园艺学报 ›› 2025, Vol. 52 ›› Issue (8): 2249-2269.doi: 10.16420/j.issn.0513-353x.2024-0775
李美玉1,2, 王本启1, 黄树苹1, 陈霞1, 谈杰1, 张洪源1, 王俊良1, 陈蓉1, 张俊红2, 张敏1,*()
收稿日期:
2024-11-06
修回日期:
2025-06-10
出版日期:
2025-08-19
发布日期:
2025-08-19
通讯作者:
基金资助:
LI Meiyu1,2, WANG Benqi1, HUANG Shuping1, CHEN Xia1, TAN Jie1, ZHANG Hongyuan1, WANG Junliang1, CHEN Rong1, ZHANG Junhong2, and ZHANG Min1,*()
Received:
2024-11-06
Revised:
2025-06-10
Published:
2025-08-19
Online:
2025-08-19
摘要:
植物株型和花序结构受分生组织、开花基因、激素等多种因素的影响。本文综述了影响拟南芥、水稻、番茄等花序结构发育进程的调控网络机制,发现在边界区特异性表达的基因是花序分生组织(inflorescence meristem,IM)和花分生组织(flower meristem,FM)正常发育的基础;IM的发育和FM的确定都需要TFL1、LFY、AP1、SOC1、AGL24、SVP、SEP4等关键调节因子的相互作用;WUS-CLV和WUS-AG反馈系统通过影响干细胞的活性来确定花序结构和花朵数量;而IAA、GA和CTK等激素是调控网络中的关键环节;本文还对茄科蔬菜花序复杂性状形成机理进行了探讨,对未来的研究进行了展望,以期对花序形态建成等方面的研究和作物育种提供借鉴。
李美玉, 王本启, 黄树苹, 陈霞, 谈杰, 张洪源, 王俊良, 陈蓉, 张俊红, 张敏. 花序结构调控研究进展[J]. 园艺学报, 2025, 52(8): 2249-2269.
LI Meiyu, WANG Benqi, HUANG Shuping, CHEN Xia, TAN Jie, ZHANG Hongyuan, WANG Junliang, CHEN Rong, ZHANG Junhong, and ZHANG Min. The Research Progress of Inflorescence Structure Regulation[J]. Acta Horticulturae Sinica, 2025, 52(8): 2249-2269.
图1 拟南芥、水稻和番茄花序结构的比较(Teo et al.,2014) VSM:营养芽分生组织;IM:花序分生组织;pBM:一级分枝分生组织;sBM:二级分枝分生组织;SM:小穗分生组织;FM:花分生组织;SYM:合轴分生组织;SIM:合轴花序分生组织
Fig. 1 Comparison of Inflorescence Structure among Arabidopsis thaliana,Rice and Tomato(Teo et al.,2014) VSM:Vegetative shoot meristem;IM:Inflorescence meristem;pBM:Primary branch meristems;sBM:Secondary branch meristem;SM:Spikelet meristem;FM:Floral meristems;SYM:Sympodial meristem;SIM:Sympodial inflorescence meristem
基因名Gene name | 基因ID Gene ID | 基因类型Gene type | 功能描述Fnctional description | 参考文献Rference |
---|---|---|---|---|
CUC1 | AT3G15170 | NAC(无顶端分生组织)结构域转录调节因子超家族蛋白 Transcriptional regulator superfamily protein of NAC (apical meristem-free)domain | 顶端分生组织、STM形成所必需 It is necessary for the formation of apical meristem and STM | Ishida et al., |
CUC2 | AT5G53950 | 调节腋生分生组织起始 Regulation of axillary meristem initiation | Aida et al., | |
CUC3 | AT1G76420 | 调控边界区形成 Regulating the formation of boundary area | Raman et al., | |
miR164A | AT2G47585 | miRNA初级转录本 MiRNA primary transcript | 编码靶向包含NAC结构域的基因 Coding targets genes containing NAC domain. | Allen et al., |
MiR164B | AT5G01747 | |||
MiR164C | AT5G27807 | |||
miR156 | 负调控IM起始 Negative regulation of IM initiation | Wang et al., | ||
TFL1 | AT5G03840 | PEBP家族蛋白 PEBP family protein | 维持IM特性,促进分枝 Maintain IM characteristics and promote branching | Shannon & Meeks-Wagner, |
SP | Solyc06g074350 | 促进分枝,维持茎尖特性 Promote branching and maintain shoot tip characteristics. | Pnueli et al., | |
FT | AT1G65480 | 促进开花Promote flowering | Kardailsky et al., | |
CAL | AT1G26310 | MADS-box转录因子家族 MADS-box transcription factor family | 促进FM的形成 Promote the formation of FM | Elena et al., |
AGAMOUS | LOC110785792 | 负调控干细胞的积累 Negative regulation of stem cell accumulation | Sun et al., | |
SVP | AT2G22540 | 抑制开花Suppress flowering | Hartmann et al., | |
FUL | AT5G60910 | 促进开花Promote flowering | Yamaguchi et al., | |
FLC | AT5G10140 | 促进开花Promote flowering | Buzas et al., | |
SEP3 | AT1G24260 | 促进FM转换Promote FM conversion | Hugouvieux et al., | |
SEP4 | AT2G03710 | 确定FM和花器官的形成 Determine FM and floral organ formation | Gary et al., | |
TAW1 | LOC_Os10g33780 | ALOG家族蛋白 ALOG family protein | 使花序不确定性生长 Make inflorescence grow indefinitely. | Yoshida et al., |
TMF | Solyc09g090180 | 番茄花序的复杂度 Complexity of tomato inflorescence | Macalister et al., | |
LFY | AT5G61850 | LEAFY家族 LEAFY family | 促进FM和花的形成 Promote FM and flower formation | Yamaguchi et al., |
DA1 | AT1G19270 | 含LIM结构域的蛋白 LIM domain-containing protein | 调控腋生分生组织的起始 Regulating the initiation of axillary meristem | Koch et al., |
UBP15 | AT1G17110 | 泛素特异性蛋白酶15 Ubiquitin-specific protease 15 | 抑制腋生分行组织的启动 Inhibit the initiation of axillary branch tissue | Yan et al., |
DPA4/NGAL3 | AT5G06250 | AP2/B3样转录因子家族蛋白 AP2/B3-like ranscription factor family protein | 花序结构调节转录阻遏物 Inflorescence structure regulates transcription repressor | Riechmann et al., |
SOD7/NGAL2 | AT3G11580 | 腋生分生组织形成所必需 Necessary for axillary meristem formation | ||
LAS | AT1G55580 | GRAS家族转录因子 GRAS family transcription factors | 调节腋生分生组织的起始 Regulation of axillary meristem initiation | Greb et al., |
MOC1 | LOC127776671 | 蛋白质MONOCULM 1 Protein MONOCULM 1 | 正调控水稻分蘖 Positive regulation of rice tillering | Liao et al., |
FON1 | LOC_Os06g50340 | 富含亮氨酸的重复受体样激酶蛋白花器官 Leucine-rich repetitive receptor-like kinase protein flower organ | 控制花分生组织大小 Controlling the size of flower meristem | Moon et al., |
OSH1 | LOC_Os03g51690 | 同源盒蛋白 Knotted-1-like 6 Homocassette protein Knotted-1-like 6 | 诱导产生腋下小花Induced axillary floret | Zhang et al., |
LAX1 | LOC_Os01g61480 | 转录因子LAX PANICLE 1样 Transcription factor LAX PANICLE 1-like | 正向调控穗数 Forward regulation of paniCLE number | Matin & Kang, |
LS | Solyc07g066250 | VHIID蛋白 VHIID protein | 调控番茄分枝数 Regulating the number of tomato branches | Schumacher et al., |
BOP2 | AT2G41370 | 锚蛋白重复家族蛋白/含BTB/POZ结构域的蛋白 Ankyrin repeat family protein/protein containing BTB/POZ domain | 促进FM的形成 Promote the formation of FM | Scofield et al., |
WUS | AT2G17950 | 同源结构域样超家族蛋白 Homologous domain-like superfamily protein | 激活、维持干细胞表达 Activate and maintain the expression of stem cells | Laux et al., |
CLV3 | AT2G27250 | CLE基因家族 CLE gene family | 负调节干细胞的积累 Negative regulation of stem cell accumulation | Clark et al., |
CLV1 | AT1G75820 | 富含亮氨酸受体样蛋白激酶家族蛋白 Leucine-rich receptor-like protein kinase family protein | 促进FM的形成 Promote the formation of FM | Clark et al., |
RCN1 | LOC_Os11g05470 | aBC转运蛋白G家族成员5 ABC transporter G family member 5 | 负向调控花发育 Negative regulation of flower development | Hanzawa et al., |
SFT | Solyc03g063100 | CETS家族蛋白 CETS family protein | 促进番茄开花Promote tomato flowering | Lifschitz et al., |
PAP2 | LOC_Os03g54170 | 正调控小穗分生组织的形成 Positive regulation of spikelet meristem formation | Liu et al., | |
CO | AT5G15840 | B-box型锌指蛋白 B-box zinc finger protein | 长日照下促进开花 Promote flowering under long sunshine | Jung et al., |
AP2 | AT4G36920 | 整合酶型DNA结合超家族蛋白 Integrase-type DNA-binding superfamily proteins | 确定FM和花器官的形成 Determine FM and floral organ formation | Huang et al., |
SPL | AT4G27330 | 无孢子细胞SPL Sporeless cell SPL | 促进FM转换Promote FM conversion | Bencivenga et al., |
KNU | AT5G14010 | C2H2型锌指蛋白 C2H2 zinc finger protein | 在FM中介导WUS抑制 WUS inhibition mediated by FM | Sun et al., |
UFO | AT1G30950 | F-box家族蛋白 F-box family protein | 促进FM的转换和顶花的形成 Promote FM conversion and the formation of top flower | Hepworth et al., |
BOP1 | Solyc04g040220 | BTB-ankryin转录因子 BTB-ankryin transcription factor | 促进分生组织成熟 Promote meristem maturation | Xu et al., |
BOP2 | Solyc10g079460 | |||
BOP3 | Solyc10g079750 |
表1 高等植物中影响花序结构的主要基因
Table 1 Main genes affecting inflorescence structure in higher plants
基因名Gene name | 基因ID Gene ID | 基因类型Gene type | 功能描述Fnctional description | 参考文献Rference |
---|---|---|---|---|
CUC1 | AT3G15170 | NAC(无顶端分生组织)结构域转录调节因子超家族蛋白 Transcriptional regulator superfamily protein of NAC (apical meristem-free)domain | 顶端分生组织、STM形成所必需 It is necessary for the formation of apical meristem and STM | Ishida et al., |
CUC2 | AT5G53950 | 调节腋生分生组织起始 Regulation of axillary meristem initiation | Aida et al., | |
CUC3 | AT1G76420 | 调控边界区形成 Regulating the formation of boundary area | Raman et al., | |
miR164A | AT2G47585 | miRNA初级转录本 MiRNA primary transcript | 编码靶向包含NAC结构域的基因 Coding targets genes containing NAC domain. | Allen et al., |
MiR164B | AT5G01747 | |||
MiR164C | AT5G27807 | |||
miR156 | 负调控IM起始 Negative regulation of IM initiation | Wang et al., | ||
TFL1 | AT5G03840 | PEBP家族蛋白 PEBP family protein | 维持IM特性,促进分枝 Maintain IM characteristics and promote branching | Shannon & Meeks-Wagner, |
SP | Solyc06g074350 | 促进分枝,维持茎尖特性 Promote branching and maintain shoot tip characteristics. | Pnueli et al., | |
FT | AT1G65480 | 促进开花Promote flowering | Kardailsky et al., | |
CAL | AT1G26310 | MADS-box转录因子家族 MADS-box transcription factor family | 促进FM的形成 Promote the formation of FM | Elena et al., |
AGAMOUS | LOC110785792 | 负调控干细胞的积累 Negative regulation of stem cell accumulation | Sun et al., | |
SVP | AT2G22540 | 抑制开花Suppress flowering | Hartmann et al., | |
FUL | AT5G60910 | 促进开花Promote flowering | Yamaguchi et al., | |
FLC | AT5G10140 | 促进开花Promote flowering | Buzas et al., | |
SEP3 | AT1G24260 | 促进FM转换Promote FM conversion | Hugouvieux et al., | |
SEP4 | AT2G03710 | 确定FM和花器官的形成 Determine FM and floral organ formation | Gary et al., | |
TAW1 | LOC_Os10g33780 | ALOG家族蛋白 ALOG family protein | 使花序不确定性生长 Make inflorescence grow indefinitely. | Yoshida et al., |
TMF | Solyc09g090180 | 番茄花序的复杂度 Complexity of tomato inflorescence | Macalister et al., | |
LFY | AT5G61850 | LEAFY家族 LEAFY family | 促进FM和花的形成 Promote FM and flower formation | Yamaguchi et al., |
DA1 | AT1G19270 | 含LIM结构域的蛋白 LIM domain-containing protein | 调控腋生分生组织的起始 Regulating the initiation of axillary meristem | Koch et al., |
UBP15 | AT1G17110 | 泛素特异性蛋白酶15 Ubiquitin-specific protease 15 | 抑制腋生分行组织的启动 Inhibit the initiation of axillary branch tissue | Yan et al., |
DPA4/NGAL3 | AT5G06250 | AP2/B3样转录因子家族蛋白 AP2/B3-like ranscription factor family protein | 花序结构调节转录阻遏物 Inflorescence structure regulates transcription repressor | Riechmann et al., |
SOD7/NGAL2 | AT3G11580 | 腋生分生组织形成所必需 Necessary for axillary meristem formation | ||
LAS | AT1G55580 | GRAS家族转录因子 GRAS family transcription factors | 调节腋生分生组织的起始 Regulation of axillary meristem initiation | Greb et al., |
MOC1 | LOC127776671 | 蛋白质MONOCULM 1 Protein MONOCULM 1 | 正调控水稻分蘖 Positive regulation of rice tillering | Liao et al., |
FON1 | LOC_Os06g50340 | 富含亮氨酸的重复受体样激酶蛋白花器官 Leucine-rich repetitive receptor-like kinase protein flower organ | 控制花分生组织大小 Controlling the size of flower meristem | Moon et al., |
OSH1 | LOC_Os03g51690 | 同源盒蛋白 Knotted-1-like 6 Homocassette protein Knotted-1-like 6 | 诱导产生腋下小花Induced axillary floret | Zhang et al., |
LAX1 | LOC_Os01g61480 | 转录因子LAX PANICLE 1样 Transcription factor LAX PANICLE 1-like | 正向调控穗数 Forward regulation of paniCLE number | Matin & Kang, |
LS | Solyc07g066250 | VHIID蛋白 VHIID protein | 调控番茄分枝数 Regulating the number of tomato branches | Schumacher et al., |
BOP2 | AT2G41370 | 锚蛋白重复家族蛋白/含BTB/POZ结构域的蛋白 Ankyrin repeat family protein/protein containing BTB/POZ domain | 促进FM的形成 Promote the formation of FM | Scofield et al., |
WUS | AT2G17950 | 同源结构域样超家族蛋白 Homologous domain-like superfamily protein | 激活、维持干细胞表达 Activate and maintain the expression of stem cells | Laux et al., |
CLV3 | AT2G27250 | CLE基因家族 CLE gene family | 负调节干细胞的积累 Negative regulation of stem cell accumulation | Clark et al., |
CLV1 | AT1G75820 | 富含亮氨酸受体样蛋白激酶家族蛋白 Leucine-rich receptor-like protein kinase family protein | 促进FM的形成 Promote the formation of FM | Clark et al., |
RCN1 | LOC_Os11g05470 | aBC转运蛋白G家族成员5 ABC transporter G family member 5 | 负向调控花发育 Negative regulation of flower development | Hanzawa et al., |
SFT | Solyc03g063100 | CETS家族蛋白 CETS family protein | 促进番茄开花Promote tomato flowering | Lifschitz et al., |
PAP2 | LOC_Os03g54170 | 正调控小穗分生组织的形成 Positive regulation of spikelet meristem formation | Liu et al., | |
CO | AT5G15840 | B-box型锌指蛋白 B-box zinc finger protein | 长日照下促进开花 Promote flowering under long sunshine | Jung et al., |
AP2 | AT4G36920 | 整合酶型DNA结合超家族蛋白 Integrase-type DNA-binding superfamily proteins | 确定FM和花器官的形成 Determine FM and floral organ formation | Huang et al., |
SPL | AT4G27330 | 无孢子细胞SPL Sporeless cell SPL | 促进FM转换Promote FM conversion | Bencivenga et al., |
KNU | AT5G14010 | C2H2型锌指蛋白 C2H2 zinc finger protein | 在FM中介导WUS抑制 WUS inhibition mediated by FM | Sun et al., |
UFO | AT1G30950 | F-box家族蛋白 F-box family protein | 促进FM的转换和顶花的形成 Promote FM conversion and the formation of top flower | Hepworth et al., |
BOP1 | Solyc04g040220 | BTB-ankryin转录因子 BTB-ankryin transcription factor | 促进分生组织成熟 Promote meristem maturation | Xu et al., |
BOP2 | Solyc10g079460 | |||
BOP3 | Solyc10g079750 |
图5 SOC1、SVP、FLC之间的作用机制(Tao et al.,2012) 红线代表本研究中的互作;黑线代表其他研究中的互作
Fig. 5 The mechanism among SOC1,SVP and FLC(Tao et al.,2012) The red line represents the interaction in this study;The black lines represent interactions in other studies
图6 PRC2(H3K27me3)对TFs花基因调控网络的表观遗传(共)调控概念(Müller-Xing et al.,2022)
Fig. 6 Concept of epigenetic(co-)regulation of PRC2(H3K27me3)on TFs flower gene regulatory network(Müller-Xing et al.,2022)
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