Scientia Agricultura Sinica ›› 2022, Vol. 55 ›› Issue (5): 977-990.doi: 10.3864/j.issn.0578-1752.2022.05.011

• HORTICULTURE • Previous Articles     Next Articles

eQTL Analysis of Key Monoterpene Biosynthesis Genes in Table Grape

WANG HuiLing1(),YAN AiLing2,SUN Lei3,ZHANG GuoJun1,WANG XiaoYue1,REN JianCheng1,XU HaiYing1()   

  1. 1Institute of Forestry and Pomology, Beijing Academy of Agriculture and Forestry Sciences, Beijing 100093
    2Beijing Engineering Research Center for Deciduous Fruit Trees, Beijing 100097
    3Key Laboratory of Biology and Genetic Improvement of Horticultural Crops (North China), Ministry of Agriculture and Rural Affairs, Beijing 100097
  • Received:2021-05-17 Accepted:2021-07-27 Online:2022-03-01 Published:2022-03-08
  • Contact: HaiYing XU E-mail:wanghui198216@126.com;haiyingxu63@sina.com

Abstract:

【Objective】The eQTL mapping for monoterpene biosynthesis related gene expression traits were performed and the candidate genes were mined to deeply understand the regulation mechanism of monoterpene synthesis, so as to lay a foundation for the cultivation of new Muscat grape varieties and germplasm improvement.【Method】The F1 population generated by crossing Moldova and Ruiduxiangyu were used as materials in this study, and the grape berry samples were collected at verasion and ripening stage respectively. The phenotypic data of expression traits were obtained by detecting the expression levels of seven monoterpene synthesis pathway genes (VvDXS1, VvDXS3, VvDXR, VvHDR, VvLiner, VvTerp, and VvGermD) by using real-time quantitative qPCR technique. eQTL mapping of monoterpene gene expression traits were performed with the mapQTL6.0 software based on the interval mapping method. The associated markers of eQTL were mapped to the genomic region, and the genes within eQTLs were annotated and analyzed via the databases of Ensembl Plants and NCBI. The expression profiles of candidate genes in the samples of parents at different developmental stages were detected by grape whole genome microarray.【Result】The expression levels of seven monoterpene biosynthesis related genes in F1 population showed a continuous quantitative genetic distribution. A significant correlation between the expression of monoterpene genes was observed. At verasion, 13 eQTLs for the seven expression traits were mapped on chromosome 1, 6, 14, 16, 17, 10 and 12, respectively, and the phenotypic explanation value ranged from 12.2% to 23.5%. Among them, eQTLs (qDXS1-v14, qHDR-v14-1 and qTerp-v14) on chromosome 14 covered the same genetic interval of 57.582-76.979 cM, and qLiner-v10, qTerp-v10 and qGermD-v10 were co-located on chromosome 10. At the mature stage, 16 eQTLs were detected, mainly located on chromosome 1, 6, 12, 8, 13 and 19. qDXS1-m6-2, qDXR-m6-2, qLiner-m6 and qGermD-m6 were co-located in the genetic interval 139.212-143.161 cM of chromosome 6. In addition, a total of 18 eQTLs on chromosomes 1, 3, 7, 10, 12, 15 and 19 were detected for the change ratio of each gene expression between maturity and verasion, respectively. qDXS1-r12-1, qDXR-r12-1, qHDR-r12, qLiner-r12 and qGermD-r12 covered the same genetic interval of 6.330-6.967cM on chromosome 12. The eQTL region for multiple expression traits co-located were further annotated, 90 transcription factor genes were screened, and 11 candidate genes were finally identified by expression profile and correlation analysis. Among them, four candidate genes of VIT_06s0009g01380, VIT_14s0006g02290, VIT_12s0028g01170 and VIT_15s0046g00290 were predicted to participate in the regulation of hormone signaling pathway, one candidate gene VIT_12s0028g01110 encodes a phytochrome interacting factor related to light response, and some other genes encode Myb, WRKY transcription factors or unknown functional proteins.【Conclusion】A total of 37 eQTLs linked to monoterpene synthesis gene expression traits were detected at two different development stages, which mainly located on chromosome 6, 12 and 14. Based on the results of gene annotation and expression profile analysis, 11 candidate genes including VIT_14s0006g02290 and VIT_06s0009g01380 were identified, and these candidate genes were highly correlated with the expression of multiple monoterpene genes.

Key words: grape, monoterpenes, key genes, eQTL

Fig. 1

Expression level of monoterpenes synthetic genes measured in F1 population A: Verasion stage; B : Mature stage; C : Expression ratio of mature stage to verasion stage; “*” represents Moldova; “▽” represents Ruiduxiangyu"

Table 1

Pearson correlation coefficients among monoterpene synthesis genes"

性状Traits eDXS1 eDXS3 eDXR eHDR eLiner eTerp eGermD
eDXS1 0.65** 0.89** 0.91** 0.86** 0.80** 0.71**
eDXS3 0.34** 0.53** 0.55** 0.54** 0.49** 0.40**
eDXR 0.90** 0.47** 0.85** 0.86** 0.85** 0.79**
eHDR 0.76** 0.41** 0.72** 0.80** 0.77** 0.75**
eLiner 0.85** 0.36** 0.81** 0.54** 0.91** 0.80**
eTerp 0.85** 0.35** 0.79** 0.55** 0.94** 0.85**
eGermD 0.77** 0.34** 0.74** 0.52** 0.80** 0.78**

Table 2

Summary of eQTLs for expression level of monoterpene synthesis genes on concensus genetic map"

时期
Stage
性状
Trait
eQTL 染色体
Chr
遗传区间
Genetic interval (cM)
连锁标记
Flanking markers
LOD 贡献率
PVE (%)
转色期
Verasion stage
eDXS1 qDXS1-v1 1 82.774-84.732 Marker 2482511-2542941 3.40 17.0
qDXS1-v6 6 142.161-144.209 Marker1008751-945452 3.34 15.7
qDXS1-v14 14 57.582-76.979 Marker3121221-2890139 3.25 15.9
eDXS3 qDXS3-v12 12 19.009-32.463 Marker2115844-2041250 3.31 16.4
qDXS3-v16 16 101.122-119.350 Marker3956150-4116611 3.89 23.5
qDXS3-v17 17 150.480-166.103 Marker99497-145961 4.32 23.1
eDXR qDXR-v17 17 159.789-171.002 Marker179340-108104 3.48 14.4
eHDR qHDR-v14-1 14 55.582-77.612 Marker3121221-3072285 3.47 16.7
qHDR-v14-2 14 118.734-126.198 Marker3063685-2947572 3.27 15.6
eLiner qLiner-v10 10 146.183-148.835 Marker352188-357432 3.06 14.8
eTerp qTerp-v10 10 141.902-158.171 Marker368243-378995 2.74 13.7
qTerp-v14 14 53.582-77.612 Marker2969612-3072285 2.58 12.2
eGermD qGermD-v10 10 145.183-148.835 Marker352188-357432 3.17 16.0
成熟期
Mature stage
eDXS1 qDXS1-m1 1 76.426-80.809 Marker2437047-2596447 3.66 17.7
qDXS1-m6-1 6 93.373-106.403 Marker924262-876360 3.55 17.2
qDXS1-m6-2 6 139.212-146.773 Marker930737-877032 3.82 18.3
qDXS1-m12 12 17.659-19.009 Marker2187251-2115844 3.54 17.1
eDXS3 qDXS3-m3 3 175.011-175.191 Marker831346-700177 3.07 13.9
eDXR qDXR-m1 1 78.832-81.788 Marker2560950-2467293 3.88 18.3
qDXR-m6-1 6 93.373-114.095 Marker924262-1008711 3.74 18.7
qDXR-m6-2 6 138.212-147.119 Marker990833-871012 3.68 17.7
qDXR-m12 12 16.435-19.009 Marker2088221-2115844 3.78 18.2
eHDR qHDR-m8 8 152.133-176.371 Marker1386586-1434785 3.4 15.1
qHDR-m13 13 25.115-36.319 Marker1631867-1651434 3.52 18.6
eLiner qLiner-m6 6 139.495-141.161 Marker930737-930878 3.53 17.1
qLiner-m12 12 6.330-6.967 Marker2067228-2134286 3.57 17.2
eTerp qTerp-m7 7 92.355 Marker2374114 3.52 17.5
qTerp-m19 19 158.927-163.008 Marker3714935-r3520942 3.79 18.2
eGermD qGermD-m6 6 139.212-143.161 Marker930737-930878 3.66 17.7
成熟期/转色期
Mature/Verasion
eDXS1 qDXS1-r7 7 92.355-100.371 Marker2345090-Marker2198875 3.72 15.5
qDXS1-r12-1 12 4.153-11.756 Marker2118601-2076541 3.86 15.7
qDXS1-r12-2 12 13.602-19.660 Marker2083394-2088370 3.66 14.4
eDXS3 qDXS3-r1 1 146.688-148.053 Marker2438419-2557770 3.85 15.3
qDXS3-r3 3 180.498-180.525 Marker751963-733688 3.65 13.6
eDXR qDXR-r7 7 92.355 Marker2345090-2374114 3.59 14.1
qDXR-r12-1 12 6.330-6.967 Marker2067228-2134286 3.54 13.2
qDXR-r12-2 12 13.602-18.491 Marker2083394-2178064 3.5 12.5
eHDR qHDR-r10 10 120.227-130.912 Marker237117-341831 3.8 18.8
qHDR-r12 12 9.490-10.127 Marker2051100-2158802 3.53 11.0
qHDR-r15 15 103.260-123.35 Marker1985545-1825916 3.75 14.9
eLiner qLiner-r12 12 5.419-10.756 Marker2067228-2076541 3.73 12.9
qLiner-r19 19 159.927-160.217 Marker3714935-3690871 3.58 12.2
eTerp qTerp-r7 7 92.355-100.371 Marker2345090-2198875 3.65 16.0
qTerp-r19 19 158.927-163.008 Marker3714935-3520942 3.86 14.8
eGermD qGermD-r3 3 178.095-180.525 Marker738834-733688 3.66 15.1
qGermD-r12 12 6.330-6.967 Marker2067228-2134286 3.55 14.6

Fig. 2

Expression analyses of candidate genes during fruit development of parents MA: Moldova sample at early development stage; MB: Moldova sample at verasion stage; MC: Moldova sample at ripening stage; RA: Ruiduxiangyu sample at early development stage; RB: Ruiduxiangyu sample at verasion stage; RC: Ruiduxiangyu sample at ripening stage"

Fig. 3

The top candidate genes correlated with monoterpene biosynthesis genes"

Table 3

The canidate genes for monoterpenes biosynthesis genes regulation"

染色体Chromosome 基因ID Gene ID 基因注释 Gene annotation
6 VIT_06s0009g00880 轴向调控蛋白YABBY2
PREDICTED: Putative axial regulator YABBY 2 [Vitis vinifera]
VIT_06s0004g05120 未知功能Myb类蛋白LOC100253567
PREDICTED: Uncharacterized protein LOC100253567 [Vitis vinifera] Myb-like
VIT_06s0009g01380 乙烯不敏感类蛋白3
PREDICTED: Protein ETHYLENE INSENSITIVE 3-like [Vitis vinifera]
14 VIT_14s0006g01280 未知功能蛋白LOC100265568
Uncharacterized protein LOC100265568 [Vitis vinifera]
VIT_14s0006g01620 转录抑制因子MYB4
PREDICTED: Transcription repressor MYB4 [Vitis vinifera]
VIT_14s0006g01340 未命名Myb类蛋白
Unnamed protein product [Vitis vinifera] Myb-like
VIT_14s0006g02290 类乙烯响应转录因子ERF034
PREDICTED: Ethylene-responsive transcription factor ERF034-like [Vitis vinifera]
10 VIT_10s0116g01200 类WRKY 6转录因子
PREDICTED: WRKY transcription factor 6-like [Vitis vinifera]
12 VIT_12s0028g01110 类光敏色素作用因子PIF5
PREDICTED: Transcription factor PIF5-like [Vitis vinifera]
VIT_12s0028g01170 类生长素响应因子6
PREDICTED: Auxin response factor 6-like [Vitis vinifera]
15 VIT_15s0046g00290 类生长素响应因子18
PREDICTED: Auxin response factor 18-like [Vitis vinifera]
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