植物油体蛋白基因家族研究进展

doi:10.16288/j.yczz.22-149

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Hereditas(Beijing) ›› 2022, Vol. 44 ›› Issue (12): 1128-1140.doi: 10.16288/j.yczz.22-149

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Progress on the functional role of oleosin gene family in plants

Haoqiang Zhao¹(), Xiaofei Wang², Shaopei Gao¹()

1. Laboratory of Crop Heterosis & Utilization, Ministry of Education/ Key Laboratory of Sweetpotato Biology and Biotechnology, Ministry of Agriculture and Rural Affairs, China Agricultural University, Beijing 100193, China
2. College of Food Science and Nutritional Engineering, China Agricultural University, Beijing 100083, China

Received:2022-05-07 Revised:2022-08-11 Online:2022-12-20 Published:2022-09-02
Contact: Gao Shaopei E-mail:2424002912@qq.com;spgao@cau.edu.cn
Supported by:
the National Natural Science Foundation of China(31901599);the National Key R&D Program of China(2019YFD1001300);the National Key R&D Program of China(2019YFD1001301);the Shanghai Municipal Afforestation & City Appearance and Environmental Sanitation Administration(G212402)

Abstract

Abstract:

Oil bodies, also known as lipid droplets or oil droplets, are important organelles for oil storage in plant cells. The oil body is composed of a monolayer of phospholipid membrane encapsulating neutral fatty acids, and a variety of membrane proteins are embedded in the membrane, including oleosin, caleosin and steroleosin, of which oleosin accounts for 80%-90%. Oleosin plays important biological roles in various biological roles, such as affecting the size and stability of oil bodies, formation and degradation of oil bodies, lipid metabolism, and seed maturation and germination. In this review, we summarize the sequence and structural characteristics of oleosin and its important role in plant growth and development based on the research progress of plant oleosin gene families at home and abroad in recent years. Additionally, we discuss the application of oleosin in actual production and problems in the research and application, in order to provide a useful reference for people to further study the functions of oleosin-related molecules and their application in production practice.

Key words: oil body, oleosin, oil body stability, lipid metabolism, lipid synthesis

Haoqiang Zhao, Xiaofei Wang, Shaopei Gao. Progress on the functional role of oleosin gene family in plants[J]. Hereditas(Beijing), 2022, 44(12): 1128-1140.

Figures/Tables 4

Fig. 1

Fig. 2

Table 1

Function of oleosins in different plants"

基因号	注释	功能	参考文献
At4g25140	OLE1、OLEO1、OLEOSIN1	在种子中大量存在，参与调控种子脂质积累和种子抗冻性	[25, 26]
At5g40420	OLE2、OLEO2、OLEOSIN2	在种子中大量存在，参与调控种子脂质积累和种子抗冻性	[9, 27]
At3g27660	OLEO3、OLEOSIN3	种子油体蛋白，参与调控种子脂质积累和油体降解	[28, 29]
At3g01570	Oleosin4、OLE4	在种子中大量存在，参与调控种子脂质积累和种子抗冻性	[9, 30]
At5g51210	Oleosin5、OLE5	存在于种子中，可能在控制油体大小及稳定性方面发挥作用	[28,29]
LOC_Os01g45624.1	OsOLE1	油体蛋白家族	[31]
LOC_Os05g50110.1	OsOLE2	油体蛋白家族	[31]
LOC_Os04g46200.1	OsOLE3	种子油体蛋白L-型异构体，大小为16 kDa	[14,31,32]
LOC_Os09g15520.1	OsOLE4	油体蛋白家族	[31]
LOC_Os03g49190.1	OsOLE5	种子油体蛋白H-型异构体，大小为18 kDa	[14,31,32]
LOC_Os06g27910.1	OsOLE6	油体蛋白家族	[14,31]
Glyma.20G196600	GmOLE1	在种子中大量存在，参与调控脂质积累和抗冻性，在成熟种子中特异表达	[18]
Glyma.17G122000	GmOLE2	种子油体蛋白，参与调节脂肪酸构成，增强抗冻性	[17]
BnaA08g14540D	BnaOLE1	油体蛋白家族，参与提高种子中脂肪酸含量及千粒重	[19]
BnaA02g29000D	BnaOLE3	油体蛋白家族，参与降低种子耐寒性，抑制种子萌发	[19]
BnaC08g03140D	BnaOLE5	油体蛋白家族	[19]
GR218754	VfOLE1	油桐种子油体蛋白H-型异构体	[21]
GR218943	VfOLE2	油桐种子油体蛋白H-型异构体	[21]
GR219005	VfOLE3	油桐种子油体蛋白L-型异构体	[21]
GR219158	VfOLE4	油桐种子油体蛋白L-型异构体	[21]
GR218198	VfOLE5	油桐种子油体蛋白L-型异构体	[21]
KP109927	AhOLE22a	花生种子中表达量较高，参与响应非生物胁迫相关过程	[24]
KP109928	AhOLE22b	花生种子中表达量较高，参与响应非生物胁迫相关过程	[24]
KP109929	AhOLE22c	花生种子中表达量较高，参与响应非生物胁迫相关过程	[24]

Table 1

Fig. 3

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Progress on the functional role of oleosin gene family in plants

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