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作物学报 ›› 2018, Vol. 44 ›› Issue (9): 1263-1273.doi: 10.3724/SP.J.1006.2018.01263

• 研究论文 •    下一篇

大豆引进种质抗胞囊线虫病、抗花叶病毒病和耐盐基因型鉴定及优异等位基因聚合种质筛选

叶俊华1,2(),杨启台2,3,刘章雄2,郭勇2,李英慧2,关荣霞2,邱丽娟2,*   

  1. 1 东北农业大学农学院, 黑龙江哈尔滨 150030
    2 国家农作物基因资源与遗传改良重大科学工程 / 农业部种质资源利用重点实验室 / 中国农业科学院作物科学研究所, 北京 100081
    3 蚌埠医学院生物科学系, 安徽蚌埠 233000
  • 收稿日期:2018-03-04 接受日期:2018-06-12 出版日期:2018-09-10 网络出版日期:2018-07-02
  • 通讯作者: 邱丽娟
  • 基金资助:
    本研究由国家重点研发计划项目(2016 YFD0100304);本研究由国家重点研发计划项目(2016YFD0100304);中国农业科学院科技创新工程项目资助

Genotyping of SCN, SMV Resistance, Salinity Tolerance and Screening of Pyramiding Favorable Alleles in Introduced Soybean Accessions

Jun-Hua YE1,2(),Qi-Tai YANG2,3,Zhang-Xiong LIU2,Yong GUO2,Ying-Hui LI2,Rong-Xia GUAN2,Li-Juan QIU2,*   

  1. 1 College of Agriculture, Northeast Agricultural University, Harbin 150030, Heilongjiang, China
    2 National Key Facility for Gene Resources and Genetic Improvement / Key Laboratory of Crop Germplasm Utilization, Ministry of Agriculture/Institute of Crop Sciences, Chinese Academy of Agricultural Sciences, Beijing 100081, China
    3 Department of Biotechnology, Bengbu Medical College, Bengbu 233000, Anhui, China
  • Received:2018-03-04 Accepted:2018-06-12 Published:2018-09-10 Published online:2018-07-02
  • Contact: Li-Juan QIU
  • Supported by:
    This study was supported by the National Key R&D Program(2016 YFD0100304);This study was supported by the National Key R&D Program(2016YFD0100304);the Agricultural Science and Technology Innovation Program of CAAS

摘要:

我国从美国、俄罗斯、日本等26个国家或地区共引进大豆种质3218份, 仅对部分种质进行了大豆胞囊线虫病(Soybean cyst nematode, SCN)、大豆花叶病毒病(Soybean mosaic virus, SMV)和盐敏感性的抗性鉴定, 但基因型的系统分析尚未见报道。本研究针对大豆抗胞囊线虫病3个基因(rhg1Rhg4SCN3-11)和耐盐基因(GmSALT3)开发KASP标记5个, 结合与大豆花叶病毒抗性相关的1个SCAR标记(SCN11), 对1489份大豆引进种质进行基因型鉴定。结果表明, 具有优异等位基因的种质共1084份; 携带3个位点优异等位基因的种质19份, 包括抗胞囊线虫病3个位点(rhg1Rhg4SCN3-11)叠加(Peking型)种质3份, 聚合抗胞囊线虫病基因和抗花叶病毒病标记7份, 聚合抗胞囊线虫病和耐盐基因2份, 聚合抗胞囊线虫病、抗花叶病毒病和耐盐基因7份; 携带4个位点优异等位基因的种质9份, 包括聚合抗胞囊线虫病基因和抗花叶病毒病标记6份, 聚合抗胞囊线虫病和耐盐基因2份, 聚合抗胞囊线虫病、抗花叶病毒病和耐盐7份; 携带5个位点优异等位基因8份, 聚合了抗胞囊线虫病、抗花叶病毒病和耐盐优异等位变异。在这些携带优异等位变异的种质中, 44份已由前人证明具有相应的抗性。携带3个或3个以上优异等位基因的36份种质中, 有52.78%种质的一种或两种特性已被报道。在不携带抗性优异等位变异的种质中, 93份已证明有耐盐性或对SMV3号株系抗性, 这些种质可能存在新的抗性(等位)基因。本研究利用高通量分子标记筛选出的携带抗病、抗逆优异等位基因的种质为我国大豆资源表型鉴定、抗源的快速筛选及利用提供理论依据和新思路。

关键词: 大豆种质, 分子标记, KASP技术, 基因型鉴定

Abstract:

China has introduced 3218 soybean accessions from 26 countries such as the United States, Russia and Japan, and some of them have been carried out soybean cyst nematode (SCN), soybean mosaic virus (SMV) and salinity tolerance resistance evaluation. However, the systematic genotyping of these accessions has not been reported yet. In this study, five robust functional markers have been developed for KASP assays, three SCN loci (rhg1, Rhg4, SCN3-11) and salinity tolerance gene (GmSALT3) included. A total of 1489 introduced soybean accessions were genotyped by these markers with high-throughput assay as well as a SCAR marker (SCN11) which is related to soybean mosaic virus resistance. The results showed that there were 1084 accessions detected with favorable alleles; where accessions detected with resistant alleles at three loci were as much as 19, including three pyramiding SCN genes (rhg1, Rhg4, SCN3-11) which were Peking type and seven pyramiding SCN and SMV , two pyramiding SCN and salinity favorable alleles, as well as seven pyramiding SCN, SMV and salinity favorable alleles; and accessions detected with four favorable alleles were as much as nine accessions, including six pyramiding SCN and SMV resistance alleles, one accession detected with SCN and salinity tolerance and two detected with SCN, SMV and salinity favorable alleles, eight detected with all the favorable alleles in this study. Among the elite accessions mentioned above, it has been proved that 44 accessions resistant to SCN, SMV-3 or tolerant to salinity. Among the 36 accessions with three or more favorable alleles, 52.78% had been reported of one or two characteristics. Among the accessions without resistance or tolerance alleles, it has been reported that 93 accessions were tolerant to salinity or resistant to SMV-3, where new resistance or tolerance genes could be found. Screening out the accessions with high-throughput SNP detection assays for resistance and tolerance alleles in soybean provides information for their further phenotyping, screening and breeding.

Key words: soybean germplasm, molecular markers, KASP, genotyping

表1

抗SCN、抗SMV和耐盐相关标记的类型及引物序列"

性状
Trait
标记
Marker
标记类型
Type
基因
Gene
引物序列信息
Primer sequence (5°-3°)
等位基因
Allele
参考文献
Reference
大豆胞囊线虫抗性 SCN resistance
Rhg4-389 KASP Glyma08g11490 Rhg4-COM: CTACACCGCCGTCCTCAAC [17]
Rhg4-FAM: GAGGTGGCCGCCGGAGC G/G
Rhg4-HEX: GAGGTGGCCGCCGGAGG C/C
rhg1 KASP Glyma18g02590 rhg1-COM: CTGGCATCTGCCAACTCTGTAAAGA [18]
rhg1-FAM: TTCTAATGCATTGGTTATAGCAACAACG C/C
rhg1-HEX: TTCTAATGCATTGGTTATAGCAACAACC G/G
SCN3-11 KASP Glyma11g35820 SCN3-11-COM: CAGAAGTCGATTGAGATTTACGAAGAGATA [9]
SCN3-11-FAM: ATTATTGTTGAGGGATTGGCGAGC C/C
SCN3-11-HEX: AAATTATTGTTGAGGGATTGGCGAGT T/T
大豆耐盐性 Soybean salinity tolerance
SALT3 KASP Glyma03g32900 GmSALT3-COM: GATCATTGGATGTAATTGGGTGGAGAA [14]
GmSALT3-FAM: GATACCAGCAAATATTAAATGTGTGTTTTT T/T
GmSALT3-HEX: GATACCAGCAAATATTAAATGTGTGTTTTA -/-
Ncl-5 KASP Glyma03g32900 Ncl-5-COM: AGGTACTTACCCTTATGAAGAAAACA [14]
Ncl-5-FAM: AGAACTCGTATTTTATTTTGGTTGAC G/G
Ncl-5-HEX: AGAACTCGTATTTTATTTTGGTTGAT A/A
大豆花叶病毒抗性 SMV resistance
SCN11 SCAR SCN11-F: TTCACGTGGCCCTCCTATC [12]
SCN11-R: CGCCGCAAACTCACAGGAC

图1

KASP和SCAR标记对部分种质基因型检测结果 A~E: 每个圆点各对应一份检测种质。红色或蓝色表示纯合基因型; 绿色表示杂合基因型; 粉色表示检测无信号或信号较弱; 紫色表示有信号但无明确分型; 黑色代表NTC, 即无模板对照。F: M是DL2000; 1、3为感SMV基因型; 2、4为抗SMV基因型。"

表2

6个抗性标记对引进种质的分型结果"

性状
Trait
标记名称
Marker
种质有效鉴定数目
Accessions
effectively identified No.
等位基因
Allele
对应表型1)
Corresponding phenotype 1)
种质Accessions
数量
Size (No.)
比例
Ratio (%)
大豆胞囊线虫抗性
SCN resistance
rhg1 1383 G/G R 31 2.24
C/C S 1352 97.76
Rhg4-389 1480 G/G R 37 2.50
C/C S 1441 97.37
SCN3-11 1356 T/T R 66 4.87
C/C S 1290 95.13
大豆耐盐性
Soybean salinity tolerance
SALT3 1380 -/- 236 17.10
T/T S 1127 81.67
Ncl-5 1479 G/G 1384 93.58
A/A S 85 5.75
SALT3, Ncl-5 1380 SALT3(H1) T 235 17.03
大豆花叶病毒抗性
SMV resistance
SCN11 1489 R 960 64.47
S 529 35.53

图2

5个位点抗性等位基因或单倍型分布及来源"

表3

5个位点对引进种质的筛选"

抗性特性
Resistance
优异基因型
Favorable allele
携带优异等位基因的种质 Germplasm with favorable alleles
数目
Size (No.)
比例
Ratio (%)
代表性种质
Representative germplasm
单位点 Single locus 901 60.51
SCN SCN3-11 15 1.01 中特1号 Zhongte 1
SMV SCN11 796 53.46 Provar
Salt SALT3(H1) 90 6.04 Harosoy 71
双位点 Two loci 147 9.87
SCN rhg1/Rhg4 1 0.07 M044
SCN Rhg4/SCN3-11 2 0.13 PR 149-3
SCN, SMV rhg1/SCN11 2 0.13 PI576145
SCN, SMV Rhg4/SCN11 5 0.34 Mack
SCN, SMV SCN3-11/SCN11 12 0.81 CA50
SCN, Salt SCN3-11/SALT3(H1) 8 0.54 PI590579
SCN, Salt Rhg4/SALT3(H1) 2 0.13 D85-10412
SMV, Salt SALT3(H1)/SCN11 115 7.72 Lee 68
3个位点 Three loci 19 1.28
SCN rhg1/Rhg4/SCN3-11 3 0.20 Centennial
SCN, SMV rhg1/Rhg4/SCN11 2 0.13 Delsoy4900
SCN, SMV rhg1/SCN3-11/SCN11 4 0.27 AGS175
SCN, SMV Rhg4/SCN3-11/SCN11 1 0.07 9234
SCN, Salt rhg1/Rhg4/SALT3(H1) 1 0.07 T221
SCN, Salt Rhg4/SCN3-11/SALT3(H1) 1 0.07 LINE272H选 LINE272H Xuan
SCN, SMV, Salt rhg1/SALT3(H1)/SCN11 2 0.13 H6255RR
SCN, SMV, Salt Rhg4/SALT3(H1)/SCN11 2 0.13 Lamar
SCN, SMV, Salt SCN3-11/SALT3(H1)/SCN11 3 0.20 P951341RR
4个位点 Four loci 9 0.60
SCN, SMV rhg1/Rhg4/SCN3-11/SCN11 6 0.40 Newton
SCN, Salt rhg1/Rhg4/SCN3-11/SALT3(H1) 1 0.07 PI90763
SCN, SMV, Salt rhg1/SCN3-11/SALT3(H1)/SCN11 1 0.07 S01-9364
SCN, SMV, Salt Rhg4/SCN3-11/SALT3(H1)/SCN11 1 0.07 S-10-1
5个位点 Five loci 8 0.54
SCN, SMV, Salt rhg1/Rhg4/SCN3-11/SALT3(H1)/SCN11 8 0.54 Pin-din-guan

Table 4

Thirty-six accessions with three or more resistance alleles"

携带抗性位点数
Number of resistant loci
统一编号
Accession No.
名称
Name
优异等位基因
Favorable alleles
抗性表型
Resistance
3个位点 Three loci WDD00828 Centennial rhg1, Rhg4, SCN3-11 SCN*
WDD01994 M87-1569 rhg1, Rhg4, SCN3-11 SCN*
WDD00691 AGS272+ rhg1, Rhg4, SCN3-11 SCN*
WDD03200 LINE272H Xuan# Rhg4, SCN3-11, SALT3(H1) SCN, Salt
WDD00289 T221 rhg1, Rhg4, SALT3(H1) SCN*, Salt
WDD00858 N80-2317# rhg1, SCN3-11, SCN11 SCN, SMV
WDD00859 N80-50232# rhg1, SCN3-11, SCN11 SCN, SMV
WDD00666 AGS65+ rhg1, SCN3-11, SCN11 SCN, SMV
携带抗性位点数
Number of resistant loci
统一编号
Accession No.
名称
Name
优异等位基因
Favorable alleles
抗性表型
Resistance
WDD00683 AGS175+ rhg1, SCN3-11, SCN11 SCN, SMV
WDD02019 9234 Rhg4, SCN3-11, SCN11 SCN*, SMV
WDD01607 Delsoy4900 rhg1, Rhg4, SCN11 SCN*, SMV
WDD03086 G04-Ben229lR-M rhg1, Rhg4, SCN11 SCN, SMV
WDD02211 H6255 rhg1, SALT3(H1), SCN11 SCN, Salt, SMV
WDD03205 M017-1# rhg1, SALT3(H1), SCN11 SCN, Salt, SMV
WDD00916 SRE-D-14A# Rhg4, SALT3(H1), SCN11 SCN, Salt, SMV
WDD01640 Lamar Rhg4, SALT3(H1), SCN11 SCN*, Salt, SMV
WDD00334 Clark-G SCN3-11, SALT3(H1), SCN11 SCN, Salt, SMV
WDD02252 P951341 SCN3-11, SALT3(H1), SCN11 SCN, Salt, SMV
WDD00335 Clark-S SCN3-11, SALT3(H1), SCN11 SCN, Salt, SMV
4个位点 Four loci WDD02102 PI90763 rhg1, Rhg4, SCN3-11, Salt3(H1) SCN*, Salt
WDD00926 TGX814-26D# rhg1, Rhg4, SCN3-11, SCN11 SCN, SMV
WDD01583 Newton rhg1, Rhg4, SCN3-11, SCN11 SCN*, SMV
WDD00595 Custer rhg1, Rhg4, SCN3-11, SCN11 SCN*, SMV
WDD00602 Franklin rhg1, Rhg4, SCN3-11, SCN11 SCN*, SMV
WDD02015 TBD rhg1, Rhg4, SCN3-11, SCN11 SCN, SMV
WDD01538 rhg1, Rhg4, SCN3-11, SCN11 SCN, SMV
WDD03083 S01-9364 rhg1, SCN3-11, SALT3(H1), SCN11 SCN*, Salt*, SMV
WDD00774 S-10-1 Rhg4, SCN3-11, SALT3(H1), SCN11 SCN, Salt, SMV
5个位点 Five loci WDD03084 S01-9391 rhg1, Rhg4, SCN3-11, SALT3(H1), SCN11 SCN*, Salt, SMV
WDD01632 Bryan rhg1, Rhg4, SCN3-11, SALT3(H1), SCN11 SCN*, Salt, SMV
WDD01614 Rhodes rhg1, Rhg4, SCN3-11, SALT3(H1), SCN11 SCN*, Salt, SMV
WDD00721 Forrest rhg1, Rhg4, SCN3-11, SALT3(H1), SCN11 SCN*, Salt, SMV
WDD01971 D83-3349 rhg1, Rhg4, SCN3-11, SALT3(H1), SCN11 SCN*, Salt, SMV
WDD00661 A-66 Jia+ rhg1, Rhg4, SCN3-11, SALT3(H1), SCN11 SCN, Salt, SMV
WDD02989 Pin-din-guan rhg1, Rhg4, SCN3-11, SALT3(H1), SCN11 SCN*, Salt*, SMV
WDD03094 S99-2281 rhg1, Rhg4, SCN3-11, SALT3(H1), SCN11 SCN*, Salt, SMV
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