Bioinformatics analysis of peach NAC gene family and its expression characteristics in response to low temperature stress

doi:10.3969/j.issn.1004-1524.2022.04.13

Acta Agriculturae Zhejiangensis ›› 2022, Vol. 34 ›› Issue (4): 766-780.DOI: 10.3969/j.issn.1004-1524.2022.04.13

• Horticultural Science • Previous Articles Next Articles

Bioinformatics analysis of peach NAC gene family and its expression characteristics in response to low temperature stress

LI Xiaolan¹(), ZHANG Rui¹, HAO Lanlan¹, WANG Hong¹^,²^,^*()

1. College of Horticulture, Gansu Agricultural University, Lanzhou 730070, China
2. Institute of Fruit and Floriculture Research, Gansu Academy of Agricultural Sciences, Lanzhou 730070, China

Received:2021-07-26 Online:2022-04-25 Published:2022-04-28
Contact: WANG Hong

Abstract

Abstract:

NAC (NAM-ATAF1/2-CUC2) are transcription factors with multiple biological functions,they play an important role in plant response to abiotic stress, hormone signal response and organ formation.In order to understand peach NAC protein (PpNAC) and its response during low temperature stress, the members, structure, function and expression of peach NAC family gene under low temperature stress were analyzed by bioinformatics and qRT-PCR.The results showed that there were 119 members in NAC family of peach, named as PpNAC001- PpNAC119. The amino acid length of PpNACs ranged from 68 to 862, with an average of 352 aa. Molecular weight ranged from 7.2 to 96.1 ku, and isoelectric point ranged from 4.3 to 9.5. Except for PpNAC119, the rest genes were located on eight chromosomes of peach. The analysis of gene structure and conserved motif showed that gene structure of the members in the same subgroup was similar, the number and length of exons were basically the same, and types and sequence of motifs contained in the members in the same subgroup were similar. The differences among different subgroups might be related to their functional specificity. The cis-acting elements in 2 000 bp sequence of PpNACs promoter was analyzed. The results showed that abscisic acid responsive, light responsive, MeJA-responsive, low-temperature responsive and auxin responsive elements accounted for a large proportion of all the selected elements. qRT-PCR analysis showed that the expression level of some genes was not significantly up-regulated compared with the control under 4 ℃ low temperature stress for 2 and 6 h.The expression levels of 16 NAC genes were significantly up-regulated after 12 h of low temperature stress.

Key words: NAC transcription factor, peach, low temperature stress, bioinformatics

CLC Number:

S662.1

LI Xiaolan, ZHANG Rui, HAO Lanlan, WANG Hong. Bioinformatics analysis of peach NAC gene family and its expression characteristics in response to low temperature stress[J]. Acta Agriculturae Zhejiangensis, 2022, 34(4): 766-780.

Figures/Tables 8

References 44

[1]	SHAO H B, WANG H Y, TANG X L. NAC transcription factors in plant multiple abiotic stress responses: progress and prospects[J]. Frontiers in Plant Science, 2015, 6: 902-910.
[2]	HUANG W, XIAN Z Q, KANG X, et al. Genome-wide identification, phylogeny and expression analysis of GRAS gene family in tomato[J]. BMC Plant Biology, 2015, 15: 209. DOI URL
[3]	PAZ-ARES J, GHOSAL D, WIENAND U, et al. The regulatory C1 locus of Zea mays encodes a protein with homology to MYB proto-oncogene products and with structural similarities to transcriptional activators[J]. The EMBO Journal, 1987, 6(12): 3553-3558. DOI URL
[4]	QU Y T, DUAN M, ZHANG Z Q, et al. Overexpression of the Medicago falcata NAC transcription factor MfNAC3 enhances cold tolerance in Medicago truncatula[J]. Environmental and Experimental Botany, 2016, 129: 67-76. DOI URL
[5]	SOUER E, VAN HOUWELINGEN A, KLOOS D, et al. The no apical meristem gene of Petunia is required for pattern formation in embryos and flowers and is expressed at meristem and primordia boundaries[J]. Cell, 1996, 85(2): 159-170. DOI URL
[6]	WU Z Y, XU X Q, XIONG W D, et al. Genome-wide analysis of the NAC gene family in physic nut (Jatropha curcas L.)[J]. PLoS One, 2015, 10(6): e0131890. DOI URL
[7]	GUO Y F, GAN S S. AtNAP, a NAC family transcription factor, has an important role in leaf senescence[J]. The Plant Journal, 2006, 46(4): 601-612. DOI URL
[8]	SHAN W, KUANG J F, CHEN L, et al. Molecular characterization of banana NAC transcription factors and their interactions with ethylene signalling component EIL during fruit ripening[J]. Journal of Experimental Botany, 2012, 63(14): 5171-5187. DOI URL
[9]	BU Q, JIANG H, LI C B, et al. Role of the Arabidopsis thaliana NAC transcription factors ANAC019 and ANAC055 in regulating jasmonic acid-signaled defense responses[J]. Cell Research, 2008, 18(7): 756-767. DOI URL
[10]	HAO Y J, WEI W, SONG Q X, et al. Soybean NAC transcription factors promote abiotic stress tolerance and lateral root formation in transgenic plants[J]. The Plant Journal, 2011, 68(2): 302-313. DOI URL
[11]	OOKA H, SATOH K, DOI K, et al. Comprehensive analysis of NAC family genes in Oryza sativa and Arabidopsis thaliana[J]. DNA Research, 2003, 10(6): 239-247. DOI URL
[12]	NURUZZAMAN M, MANIMEKALAI R, SHARONI A M, et al. Genome-wide analysis of NAC transcription factor family in rice[J]. Gene, 2010, 465(1/2): 30-44. DOI URL
[13]	HUSSAIN R M, ALI M, FENG X, et al. The essence of NAC gene family to the cultivation of drought-resistant soybean (Glycine max L. Merr.) cultivars[J]. BMC Plant Biology, 2017, 17(1): 55. DOI URL
[14]	GONG X, ZHAO L Y, SONG X F, et al. Genome-wide analyses and expression patterns under abiotic stress of NAC transcription factors in white pear (Pyrus bretschneideri)[J]. BMC Plant Biology, 2019, 19(1): 161. DOI URL
[15]	LIU M Y, MA Z T, SUN W J, et al. Genome-wide analysis of the NAC transcription factor family in Tartary buckwheat (Fagopyrum tataricum)[J]. BMC Genomics, 2019, 20(1): 113. DOI URL
[16]	HU R B, QI G, KONG Y Z, et al. Comprehensive analysis of NAC domain transcription factor gene family in Populus trichocarpa[J]. BMC Plant Biology, 2010, 10: 145. DOI URL
[17]	WANG N, ZHENG Y, XIN H P, et al. Comprehensive analysis of NAC domain transcription factor gene family in Vitis vinifera[J]. Plant Cell Reports, 2013, 32(1): 61-75. DOI URL
[18]	ZHUO X K, ZHENG T C, ZHANG Z Y, et al. Genome-wide analysis of the NAC transcription factor gene family reveals differential expression patterns and cold-stress responses in the woody plant Prunus mume[J]. Genes, 2018, 9(10): 494. DOI URL
[19]	LV X, LAN S, GUY K M, et al. Global expressions landscape of NAC transcription factor family and their responses to abiotic stresses in Citrullus lanatus[J]. Scientific Reports, 2016, 6: 30574. DOI URL
[20]	PENG X J, WU Q Q, TENG L H, et al. Transcriptional regulation of the paper mulberry under cold stress as revealed by a comprehensive analysis of transcription factors[J]. BMC Plant Biology, 2015, 15: 108. DOI URL
[21]	CALZADILLA P I, MAIALE S J, RUIZ O A, et al. Transcriptome response mediated by cold stress in Lotus japonicus[J]. Frontiers in Plant Science, 2016, 7: 374.
[22]	HE Q, LIU Y H, ZHANG M, et al. Genome-wide identification and expression analysis of the NAC transcription factor family in pineapple[J]. Tropical Plant Biology, 2019, 12(4): 255-267. DOI URL
[23]	武肖琦. 桃PpNAC72基因的克隆及功能分析[D]. 天津: 天津农学院, 2019.
	WU X Q. Cloning and functional analysis of PpNAC 72 gene from Prunus persica[D]. Tianjin: Tianjin Agricultural University, 2019. (in Chinese with English abstract)
[24]	SWARBRECK D, WILKS C, LAMESCH P, et al. The Arabidopsisinformation resource (TAIR): gene structure and function annotation[J]. Nucleic Acids Research, 2007, 36(Suppl_1): D1009-D1014.
[25]	JUNG S, LEE T, CHENG C H, et al. 15 years of GDR: new data and functionality in the genome database for Rosaceae[J]. Nucleic Acids Research, 2018, 47(D1): D1137-D1145.
[26]	TAMURA K, STECHER G, PETERSON D, et al. MEGA6: molecular evolutionary genetics analysis version 6.0[J]. Molecular Biology and Evolution, 2013, 30(12): 2725-2729. DOI URL
[27]	BAILEY T L, BODEN M, BUSKE F A, et al. MEME Suite: tools for motif discovery and searching[J]. Nucleic Acids Research, 2009, 37(suppl_2): W202-W208.
[28]	CHEN C J, CHEN H, ZHANG Y, et al. TBtools: an integrative toolkit developed for interactive analyses of big biological data[J]. Molecular Plant, 2020, 13(8): 1194-1202. DOI URL
[29]	DALMAN K, WIND J J, NEMESIO-GORRIZ M, et al. Overexpression of PaNAC03, a stress induced NAC gene family transcription factor in Norway spruce leads to reduced flavonol biosynthesis and aberrant embryo development[J]. BMC Plant Biology, 2017, 17(1): 6. DOI URL
[30]	WANG Z Y, RASHOTTE A M, MOSS A G, et al. Two NAC transcription factors from Citrullus colocynthis, CcNAC1, CcNAC 2 implicated in multiple stress responses[J]. Acta Physiologiae Plantarum, 2014, 36(3): 621-634. DOI URL
[31]	WANG Z Y, RASHOTTE A M, DANE F. Citrullus colocynthis NAC transcription factors CcNAC1 and CcNAC 2 are involved in light and auxin signaling[J]. Plant Cell Reports, 2014, 33(10): 1673-1686. DOI URL
[32]	SINGH A K, SHARMA V, PAL A K, et al. Genome-wide organization and expression profiling of the NAC transcription factor family in potato (Solanum tuberosum L.)[J]. DNA Research, 2013, 20(4): 403-423. DOI URL
[33]	PINHEIRO G L, MARQUES C S, COSTA M D B L, et al. Complete inventory of soybean NAC transcription factors: sequence conservation and expression analysis uncover their distinct roles in stress response[J]. Gene, 2009, 444(1/2): 10-23. DOI URL
[34]	RIAÑO-PACHÓN D M, RUZICIC S, DREYER I, et al. PlnTFDB: an integrative plant transcription factor database[J]. BMC Bioinformatics, 2007, 8: 42. DOI URL
[35]	RAMASWAMY M, NARAYANAN J, MANICKAVACHAGAM G, et al. Genome wide analysis of NAC gene family ‘sequences’ in sugarcane and its comparative phylogenetic relationship with rice, Sorghum, maize and Arabidopsis for prediction of stress associated NAC genes[J]. Agri Gene, 2017, 3: 1-11. DOI URL
[36]	ZHANG M P, WU Y H, LEE M K, et al. Numbers of genes in the NBS and RLK families vary by more than four-fold within a plant species and are regulated by multiple factors[J]. Nucleic Acids Research, 2010, 38(19): 6513-6525. DOI URL
[37]	SUN H, HU M L, LI J Y, et al. Comprehensive analysis of NAC transcription factors uncovers their roles during fiber development and stress response in cotton[J]. BMC Plant Biology, 2018, 18(1): 150. DOI URL
[38]	AHMAD M, YAN X H, LI J Z, et al. Genome wide identification and predicted functional analyses of NAC transcription factors in Asian pears[J]. BMC Plant Biology, 2018, 18(1): 214. DOI URL
[39]	STAIGER D, BROWN J W S. Alternative splicing at the intersection of biological timing, development, and stress responses[J]. The Plant Cell, 2013, 25(10): 3640-3656. DOI URL
[40]	LI J, MENG X, ZONG Y, et al. Gene replacements and insertions in rice by intron targeting using CRISPR-Cas9[J]. Nature Plants, 2016, 2: 16139. DOI URL
[41]	ZHANG J, HUANG G Q, ZOU D, et al. The cotton (Gossypium hirsutum) NAC transcription factor (FSN1) as a positive regulator participates in controlling secondary cell wall biosynthesis and modification of fibers[J]. New Phytologist, 2018, 217(2): 625-640. DOI URL
[42]	NAKANO Y, YAMAGUCHI M, ENDO H, et al. NAC-MYB-based transcriptional regulation of secondary cell wall biosynthesis in land plants[J]. Frontiers in Plant Science, 2015, 6: 288.
[43]	VROEMEN C W, MORDHORST A P, ALBRECHT C, et al. The CUP-SHAPED COTYLEDON3 gene is required for boundary and shoot meristem formation in Arabidopsis[J]. The Plant Cell, 2003, 15(7): 1563-1577. DOI URL
[44]	BALAZADEH S, SIDDIQUI H, ALLU A D, et al. A gene regulatory network controlled by the NAC transcription factor ANAC092/AtNAC2/ORE1 during salt-promoted senescence[J]. The Plant Journal, 2010, 62(2): 250-264. DOI URL

基因 Gene	上游引物 Forward primer (5'-3')	下游引物 Reverse primer (5'-3')	CDS全长 Full CDS
PpNAC007	TTTACCAGGGCAAGCCACCAAAG	CCTACAGAGAACCCAATCGTCCAATC	867
PpNAC009	CACCAACTCAAACCCAAACCAAAGC	AGAAGTCGATTGTGGGCAAGGTAATG	825
PpNAC015	CTAAGGCTGGACGATTGGGTTCTG	GTTGGCTGTTGCTGTTGCTGTTG	888
PpNAC025	TTCTATCTCCGCCCGTGCTACC	TTGTGCTGCTGCTGCTCATCTC	1 959
PpNAC037	ATCGTTGCTGAAGTCGGATGATGAG	CTGATGTTCTCTGCCTGTGATCTTCC	1 386
PpNAC043	GAATGTGCCGCTGGAGGGATTAG	CCTGATGACCGTTGTTGAAGTTATTGC	1 635
PpNAC046	ACTCAACTCATCGGTTTGTGGTCTG	GCTAGTCTCTTGTTGCCTCTGCTTC	1 350
PpNAC048	GGTTGGTGAGGTTGGGCTCTTTC	GGTTCTCGTGTCGCTGTTGTAGG	1 059
PpNAC050	AACAGCATAAGCAGTCAGAAACGAATG	ATCAGGAACATCATCACACCCAACAG	1 170
PpNAC051	AAGCAGCGAAGCAGTTGGGATC	CTGGGTATGGGTTGGGTTTACTTGAG	714
PpNAC052	GCATCATCAGCATCATCAGCATCATC	GTAGTAGCAGCAGCAGCAGCAG	1 122
PpNAC064	AACCAGCCCCAACAAAGCCAAG	CACCTCCTCGTCCACCGTCTTC	1 050
PpNAC074	AAGGTTGTCTGTCAATCCACTGTCAC	AGCAAGATCATCACTGAGACGGTATTC	1 035
PpNAC077	GTGTGGACAAGCCTTCATCTGGATC	AGGTAGGACTCTGCCGTATATCTTCTC	2 589
PpNAC105	AGGATTTGCCACCTGGGTTTAGATTC	CCTCCCTCCTCCCTTCCAGTTTC	858
PpNAC117	AGGAAGAGAAGGCAATGGAGATCAAAG	GGTCCAGTCCACGCTCAATCTTG	876
actin	GATTCCGGTGCCCAGAAGT	CCAGCAGCTTCCATTCCAA	1 134

基因 Gene	上游引物 Forward primer (5'-3')	下游引物 Reverse primer (5'-3')	CDS全长 Full CDS
PpNAC007	TTTACCAGGGCAAGCCACCAAAG	CCTACAGAGAACCCAATCGTCCAATC	867
PpNAC009	CACCAACTCAAACCCAAACCAAAGC	AGAAGTCGATTGTGGGCAAGGTAATG	825
PpNAC015	CTAAGGCTGGACGATTGGGTTCTG	GTTGGCTGTTGCTGTTGCTGTTG	888
PpNAC025	TTCTATCTCCGCCCGTGCTACC	TTGTGCTGCTGCTGCTCATCTC	1 959
PpNAC037	ATCGTTGCTGAAGTCGGATGATGAG	CTGATGTTCTCTGCCTGTGATCTTCC	1 386
PpNAC043	GAATGTGCCGCTGGAGGGATTAG	CCTGATGACCGTTGTTGAAGTTATTGC	1 635
PpNAC046	ACTCAACTCATCGGTTTGTGGTCTG	GCTAGTCTCTTGTTGCCTCTGCTTC	1 350
PpNAC048	GGTTGGTGAGGTTGGGCTCTTTC	GGTTCTCGTGTCGCTGTTGTAGG	1 059
PpNAC050	AACAGCATAAGCAGTCAGAAACGAATG	ATCAGGAACATCATCACACCCAACAG	1 170
PpNAC051	AAGCAGCGAAGCAGTTGGGATC	CTGGGTATGGGTTGGGTTTACTTGAG	714
PpNAC052	GCATCATCAGCATCATCAGCATCATC	GTAGTAGCAGCAGCAGCAGCAG	1 122
PpNAC064	AACCAGCCCCAACAAAGCCAAG	CACCTCCTCGTCCACCGTCTTC	1 050
PpNAC074	AAGGTTGTCTGTCAATCCACTGTCAC	AGCAAGATCATCACTGAGACGGTATTC	1 035
PpNAC077	GTGTGGACAAGCCTTCATCTGGATC	AGGTAGGACTCTGCCGTATATCTTCTC	2 589
PpNAC105	AGGATTTGCCACCTGGGTTTAGATTC	CCTCCCTCCTCCCTTCCAGTTTC	858
PpNAC117	AGGAAGAGAAGGCAATGGAGATCAAAG	GGTCCAGTCCACGCTCAATCTTG	876
actin	GATTCCGGTGCCCAGAAGT	CCAGCAGCTTCCATTCCAA	1 134

基因名称 Gene name	登录号 ID	染色体位置 Chromosome location	氨基酸数量 Number of amino acids	分子量 Molecular weight/u	等电点 pI
PpNAC001	Prupe.1G063700.1_v2.0.a1	Pp01:4536126..4536752+	208	24 358.46	8.56
PpNAC002	Prupe.1G088700.1_v2.0.a1	Pp01:6635984..6637464-	321	36 564.21	5.95
PpNAC003	Prupe.1G106100.1_v2.0.a1	Pp01:8505856..8506968-	370	41 966.56	4.62
PpNAC004	Prupe.1G220400.1_v2.0.a1	Pp01:23497788..23499637-	258	29 426.38	9.21
PpNAC005	Prupe.1G234600.1_v2.0.a1	Pp01:24857188..24857640+	86	9 987.39	6.83
PpNAC006	Prupe.1G274300.1_v2.0.a1	Pp01:28043845..28045782+	482	53 569.82	6.78
PpNAC007	Prupe.1G277500.1_v2.0.a1	Pp01:28214649..28216118-	288	33 195.52	7.01
PpNAC008	Prupe.1G284800.1_v2.0.a1	Pp01:28610413..28612621-	225	25 753.79	4.68
PpNAC009	Prupe.1G284900.1_v2.0.a1	Pp01:28616906..28619692-	274	31 599.94	5.25
PpNAC010	Prupe.1G305300.2_v2.0.a1	Pp01:29886383..29890011+	449	50 929.50	4.94
PpNAC011	Prupe.1G383200.1_v2.0.a1	Pp01:34421802..34426682+	419	46 447.18	6.67
PpNAC012	Prupe.1G390000.1_v2.0.a1	Pp01:34813332..34814859+	231	26 255.84	9.15
PpNAC013	Prupe.1G432600.2_v2.0.a1	Pp01:37026200..37029641+	281	31 892.72	7.16
PpNAC014	Prupe.1G454900.2_v2.0.a1	Pp01:38207406..38210365+	342	38 086.85	8.95
PpNAC015	Prupe.1G493100.1_v2.0.a1	Pp01:40980078..40982143+	295	33 945.12	8.09
PpNAC016	Prupe.1G560100.1_v2.0.a1	Pp01:45724265..45726152+	210	23 995.66	4.97
PpNAC017	Prupe.1G575600.1_v2.0.a1	Pp01:46889483..46889899-	118	13 596.51	9.35
PpNAC018	Prupe.1G587100.2_v2.0.a1	Pp01:47661676..47664477-	466	52 751.02	6.37
PpNAC019	Prupe.2G049200.1_v2.0.a1	Pp02:5659348..5661571+	204	22 296.43	4.27
PpNAC020	Prupe.2G091300.1_v2.0.a1	Pp02:14426671..14432723+	632	68 940.74	5.75
PpNAC021	Prupe.2G091500.1_v2.0.a1	Pp02:14455612..14459601+	590	66 058.21	4.53
PpNAC022	Prupe.2G196600.1_v2.0.a1	Pp02:23403495..23405479-	400	45 230.06	5.77
PpNAC023	Prupe.2G196800.1_v2.0.a1	Pp02:23419271..23419609-	87	10 131.63	5.32
PpNAC024	Prupe.2G201200.1_v2.0.a1	Pp02:23790709..23797562-	707	74 800.88	4.72
PpNAC025	Prupe.2G201300.1_v2.0.a1	Pp02:23798315..23802572-	652	70 487.90	4.72
PpNAC026	Prupe.2G201500.1_v2.0.a1	Pp02:23815459..23815917-	68	7 161.15	4.44
PpNAC027	Prupe.2G201600.1_v2.0.a1	Pp02:23817016..23820462-	323	35 729.10	5.63
基因名称 Gene name	登录号 ID	染色体位置 Chromosome location	氨基酸数量 Number of amino acids	分子量 Molecular weight/u	等电点 pI
PpNAC028	Prupe.2G201800.1_v2.0.a1	Pp02:23824119..23826779-	455	51 326.82	4.67
PpNAC029	Prupe.2G201900.1_v2.0.a1	Pp02:23827555..23834195-	457	51 160.40	4.69
PpNAC030	Prupe.2G202000.1_v2.0.a1	Pp02:23841599..23845657-	454	50 978.29	4.56
PpNAC031	Prupe.2G202200.1_v2.0.a1	Pp02:23848561..23850429-	491	55 686.99	4.85
PpNAC032	Prupe.2G202400.2_v2.0.a1	Pp02:23864645..23868096-	419	47 395.82	5.02
PpNAC033	Prupe.2G202500.1_v2.0.a1	Pp02:23868318..23871265-	444	51 288.55	4.89
PpNAC034	Prupe.2G202600.1_v2.0.a1	Pp02:23883009..23884343-	128	14 531.48	5.96
PpNAC035	Prupe.2G202700.1_v2.0.a1	Pp02:23886403..23889133-	432	50 109.05	4.59
PpNAC036	Prupe.2G202800.1_v2.0.a1	Pp02:23891043..23894028-	470	54 263.93	7.63
PpNAC037	Prupe.2G202900.1_v2.0.a1	Pp02:23895351..23898373-	461	53 884.37	7.66
PpNAC038	Prupe.2G203100.1_v2.0.a1	Pp02:23902536..23903399-	194	22 756.93	7.80
PpNAC039	Prupe.2G204700.2_v2.0.a1	Pp02:23984542..23986033+	221	26 073.66	7.55
PpNAC040	Prupe.2G204900.1_v2.0.a1	Pp02:23987662..23989315+	183	21 472.20	4.98
PpNAC041	Prupe.2G278100.1_v2.0.a1	Pp02:27875877..27879693-	321	37 065.29	6.09
PpNAC042	Prupe.2G319900.1_v2.0.a1	Pp02:29831471..29833093+	222	24 270.56	4.39
PpNAC043	Prupe.2G320600.1_v2.0.a1	Pp02:29853474..29856798-	544	60 887.10	4.87
PpNAC044	Prupe.3G014400.1_v2.0.a1	Pp03:1026994..1031590-	682	77 379.97	5.51
PpNAC045	Prupe.3G065000.1_v2.0.a1	Pp03:4659001..4660141-	374	41 615.34	4.92
PpNAC046	Prupe.3G111400.1_v2.0.a1	Pp03:9281361..9282710-	449	50 330.25	4.60
PpNAC047	Prupe.3G178000.2_v2.0.a1	Pp03:19470346..19473006-	223	25 461.20	9.52
PpNAC048	Prupe.3G264600.1_v2.0.a1	Pp03:24890994..24892912-	352	40 162.98	6.60
PpNAC049	Prupe.3G268400.1_v2.0.a1	Pp03:25058115..25060169+	398	44 493.70	6.95
PpNAC050	Prupe.3G293200.2_v2.0.a1	Pp03:26210598..26214422+	389	42 477.19	5.11
PpNAC051	Prupe.3G310600.1_v2.0.a1	Pp03:26977887..26979629+	237	27 315.82	9.36
PpNAC052	Prupe.4G040900.1_v2.0.a1	Pp04:1927075..1929036-	373	41 068.51	8.45
PpNAC053	Prupe.4G053300.1_v2.0.a1	Pp04:2574049..2576136+	318	35 868.34	8.47
PpNAC054	Prupe.4G106100.1_v2.0.a1	Pp04:5496176..5498944-	309	35 520.20	8.88
PpNAC055	Prupe.4G112200.1_v2.0.a1	Pp04:5939862..5942299-	589	68 906.06	8.24
PpNAC056	Prupe.4G123700.2_v2.0.a1	Pp04:6748812..6751639+	361	41 057.74	6.94
PpNAC057	Prupe.4G126800.1_v2.0.a1	Pp04:6964173..6967801+	353	40 265.62	4.76
PpNAC058	Prupe.4G138500.1_v2.0.a1	Pp04:7730640..7733031+	322	37 055.31	6.67
PpNAC059	Prupe.4G143600.1_v2.0.a1	Pp04:8234798..8239256+	324	36 486.27	8.08
PpNAC060	Prupe.4G151900.1_v2.0.a1	Pp04:8685959..8686814+	254	29 516.89	5.08
PpNAC061	Prupe.4G153700.1_v2.0.a1	Pp04:8803185..8804066-	293	33 679.65	4.71
PpNAC062	Prupe.4G154000.1_v2.0.a1	Pp04:8820781..8821665-	294	33 821.61	4.60
PpNAC063	Prupe.4G175800.1_v2.0.a1	Pp04:10406603..10409389+	358	39 669.39	7.16
PpNAC064	Prupe.4G186800.1_v2.0.a1	Pp04:11116814..11118655+	349	39 226.16	8.34
PpNAC065	Prupe.4G187100.1_v2.0.a1	Pp04:11138518..11140641+	363	40 353.33	7.78
PpNAC066	Prupe.4G230600.1_v2.0.a1	Pp04:14769628..14771233+	363	41 370.74	4.69
PpNAC067	Prupe.4G230900.1_v2.0.a1	Pp04:14794681..14796205+	379	42 660.02	4.68
PpNAC068	Prupe.4G231000.1_v2.0.a1	Pp04:14804110..14805629+	381	42 670.04	4.63
PpNAC069	Prupe.4G246100.1_v2.0.a1	Pp04:16347760..16349143-	405	45 283.03	4.72
PpNAC070	Prupe.4G253600.1_v2.0.a1	Pp04:17380187..17382157-	385	44 506.96	6.37
PpNAC071	Prupe.4G255500.1_v2.0.a1	Pp04:17789226..17790714+	122	13 993.79	8.85
PpNAC072	Prupe.4G279600.1_v2.0.a1	Pp04:23605886..23608135+	292	33 718.09	6.11
PpNAC073	Prupe.5G006200.1_v2.0.a1	Pp05:707797..710859+	437	49 281.37	6.25
PpNAC074	Prupe.5G040400.1_v2.0.a1	Pp05:4430568..4433387-	344	39 145.21	5.28
PpNAC075	Prupe.5G076100.2_v2.0.a1	Pp05:9011205..9015718-	362	42 319.14	6.54
PpNAC076	Prupe.5G131900.1_v2.0.a1	Pp05:12690115..12692055-	436	50 162.09	6.17
PpNAC077	Prupe.5G135400.1_v2.0.a1	Pp05:12859748..12864064-	862	96 115.03	5.19
PpNAC078	Prupe.5G146100.1_v2.0.a1	Pp05:13431803..13433032-	264	29 871.59	8.21
基因名称 Gene name	登录号 ID	染色体位置 Chromosome location	氨基酸数量 Number of amino acids	分子量 Molecular weight/u	等电点 pI
PpNAC079	Prupe.5G196000.1_v2.0.a1	Pp05:15882585..15884747+	360	40 482.70	7.65
PpNAC080	Prupe.5G203200.1_v2.0.a1	Pp05:16322326..16323545+	182	20 966.42	6.19
PpNAC081	Prupe.5G221600.1_v2.0.a1	Pp05:17242546..17244798+	354	39 694.41	7.00
PpNAC082	Prupe.5G241300.1_v2.0.a1	Pp05:18167430..18170519-	261	29 885.22	5.07
PpNAC083	Prupe.5G244600.1_v2.0.a1	Pp05:18323103..18326470-	167	18 054.39	6.17
PpNAC084	Prupe.6G057300.1_v2.0.a1	Pp06:4012836..4014128+	327	37 364.00	5.18
PpNAC085	Prupe.6G092100.1_v2.0.a1	Pp06:6347818..6348948+	376	43 599.37	4.72
PpNAC086	Prupe.6G098300.1_v2.0.a1	Pp06:6843896..6844935-	246	28 556.34	8.85
PpNAC087	Prupe.6G098400.1_v2.0.a1	Pp06:6852172..6852417-	81	9 538.84	5.70
PpNAC088	Prupe.6G098600.1_v2.0.a1	Pp06:6857507..6859210-	348	39 831.73	8.18
PpNAC089	Prupe.6G103600.1_v2.0.a1	Pp06:7246334..7247707+	457	51 916.25	4.49
PpNAC090	Prupe.6G112000.1_v2.0.a1	Pp06:8054391..8055047+	219	25 305.55	9.34
PpNAC091	Prupe.6G133600.1_v2.0.a1	Pp06:10488017..10489878-	372	42 101.02	4.84
PpNAC092	Prupe.6G134000.1_v2.0.a1	Pp06:10531506..10533341-	372	42 101.02	4.84
PpNAC093	Prupe.6G134400.1_v2.0.a1	Pp06:10621079..10622787+	253	28 999.51	5.67
PpNAC094	Prupe.6G138100.1_v2.0.a1	Pp06:11223633..11228642+	390	43 747.80	5.88
PpNAC095	Prupe.6G238600.1_v2.0.a1	Pp06:23830614..23832830+	356	40 456.38	8.25
PpNAC096	Prupe.7G001200.1_v2.0.a1	Pp07:160287..162425+	383	42 910.39	8.23
PpNAC097	Prupe.7G001400.1_v2.0.a1	Pp07:206425..208570+	459	51 029.38	5.70
PpNAC098	Prupe.7G013900.1_v2.0.a1	Pp07:1953064..1958262-	431	48 224.95	5.19
PpNAC099	Prupe.7G014100.2_v2.0.a1	Pp07:2010746..2015688+	503	56 128.13	4.77
PpNAC100	Prupe.7G020000.1_v2.0.a1	Pp07:2997305..3001866+	201	22 047.21	4.29
PpNAC101	Prupe.7G061900.1_v2.0.a1	Pp07:10096751..10098559+	425	47 682.16	5.06
PpNAC102	Prupe.7G064900.1_v2.0.a1	Pp07:10332541..10335805-	326	37 287.93	5.72
PpNAC103	Prupe.7G065000.1_v2.0.a1	Pp07:10338166..10339835-	428	49 202.80	5.91
PpNAC104	Prupe.7G092400.2_v2.0.a1	Pp07:12503352..12507065+	356	39 886.74	5.08
PpNAC105	Prupe.7G102000.1_v2.0.a1	Pp07:13186995..13188904-	285	32 123.71	6.76
PpNAC106	Prupe.7G166300.1_v2.0.a1	Pp07:17014002..17018578+	335	38 649.15	5.00
PpNAC107	Prupe.7G217000.2_v2.0.a1	Pp07:19589218..19594669+	492	55 447.38	6.65
PpNAC108	Prupe.8G002500.1_v2.0.a1	Pp08:228506..230784+	378	42 895.62	7.29
PpNAC109	Prupe.8G035300.1_v2.0.a1	Pp08:3249694..3253129+	351	39 171.89	5.24
PpNAC110	Prupe.8G035400.1_v2.0.a1	Pp08:3254083..3258277+	351	39 402.11	5.08
PpNAC111	Prupe.8G035500.1_v2.0.a1	Pp08:3261961..3265416+	432	48 336.96	4.54
PpNAC112	Prupe.8G045800.1_v2.0.a1	Pp08:4838306..4842516+	577	65 599.97	4.91
PpNAC113	Prupe.8G058100.1_v2.0.a1	Pp08:7293635..7297369+	306	35 584.73	6.17
PpNAC114	Prupe.8G074800.1_v2.0.a1	Pp08:10907812..10909438-	271	30 979.25	8.93
PpNAC115	Prupe.8G095200.1_v2.0.a1	Pp08:12759198..12760058-	286	33 137.99	5.56
PpNAC116	Prupe.8G097100.1_v2.0.a1	Pp08:12910103..12910996+	297	34 395.46	5.73
PpNAC117	Prupe.8G174800.1_v2.0.a1	Pp08:17765903..17768100+	291	33 889.69	6.62
PpNAC118	Prupe.8G221900.1_v2.0.a1	Pp08:20115448..20119485+	284	32 867.25	5.64
PpNAC119	Prupe.I005300.1_v2.0.a1	scaffold_53:3766..5243-	381	42512.91	4.61

基因名称 Gene name	登录号 ID	染色体位置 Chromosome location	氨基酸数量 Number of amino acids	分子量 Molecular weight/u	等电点 pI
PpNAC001	Prupe.1G063700.1_v2.0.a1	Pp01:4536126..4536752+	208	24 358.46	8.56
PpNAC002	Prupe.1G088700.1_v2.0.a1	Pp01:6635984..6637464-	321	36 564.21	5.95
PpNAC003	Prupe.1G106100.1_v2.0.a1	Pp01:8505856..8506968-	370	41 966.56	4.62
PpNAC004	Prupe.1G220400.1_v2.0.a1	Pp01:23497788..23499637-	258	29 426.38	9.21
PpNAC005	Prupe.1G234600.1_v2.0.a1	Pp01:24857188..24857640+	86	9 987.39	6.83
PpNAC006	Prupe.1G274300.1_v2.0.a1	Pp01:28043845..28045782+	482	53 569.82	6.78
PpNAC007	Prupe.1G277500.1_v2.0.a1	Pp01:28214649..28216118-	288	33 195.52	7.01
PpNAC008	Prupe.1G284800.1_v2.0.a1	Pp01:28610413..28612621-	225	25 753.79	4.68
PpNAC009	Prupe.1G284900.1_v2.0.a1	Pp01:28616906..28619692-	274	31 599.94	5.25
PpNAC010	Prupe.1G305300.2_v2.0.a1	Pp01:29886383..29890011+	449	50 929.50	4.94
PpNAC011	Prupe.1G383200.1_v2.0.a1	Pp01:34421802..34426682+	419	46 447.18	6.67
PpNAC012	Prupe.1G390000.1_v2.0.a1	Pp01:34813332..34814859+	231	26 255.84	9.15
PpNAC013	Prupe.1G432600.2_v2.0.a1	Pp01:37026200..37029641+	281	31 892.72	7.16
PpNAC014	Prupe.1G454900.2_v2.0.a1	Pp01:38207406..38210365+	342	38 086.85	8.95
PpNAC015	Prupe.1G493100.1_v2.0.a1	Pp01:40980078..40982143+	295	33 945.12	8.09
PpNAC016	Prupe.1G560100.1_v2.0.a1	Pp01:45724265..45726152+	210	23 995.66	4.97
PpNAC017	Prupe.1G575600.1_v2.0.a1	Pp01:46889483..46889899-	118	13 596.51	9.35
PpNAC018	Prupe.1G587100.2_v2.0.a1	Pp01:47661676..47664477-	466	52 751.02	6.37
PpNAC019	Prupe.2G049200.1_v2.0.a1	Pp02:5659348..5661571+	204	22 296.43	4.27
PpNAC020	Prupe.2G091300.1_v2.0.a1	Pp02:14426671..14432723+	632	68 940.74	5.75
PpNAC021	Prupe.2G091500.1_v2.0.a1	Pp02:14455612..14459601+	590	66 058.21	4.53
PpNAC022	Prupe.2G196600.1_v2.0.a1	Pp02:23403495..23405479-	400	45 230.06	5.77
PpNAC023	Prupe.2G196800.1_v2.0.a1	Pp02:23419271..23419609-	87	10 131.63	5.32
PpNAC024	Prupe.2G201200.1_v2.0.a1	Pp02:23790709..23797562-	707	74 800.88	4.72
PpNAC025	Prupe.2G201300.1_v2.0.a1	Pp02:23798315..23802572-	652	70 487.90	4.72
PpNAC026	Prupe.2G201500.1_v2.0.a1	Pp02:23815459..23815917-	68	7 161.15	4.44
PpNAC027	Prupe.2G201600.1_v2.0.a1	Pp02:23817016..23820462-	323	35 729.10	5.63
基因名称 Gene name	登录号 ID	染色体位置 Chromosome location	氨基酸数量 Number of amino acids	分子量 Molecular weight/u	等电点 pI
PpNAC028	Prupe.2G201800.1_v2.0.a1	Pp02:23824119..23826779-	455	51 326.82	4.67
PpNAC029	Prupe.2G201900.1_v2.0.a1	Pp02:23827555..23834195-	457	51 160.40	4.69
PpNAC030	Prupe.2G202000.1_v2.0.a1	Pp02:23841599..23845657-	454	50 978.29	4.56
PpNAC031	Prupe.2G202200.1_v2.0.a1	Pp02:23848561..23850429-	491	55 686.99	4.85
PpNAC032	Prupe.2G202400.2_v2.0.a1	Pp02:23864645..23868096-	419	47 395.82	5.02
PpNAC033	Prupe.2G202500.1_v2.0.a1	Pp02:23868318..23871265-	444	51 288.55	4.89
PpNAC034	Prupe.2G202600.1_v2.0.a1	Pp02:23883009..23884343-	128	14 531.48	5.96
PpNAC035	Prupe.2G202700.1_v2.0.a1	Pp02:23886403..23889133-	432	50 109.05	4.59
PpNAC036	Prupe.2G202800.1_v2.0.a1	Pp02:23891043..23894028-	470	54 263.93	7.63
PpNAC037	Prupe.2G202900.1_v2.0.a1	Pp02:23895351..23898373-	461	53 884.37	7.66
PpNAC038	Prupe.2G203100.1_v2.0.a1	Pp02:23902536..23903399-	194	22 756.93	7.80
PpNAC039	Prupe.2G204700.2_v2.0.a1	Pp02:23984542..23986033+	221	26 073.66	7.55
PpNAC040	Prupe.2G204900.1_v2.0.a1	Pp02:23987662..23989315+	183	21 472.20	4.98
PpNAC041	Prupe.2G278100.1_v2.0.a1	Pp02:27875877..27879693-	321	37 065.29	6.09
PpNAC042	Prupe.2G319900.1_v2.0.a1	Pp02:29831471..29833093+	222	24 270.56	4.39
PpNAC043	Prupe.2G320600.1_v2.0.a1	Pp02:29853474..29856798-	544	60 887.10	4.87
PpNAC044	Prupe.3G014400.1_v2.0.a1	Pp03:1026994..1031590-	682	77 379.97	5.51
PpNAC045	Prupe.3G065000.1_v2.0.a1	Pp03:4659001..4660141-	374	41 615.34	4.92
PpNAC046	Prupe.3G111400.1_v2.0.a1	Pp03:9281361..9282710-	449	50 330.25	4.60
PpNAC047	Prupe.3G178000.2_v2.0.a1	Pp03:19470346..19473006-	223	25 461.20	9.52
PpNAC048	Prupe.3G264600.1_v2.0.a1	Pp03:24890994..24892912-	352	40 162.98	6.60
PpNAC049	Prupe.3G268400.1_v2.0.a1	Pp03:25058115..25060169+	398	44 493.70	6.95
PpNAC050	Prupe.3G293200.2_v2.0.a1	Pp03:26210598..26214422+	389	42 477.19	5.11
PpNAC051	Prupe.3G310600.1_v2.0.a1	Pp03:26977887..26979629+	237	27 315.82	9.36
PpNAC052	Prupe.4G040900.1_v2.0.a1	Pp04:1927075..1929036-	373	41 068.51	8.45
PpNAC053	Prupe.4G053300.1_v2.0.a1	Pp04:2574049..2576136+	318	35 868.34	8.47
PpNAC054	Prupe.4G106100.1_v2.0.a1	Pp04:5496176..5498944-	309	35 520.20	8.88
PpNAC055	Prupe.4G112200.1_v2.0.a1	Pp04:5939862..5942299-	589	68 906.06	8.24
PpNAC056	Prupe.4G123700.2_v2.0.a1	Pp04:6748812..6751639+	361	41 057.74	6.94
PpNAC057	Prupe.4G126800.1_v2.0.a1	Pp04:6964173..6967801+	353	40 265.62	4.76
PpNAC058	Prupe.4G138500.1_v2.0.a1	Pp04:7730640..7733031+	322	37 055.31	6.67
PpNAC059	Prupe.4G143600.1_v2.0.a1	Pp04:8234798..8239256+	324	36 486.27	8.08
PpNAC060	Prupe.4G151900.1_v2.0.a1	Pp04:8685959..8686814+	254	29 516.89	5.08
PpNAC061	Prupe.4G153700.1_v2.0.a1	Pp04:8803185..8804066-	293	33 679.65	4.71
PpNAC062	Prupe.4G154000.1_v2.0.a1	Pp04:8820781..8821665-	294	33 821.61	4.60
PpNAC063	Prupe.4G175800.1_v2.0.a1	Pp04:10406603..10409389+	358	39 669.39	7.16
PpNAC064	Prupe.4G186800.1_v2.0.a1	Pp04:11116814..11118655+	349	39 226.16	8.34
PpNAC065	Prupe.4G187100.1_v2.0.a1	Pp04:11138518..11140641+	363	40 353.33	7.78
PpNAC066	Prupe.4G230600.1_v2.0.a1	Pp04:14769628..14771233+	363	41 370.74	4.69
PpNAC067	Prupe.4G230900.1_v2.0.a1	Pp04:14794681..14796205+	379	42 660.02	4.68
PpNAC068	Prupe.4G231000.1_v2.0.a1	Pp04:14804110..14805629+	381	42 670.04	4.63
PpNAC069	Prupe.4G246100.1_v2.0.a1	Pp04:16347760..16349143-	405	45 283.03	4.72
PpNAC070	Prupe.4G253600.1_v2.0.a1	Pp04:17380187..17382157-	385	44 506.96	6.37
PpNAC071	Prupe.4G255500.1_v2.0.a1	Pp04:17789226..17790714+	122	13 993.79	8.85
PpNAC072	Prupe.4G279600.1_v2.0.a1	Pp04:23605886..23608135+	292	33 718.09	6.11
PpNAC073	Prupe.5G006200.1_v2.0.a1	Pp05:707797..710859+	437	49 281.37	6.25
PpNAC074	Prupe.5G040400.1_v2.0.a1	Pp05:4430568..4433387-	344	39 145.21	5.28
PpNAC075	Prupe.5G076100.2_v2.0.a1	Pp05:9011205..9015718-	362	42 319.14	6.54
PpNAC076	Prupe.5G131900.1_v2.0.a1	Pp05:12690115..12692055-	436	50 162.09	6.17
PpNAC077	Prupe.5G135400.1_v2.0.a1	Pp05:12859748..12864064-	862	96 115.03	5.19
PpNAC078	Prupe.5G146100.1_v2.0.a1	Pp05:13431803..13433032-	264	29 871.59	8.21
基因名称 Gene name	登录号 ID	染色体位置 Chromosome location	氨基酸数量 Number of amino acids	分子量 Molecular weight/u	等电点 pI
PpNAC079	Prupe.5G196000.1_v2.0.a1	Pp05:15882585..15884747+	360	40 482.70	7.65
PpNAC080	Prupe.5G203200.1_v2.0.a1	Pp05:16322326..16323545+	182	20 966.42	6.19
PpNAC081	Prupe.5G221600.1_v2.0.a1	Pp05:17242546..17244798+	354	39 694.41	7.00
PpNAC082	Prupe.5G241300.1_v2.0.a1	Pp05:18167430..18170519-	261	29 885.22	5.07
PpNAC083	Prupe.5G244600.1_v2.0.a1	Pp05:18323103..18326470-	167	18 054.39	6.17
PpNAC084	Prupe.6G057300.1_v2.0.a1	Pp06:4012836..4014128+	327	37 364.00	5.18
PpNAC085	Prupe.6G092100.1_v2.0.a1	Pp06:6347818..6348948+	376	43 599.37	4.72
PpNAC086	Prupe.6G098300.1_v2.0.a1	Pp06:6843896..6844935-	246	28 556.34	8.85
PpNAC087	Prupe.6G098400.1_v2.0.a1	Pp06:6852172..6852417-	81	9 538.84	5.70
PpNAC088	Prupe.6G098600.1_v2.0.a1	Pp06:6857507..6859210-	348	39 831.73	8.18
PpNAC089	Prupe.6G103600.1_v2.0.a1	Pp06:7246334..7247707+	457	51 916.25	4.49
PpNAC090	Prupe.6G112000.1_v2.0.a1	Pp06:8054391..8055047+	219	25 305.55	9.34
PpNAC091	Prupe.6G133600.1_v2.0.a1	Pp06:10488017..10489878-	372	42 101.02	4.84
PpNAC092	Prupe.6G134000.1_v2.0.a1	Pp06:10531506..10533341-	372	42 101.02	4.84
PpNAC093	Prupe.6G134400.1_v2.0.a1	Pp06:10621079..10622787+	253	28 999.51	5.67
PpNAC094	Prupe.6G138100.1_v2.0.a1	Pp06:11223633..11228642+	390	43 747.80	5.88
PpNAC095	Prupe.6G238600.1_v2.0.a1	Pp06:23830614..23832830+	356	40 456.38	8.25
PpNAC096	Prupe.7G001200.1_v2.0.a1	Pp07:160287..162425+	383	42 910.39	8.23
PpNAC097	Prupe.7G001400.1_v2.0.a1	Pp07:206425..208570+	459	51 029.38	5.70
PpNAC098	Prupe.7G013900.1_v2.0.a1	Pp07:1953064..1958262-	431	48 224.95	5.19
PpNAC099	Prupe.7G014100.2_v2.0.a1	Pp07:2010746..2015688+	503	56 128.13	4.77
PpNAC100	Prupe.7G020000.1_v2.0.a1	Pp07:2997305..3001866+	201	22 047.21	4.29
PpNAC101	Prupe.7G061900.1_v2.0.a1	Pp07:10096751..10098559+	425	47 682.16	5.06
PpNAC102	Prupe.7G064900.1_v2.0.a1	Pp07:10332541..10335805-	326	37 287.93	5.72
PpNAC103	Prupe.7G065000.1_v2.0.a1	Pp07:10338166..10339835-	428	49 202.80	5.91
PpNAC104	Prupe.7G092400.2_v2.0.a1	Pp07:12503352..12507065+	356	39 886.74	5.08
PpNAC105	Prupe.7G102000.1_v2.0.a1	Pp07:13186995..13188904-	285	32 123.71	6.76
PpNAC106	Prupe.7G166300.1_v2.0.a1	Pp07:17014002..17018578+	335	38 649.15	5.00
PpNAC107	Prupe.7G217000.2_v2.0.a1	Pp07:19589218..19594669+	492	55 447.38	6.65
PpNAC108	Prupe.8G002500.1_v2.0.a1	Pp08:228506..230784+	378	42 895.62	7.29
PpNAC109	Prupe.8G035300.1_v2.0.a1	Pp08:3249694..3253129+	351	39 171.89	5.24
PpNAC110	Prupe.8G035400.1_v2.0.a1	Pp08:3254083..3258277+	351	39 402.11	5.08
PpNAC111	Prupe.8G035500.1_v2.0.a1	Pp08:3261961..3265416+	432	48 336.96	4.54
PpNAC112	Prupe.8G045800.1_v2.0.a1	Pp08:4838306..4842516+	577	65 599.97	4.91
PpNAC113	Prupe.8G058100.1_v2.0.a1	Pp08:7293635..7297369+	306	35 584.73	6.17
PpNAC114	Prupe.8G074800.1_v2.0.a1	Pp08:10907812..10909438-	271	30 979.25	8.93
PpNAC115	Prupe.8G095200.1_v2.0.a1	Pp08:12759198..12760058-	286	33 137.99	5.56
PpNAC116	Prupe.8G097100.1_v2.0.a1	Pp08:12910103..12910996+	297	34 395.46	5.73
PpNAC117	Prupe.8G174800.1_v2.0.a1	Pp08:17765903..17768100+	291	33 889.69	6.62
PpNAC118	Prupe.8G221900.1_v2.0.a1	Pp08:20115448..20119485+	284	32 867.25	5.64
PpNAC119	Prupe.I005300.1_v2.0.a1	scaffold_53:3766..5243-	381	42512.91	4.61

Bioinformatics analysis of peach NAC gene family and its expression characteristics in response to low temperature stress

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