菜薹TCP家族基因鉴定及其对腋芽性状的影响

doi:10.16420/j.issn.0513-353x.2025-0094

园艺学报 ›› 2026, Vol. 53 ›› Issue (1): 82-98.doi: 10.16420/j.issn.0513-353x.2025-0094

• 遗传育种·种质资源·分子生物学 • 上一篇下一篇

菜薹TCP家族基因鉴定及其对腋芽性状的影响

朱彩烁¹^,²^,^*, 李建忠²^,³^,^*, 张倩男²^,⁴, 徐丽杰²^,⁵, 张淑江², 章时蕃², 李菲², 张慧², 徐进¹, 宋子涵²^,^**(), 李国亮²^,^**()

¹ 山西农业大学园艺学院，山西太谷 030801
² 中国农业科学院蔬菜花卉研究所，蔬菜生物育种全国重点实验室，北京 100081
³ 安徽农业大学园艺学院，合肥 230036
⁴ 宁夏农林科学院固原分院，宁夏固原 756000
⁵ 沈阳农业大学林学院，沈阳 110866

收稿日期:2025-04-17 修回日期:2025-09-19 出版日期:2026-01-25 发布日期:2026-01-26
通讯作者:
^**E-mail：songzihan@caas.cn，
liguoliang@caas.cn
作者简介:
^*共同第一作者
基金资助:
重庆市自然科学基金(CSTB2025NSCQ-GPX0681); 中国农业科学院创新工程项目(CAAS-ASTIP-IVFCAAS); 农业农村部园艺作物生物学与种质创制重点实验室项目; 现代农业产业技术体系建设专项资助(CARS-23-A-14)

Identification of the TCP Gene Family in Brassica campestris and Analysis of Their Effects on Axillary Bud Traits

ZHU Caishuo¹^,², LI Jianzhong²^,³, ZHANG Qiannan²^,⁴, XU Lijie²^,⁵, ZHANG Shujiang², ZHANG Shifan², LI Fei², ZHANG Hui², XU Jin¹, SONG Zihan²^,^**(), LI Guoliang²^,^**()

¹ College of Horticulture， Shanxi Agricultural University，Taigu， Shanxi 030801， China
² State Key Laboratory of Vegetable Biobreeding， Institute of Vegetables and Flowers，Chinese Academy of Agricultural Sciences， Beijing 100081， China
³ College of Horticulture， Anhui Agricultural University， Hefei 230036， China
⁴ Guyuan Branch， Ningxia Academy of Agricultural and Forestry Sciences，Guyuan， Ningxia 756000， China
⁵ College of Forestry， Shenyang Agricultural University， Shenyang 110866， China

Received:2025-04-17 Revised:2025-09-19 Published:2026-01-25 Online:2026-01-26

摘要/Abstract

摘要：

解析TCP基因家族调控菜薹腋芽形成的机制，对于改良菜薹株型具有重要意义。基于拟南芥TCP家族成员与菜薹基因组的同源关系，筛选并鉴定出菜薹TCP家族成员，进行理化性质、系统发育关系、基因结构、染色体定位、共线性分析，同时对不同品种的菜薹材料中TCP家族基因的表达量进行分析，进一步筛选出与菜薹腋芽发育相关的关键基因进行亚细胞定位分析。结果表明，在菜薹中共鉴定出39个TCP家族成员，均包含保守的TCP结构域。TCP家族基因在染色体上分布不均匀。通过选择腋芽数量不同的4种菜薹材料进行实时荧光定量分析，发现TCP家族中的BraA05g005380.3C、BraA07g034590.3C、BraA03g048240.3C、BraA02g018710.3C、BraA03g038400.3C和BraA01g034360.3C具有明显的表达量差异，推测这些基因是正向调控菜薹腋芽发育的关键候选基因。对上述6个基因进行亚细胞定位分析发现，BraA07g034590.3C基因定位在细胞核膜上，其余基因均定位在细胞核中。

关键词: 菜薹, TCP, 基因家族, 腋芽, 调控基因

Abstract:

Elucidating the mechanism by with the TCP gene family regulates of axillary buds in Brassica campestris is important for enhancing the plant architecture of B. campestris. Based on the homology between Arabidopsis TCP family members and the Brassica rapa genome，the TCP family members of Brassica campestris were screened and identified for physicochemical properties， phylogenetic relationships，gene structure，chromosomal localization，and covariance analysis，and the expression of TCP family genes in different Brassica campestris materials was also analyzed，and key genes related to the development of axillary buds of Brassica campestris were further identified for subcellular localization analysis. The results showed that a total of 39 TCP family members were identified in Brassica campestris，all of which contained conserved TCP structural domains. the TCP family genes were distributed unevenly on the chromosome. By selecting four kinds of Brassica campestris materials with different numbers of axillary buds for real-time fluorescence quantitative analysis，it was found that the TCP family of BraA05g005380.3C，BraA07g034590.3C，BraA03g048240.3C，BraA02g018710.3C，BraA03g038400.3C，and BraA01g034360.3C had significant expression differences，and it was hypothesized that these genes were key candidate genes for positively regulating axillary bud growth in Brassica campestris. Subcellular localization analysis of the above six genes revealed that the BraA07g034590.3C gene was localized to the nuclear membrane of the cell，while the rest of the genes were localized in the nucleus.

Key words: Brassica campestris, TCP, gene family, axillary bud, regulation gene

朱彩烁, 李建忠, 张倩男, 徐丽杰, 张淑江, 章时蕃, 李菲, 张慧, 徐进, 宋子涵, 李国亮. 菜薹TCP家族基因鉴定及其对腋芽性状的影响[J]. 园艺学报, 2026, 53(1): 82-98.

ZHU Caishuo, LI Jianzhong, ZHANG Qiannan, XU Lijie, ZHANG Shujiang, ZHANG Shifan, LI Fei, ZHANG Hui, XU Jin, SONG Zihan, LI Guoliang. Identification of the TCP Gene Family in Brassica campestris and Analysis of Their Effects on Axillary Bud Traits[J]. Acta Horticulturae Sinica, 2026, 53(1): 82-98.

图/表 10

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[47]	Zhang Ying, Li Haijun, Gao Fucheng, Mu Xiaoguo, Gao Hu, Wu Xue, Ye Lin, Cao Kai. 2023. Screening of salt-tolerant cultivars of Brassica campestris L. and its salt-tolerant mechanism. Acta Agriculturae Boreali-Sinica, 38 (S1):170-179. (in Chinese)
	张莹, 李海俊, 高富成, 穆晓国, 高虎, 吴雪, 叶林, 曹凯. 2023. 菜心耐盐品种的筛选及其耐盐机理. 华北农学报, 38 (S1):170-179. doi: 10.7668/hbnxb.20194042
[48]	Zheng Ling, Bai Xueting, Li Huiyun. 2019. Genome-wide identification and expression analysis of TCP gene family in Sorghum bicolor L. Journal of Henan Agricultural Sciences, 48 (10):30-36. (in Chinese)
	郑玲, 白雪婷, 李会云. 2019. 高粱TCP基因家族全基因组鉴定及表达分析. 河南农业科学, 48 (10):30-36.
[49]	Zhou Erxun, Yang Mei, Zhang Hua, Liu Zizhu. 2002. Factors affecting the mycelial growth,sporulation and conidial germination of Colletotrichum higginsianum Sacc. Journal of Nanjing Agricultural University, 25 (2):47-51. (in Chinese)
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[50]	Zou Q, Dong Q, Tian D, Mao L, Cao X, Zhu K. 2023. Genome-wide analysis of TCP transcription factors and their expression pattern analysis of rose plants(Rosa chinensis). Current Issues in Molecular Biology, 45 (8):6352-6364. doi: 10.3390/cimb45080401 URL

基因编号 Gene ID	正向引物序列（5′-3′） Forward primer	反向引物序列（5′-3′） Reverse primer
BraA01g009870.3C	GCTTCCTTCCCTCAACAACACGAAT	GGCTGTTCTCTCTCTAGCTCTCTCC
BraA01g034360.3C	ATTATTGCTCACAACCATTACTCCC	GATGGTCAAGATGATTGTTTGATGT
BraA01g036950.3C	ACCGTCCGAGCAAAGCCGTTGACTG	GGCGACGGAGAGATTTTAGTTTTGG
BraA02g002690.3C	CGCCGTCAAAAAACCACCGACCAAG	GTGGCGGCTATGATGGAAGGCTCGG
BraA02g015610.3C	CCCAAACAAGCAACAGGAAGTCGGG	TCCTCCGACCACGTCCCTCTACTTT
BraA02g017550.3C	TAATCCCTACAATCATCAGTCAACA	TCATAACCTTTCTGATTCACAGCAC
BraA02g018710.3C	TCTTTCACTACTCATATCCTAAGCC	CCAGTTCTTCTTGGTGAAACCTTTT
BraA02g019350.3C	TGGCTCATCCTCATCAGGTGCGTCC	ATCCAGCCGTTGATTGAACTAAATA
BraA02g020650.3C	CCGCTAGAGTTTTCCAGTTGACGAG	GCGTAAAGTAGCGTTTAAAGTCGAG
BraA02g042560.3C	CTGAGCCTTCCATCATAGCCGCAAC	GGTATAGCACCTCCGAAACCCTCTC
BraA02g042770.3C	CAGAATCAGCCAAGTTCAGTACCAA	TTTGCTGTGTCTGTCTTTGCCACCA
BraA03g003300.3C	CGATTCAGCTCTACGACCTTCAAGA	TTCAAACCTTCTCTCTGGATCGTAT
BraA03g003460.3C	CACAATGGGGGCTTCTTTGATGAGT	GCCAGAAGATTGAGATGATGACCCG
BraA03g023810.3C	CAATAGGACCGCCACTGAAGAGAGC	GGCGTTCTCCAACAACCACCGAATC
BraA03g030780.3C	CTTTCACTCTTTTCAACCATCATCA	CACCTCTCTCATTGTTGTTTTCTTC
BraA03g036760.3C	TTTCTCCATCTCCTCCGCCGCAGCA	TGGTTATTATCATTACTCCGACGTT
BraA03g038400.3C	AACTCCAACATATCAAGCAATCCTC	GTTCAAGGGAAGAAGTGATGGATGA
BraA03g043950.3C	AGGTTGTCCGTTCCAACAGCAATTC	GGAAATTGTAATGGAGGGAGCTTGT
BraA03g048240.3C	CTAACTGGTGCTTCTCCTACCGCTG	CTCTCCTTGGTCTCTTTAGCTGTTC
BraA04g013610.3C	AATCAAACCCGCCACCGACTCCGTT	ACCAAACCCAGTCTCATTTTCCCAA
BraA05g005380.3C	CCGACGAACCAGCCTCAGATGTTAG	CTCCTGTTTCTCGTAAATCTCCAGC
BraA05g013580.3C	ATCTTCTTCTTCCGAGCCCAACTTG	ACCGCCGCTTGTAGTTGTTGTCGCC
BraA05g032060.3C	GAAACCGAGAAGAACCGCCGCTAAA	CTCGTTCTCGTTCCCCCGATGCTCC
BraA05g041050.3C	AAAATTAATGGATGTGTAGAAGAGT	GTTGATGCTGTTCCATGTATTGATA
BraA06g019370.3C	ACTTCACTTCTCTCAACATCTCTCT	GTTGCTGTTGAAGTAGCGATGGAGA
BraA06g030710.3C	AAGCTCCACCACTATTTCCACTTCC	GGCGTAGCAAAAGATCCCATGTCGT
BraA06g037920.3C	CATCTTCAGGGTGGTGGGTCTCTCA	CTCCATCTCCCCCGCCAACACCCCA
BraA07g030260.3C	AGTCACATTCTTCTTCTTCTTCGCA	CGTATTATCACCACTGCTCCAAAAC
BraA07g031420.3C	TTTCTCGCCAATTCTTCGATCTCCA	CCATCGTTTCCAAAATCTTCAACAT
BraA07g032600.3C	TCAAGAAGGCGGTGAAGAAAGATAG	GTCTAATGTTTTACTGGCTTTGTCA
BraA07g034590.3C	CTCTCTCTCTGCTGCTCATCTTCGT	AGAAGAAGAACAAGAATCCGACTCA
BraA07g036490.3C	ATGTCGTTTCAGGGTAGTGGAATGT	GGATTTCTCTCTGCCGACATTATAG
BraA08g001700.3C	GGCTATTCAGTTCTACGATGTTCAA	TTTTGGGTCTTTTGGGTTTGTTTGC
BraA08g023460.3C	AGCCGTCGTTGAATCATAGTAATAG	GAGAGGTAGTGAATTGGACTGAAGG
BraA09g003050.3C	AAGACGACAATCATCATCACAACAG	CTTTGGTGTGTCTGTCTTTGTTTGA
BraA09g006660.3C	TTACAACAACAGCAGCAACAAGCAG	GCTCCACTAGATAAAGAAGCAAGCA
BraA09g018190.3C	CACCATCAGTACGAGGAGCAAGGAG	TGTTGATGATGTTGCTGTTGTTGAT
BraA09g034850.3C	TCTTCCTCTTCTCTACATCATTACA	GAGAATGTGAATTGGACTGAAGGGT
BraA10g030640.3C	GTCAAGCCGAGCCTTCTATCATAGC	TGTGTCCAACCGATAATTCACCACC

基因编号 Gene ID	正向引物序列（5′-3′） Forward primer	反向引物序列（5′-3′） Reverse primer
BraA01g009870.3C	GCTTCCTTCCCTCAACAACACGAAT	GGCTGTTCTCTCTCTAGCTCTCTCC
BraA01g034360.3C	ATTATTGCTCACAACCATTACTCCC	GATGGTCAAGATGATTGTTTGATGT
BraA01g036950.3C	ACCGTCCGAGCAAAGCCGTTGACTG	GGCGACGGAGAGATTTTAGTTTTGG
BraA02g002690.3C	CGCCGTCAAAAAACCACCGACCAAG	GTGGCGGCTATGATGGAAGGCTCGG
BraA02g015610.3C	CCCAAACAAGCAACAGGAAGTCGGG	TCCTCCGACCACGTCCCTCTACTTT
BraA02g017550.3C	TAATCCCTACAATCATCAGTCAACA	TCATAACCTTTCTGATTCACAGCAC
BraA02g018710.3C	TCTTTCACTACTCATATCCTAAGCC	CCAGTTCTTCTTGGTGAAACCTTTT
BraA02g019350.3C	TGGCTCATCCTCATCAGGTGCGTCC	ATCCAGCCGTTGATTGAACTAAATA
BraA02g020650.3C	CCGCTAGAGTTTTCCAGTTGACGAG	GCGTAAAGTAGCGTTTAAAGTCGAG
BraA02g042560.3C	CTGAGCCTTCCATCATAGCCGCAAC	GGTATAGCACCTCCGAAACCCTCTC
BraA02g042770.3C	CAGAATCAGCCAAGTTCAGTACCAA	TTTGCTGTGTCTGTCTTTGCCACCA
BraA03g003300.3C	CGATTCAGCTCTACGACCTTCAAGA	TTCAAACCTTCTCTCTGGATCGTAT
BraA03g003460.3C	CACAATGGGGGCTTCTTTGATGAGT	GCCAGAAGATTGAGATGATGACCCG
BraA03g023810.3C	CAATAGGACCGCCACTGAAGAGAGC	GGCGTTCTCCAACAACCACCGAATC
BraA03g030780.3C	CTTTCACTCTTTTCAACCATCATCA	CACCTCTCTCATTGTTGTTTTCTTC
BraA03g036760.3C	TTTCTCCATCTCCTCCGCCGCAGCA	TGGTTATTATCATTACTCCGACGTT
BraA03g038400.3C	AACTCCAACATATCAAGCAATCCTC	GTTCAAGGGAAGAAGTGATGGATGA
BraA03g043950.3C	AGGTTGTCCGTTCCAACAGCAATTC	GGAAATTGTAATGGAGGGAGCTTGT
BraA03g048240.3C	CTAACTGGTGCTTCTCCTACCGCTG	CTCTCCTTGGTCTCTTTAGCTGTTC
BraA04g013610.3C	AATCAAACCCGCCACCGACTCCGTT	ACCAAACCCAGTCTCATTTTCCCAA
BraA05g005380.3C	CCGACGAACCAGCCTCAGATGTTAG	CTCCTGTTTCTCGTAAATCTCCAGC
BraA05g013580.3C	ATCTTCTTCTTCCGAGCCCAACTTG	ACCGCCGCTTGTAGTTGTTGTCGCC
BraA05g032060.3C	GAAACCGAGAAGAACCGCCGCTAAA	CTCGTTCTCGTTCCCCCGATGCTCC
BraA05g041050.3C	AAAATTAATGGATGTGTAGAAGAGT	GTTGATGCTGTTCCATGTATTGATA
BraA06g019370.3C	ACTTCACTTCTCTCAACATCTCTCT	GTTGCTGTTGAAGTAGCGATGGAGA
BraA06g030710.3C	AAGCTCCACCACTATTTCCACTTCC	GGCGTAGCAAAAGATCCCATGTCGT
BraA06g037920.3C	CATCTTCAGGGTGGTGGGTCTCTCA	CTCCATCTCCCCCGCCAACACCCCA
BraA07g030260.3C	AGTCACATTCTTCTTCTTCTTCGCA	CGTATTATCACCACTGCTCCAAAAC
BraA07g031420.3C	TTTCTCGCCAATTCTTCGATCTCCA	CCATCGTTTCCAAAATCTTCAACAT
BraA07g032600.3C	TCAAGAAGGCGGTGAAGAAAGATAG	GTCTAATGTTTTACTGGCTTTGTCA
BraA07g034590.3C	CTCTCTCTCTGCTGCTCATCTTCGT	AGAAGAAGAACAAGAATCCGACTCA
BraA07g036490.3C	ATGTCGTTTCAGGGTAGTGGAATGT	GGATTTCTCTCTGCCGACATTATAG
BraA08g001700.3C	GGCTATTCAGTTCTACGATGTTCAA	TTTTGGGTCTTTTGGGTTTGTTTGC
BraA08g023460.3C	AGCCGTCGTTGAATCATAGTAATAG	GAGAGGTAGTGAATTGGACTGAAGG
BraA09g003050.3C	AAGACGACAATCATCATCACAACAG	CTTTGGTGTGTCTGTCTTTGTTTGA
BraA09g006660.3C	TTACAACAACAGCAGCAACAAGCAG	GCTCCACTAGATAAAGAAGCAAGCA
BraA09g018190.3C	CACCATCAGTACGAGGAGCAAGGAG	TGTTGATGATGTTGCTGTTGTTGAT
BraA09g034850.3C	TCTTCCTCTTCTCTACATCATTACA	GAGAATGTGAATTGGACTGAAGGGT
BraA10g030640.3C	GTCAAGCCGAGCCTTCTATCATAGC	TGTGTCCAACCGATAATTCACCACC

基因编号 Gene ID	分子量/kD Molecular weight	等电点 Isoelectric point	不稳定性系数 Instability coefficient	平均亲水性系数 Hydrophilicity average coefficient
BraA01g009870.3C	39 219.70	7.91	42.74	-0.871
BraA01g034360.3C	47 318.52	6.77	49.63	-0.867
BraA01g036950.3C	38 203.22	6.81	75.02	-0.719
BraA02g002690.3C	23 842.65	9.57	49.44	-0.388
BraA02g015610.3C	30 182.49	5.50	56.51	-0.651
BraA02g017550.3C	39 308.67	5.50	48.92	-0.823
BraA02g018710.3C	33 911.64	6.03	58.48	-0.818
BraA02g019350.3C	33 870.94	7.12	59.49	-0.696
BraA02g020650.3C	39 098.21	8.63	43.51	-0.667
BraA02g042560.3C	18 600.96	7.92	54.69	-0.162
BraA02g042770.3C	33 796.16	6.50	47.54	-0.791
BraA03g003300.3C	27 367.45	6.49	51.36	-0.518
BraA03g003460.3C	24 263.25	10.18	37.89	-0.311
BraA03g023810.3C	33 174.90	9.67	55.70	-0.237
BraA03g030780.3C	31 309.72	6.50	52.25	-0.782
BraA03g036760.3C	44 499.00	7.49	67.30	-0.804
BraA03g038400.3C	45 530.80	6.76	56.68	-0.787
BraA03g043950.3C	40 698.22	6.18	56.00	-0.904
BraA03g048240.3C	42 262.93	7.12	45.39	-0.979
BraA04g013610.3C	24 724.61	7.20	36.43	-0.845
BraA05g005380.3C	34 510.13	9.58	57.82	-0.274
BraA05g013580.3C	38 727.41	6.34	50.44	-0.870
BraA05g032060.3C	44 173.53	7.00	63.12	-0.797
BraA05g041050.3C	34 451.32	7.21	56.70	-0.706
BraA06g019370.3C	50 238.37	6.59	67.54	-0.927
BraA06g030710.3C	26 991.12	9.69	57.09	-0.589
BraA06g037920.3C	32 446.81	7.25	55.21	-0.720
BraA07g030260.3C	33 733.76	7.43	56.69	-0.715
BraA07g031420.3C	39 407.14	6.28	49.11	-0.784
BraA07g032600.3C	38 800.34	6.36	57.19	-0.875
BraA07g034590.3C	34 066.09	6.91	60.33	-0.733
BraA07g036490.3C	37 206.26	6.84	45.51	-0.605
BraA08g001700.3C	37 595.34	6.74	66.60	-0.786
BraA08g023460.3C	34 410.52	6.61	64.29	-0.921
BraA09g003050.3C	29 671.62	6.09	41.97	-0.704
BraA09g006660.3C	23 116.85	9.38	44.70	-0.491
BraA09g018190.3C	41 385.31	6.09	54.72	-0.682
BraA09g034850.3C	35 327.53	7.80	51.70	-0.929
BraA10g030640.3C	24 733.42	8.89	45.27	-0.484

基因编号 Gene ID	分子量/kD Molecular weight	等电点 Isoelectric point	不稳定性系数 Instability coefficient	平均亲水性系数 Hydrophilicity average coefficient
BraA01g009870.3C	39 219.70	7.91	42.74	-0.871
BraA01g034360.3C	47 318.52	6.77	49.63	-0.867
BraA01g036950.3C	38 203.22	6.81	75.02	-0.719
BraA02g002690.3C	23 842.65	9.57	49.44	-0.388
BraA02g015610.3C	30 182.49	5.50	56.51	-0.651
BraA02g017550.3C	39 308.67	5.50	48.92	-0.823
BraA02g018710.3C	33 911.64	6.03	58.48	-0.818
BraA02g019350.3C	33 870.94	7.12	59.49	-0.696
BraA02g020650.3C	39 098.21	8.63	43.51	-0.667
BraA02g042560.3C	18 600.96	7.92	54.69	-0.162
BraA02g042770.3C	33 796.16	6.50	47.54	-0.791
BraA03g003300.3C	27 367.45	6.49	51.36	-0.518
BraA03g003460.3C	24 263.25	10.18	37.89	-0.311
BraA03g023810.3C	33 174.90	9.67	55.70	-0.237
BraA03g030780.3C	31 309.72	6.50	52.25	-0.782
BraA03g036760.3C	44 499.00	7.49	67.30	-0.804
BraA03g038400.3C	45 530.80	6.76	56.68	-0.787
BraA03g043950.3C	40 698.22	6.18	56.00	-0.904
BraA03g048240.3C	42 262.93	7.12	45.39	-0.979
BraA04g013610.3C	24 724.61	7.20	36.43	-0.845
BraA05g005380.3C	34 510.13	9.58	57.82	-0.274
BraA05g013580.3C	38 727.41	6.34	50.44	-0.870
BraA05g032060.3C	44 173.53	7.00	63.12	-0.797
BraA05g041050.3C	34 451.32	7.21	56.70	-0.706
BraA06g019370.3C	50 238.37	6.59	67.54	-0.927
BraA06g030710.3C	26 991.12	9.69	57.09	-0.589
BraA06g037920.3C	32 446.81	7.25	55.21	-0.720
BraA07g030260.3C	33 733.76	7.43	56.69	-0.715
BraA07g031420.3C	39 407.14	6.28	49.11	-0.784
BraA07g032600.3C	38 800.34	6.36	57.19	-0.875
BraA07g034590.3C	34 066.09	6.91	60.33	-0.733
BraA07g036490.3C	37 206.26	6.84	45.51	-0.605
BraA08g001700.3C	37 595.34	6.74	66.60	-0.786
BraA08g023460.3C	34 410.52	6.61	64.29	-0.921
BraA09g003050.3C	29 671.62	6.09	41.97	-0.704
BraA09g006660.3C	23 116.85	9.38	44.70	-0.491
BraA09g018190.3C	41 385.31	6.09	54.72	-0.682
BraA09g034850.3C	35 327.53	7.80	51.70	-0.929
BraA10g030640.3C	24 733.42	8.89	45.27	-0.484

菜薹TCP家族基因鉴定及其对腋芽性状的影响

Identification of the TCP Gene Family in Brassica campestris and Analysis of Their Effects on Axillary Bud Traits

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菜薹TCP家族基因鉴定及其对腋芽性状的影响

Identification of the TCP Gene Family in Brassica campestris and Analysis of Their Effects on Axillary Bud Traits

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