Response of growth, photosynthetic electron transfer, and chloroplast ultrastructure to different LED light combination in green onion (Allium fistulosum L.)

光合作用 叶绿体 生物 超微结构 叶绿素 植物 光合效率 葱瘘 光合能力 叶绿素a 电子传输链 光合色素 叶绿素荧光 光强度 园艺 生物物理学 物理 生物化学 光学 基因
作者
Song Gao,Xuena Liu,Ying Liu,Bili Cao,Zijing Chen,Kun Xu
出处
期刊:Physiologia Plantarum [Wiley]
卷期号:172 (3): 1662-1672 被引量:12
标识
DOI:10.1111/ppl.13381
摘要

Abstract With the rapid development of facility agriculture, it has become popular to study the influences of different light qualities on the growth, material metabolism, and morphology of horticultural crops. Last several years, green onions cultivation models have undergone major changes, and facility cultivation has developed rapidly. To determine the impact of light quality on the green onions, we studied the parameters connected to photosynthesis, incorporating growth, and development, photosynthetic rate ( P n ), chlorophyll fluorescence, light response curve, photosynthetic electron transfer, and chloroplast ultrastructure. We roundly analyzed the influences of different LED light combination (white: W, white‐blue combination 3:1:WB, white‐green combination 3:1:WG, white‐yellow combination 3:1:WY, and white‐red combination 3:1:WR, light intensity: 500 ± 10 μmol photons m −2 s −1 ) on the photosynthetic performance of green onions. The WB light led to better results than those of the WR, WG, and WY. There were significant performance improvements in leaf area, plant height, stem thickness, relative growth rate (RGR), pigment content, photosynthetic capacity, photosynthetic electron transfer efficiency, and chloroplast ultrastructure integrity. In contrast, plants treated with WG and WY were exposed to appreciably blocked light, but they effectively formed a light protection mechanism. The results of this research not only provided insight into the response mechanism of crop photosynthesis to different light qualities, but they also provided a scientific foundation for better planting green onions.
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