弱光胁迫影响玉米产量形成的生理机制及调控效应

doi:10.3724/SP.J.1006.2023.13064

Abstract

Abstract:

As for global climate change, insufficient light during the growth periods has become one of the main factors restricting maize yield, increasing the risk of global food production and nutritional security. In this study, based on the previous experiments, we explored the physiological mechanism of low light on maize yield formation from the aspects of photosynthetic performance, nutrient absorption characteristics, grain formation, and filling characteristics. Under low light stress, the light harvesting ability of leaves was reduced, the stromal and grana thylakoids disintegrated, the activities of related enzymes were reduced, the photosystem was damaged, and the carbon assimilation ability was reduced, which further inhibited root development, significantly affected root morphology and function, and was not conducive to nutrient absorption and metabolism. Due to the insufficient nutrition supply, the development of tassel and ear was blocked, the morphological function of pollen and filaments was affected, resulting in low flower fertilization rate and decreased grain number per ear. Low light also reduced the number of endosperm cells— “sink” capacity, the structure and function of the endosperm transfer cells were affected, the endogenous hormonal balance was broken, sucrose, starch metabolism related enzyme activity decreased, internodes vascular bundle number and area reduced, transport and transformation ability were limited, eventualy led to the poor state of starch and the decreased grain weight significantly. Therefore, to alleviate the influence of low light stress on maize yield formation, it is urgent to establish indexes for systematic evaluation of shade tolerance varieties, accelerate the cultivation of new shade-tolerant varieties with high light efficiency by modern technology, and adopt cultivation measures such as increasing nitrogen fertilizer application, removing top leaves, spraying growth regulator and foliar fertilizer to improve maize yield. In the future, more attention should focus on root-shoot coordination and deeply explore the mechanism of low light stress, so as to provide the theoretical basis for the establishment of key techniques of maize resistance to yield increase.

Key words: low-light stress, artificial shading, maize, yield, shade tolerance, physiological mechanism, regulation effect

SUN Zhi-Chao, ZHANG Ji-Wang. Physiological mechanism and regulation effect of low light on maize yield formation[J].Acta Agronomica Sinica, 2023, 49(1): 12-23.

Figures/Tables 5

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品种 Variety name	遮光率 Shading rate (%)	遮光时期 Shading stage	产量损失 Yield loss (%)	参考文献 Reference
掖单22 Yedan 22 掖单3638 Yedan 3638 豫玉2号 Yuyu 2 丹玉1 Danyu 1	50	苗期 From seedling to jointing stage 穗期 From jointing to flowering stage 花粒期 From flowering to maturity stage	7 22 34	李潮海等^[61] Li et al.^[61]
农大108 Nongda 108 掖单13号 Yedan 13	50 90	苗期 From seedling to jointing stage 穗期From jointing to flowering stage 花粒期From flowering to maturity stage	21 51 79	张吉旺等^[6] Zhang et al.^[6]
费玉3号 Feiyu 3 泰玉2号 Taiyu 2 高油115 Gaoyou 115	55	授粉后1~14 d 1-14 days after pollination 授粉后15~28 d 15-28 days after pollination 授粉后29~42 d 29-42 days after pollination	11 7 3	贾士芳等^[39] Jia et al.^[39]
DK752×DK752 DK752×5MG	45 85	籽粒生长早期 Early grain growth stage 籽粒生长晚期 Late grain growth stage 籽粒生长早期+晚期 Grain growth stage	67 19 87	Tanaka et al.^[62]
登海605 Denghai 605 郑单958 Zhengdan 958	75	授粉后4 d 4 days after pollination 授粉后8 d 8 days after pollination 授粉后12 d 12 days after pollination 授粉-成熟期 From pollination to maturity	6 19 23 36	Shen et al.^[63]
先玉335 Xianyu 335 郑单958 Zhengdan 958 登海618 Denghai 618	50 70 85	三叶期-成熟期 From three-leaf stage to maturity	18 35 73	Guo et al.^[64]

Physiological mechanism and regulation effect of low light on maize yield formation

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