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Updated: Sep 26, 2026

Enhancement of the Initial Growth Rate of Agricultural Plants by Using Static Magnetic Fields
Published on: July 8, 2016
Ultrahigh magnetic field pretreatment modulates starch-rich matrix remodeling and germination in oat seeds
Jingjing Li1, Xin Chang1, Jiawang Sun1
1School of Chemical Engineering, Inner Mongolia University of Technology, Hohhot, 010000, Inner Mongolia Autonomous Region, China.
Abstract:
Ultrahigh magnetic fields (UMF, 1-15 T) can modulate seed germination, but their intensity-dependent effects on the starch structure within the native seed matrix remain unclear. In this study, oat seeds were exposed to ultra-high magnetic fields, and analyses were conducted directly on whole-grain oat flour to preserve the authentic starch-lipid-protein microenvironment. Multi-scale structural characterization revealed two distinct, starch-centered remodeling pathways regulated by magnetic field strength. A moderate 5 T magnetic field enhanced double-helix stacking and increased relative crystallinity (10.56%), thereby inhibiting excessive starch hydrolysis and preserving the highest starch content (58.45%) while maintaining a high germination rate (93.68%). In contrast, an extreme 15 T magnetic field resulted in granule fragmentation, and the leaching of starch and hydrophobic substances, thereby achieving the highest germination rate (98.05%). The migration of surface hydrophobic substances further synergized with starch remodeling by modulating the hydrophobic barrier and enzyme accessibility. These findings confirm that UMF is a non-contact physical strategy capable of enhancing germination rates by remodeling the structure of whole oat flour through adjustment of UMF intensity, providing new insights into seed pre-treatment and the regulation of carbohydrate polymers.
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