Zhejiang Key Laboratory of Crop Germplasm Resource, Department of Agronomy, College of Agriculture and Biotechnology, Zhejiang University, Hangzhou, 310058, China.
School of Natural Resources, Department of Agriculture, Papua New Guinea University of Natural Resources and Environment, Kokopo, ENBP 613, Papua New Guinea.
Plant Cell Rep. 2024 Mar 11;43(4):90. doi: 10.1007/s00299-024-03165-3.
Serendipita indica induced metabolic reprogramming in colonized plants complements phosphorus-management in improving their tolerance to arsenic stress on multifaceted biological fronts. Restoration of the anthropic damage done to our environment is inextricably linked to devising strategies that are not only economically sound but are self-renewing and ecologically conscious. The dilemma of heavy metal (HM) dietary ingestion, especially arsenic (As), faced by humans and animals alike, necessitates the exploitation of such technologies and the cultivation of healthy and abundant crops. The remarkable symbiotic alliance between plants and 'mycorrhizas' has evolved across eons, benefiting growth/yield aspects as well as imparting abiotic/biotic stress tolerance. The intricate interdependence of Serendipita indica (S. indica) and rice plant reportedly reduce As accumulation, accentuating the interest of microbiologists, agriculturists, and ecotoxicological scientists apropos of the remediation mechanisms of As in the soil-AMF-rice system. Nutrient management, particularly of phosphorus (P), is also praised for mitigating As phytotoxicity by deterring the uptake of As molecules due to the rhizospheric cationic competition. Taking into consideration the reasonable prospects of success in minimizing As acquisition by rice plants, this review focuses on the physiological, metabolic, and transcriptional alterations underlying S. indica symbiosis, recuperation of As stress together with nutritional management of P by gathering case studies and presenting successful paradigms. Weaving together a volume of literature, we assess the chemical forms of As and related transport pathways, discuss As-P-rice interaction and the significance of fungi in As toxicity mitigation, predominantly the role of mycorrhiza, as well as survey of the multifaceted impacts of S. indica on plants. A potential strategy for simultaneous S. indica + P administration in paddy fields is proposed, followed by future research orientation to expand theoretic comprehension and encourage field-based implementation.
指示弯孢霉引起的植物代谢重编程与磷管理相结合,可改善植物对砷胁迫的多方面生物耐性。修复人类对环境造成的人为破坏与设计不仅经济合理,而且自我更新和具有生态意识的策略紧密相关。人类和动物都面临重金属(HM)饮食摄入,特别是砷(As)的困境,这需要利用这些技术并种植健康和丰富的作物。植物和“菌根”之间的共生联盟跨越了多个时代,不仅有利于生长/产量方面,还赋予了非生物/生物胁迫耐性。据报道,指示弯孢霉(S. indica)与水稻之间的复杂相互依存关系可以减少砷的积累,这引起了微生物学家、农学家和生态毒理学家的关注,因为它涉及到土壤-AMF-水稻系统中砷的修复机制。养分管理,特别是磷(P)的管理,也因其通过根际阳离子竞争抑制砷分子的吸收来减轻砷的植物毒性而受到称赞。考虑到水稻植物减少砷吸收的合理成功前景,本综述重点关注 S. indica 共生关系下的生理、代谢和转录变化,以及通过收集案例研究和提出成功范例来恢复砷胁迫和磷的营养管理。我们综合了大量文献,评估了砷的化学形式和相关的运输途径,讨论了砷-磷-水稻的相互作用以及真菌在减轻砷毒性方面的重要性,主要是菌根的作用,以及评估了 S. indica 对植物的多方面影响。提出了一种在稻田中同时施用 S. indica 和 P 的潜在策略,并提出了未来的研究方向,以扩大理论理解并鼓励基于现场的实施。