安徽农业科学

参考文献

[1] 孔庆博，向婷婷，邝雪琨，等.我国西南和东部地区野生油茶及其近缘物种资源调查、收集与保护[J].植物科学学报，2022,40(5):646-656.

[2] LIN P,YIN H F,YAN C,et al.Association genetics identifies single nucleotide polymorphisms related to kernel oil content and quality in Camellia oleifera[J].Journal of agricultural food chemistry,2019,67(9):2547-2562.

[3] LI S J,HUANG H,MA X J,et al.Characterizations of MYB transcription factors in Camellia oleifera reveal the key regulators involved in oil biosynthesis[J].Horticulturae,2022,8(8):1-19.

[4] SU M H,SHIH M C,LIN K H.Chemical composition of seed oils in native Taiwanese Camellia species[J].Food chemistry,2014,156:369-373.

[5] YE S.Comparative lipidomic analysis on fresh kernels of two Camellia oleifera cultivars ‘Huaxin’and ‘Huashuo’at the mature stage[R].2023.

[6] LIN P,WANG K L,WANG Y P,et al.The genome of oil-Camellia and population genomics analysis provide insights into seed oil domestication[J].Genome biology,2022,23(1):1-21.

[7] SHEN T F,HUANG B,XU M,et al.The reference genome of Camellia chekiangoleosa provides insights into Camellia evolution and tea oil biosynthesis[J].Horticulture research,2022,9:1-11.

[8] GONG W F,XIAO S X,WANG L K,et al.Chromosome-level genome of Camellia lanceoleosa provides a valuable resource for understanding genome evolution and self-incompatibility[J].The plant journal,2022,110(3):881-898.

[9] ZHANG F,FENG L Y,LIN P F,et al.Chromosome-scale genome assembly of oil-tea tree Camellia crapnelliana[J].Scientific data,2024,11(1):1-8.

[10] ZHANG L,SHI Y,GONG W F,et al.The tetraploid Camellia oleifera genome provides insights into evolution,agronomic traits,and genetic architecture of oil Camellia plants[J].Cell reports,2024,43(11):1-24.

[11] ZHU H G,WANG F Q,XU Z P,et al.The complex hexaploid oil-Camellia genome traces back its phylogenomic history and multi-omics analysis of Camellia oil biosynthesis[J].Plant biotechnology journal,2024,22(10):2890-2906.

[12] HAO B Q,XIA Y Y,ZHANG Z Y,et al.Comparative analysis of the complete chloroplast genome sequences of four Camellia species[J].Brazilian journal of botany,2024,47(1):93-103.

[13] ZHANG W,ZHAO Y L,YANG G Y,et al.Determination of the evolutionary pressure on Camellia oleifera on Hainan Island using the complete chloroplast genome sequence[J].PeerJ,2019,7:1-25.

[14] CHEN J,GUO Y J,HU X W,et al.Comparison of the chloroplast genome sequences of 13 oil-tea Camellia samples and identification of an undetermined oil-tea camellia species from Hainan Province[J].Frontiers in plant science,2022,12:1-16.

[15] LU C,GAO L Z,ZHANG Q J.A high-quality genome assembly of the mitochondrial genome of the oil-tea tree Camellia gigantocarpa(Theaceae)[J].Diversity,2022,14(10):1-12.

[16] XIAO Z,GU Y Y,ZHOU J Q,et al.De novo assembly of the complete mitochondrial genomes of two Camellia-oil tree species reveals their multibranch conformation and evolutionary relationships[J].Scientific reports,2025,15(1):1-15.

[17] GU Y Y,YANG L Y,ZHOU J Q,et al.Mitochondrial genome study of Camellia oleifera revealed the tandem conserved gene cluster of nad5-nads in evolution[J].Frontiers in plant science,2024,15:1-15.

[18] LIANG H,QI H S,CHEN J L,et al.Assembly and analysis of the first complete mitochondrial genome sequencing of main Tea-oil Camellia cultivars Camellia drupifera(Theaceae):Revealed a multi-branch mitochondrial conformation for Camellia[J].BMC plant biology,2025,25(1):1-19.

[19] DU W,DING J,LI J B,et al.Co-regulatory effects of hormone and mRNA-miRNA module on flower bud formation of Camellia oleifera[J].Frontiers in plant science,2023,14:1-13.

[20] GUO H Y,ZHONG Q P,TIAN F,et al.Transcriptome analysis reveals putative induction of floral initiation by old leaves in tea-oil tree(Camellia oleifera ‘changlin53’)[J].International journal of molecular,2022,23(21):1-19.

[21] REN S S,JUAN L M,HE J C,et al.Expression analysis and interaction protein screening of CoZTL in Camellia oleifera Abel[J].Horticulturae,2023,9(7):1-14.

[22] LEI H J,SU S C,MA L Y,et al.Molecular cloning and functional characterization of CoFT1,a homolog of FLOWERING LOCUS T(FT)from Camellia oleifera[J].Gene,2017,626:215-226.

[23] YAN J D,HE J C,LI J A,et al.Analysis of Camellia oleifera transcriptome reveals key pathways and hub genes involved during different photoperiods[J].BMC plant biology,2022,22(1):1-13.

[24] HU J J,SONG H,CAO Z H,et al.Comparative analysis of transcriptome at different growth and development stages of Camellia oleifera[J].Russian journal of plant physiology,2024,71(3):1-11.

[25] ZENG H T,CHEN M J,ZHENG T,et al.Metabolomics analysis reveals the accumulation patterns of flavonoids and volatile compounds in Camellia oleifera petals with different color[J].Molecules,2023,28(21):1-16.

[26] ZENG H T,ZHENG T,TANG Q,et al.Integrative metabolome and transcriptome analyses reveal the coloration mechanism in Camellia oleifera petals with different color[J].BMC plant biology,2024,24(1):1-16.

[27] WANG Y,LI J A,GUO P R,et al.Ectopic expression of Camellia oleifera Abel.gibberellin 20-oxidase gene increased plant height and promoted secondary cell walls deposition in Arabidopsis[J].Planta,2023,258(3):1-18.

[28] ZHOU J Q,LU M Q,YU S S,et al.In-depth understanding of Camellia oleifera self-incompatibility by comparative transcriptome,proteome and metabolome[J].International journal of molecular sciences,2020,21(5):1-23.

[29] LI C,LONG Y,LU M Q,et al.Gene coexpression analysis reveals key pathways and hub genes related to late-acting self-incompatibility in Camellia oleifera[J].Frontiers in plant science,2023,13:1-17.

[30] HE Y F,SONG Q Q,CHEN S P,et al.Transcriptome analysis of self-and cross-pollinated pistils revealing candidate unigenes of self-incompatibility in Camellia oleifera[J].The journal of horticultural science biotechnology,2020,95(1):19-31.

[31] HE Y F,SONG Q Q,WU Y F,et al.TMT-based quantitative proteomic analysis reveals the crucial biological pathways involved in self-incompatibility responses in Camellia oleifera[J].International journal of molecular sciences,2020,21(6):1-18.

[32] 蒋思思，周俊琴，卢梦琪，等.油茶自、异交雌蕊 CAT 活性及相关基因克隆表达分析[J].植物科学学报，2022,40(6):810-819.

[33] LI C,LU M Q,ZHOU J Q,et al.Transcriptome analysis of the late-acting self-incompatibility associated with RNase T2 family in Camellia oleifera[J].Plants,2023,12(10):1-22.

[34] CHANG Y H,GONG W F,XU J M,et al.Integration of semi-in vivo assays and multi-omics data reveals the effect of galloylated catechins on self-pollen tube inhibition in Camellia oleifera[J].Horticulture research,2023,10(1):1-14.

[35] LU M Q,ZHOU J Q,JIANG S S,et al.The fasciclin-like arabinogalactan proteins of Camellia oil tree are involved in pollen tube growth[J].Plant science,2023,326:1-12.

[36] LU M Q,ZHOU J Q,LIU Y Y,et al.CoNPR1 and CoNPR3.1 are involved in SA-and MeSA-mediated growth of the pollen tube in Camellia oleifera[J].Physiologia plantarum,2021,172(4):2181-2190.

[37] KONG L S,ZHUO Y J,XU J R,et al.Identification of long non-coding RNAs and microRNAs involved in anther development in the tropical Camellia oleifera[J].BMC genomics,2022,23(1):1-18.

[38] 陈雨晴，杜兵帅，王胜楠，等.油菜胚珠败育的组织学特性及相关基因表达分析[J].北京林业大学学报，2023,45(9):9-20.

[39] ZHAO S Z,RONG J.Single-cell RNA-seq reveals a link of ovule abortion and sugar transport in Camellia oleifera[J].Frontiers in plant science,2024,15:1-16.

[40] LI H E,HU Y,GAO C,et al.Integrated SMRT technology with UMI RNA-Seq reveals the hub genes in stamen petalody in Camellia oleifera[J].Forests,2021,12(6):1-13.

[41] GAO X L,YANG Y,YE J W,et al.Abnormal calcium accumulation and ROS homeostasis-induced tapetal programmed cell death lead to pollen abortion of petaloid-type cytoplasmic male sterility in Camellia oleifera[J].Agronomy,2024,14(3):1-15.

[42] CHANG Y H,XU J M,GUO X M,et al.Tannase increases fruit set by interfering with self-incompatibility of Camellia oleifera[J].Industrial crops products,2024,210:1-11.

[43] LIU Y Y,ZHOU J Q,LU M Q,et al.The core jasmonic acid-signalling module CoCOI1/CoJAZ1/CoMYC2 are involved in Jas mediated growth of the pollen tube in Camellia oleifera[J].Current issues in molecular biology,2022,44(11):5405-5415.

[44] MA X L,CHEN S W,LI J W,et al.Transcriptome analysis unravels key pathways and hub genes related to immature fruit abscission in Camellia oleifera[J].Frontiers in plant science,2024,15:1-11.

[45] HU X,YANG M,GONG S F,et al.Ethylene-regulated immature fruit abscission is associated with higher expression of CoACO genes in Camellia oleifera[J].Royal society open science,2021,8(6):1-11.

[46] YANG M,HU X,OUYANG X,et al.Molecular cloning and characterization of three CoIDA genes in Camellia oleifera[J].Brazilian journal of botany,2021,44:391-400.

[47] SHENG Y,YAO X H,LIU L X,et al.Transcriptomic time-course sequencing:Insights into the cell wall macromolecule-mediated fruit dehiscence during ripening in Camellia oleifera[J].Plants,2023,12(18):1-15.

[48] SONG Q Q,CHEN S P,WU Y F,et al.Comparative transcriptome analyses of gene response to different light conditions of Camellia oleifera leaf using illumina and single-molecule real-time-based RNA-sequencing[J].Forests,2020,11(1):1-24.

[49] WU Y,MA L,ZHANG L S,et al.Photosynthetic carbon and nitrogen metabolism of Camellia oleifera Abel during acclimation to low light conditions[J].Journal of plant physiology,2022,278:1-11.

[50] HE Z L,LIU C X,WANG X N,et al.Leaf transcriptome and weight gene co-expression network analysis uncovers genes associated with photosynthetic efficiency in Camellia oleifera[J].Biochemical genetics,2021,59(2):398-421.

[51] YANG J H,CHEN B B,MANAN S,et al.Critical metabolic pathways and SAD/FADs,WRI1s,and DGATs cooperate for high-oleic acid oil production in developing oil tea(Camellia oleifera)seeds[J].Horticulture research,2022,9:1-23.

[52] 陈鸿鹏，谭晓风，谢耀坚，等.油茶CoSAD基因载体的构建、鉴定及功能分析[J].植物资源与环境学报，2015,24(2):11-18.

[53] WU B,RUAN C J,HAN P,et al.Comparative transcriptomic analysis of high-and low-oil Camellia oleifera reveals a coordinated mechanism for the regulation of upstream and downstream multigenes for high oleic acid accumulation[J].3 Biotech,2019,9(7):1-19.

[54] YE Z Q,MAO D,WANG Y J,et al.Comparative genome-wide identification of the fatty acid desaturase gene family in tea and oil tea[J].Plants,2024,13(11):1-15.

[55] 林萍，周长富，姚小华，等.普通油茶两个Δ-12脂肪酸脱氢酶基因序列特征及表达模式研究[J].林业科学研究，2016,29(5):743-751.

[56] YANG D Y,WANG R,LAI H G,et al.Comparative transcriptomic and lipidomic analysis of fatty acid accumulation in three Camellia oleifera varieties during seed maturing[J].Journal of agricultural food chemistry,2024,72(32):18257-18270.

[57] LIN P,WANG K L,ZHOU C F,et al.Seed transcriptomics analysis in Camellia oleifera uncovers genes associated with oil content and fatty acid composition[J].International journal of molecular sciences,2018,19(1):1-17.

[58] LI Z,WANG J Y,LONG H X,et al.Cloning and expression analysis of an aldehyde dehydrogenase gene from Camellia oleifera[J].Nanoscience and nanotechnology letters,2017,9(3):364-373.

[59] WU B,RUAN C J,ZHANG W C,et al.Comparative profiling of microRNA expression in the developing seeds of high-and low-oil tea oil camellia(Camellia oleifera)cultivars[EB/OL].(2019-07-17)[2024-08-25].https://doiorg/1021203/rs211530/v1.

[60] LIU X X,LUO X F,LUO K X,et al.Small RNA sequencing reveals dynamic microRNA expression of important nutrient metabolism during development of Camellia oleifera fruit[J].International journal of biological sciences,2019,15(2):416-429.

[61] FENG J L,YANG Z J,BAI W W,et al.Transcriptome comparative analysis of two Camellia species reveals lipid metabolism during mature seed natural drying[J].Trees,2017,31(6):1827-1848.

[62] GONG W F,SONG Q L,JI K,et al.Full-length transcriptome from Camellia oleifera seed provides insight into the transcript variants involved in oil biosynthesis[J].Journal of agricultural and food chemistry,2020,68(49):14670-14683.

[63] PENG S F,LU J,ZHANG Z,et al.Global transcriptome and correlation analysis reveal cultivar-specific molecular signatures associated with fruit development and fatty acid determination in Camellia oleifera Abel[J].International journal of genomics,2020,2020(1):1-16.

[64] YE Z C,WU Y G,UL HAQ MUHAMMAD Z,et al.Complementary transcriptome and proteome profiling in the mature seeds of Camellia oleifera from Hainan Island[J].PLoS One,2020,15(2):1-33.

[65] YE Z C,YU J,YAN W P,et al.Integrative iTRAQ-based proteomic and transcriptomic analysis reveals the accumulation patterns of key metabolites associated with oil quality during seed ripening of Camellia oleifera[J].Horticulture research,2021,8(1):1-26.

[66] CHEN M J,ZHANG Y,DU Z H,et al.Integrative metabolic and transcriptomic profiling in Camellia oleifera and Camellia meiocarpa uncover potential mechanisms that govern triacylglycerol degradation during seed desiccation[J].Plants,2023,12(14):1-22.

[67] ZHOU J,DU B S,CAO Y B,et al.Genome-wide identification of sucrose transporter genes in Camellia oleifera and characterization of CoSUT4[J].Journal of integrative agriculture,2025,24(9):3494-3510.

[68] YANG R,YAN Y D,ZENG Y L,et al.Correlation between squalene synthase promoter and WRKY transcription factor in Camellia oleifera[J].The journal of horticultural science biotechnology,2021,96(1):34-43.

[69] LI A R,DU Q H,ZENG Y L,et al.Light regulated CoWRKY15 acts on CoSQS promoter to promote squalene synthesis in Camellia oleifera seeds[J].International journal of molecular sciences,2024,25(20):1-20.

[70] DU Q,GE L,ZENG Y,et al.Identification and expression characterization of a WRKY transcription factor affecting squalene synthesis in Camellia oleifera[EB/OL].[2024-07-25].https://doiorg/1021203/rs3rs-4204 992/v1.

[71] SONG Q L,JI K,YU X R,et al.Dynamic metabolic and transcriptomic profiling reveal synthetic characters and regulators of flavonoid biosynthesis in Camellia oleifera seeds[J].Industrial crops products,2022,186:1-14.

[72] YANG L Y,GU Y Y,ZHOU J Q,et al.Whole-genome identification and analysis of multiple gene families reveal candidate genes for theasaponin biosynthesis in Camellia oleifera[J].International journal of molecular sciences,2022,23(12):1-20.

[73] LIU Y N,GENG Y Y,ZHANG S X,et al.Quantitative analysis and screening for key genes related to tea saponin in Camellia oleifera Abel.seeds[J].Food bioscience,2022,49:1-9.

[74] TAI Y L,WEI C L,YANG H,et al.Transcriptomic and phytochemical analysis of the biosynthesis of characteristic constituents in tea(Camellia sinensis)compared with oil tea(Camellia oleifera)[J].BMC plant biology,2015,15:1-13.

[75] 丁少净，钟秋平，袁婷婷，等.干旱胁迫对油茶花苞生长及产量的影响[J].南京林业大学学报(自然科学版),2017,41(5):197-202.

[76] 董斌，李荣喜，洪文泓，等.油茶干旱胁迫响应机制的研究进展[J].生物技术通报，2020,36(1):144-149.

[77] YE Z H,DU B S,ZHOU J,et al.Camellia oleifera CoSWEET10 is crucial for seed development and drought resistance by mediating sugar transport in transgenic Arabidopsis[J].Plants,2023,12(15):1-16.

[78] LIU L X,XU J,CHEN J J,et al.The LEA2 gene sub-family:Characterization,evolution,and potential functions in Camellia oleifera seed development and stress response[J].Scientia horticulturae,2023,322:1-12.

[79] DONG B,WU B,HONG W H,et al.Transcriptome analysis of the tea oil camellia(Camellia oleifera)reveals candidate drought stress genes[J].PLoS One,2017,12(7):1-25.

[80] YANG H,ZHOU H Y,YANG X N,et al.Transcriptomic analysis of Camellia oleifera in response to drought stress using high throughput RNA-seq[J].Russian journal of plant physiology,2017,64(5):728-737.

[81] ZHANG Z,XU Y M,LIU C X,et al.Cataloging the genetic response:Unveiling drought-responsive gene expression in oil tea camellia(Camellia oleifera Abel.)through transcriptomics[J].Life,2024,14(8):1-15.

[82] SHEN S S,YAN W P,XIE S A,et al.Comparison of morphological,physiological,and related gene expression responses to drought stress in five Camellia vietnamensis cultivars[J].Agronomy,2024,14(5):1-19.

[83] XING K F,ZHANG J,XIE H X,et al.Identification and analysis of MAPK cascade gene families of Camellia oleifera and their roles in response to cold stress[J].Molecular biology reports,2024,51(1):1-15.

[84] WU L L,LI J A,LI Z,et al.Transcriptomic analyses of Camellia oleifera ‘Huaxin’leaf reveal candidate genes related to long-term cold stress[J].International journal of molecular sciences,2020,21(3):1-21.

[85] WU L L,WANG Y J,GUO P R,et al.Metabonomic and transcriptomic analyses of Camellia oleifera flower buds treated with low-temperature stress during the flowering stage[J].Industrial crops products,2022,189:115874.

[86] WANG Y J,WU L L,SUN M H,et al.Transcriptomic and metabolomic insights on the molecular mechanisms of flower buds in responses to cold stress in two Camellia oleifera cultivars[J].Frontiers in plant science,2023,14:1126660.

[87] CHEN J M,YANG X Q,HUANG X M,et al.Leaf transcriptome analysis of a subtropical evergreen broadleaf plant,wild oil-tea camellia(Camellia oleifera),revealing candidate genes for cold acclimation[J].BMC genomics,2017,18(1):1-14.

[88] XIE H X,ZHANG J,CHENG J Y,et al.Field plus lab experiments help identify freezing tolerance and associated genes in subtropical evergreen broadleaf trees:A case study of Camellia oleifera[J].Frontiers in plant science,2023,14:1-19.

[89] XIE H X,XING K F,ZHANG J,et al.Genome survey and identification of key genes associated with freezing tolerance in genomic draft of hexaploid wild Camellia oleifera[J].The journal of horticultural science biotechnology,2024,99(3):326-335.

[90] XIE H X,XING K F,ZHOU J,et al.Single-nucleotide polymorphisms and copy number variations drive adaptive evolution to freezing stress in a subtropical evergreen broad-leaved tree:Hexaploid wild Camellia oleifera[J].Plant diversity,2025,47(2):214-228.

[91] ZHANG S P,GUO Y,LI S Z,et al.Functional analysis of CfSnf1 in the development and pathogenicity of anthracnose fungus Colletotrichum fructicola on tea-oil tree[J].BMC genetics,2019,20(1):1-9.

[92] ZHANG S P,GUO Y,CHEN S Q,et al.The histone acetyltransferase CfGcn5 regulates growth,development,and pathogenicity in the anthracnose fungus Colletotrichum fructicola on the tea-oil tree[J].Frontiers in microbiology,2021,12:1-13.

[93] ZHANG S P,LUO J,CHEN Y,et al.Vesicle trafficking mediated by small GTPase CfRab6 in association with CfRic1 and CfRgp1 governs growth,conidiation,and pathogenicity of Colletotrichum fructicola[J].International journal of biological macromolecules,2025,289:138988.

[94] LI J B,XIONG C W,RUAN D,et al.Identification of Camellia oleifera WRKY transcription factor genes and functional characterization of CoWRKY78[J].Frontiers in plant science,2023,14:1-13.

[95] ZHOU A T,TANG J R,DU Q J,et al.Comparative physiological and transcriptomic analyses provide induction resistance mechanisms of Bacillus tequilensis against Colletotrichum fructicola in Camellia oleifera[J].Plant physiology biochemistry,2024,214:108912.

[96] HE Y,MIAO X Y,XIA Y D,et al.The research of antagonistic endophytic bacterium Bacillus velezensis CSUFT-BV4 for growth promotion and induction of resistance to anthracnose in Camellia oleifera[J].Microorganisms,2024,12(4):1-23.

[97] ZHOU J Q,LIU Y Y,CHEN M,et al.Transcriptomic and metabolomic profiling of Camellia oleifera seedling roots treated with different nitrogen forms[J].Plant growth regulation,2023,99(2):215-227.

[98] CHEN J J,HAN X J,LIU L X,et al.Genome-wide detection of SPX family and profiling of CoSPX-MFS3 in regulating low-phosphate stress in tea-oil Camellia[J].International journal of molecular sciences,2023,24(14):1-17.

[99] CHEN J J,HAN X J,YE S C,et al.Integration of small RNA,degradome,and transcriptome sequencing data illustrates the mechanism of low phosphorus adaptation in Camellia oleifera[J].Frontiers in plant science,2022,13:1-16.

[100] SUN L L,ZHANG M S,LIU X M,et al.Aluminium is essential for root growth and development of tea plants(Camellia sinensis)[J].Journal of integrative plant biology,2020,62(7):984-997.

[101] 程俊森，王溢，李永泉，等.基于Label-free技术的高州油茶铝胁迫蛋白质组学研究[J].中南林业科技大学学报，2023,43(8):169-181.

[102] QU X J,ZHOU J Q,MASABNI J,et al.Phosphorus relieves aluminum toxicity in oil tea seedlings by regulating the metabolic profiling in the roots[J].Plant physiology biochemistry,2020,152:12-22.

[103] WANG Y,GUO P R,SHENG S,et al.Identification of CoDREB genes for drought and cold tolerance in Camellia oleifera[J].International journal of plant biology,2023,14(1):228-241.

[104] WANG B M,CHEN J J,CHEN L S,et al.Combined drought and heat stress in Camellia oleifera cultivars:Leaf characteristics,soluble sugar and protein contents,and Rubisco gene expression[J].Trees,2015,29(5):1483-1492.

[105] LI Q Y,ZHU W,SUN S M,et al.Unraveling the metabolic profile regulation of Camellia oilseeds under insect and heat stress:Insights into functional effects and mechanistic basis[J].Food chemistry:X,2024,23:101619.