0000000000981998

AUTHOR

Lei Jiang

showing 2 related works from this author

The ER-Membrane Transport System Is Critical for Intercellular Trafficking of the NSm Movement Protein and Tomato Spotted Wilt Tospovirus.

2015

Plant viruses move through plasmodesmata to infect new cells. The plant endoplasmic reticulum (ER) is interconnected among cells via the ER desmotubule in the plasmodesma across the cell wall, forming a continuous ER network throughout the entire plant. This ER continuity is unique to plants and has been postulated to serve as a platform for the intercellular trafficking of macromolecules. In the present study, the contribution of the plant ER membrane transport system to the intercellular trafficking of the NSm movement protein and Tomato spotted wilt tospovirus (TSWV) is investigated. We showed that TSWV NSm is physically associated with the ER membrane in Nicotiana benthamiana plants. An…

RNA viruses0301 basic medicineLeavesCell MembranesNicotiana benthamianaPlant ScienceEndoplasmic ReticulumPathology and Laboratory MedicineBiochemistrySolanum lycopersicumTospovirusBunyavirusesMedicine and Health SciencesArabidopsis thalianaMovement proteinBiology (General)Integral membrane proteinSecretory PathwaybiologyPlant BiochemistryPlant AnatomyPlasmodesmataProteïnes de membranafood and beveragesPlantsPlants Genetically ModifiedCell biologyTransport proteinPlant Viral Movement ProteinsProtein TransportMedical MicrobiologyCell ProcessesViral PathogensVirusesPathogensCellular Structures and OrganellesTomato Spotted Wilt VirusResearch ArticleBioquímicaCell PhysiologyQH301-705.5Arabidopsis ThalianaImmunologyPlant PathogensBrassicaPlasmodesmaResearch and Analysis MethodsMicrobiologyPlant Viral Pathogens03 medical and health sciencesModel OrganismsPlant and Algal ModelsVirologyTobaccoGeneticsIntegral Membrane ProteinsSecretionMicrobial PathogensMolecular BiologyPlant DiseasesBiology and life sciencesEndoplasmic reticulumfungiOrganismsMembrane ProteinsCell BiologyPlant PathologyRC581-607biology.organism_classificationVirosis (Plantes)VirologyPlant Leaves030104 developmental biologyMembrane TraffickingParasitologyImmunologic diseases. AllergyPLoS Pathogens
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Biosilica aging: From enzyme-driven gelation via syneresis to chemical/biochemical hardening

2013

Abstract Background The distinguished property of the siliceous sponge spicules is their enzyme (silicatein)-catalyzed biosilica formation. The enzymatically formed, non-structured biosilica product undergoes a molding, syneresis, and hardening process to form the species-specifically shaped, hard structured skeletal spicules. Besides of silicatein, a silicatein-associated protein, silintaphin-2, is assumed to be involved in the process of biosilica formation in vivo. Methods Biosilica has been synthesized enzymatically and determined quantitatively. In addition, the subsequent hardening/aging steps have been followed by spectroscopic and electron microscopic analyses. Results The young spi…

Reaction mechanismSodiumBiophysicschemistry.chemical_elementPeptide02 engineering and technologyBiochemistry03 medical and health sciencesSponge spiculeAnimalsMolecular Biology030304 developmental biologychemistry.chemical_classification0303 health sciencesbiologySyneresis021001 nanoscience & nanotechnologybiology.organism_classificationAmino acidSpongePolymerizationchemistryChemical engineeringBiochemistryGlassSuberites0210 nano-technologyBiochimica et Biophysica Acta (BBA) - General Subjects
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