中国农业科学 ›› 2022, Vol. 55 ›› Issue (3): 451-466.doi: 10.3864/j.issn.0578-1752.2022.03.003

• 作物遗传育种·种质资源·分子遗传学 • 上一篇    下一篇

世界大豆生育阶段光温综合反应的地理分化和演化

姜芬芬(),孙磊,刘方东,王吴彬,邢光南,张焦平,张逢凯,李宁,李艳,贺建波(),盖钧镒()   

  1. 南京农业大学大豆研究所/农业农村部国家大豆改良中心/农业农村部大豆生物学与遗传育种重点实验室/作物遗传与种质创新国家重点实验室/江苏省现代作物生产协同创新中心,南京 210095
  • 收稿日期:2021-08-13 接受日期:2021-10-11 出版日期:2022-02-01 发布日期:2022-02-11
  • 通讯作者: 贺建波,盖钧镒
  • 作者简介:姜芬芬, E-mail: 2019201036@njau.edu.cn
  • 基金资助:
    国家重点研发计划(2017YFD0101500);长江学者和创新团队发展计划(PCSIRT_17R55);中央高校基本科研业务费专项(KYZ202103);国家现代农业产业技术体系(CARS-04);教育部111项目(B08025)

Geographic Differentiation and Evolution of Photo-Thermal Comprehensive Responses of Growth-Periods in Global Soybeans

JIANG FenFen(),SUN Lei,LIU FangDong,WANG WuBin,XING GuangNan,ZHANG JiaoPing,ZHANG FengKai,LI Ning,LI Yan,HE JianBo(),GAI JunYi()   

  1. Soybean Research Institute, Nanjing Agricultural University/MARA National Center for Soybean Improvement/MARA Key Laboratory of Biology and Genetic Improvement of Soybean (General)/State Key Laboratory for Crop Genetics and Germplasm Enhancement/Jiangsu Collaborative Innovation Center for Modern Crop Production, Nanjing 210095
  • Received:2021-08-13 Accepted:2021-10-11 Online:2022-02-01 Published:2022-02-11
  • Contact: JianBo HE,JunYi GAI

摘要: 目的 大豆是短日喜温植物,对光温(日长、温度)条件敏感。大豆对光温反应的敏感性是大豆重要的驯化性状和适应性性状。在自然条件下,地理位置和/或播种季节是决定野生和栽培大豆分化的重要生态因素,这两个因素均是通过日长和温度等环境因素来调控大豆的生长发育。因而研究和比较野生和栽培大豆生长发育阶段光温综合反应特性的地理和季节分化,可以为大豆引种和适应性育种提供理论依据。 方法 选取1 519份世界代表性野生和栽培大豆,在安徽当涂进行2年春播和夏播田间试验,使用播季间生育期差异作为品种光温综合反应敏感性(photo-thermal comprehensive response sensitivity,PTCRS)评价指标,研究各地理生态型大豆生长发育阶段的光温反应特性。 结果(1)大豆的光温反应特性存在于生长发育的全过程。(2)野生大豆由南向北迁移时,生育前期和全生育期PTCRS减小,生育后期PTCRS增大,光温反应类型由前敏后钝变为前钝后敏,全生育期光温反应敏感。(3)野生大豆驯化为栽培大豆后,生育前期和全生育期PTCRS分别减小20%和16%,生育后期PTCRS变化较小,主要光温反应类型由前敏后钝变为前钝后敏和前钝后钝。(4)夏秋大豆和春大豆的全生育期PTCRS均表现由南向北逐渐减小;生育前期和生育后期PTCRS的地理分化则存在差异,其中,由南向北迁移时,夏秋大豆生育前期PTCRS减小、生育后期PTCRS先增后减,春大豆生育前期PTCRS无明显变化、生育后期PTCRS减小。(5)以中国黄淮和南方作为栽培大豆的起源中心,向北传播至中国东北、俄罗斯远东和瑞典南部,生育前期、后期和全生育期PTCRS均大幅减小;向东传播至朝鲜半岛和日本岛以及向西传播至北美北部、北美南部和中南美,生育前期和全生育期PTCRS减小,生育后期PTCRS无明显变化;向南传播至东南亚、南亚和非洲,生育前期和全生育期PTCRS增大、生育后期PTCRS无明显变化。(6)同一生态区不同生态型间PTCRS比较,春大豆生育前期、后期和全生育期PTCRS均最小,野生大豆生育前期PTCRS强于夏秋大豆,生育后期则表现相反,全生育期与夏秋大豆无显著差异。不同地理-播季生态型间PTCRS比较,生育前期PTCRS:南方野生大豆最敏感,其次是长江中下游野生大豆和南方夏秋大豆,然后是黄淮野生大豆和长江中下游夏秋大豆,余下地理生态型间无显著差异,均表现较钝感;生育后期PTCRS:长江中下游夏秋大豆最敏感,其次是东北和黄淮野生大豆及南方和黄淮夏秋大豆,余下地理生态型间差异较小,光温反应均较钝感;全生育期PTCRS:南方和长江中下游的野生及夏秋大豆间无显著差异,均表现敏感,其次是黄淮野生大豆,然后是东北野生大豆和黄淮夏秋大豆,春大豆PTCRS最小,且随纬度升高而显著减小。 结论 由地理和播季决定的光温综合条件是影响大豆生长发育的关键因素,不同地理-播季生态类型的野生和栽培大豆生育阶段对光温综合反应存在差异。中国黄淮及南方的栽培大豆向世界不同纬度的地理区域传播时,生育阶段光温综合反应的变化不同。全生育期光温反应敏感是大豆的原始性状,长江中下游的夏秋大豆可能为最具这种野生原始性状的栽培类型。

关键词: 栽培大豆(Glycine max (L.) Merr.), 野生大豆(Glycine soja Sieb. and Zucc.), 生育期性状, 地理-播季光温生态反应

Abstract:

【Objective】 As a short-day (SD) and thermophilic plant, soybean is sensitive to photo-thermal(day length, temperature) conditions. The sensitivity of soybeans to photo-thermal response is an important domestication and adaptability trait of soybean. Under natural conditions, geographical location and/or sowing season are two important ecological factors that determine the differentiation of wild and cultivated soybeans, and they work together to regulate the growth and development of soybeans through environmental factors such as day length and temperature. Therefore, the study of the geographical and seasonal differentiation of photo-thermal comprehensive response characteristics during growth periods of soybeans may help soybean introduction and breeding for adaption. 【Method】 A total of 1 519 representative world wild and cultivated soybeans were selected and tested with two-year spring seeding and summer seeding field trials at Dangtu, Anhui Province. The difference in growth period between sowing seasons was used to evaluate the photo-thermal comprehensive response sensitivity (PTCRS) of each soybean accession, and to study the photo-temperature response characteristics of the growth and development stages of various geographic and ecological soybeans.【Result】 (1) The photothermal response characteristics of soybeans existed throughout the period of growth and development. (2) With the migration of wild soybeans from south to north, the PTCRS of the days from sowing to flowering (DSF) and days from sowing to maturity (DSM) decreased, the PTCRS of the days from flowering to maturity (DFM) increased, and the photothermal response type changed from the front-sensitive and post-insensitive to the front-insensitive and post-sensitive, and the photothermal response of DSM is sensitive. (3) With the domestication of wild soybeans to cultivated soybeans, the PTCRS of DSF and DSM decreased by 20% and 16%, respectively, and relatively small changes were observed for the PTCRS of DFM. The main photothermal response type changed from the front-sensitivity and post-insensitive to the front-insensitive and post-sensitive and the front-insensitive and post-insensitive. (4) The PTCRS of DSM of summer-autumn (SA) and spring (SP) sowing type soybeans both show gradual decrease from south to north. The geographical differentiation of PTCRS of DSF and DFM of SA and SP is different that when migrate from south to north, the PTCRS of DSF of SA decreased, and the PTCRS of DFM of SA first increased and then decreased, and the PTCRS of DSF of SP there was no significant change, and the PTCRS of DFM of SP decreased. (5) With the Huang-Huai and Yangtze River Valleys and South China as the origin center of cultivated soybeans, the PTCRS of DSF, DFM and DSM decreased significantly when spreading north to Northeast China, Russian Far East and Southern Sweden. The PTCRS of DSF and DSM decreased when spreading east to Korean Peninsula and Japan Island and west to Northern North America, Southern North America and the Central and South America, but no obvious change was observed for the PTCRS of DFM. When cultivated soybeans spread south to Southeast Asia, South Asia and Africa, the PTCRS of DSF and DSM increased, and there was no significant change in PTCRS of DFM. (6) Comparing the PTCRS between different ecotypes in the same eco-region, the PTCRS of DSF, DFM and DSM of SP was the smallest, and the PTCRS of DSF of wild soybeans was stronger than that of SA, and the PTCRS of DFM of wild soybeans was weaker than that of SA, and there was no significant difference between the PTCRS of DSM of wild soybeans and SA. Comparison of PTCRS between different geographic and sowing-seasonal eco-type of soybeans, PTCRS of DSF: Southern wild soybeans is the most sensitive, followed by wild soybeans in the Yangtze River Valleys and SA in the Southern, followed by Huang-Huai wild soybeans and SA in the Yangtze River Valleys, and the remaining geo-ecotypes have no significant differences, all of which are relatively insensitive; PTCRS of DFM: SA in the Yangtze River Valleys is the most sensitive, followed by the Northeast and Huang-Huai wild soybeans and the Southern and Huang-Huai SA, and the remaining geo-ecotypes have relatively small differences, all of which are relatively insensitive; PTCRS of DSM: there is no significant difference between wild soybeans and SA in the Southern and the Yangtze River Valleys, all of which are sensitive, followed by Huang-Huai wild soybeans, followed by Northeast wild soybeans and Huang-Huai SA, and the PTCRS of SP is the smallest, and it decreases significantly with the increase of latitude.【Conclusion】 The photo-thermal comprehensive conditions determined by geography and sowing season are important factors affecting soybean growth and development. Differentiation of response to photo-thermal comprehensive conditions existed in wild and cultivated soybeans of different geography and sowing season ecological types. With cultivated soybeans spread from Huang-Huai and Changjiang River Valleys and South China to geographical regions of different latitudes in the world, different changes were observed for the photo-thermal comprehensive response during growth period. Sensitivity to photo-thermal during sowing to maturity is the original trait of soybean, and the summer-autumn sowing type soybeans in the Middle and Lower Yangtze Valleys may be the most cultivated type with this wild primitive trait.

Key words: cultivated soybean (Glycine max (L.) Merr.), wild soybean (Glycine soja Sieb. and Zucc.), growth period traits, geographic and sowing-seasonal photo-thermal eco-response