Research Progress on MATE Transporters in Plants

doi:10.11983/CBB22092

Abstract

Abstract: Multidrug and toxic compound extrusion (MATE) transporters are also known as detoxification efflux carriers (DTXs) that are ubiquitously present in prokaryotes and eukaryotes. MATE transporters are membrane proteins usually with twelve transmembrane regions arranged in a "V" shape. MATE/DTX transporters are mainly involved in the modulation of iron homeostasis, transport of inorganic anions and secondary metabolites, the detoxification of heavy metals and xenobiotics, regulation of growth and development, and response to diseases and abiotic stress in plants. This review summarizes the research progress for the discovery, phylogeny, structure, and function of MATE/DTX family proteins and may provide a reference for the stress tolerance improvement of crops and forages with MATE/DTXs.

Key words: MATE transporters, gene structure, function, abiotic stress, growth and development

Jia Zhang, Qidong Li, Cui Li, Qinghai Wang, Xincun Hou, Chunqiao Zhao, Shuhe Li, Qiang Guo. Research Progress on MATE Transporters in Plants[J]. Chinese Bulletin of Botany, 2023, 58(3): 461-474.

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URL: https://www.chinbullbotany.com/EN/10.11983/CBB22092

https://www.chinbullbotany.com/EN/Y2023/V58/I3/461

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基因名称	物种	功能	参考文献
AtDTX43	拟南芥	调节铁稳态	Durrett et al., 2007
OsFRDL1	水稻	调节铁稳态	Yokosho et al., 2009
ScFRDL1	黑麦	调节铁稳态	Yokosho et al., 2010
AtDTX25	拟南芥	调节铁稳态	Hoang et al., 2021
AhFRDL1	花生	调节铁稳态	Qiu et al., 2019
MsMATE1	苜蓿	调节铁稳态	高铭等, 2021
OsPEZ2	水稻	调节铁稳态	Bashir et al., 2011
HvAACT1	大麦	铝解毒	Furukawa et al., 2007
SbMATE	高粱	铝解毒	Magalhaes et al., 2007
AtDTX42	拟南芥	铝解毒	Liu et al., 2009
PvMATEa/b	豇豆	铝解毒	Rangel et al., 2010
VuMATE2	赤小豆	铝解毒	Liu, 2018
ZmMATE1	玉米	铝解毒	Maron et al., 2010
ScFRDL2	黑麦	铝解毒	Yokosho et al., 2010
OsFRDL4	水稻	铝解毒	Yokosho et al., 2011
BoMATE	甘蓝	铝解毒	吴新新, 2014
MsMATE	苜蓿	铝解毒	张宝云, 2017
GmMATE2	丹波黑大豆	铝解毒	胡俊等, 2019
CsMATE9	茶树	铝解毒	陈益, 2019
GmMATE13	大豆	铝解毒	龚莉, 2020
AtDTX1	拟南芥	响应镉胁迫	Li et al., 2002
AtDTX19	拟南芥	外排四甲基铵	Diener et al., 2001
AtDTX6	拟南芥	外排百草枯	Xia et al., 2021
AtDTX41	拟南芥	转运花青素前体	Marinova, 2007
MtMATE1	蒺藜苜蓿	转运E3′G	Zhao and Dixon, 2009
MtMATE2	蒺藜苜蓿	转运类黄酮	Zhao et al., 2011
FaTT12-1	草莓	转运原花青素	Chen et al., 2018
NtMATE3	烟草	转运尼古丁	Shitan et al., 2014
NtMATE1	烟草	转运生物碱	Shoji et al., 2009
AtDTX18	拟南芥	参与抗病	Dobritzsch et al., 2016
OsMATE1	水稻	参与抗病	Tiwari et al., 2014
OsMATE2	水稻	参与抗病	Tiwari et al., 2014
AtDTX51	拟南芥	参与生长素合成	Li et al., 2014
AtDTX50	拟南芥	转运脱落酸	Zhang et al., 2014
OsDTX54	水稻	转运脱落酸	Qin et al., 2021
AtDTX47	拟南芥	转运水杨酸	Nawrath et al., 2002
AtDTX33	拟南芥	转运Cl^-	Zhang et al., 2017
AtDTX35	拟南芥	转运Cl^-	Zhang et al., 2017
OsBIG1	水稻	转运Cl^-	Ren et al., 2021

基因名称	物种	功能	参考文献
AtDTX43	拟南芥	调节铁稳态	Durrett et al., 2007
OsFRDL1	水稻	调节铁稳态	Yokosho et al., 2009
ScFRDL1	黑麦	调节铁稳态	Yokosho et al., 2010
AtDTX25	拟南芥	调节铁稳态	Hoang et al., 2021
AhFRDL1	花生	调节铁稳态	Qiu et al., 2019
MsMATE1	苜蓿	调节铁稳态	高铭等, 2021
OsPEZ2	水稻	调节铁稳态	Bashir et al., 2011
HvAACT1	大麦	铝解毒	Furukawa et al., 2007
SbMATE	高粱	铝解毒	Magalhaes et al., 2007
AtDTX42	拟南芥	铝解毒	Liu et al., 2009
PvMATEa/b	豇豆	铝解毒	Rangel et al., 2010
VuMATE2	赤小豆	铝解毒	Liu, 2018
ZmMATE1	玉米	铝解毒	Maron et al., 2010
ScFRDL2	黑麦	铝解毒	Yokosho et al., 2010
OsFRDL4	水稻	铝解毒	Yokosho et al., 2011
BoMATE	甘蓝	铝解毒	吴新新, 2014
MsMATE	苜蓿	铝解毒	张宝云, 2017
GmMATE2	丹波黑大豆	铝解毒	胡俊等, 2019
CsMATE9	茶树	铝解毒	陈益, 2019
GmMATE13	大豆	铝解毒	龚莉, 2020
AtDTX1	拟南芥	响应镉胁迫	Li et al., 2002
AtDTX19	拟南芥	外排四甲基铵	Diener et al., 2001
AtDTX6	拟南芥	外排百草枯	Xia et al., 2021
AtDTX41	拟南芥	转运花青素前体	Marinova, 2007
MtMATE1	蒺藜苜蓿	转运E3′G	Zhao and Dixon, 2009
MtMATE2	蒺藜苜蓿	转运类黄酮	Zhao et al., 2011
FaTT12-1	草莓	转运原花青素	Chen et al., 2018
NtMATE3	烟草	转运尼古丁	Shitan et al., 2014
NtMATE1	烟草	转运生物碱	Shoji et al., 2009
AtDTX18	拟南芥	参与抗病	Dobritzsch et al., 2016
OsMATE1	水稻	参与抗病	Tiwari et al., 2014
OsMATE2	水稻	参与抗病	Tiwari et al., 2014
AtDTX51	拟南芥	参与生长素合成	Li et al., 2014
AtDTX50	拟南芥	转运脱落酸	Zhang et al., 2014
OsDTX54	水稻	转运脱落酸	Qin et al., 2021
AtDTX47	拟南芥	转运水杨酸	Nawrath et al., 2002
AtDTX33	拟南芥	转运Cl^-	Zhang et al., 2017
AtDTX35	拟南芥	转运Cl^-	Zhang et al., 2017
OsBIG1	水稻	转运Cl^-	Ren et al., 2021