植物SPL转录因子的生物功能研究进展

doi:10.11983/CBB22216

植物学报 ›› 2023, Vol. 58 ›› Issue (6): 982-997.DOI: 10.11983/CBB22216

植物SPL转录因子的生物功能研究进展

曾鑫海¹^,², 陈锐¹^,², 师宇¹^,², 盖超越³, 范凯²^,³, 李兆伟¹^,²^,^*()

¹福建农林大学菌草与生态学院, 福州 350002
²福建农林大学, 福建省农业生态过程与安全监控重点实验室, 福州 350002
³福建农林大学农学院, 福州 350002

收稿日期:2022-09-07 接受日期:2023-05-31 出版日期:2023-11-01 发布日期:2023-11-27
通讯作者: * E-mail: lizw197@163.com
基金资助:
福建省自然科学基金(2021J01098);福建省自然科学基金(2022J01142)

Research Advances in Biological Functions of Plant SPL Transcription Factors

Xinhai Zeng¹^,², Rui Chen¹^,², Yu Shi¹^,², Chaoyue Gai³, Kai Fan²^,³, Zhaowei Li¹^,²^,^*()

¹College of JunCao Science and Ecology, Fujian Agriculture and Forestry University, Fuzhou 350002, China
²Fujian Provincial Key Laboratory of Agroecological Processing and Safety Monitoring, Fujian Agriculture and Forestry University, Fuzhou 350002, China
³College of Agriculture, Fujian Agriculture and Forestry University, Fuzhou 350002, China

Received:2022-09-07 Accepted:2023-05-31 Online:2023-11-01 Published:2023-11-27
Contact: * E-mail: lizw197@163.com

摘要/Abstract

摘要： SPL是植物特有的一类转录因子, 其蛋白结构中存在一段由2个锌指结构和核定位序列构成的高度保守的SBP结构域, 多数SPL基因的转录表达受microRNAs剪切调控。该文结合当前SPLs转录因子的研究进展, 对其在植物生长发育和环境适应等方面的生物学功能进行综述, 并对SPLs的研究前景进行展望。

关键词: 植物生长发育, SPL, 转录因子, 逆境响应

Abstract: Squamosa promoter binding protein-like (SPL) family is a class of plant-specific transcription factors, which contain a highly conserved SBP domain consisting of two zinc finger structures and a short nuclear localization sequence. The expression of most SPL genes is regulated by microRNAs at transcription level. Based on the current research progress of SPL transcription factors, this paper summarizes the biological functions of SPLs in plant growth, development, and environmental adaptation, and discusses the future research directions of SPLs.

Key words: plant growth and development, SPL, transcription factor, stress responses

曾鑫海, 陈锐, 师宇, 盖超越, 范凯, 李兆伟. 植物SPL转录因子的生物功能研究进展. 植物学报, 2023, 58(6): 982-997.

Xinhai Zeng, Rui Chen, Yu Shi, Chaoyue Gai, Kai Fan, Zhaowei Li. Research Advances in Biological Functions of Plant SPL Transcription Factors. Chinese Bulletin of Botany, 2023, 58(6): 982-997.

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链接本文: https://www.chinbullbotany.com/CN/10.11983/CBB22216

https://www.chinbullbotany.com/CN/Y2023/V58/I6/982

图/表 5

参考文献 108

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[96]	Yao SZ, Yang ZR, Yang RX, Huang Y, Guo G, Kong XY, Lan Y, Zhou T, Wang H, Wang WM, Cao XF, Wu JG, Li Y (2019a). Transcriptional regulation of miR528 by OsSPL9 orchestrates antiviral response in rice. Mol Plant 12, 1114-1122. DOI URL
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[103]	Zhang LL, Huang YY, Zheng YP, Liu XX, Zhou SX, Yang XM, Liu SL, Li Y, Li JL, Zhao SL, Wang H, Ji YP, Zhang JW, Pu M, Zhao ZX, Fan J, Wang WM (2022). Osa- miR535 targets SQUAMOSA promoter binding protein-like 4 to regulate blast disease resistance in rice. Plant J 110, 166-178. DOI URL
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物种	拉丁名	SPL名称		功能		参考文献
水稻	Oryza sativa	OsSPLs		SPLs和NL1调控PLA1表达进而调节营养生长向生殖生长转换; OsSPL2、OsSPL4、OsSPL16和OsSPL17通过microRNA156-SPLs模型影响花粉育性。OsSPL4、OsSPL13和OsSPL16通过调控细胞分裂素影响水稻粒宽		Wang et al., 2012 2021a
		OsSPL3		MicroRNA156-OsSPL3-OsMADS50互作模块调控不定根发育		Shao et al., 2019
		OsSPL9		OsSPL9激活幼穗分化早期的花分生组织基因RCN1, 调控穗分枝和穗粒数		Hu et al., 2021b
		OsSPL12		OsSPL12调控粒宽基因GW5表达进而负调节粒宽		Zhang et al., 2021
		OsSPL14		缩短叶片生长期, 调节叶片性状与厚度; 在生殖生长期, 促进穗分枝, 提高稻谷产量		Miura et al., 2010; Lian et al., 2020
		OsSPL17		正调控类黄酮含量, 负调控APX1表达进而提高雄花育性		Sun et al., 2022
		OsSPL18		结合直立密穗控制基因DEP1的启动子增强其表达, 调控穗型		Yuan et al., 2019
拟南芥	Arabidopsis thaliana	AtSPLs		AtSPL2、AtSPL9、AtSPL10、AtSPL11、AtSPL13和AtSPL15等协同调控幼苗营养生长向生殖生长转换; AtSPLs通过N端结合TCP抑制其功能, 调控雌蕊和胚珠发育; SPLs抑制AHL15的表达进而抑制营养生长, 加速从幼年营养生长向成年生殖生长转变和开花。atspl2/atspl10/atspl11三突变体延迟开花		Wang et al., 2009; Wei et al., 2015; Xu et al., 2016; Yao et al., 2019b; Rahimi et al., 2022
		AtSPL3		AtSPL3直接提高FUL和AP1的转录, 调节拟南芥花期		Wu and Poethig, 2006; Yamaguchi et al., 2009
		AtSPL4		AtSPL4和AtSPL5促进FUL与SOC1的转录, 调节植物花期		Birkenbihl et al., 2005
		AtSPL8		拟南芥产孢组织正常发育所必需, 受micro156/157特异性调节, 调控花发育早期的细胞分裂与分化		Xing et al., 2010
		AtSPL9		AtSPL9正向调控FUL、SOC1和AGL42, 促进开花		Birkenbihl et al., 2005
		AtSPL10		AtSPL10与MED25共同调控FUL和LFY, 调节开花		Barrera-Rojas et al., 2020
柳枝稷	Panicum vir- gatum	PvSPLs		PvSPL1和PvSPL2共同调控植株侧向分蘖, 从而提高生物量; PvSPL6、PvSPL7和PvSPL8调控柳枝稷开花		Wu et al., 2016; Gou et al., 2019; Cai et al., 2022
黄花蒿	Artemisia an- nua	AaSPL9		AaSPL9正调控AaHD1的表达, 调节黄花蒿腺毛的发育起始		He et al., 2022
小麦	Triticum aes- tivum	TaSPL8		TaSPL8通过调节生长素和油菜素内酯信号途径调控叶夹角		Liu et al., 2019
		TaSPL13-2B		TaSPL13-2B参与小麦的小花分化与发育调控		Li et al., 2020
		TaSPL13		TaSPL13的microRNA156识别元件MRE突变, 导致TaSPL13的转录本增多, 植株开花时间缩短, 分蘖数减少且株高降低, 籽粒大小和粒数增加		Gupta et al., 2023
苜蓿	Medicago sa- tiva	MsSPL08		MsSPL08基因突变致使苜蓿幼苗叶片数目增加, 叶片边缘锯齿消失		Min et al., 2022
苜蓿	Medicago sa- tiva	MsSPL20		MsSPL20通过调控小花发育基因HD3A、FTIP1、TEM1和HST1的表达推迟苜蓿开花		Ma et al., 2022
棉花	Gossypium hirsutum	GhSPLs		MicroRNA157/SPL模型抑制生长素信号转导途径, 减缓花器官发育		Liu et al., 2017
黄瓜	Cucumis sa- tivus	CsSPLs		参与调节黄瓜花药和胚珠发育		Liu et al., 2018
枇杷	Eriobotrya ja- ponica	EjSPLs		EjSPL3、EjSPL4、EjSPL5和EjSPL9等SPL转录因子参与花期调控		Jiang et al., 2019
蓝莓	Vaccinium corymbosum	VcSPLs		VcSPL35、VcSPL40、VcSPL45和VcSPL53基因在蓝莓的胚芽过渡阶段(从营养生长到花芽分化)发挥关键作用		Feng et al., 2023
牡丹	Paeonia × su- ffruticosa	PsSPLs		PsSPL2、PsSPL13和PsSPL14正调控牡丹籽粒大小、数量与荚果分枝		Wang et al., 2020a
番茄	Solanum lyco- persicum	SlySBP		SlySBP与microRNA156协同调节子房分生组织发育, 并起始肉质果实发育		Ferreira et al., 2014
			SlySPL13		SlySPL13参与果实发育	Cui et al., 2020
二穗短柄草	Brachypodium distachyon	BdSBP9		BdSBP9参与穗发育		Tripathi et al., 2020
樱桃	Prunus avium	PavSPLs		9个SPL基因调控樱桃的果实发育和成熟过程		Sun et al., 2023

物种	拉丁名	SPL名称		功能		参考文献
水稻	Oryza sativa	OsSPLs		SPLs和NL1调控PLA1表达进而调节营养生长向生殖生长转换; OsSPL2、OsSPL4、OsSPL16和OsSPL17通过microRNA156-SPLs模型影响花粉育性。OsSPL4、OsSPL13和OsSPL16通过调控细胞分裂素影响水稻粒宽		Wang et al., 2012 2021a
		OsSPL3		MicroRNA156-OsSPL3-OsMADS50互作模块调控不定根发育		Shao et al., 2019
		OsSPL9		OsSPL9激活幼穗分化早期的花分生组织基因RCN1, 调控穗分枝和穗粒数		Hu et al., 2021b
		OsSPL12		OsSPL12调控粒宽基因GW5表达进而负调节粒宽		Zhang et al., 2021
		OsSPL14		缩短叶片生长期, 调节叶片性状与厚度; 在生殖生长期, 促进穗分枝, 提高稻谷产量		Miura et al., 2010; Lian et al., 2020
		OsSPL17		正调控类黄酮含量, 负调控APX1表达进而提高雄花育性		Sun et al., 2022
		OsSPL18		结合直立密穗控制基因DEP1的启动子增强其表达, 调控穗型		Yuan et al., 2019
拟南芥	Arabidopsis thaliana	AtSPLs		AtSPL2、AtSPL9、AtSPL10、AtSPL11、AtSPL13和AtSPL15等协同调控幼苗营养生长向生殖生长转换; AtSPLs通过N端结合TCP抑制其功能, 调控雌蕊和胚珠发育; SPLs抑制AHL15的表达进而抑制营养生长, 加速从幼年营养生长向成年生殖生长转变和开花。atspl2/atspl10/atspl11三突变体延迟开花		Wang et al., 2009; Wei et al., 2015; Xu et al., 2016; Yao et al., 2019b; Rahimi et al., 2022
		AtSPL3		AtSPL3直接提高FUL和AP1的转录, 调节拟南芥花期		Wu and Poethig, 2006; Yamaguchi et al., 2009
		AtSPL4		AtSPL4和AtSPL5促进FUL与SOC1的转录, 调节植物花期		Birkenbihl et al., 2005
		AtSPL8		拟南芥产孢组织正常发育所必需, 受micro156/157特异性调节, 调控花发育早期的细胞分裂与分化		Xing et al., 2010
		AtSPL9		AtSPL9正向调控FUL、SOC1和AGL42, 促进开花		Birkenbihl et al., 2005
		AtSPL10		AtSPL10与MED25共同调控FUL和LFY, 调节开花		Barrera-Rojas et al., 2020
柳枝稷	Panicum vir- gatum	PvSPLs		PvSPL1和PvSPL2共同调控植株侧向分蘖, 从而提高生物量; PvSPL6、PvSPL7和PvSPL8调控柳枝稷开花		Wu et al., 2016; Gou et al., 2019; Cai et al., 2022
黄花蒿	Artemisia an- nua	AaSPL9		AaSPL9正调控AaHD1的表达, 调节黄花蒿腺毛的发育起始		He et al., 2022
小麦	Triticum aes- tivum	TaSPL8		TaSPL8通过调节生长素和油菜素内酯信号途径调控叶夹角		Liu et al., 2019
		TaSPL13-2B		TaSPL13-2B参与小麦的小花分化与发育调控		Li et al., 2020
		TaSPL13		TaSPL13的microRNA156识别元件MRE突变, 导致TaSPL13的转录本增多, 植株开花时间缩短, 分蘖数减少且株高降低, 籽粒大小和粒数增加		Gupta et al., 2023
苜蓿	Medicago sa- tiva	MsSPL08		MsSPL08基因突变致使苜蓿幼苗叶片数目增加, 叶片边缘锯齿消失		Min et al., 2022
苜蓿	Medicago sa- tiva	MsSPL20		MsSPL20通过调控小花发育基因HD3A、FTIP1、TEM1和HST1的表达推迟苜蓿开花		Ma et al., 2022
棉花	Gossypium hirsutum	GhSPLs		MicroRNA157/SPL模型抑制生长素信号转导途径, 减缓花器官发育		Liu et al., 2017
黄瓜	Cucumis sa- tivus	CsSPLs		参与调节黄瓜花药和胚珠发育		Liu et al., 2018
枇杷	Eriobotrya ja- ponica	EjSPLs		EjSPL3、EjSPL4、EjSPL5和EjSPL9等SPL转录因子参与花期调控		Jiang et al., 2019
蓝莓	Vaccinium corymbosum	VcSPLs		VcSPL35、VcSPL40、VcSPL45和VcSPL53基因在蓝莓的胚芽过渡阶段(从营养生长到花芽分化)发挥关键作用		Feng et al., 2023
牡丹	Paeonia × su- ffruticosa	PsSPLs		PsSPL2、PsSPL13和PsSPL14正调控牡丹籽粒大小、数量与荚果分枝		Wang et al., 2020a
番茄	Solanum lyco- persicum	SlySBP		SlySBP与microRNA156协同调节子房分生组织发育, 并起始肉质果实发育		Ferreira et al., 2014
			SlySPL13		SlySPL13参与果实发育	Cui et al., 2020
二穗短柄草	Brachypodium distachyon	BdSBP9		BdSBP9参与穗发育		Tripathi et al., 2020
樱桃	Prunus avium	PavSPLs		9个SPL基因调控樱桃的果实发育和成熟过程		Sun et al., 2023

物种	拉丁名	SPL名称	功能	参考文献
拟南芥	Arabidopsis thaliana	AtSPL9	结合ABI5的启动子激活其表达, 促进ABA信号转换和种子中ABA积累, 抑制种子成熟后的荚内发芽	Dong et al., 2021
拟南芥	Arabidopsis thaliana	AtSPL10	AtSPL10和BEL1通过与生长素转运基因PIN1互作, 调节胚珠生长素与细胞分裂素水平, 进而调控胚珠发育	Bencivenga et al., 2012
水稻	Oryza sativa	OsSPL12	与9个GA信号途径相关基因直接互作, 调控籽粒GA水平, 促进成熟籽粒休眠, 抑制稻谷穗发芽	Qin et al., 2020
水稻	Oryza sativa	OsSPL14	激活生长素运输基因OsPIN1b和PILS6b, 参与生长素的极性运输	Li et al., 2022c
玉米	Zea mays	ZmSPL12	ZmSPL12直接与D1的启动子结合抑制其转录, 降低玉米节间赤霉素含量, 抑制细胞伸长, 使节间缩短, 株高降低	Zhao et al., 2022a
番木瓜	Carica papaya	CpSPLs	CpmicroRNA156/CpSPL3/CpSPL6/CpSPL11响应ETH/I-MCP (ethep- hon/1-methylcyclopropene)信号, 调节番木瓜着色和成熟	Xu et al., 2020
柳枝稷	Panicum virga- tum	PvSPL2	PvSPL2促进SL生物合成基因PvLBO的表达	Yang et al., 2022

物种	拉丁名	SPL名称	功能	参考文献
拟南芥	Arabidopsis thaliana	AtSPL9	结合ABI5的启动子激活其表达, 促进ABA信号转换和种子中ABA积累, 抑制种子成熟后的荚内发芽	Dong et al., 2021
拟南芥	Arabidopsis thaliana	AtSPL10	AtSPL10和BEL1通过与生长素转运基因PIN1互作, 调节胚珠生长素与细胞分裂素水平, 进而调控胚珠发育	Bencivenga et al., 2012
水稻	Oryza sativa	OsSPL12	与9个GA信号途径相关基因直接互作, 调控籽粒GA水平, 促进成熟籽粒休眠, 抑制稻谷穗发芽	Qin et al., 2020
水稻	Oryza sativa	OsSPL14	激活生长素运输基因OsPIN1b和PILS6b, 参与生长素的极性运输	Li et al., 2022c
玉米	Zea mays	ZmSPL12	ZmSPL12直接与D1的启动子结合抑制其转录, 降低玉米节间赤霉素含量, 抑制细胞伸长, 使节间缩短, 株高降低	Zhao et al., 2022a
番木瓜	Carica papaya	CpSPLs	CpmicroRNA156/CpSPL3/CpSPL6/CpSPL11响应ETH/I-MCP (ethep- hon/1-methylcyclopropene)信号, 调节番木瓜着色和成熟	Xu et al., 2020
柳枝稷	Panicum virga- tum	PvSPL2	PvSPL2促进SL生物合成基因PvLBO的表达	Yang et al., 2022

物种	拉丁名	SPL名称	功能	参考文献
欧洲山杨	Populus tremula	PtSPLs	MicroRNA156靶向调控SPL表达进而提高欧洲山杨花青素、黄酮和黄酮醇的生物合成	Wang et al., 2020b
丹参	Salvia miltiorrhiza	SmSPL6	SmSPL6通过结合Sm4CL9和SmCYP98A14的启动子激活其表达, 促进SalB和RosA的生物合成	Cao et al., 2021
丹参	Salvia miltiorrhiza	SmSPL7	SmSPL7通过直接与SmTAT1和Sm4CL9的启动子结合抑制其表达, 阻断SalB的生物合成	Chen et al., 2021
黄花蒿	Artemisia annua	AaSPL2	AaSPL2通过结合青蒿素合成关键基因DBR2的启动子促进其表达, 增强青蒿素的合成	Lv et al., 2019
广藿香	Pogostemon cab- lin	PaSPL9	SPL9通过结合倍半萜合酶基因TPS21的启动子激活其表达, 促进老龄组织中倍半萜的生物合成	Yu et al., 2015
川桑	Morus notabilis	MnSPL7	MnSPL7通过激活儿茶素合成途径MnTT2L2基因的转录, 响应家蚕的取食行为	Li et al., 2022a

植物SPL转录因子的生物功能研究进展

Research Advances in Biological Functions of Plant SPL Transcription Factors

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