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长杂谷系列谷子杂交种产量优势及生理机制分析

  • 郭宇荣 ,
  • 刘红 ,
  • 王振华 ,
  • 田岗 ,
  • 刘鑫 ,
  • 李会霞
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  • 1山西农业大学农学院, 太谷030801; 2山西农业大学谷子研究所, 长治 046011; 3山西农业大学山西功能农产品检验检测中心, 太原030031

收稿日期: 2024-12-02

  修回日期: 2025-02-20

  网络出版日期: 2025-03-26

基金资助

山西农业大学生物育种工程项目、中央引导地方科技发展资金项目、山西重点研发计划、山西省现代农业产业技术体系谷子体系和甲霜灵胁迫和硒元素干预对谷子品质的影响(No. CXGC2023098)

Analysis of Yield Advantage and Physiological Mechanis of Changzagu Series Millet Hybrids

  • GUO Yu-Rong ,
  • LIU Hong ,
  • YU Zhen-Hua ,
  • TIAN Gang ,
  • LIU Xin ,
  • LI Hui-Xia
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  • 1College of Agronomy, Shanxi Agricultural University, Taigu 030801, China; 2Millet Research Institute, Shanxi Agricultural University, Changzhi 046011, China; 3Shanxi Center for Testing of Functional Agro-Products, Shanxi Agricultural University, Taiyuan 030031, China

Received date: 2024-12-02

  Revised date: 2025-02-20

  Online published: 2025-03-26

摘要

阐明谷子(Setaria italica var. germanica)杂种优势的生理机制是提高谷子杂交种产量的重要基础。于2023–2024年, 以3个高产谷子杂交种长杂谷466、长杂谷2922和长杂谷333及其亲本为供试材料, 测定杂交种及其亲本的产量性状及生理指标, 对杂交种的产量优势及其影响因子进行系统分析, 初步解析了杂种优势的生理机制。结果表明, 在整个生育期内, 3个杂交种的叶绿素含量均高于双亲, 其中长杂谷466在拔节期的叶绿素含量最高, 达13.86 mg∙g–1 FW。在苗期和拔节期, 3个杂交种的根系活力均显著高于双亲, 其中长杂谷466在苗期的根系活力值最高, 为1.76 mg∙g–1∙h–1, 为其父母本的7.8倍和5.5倍; 长杂谷2922在苗期的根系活力较父母本分别高0.38和0.66 mg∙g–1∙h–1; 而长杂谷333在拔节期优势更为显著, 较父母本分别高0.31 和0.62 mg∙g–1∙h–1。在产量形成性状方面, 与双亲相比, 杂交种的灌浆速率和颖花数均显著提高, 长杂谷466在花后19天灌浆速率达最大值, 为1.58 g∙d–1 per panicle; 长杂谷466和长杂谷333颖花数极显著高于其亲本, 长杂谷2922颖花数显著增加。此外, 杂交种根系的氮素积累量和氮素转运效率也表现出一定的优势, 其中长杂谷2922根系氮素积累优势最强且氮素转运效率(近56%)最高, 显著高于其父本M22。综上表明, 长杂谷系列杂交种通过提高光合能力、养分吸收利用能力、籽粒灌浆速率和颖花数实现产量增加。

本文引用格式

郭宇荣 , 刘红 , 王振华 , 田岗 , 刘鑫 , 李会霞 . 长杂谷系列谷子杂交种产量优势及生理机制分析[J]. 植物学报, 0 : 1 -0 . DOI: 10.11983/CBB24187

Abstract

INTRODUCTION: In agricultural production, the utilization of heterosis has brought significant benefits to society and economic development by markedly increasing crop yield, stress resistance, and quality. Foxtail millet (Setaria italica var. germanica), as an important coarse grain crop in the arid and semi-arid regions of northern China, holds a significant position in dryland ecological agriculture. However, the slow increase in the yield per unit area of foxtail millet has limited the further realization of its production potential. Utilizing heterosis has thus become one of the effective ways to enhance the yield of foxtail millet. Nevertheless, research on the physiological and molecular mechanisms of its heterosis is still relatively weak, and the formation mechanism remains unclear. Therefore, a deep understanding of the physiological mechanisms of heterosis in foxtail millet is of great importance for improving the yield of hybrid varieties. 

RATIONALE: The Changzagu series of foxtail millet hybrids (Changzagu 466, Changzagu 2922, and Changzagu 333) exhibit significant over-parent heterosis in yield. To elucidate the formation mechanism of yield heterosis in foxtail millet, we systematically analyzed the yield advantages of these hybrids and their influencing factors by measuring yield-related traits and key physiological indicators of the hybrids and their parental lines. 

RESULTS: Throughout the entire growth period, the chlorophyll content of the three hybrid varieties was higher than that of their parents. Among them, Changzagu 466 exhibited the highest chlorophyll content at the jointing stage, reaching 13.86 mg∙g⁻¹ FW. During the seedling and jointing stages, the root activity of the three hybrids was significantly higher than that of their parents. Specifically, Changzagu 466 showed the highest root activity at the seedling stage, measuring 1.76 mg∙g⁻¹∙h⁻¹, which was 7.8 times and 5.5 times higher than its female and male parents, respectively. Changzagu 2922 had root activity values at the seedling stage that were 0.38 and 0.66 mg∙g⁻¹∙h⁻¹ higher than its female and male parents, respectively. Meanwhile, Changzagu 333 displayed more pronounced advantages at the jointing stage, with root activity values 0.31 and 0.62 mg∙g⁻¹∙h⁻¹ higher than its female and male parents, respectively. In terms of yield-related traits, compared to their parents, the hybrids showed significant improvements in both grain filling rate and spikelet number. Changzagu 466 reached its maximum grain filling rate of 1.58 g∙d⁻¹ per panicle at 19 days after flowering. Both Changzagu 466 and Changzagu 333 had significantly higher spikelet numbers than their parents, while Changzagu 2922 also showed a significant increase in spikelet numbers. In addition, the hybrid varieties also demonstrate certain advantages in root nitrogen accumulation and nitrogen translocation efficiency. Among them, Changzagu 2922 exhibits the strongest root nitrogen accumulation advantage and the highest nitrogen translocation efficiency (nearly 56%), which is significantly higher than that of its male parent line M22. 

CONCLUSION: The Changzagu series of foxtail millet hybrids effectively enhances photosynthetic capacity and nutrient absorption and utilization efficiency by significantly increasing chlorophyll content, root activity during the early growth stages, and root nitrogen accumulation. Meanwhile, the significant increase in grain filling rate and spikelet number of the hybrids further enhances both grain weight and grain number per panicle, ultimately achieving high yield.

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