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Peptide display on Potato virus X: Molecular features of the coat protein-fused peptide affecting cell-to-cell and phloem movement of chimeric virus particles

TitoloPeptide display on Potato virus X: Molecular features of the coat protein-fused peptide affecting cell-to-cell and phloem movement of chimeric virus particles
Tipo di pubblicazioneArticolo su Rivista peer-reviewed
Anno di Pubblicazione2006
AutoriLico, Chiara, Capuano F., Renzone G., Donini Marcello, Marusic Carla, Scaloni A., Benvenuto Eugenio, and Baschieri Selene
RivistaJournal of General Virology
Volume87
Paginazione3103 - 3112
Data di pubblicazione2006
ISBN Number00221317 (ISSN)
Parole chiaveAmino Acid Sequence, amino terminal sequence, article, Capsid Proteins, coat protein, controlled study, DNA modification, drug formulation, expression vector, Genetic engineering, isoelectric point, Movement, mutation, nonhuman, peptide, phloem, Plant leaves, plant virus, Plasmids, Potato virus X, Potexvirus, priority journal, protein expression, protein subunit, Recombinant Fusion Proteins, Tobacco, tryptophan, virus gene, virus genome, virus infection, virus isolation, virus mutant, virus particle, virus vaccine
Abstract

The potexvirus Potato virus X(PVX) can be modified genetically to generate chimeric virus particles (CVPS) carrying heterologous peptides fused to coat protein (CP) subunits. A spontaneous PVX mutant expressing a truncated, but functional, form of the CP has been isolated. With the aim of exploiting this virus to display peptides useful for vaccine formulations, two novel viral expression vectors based on pPVX201 (bearing the wild-type PVX genome) were constructed encoding the truncated CP. Both vectors were able to produce infectious virus particles in planta and were used to insert a panel of sequences encoding pepticles of biopharmaceutical interest as N-terminal fusions to the truncated cp gene. The analysis of infection progression induced by the different constructs enabled identification of two important structural features of the fused peptide, namely tryptophan content and isoelectric point, critically affecting the formation of PVX CVPs and virus movement through the plant. These results are discussed in view of the rising interest in engineered plant viruses for development of peptide-based epitope vaccines. © 2006 SGM.

Note

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