磁化钕对番茄种子萌发及耐盐性的影响

IF 1.8 3区 生物学 Q3 BIOLOGY
Mohammad K. Abhary, Abdullah Akhkha
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引用次数: 2

摘要

地球生物圈被磁场包围,磁场影响着所有生物。植物对磁场的反应表现在种子的活力、生长和产量上。研究如何利用磁场促进植物生长和最大限度地提高作物性能,在这样的磁场中检测种子发芽是研究的第一步。本研究用150、200和250 mT的钕磁体对盐敏感的超级b系番茄种子进行了南北极的引物处理。磁化种子的萌发率和速度显著提高,其中磁铁的方向对萌发率至关重要,而种子对磁铁的方向影响萌发速度。处理后的植株表现出较强的生长特性,包括茎和根较长,叶面积较大,根毛较多,含水量较高,对盐分的耐受性更强,最高可达200 mM NaCl。所有磁化植株的叶绿素含量、连续叶绿素荧光产量(Ft)和量子产率(QY)均显著降低。盐度处理显著降低了对照植株的所有叶绿素参数,但磁化番茄的叶绿素参数没有降低。本研究结果表明,钕铁硼对番茄植株的萌发、生长和耐盐性有积极影响,对番茄叶片叶绿素含量有负面影响。©2023生物电磁学学会。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Effects of neodymium magneto-priming on seed germination and salinity tolerance in tomato

Earth's biosphere is surrounded by magnetic fields that affect all living organisms. A plant's response to magnetic fields is displayed in terms of its seed's vigor, growth, and yield. Examining seed germination in such magnetic fields is the first step in the investigation of how magnetic fields might be used to enhance plant growth and maximize crop performance. In this study, salinity-sensitive Super Strain-B tomato seeds were primed with the northern and southern poles of neodymium magnets of 150, 200, and 250 mT. The magneto-primed seeds showed a significant increase in germination rate and speed, where the orientation of the magnet was identified as being crucial for germination rate and the orientation of seeds towards the magnet was shown to affect the germination speed. The primed plants exhibited enhanced growth characteristics, including longer shoots and roots, larger leaf area, more root hairs, higher water content, and more tolerance to salinity levels, up to 200 mM NaCl. All magneto-primed plants showed a significant decrease in chlorophyll content, continuous chlorophyll fluorescence yield (Ft), and quantum yield (QY). The salinity treatments decreased all chlorophyll parameters in control plants, significantly, but did not lower such parameters in magneto-primed tomatoes. The results of this study illustrate the positive effects of neodymium magnet on the growth and development of tomato plants in terms of their germination, growth, and salinity tolerance, and negatively affected the chlorophyll content in tomato leaves. © 2023 Bioelectromagnetics Society.

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来源期刊
Bioelectromagnetics
Bioelectromagnetics 生物-生物物理
CiteScore
4.60
自引率
0.00%
发文量
44
审稿时长
6-12 weeks
期刊介绍: Bioelectromagnetics is published by Wiley-Liss, Inc., for the Bioelectromagnetics Society and is the official journal of the Bioelectromagnetics Society and the European Bioelectromagnetics Association. It is a peer-reviewed, internationally circulated scientific journal that specializes in reporting original data on biological effects and applications of electromagnetic fields that range in frequency from zero hertz (static fields) to the terahertz undulations and visible light. Both experimental and clinical data are of interest to the journal''s readers as are theoretical papers or reviews that offer novel insights into or criticism of contemporary concepts and theories of field-body interactions. The Bioelectromagnetics Society, which sponsors the journal, also welcomes experimental or clinical papers on the domains of sonic and ultrasonic radiation.
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