The influence of the cytoskeleton on the development and behavior of viral factories in mammalian orthoreovirus

被引:0
|
作者
Lee, Melissa [1 ]
Vetter, Janine [1 ]
Eichwald, Catherine [1 ]
机构
[1] Univ Zurich, Inst Virol, Zurich, Switzerland
关键词
Microtubules; Dynein; Dynamitin; mu; 2; Viral factories; Perinuclear; Coalescence; Tubulin; Acetylation; Vimentin; Actin; Reovirus; Microtubule-organizing center; Reoviridales; PROTEIN MU-NS; REOVIRUS SIGMA-NS; REVERSE GENETICS SYSTEM; INTERMEDIATE-FILAMENTS; NONENVELOPED VIRUS; TRIPHOSPHATASE ACTIVITIES; MULTIFUNCTIONAL PROTEINS; CYTOPLASMIC DYNEIN; DYNACTIN COMPLEX; CORE PARTICLES;
D O I
10.1016/j.virol.2025.110423
中图分类号
Q93 [微生物学];
学科分类号
071005 ; 100705 ;
摘要
Cytosolic viral factories (VFs) of mammalian orthoreovirus (MRV) are sites for viral genome replication and assembly of virus progeny. Despite advancements in reverse genetics, the formation and dynamics of VFs still need to be clarified. MRV exploits host cytoskeletal components like microtubules (MTs) throughout its life cycle, including cell entry, replication, and release. MRV VFs, membrane-less cytosolic inclusions, rely on the viral proteins mu 2 and mu NS for formation. Protein mu 2 interacts and stabilizes MTs through acetylation, supporting VF formation and viral replication, while scaffold protein mu NS influences cellular components to aid VF maturation. The disruption of the MT network reduces viral replication, underscoring its importance. Additionally, mu 2 associates with MT-organizing centers, modulating the MT dynamics to favor viral replication. In summary, MRV subverts the cytoskeleton to facilitate VF dynamics and promote viral replication and assembly to promote VF dynamics, replication, and assembly, highlighting the critical role of the cytoskeleton in viral replication.
引用
收藏
页数:11
相关论文
共 50 条
  • [21] Mammalian TRIM67 Functions in Brain Development and Behavior
    Boyer, Nicholas P.
    Monkiewicz, Caroline
    Menon, Shalini
    Moy, Sheryl S.
    Gupton, Stephanie L.
    ENEURO, 2018, 5 (03)
  • [22] INFLUENCE OF LARGE DOSES OF RIFAMPICIN ON MAMMALIAN EMBRYONIC-DEVELOPMENT
    BASS, R
    JAGER, E
    NAUNYN-SCHMIEDEBERGS ARCHIVES OF PHARMACOLOGY, 1974, 282 : R4 - R4
  • [23] The influence of infill development on travel behavior
    Merlin, Louis A.
    RESEARCH IN TRANSPORTATION ECONOMICS, 2018, 67 : 54 - 67
  • [24] Carving Nature at Its Joints: Mammalian Anatomy, Behavior, Development, and Evolution
    Dunbar, Donald C.
    AMERICAN JOURNAL OF PRIMATOLOGY, 2023, 85 (04)
  • [25] The influence of genomic imprinting on brain development and behavior
    Goos, LM
    Silverman, I
    EVOLUTION AND HUMAN BEHAVIOR, 2001, 22 (06) : 385 - 407
  • [26] CHEATING BEHAVIOR, SITUATIONAL INFLUENCE, AND MORAL DEVELOPMENT
    LEMING, JS
    JOURNAL OF EDUCATIONAL RESEARCH, 1978, 71 (04): : 214 - 217
  • [28] The influence of acute asthma exacerbation on development of viral upper respiratory infection
    Hardison, J.
    Hettinger, A.
    Smith, T.
    Yawn, B.
    Jacobson, R.
    Juhn, Y.
    ALLERGY, 2008, 63 : 303 - 303
  • [29] MATHEMATICAL SIMULATING OF THE INFLUENCE OF INTERFERON INDUCERS IN THE DEVELOPMENT OF VIRAL-INFECTION
    CHIZHOV, NP
    CHURNOSOV, EV
    VOPROSY VIRUSOLOGII, 1988, (01) : 94 - 98
  • [30] Imaging Viral Behavior in Mammalian Cells with Self-Assembled Capsid-Quantum-Dot Hybrid Particles
    Li, Feng
    Zhang, Zhi-Ping
    Peng, Jun
    Cui, Zong-Qiang
    Pang, Dai-Wen
    Li, Ke
    Wei, Hong-Ping
    Zhou, Ya-Feng
    Wen, Ji-Kai
    Zhang, Xian-En
    SMALL, 2009, 5 (06) : 718 - 726