玉米pTAC2影响苗期叶片叶绿素合成的转录组分析

doi:10.3864/j.issn.0578-1752.2020.05.002

Abstract

Abstract:

【Objective】Chlorophyll is the most important photosynthetic pigment involved in plant photosynthesis. The development of chloroplasts and the synthesis of chlorophyll depend on the bi-directional signaling between the plastid and the nuclear genome. Plastid transcriptionally active chromosome proteins (pTACs) are essential for maintaining the transcriptional activity of PEP (plastid-encoded RNA polymerase) genes, whereas the function of pTACs in maize is still poorly understood. 【Method】The CRISPR/Cas9-ZmpTAC2 maize transgenic editing homozygous mutants were supplied. Transmission electron microscope were used to observe the ultrastructure of the chloroplast, with spectrophotometer to measure the chlorophyll content in maize leaves, respectively. Transcriptome sequencing of the negative material (CK) and CRISPR/Cas9-ZmpTAC2 transgenic homozygous (zmptac2) seedling leaves was performed. Bioinformatics toolbox was performed to identify the differently expressed genes between CK and zmptac2 leaves. Relative quantification of expression of selected differently expressed genes were verified using qRT-PCR. The interacting proteins of ZmpTAC2 were screened by yeast two-hybrid system. 【Result】 A total of 15 T₀transgenic seedlings were obtained, including 7 with green leaves and 8 with white ones. Among the seven green-leaf seedlings, 3 were transgenic negative together with 4 transgenic positive including 2 seedlings were edited. On the other hand, all 8 white-leaf seedlings were transgenic positive with homozygous editing. Compared with CK, zmptac2 chloroplast was abnormal with significantly reduced chlorophyll content. The results of RNA-seq showed that 1 367 genes were differentially expressed between CK and zmptac2, of which 618 genes were up-regulated (zmptac2/CK) and 749 genes down-regulated (zmptac2/CK). GO enrichment analysis revealed that the down-regulated genes were significantly enriched in chloroplasts and plastids. KEGG analysis indicated that down-regulated genes were abundant in the pathways of phenylalanine, tyrosine, and iso-quinoline alkaloid metabolism. Relative expression values of 15 selected differently expressed genes showed similar expression patterns and are consistent with sequencing data, which indicated that the sequencing results were reliable. The expression of PEP (plastid-encoded RNA polymerase) dependent genes in zmptac2 was significantly decreased, while the expression of NEP (nuclear gene-encoded RNA polymerase) genes increased. ZmpTAC3 was identified to be interacted with ZmpTAC2 by cDNA screening and verified by interaction assay. 【Conclusion】 This study first reported that mutations in the ZmpTAC2 gene cause early chloroplast biosynthesis to be hindered, indicating that this gene is involved in chloroplast development and chlorophyll synthesis, which is achieved by ZmpTAC2 regulated PEP-related gene expression.

Key words: maize (Zea mays L.), chlorophyll content, ZmpTAC2, RNA-seq, gene expression regulation

ZHANG Wen,MENG ShuJun,WANG QiYue,WAN Jiong,MA ShuanHong,LIN Yuan,DING Dong,TANG JiHua. Transcriptome Analysis of Maize pTAC2 Effects on Chlorophyll Synthesis in Seedling Leaves[J].Scientia Agricultura Sinica, 2020, 53(5): 874-889.

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Table 4

Yeast two-hybrid system sieve library obtains ZmpTAC2 inter-made proteins"

编号 No.	基因编号 Gene ID_v4	亚细胞定位 Subcellular localization	基因描述 Gene description
1	Zm00001d022242	细胞膜Cell membrane	胞间连丝胼胝质结合蛋白5 PLASMODESMATA CALLOSE-BINDING PROTEIN 5
2	Zm00001d010039	细胞壁Cell wall	含纤维素酶的蛋白质Cellulase containing protein
3	Zm00001d023305	叶绿体Chloroplast	Protein LURP-one-related 2
4	Zm00001d049153	叶绿体Chloroplast	催化/水解酶Catalytic/ hydrolase
5	Zm00001d041550	叶绿体Chloroplast	热休克蛋白3 Heat shock 70 kDa protein 3
6	Zm00001d035270	叶绿体Chloroplast	SAM结构域蛋白Sterile alpha motif (SAM) domain-containing protein
7	Zm00001d028221	叶绿体Chloroplast	ATP合酶4 ATP synthase4
8	Zm00001d046073	叶绿体Chloroplast	Protein trichome birefringence-like 26
9	Zm00001d032373	叶绿体Chloroplast	叶绿体RNA剪接体1 Chloroplast RNA splicing1
10	Zm00001d007417	叶绿体Chloroplast	ATP依赖性DNA解旋酶ATP-dependent DNA helicase chloroplastic
11	Zm00001d024248	叶绿体Chloroplast	PPR蛋白Pentatricopeptide repeat*-59040
12	Zm00001d016660	细胞质Cytoplasm	肽基脯氨酰异构酶1 Peptidyl-prolyl isomerase1
13	Zm00001d033623	细胞质Cytoplasm	脂氧合酶 Lipoxygenase
14	Zm00001d018441	细胞质,细胞核 Cytoplasm. Nucleus	核苷三磷酸水解酶超家族蛋白 P-loop containing nucleoside triphosphate hydrolases superfamily protein
15	Zm00001d040681	细胞质,细胞核 Cytoplasm. Nucleus	alpha/beta水解超家族蛋白 Alpha/beta-Hydrolases superfamily protein
16	Zm00001d038857	线粒体Mitochondrion	伴侣蛋白CPN60 Chaperonin CPN60-like 2 mitochondrial
17	Zm00001d035201	线粒体Mitochondrion	60S核糖体蛋白P060S acidic ribosomal protein P0
18	Zm00001d053434	细胞核Nucleus	RING锌指结构域超家族蛋白 Putative RING zinc finger domain superfamily protein
19	Zm00001d032422	细胞核Nucleus	休眠相关蛋白1 Dormancy-associated protein 1
20	Zm00001d044246	细胞核Nucleus	组蛋白H2A Histone H2A
21	Zm00001d044429	细胞核Nucleus	硫氧还蛋白超家族蛋白 Thioredoxin superfamily protein
22	Zm00001d021954	细胞核Nucleus	MO25蛋白 Putative MO25-like protein
23	Zm00001d032646	细胞核Nucleus	RHC1A
24	Zm00001d016876	细胞核Nucleus	Trihelix转录因子ASIL2 Trihelix transcription factor ASIL2
25	Zm00001d043914	细胞核Nucleus	Homeobox-DDT结构域蛋白RLT1 Homeobox-DDT domain protein RLT1
26	Zm00001d014858	细胞核Nucleus	DNA结合蛋白MNB1B DNA-binding protein MNB1B
27	Zm00001d036494	细胞核Nucleus	GATA转录因子25 GATA transcription factor 25
28	Zm00001d013159	细胞核Nucleus	α-微管蛋白3 Alpha-tubulin 3
29	Zm00001d001847	细胞核Nucleus	NUMOD3基序家族蛋白 NUMOD3 motif family protein expressed; protein
30	Zm00001d032790	细胞核Nucleus	质体转录活性3 Plastid transcriptionally active 3
31	Zm00001d052298	细胞核Nucleus	锌指（C3HC4型RING指）家族蛋白 Zinc finger (C3HC4-type RING finger) family protein
32	Zm00001d027652	液泡Vacuole	水通道蛋白TIP1-1 Aquaporin TIP1-1

Table 4

References 53

[1]	刘红梅, 周新跃, 刘建丰, 邱颖波, 范峰峰, 徐庆国 . 籼型杂交稻光合特性的配合力分析. 植物遗传资源学报, 2014,15(4):699-705.
	LIU H M, ZHOU X Y, LIU J F, QIU Y B, FAN F F, XU Q G . Analysis of combining ability of photosynthetic characteristics in Indica hybrid rice. Journal of Plant Genetic Resources, 2014,15(4):699-705. (in Chinese)
[2]	李合生 . 现代植物生理学. 北京: 高等教育出版社, 2012.
	LI H S . Modern Plant Physiology. Beijing: Higher Education Press, 2012. ( in Chinese)
[3]	LEISTER D . Chloroplast research in the genomic age. Trends in Genetics, 2003,19(1):47-56.
[4]	SUGIMOTO H, KUSUMI K, TOZAWA Y, YAZAKI J, KISHIMOTO N, KIKUCHI S, IBA K . The virescent-2 mutation inhibits translation of plastid transcripts for the plastid genetic system at an early stage of chloroplast differentiation. Plant and Cell Physiology, 2004,45(8):985-996.
[5]	ABDALLAH F, SALAMINI F, LEISTER D . A prediction of the size and evolutionary origin of the proteome of chloroplasts of Arabidopsis. Trends in Plant Science, 2000,5(4):141-142.
[6]	PELTIER J B, CAI Y, SUN Q, ZABROUSKOV V, GIACOMELLI L, RUDELLA A, YTTERBERG A J, RUTSCHOW H, VAN WIJK K J . The oligomeric stromal proteome of Arabidopsis thaliana chloroplasts. Molecular & Cellular Proteomics, 2006,5(1):114-133.
[7]	BÖRNER T, ALEYNIKOVA A Y, ZUBO Y O, KUSNETSOV V V . Chloroplast RNA polymerases: Role in chloroplast biogenesis. Biochimica et Biophysica Acta, 2015,1847(9):761-769.
[8]	SHIINA T, TSUNOYAMA Y, NAKAHIRA Y, KHAN M S . Plastid RNA polymerases, promoters, and transcription regulators in higher plants. International Review of Cytology-a Survey of Cell Biology, 2005,244:1-68.
[9]	叶琳珊 . pTAC7调控拟南芥叶绿基因表达的机理研究[D]. 上海: 上海师范大学, 2015.
	YE L S . Mechanism of pTAC7 regulation of Arabidopsis leaf green gene expression[D]. Shanghai: Shanghai Normal University, 2015. ( in Chinese)
[10]	王振国, 魏家绵, 沈允钢 . 玉米叶绿体atpB及atpE基因在大肠杆菌中的表达. 植物生理学报, 1995(3):265-396.
	WANG Z G, WEI J M, SHEN Y G . Over-expression of maize chloroplastsatpB and atpE genes in Escherichia coli. Journal of Plant Physiology, 1995(3):265-396. (in Chinese)
[11]	PUTHIYAVEETIL S, IBRAHIM I M, JELICIĆ B, TOMASIĆ A, FULGOSI H, ALLEN J F . Transcriptional control of photosynthesis genes: The evolutionarily conserved regulatory mechanism in plastid genome function. Genome Biology and Evolution Biology and Evolution, 2010,2:888-896.
[12]	ZHELYAZKOVA P, SHARMA C M, FÖRSTNER K U, LIERE K, VOGEL J, BÖRNER T . The primary transcriptome of barley chloroplasts: numerous noncoding RNAs and the dominating role of the plastid-encoded RNA polymerase. The Plant Cell, 2012,24:123-136.
[13]	LGLOI G L, KÖSSEL H . The transcriptional apparatus of chloroplasts. Critical Reviews in Plant Sciences, 1992,10(6):525-558.
[14]	KRAUSE K, MAIER R M, KOFER W, KRUPINSKA K, HERRMANN R G . Disruption of plastid-encoded RNA polymerase genes in tobacco: expression of only a distinct set of genes is not based on selective transcription of the plastid chromosome. Molecular and General Genetics, 2000,263:1022-1030.
[15]	PFALZ J, LIERE K, KANDLBINDER A, DIETZ K J, OELMULLER R . pTAC2, -6, and -12 are components of the transcriptionally active plastid chromosome that are required for plastid gene expression. The Plant Cell, 2006,18(1):176-197.
[16]	CHEN M, GALVAO R M, LI M, BURGER B, BUGEA J, BOLADO J, CHORY J . Arabidopsis HEMERA/pTAC12 initiates photomorphogenesis by phytochromes. Cell, 2010,141:1230-1240.
[17]	MYOUGA F, HOSODA C, UMEZAWA T, IIZUMI H, KUROMORI T, MOTOHASHI R, SHONO Y, NAGATA N, IKEUCHI M, SHINOZAKI K . A heterocomplex of iron superoxide dismutases defends chloroplast nucleoids against oxidative stress and is essential for chloroplast development in Arabidopsis. The Plant Cell, 2008,20:3148-3162.
[18]	KROLL D, MEIERHOFF K, BECHTOLD N, KINOSHITA M, WESTPHAL S, VOTHKNECHT U C, SOLL J, WESTHOFF P . VIPP1, a nuclear gene of Arabidopsis thaliana essential for thylakoid membrane formation. Proceedings of the National Academy of Sciences of the United States of America, 2001,98:4238-4242.
[19]	MARÉCHAL A, PARENT J S, VÉRONNEAU-LAFORTUNE F, JOYEUX A, LANG B F, BRISSON N . Whirly proteins maintain plastid genome stability in Arabidopsis. Proceedings of the National Academy of Sciences of the USA, 2009,106(34):14693-14698.
[20]	GAO Z P, YU Q B, ZHAO T T, MA Q, CHEN G X, YANG Z N . A functional component of the transcriptionally active chromosome complex, Arabidopsis pTAC14, interacts with pTAC12/HEMERA and regulates plastid gene expression. Plant Physiology, 2011,157(4):1733-1745.
[21]	YAGI Y, ISHIZAKI Y, NAKAHIRA Y, TOZAWA Y, SHIINA T . Eukaryotic-type plastid nucleoid protein pTAC3 is essential for transcription by the bacterial-type plastid RNA polymerase. Proceedings of the National Academy of Sciences of the USA, 2012,109(19):7541-7546.
[22]	YU Q B, LU Y, ZHAO T T, HUANG C, ZHAO H F, ZHANG X L. LV R H, YANG Z N . TAC7, an essential component of the plastid transcriptionally active chromosome complex, interacts with FLN1, TAC10, TAC12 and TAC14 to regulate chloroplast gene expression in Arabidopsis thaliana. Physiologia Plantarum, 2013,148(3):408-421.
[23]	张森 . 果糖激酶类似蛋白1,2与硫氧还蛋白Z互作调控水稻叶绿体发育[D]. 北京: 中国农业科学院, 2018.
	ZHANG S . Fructose kinase-like protein 1,2 interacts with thioredoxin Z to regulate rice chloroplast development[D]. Beijing: Chinese Academy of Agricultural Sciences, 2018. ( in Chinese)
[24]	KUSABA M, ITO H, MORIT R, IIDA S, SATO Y, FUJIMOTO M, KAWASAKI S, TANAKA R, HIROCHIKA H, NISHIMURA M . Rice NON-YELLOW COLORING1 is involved in light-harvesting complex II and grana degradation during leaf senescence. The Plant Cell, 2007,19(4):1362-1375.
[25]	TANG Y Y, LI M, CHEN Y P, WU P Z, WU G J, JIANG H W . Knockdown of OsPAO and OsRCCR1 cause different plant death phenotypes in rice. Journal of Plant Physiology, 2011,168(16):1952-1959.
[26]	HAYASHI-TSUGANE M, TAKAHARA H, AHMED N, HIMI E, TAKAGI K, IIDA S, TSUGANE K, MAEKAWA M . A mutable albino allele in rice reveals that formation of thylakoid membranes requires the SNOW-WHITE LEAF1 gene. Plant & Cell Physiology, 2014,55(1):3-15.
[27]	ZHAO D S, ZHANG C Q, LI Q F, YANG Q Q, GU M H, LIU Q Q . A residue substitution in the plastid ribosomal protein L12/AL1 produces defective plastid ribosome and causes early seedling lethality in rice. Plant Molecular Biology, 2016,91(1/2):161-177.
[28]	WANG D, LIU H G, ZHAI G W, WANG L S, SHAO J F, TAO Y Z . Osptac2 encodes a pentatricopeptide repeat protein and regulates rice chloroplast development. Journal of Genetics & Genomics, 2016,43(10):601-608.
[29]	胡根海, 喻树迅 . 利用改良的CTAB法提取棉花叶片总RNA. 棉花学报, 2007(1):69-70.
	HU G H, YU S X . Extraction of total RNA from cotton leaves by improved CTAB method. Cotton Science, 2007(1):69-70. (in Chinese)
[30]	刘仁林, 虞功清, 邹伟民, 杜天真 . 植物透射电镜样品制备技术的改进. 江西林业科技, 2008(1):43-45.
	LIU R L, YU G Q, ZOU W M, DU T Z . Improvements in technique of madding ultrathin section for transmission electron microscope. Jiangxi Forestry Science and Technology, 2008(1):43-45. (in Chinese)
[31]	KWON K, CHO M . Deletion of the chloroplast-localized AtTerC gene product in Arabidopsis thaliana leads to loss of the thylakoid membrane and to seedling lethality. The Plant Journal, 2008,55(3):428-442
[32]	ANDREWS S . FastQC: A quality control tool for high throughput sequence data. 2013.
[33]	BOLGER A M, LOHSE M, USADEL B . Trimmomatic: A flexible trimmer for Illumina sequence data. Bioinformatics, 2014,30(15):2114-2120.
[34]	KIM D, LANGMEAD B, SALZBERG S L . HISAT: A fast spliced aligner with low memory requirements. Nature Methods, 2015,12(4):357-360.
[35]	LIAO Y, SMYTH G K, SHI W . Feature Counts: An efficient general purpose program for assigning sequence reads to genomic features. Bioinformatics (Oxford, England), 2014,30(7):923-930.
[36]	YU G, WANG L G, HAN Y, HE Q Y . Cluster Profiler: An R package for comparing biological themes among gene clusters. A Journal of Integrative Biology, 2012,16(5):284-287.
[37]	LIVAK K J, SCHMITTGEN T D . Analysis of relative gene expression data using real-time quantitative PCR and the 2 ^-ΔΔCT method . Methods, 2001,25(4):402-408.
[38]	YE R, YAO Q H, XU Z H, WEI X H . Development of an efficient method for the isolation of factors involved in gene transcription during rice embryo development. Plant Journal, 2004,38(2):348-357.
[39]	MEINKE D, MURALLA R, SWEENEY C, DICKERMAN A . Identifying essential genes in Arabidopsis thaliana. Trends in Plant Science, 2008,13(9):483-491.
[40]	WATERS M T, LANGDALE J A . The making of a chloroplast. The EMBO Journal, 2014,28(19):2861-2873.
[41]	吴久利 . 两种氨基酸和三种遗传病. 生物学教学, 2005,30(10):72.
	WU J L . Two kinds of amino acids and three genetic diseases. Biology Teaching, 2005,30(10):72. (in Chinese)
[42]	NAKAMURA H, MURAMATSU M, HAKATA M, UENO O, NAGAMURA Y, HIROCHIKA H, TAKANO M, ICHIKAWA H . Ectopic overexpression of the transcription factor OsGLK1 induces chloroplast development in non-green rice cells. Plant and Cell Physiology, 2009,50(11):1933-1949.
[43]	SCHARFENBERG M, MITTERMAYR L, VON ROEPENACK- LAHAYE E, SCHLICKE H, GRIMM B, LEISTER D, KLEINE T. Functional characterization of the two ferrochelatasein Arabidopsis thaliana. Plant Cell and Environment, 2013,38(2):280-298.
[44]	SAHA A, DAS S, MOIN M, DUTTA M, BAKSHI A, MADHAV M S, KIRTI P B . Genome-wide identification and comprehensive expression profiling of ribosomal protein small subunit (RPS) genes and their comparative analysis with the large subunit (RPL) genes in rice. Frontiers in Plant Science, 2017,8:1553-1574.
[45]	张丽君 . 蕨类植物叶绿体rps4基因和PHY基因GAF结构域的适应性进化研究[D]. 北京:中国科学院大学, 2010.
	ZHANG L J . Adaptive evolution of chlorophyll rps4 gene and PHY gene GAF domain in ferns[D]. Beijing: University of Chinese Academy of Sciences, 2010. ( in Chinese)
[46]	OELMÜLLER R, HERRMANN R G, PAKRASI H B . Molecular studies of CtpA, the carboxyl-terminal processing protease for the D1 protein of the photosystem II reaction center in higher plants. Journal of Biological Chemistry, 1996,271(36):21848-21852.
[47]	郑唐春 . 小黑杨PsnCYCD1;1基因参与细胞分裂及次生生长作用机理研究[D]. 哈尔滨:东北林业大学, 2016.
	ZHENG T C . Mechanism of PsnCYCD1;1 gene involved in cell division and secondary growth[D]. Harbin: Northeast Forestry University, 2016. ( in Chinese)
[48]	梁彬, 邹向阳 . 细胞周期蛋白依赖性激酶及抑制因子与肿瘤. 中国实验诊断学, 2006,10(11):1378-1380.
	LIANG B, ZOU X Y . Cyclin-dependent kinases and inhibitors and tumors. Chinese Journal of Laboratory Diagnosis, 2006,10(11):1378-1380. (in Chinese)
[49]	赵春玲, 宋咏梅, 樊飞跃, 詹启敏 . 细胞周期蛋白cyclin b1与肿瘤. 肿瘤, 2007,27(4):322-326.
	ZHAO C L, SONG Y M, FAN F Y, ZHAN Q M . Cyclin cyclin b1 and tumor. Tumor, 2007,27(4):322-326.
[50]	VANNESTE S, COPPENS F, LEE E, DONNER T J, XIE Z, VAN ISTERDAEL G, DHONDT S, DE WINTER F, DE RYBEL B, VUYLSTEKE M, DE VEYLDER L, FRIML J, INZÉ D, GROTEWOLD E, SCARPELLA E, SACK F, BEEMSTER G T, BEECKMAN T . Developmental regulation of CYCA2s contributes to tissue-specific proliferation in Arabidopsis. The EMBO Journal, 2011,30(16):3430-3441.
[51]	RUDELLA A, FRISO G, ALONSO M, ECKER J, WIJK K . Downregulation of ClpR2 leads to reduced accumulation of the ClpPRS protease complex and defects in chloroplast biogenesis in Arabidopsis. The Plant Cell, 2006,18(7):1704-1721.
[52]	NISHIMURA K, ASAKURA Y, FRISO G, KIM J, OH S H, RUTSCHOW H, PONNALA L, VAN WIJK K J . ClpS1 is a conserved substrate selector for the chloroplast Clp protease system in Arabidopsis. The Plant Cell, 2013,25(6):2276-2301.
[53]	SJOGREN L L, MACDONALD T M, SUTINEN S, CLARKE A K . Inactivation of the clpC1 gene encoding a chloroplast Hsp100 molecular chaperone causes growth retardation, leaf chlorosis, lower photosynthetic activity, and a specific reduction in photosystem content. Plant Physiology, 2004,136:4114-4126.

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编号 Serial number	潜在脱靶位置 Putative off-target locus	潜在脱靶序列 Sequence of the putative off-target site (5′-3′)	错配碱基数 No. of mismatching bases	测试株数 T₀ No. of plants tested
Off-target1	Chr.7:109756398-109756420	AgCTGGaGTAtAGCCTtATACGG	4	8
Off-target2	Chr.1 :145160658-145160680	AcCTGGGGTACAGCCaGATcAGG	3	8
Off-target3	Chr.6:44283532-44283554	cGaCCACGCAGCTATGTcTGAGG	3	8
Off-target4	Chr.4:230687431-230687453	cGaCCACGCAGCTATGTcTGAGG	3	8
Off-target5	Chr.7:8936191-8936213	TGGCCACGCgGCTAcGTgTGGGG	3	8
Off-target6	Chr.7:8936289-8936311	TGGCCACGCgGCTAcGTgTGGGG	3	8

样品 Sample	总碱基数 Total bases (Billion)	GC含量 GC percentage (%)	Q30 比例 Q30 percentage (%)	比对序列比例 Total mapping reads percentage (%)
CK_1	15	47.52	92.90	98.71
CK_2	16	47.50	91.94	98.75
zmptac2_1	12	47.52	90.29	98.87
zmptac2_2	16	47.92	92.17	98.56

基因编号 Gene ID	zmptac2	CK	差异倍数 log₂Fold change	P值 P-value	基因名称 Synonyms	描述 Description
Zm00001d039206	189.7162285	4.75059079	5.370830095	7.82E-06	Bzip118	bZIP转录因子超家族蛋白 Putative bZIP transcription factor superfamily protein
Zm00001d043825	80.63331881	0	8.789501589	0.00185833	CtpA1	羧基末端加工肽酶1 Carboxyl-terminal-processing peptidase 1 chloroplastic
Zm00001d027476	176.7085969	0	9.921454443	4.88E-06	DNA polymerases	依赖DNA的DNA聚合酶 DNA-directed DNA polymerases
Zm00001d031503	1000.059518	22.40077408	5.473911936	0.00680168	CPN60	伴侣蛋白亚基 Chaperonin 60 subunit alpha 2 chloroplastic
Zm00001d008221	0	351.1761292	-21.80949	1.54E-09	Cyc5	细胞周期蛋白5 Cyclin5
Zm00001d022599	363.2261699	3395.326772	-3.03756614	5.64E-14	ZmpTAC2	质体转录活性染色体2 Plastid transcriptionally active chromosome 2 homolog
Zm00001d033365	0	362.4571584	-23.97922	0.0000335	Cyclin A3 1	细胞周期蛋白A3-1 Putative cyclin-A3-1
Zm00001d027540	0	1170.714751	-25.15007	0.0000113	Gst12	谷胱甘肽S-转移酶12 Glutathione S-transferase12
Zm00001d048353	0	168.1203061	-22.56015	1.08E-08	Gst13	谷胱甘肽转移酶13 Glutathione transferase13
Zm00001d027760	0	1660.523115	-24.97806	1.32E-05	H2A	组蛋白H2A Histone H2A
Zm00001d051591	10.74539904	2639.275824	-7.938035	4.88E-05	his2b5	组蛋白2B5 Histone 2B5
Zm00001d042730	87.36474604	4052.072328	-5.535586	5.51E-05	H3	组蛋白H3 Histone H3
Zm00001d012276	103.9578986	6414.512969	-5.947576	0.000341	H3.2	组蛋白H3.2 Histone H3.2
Zm00001d039497	40.62122946	4971.062871	-6.93312404	8.97E-28	ClpC1	伴侣蛋白ClpC1（线粒体） Chaperone protein ClpC1 chloroplastic
Zm00001d042062	0	2272.297402	-9.395263783	0.00021753	ORG3	转录因子ORG3 Transcription factor ORG3

Transcriptome Analysis of Maize pTAC2 Effects on Chlorophyll Synthesis in Seedling Leaves

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