水稻籽粒维生素E QTL挖掘及候选基因分析

doi:10.11983/CBB21216

植物学报 ›› 2022, Vol. 57 ›› Issue (2): 157-170.DOI: 10.11983/CBB21216

水稻籽粒维生素E QTL挖掘及候选基因分析

叶涵斐¹, 殷文晶¹, 管易安¹, 杨凯如¹, 陈芊羽¹, 俞淑颖¹, 朱旭东², 辛德东¹, 章薇¹^,^*(), 王跃星²^,^*(), 饶玉春¹()

¹浙江师范大学化学与生命科学学院, 金华 321004
²中国水稻研究所水稻生物学国家重点实验室, 杭州 310006

收稿日期:2021-12-12 接受日期:2022-01-20 出版日期:2022-03-01 发布日期:2022-03-24
通讯作者: 章薇,王跃星,饶玉春
作者简介:ryc@zjnu.cn
wangyuexing@caas.cn;
*E-mail: wzhang@zjnu.edu.cn;
基金资助:
国家科技重大专项子课题(2016ZX08009003-003-008);国家自然科学基金(U20A2030);国家自然科学基金(31971921);浙江省自然科学基金(LY18C020003);中国水稻生物学国家重点实验室开放项目(20200102)

QTL Mapping and Candidate Gene Analysis of Vitamin E in Rice Grain

Hanfei Ye¹, Wenjing Yin¹, Yian Guan¹, Kairu Yang¹, Qianyu Chen¹, Shuying Yu¹, Xudong Zhu², Dedong Xin¹, Wei Zhang¹^,^*(), Yuexing Wang²^,^*(), Yuchun Rao¹()

¹College of Chemistry and Life Sciences, Zhejiang Normal University, Jinhua 321004, China
²State Key Laboratory of Rice Biology, China National Rice Research Institute, Hangzhou 310006, China

Received:2021-12-12 Accepted:2022-01-20 Online:2022-03-01 Published:2022-03-24
Contact: Wei Zhang,Yuexing Wang,Yuchun Rao

摘要/Abstract

摘要：

维生素E (V_E)是稻米营养品质的重要指标。水稻(Oryza sativa)是我国种植最广泛的粮食作物, 增加其籽粒的V_E含量是实现国民营养强化的一条便捷有效的途径。该研究以籼稻华占(HZ)为父本, 粳稻热研2号(Nekken2)为母本, 构建120个重组自交系(RILs)群体。采用高效液相色谱法(HPLC)对RILs群体的V_E各组分含量进行测定, 并基于构建的高密度分子遗传图谱进行QTL定位, 谱系分析后挖掘到122个V_E总量和分量相关QTLs, 分布在12条染色体上。其中qT3α/to2-1的LOD值高达10.32, qT3α2-1的LOD值高达9.91, 另有多个控制各异构体含量的主效QTLs, 且区间内包含OsGGR1、OsGGR2、OsTC及OsγTMT等V_E生物合成基因。通过qRT-PCR检测亲本中V_E合成基因的表达量, 发现在华占中候选基因的表达量均极显著高于热研2号, 推测这些基因的高表达是华占生育酚及生育三烯酚含量高于热研2号的原因。研究挖掘到的QTL数目较多, LOD值也较大, 为进一步筛选和培育高V_E含量的水稻新品种奠定了分子基础, 同时为揭示水稻V_E生物合成的分子调控机制提供了重要基因资源。

关键词: 水稻, 维生素E, QTL定位, 候选基因, 稻米质量

Abstract:

Vitamin E (V_E) is an important index of rice nutritional quality. Rice (Oryza sativa) is the most widely planted crop in China. To increase rice V_E content is a convenient and effective way to improve its nutrient composition. In this study, 120 recombinant inbred line (RIL) populations were constructed with indica rice HZ as male parent and japonica rice Nekken2 as female parent. The content of vitamin E isomer in the population was determined by high performance liquid chromatography (HPLC). Quantitative trait loci (QTL) mapping was carried out based on the constructed high-density molecular genetic map. After pedigree analysis, 122 V_E related QTLs were identified, which were distributed on 12 chromosomes. Some loci have high LOD scores, such as qT3α/to2-1 with 10.32 LOD score, qT3α2-1 of 9.91 LOD score. There are multiple major QTLs associated with the content of different conformations, and some V_E biosynthesis genes are within the intervals, e.g., OsGGR1, OsGGR2, OsTC and OsγTMT. The expression of these genes were analyzed by qRT-PCR. The results showed that their expression in HZ was significantly higher than that in Nekken2. It is speculated that the high expression of these genes is the reason of why tocopherol and tocotrienol in HZ are higher than in Nekken2. The number of QTLs and the scores of LOD are large, which provides a molecular basis for further screening and cultivating rice varieties with high V_E content also conductive to clarify the molecular regulation mechanism of rice V_E biosynthesis through QTLs.

Key words: rice, vitamin E, QTL mapping, candidate genes, rice quality

叶涵斐, 殷文晶, 管易安, 杨凯如, 陈芊羽, 俞淑颖, 朱旭东, 辛德东, 章薇, 王跃星, 饶玉春. 水稻籽粒维生素E QTL挖掘及候选基因分析. 植物学报, 2022, 57(2): 157-170.

Hanfei Ye, Wenjing Yin, Yian Guan, Kairu Yang, Qianyu Chen, Shuying Yu, Xudong Zhu, Dedong Xin, Wei Zhang, Yuexing Wang, Yuchun Rao. QTL Mapping and Candidate Gene Analysis of Vitamin E in Rice Grain. Chinese Bulletin of Botany, 2022, 57(2): 157-170.

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链接本文: https://www.chinbullbotany.com/CN/10.11983/CBB21216

https://www.chinbullbotany.com/CN/Y2022/V57/I2/157

图/表 9

参考文献 30

[1]	江良荣, 李义珍, 王侯聪, 黄育民 (2004). 稻米营养品质的研究现状及分子改良途径. 分子植物育种 1, 112-120.
[2]	李春梅 (2019). 两个水稻黄绿叶突变基因的图位克隆及功能分析. 博士论文. 成都: 四川农业大学. pp. 24-84.
[3]	潘晨阳, 叶涵斐, 周维永, 王盛, 李梦佳, 路梅, 李三峰, 朱旭东, 王跃星, 饶玉春, 戴高兴 (2021a). 水稻籽粒镉积累QTL定位及候选基因分析. 植物学报 56, 25-32.
[4]	潘晨阳, 张月, 林晗, 陈芊羽, 杨凯如, 姜嘉骥, 李梦佳, 芦涛, 王珂欣, 路梅, 王盛, 叶涵斐, 饶玉春, 胡海涛 (2021b). 水稻叶片水势的QTL定位与候选基因分析. 植物学报 56, 275-283.
[5]	潘卫东, 李晓峰, 陈双燕, 刘公社 (2006). 植物维生素E合成相关酶基因的克隆及其在体内功能研究进展. 植物学通报 23, 68-77.
[6]	饶玉春, 戴志俊, 朱怡彤, 姜嘉骥, 马若盈, 王予烨, 王跃星 (2020a). 水稻抗干旱胁迫的研究进展. 浙江师范大学学报(自然科学版) 43, 417-429.
[7]	饶玉春, 林晗, 肖飒清, 吴仪, 张月, 王盛, 胡佳青, 薛大伟 (2020b). 水稻耐淹性的QTL定位与候选基因分析. 浙江师范大学学报(自然科学版) 43, 312-319.
[8]	王迪 (2017). 水稻生育酚合成基因SGD1的图位克隆与功能分析. 博士论文. 南京: 南京农业大学. pp. 35-58.
[9]	尹雪斌, 赵其国, 印遇龙, 陈清清, 王张民, 宋佳平, 王晓丽, 林锦钰, 王莉莉, 刘晓航, 张泽洲, 张宁 (2022). 功能农业关键科学问题研究进展与“十四五”发展建议. 科学通报 67, 497-510.
[10]	章薇 (2017). 拟南芥叶绿素代谢与维生素E合成代谢的关系研究. 博士论文. 武汉: 华中农业大学. pp. 1-23.
[11]	章秀福, 王丹英, 方福平, 曾衍坤, 廖西元 (2005). 中国粮食安全和水稻生产. 农业现代化研究 26, 85-88.
[12]	周纯, 焦然, 胡萍, 林晗, 胡娟, 徐娜, 吴先美, 饶玉春, 王跃星 (2019). 水稻早衰突变体LS-es1的基因定位及候选基因分析. 植物学报 54, 606-619. DOI
[13]	周浩, 夏朵, 赵达, 李艳华, 李平波, 吴边, 高冠军, 张庆路, 何予卿 (2020). 稻米食味品质的遗传研究进展. 见:第十九届中国作物学会学术年会论文摘要集. 武汉: 中国作物学会. pp. 56.
[14]	Chaudhary N, Khurana P (2009). Vitamin E biosynthesis genes in rice: molecular characterization, expression profiling and comparative phylogenetic analysis. Plant Sci 177, 479-491. DOI URL
[15]	Hosomi A, Arita M, Sato Y, Kiyose C, Ueda T, Igarashi O, Arai H, Inoue K (1997). Affinity for α-tocopherol transfer protein as a determinant of the biological activities of vitamin E analogs. FEBS Lett 409, 105-108. PMID
[16]	Hwang JE, Ahn JW, Kwon SJ, Kim JB, Kim SH, Kang SY, Kim DS (2014). Selection and molecular characterization of a high tocopherol accumulation rice mutant line induced by gamma irradiation. Mol Biol Rep 41, 7671-7681. DOI PMID
[17]	Kimura E, Abe T, Murata K, Kimura T, Otoki Y, Yoshida T, Miyazawa T, Nakagawa K (2018). Identification of OsGGR2, a second geranylgeranyl reductase involved in α-tocopherol synthesis in rice. Sci Rep 8, 1870. DOI URL
[18]	Kruk J, Strzałka K (1995). Occurrence and function of α- tocopherol quinone in plants. J Plant Physiol 145, 405-409. DOI URL
[19]	Li Y, Wang ZN, Sun XF, Tang KX (2008). Current opinions on the functions of tocopherol based on the genetic manipulation of tocopherol biosynthesis in plants. J Integr Plant Biol 50, 1057-1069. DOI URL
[20]	Luo W, Huan Q, Xu YY, Qian WF, Chong K, Zhang JY (2021). Integrated global analysis reveals a vitamin E- vitamin K1 sub-network, downstream of COLD1, underlying rice chilling tolerance divergence. Cell Rep 36(3), 58- 76.
[21]	McCouch SR, Cho YC, Yano M, Paul E, Blinstrub M, Morishima H, Kinoshita T (1997). Report on QTL nomenclature. Rice Genet Newsl 14, 11-13.
[22]	Sekine D, Murata K, Kimura T, Nakagawa K, Miyazawa T (2016). Identification of a genetic factor required for high γ-isoform concentration in rice vitamin E. J Agric Food Chem 64, 9368-9373. DOI URL
[23]	Sookwong P, Murata K, Nakagawa K, Shibata A, Kimura T, Yamaguchi M, Kojima Y, Miyazawa T (2009). Cross- fertilization for enhancing tocotrienol biosynthesis in rice plants and QTL analysis of their F₂ progenies. J Agric Food Chem 57, 4620-4625. DOI URL
[24]	Tucker JM, Townsend DM (2005). Alpha-tocopherol: roles in prevention and therapy of human disease. Biomed Pharmacother 59, 380-387. DOI PMID
[25]	Wang X, Song YE, Li JY (2013). High expression of tocochromanol biosynthesis genes increases the vitamin E level in a new line of giant embryo rice. J Agric Food Chem 61, 5860-5869. DOI URL
[26]	Wang XQ, Yoon MY, He Q, Kim TS, Tong W, Choi BW, Lee YS, Park YJ (2015). Natural variations in OsγTMT contribute to diversity of the α-tocopherol content in rice. Mol Genet Genomics 290, 2121-2135. DOI URL
[27]	Wang YX, Shang LG, Yu H, Zeng LJ, Hu J, Ni S, Rao YC, Li SF, Chu JF, Meng XB, Wang L, Hu P, Yan JJ, Kang SJ, Qu MH, Lin H, Wang T, Wang Q, Hu XM, Chen HQ, Wang B, Gao ZY, Guo LB, Zeng DL, Zhu XD, Xiong GS, Li JY, Qian Q (2020). A strigolactone biosynthesis gene contributed to the green revolution in rice. Mol Plant 13, 923-932. DOI URL
[28]	Yang WY, Cahoon RE, Hunter SC, Zhang CY, Han JX, Borgschulte T, Cahoon EB (2011). Vitamin E biosynthesis: functional characterization of the monocot homogenti- sate geranylgeranyl transferase. Plant J 65, 206-217. DOI URL
[29]	Zhang CY, Cahoon RE, Hunter SC, Chen M, Han JX, Cahoon EB (2013). Genetic and biochemical basis for alternative routes of tocotrienol biosynthesis for enhanced vitamin E antioxidant production. Plant J 73, 628-639. DOI URL
[30]	Zhang XN, Li PB, Yun P, Wang LQ, Gao GJ, Zhang QL, Luo LJ, Zhang CY, He YQ (2019). Genetic dissection of vitamin E content in rice (Oryza sativa) grains using recombinant inbred lines derived from a cross between ‘Zhenshan97B’ and ‘Nanyangzhan’. Plant Breed 138, 820- 829. DOI URL

Primer name	Sequence (5′-3′)	Tm (°C)	Length (bp)
LOC_Os01g16020-F-qrt	CCATGGCCTACTACGACGAC	60.05	150
LOC_Os01g16020-R-qrt	CCGACTGGAGCCTCTTGATC	59.95	150
LOC_Os02g07160-F-qrt	AGGAGCAGATCAACGAGTGC	60.11	172
LOC_Os02g07160-R-qrt	TTCTGGTACTCCTGCCCACT	60.28	172
LOC_Os02g17650-F-qrt	TCGACGCAACAAGCAACATG	59.95	161
LOC_Os02g17650-R-qrt	ACCAGGGGGCTTGAGAAATG	59.75	161
LOC_Os02g47310-F-qrt	CGGCAGAGCAAGGGTTATCA	59.96	223
LOC_Os02g47310-R-qrt	GACTCTTCGGATGGCTCGAG	60.39	223
LOC_Os02g51080-F-qrt	GATGATTTCGCCGTCCAACG	60.05	200
LOC_Os02g51080-R-qrt	TGTAGTGCACCACGTACGAC	60.03	200
LOC_Os06g43880-F-qrt	CCGTGCAAGTCCAGGAAGAT	59.96	196
LOC_Os06g43880-R-qrt	TCACCAGCAATGGCATAGCA	60.00	196
LOC_Os06g44840-F-qrt	CCTTGGATGGGCTGTTGGAT	59.99	223
LOC_Os06g44840-R-qrt	TGGCCTGGTAAAGACTGCTG	60.08	223
LOC_Os07g08200-F-qrt	ACCGAGGACATGAGGGATGA	59.98	179
LOC_Os07g08200-R-qrt	TTCTGCCTGGCCTTCTCAAG	60.07	179
LOC_Os12g42090-F-qrt	CTCAAGGGCGTCACCATCAT	60.12	224
LOC_Os12g42090-R-qrt	AGCATCCACATGTCAGCGAA	59.98	224

Primer name	Sequence (5′-3′)	Tm (°C)	Length (bp)
LOC_Os01g16020-F-qrt	CCATGGCCTACTACGACGAC	60.05	150
LOC_Os01g16020-R-qrt	CCGACTGGAGCCTCTTGATC	59.95	150
LOC_Os02g07160-F-qrt	AGGAGCAGATCAACGAGTGC	60.11	172
LOC_Os02g07160-R-qrt	TTCTGGTACTCCTGCCCACT	60.28	172
LOC_Os02g17650-F-qrt	TCGACGCAACAAGCAACATG	59.95	161
LOC_Os02g17650-R-qrt	ACCAGGGGGCTTGAGAAATG	59.75	161
LOC_Os02g47310-F-qrt	CGGCAGAGCAAGGGTTATCA	59.96	223
LOC_Os02g47310-R-qrt	GACTCTTCGGATGGCTCGAG	60.39	223
LOC_Os02g51080-F-qrt	GATGATTTCGCCGTCCAACG	60.05	200
LOC_Os02g51080-R-qrt	TGTAGTGCACCACGTACGAC	60.03	200
LOC_Os06g43880-F-qrt	CCGTGCAAGTCCAGGAAGAT	59.96	196
LOC_Os06g43880-R-qrt	TCACCAGCAATGGCATAGCA	60.00	196
LOC_Os06g44840-F-qrt	CCTTGGATGGGCTGTTGGAT	59.99	223
LOC_Os06g44840-R-qrt	TGGCCTGGTAAAGACTGCTG	60.08	223
LOC_Os07g08200-F-qrt	ACCGAGGACATGAGGGATGA	59.98	179
LOC_Os07g08200-R-qrt	TTCTGCCTGGCCTTCTCAAG	60.07	179
LOC_Os12g42090-F-qrt	CTCAAGGGCGTCACCATCAT	60.12	224
LOC_Os12g42090-R-qrt	AGCATCCACATGTCAGCGAA	59.98	224

Trait	RILs			Parents
Trait	Means±SD	Range	Skewness	HZ	Nekken2
Total-V_E (μg∙g^-1)	33.9489±8.24636	11.64-62.93	0.7220	39.0169	25.1275
Total-toco (μg∙g^-1)	13.9571±6.54920	4.19-43.16	1.7550	15.6586	7.3524
Total-t3 (μg∙g^-1)	19.9918±4.44004	7.45-30.41	0.0940	23.3583	17.7751
α-toco (μg∙g^-1)	11.0692±6.46111	2.34-41.33	1.9120	11.8855	4.7839
γ-toco (μg∙g^-1)	2.7072±1.11795	0.74-6.73	0.3200	3.6121	2.3390
δ-toco (μg∙g^-1)	0.1807±0.12540	0.03-0.92	2.1220	0.1610	0.2295
α-t3 (μg∙g^-1)	2.3057±1.33266	0.60-6.10	1.1710	1.4780	5.1269
γ-t3 (μg∙g^-1)	16.0730±4.3067	5.76-26.14	0.1970	20.4400	11.2289
δ-t3 (μg∙g^-1)	1.6131±0.63116	0.56-4.46	1.4040	1.4404	1.4193
α-toco/total-toco	0.7618±0.12004	0.36-0.96	0.7610	0.7596	0.6344
α-t3/total-t3	0.1203±0.07395	0.04-0.34	1.0980	0.0634	0.2881

Trait	RILs			Parents
Trait	Means±SD	Range	Skewness	HZ	Nekken2
Total-V_E (μg∙g^-1)	33.9489±8.24636	11.64-62.93	0.7220	39.0169	25.1275
Total-toco (μg∙g^-1)	13.9571±6.54920	4.19-43.16	1.7550	15.6586	7.3524
Total-t3 (μg∙g^-1)	19.9918±4.44004	7.45-30.41	0.0940	23.3583	17.7751
α-toco (μg∙g^-1)	11.0692±6.46111	2.34-41.33	1.9120	11.8855	4.7839
γ-toco (μg∙g^-1)	2.7072±1.11795	0.74-6.73	0.3200	3.6121	2.3390
δ-toco (μg∙g^-1)	0.1807±0.12540	0.03-0.92	2.1220	0.1610	0.2295
α-t3 (μg∙g^-1)	2.3057±1.33266	0.60-6.10	1.1710	1.4780	5.1269
γ-t3 (μg∙g^-1)	16.0730±4.3067	5.76-26.14	0.1970	20.4400	11.2289
δ-t3 (μg∙g^-1)	1.6131±0.63116	0.56-4.46	1.4040	1.4404	1.4193
α-toco/total-toco	0.7618±0.12004	0.36-0.96	0.7610	0.7596	0.6344
α-t3/total-t3	0.1203±0.07395	0.04-0.34	1.0980	0.0634	0.2881

Trait		QTL	Chromosome	Physical distance (bp)	Position of support (cM)	LOD
Total		qVE2-1	02	3467582-15790369	14.86-67.69	2.82
		qVE2-2	02	30526267-30670565	130.86-131.48	3.11
		qVE5-1	05	27292002-27936693	116.99-119.76	3.05
		qVE7-1	07	25017683-25489862	107.24-109.27	3.50
		qVE8-1	08	10042712-11311929	43.05-48.49	3.69
		qVE8-2	08	14098425-15488141	60.44-66.39	4.00
		qVE8-3	08	19014129-21020793	81.51-90.11	4.85
		qVE10-1	10	10714090-13003806	45.93-55.74	3.70
Total-t3		qT3to1-1	01	7035569-8460131	30.16-36.27	3.51
		qT3to3-1	03	11975352-12205246	51.34-52.32	2.93
		qT3to5-1	05	27199002-27292002	116.59-116.99	2.88
		qT3to10-1	10	13003806-15914330	55.74-68.22	2.96
Total-toco		qTto2-1	02	7154574-16772608	30.67-71.90	3.63
		qTto8-1	08	10042712-15565426	43.05-66.72	2.68
		qTto8-2	08	19301150-20349908	82.74-87.23	3.65
		qTto10-1	10	57733-5856857	0.25-25.11	3.46
		qTto10-2	10	10573976-13003806	45.33-55.74	7.39
		qTto11-1	11	9677541-9808325	41.48-42.05	2.65
α-t3		qT3α1-1	01	8235815-8460131	35.30-36.27	3.57
		qT3α2-1	02	20415024-32383695	87.51-138.82	9.91
		qT3α2-2	02	32754542-35824426	140.41-153.57	3.64
		qT3α5	05	4080644-6619616	17.49-28.38	3.58
		qT3α7-1	07	42757-572873	0.18-2.46	3.27
		qT3α8-1	08	4857563-6004458	20.82-25.74	3.43
		qT3α8-2	08	8917564-15791348	38.23-67.69	4.66
		qT3α8-3	08	24746469-25177340	106.08-107.93	2.50
		qT3α8-4	08	25195867-25340928	108.01-108.63	2.55
		qT3α9-1	09	13620974-14832840	58.39-63.58	3.10
		qT3α9-2	09	16630835-22938953	71.29-98.33	5.28
α-t3/total-t3		qT3α/to1-1	01	8235815-9438021	35.30-40.46	3.66
		qT3α/to2-1	02	20415024-35824426	87.51-153.57	10.32
		qT3α/to3-1	03	5183108-6234241	22.22-26.72	3.25
		qT3α/to3-2	03	6743718-6982005	28.91-29.93	3.31
		qT3α/to5-1	05	4080644-6619616	17.49-28.38	3.31
		qT3α/to6-1	06	20854685-21217545	89.40-90.95	2.81
		qT3α/to6-2	06	21507916-21913927	92.20-93.94	2.66
		qT3α/to6-3	06	22256655-24198880	95.41-103.73	3.57
		qT3α/to7-1	07	42757-875466	0.18-3.75	2.88
		qT3α/to8-1	08	5469252-5970122	23.45-25.59	3.53
		qT3α/to8-2	08	13109769-13402076	56.20-57.45	3.79
		qT3α/to8-3	08	24432953-25340928	104.74-108.63	2.96
		qT3α/to9-1	09	13572882-14761639	58.18-63.28	3.42
		qT3α/to9-2	09	16699350-17528726	71.59-75.14	2.78
		qT3α/to9-3	09	17822997-22938953	76.40-98.33	6.47
		qT3α/to10-1	10	12856184-13003806	55.11-55.74	3.65
		qT3α/to10-2	10	19066686-19211967	81.73-82.36	2.57
α-toco		qTα2-1	02	10650561-10928729	45.66-46.85	3.41
		qTα2-2	02	11181757-11319097	47.932-48.52	2.54
		qTα8-1	08	10119315-15791348	43.38-67.69	2.77
		qTα8-2	08	19301150-20108258	82.74-86.20	3.10
		qTα10-1	10	1624313-5776626	6.96-24.76	3.17
		qTα10-2	10	10635436-11008219	45.59-47.19	3.90
		qTα11-1	11	9677541-9808325	41.48-42.05	2.96
		qTα11-2	11	21463452-22167073	92.01-95.02	3.06
α-toco/total-toco		qTα/to1-1	01	1663060-2070966	7.13-8.88	2.61
		qTα/to2-1	02	10650561-10928729	45.66-46.85	3.83
		qTα/to2-2	02	27158525-28132392	116.42-120.60	2.83
		qTα/to2-3	02	28499903-30078981	122.17-128.94	3.76
		qTα/to2-4	02	35381094-35525300	151.67-152.29	3.24
		qTα/to3-1	03	786808-1156051	3.37-4.96	4.36
		qTα/to3-2	03	1531836-1753422	6.57-7.52	2.81
		qTα/to4-1	04	4147493-4739169	17.78-20.32	4.23
		qTα/to4-2	04	6047670-9068118	25.92-38.87	4.23
		qTα/to4-3	04	13341761-14630459	57.19-62.72	4.18
		qTα/to5-1	05	6526040-6673100	27.98-28.61	2.80
		qTα/to5-2	05	7886106-8030564	33.81-34.42	4.14
		qTα/to5-3	05	19534829-19659074	83.74-84.27	2.67
		qTα/to6-1	06	3108218-3378992	13.32-14.48	3.02
		qTα/to6-2	06	16365713-16951387	70.16-72.67	2.53
		qTα/to6-3	06	24956043-25093708	106.98-107.57	2.79
		qTα/to6-4	06	26359832-27156405	113.00-116.41	3.18
		qTα/to7-1	07	13014544-13768860	55.79-59.02	3.42
		qTα/to7-2	07	17441086-17530313	74.77-75.15	2.70
		qTα/to8-1	08	712661-860780	3.05-3.69	4.14
		qTα/to8-2	08	1152527-1753671	4.94-7.52	4.58
		qTα/to8-3	08	5341420-5646427	22.90-24.20	3.94
	qTα/to9-1		09	11654883-11744700	49.96-50.35	2.52
	qTα/to11-1		11	8467466-8766502	36.30-37.58	3.04
	qTα/to11-2		11	21077880-22646003	90.36-97.08	4.92
	qTα/to12-1		12	260226-401477	1.12-1.72	2.50
	qTα/to12-2		12	6824561-7508660	29.25-32.19	3.34
	qTα/to12-3		12	17175063-18091161	73.62-77.55	3.32
γ-t3	qT3γ1-1		01	7128319-9521270	30.56-40.82	3.31
	qT3γ2-1		02	29846956-31331712	127.95-134.31	3.26
	qT3γ2-2		02	35381094-35675126	151.67-152.93	3.15
	qT3γ6-1		06	27333693-28446541	117.17-121.94	3.54
	qT3γ8-1		08	712661-860780	3.05-3.69	3.78
γ-toco	qTγ1-1		01	1663060-1775390	7.13-7.61	2.56
	qTγ2-1		02	24818487-35305635	106.39-151.35	6.20
	qTγ3-1		03	5859763-6008076	25.12-25.75	2.50
	qTγ4-1		04	5922401-6230638	25.39-26.71	2.92
	qTγ4-2		04	6451666-6599549	27.66-28.29	2.54
	qTγ5-1		05	6983157-10879499	29.93-46.64	2.91
	qTγ5-2		05	27199002-27292002	116.59-116.99	2.73
	qTγ6-1		06	6452921-6720585	27.66-28.81	3.22
	qTγ7-1		07	572873-936652	2.46-4.02	2.64
	qTγ8-1		08	712661-860780	3.05-3.69	2.72
	qTγ9-1		09	21030827-21162733	90.15-90.72	2.51
δ-t3	qT3δ1-1		01	19435110-19915117	83.31-85.37	3.36
	qT3δ1-2		01	25117984-25257953	107.67-108.27	5.75
	qT3δ2-1		02	7215671-8736288	30.93-37.45	2.66
	qT3δ2-2		02	30228480-32985884	129.58-141.40	2.66
	qT3δ3-1		03	29597075-29806859	126.87-127.77	2.86
	qT3δ4-1		04	17170511-23608260	73.61-101.20	3.31
	qT3δ4-2		04	26410305-31423289	113.21-134.70	4.71
	qT3δ8-1		08	20195421-20349908	86.57-87.23	2.97
	qT3δ10-1		10	57733-13172007	0.25-56.46	3.88
	qT3δ10-2		10	19963553-20188240	85.58-86.54	4.49
	qT3δ12-1		12	4509538-4663215	19.33-19.99	3.16
	qT3δ12-2		12	19235536-26139939	82.46-112.05	4.90
δ-toco	qTδ1-1		01	38537755-39791276	165.20-170.57	4.28
	qTδ2-1		02	7215671-7350401	30.93-31.51	2.89
	qTδ2-2		02	31043939-32985884	133.08-141.40	2.57
	qTδ3-1		03	5785084-6008076	24.80-25.75	3.49
	qTδ5-1		05	853216-1082203	3.66-4.64	3.23
	qTδ5-2		05	6983157-7138974	29.93-30.60	6.17
	qTδ5-3		05	13569180-13776389	58.17-59.06	2.70
	qTδ6-1		06	6452921-6720585	27.67-28.81	3.80
	qTδ7-1		07	7351588-15250540	31.51-65.37	2.73
	qTδ8-1		08	1152527-5163244	4.94-22.13	3.51
	qTδ9-1		09	10102157-12363787	43.31-53.00	3.73
	qTδ12-1		12	9212254-15247966	39.49-65.36	7.16

水稻籽粒维生素E QTL挖掘及候选基因分析

QTL Mapping and Candidate Gene Analysis of Vitamin E in Rice Grain

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Chromosome	QTL locus	Gene ID	Gene name	Functional annotation
1	qT3α/to1, qT3γ1-1	LOC_Os01g16020	OsGGR2	FAD binding domain containing protein, expressed
2	qVE2-1	LOC_Os02g07160	OsHPPD	Glyoxalase family protein, putative, expressed
2	qVE2-1, qTto2-1	LOC_Os02g17650	OsTC	Tocopherol cyclase, chloroplast precursor, pu- tative, expressed
2	qT3α2-1, qT3α/to2-1, qTγ2-1, qTα/to2-3	LOC_Os02g47310	OsγTMT	Cyclopropane-fatty-acyl-phospholipid synthase, putative, expressed
2	qT3α2-1, qT3α/to2-1, qTγ2-1, qTδ2-2, qT3δ2-2, qT3γ2-1	LOC_Os02g51080	OsGGR1	Encodes geranylgeranyl reductase (Li, 2019, in Chinese)
6	qTα/to6-4	LOC_Os06g43880	OsHGGT	Prenyltransferase, putative, expressed
6	qTα/to6-4	LOC_Os06g44840	OsHPT	Encodes homogentisate prenyltransferase (Wang, 2017, in Chinese)
12	qT3δ12-2	LOC_Os12g42090	OsMPBQ/MT2	Methyltransferase domain containing protein, putative, expressed

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