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S Gray, FE Gildow (2003)
Luteovirus-aphid interactionsAnnu Rev Phytopathol, 41
MH Regenmortel, MA Mayo, CM Fauquet, J Maniloff (2000)
Virus nomenclature: consensus versus chaosArch Virol, 145
L Lee, P Palukaitis, SM Gray (2002)
Host-dependent requirement for the potato leafroll virus 17-kDa protein in virus movementMol Plant-Microbe Interact, 10
GH Zhou, SX Zhang, YT Qian (1987)
Identification and applications of four strains of Wheat yellow dwarf virusSci Agric, 20
WA Miller, S Liu, R Beckett (2002)
Barley yellow dwarf virus: Luteoviridae or Tombusviridae?Mol Plant Pathol, 3
L Stavolone, ME Villani, D Leclerc, T Hohn (2005)
A coiled-coil interaction mediates cauliflower mosaic virus cell-to-cell movementProc Natl Acad Sci USA, 102
MA Mayo, V Ziegler-Graff (1996)
Molecular biology of luteovirusesAdv Virus Res, 46
WF Rochow, I Muller (1971)
Fifth variant of Barley yellow dwarf virus in New YorkPlant Dis Rep, 55
WF Rochow (1969)
Biological properties of four isolates of Barley yellow dwarf virusPhytopathology, 59
X Jia, C Xu, R Jing, R Li, X Mao, J Wang, X Chang (2008)
Molecular cloning and characterization of wheat calreticulin (CRT) gene involved in drought-stressed responsesJ Exp Bot, 59
Z Xia, Y Zhang, K Liu, D Wang (2002)
Barley yellow dwarf disease: recent advances and future strategies
X Cheng, X Wang, J Wu, RW Briddon, X Zhou (2011)
βC1 encoded by tomato yellow leaf curl China betasatellite forms multimeric complexes in vitro and in vivoVirology, 409
WA Miller, L Rasochova (1997)
Barley yellow dwarf virusesAnnu Rev Phytopathol, 35
Z Xia, Y Wang, Z Du, J Li, RY Zhao, D Wang (2008)
A potential nuclear envelope-targeting domain and an arginine-rich RNA binding element identified in the putative movement protein of the GAV strain of Barley yellow dwarf virusFunct Plant Biol, 35
E Tacke, J Schmitz, D Prüfer, W Rohde (1993)
Mutational analysis of the nucleic acid-binding 17 kDa phosphoprotein of potato leafroll luteovirus identifies an amphipathic alpha-helix as the domain for protein/protein interactionsVirology, 197
GD Constantin, BN Krath, SA MacFarlane, M Nicolaisen, IE Johansen, OS Lund (2004)
Virus-induced gene silencing as a tool for functional genomics in a legume speciesPlant J, 40
FE Gildow (1987)
Virus–membrane interactions involved in circulative transmission of luteoviruses by aphidsCurr Top Vector Res, 4
K Liu, Z Xia, Y Zhang, Y Wen, D Wang, K Brandenburg, F Harris, DA Phoenix (2005)
Interaction between the movement protein of barley yellow dwarf virus and the cell nuclear envelope: role of a putative amphiphilic alpha-helix at the N-terminus of the movement proteinBiopolymers, 79
M Walter, C Chaban, K Schutze, O Batistic, K Weckermann, C Nake, D Blazevic, C Grefen, K Schumacher, C Oecking (2004)
Visualization of protein interactions in living plant cells using bimolecular fluorescence complementationPlant J, 40
Z Xia, X Su, J Wu, K Wu, H Zhang (2012)
Molecular cloning and functional characterization of a putative sulfite oxidase (SO) ortholog from Nicotiana benthamianaMol Biol Rep, 39
MM Bradford (1976)
A rapid and sensitive method for the quantitation of microgram quantities of protein utilizing the principal of protein-dye bindingAnal Biochem, 72
C Zhang, Y Liu, L Liu, Z Lou, H Zhang, H Miao, X Hu, Y Pang, B Qiu (2008)
Rice black streaked dwarf virus P9–1, an alpha-helical protein, self-interacts and forms viroplasms in vivoJ Gen Virol, 89
The 17-kDa movement protein (MP) of the GAV strain of barley yellow dwarf virus (BYDV-GAV) can bind the viral RNA and target to the nucleus. However, much less is known about the active form of the MP in planta . In this study, the ability of the MP to self-interact was analyzed by yeast two-hybrid assay and bimolecular fluorescence complementation. The BYDV-GAV MP has a strong potential to self-interact in vitro and in vivo , and self-interaction was mediated by the N-terminal domain spanning the second α-helix (residues 17-39). Chemical cross-linking and heterologous MP expression from a pea early browning virus (PEBV) vector further showed that MP self-interacts to form homodimers in vitro and in planta . Interestingly, the N-terminal domain necessary for MP self-interaction has previously been identified as important for nuclear targeting. Based on these findings, a functional link between MP self-interaction and nuclear targeting is discussed.
Archives of Virology – Springer Journals
Published: Jul 1, 2012
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