期刊文献+

Phosphorylation‐dependent Traffcking of Plasma Membrane Proteins in Animal and Plant Cells 被引量:5

Phosphorylation‐dependent Traffcking of Plasma Membrane Proteins in Animal and Plant Cells
原文传递
导出
摘要 In both unicellular and multicellular organisms, transmembrane (TM) proteins are sorted to and retained at specific membrane domains by endomembrane trafficking mechanisms that recognize sorting signals in the these proteins. The trafficking and distribution of plasma membrane (PM)-localized TM proteins (PM proteins), especially of those PM proteins that show an asymmetric distribution over the PM, has received much attention, as their proper PM localization is crucial for elementary signaling and transport processes, and defects in their localization often lead to severe disease symptoms or developmental defects. The subcellular localization of PM proteins is dynamically regulated by post-translational modifications, such as phosphorylation and ubiquitination. These modificaitons mostly occur on sorting signals that are located in the larger cytosolic domains of the cargo proteins. Here we review the effects of phosphorylation of PM proteins on their trafficking, and present the key examples from the animal field that have been subject to studies for already several decades, such as that of aquaporin 2 and the epidermal growth factor receptor. Our knowledge on cargo trafficking in plants is largely based on studies of the family of PIN FORMED (PIN) carriers that mediate the efflux of the plant hormone auxin. We will review what is known on the subcellular distribution and trafficking of PIN proteins, with a focus on how this is modulated by phosphorylation, and identify and discuss analogies and differences in trafficking with the well-studied animal examples. In both unicellular and multicellular organisms, transmembrane (TM) proteins are sorted to and retained at specific membrane domains by endomembrane trafficking mechanisms that recognize sorting signals in the these proteins. The trafficking and distribution of plasma membrane (PM)-localized TM proteins (PM proteins), especially of those PM proteins that show an asymmetric distribution over the PM, has received much attention, as their proper PM localization is crucial for elementary signaling and transport processes, and defects in their localization often lead to severe disease symptoms or developmental defects. The subcellular localization of PM proteins is dynamically regulated by post-translational modifications, such as phosphorylation and ubiquitination. These modificaitons mostly occur on sorting signals that are located in the larger cytosolic domains of the cargo proteins. Here we review the effects of phosphorylation of PM proteins on their trafficking, and present the key examples from the animal field that have been subject to studies for already several decades, such as that of aquaporin 2 and the epidermal growth factor receptor. Our knowledge on cargo trafficking in plants is largely based on studies of the family of PIN FORMED (PIN) carriers that mediate the efflux of the plant hormone auxin. We will review what is known on the subcellular distribution and trafficking of PIN proteins, with a focus on how this is modulated by phosphorylation, and identify and discuss analogies and differences in trafficking with the well-studied animal examples.
出处 《Journal of Integrative Plant Biology》 SCIE CAS CSCD 2013年第9期789-808,共20页 植物学报(英文版)
基金 F.H. was supported by grants from the China Scholarship Council the Research Council for Chemical Sciences (700.58.301 to R.O.) with fnancial aid from The Netherlands Organization for Scientifc Research
关键词 Ceil polarity endosomal trafficking PHOSPHORYLATION PIN auxin efflux carriers plasmamembrane-iocalized transmembrane proteins. Ceil polarity endosomal trafficking phosphorylation PIN auxin efflux carriers plasmamembrane-iocalized transmembrane proteins.
  • 相关文献

参考文献3

二级参考文献43

  • 1Rashotte AM, DeLong A, Muday GK. Genetic and chemical reductions in protein phosphatase activity alter auxin transport, gravity response, and lateral root growth. Plant Cell 2001; 13:1683-1697. 被引量:1
  • 2Wasteneys GO, Willingale-Theune J, Menzel D. Freeze shattering: a simple and effective method for permeabilizing higher plant cell walls. J Microsc 1997; 188 (Part 1):51-61. 被引量:1
  • 3McEwen DG, Peifer M. Wnt signaling: the naked truth? Curr Biol2001 ; 11 :R524-R526. 被引量:1
  • 4Goto T, Davidson L, Asashima M, Keller R. Planar cell polarity genes regulate polarized extracellular matrix deposition during frog gastrulation. Curr Biol2005; 15:787-793. 被引量:1
  • 5Klein TJ, Mlodzik M. Planar cell polarization: an emerging model points in the right direction. Annu Rev Cell Dev Biol 2005; 21:155-176. 被引量:1
  • 6Settleman J. Intercalating Arabidopsis leaf cells: a jigsaw puzzle of lobes, necks, ROPs, and RICs. Cell 2005; 120:570- 572. 被引量:1
  • 7Price MH, Roberts DM, McCartney BM, Jezuit E, Peifer M. Cytoskeletal dynamics and cell signaling during planar polarity establishment in the Drosophila embryonic denticle. J Cell Sci 2006; 119(Pt 3):403-415. 被引量:1
  • 8Fu Y, Li H, Yang Z. The ROP2 GTPase controls the formation of cortical fine F-actin and the early phase of directional cell expansion during Arabidopsis organogenesis. Plant Cell 2002; 14:777-794. 被引量:1
  • 9Smith LG. Cytoskeletal control of plant cell shape: getting the fine points. Curr Opin Plant Biol2003; 6:63-73. 被引量:1
  • 10Li S, Blanchoin L, Yang Z, Lord EM. The putative Arabidopsis arp2/3 complex controls leaf cell morphogenesis. Plant Physio12003; 132:2034-2044. 被引量:1

共引文献16

同被引文献41

  • 1Janeway C A, Medzhitov R. Innate immune recognition[J]. Annu Rev Immunology,2006(20) :197-216. 被引量:1
  • 2Kiyohara H, Uchida T, Takakiwa M,et al. Different contribu- tions of side-chains in beta-D-( 1 2> 6)-galactans on intestinal Peyer:s patch-immunomodulation by polysaecharides from Astragalus mongholics Bunge [J]. Phytoehemistry, 2009, 71 (2) :280-293. 被引量:1
  • 3Li, R. Extraction, characterization of Astragalus polysaccha- rides and its immune modulating activities in rats with gastric cancer [J]. Carbohydrate Polymers, 2009,78(4) : 738-742. 被引量:1
  • 4Yin X L. Enhancement of the innate immune response of blad- der epithelial cells by Astragalus polysaccharides through up- regulation of TLR4 expression [J]. Biochemical and Biophysi- cal Research Communications, 2010,397(2) : 232-238. 被引量:1
  • 5Li S G, Zhang Y Q. Characterization and renal protective effect of a polysaccharide from Astragalus membranaceus [J]. Carbohydrate Polymers, 2009,78 (2) : 343-348. 被引量:1
  • 6Gordon S. Pattern recognition receptors: doubling up for the innate immune response [J]. Cell, 2002,111 (7) : 927-930. 被引量:1
  • 7Bolander Jr F F. The role of nitric oxide in the biological ac- tivity of prolactin in the mouse mammary gland [J]. Mol Cel- lular Endocrinol, 2001,174 ( 1/2) : 91-98. 被引量:1
  • 8Kozlowska K, Cichorek M,Wachulska M, et al. Role of inter- leukins and nitric oxide secretion by peritoneal maerophages in differential tumoricidal effect to transplantable melanomas as regarding their biological properties [J ]. Immunotoxieol, 2006,28(2) : 305-317. 被引量:1
  • 9Huang Z, Hoffmann F W, Fay J D, et ah Stimulation of unprimed macrophages with immune complexes triggers a low output of nitric oxide by calcium-dependent neuronal nitric- oxide synthase [J]. J Biol Chem,2012,287(7):492-502. 被引量:1
  • 10Shin-ichiro Inoue,Toshinori Kinoshit,Atsushi Takemiya,Michio Doi,Ken-ichiro Shimazaki.Leaf Positioning of Arabidopsis in Response to Blue Light[J].Molecular Plant,2008,1(1):15-26. 被引量:9

引证文献5

二级引证文献8

相关作者

内容加载中请稍等...

相关机构

内容加载中请稍等...

相关主题

内容加载中请稍等...

浏览历史

内容加载中请稍等...
;
使用帮助 返回顶部