A successful infection by a plant virus results from the complex molecular interplay between
the host plant and the invading virus. Thus, dissecting the molecular network of virus-host …

Replication and intercellular spread of viruses depend on host mechanisms supporting the
formation, transport and turnover of functional complexes between viral genomes, virus …

The plant cell-wall matrix is equipped with more than 20 glycosylhydrolase activities,
including both glycosidases and glycanases (exo-and endo-hydrolases, respectively), which …

Plant viruses use movement proteins (MPs) to modify intercellular pores called
plasmodesmata (PD) to cross the plant cell wall. Many viruses encode a conserved set of …

Multipartite viruses have one of the most puzzling genetic organizations found in living
organisms. These viruses have several genome segments, each containing only a part of …

Movement proteins (MPs) encoded by plant viruses deliver viral genomes to
plasmodesmata (PD) to ensure intracellular and intercellular transport. However, how the …

To successfully infect plants, viruses replicate in an initially infected cell and then move to
neighboring cells through plasmodesmata (PDs). However, the nature of the viral entity that …

Over a hundred years of research on plant viruses has led to a detailed understanding of
viral replication, movement, and host–virus interactions. The functions of vast viral genes …

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 …

A unique feature shared by all plant viruses of the Potyviridae family is the induction of
characteristic pinwheel-shaped inclusion bodies in the cytoplasm of infected cells. These …