yi Xin Huo. 2022

[11]Combined physiological and metabolomic analysis reveals the effects of different biostimulants on maize production and reproduction. Bingyan Li,Dali Song,Tengfei Guo,Xinpeng Xu,Chao Ai,Wei Zhou. 2022

[12]Molecular mechanisms of stress resistance in sorghum: Implications for crop improvement strategies. Hongxiang Zheng,Yingying Dang,Xianmin Diao,Na Sui. 2024

[13]A novel maize F-bZIP member, ZmbZIP76, functions as a positive regulator in ABA-mediated abiotic stress tolerance by binding to ACGT-containing elements. Lin He,Zixuan Wu,Xueheyuan Wang,Changjiang Zhao,Dianjun Cheng,Chuhuai Du,Haoyu Wang,Yuan Gao,Ruijia Zhang,Jienan Han,Jingyu Xu. 2024

[14]Evolutionary analysis of MADS-box genes in buckwheat species and functional study of FdMADS28 in flavonoid metabolism. Yang Liu,Chaonan Guan,Yuanyuan Chen,Yaliang Shi,Ou Long,Hao Lin,Kaixuan Zhang,Meiliang Zhou. 2024

[15]The divergence of DHN-derived melanin pathways in Metarhizium robertsii. Xie, Linan,Liu, Yang,Zhang, Yujie,Chen, Kang,Yue, Qun,Wang, Chen,Dun, Baoqing,Xu, Yuquan,Zhang, Liwen. 2024

[16]Anthocyanins syntheses genes and abiotic stress: A review in cotton. Jing Wang,Xiugui Chen,Xuke Lu,Jihua Yang,Hui Huang,Xue Rong Zhou,Wuwei Ye. 2025

[17]Phase Separation: Orchestrating Biological Adaptations to Environmental Fluctuations. Wang, Wenxiu,Han, Fangbing,Qi, Zhi,Yan, Chunxia,Su, Bodan,Wang, Jin. 2025

[18]The C2H2 Zinc-Finger protein ELR1 negatively regulates cytokinin metabolism and signaling pathway in rice. Zeyu Li,Shuyi He,Longjun Zeng,Guangzhong Zhang,Quan Wang. 2025

[19]A heterotrophic nitrification-aerobic denitrification bacterium Acinetobacter sp. WZ-1: the superior stress resistance and the unconventional nitrogen metabolic pathways. Hong Wang,Peike Wu,Li Chen,Lan Wang,Dan Zheng,Wenguo Wang,Liangwei Deng. 2025

[20]An Introduction To The Book .. Yang, Qing,Yang, Qing,Yang, Qing,Fukamizo, Tamo,Yang, Qing. 2019

作者其他论文 更多>>