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作物学报 ›› 2023, Vol. 49 ›› Issue (12): 3261-3276.doi: 10.3724/SP.J.1006.2023.33010

• 作物遗传育种·种质资源·分子遗传学 • 上一篇    下一篇

基于GWAS和WGCNA分析挖掘玉米花期相关候选基因

钱甫1(), 张占琴2, 陈树宾2, 丁永福2, 桑志勤2,*(), 李卫华1,*()   

  1. 1石河子大学农学院 / 绿洲生态农业兵团重点实验室, 新疆石河子 832000
    2新疆农垦科学院, 新疆石河子832000
  • 收稿日期:2023-02-22 接受日期:2023-05-24 出版日期:2023-12-12 网络出版日期:2023-08-28
  • 通讯作者: * 李卫华, E-mail: lwh_agr@shzu.edu.cn; 桑志勤, E-mail: sangzhiqin@126.com
  • 作者简介:E-mail: 1971194140@qq.com
  • 基金资助:
    兵团重点领域科技攻关项目(2019AB021);兵团科技创新人才计划项目(2021CB038);中国科学院“西部青年学者”项目

Mining maize flowering traits related candidate genes based on GWAS and WGCNA data

QIAN Fu1(), ZHANG Zhan-Qin2, CHEN Shu-Bin2, DING Yong-Fu2, SANG Zhi-Qin2,*(), LI Wei-Hua1,*()   

  1. 1College of Agriculture, Shihezi University / Key Laboratory of Oasis Eco-Agriculture, Shihezi 832000, Xinjiang, China
    2Xinjiang Academy of Agricultural and Reclamation Science, Shihezi 832000, Xinjiang, China
  • Received:2023-02-22 Accepted:2023-05-24 Published:2023-12-12 Published online:2023-08-28
  • Contact: * E-mail: lwh_agr@shzu.edu.cn; E-mail: sangzhiqin@126.com
  • Supported by:
    Tackling Key Scientific and Technological Problems in Key Areas of Xinjiang Production and Construction Corps(2019AB021);Science and Technology Innovation Talent Plan of Xinjiang Production and Construction Corps(2021CB038);Chinese Academy of Sciences “Western Young Scholar”

摘要:

花期是玉米重要性状之一, 解析玉米花期的遗传基础, 挖掘玉米花期关键基因, 对于选育广适玉米品种具有重要意义。在580份玉米自交系构成的自然群体中, 3年种植测定散粉期、吐丝期和散粉吐丝间隔期等3个花期性状, 利用分布全基因组的31,826个SNPs (single nucleotide polymorphisms)标记进行全基因组关联分析(genome wide association study, GWAS), 结合自交系B73的14个不同发育阶段的转录组数据进行权重基因共表达网络分析(weighted gene co-expression network analysis, WGCNA), 挑选与玉米开花相关的组织特异性模块和关键基因。GWAS在多环境(2个环境以上)下共定位标记14个, 挖掘到潜在候选基因10个, WGCNA挖掘到花期潜在候选基因17个, 2种方法共同挖掘到候选基因3个。Zm00001d052180编码一个MADS-box转录因子19, Zm00001d016814编码NAC转录因子133, Zm00001d048082编码MADS-box转录因子8, 这些基因主要参与调节花序生长发育。研究结果为解析玉米花期遗传基础及分子机制提供参考。

关键词: 玉米, 花期性状, GWAS, WGCNA, 候选基因

Abstract:

The flowering time is one of the important traits in maize. It is of great significance to analyze the genetic basis and to mine the key core genes in flowering for maize varieties with wide adaptability. A natural population consisting of 580 maize inbred lines were planted for three years, to determine the three flowering traits (including days to anthesis, days to silking, and anthesis silking interval). Genome-wide association analysis was conducted using 31,826 SNPs distributed throughout the whole genome. Combined with transcriptome data of 14 different developmental stages of inbred line B73, weighted gene co-expression network analysis was performed to select tissue specific modules and key genes related to maize flowering time. A total of 14 SNPs for four flower traits under multiple environments and 10 potential candidate genes were mined by GWAS, WGCNA was used to mine 17 potential candidate genes in flowering time, three candidate genes were jointly mined by both approaches. Zm00001d052180 encodes a MADS box transcription factor 19, Zm00001d016814 encodes the NAC transcription factor 133, Zm00001d048082 encodes MADS box transcription factor 8, mainly involved in regulating inflorescence growth and development, which has certain research value and significance. These results provide a reference for the genetic basis and molecular mechanisms of flowering time related traits in maize.

Key words: maize, flowering time related traits, GWAS, WGCNA, candidate gene

表1

不同年份下花期性状描述统计分析"

性状
Trait
年份
Year
范围
Range
均值
Mean
标准差
SD
变异系数
CV (%)
偏度
Skewness
峰度
Kurtosis
遗传力
H2 (%)
散粉期
DTA
2019 59.00-86.00 73.46 5.78 7.86 -0.23 -0.66 96.18
2020 53.00-83.00 65.22 6.22 9.54 0.14 -0.61
2021 48.00-75.00 60.72 5.66 9.31 -0.09 -0.67
BLUE 53.43-81.00 66.52 5.73 8.61 -0.07 -0.65
吐丝期
DTS
2019 60.67-89.00 76.12 5.98 7.86 -0.30 -0.56 95.54
2020 55.00-84.50 68.06 6.49 9.53 0.11 -0.68
2021 50.50-75.50 62.51 5.37 8.59 0.07 -0.48
BLUE 55.53-83.68 68.97 5.79 8.40 -0.07 -0.58
散粉吐丝间隔期ASI 2019 0.33-6.67 2.67 1.11 41.59 0.72 0.40 56.50
2020 0-6.50 2.72 1.20 44.23 0.47 -0.07
2021 0-5.00 1.69 1.05 61.87 0.48 -0.18
BLUE 0.67-6.16 2.39 0.86 35.88 0.68 0.94

表2

花期性状方差分析"

性状
Trait
变异来源
Source
自由度
DF
均方
MS
散粉期DTA 基因型 Genotype 579 208***
年份 Year 2 55,678***
基因型×年份 Genotype×Year 1149 8***
残差 Residual 2109 4
吐丝期DTS 基因型 Genotype 579 210***
年份 Year 2 62,735***
基因型×年份 Genotype×Year 1149 9***
残差 Residual 2105 4
散粉吐丝间隔期ASI 基因型 Genotype 579 4.7***
年份 Year 2 387.5***
基因型×年份 Genotype×Year 1144 1.9***
残差 Residual 2067 1.3

图1

花期性状相关性分析 **和***分别表示在0.01和0.001概率水平差异显著。缩写同表1。"

图2

花期性状BLUE值的曼哈顿图和QQ图 缩写同表1。"

附图1

花期性状的曼哈顿图和QQ图 DTA: 散粉期; DTS: 散粉期; ASI: 散粉吐丝间隔期。"

附表1

4个环境下花期性状显著SNPs标记"

性状
Trait
年份
Years
标记
SNPs
染色体
Chr.
物理位置
Position (bp)
P
P-value
次等位基因频率
MAF
DTS 2019 8_159342177 8 159,342,177 6.89E-11 0.34103
DTS 2019 5_48863489 5 48,863,489 1.63E-09 0.386323
DTS 2019 5_176849292 5 176,849,292 1.68E-09 0.23357
DTS 2019 5_147435514 5 147,435,514 4.75E-08 0.487567
DTS 2019 3_170291855 3 170,291,855 1.91E-07 0.493783
DTS 2019 8_160072522 8 160,072,522 2.90E-07 0.332149
DTS 2019 5_30789224 5 30,789,224 5.54E-07 0.37389
DTA 2019 10_69098512 10 69,098,512 8.51E-10 0.179262
DTA 2019 5_176849292 5 176,849,292 1.05E-09 0.232865
DTA 2019 10_10799643 10 10,799,643 1.80E-08 0.395431
DTA 2019 2_1359194 2 1,359,194 2.70E-08 0.260984
DTA 2019 6_128386990 6 128,386,990 3.07E-08 0.230228
DTA 2019 5_72656332 5 72,656,332 3.81E-08 0.44464
DTA 2019 7_109239367 7 109,239,367 7.89E-08 0.463972
DTA 2019 5_145997443 5 145,997,443 2.14E-07 0.329525
DTA 2019 8_160072522 8 160,072,522 2.97E-07 0.332162
DTA 2019 8_159342177 8 159,342,177 3.18E-07 0.341828
DTA 2019 8_134443746 8 134,443,746 3.78E-07 0.355888
DTA 2019 3_138802769 3 138,802,769 5.32E-07 0.132689
DTA 2019 4_135184025 4 135,184,025 7.44E-07 0.393673
DTA 2020 2_83703979 2 83,703,979 5.11E-12 0.243007
DTA 2020 8_130284569 8 130,284,569 9.81E-11 0.368881
DTA 2020 3_135182164 3 135,182,164 1.23E-10 0.190559
DTA 2020 7_157639029 7 157,639,029 5.63E-09 0.356643
DTA 2020 5_87683979 5 87,683,979 2.14E-08 0.252622
DTA 2020 7_109239367 7 109,239,367 3.45E-08 0.465909
DTA 2020 4_182045481 4 182,045,481 1.09E-07 0.403846
DTA 2020 9_15913145 9 15,913,145 2.29E-07 0.449301
DTA 2020 6_63992603 6 63,992,603 6.89E-07 0.318182
DTA 2020 8_159342177 8 159,342,177 9.73E-07 0.340035
DTA 2020 6_128386990 6 128,386,990 1.56E-06 0.230769
DTA 2021 3_135182164 3 135,182,164 1.56E-12 0.191413
DTA 2021 3_206999249 3 206,999,249 3.81E-11 0.476744
DTA 2021 8_130282760 8 130,282,760 2.11E-10 0.199463
DTA 2021 7_168431448 7 168,431,448 4.93E-10 0.388193
DTA 2021 9_154601150 9 154,601,150 3.07E-09 0.232558
DTA 2021 7_109239367 7 109,239,367 4.45E-08 0.466011
DTA 2021 3_6928983 3 6,928,983 7.33E-08 0.34347
DTA 2021 3_33440636 3 33,440,636 1.34E-07 0.308587
DTA 2021 4_146577795 4 146,577,795 2.31E-07 0.127907
DTA 2021 4_182045481 4 182,045,481 5.73E-07 0.407871
DTA 2021 8_159342177 8 159,342,177 6.13E-07 0.342576
DTA 2021 2_80389048 2 80,389,048 1.56E-06 0.390877
DTA BLUE 8_130284569 8 130,284,569 1.90E-11 0.365517
DTA BLUE 5_71931331 5 71,931,331 4.00E-10 0.493103
DTA BLUE 6_128386990 6 128,386,990 1.30E-09 0.232759
DTA BLUE 2_80271281 2 80,271,281 1.60E-09 0.39569
DTA BLUE 7_165890330 7 165,890,330 2.23E-09 0.369828
DTA BLUE 3_6928983 3 6,928,983 2.06E-08 0.341379
DTA BLUE 3_135182164 3 135,182,164 6.12E-08 0.191379
DTA BLUE 1_175994724 1 175,994,724 6.29E-08 0.194828
DTA BLUE 4_182045481 4 182,045,481 2.09E-07 0.406897
DTA BLUE 1_8218880 1 8,218,880 2.24E-07 0.228448
DTA BLUE 5_176849292 5 176,849,292 3.71E-07 0.230172
DTA BLUE 8_159342177 8 159,342,177 4.79E-07 0.343966
DTA BLUE 5_213317177 5 213,317,177 9.59E-07 0.334483
DTA BLUE 5_87683979 5 87,683,979 1.15E-06 0.253448
DTS 2020 8_130284569 8 130,284,569 3.09E-15 0.367596
DTS 2020 8_159342177 8 159,342,177 5.61E-09 0.342334
DTS 2020 3_135182164 3 135,182,164 6.72E-09 0.189895
DTS 2020 4_36061401 4 36,061,401 5.58E-08 0.461672
DTS 2020 4_182045481 4 182,045,481 1.16E-07 0.402439
DTS 2020 2_80271281 2 80,271,281 2.70E-07 0.39547
DTS 2020 5_71931331 5 71,931,331 2.75E-07 0.490418
DTS 2020 10_27456815 10 27,456,815 8.62E-07 0.402439
DTS 2020 1_8218880 1 8,218,880 1.23E-06 0.229094
DTS 2021 8_130282760 8 130,282,760 2.06E-10 0.199463
DTS 2021 8_159342177 8 159,342,177 2.80E-09 0.342576
DTS 2021 6_65919084 6 65,919,084 1.25E-08 0.347943
DTS 2021 3_206999249 3 206,999,249 2.14E-08 0.476744
DTS 2021 5_73163352 5 73,163,352 2.90E-08 0.120751
DTS 2021 9_149761626 9 149,761,626 1.48E-07 0.13059
DTS 2021 2_61511737 2 61,511,737 1.70E-07 0.363148
DTS 2021 5_87683979 5 87,683,979 3.98E-07 0.253131
DTS BLUE 8_130284569 8 130,284,569 1.75E-11 0.365517
DTS BLUE 3_6928983 3 6,928,983 5.95E-09 0.341379
DTS BLUE 2_80271281 2 80,271,281 6.90E-09 0.39569
DTS BLUE 5_176849292 5 176,849,292 7.82E-09 0.230172
DTS BLUE 7_165890330 7 165,890,330 3.42E-08 0.369828
DTS BLUE 7_168431448 7 168,431,448 1.47E-07 0.392241
DTS BLUE 1_8218880 1 8,218,880 1.79E-07 0.228448
DTS BLUE 9_149761626 9 149,761,626 2.08E-07 0.131034
DTS BLUE 3_135182164 3 135,182,164 3.03E-07 0.191379
DTS BLUE 3_170291855 3 170,291,855 3.73E-07 0.496552
DTS BLUE 7_109239367 7 109,239,367 4.01E-07 0.467241
DTS BLUE 1_175994724 1 175,994,724 5.31E-07 0.194828
DTS BLUE 4_132936409 4 132,936,409 1.12E-06 0.15
DTS BLUE 8_125053113 8 125,053,113 1.17E-06 0.421552
DTS BLUE 6_128386990 6 128,386,990 1.50E-06 0.232759
ASI 2020 1_282472600 1 282,472,600 6.18E-11 0.417553
ASI 2020 4_121588214 4 121,588,214 1.24E-06 0.298759
ASI 2020 7_1680665 7 1,680,665 1.26E-06 0.405142
ASI 2020 6_129660777 6 129,660,777 1.35E-06 0.496454
ASI BLUE 3_213737451 3 213,737,451 2.39E-08 0.374138
ASI BLUE 4_121588214 4 121,588,214 3.84E-07 0.300862

表3

花期性状显著共定位SNPs标记"

性状
Trait
标记
SNPs
染色体
Chromosome
物理位置
Position (bp)
P-value
2019 2020 2021 BLUE
散粉期
DTA
3_6928983 3 6,928,983 7.33E-08 2.06E-08
3_135182164 3 135,182,164 1.23E-10 1.56E-12 6.12E-08
4_182045481 4 182,045,481 1.09E-07 5.73E-07 2.09E-07
5_87683979 5 87,683,979 2.14E-08 1.15E-06
5_176849292 5 176,849,292 1.05E-09 3.71E-07
6_128386990 6 128,386,990 3.07E-08 1.56E-06 1.30E-09
7_109239367 7 109,239,367 7.89E-08 3.45E-08 4.45E-08
8_130284569 8 130,284,569 9.81E-11 1.90E-11
8_159342177 8 159,342,177 3.18E-07 9.73E-07 6.13E-07 4.79E-07
吐丝期
DTS
1_8218880 1 8,218,880 1.23E-06 1.79E-07
2_80271281 2 80,271,281 2.70E-07 6.90E-09
3_135182164 3 135,182,164 6.72E-09 3.03E-07
3_170291855 3 170,291,855 1.91E-07 3.73E-07
5_176849292 5 176,849,292 1.68E-09 7.82E-09
8_130284569 8 130,284,569 3.09E-15 1.75E-11
8_159342177 8 159,342,177 6.89E-11 9.73E-07 2.80E-09
9_149761626 9 149,761,626 1.48E-07 2.08E-07
散粉吐丝间隔期
ASI
4_121588214 4 121,588,214 1.24E-06 3.84E-07

图3

花期性状显著共定位SNPs数量 缩写同表1。"

图4

花期性状共定位SNPs标记等位基因效应分析 ***表示在0.001概率水平差异显著。缩写同表1。"

附图2

花期性状共定位SNPs标记等位基因效应分析 缩写同附图1。"

图5

基因共表达网络构建结果 A: 样本层次聚类树及组织对应; B: 软阈值确定; C: 基因聚类和模块构建; D: 性状与模块相关性分析(红色的格子代表性状与模块具有正相关性, 绿色的格子代表性状与模块具有负相关性, 图中括号内外的数值分别为P值和相关系数r); E: 开花富集通路。"

表4

GWAS候选基因"

性状
Trait
标记
SNPs
基因
Gene
功能注释
Annotation
DTA 4_182045481 Zm00001d052180* Tunicate 1
DTA, DTS 8_159342177 Zm00001d011703 WD-repeat protein RBAP 1
DTA 3_6928983 zma-MIR156b Corngrass 1
DTA 5_87683979 Zm00001d015385 Chlorophyll a-b binding protein, chloroplastic
DTA 7_109239367 Zm00001d020361 PHD-transcription factor 30
DTA 6_128386990 Zm00001d037532 6-phosphofructo-2-kinase/fructose-26-bisphosphatase
DTA, DTS 5_176849292 Zm00001d016814* NAC-transcription factor 133
DTS 1_8218880 Zm00001d027554 LYR family of Fe/S cluster biogenesis protein
DTS 9_149761626 Zm00001d048082* MADS 8
ASI 4_121588214 Zm00001d050768 Cytokinin response regulator 7

图6

关键模块的基因共表达局部调控网络 绿色节点是已报道开花基因, 红色节点是筛选出的开花候选基因。"

表5

WGCNA候选基因"

模块
Moudle
基因
Gene
功能注释
Annotation
Blue Zm00001d014863 MYB-related-transcription factor 96
Zm00001d012395 Mannose-1-phosphate guanylyltransferase 2
Brown Zm00001d041685 RALF
Zm00001d022469 Putative histone-arginine methyltransferase 1.4
Zm00001d053880 CO CO-LIKE TIMING OF CAB1 protein domain 24
Green Zm00001d037182 12-oxo-phytodienoic acid reductase 3
Zm00001d023424 bZIP-transcription factor 109
Zm00001d016814* NAC-transcription factor 133
Purple Zm00001d020970 Dihydroflavonoid reductase 1
Black Zm00001d030656 Rotten ear 1
Zm00001d013964 ALG2-interacting protein X
Zm00001d048082* MADS 8
Zm00001d033976 Aux/IAA-transcription factor 4
Royalblue Zm00001d042985 BAG family molecular chaperone regulator 4
Grey60 Zm00001d012719 bZIP-transcription factor 20
Lightcyan Zm00001d035629 Actin-depolymerizing factor 4
Zm00001d052180* Tunicate 1
[1] Liu M, Tan X L, Yang Y, Liu P, Zhang X X, Zhang Y C, Wang L, Hu Y, Ma L L, Li Z L, Zhang Y L, Zou C Y, Lin H J, Gao S B, Lee M, Lübberstedt T, Pan G T, Shen Y. Analysis of the genetic architecture of maize kernel size traits by combined linkage and association mapping. Plant Biotechnol J, 2020, 18: 207-221.
doi: 10.1111/pbi.13188 pmid: 31199064
[2] Maldonado C, Mora F, Bertagna F A B, Kuki M C, Scapim C A. SNP-and haplotype-based GWAS of flowering-related traits in maize with network-assisted gene prioritization. Agronomy, 2019, 9: 725.
doi: 10.3390/agronomy9110725
[3] Zhang H Y, Gao S, Li B Y, Zhong H X, Zhang Z C, Luo B W. Genome-wide association analysis of maize flowering traits. Asian Agric Res, 2020, 12: 43-46.
[4] Buckler E S, Holland J B, Bradbury P J, Acharya C B, Brown P J, Browne C, Ersoz E, Flint-Garcia S, Garcia A, Glaubitz J C, Goodman M M, Harjes C, Guill K, Kroon D E, Larsson S, Lepak N K, Li H H, Mitchell S E, Pressoir G, Peiffer J A, Rosas M O, Rocheford T R, Romay M C, Romero S, Salvo S, Sanchez Villeda H, Da Silva H S, Sun Q, Tian F, Upadyayula N, Ware D, Yates H, Yu J M, Zhang Z W, Kresovich S, Mcmullen M D. The genetic architecture of maize flowering time. Science, 2009, 325: 714-718.
doi: 10.1126/science.1174276 pmid: 19661422
[5] Shrestha R, Gómez-Ariza J, Brambilla V, Fornara F. Molecular control of seasonal flowering in rice, Arabidopsis and temperate cereals. Ann Bot, 2014, 114: 1445-1458.
doi: 10.1093/aob/mcu032
[6] Li Y X, Li C H, Bradbury P J, Liu X L, Lu F, Romay C M, Glaubitz J C, Wu X, Peng B, Shi Y S, Song Y, C Zhang D F, Buckler E S, Zhang Z W, Li Y, Wang T Y. Identification of genetic variants associated with maize flowering time using an extremely large multi-genetic background population. Plant J, 2016, 86: 391-402.
doi: 10.1111/tpj.2016.86.issue-5
[7] Dong Z, Danilevskaya O, Abadie T, Messina C, Coles N, Cooper M. A gene regulatory network model for floral transition of the shoot apex in maize and its dynamic modeling. PLoS One, 2012, 7: e43450.
doi: 10.1371/journal.pone.0043450
[8] 李真, 刘文童, 杨硕, 郭晋杰, 赵永锋, 黄亚群, 陈景堂, 祝丽英. 玉米花期性状的全基因组关联分析. 分子植物育种, 2020, 18: 37-45.
Li Z, Liu W T, Yang S, Guo J J, Zhao Y F, Huang Y Q, Chen J T, Zhu L Y. Genome-wide association analysis of flowering time related traits in maize (Zea mays L.). Mol Plant Breed, 2020, 18: 37-45. (in Chinese with English abstract)
[9] Yuan Y B, Cairns J E, Babu R, Gowda M, Makumbi D, Magorokosho C, Zhang A, Liu Y B, Wang N, Hao Z F, San Vicente F, Olsen M S, Prasanna B M, Lu Y L, Zhang X C. Genome-wide association mapping and genomic prediction analyses reveal the genetic architecture of grain yield and flowering time under drought and heat stress conditions in maize. Front Plant Sci, 2019, 30:1919.
[10] Wang X T, Wu L J, Zhang S F, Wu L C, Ku L X, Wei X M, Xie L L, Chen Y H. Robust expression and association of ZmCCA1 with circadian rhythms in maize. Plant Cell Rep, 2011, 30: 1261-1272.
doi: 10.1007/s00299-011-1036-8
[11] Alter P, Bircheneder S, Zhou L Z, Schlüter U, Gahrtz M, Sonnewald U, Dresselhaus T. Flowering time-regulated genes in maize include the transcription factor ZmMADS1. Plant Physiol, 2016, 172: 389-404.
doi: 10.1104/pp.16.00285
[12] Jin M L, Liu X G, Jia W, Liu H J, Li W Q, Peng Y, Du Y F, Wang Y B, Yin Y J, Zhang X H, Liu Q, Deng M, Li N, Cui X Y, Hao D Y, Yan J B. ZmCOL3, a CCT gene represses flowering in maize by interfering with the circadian clock and activating expression of ZmCCT. J Integr Plant Biol, 2018, 60: 465-480.
doi: 10.1111/jipb.v60.6
[13] Muszynski M G, Dam T, Li B L, Shirbroun D M, Hou Z L, Bruggemann E, Archibald R, Ananiev E V, Danilevskaya O N. Delayed flowering1 encodes a basic leucine zipper protein that mediates floral inductive signals at the shoot apex in maize. Plant Physiol, 2006, 142: 1523-1536.
pmid: 17071646
[14] Colasanti J, Tremblay R, Wong A Y, Coneva V, Kozaki A, Mable B K. The maize INDETERMINATE1 flowering time regulator defines a highly conserved zinc finger protein family in higher plants. BMC Genomics, 2006, 7: 158.
pmid: 16784536
[15] Salvi S, Tuberosa R, Chiapparino E, Maccaferri M, Veillet S, Van Beuningen L, Isaac P, Edwards K, Phillips R L. Toward positional cloning of Vgt1, a QTL controlling the transition from the vegetative to the reproductive phase in maize. Plant Mol Biol, 2002, 48: 601-613.
doi: 10.1023/A:1014838024509
[16] Guo L, Wang X H, Zhao M, Huang C, Li C, Li D, Yang C J, York A M, Xue W, Xu G H, Liang Y, Chen Q Y, Doebley J F, Tian F. Stepwise cis-regulatory changes in ZCN8 contribute to maize flowering-time adaptation. Curr Biol, 2018, 28: 3005-3015.
doi: S0960-9822(18)30928-X pmid: 30220503
[17] Liang Y M, Liu Q, Wang X F, Huang C, Xu G H, Hey S, Lin H Y, Li C, Xu D Y, Wu L S, Wang C L, Wu W H, Xia J L, Han X, Lu S J, Lai J S, Song W B, Schnable P S, Tian F. ZmMADS69 functions as a flowering activator through the ZmRap2.7-ZCN8 regulatory module and contributes to maize flowering time adaptation. New Phytol, 2019, 221: 2335-2347.
doi: 10.1111/nph.2019.221.issue-4
[18] Huang C, Sun H Y, Xu D Y, Chen Q Y, Liang Y M, Wang X F, Xu G H, Tian J G, Wang C L, Li D, Wu L S, Yang X H, Jin W W, Doebley J F, Tian F. ZmCCT9 enhances maize adaptation to higher latitudes. Proc Natl Acad Sci USA, 2018, 115: E334-E341.
[19] Hung H Y, Shannon L M, Tian F, Bradbury P J, Chen C, Flint-Garcia S A, Mcmullen M D, Ware D, Buckler E S, Doebley J F, Holland J B. ZmCCT and the genetic basis of day-length adaptation underlying the postdomestication spread of maize. Proc Natl Acad Sci USA, 2012, 109: E 1913-E1921.
doi: 10.1073/pnas.1117158109
[20] 姜洪真, 马伯军, 钱前, 高振宇. 全基因组关联分析(GWAS)在作物农艺性状研究中的应用. 农业生物技术学报, 2018, 26: 1244-1257.
Jiang H Z, Ma B J, Qian Q, Gao Z Y. The application of genome-wide association study (GWAS) in crop agronomic traits. J Agric Biotechnol, 2018, 26: 1244-1257. (in Chinese with English abstract)
[21] 杨宇昕, 桑志勤, 许诚, 代文双, 邹枨. 利用WGCNA进行玉米花期基因共表达模块鉴定. 作物学报, 2019, 45: 161-174.
doi: 10.3724/SP.J.1006.2019.83053
Yang Y X, Sang Z Q, Xu C, Dai W S, Zou C. Identification of maize flowering gene co-expression modules by WGCNA. Acta Agron Sin, 2019, 45: 161-174. (in Chinese with English abstract)
doi: 10.3724/SP.J.1006.2019.83053
[22] 邓照, 蒋环琪, 程丽沙, 刘睿, 黄敏, 李曼菲, 杜何为. 利用WGCNA鉴定玉米非生物胁迫相关基因共表达网络. 作物学报, 2023, 49: 672-685.
doi: 10.3724/SP.J.1006.2023.23017
Deng Z, Jiang H Q, Cheng L S, Liu R, Huang M, Li M F. Identification of abiotic stress-related gene co-expression networks in maize by WGCNA. Acta Agron Sin, 2023, 49: 672-685. (in Chinese with English abstract)
doi: 10.3724/SP.J.1006.2023.23017
[23] Stelpflug S C, Sekhon R S, Vaillancourt B, Hirsch C N, Buell C R, De Leon N, Kaeppler S M. An expanded maize gene expression atlas based on RNA sequencing and its use to explore root development. Plant Genome, 2016, 9, 1-16.
[24] Knapp S J, Stroup W W, Ross W M. Exact confidence intervals for heritability on a progeny mean basis. Crop Sci, 1985, 25: 192-194.
doi: 10.2135/cropsci1985.0011183X002500010046x
[25] 刘小磊. 一种交替运用固定效应和随机效应模型优化全基因组关联分析的算法开发. 华中农业大学博士学位论文,湖北武汉, 2016.
Liu X L. Development of an Iterative Usage of Fixed Effect and Random Effect Models for Powerful and Efficient Genome-Wide Association Studies. PhD Dissertation of Huazhong Agricultural University, Wuhan, Hubei, China, 2016. (in Chinese with English abstract)
[26] Langfelder P, Horvath S. WGCNA: an R package for weighted correlation network analysis. BMC Bioinfor, 2008, 9: 559.
doi: 10.1186/1471-2105-9-559
[27] 鲜小华, 王嘉, 徐新福, 曲存民, 卢坤, 李加纳, 刘列钊. 整合GWAS和WGCNA分析挖掘甘蓝型油菜黄籽微效作用位点. 作物学报, 2018, 44: 1105-1113.
doi: 10.3724/SP.J.1006.2018.01105
Xian X H, Wang J, Xu X F, Qu C M, Lu K, Li J N, Liu L D. Mining yellow-seeded micro effect loci in B. napus by integrated GWAS and WGCNA analysis. Acta Agron Sin, 2018, 44: 1105-1113. (in Chinese with English abstract)
doi: 10.3724/SP.J.1006.2018.01105
[28] Downs G S, Bi Y M, Colasanti J, Wu W Q, Chen X, Zhu T, Rothstein S J, Lukens L N. A developmental transcriptional network for maize defines co-expression modules. Plant Physiol, 2013, 161: 1830-1843.
doi: 10.1104/pp.112.213231
[29] Sheehan M J, Kennedy L M, Costich D E, Brutnell T P. Subfunctionalization of PhyB1 and PhyB2 in the control of seedling and mature plant traits in maize. Plant J, 2007, 49: 338-353.
pmid: 17181778
[30] Barnes A C, Rodríguez-Zapata F, Juárez-Núñez K A, Gates D J, Janzen G M, Kur A, Wang L, Jensen S E, Estévez-Palmas J M, Crow T M, Kavi H S, Pil H D, Stokes R L, Knizner K T, Aguilar-Rangel M R, Demesa-Arévalo E, Skopelitis T, Pérez-Limón S, Stutts W L, Thompson P, Chiu Y C, Jackson D, Muddiman D C, Fiehn O, Runcie D, Buckler E S, Ross-Ibarra J, Hufford M B, Sawers R J H, Rellán-Álvarez R. An adaptive teosinte mexicana introgression modulates phosphatidylcholine levels and is associated with maize flowering time. Proc Natl Acad Sci USA, 2022, 119: e2100036119.
doi: 10.1073/pnas.2100036119
[31] Bendix C, Mendoza J M, Stanley D N, Meeley R, Harmon F G. The circadian clock-associated gene gigantea1 affects maize developmental transitions. Plant Cell Environ, 2013, 36: 1379-1390.
doi: 10.1111/pce.2013.36.issue-7
[32] Hayes K R, Beatty M, Meng X, Simmons C R, Habben J E, Danilevskaya O N. Maize global transcriptomics reveals pervasive leaf diurnal rhythms but rhythms in developing ears are largely limited to the core oscillator. PLoS One, 2010, 5: e12887.
doi: 10.1371/journal.pone.0012887
[33] Castelletti S, Tuberosa R, Pindo M, Salvi S. A MITE transposon insertion is associated with differential methylation at the maize flowering time QTL Vgt1. Genes Genet Genomic, 2014, 4: 805-812.
[34] Liu L, Wu Y, Liao Z, Xiong J, Wu F, Xu J, Lan H, Tang Q, Zhou S, Liu Y, Lu Y. Evolutionary conservation and functional divergence of the LFK gene family play important roles in the photoperiodic flowering pathway of land plants. Heredity, 2018, 120: 310-328.
doi: 10.1038/s41437-017-0006-5 pmid: 29225355
[35] Li Q L, Liu B S. Genetic regulation of maize flower development and sex determination. Planta, 2017, 245:1-14.
doi: 10.1007/s00425-016-2607-2 pmid: 27770199
[36] Li D, Wang X F, Zhang X B, Chen Q Y, Xu G H, Xu D Y, Wang C L, Liang Y M, Wu L S, Huang C, Tian J G, Wu Y Y, Tian F. The genetic architecture of leaf number and its genetic relationship to flowering time in maize. New Phytol, 2016, 210: 256-268
doi: 10.1111/nph.13765 pmid: 26593156
[37] Mascheretti I, Battaglia R, Mainieri D, Altana A, Lauria M, Rossi V. The WD40-repeat proteins NFC101 and NFC102 regulate different aspects of maize development through chromatin modification. Plant Cell, 2013, 25: 404-420.
doi: 10.1105/tpc.112.107219
[38] Pandey P, Srivastava P K, Pandey S P. Prediction of plant miRNA targets. Methods Mol Biol, 2019, 1932: 99-107.
doi: 10.1007/978-1-4939-9042-9_7 pmid: 30701494
[39] Ligaba-Osena A, Dimarco K, Richard T L, Hankoua B. The maize Corngrass1 miRNA-regulated developmental alterations are restored by a bacterial ADP-glucose pyrophosphorylase in transgenic tobacco. Int J Genomics, 2018, 2018: 8581258.
[40] Piñeiro M, Gómez-Mena C, Schaffer R, Martínez-Zapater J M, Coupland G. Early bolting in short days is related to chromatin remodeling factors and regulates flowering in Arabidopsis by repressing FT. Plant Cell, 2003, 15: 1552-1562
pmid: 12837946
[41] Mccormick A J, Kruger N J. Lack of fructose 2,6-bisphosphate compromises photosynthesis and growth in Arabidopsis in fluctuating environments. Plant J, 2015, 81: 670-683.
doi: 10.1111/tpj.2015.81.issue-5
[42] 钱景华, 李增强, 廖小芳, 汤丹峰, 史奇奇, 周瑞阳, 陈鹏. 调控植物花发育的MYB类转录因子研究进展. 生物技术通讯, 2016, 27: 283-288.
Qian J H, Li Z Q, Liao X F, Tang D F, Shi Q Q, Zhou R Y, Chen P. Advance on MYB transcription factors in regulating plant flower development. Lett Biotechnol, 2016, 27: 283-288. (in Chinese with English abstract)
doi: 10.1007/s10529-005-1811-0
[43] Zhang X B, Chen Y H, Wang Z Y, Chen Z L, Gu H Y, Qu L J. Constitutive expression of CIR1 (RVE2) affects several circadian-regulated processes and seed germination in Arabidopsis. Plant J, 2007, 51: 512-525.
doi: 10.1111/tpj.2007.51.issue-3
[44] Barth C, Tullio M D, Conklin P L. The role of ascorbic acid in the control of flowering time and the onset of senescence. J Exp Bot, 2006, 57: 1657-1665.
pmid: 16698812
[45] Liu H Y, Zhou X C, Li Q P, Wang L, Xing Y Z. CCT domain-containing genes in cereal crops: flowering time and beyond. Theor Appl Genet, 2020, 133: 1385-1396.
doi: 10.1007/s00122-020-03554-8 pmid: 32006055
[46] Cardona-López X, Cuyas L, Marín E, Rajulu C, Irigoyen M L, Gil E, Puga M I, Bligny R, Nussaume L, Geldner N, Paz-Ares J, Rubio V. ESCRT-III-associated protein ALIX mediates high- affinity phosphate transporter trafficking to maintain phosphate homeostasis in Arabidopsis. Plant Cell, 2015, 27: 2560-2581.
doi: 10.1105/tpc.15.00393
[47] Mai Y X, Wang L, Yang H Q. A gain-of-function mutation in IAA7/AXR2 confers late flowering under short-day light in Arabidopsis. J Integr Plant Biol, 2011, 53: 480-492.
doi: 10.1111/j.1744-7909.2011.01050.x
[48] Doukhanina E V, Chen S R, Van Der Zalm E, Godzik A, Reed J, Dickman M B. Identification and functional characterization of the BAG protein family in Arabidopsis thaliana. J Biol Chem, 2006, 281: 18793-18801.
doi: 10.1074/jbc.M511794200 pmid: 16636050
[49] Huang J, Sun W, Ren J X, Yang R C, Fan J S, Li Y F, Wang X, Joseph S, Deng W B, Zhai L H. Genome-wide identification and characterization of actin-depolymerizing factor (ADF) family genes and expression analysis of responses to various stresses in Zea Mays L. Int J Mol Sci, 2020, 21: 1751.
doi: 10.3390/ijms21051751
[50] Yu Y C, Qiao L F, Chen J C, Rong Y H, Zhao Y H, Cui X K, Xu J P, Hou X M, Dong C H. Arabidopsis REM16 acts as a B3 domain transcription factor to promote flowering time via directly binding to the promoters of SOC1 and FT. Plant J, 2020, 103: 1386-1398.
doi: 10.1111/tpj.v103.4
[51] 邢瑞霞, 朱金洁, 祁显涛, 谢传晓, 江海洋, 刘昌林. 玉米开花期调控机制研究进展. 安徽农业科学, 2022, 50(9): 23-26.
Xing R X, Zhu J J, Qi X T, Xie C X, Jiang H Y, Liu C L. Research progress on the regulation mechanism of maize flowering period. J Anhui Agric Sci, 2022, 50(9): 23-26. (in Chinese with English abstract)
[52] Xu J, Liu Y X, Liu J, Cao M J, Wang J, Lan H, Xu Y B, Lu Y L, Pan G T, Rong T Z. The genetic architecture of flowering time and photoperiod sensitivity in maize as revealed by QTL review and meta analysis. J Integr Plant Biol, 2012, 54: 358-373.
doi: 10.1111/j.1744-7909.2012.01128.x
[53] Wang L W, Zhou Z Q, Li R G, Weng J F, Zhang Q G, Li X H, Wang B Q, Zhang W Y, Song W, Li X H. Mapping QTL for flowering time-related traits under three plant densities in maize. Crop J, 2021, 9: 372-379.
doi: 10.1016/j.cj.2020.07.009
[54] Khairallah M M, Bohn M, Jiang C, Deutsch J A, Jewell D C, Mihm J A, Melchinger A E, González-De-León D, Hoisington D A. Molecular mapping of QTL for southwestern corn borer resistance, plant height and flowering in tropical maize. Plant Breed, 1998, 117: 309-318.
doi: 10.1111/pbr.1998.117.issue-4
[55] 侯清桂, 张君, 田磊, 徐梦真, 邹欢, 毛棣, 陈彦惠, 吴连成. 基于SNP标记连锁图谱的玉米花期性状QTL定位. 玉米科学, 2021, 29(6): 41-49.
Hou Q G, Zhang J, Tian L, Xu M Z, Zou H, Mao L, Chen Y H, Wu L C. QTL mapping of maize flowering traits based on SNP molecular maker linkage map. J Maize Sci, 2021, 29(6): 41-49. (in Chinese with English abstract)
[56] 杨慧丽, 林亚楠, 张怀胜, 卫晓轶, 丁冬, 薛亚东. 玉米开花期性状的QTL及杂种优势位点定位. 作物学报, 2017, 43: 678-690.
doi: 10.3724/SP.J.1006.2017.00678
Yang H L, Lin Y N, Zhang H S, Wei X T, Ding D, Xue Y D. Mapping of QTLs and heterotic loci for flowering time-related traits in maize. Acta Agron Sin, 2017, 43: 678-690. (in Chinese with English abstract)
doi: 10.3724/SP.J.1006.2017.00678
[57] 袁亮, 孟鑫, 汪亚龙, 廖长见, 李高科, 吕桂华, 宋军, 邱正高, 林海建. 镉胁迫下甜、糯玉米开花期性状的全基因组关联分析. 植物遗传资源学报, 2021, 22: 438-447.
doi: 10.13430/j.cnki.jpgr.20200903002
Yuan L, Meng X, Wang Y L, Liao C J, Li G K, Lyu G H, Song J, Qiu Z G, Lin H J. Genome wide association analysis of flowering traits in sweet and waxy maize under cadmium stress. J Plant Genet Resour, 2021, 22: 438-447 (in Chinese with English abstract).
[58] Shi J, Wang Y H, Wang C H, Wang L, Zeng W, Han G M, Qiu C H, Wang T Y, Tao Z, Wang K J, Huang S J, Yu S S, Wang W Y, Chen H Y, Chen C, He C, Wang H, Zhu P L, Hu Y Y, Zhang X, Xie C X, Lu X D, Li P J. Linkage mapping combined with GWAS revealed the genetic structural relationship and candidate genes of maize flowering time-related traits. BMC Plant Biol, 2022, 22: 328.
doi: 10.1186/s12870-022-03711-9 pmid: 35799118
[59] 魏海忠, 商伟, 钟世宜, 张彦军, 徐长利, 赵燕, 王红红, 刘保申. 利用重组自交系群体定位玉米生育期相关性状QTL. 玉米科学, 2014, 22(1): 49-55.
Wei H Z, Shang W, Zhong S W, Zhang Y J, Zhao Y, Wang H H, Liu B S. Mapping of growth period related traits in maize using recombinant inbred lines. J Maize Sci, 2014, 22(1): 49-55 ). (in Chinese with English abstract)
[60] 李凯, 姜涛, 才源, 王丕武, 陈雪峰, 马科, 周元元, 卢石. 玉米花期性状的主效SSR标记筛选. 玉米科学, 2015, 23(1): 33-38.
Li K, Jiang T, Cai Y, Wang P W, Chen X F, Ma K, Zhou Y Y, Lu S. Screening of the main effect SSR markers of maize flowering. J Maize Sci, 2015, 23(1): 33-38. (in Chinese with English abstract)
[61] 郭向阳, 陈建军, 卫晓轶, 祝云芳, 王安贵, 刘鹏飞, 汤继华, 陈泽辉. 施氮与不施氮条件下玉米开花期相关性状的QTL定位. 植物营养与肥料学报, 2017, 23: 297-303.
Guo X Y, Chen J J, Wei X Y, Zhu Y F, Wang A G, Liu P F, Tang J H, Chen Z H. QTL mapping of flowering related traits of maize with and without nitrogen application. J Plant Nutr Fert, 2017, 23: 297-303. (in Chinese with English abstract)
[62] 何文昭, 王红武, 胡小娇, 李坤, 王琪, 吴宇锦, 刘志芳, 黄长玲. 玉米株高和穗位高在不同环境下的数量遗传分析. 作物杂志, 2017, (3): 13-18.
He W Z, Wang H W, Hu X J, Li K, Wang Q, Wu Y J, Liu Z F, Huang C L. Quantitative genetic research of plant height and ear height in maize under different environments. Crops, 2017, (3): 13-18. (in Chinese with English abstract)
[63] 曾群, 赵仲华, 赵淑清. 植物开花时间调控的信号途径. 遗传, 2006, 28: 1031-1036.
Zeng Q, Zhao Z H, Zhao S Q. Signal pathways of flowering time regulation in plant. Hereditas, 2006, 28: 1031-1036. (in Chinese with English abstract)
[64] Huang D M, Lin W F, Deng B, Ren Y J, Miao Y. Dual-located WHIRLY1 interacting with LHCA1 alters photochemical activities of photosystem I and is involved in light adaptation in Arabidopsis. Int J Mol Sci, 2017, 18: 2352.
doi: 10.3390/ijms18112352
[65] Su H H, Liang J C, Abou-Elwafa S F, Cheng H Y, Dou D D, Ren Z Z, Xie J R, Chen Z H, Gao F G, Ku L X, Chen Y H. ZmCCT regulates photoperiod-dependent flowering and response to stresses in maize. BMC Plant Biol, 2021, 21: 453.
doi: 10.1186/s12870-021-03231-y
[66] Guo J, Li C H, Zhang X Q, Li Y X, Zhang D F, Shi Y S, Song Y C, Li Y, Yang D G, Wang T Y. Transcriptome and GWAS analyses reveal candidate gene for seminal root length of maize seedlings under drought stress. Plant Sci, 2020, 292: 110380.
doi: 10.1016/j.plantsci.2019.110380
[67] Ma L L, Zhang M Y, Chen J, Qing C Y, He S J, Zou C Y, Yuan G S, Yang C, Peng H, Pan G T, Lübberstedt T, Shen Y. GWAS and WGCNA uncover hub genes controlling salt tolerance in maize (Zea mays L.) seedlings. Theor Appl Genet, 2021, 134: 3305-3318.
doi: 10.1007/s00122-021-03897-w
[68] 王艳花, 刘景森, 李加纳. 整合GWAS和WGCNA筛选鉴定甘蓝型油菜生物产量候选基因. 作物学报, 2021, 47: 1491-1510.
doi: 10.3724/SP.J.1006.2021.04175
Wang Y H, Liu J S, Li J N. Integrating GWAS and WGCNA to screen and identify candidate genes for biological yield in Brassica napus L. Acta Agron Sin, 2021, 47: 1491-1510. (in Chinese with English abstract)
[69] Francisco F R, Aono A H, Da Silva C C, Gonçalves P S, Scaloppi Junior E J, Le Guen V, Fritsche-Neto R, Souza L M, De Souza A P. Unravelling rubber tree growth by integrating GWAS and biological network-based approaches. Front Plant Sci, 2021, 12: 768589.
doi: 10.3389/fpls.2021.768589
[70] Raman H, Raman R, Coombes N, Song J, Prangnell R, Bandaranayake C, Tahira R, Sundaramoorthi V, Killian A, Meng J, Dennis E S, Balasubramanian S. Genome-wide association analyses reveal complex genetic architecture underlying natural variation for flowering time in canola. Plant Cell Environ, 2016, 39: 1228-1239.
doi: 10.1111/pce.v39.6
[71] Hartmann U, Höhmann S, Nettesheim K, Wisman E, Saedler H, Huijser P. Molecular cloning of SVP: a negative regulator of the floral transition in Arabidopsis. Plant J, 2000, 21: 351-360.
doi: 10.1046/j.1365-313x.2000.00682.x pmid: 10758486
[72] 王佳丽, 王鹤冰, 杨慧勤, 胡若琳, 魏大勇, 汤青林, 王志敏. NAC转录因子在植物花发育中的作用. 生物工程学报, 2022, 38: 2687-2699.
Wang J L, Wang H B, Yang H Q, Hu R L, Wei D Y, Tang Q L, Wang Z M. The role of NAC transcription factors in flower development in plants. Chin J Biotechnol, 2022, 38: 2687-2699. (in Chinese with English abstract)
[73] Kim S G, Kim S Y, Park C M. A membrane-associated NAC transcription factor regulates salt-responsive flowering via FLOWERING LOCUS T in Arabidopsis. Planta, 2007, 226: 647-654.
doi: 10.1007/s00425-007-0513-3
[74] 陈旭. NAC家族转录因子OsNAC2介导赤霉素信号通路参与调控水稻株高和开花时间. 复旦大学博士学位论文,上海, 2013.
Chen X. Expression of Rice NAC Transcription Factor OsNAC2 Reduced the Height of Rice and Delayed the Flowering Time by Gibberellin Pathway. PhD Dissertation of Graduate School of Fudan University, Shanghai, China, 2013. (in Chinese with English abstract)
[75] Pimenta M R, Silva P A, Mendes G C, Alves J R, Caetano H D, Machado J P, Brustolini O J, Carpinetti P A, Melo B P, Silva J C, Rosado G L, Ferreira M F, Dal-Bianco M, Picoli E A, Aragao F J, Ramos H J, Fontes E P. The stress-induced soybean NAC transcription factor GmNAC81 plays a positive role in developmentally programmed leaf senescence. Plant Cell Physiol, 2016, 57: 1098-1114.
doi: 10.1093/pcp/pcw059 pmid: 27016095
[76] Du Y F, Lunde C, Li Y F, Jackson D, Hake S, Zhang Z X. Gene duplication at the fascicled ear1 locus controls the fate of inflorescence meristem cells in maize. Proc Natl Acad Sci USA, 2021, 118: e2019218118.
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