Literature DB >> 26070789

Marburg virus inclusions: A virus-induced microcompartment and interface to multivesicular bodies and the late endosomal compartment.

Olga Dolnik1, Lea Stevermann1, Larissa Kolesnikova1, Stephan Becker2.   

Abstract

Filovirus infection of target cells leads to the formation of virally induced cytoplasmic inclusions that contain viral nucleocapsids at different stages of maturation. While the role of the inclusions has been unclear since the identification of Marburg and Ebola viruses, it recently became clear that the inclusions are the sites of viral replication, nucleocapsid formation and maturation. Live cell imaging analyses revealed that mature nucleocapsids are transported from inclusions to the filopodia, which represent the major budding sites. Moreover, inclusions recruit cellular proteins that have been shown to support the transport of nucleocapsids. For example, the tumor susceptibility gene 101 protein (Tsg101) interacts with a late domain motif in the nucleocapsid protein NP and recruits the actin-nucleation factor IQGAP1. Complexes of nucleocapsids together with Tsg101 and IQGAP1 are then co-transported along actin filaments. We detected additional proteins (Alix, Nedd4 and the AAA-type ATPase VPS4) of the endosomal sorting complex required for transport (ESCRT) that are recruited into inclusions. Together, the results suggest that nucleocapsids recruit the machinery that enhances viral budding at the plasma membrane. Furthermore, we identified Lamp1 as a marker of the late endosomal compartment in inclusions, while ER, Golgi, TGN and early endosomal markers were absent. In addition, we observed that LC3, a marker of autophagosomal membranes, was present in inclusions. The 3D structures of inclusions show an intricate structure that seems to accommodate an intimate cooperation between cellular and viral components with the intention to support viral transport and budding.
Copyright © 2015 Elsevier GmbH. All rights reserved.

Entities:  

Keywords:  Alix; ESCRT; Inclusions; Lamp-1; Late domain; Marburg virus; Nedd4; Nucleoprotein

Mesh:

Substances:

Year:  2015        PMID: 26070789     DOI: 10.1016/j.ejcb.2015.05.006

Source DB:  PubMed          Journal:  Eur J Cell Biol        ISSN: 0171-9335            Impact factor:   4.492


  22 in total

1.  Phosphorylation cascade regulates the formation and maturation of rotaviral replication factories.

Authors:  Jeanette M Criglar; Ramakrishnan Anish; Liya Hu; Sue E Crawford; Banumathi Sankaran; B V Venkataram Prasad; Mary K Estes
Journal:  Proc Natl Acad Sci U S A       Date:  2018-12-03       Impact factor: 11.205

2.  Ebola Virus Inclusion Body Formation and RNA Synthesis Are Controlled by a Novel Domain of Nucleoprotein Interacting with VP35.

Authors:  Tsuyoshi Miyake; Charlotte M Farley; Benjamin E Neubauer; Thomas P Beddow; Thomas Hoenen; Daniel A Engel
Journal:  J Virol       Date:  2020-07-30       Impact factor: 5.103

3.  Ebola virus proteins NP, VP35, and VP24 are essential and sufficient to mediate nucleocapsid transport.

Authors:  Yuki Takamatsu; Larissa Kolesnikova; Stephan Becker
Journal:  Proc Natl Acad Sci U S A       Date:  2018-01-16       Impact factor: 11.205

4.  Ebola Virus Does Not Induce Stress Granule Formation during Infection and Sequesters Stress Granule Proteins within Viral Inclusions.

Authors:  Emily V Nelson; Kristina M Schmidt; Laure R Deflubé; Sultan Doğanay; Logan Banadyga; Judith Olejnik; Adam J Hume; Elena Ryabchikova; Hideki Ebihara; Nancy Kedersha; Taekjip Ha; Elke Mühlberger
Journal:  J Virol       Date:  2016-07-27       Impact factor: 5.103

5.  Human Metapneumovirus Induces Formation of Inclusion Bodies for Efficient Genome Replication and Transcription.

Authors:  Nicolás Cifuentes-Muñoz; Jean Branttie; Kerri Beth Slaughter; Rebecca Ellis Dutch
Journal:  J Virol       Date:  2017-11-30       Impact factor: 5.103

6.  FAM134B, the Selective Autophagy Receptor for Endoplasmic Reticulum Turnover, Inhibits Replication of Ebola Virus Strains Makona and Mayinga.

Authors:  Abhilash I Chiramel; Jonathan D Dougherty; Vinod Nair; Shelly J Robertson; Sonja M Best
Journal:  J Infect Dis       Date:  2016-08-10       Impact factor: 5.226

Review 7.  Distinct Genome Replication and Transcription Strategies within the Growing Filovirus Family.

Authors:  Adam J Hume; Elke Mühlberger
Journal:  J Mol Biol       Date:  2019-06-29       Impact factor: 5.469

8.  Functional organization of cytoplasmic inclusion bodies in cells infected by respiratory syncytial virus.

Authors:  Vincent Rincheval; Mickael Lelek; Elyanne Gault; Camille Bouillier; Delphine Sitterlin; Sabine Blouquit-Laye; Marie Galloux; Christophe Zimmer; Jean-François Eleouet; Marie-Anne Rameix-Welti
Journal:  Nat Commun       Date:  2017-09-15       Impact factor: 14.919

9.  Unveiling a Drift Resistant Cryptotope within Marburgvirus Nucleoprotein Recognized by Llama Single-Domain Antibodies.

Authors:  John Anthony Garza; Alexander Bryan Taylor; Laura Jo Sherwood; Peter John Hart; Andrew Hayhurst
Journal:  Front Immunol       Date:  2017-10-02       Impact factor: 7.561

Review 10.  Marburg Virus Reverse Genetics Systems.

Authors:  Kristina Maria Schmidt; Elke Mühlberger
Journal:  Viruses       Date:  2016-06-22       Impact factor: 5.048

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