Research Progress of Ca2+-ATPase Involved in Regulation of Plant Salt Tolerance

doi:10.7525/j.issn.1673-5102.2024.05.001

Abstract

Abstract:

When cytosolic Ca²⁺ concentration is increased under salt stress， cells would activate Ca²⁺-regulated target enzymes or induce Ca²⁺ bind to Ca²⁺ high-affinity receptor proteins. Among them， plant Ca²⁺-ATPases are P-type ATPases， including endoplasmic reticulum Ca²⁺-ATPase（ECAs） and plasma membrane Ca²⁺-ATPase（ACAs）； they are able to translocate Ca²⁺ from the cytosol to apoplast or compartmentalize Ca²⁺ in organelles. Numerous studies have shown that salt tolerance of plants is largely related to their ability to maintain the activities of calcium pump， namely Ca²⁺-ATPases. The activities of Ca²⁺-ATPases in various plant species were sensitive to salt stress； exogenous Ca²⁺ application can alleviate cell injury by salt stress， suggesting that exogenous calcium -mediated Ca²⁺-ATPase might play an important role in intracellular calcium homeostasis and signal transduction. Therefore， this review summarized the types， structures and properties of plant Ca²⁺-ATPase， and the involvement of Ca²⁺-ATPase of subcellular localization in plant response to salt tolerance and the research progress of exogenous calcium and Ca²⁺-ATPase in regulation on plant salt tolerance. It emphasized potential roles of Ca²⁺-ATPases of plant plasma membrane， tonoplast， nuclear membrane， endoplasmic reticulum and Golgi in regulation of salt tolerance in plants， and presented an outlook in the field. This work provided help for a better understanding of physiological and molecular mechanisms of plant salt tolerance and provided new ideas for crop salt-tolerance cultivation.

Key words: Ca²⁺-ATPase, plasma membrane, tonoplast, endoplasmic reticulum, nuclear envelope, salt stress

CLC Number:

Q945

Xiuying MA, Jinke LI, Xiaoyang ZHOU, Shaoliang CHEN. Research Progress of Ca²⁺-ATPase Involved in Regulation of Plant Salt Tolerance[J]. Bulletin of Botanical Research, 2024, 44(5): 641-654.

Figures/Tables 1

Table 1

The information of Ca2+-ATPase gene family members in plants under salt stress

物种名称 Species	基因名称 Gene name	长度 Length/bp	分子量 Molecular weight/kDa	跨膜结构域 Transmembrane domain	内含子 Introns	N端自抑制结构域 N-terminal autoinhibitory domains	亚细胞定位 Subcellular localization	功能 Function	参考文献 Reference
大豆 Glycine max	SCA1	3 042	110.4	10	6	N端结构域包含2个钙调蛋白绑定序列 The N-terminal domain containing two calmodulin binding sequences	质膜 Plasma membrane	提高耐盐性 Increased salt tolerance	［41］
	GmACA8		117.9	10	4	不包含 Not containing	质膜 Plasma membrane	提高耐盐性 Increased salt tolerance	［42］
	GmACA9		119.3	10	6	包含 Containing	质膜 Plasma membrane
	GmACA10		120.8	10	6	包含 Containing	质膜 Plasma membrane
	GmACA12		118.0	8	6	包含 Containing	质膜 Plasma membrane
	GmACA13		113.1	10	34	包含 Containing	质膜 Plasma membrane
	GmACA11		113.5	8	6	包含 Containing	液泡膜 Tonoplast	提高耐盐性 Increased salt tolerance	［42］
	GmECA1		116.4	10	7	不包含 Not containing	内质网 Endoplasmic reticulum	提高耐盐性 Increased salt tolerance	［42］
	GmACA2		110.6	10	6	包含 Containing	内质网 Endoplasmic reticulum	提高耐盐性 Increased salt tolerance	［42］
	GmECA3		109.9	8	33	不包含 Not containing	高尔基体 Golgi	负向调控盐胁迫 Negative regulation of salt stress	［42］
	GmACA1	5 870	111.3	10	6	包含 Containing		在盐胁迫下被快速诱导 Be quickly induced by salt stress	［43］
	GmACA2	5 937	110.6	10	6	包含 Containing
	GmACA12	11 316	118.0	8	6	包含 Containing
	GmACA13	18 907	113.1	10	34	包含 Containing
	GmACA22	3 885		8	3	不包含 Not containing
	GmACA23	3 844		10	0	不包含 Not containing
	GmACA25	4 367		10	0	不包含 Not containing
	GmACA26	4 072		10	1
野生大豆 Glycine soja	GsACA1							提高耐盐性 Increased salt tolerance	［44］
水稻 Oryza sativa	OsACA6	3 267	117.66	10	34	包含 Containing	质膜 Plasma membrane	提高耐盐性 Increased salt tolerance	［45］
籼稻 Oryza sativa subsp. indica	OsACA4	3 060			6		液泡膜 Tonoplast	提高耐盐性 Increased salt tolerance	［14］［46］
水稻 Oryza sativa ssp. indica	OsACA7	3 222			8	包含 Containing	高尔基体 Golgi	提高耐盐性 Increased salt tolerance	［14］［47］
水稻 Oryza sativa ssp. indica	OsACA5	3 102			6	不包含 Not containing		提高耐盐性 Increased salt tolerance	［14］［47］
拟南芥 Arabidopsis thaliana	AtACA4	3 093	113	10	6	N端含有1个钙调素结合位点的自抑制结构域 The N terminus containing an autoinhibitory domain with a binding site for calmodulin	液泡膜 Tonoplast	提高耐盐性 Increased salt tolerance	［14］［48］
	AtACA11	3 078	137	10	6	N端自身抑制区域的前37个残基中鉴定了钙调素结合域 A calmodulin binding domain identified within the first 37 residues of the N-terminal autoinhibitory region	液泡膜 Tonoplast	提高耐盐性 Increased salt tolerance	［14］［49］
	ACA2p		110	10		N端结构域的前36个残基内鉴定了1个钙调素结合序列 A calmodulin-binding sequence identified within the first 36 residues of the N-terminal domain	核膜 Nuclear membrane	可能在核膜上发挥作用 Potential function at the nuclear membrane	［50］［51］
	AtACA2	3 045		10	6	包含 Containing	内质网 Endoplasmic reticulum	提高耐盐性 Increased salt tolerance	［14］［15］
	AtECA3	2 997			33	不包含 Not containing	高尔基体 Golgi	提高耐盐性 Increased salt tolerance	［14］
苔藓 Physcomitrella patens	PCA1			10	33	包含 Containing	液泡膜 Tonoplast	提高耐盐性 Increased salt tolerance	［52］
苜蓿 Medicago truncatula	MCA8						核膜 Nuclear membrane	对核溶质Ca²⁺峰值至关重要 Critical for nuclear solute Ca²⁺ peaks	［53］
番茄 Lycopersicon esculentum	LCA1 gLCA13		116	8	6	不包含 Not containing	内质网 Endoplasmic reticulum	提高耐盐性 Increased salt tolerance	［54］
	SLyACA1				6			提高耐盐性 Increased salt tolerance	［55］
	SLyACA5				6
	SLyACA6				32
烟草 Nicotiana tabacum	cDNA	1 149		6		不包含 Not containing	内质网 Endoplasmic reticulum	提高耐盐性 Increased salt tolerance	［56］
小麦 Triticum aestivum	TaACA2		110.5	8.56	0	不包含 Not containing	质膜 Plasma membrane	提高耐盐性 Increased salt tolerance	［57］
	TaACA3		124.3	10.00	33	包含 Containing	质膜 Plasma membrane
	TaECA3		105.6	6.72	21	不包含 Not containing	质膜 Plasma membrane
茶树 Camellia sinensis	c251091.graph_c0							提高耐盐性 Increased salt tolerance	［16］
	c195283.graph_c1
	TEA027212.1
大白菜 Brassica pekinensis	Bra031701	3 256	118.3	8	33	不包含 Not containing	质膜 Plasma membrane	提高耐盐性 Increased salt tolerance	［58］

Table 1

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Research Progress of Ca²⁺-ATPase Involved in Regulation of Plant Salt Tolerance

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