生物技术通报 ›› 2026, Vol. 42 ›› Issue (9): 42-56.doi: 10.13560/j.cnki.biotech.bull.1985.2026-0049
收稿日期:2026-01-12
出版日期:2026-09-26
发布日期:2026-09-16
通讯作者:
于超yuchao@bjfu.edu.cn基金资助:
HUANG Run-huan1, CHEN Yun-yi1, CHEN Hui-fang1, YIN Li-li2, YU Chao1(
)
Received:2026-01-12
Published:2026-09-26
Online:2026-09-16
摘要:
毛状体是植物地上器官表皮衍生的附属结构,其形态多样、功能广泛,在植物适应环境和次生代谢物合成中发挥核心作用。近年来,毛状体作为研究细胞分化与发育的理想模型以及天然的“代谢工厂”,成为植物学研究的热点领域之一。在观赏植物中,毛状体不仅直接影响花色质感、花香成分等关键观赏性状,还与其环境适应性密切相关,对培育兼具美学价值与抗逆性新种质具有重要价值。目前,针对观赏植物毛状体的系统研究有限,多数研究仍停留在基础的形态观察与描述阶段。对于毛状体发育的分子调控机制、代谢合成通路及其与观赏性状形成的深层联系亟待进一步研究。本文从形态学出发,系统阐述了以功能、结构为导向的传统分类体系。在进化发育层面,重点探讨了毛状体多源、趋同的复杂演化历程。同时,以MYB-bHLH-WD40(MBW)复合体为核心,阐述了毛状体发育的基础调控网络以及激素信号、环境胁迫的影响,探讨了观赏植物中毛状体调控机制的多样性与特异性。还总结了毛状体在观赏植物中的核心生物学作用与综合应用价值,强调其在绿色植保和环境治理中的多功能潜力,为下一阶段观赏植物毛状体的理论研究和创新育种提供全新视角。未来将培育兼具生态韧性、经济价值与观赏价值的新一代观赏植物,推动观赏植物育种进入按需设计、功能多元、智能高效的新时代。
黄润环, 陈沄毅, 陈会芳, 尹丽丽, 于超. 观赏植物毛状体的功能与应用[J]. 生物技术通报, 2026, 42(9): 42-56.
HUANG Run-huan, CHEN Yun-yi, CHEN Hui-fang, YIN Li-li, YU Chao. Functions and Applications of Trichomes in Ornamental Plants[J]. Biotechnology Bulletin, 2026, 42(9): 42-56.
图1 毛状体对观赏植物观赏性的影响A:帝王花;B:毛地黄;C:猴尾柱;D:银叶菊;E:绵毛水苏;F:玫瑰;G:阿帝露茅膏菜;H:兜兰属;I:虞美人;J:丹参;K:绿绒蒿属;L:蓝花楹。毛状体的分布如图中红色箭头所示
Fig. 1 Effects of trichomes on ornamental value of ornamental plantsA: Protea cynaroides; B: Digitalis purpurea; C: Hildewintera colademononis; D: Jacobaea maritima; E: Stachys byzantina; F: Rosa rugosa; G: Drosera adelae; H: Paphiopedilum; I: Papaver rhoeas; J: Salvia miltiorrhiza; K: Meconopsis; L: Jacaranda mimosifolia. The distribution of trichomes is indicated by the red arrows in the figure
编号 No. | 科 Family | 腺毛类型 Glandular trichomes (GTs) types | 非腺毛类型 Non-glandular trichomes (NGTs) types | 结构特征 Structural characteristics | 植物器官 Plant organ | 核心功能 Core function | 参考文献 References |
|---|---|---|---|---|---|---|---|
| 1 | 菊科 Asteraceae | 头状、直形、盾状、双列盾状、凹陷状、双列 | 双列、单列、T形、丝状、鞭状、星状、分枝状、鳞片状、多层 | 腺毛多具多细胞头部、单/多细胞柄;盾状腺毛头部呈盘状;T形非腺毛具伸长顶端细胞 | 叶片、花序梗、苞片、花瓣、总苞片、茎、花冠、果实等 | 合成萜类、酚类、青蒿素等,可抗菌、抗虫、吸引传粉者,抗UV-B、减少蒸腾、抗虫 | [ |
| 2 | 紫葳科 Bignoniaceae | 盾状、头状、凹陷状 | - | 盾状腺毛具盘状头部与单细胞颈;头状腺毛具多细胞头、单细胞颈、宽大多细胞柄 | 花梗、花萼、子房、叶片、花冠筒、花瓣 | 吸引传粉者;合成挥发性萜类与多糖;防御植食性昆虫 | [ |
| 3 | 百合科 Liliaceae | - | 多细胞、单细胞、星状 | 多细胞、无分支、无腺体 | 花被片、茎、叶片 | 抗UV-B、抗蚜虫、物理防御 | [ |
| 4 | 蔷薇科 Rosaceae | 头状、盾状、圆锥形、帽状、碗状 | 带状、针状、鞭状、分支状、钩状 | 腺毛头部多细胞;非腺毛包括单细胞与多细胞类型 | 花瓣、萼片、果实、叶片、花梗、托杯 | 防御昆虫、抗UV-B、储水 | [ |
| 5 | 茅膏菜科 Droseraceae | 星状 | - | 由两个基细胞、两个柄细胞和一个两层细胞构成的头部组成 | 陷阱、叶柄、裂片 | 分泌黏液;具有溶质转运功能 | [ |
| 6 | 唇形科 Lamiaceae | 盾状、头状、指状 | 简单多细胞、双细胞、单细胞 | 腺毛头部多细胞,盾状腺毛头部呈球形;非腺毛多为1-7个细胞 | 叶片、花萼、茎、花 | 合成精油、酚酸、黄酮类;可抗菌、抗虫、吸引传粉者 | [ |
| 7 | 蝶形花科 Fabaceae | 大型头状 | 短毛 | 腺毛具多细胞头部和大型多列柄;非腺毛短小 | 花序轴、花梗、苞片、萼片、花托 | 抵御植食性动物和病原体 | [ |
| 8 | 猪笼草科 Nepenthaceae | 盾状 | 丛生毛 | 盾状腺毛具基部细胞、多细胞柄和多细胞头部 | 捕虫笼 | 抵御寄生生物和草食动物,形成物理屏障或固定害虫 | [ |
| 9 | 毛茛科 Ranunculaceae | - | 单细胞长毛、短毛 | 单细胞 | 花瓣 | 过滤花粉、防止花蜜干涸、辅助传粉者获取花蜜 | [ |
| 10 | 芍药科 Paeoniaceae | - | 长圆锥形、扁平状、圆锥形 | 简单、单一、无腺、单细胞结构 | 叶片 | 重要的鉴别特征 | [ |
| 11 | 兰科 Orchidaceae | 肝褐色腺毛 | 短柔毛、念珠状、乳突状 | 腺毛由2‒5个细胞组成;短柔毛由多细胞毛状体构成,由4‒11个细胞组成 | 侧瓣、唇瓣、叶片 | 辅助实现拟态传粉策略,吸引传粉者 | [ |
| 12 | 山茶科 Theaceae | - | 绒毛:单细胞、无分支结构 | 单细胞无分支毛状体,整体呈单一的丝状形态 | 嫩叶、顶芽、叶片 | 抵御昆虫取食、反射紫外线与强光、隔绝高温、防止微生物侵袭、决定茶叶品质的核心因素 | [ |
| 13 | 石竹科 Caryophyllaceae | 腺毛 | 多细胞、长绵毛状 | - | 茎、叶、花梗、花萼、花瓣喉部、花柱 | [ | |
| 14 | 莲科 Nelumbonaceae | 乳头状腺毛 | - | 分泌型毛状体 | 柱头、花柱道内壁 | 分泌黏液或化学物质,可能有助于捕捉花粉、提供萌发介质或保护雌蕊 | [ |
表1 重要观赏植物毛状体类型、结构特征及功能
Table 1 Trichome types, structural characteristics, and functions in important ornamental plants
编号 No. | 科 Family | 腺毛类型 Glandular trichomes (GTs) types | 非腺毛类型 Non-glandular trichomes (NGTs) types | 结构特征 Structural characteristics | 植物器官 Plant organ | 核心功能 Core function | 参考文献 References |
|---|---|---|---|---|---|---|---|
| 1 | 菊科 Asteraceae | 头状、直形、盾状、双列盾状、凹陷状、双列 | 双列、单列、T形、丝状、鞭状、星状、分枝状、鳞片状、多层 | 腺毛多具多细胞头部、单/多细胞柄;盾状腺毛头部呈盘状;T形非腺毛具伸长顶端细胞 | 叶片、花序梗、苞片、花瓣、总苞片、茎、花冠、果实等 | 合成萜类、酚类、青蒿素等,可抗菌、抗虫、吸引传粉者,抗UV-B、减少蒸腾、抗虫 | [ |
| 2 | 紫葳科 Bignoniaceae | 盾状、头状、凹陷状 | - | 盾状腺毛具盘状头部与单细胞颈;头状腺毛具多细胞头、单细胞颈、宽大多细胞柄 | 花梗、花萼、子房、叶片、花冠筒、花瓣 | 吸引传粉者;合成挥发性萜类与多糖;防御植食性昆虫 | [ |
| 3 | 百合科 Liliaceae | - | 多细胞、单细胞、星状 | 多细胞、无分支、无腺体 | 花被片、茎、叶片 | 抗UV-B、抗蚜虫、物理防御 | [ |
| 4 | 蔷薇科 Rosaceae | 头状、盾状、圆锥形、帽状、碗状 | 带状、针状、鞭状、分支状、钩状 | 腺毛头部多细胞;非腺毛包括单细胞与多细胞类型 | 花瓣、萼片、果实、叶片、花梗、托杯 | 防御昆虫、抗UV-B、储水 | [ |
| 5 | 茅膏菜科 Droseraceae | 星状 | - | 由两个基细胞、两个柄细胞和一个两层细胞构成的头部组成 | 陷阱、叶柄、裂片 | 分泌黏液;具有溶质转运功能 | [ |
| 6 | 唇形科 Lamiaceae | 盾状、头状、指状 | 简单多细胞、双细胞、单细胞 | 腺毛头部多细胞,盾状腺毛头部呈球形;非腺毛多为1-7个细胞 | 叶片、花萼、茎、花 | 合成精油、酚酸、黄酮类;可抗菌、抗虫、吸引传粉者 | [ |
| 7 | 蝶形花科 Fabaceae | 大型头状 | 短毛 | 腺毛具多细胞头部和大型多列柄;非腺毛短小 | 花序轴、花梗、苞片、萼片、花托 | 抵御植食性动物和病原体 | [ |
| 8 | 猪笼草科 Nepenthaceae | 盾状 | 丛生毛 | 盾状腺毛具基部细胞、多细胞柄和多细胞头部 | 捕虫笼 | 抵御寄生生物和草食动物,形成物理屏障或固定害虫 | [ |
| 9 | 毛茛科 Ranunculaceae | - | 单细胞长毛、短毛 | 单细胞 | 花瓣 | 过滤花粉、防止花蜜干涸、辅助传粉者获取花蜜 | [ |
| 10 | 芍药科 Paeoniaceae | - | 长圆锥形、扁平状、圆锥形 | 简单、单一、无腺、单细胞结构 | 叶片 | 重要的鉴别特征 | [ |
| 11 | 兰科 Orchidaceae | 肝褐色腺毛 | 短柔毛、念珠状、乳突状 | 腺毛由2‒5个细胞组成;短柔毛由多细胞毛状体构成,由4‒11个细胞组成 | 侧瓣、唇瓣、叶片 | 辅助实现拟态传粉策略,吸引传粉者 | [ |
| 12 | 山茶科 Theaceae | - | 绒毛:单细胞、无分支结构 | 单细胞无分支毛状体,整体呈单一的丝状形态 | 嫩叶、顶芽、叶片 | 抵御昆虫取食、反射紫外线与强光、隔绝高温、防止微生物侵袭、决定茶叶品质的核心因素 | [ |
| 13 | 石竹科 Caryophyllaceae | 腺毛 | 多细胞、长绵毛状 | - | 茎、叶、花梗、花萼、花瓣喉部、花柱 | [ | |
| 14 | 莲科 Nelumbonaceae | 乳头状腺毛 | - | 分泌型毛状体 | 柱头、花柱道内壁 | 分泌黏液或化学物质,可能有助于捕捉花粉、提供萌发介质或保护雌蕊 | [ |
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