TRIM5α: A Protean Architect of Viral Recognition and Innate Immunity

The evolutionary pressures exerted by viral infections have led to the development of various cellular proteins with potent antiviral activities, some of which are known as antiviral restriction factors. TRIpartite Motif-containing protein 5 alpha (TRIM5α) is a well-studied restriction factor of ret...

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Published inViruses Vol. 16; no. 7; p. 997
Main Authors Spada, Stephanie J., Grigg, Michael E., Bouamr, Fadila, Best, Sonja M., Zhang, Peijun
Format Journal Article
LanguageEnglish
Published Switzerland MDPI AG 01.07.2024
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Abstract The evolutionary pressures exerted by viral infections have led to the development of various cellular proteins with potent antiviral activities, some of which are known as antiviral restriction factors. TRIpartite Motif-containing protein 5 alpha (TRIM5α) is a well-studied restriction factor of retroviruses that exhibits virus- and host-species-specific functions in protecting against cross-primate transmission of specific lentiviruses. This specificity is achieved at the level of the host gene through positive selection predominantly within its C-terminal B30.2/PRYSPRY domain, which is responsible for the highly specific recognition of retroviral capsids. However, more recent work has challenged this paradigm, demonstrating TRIM5α as a restriction factor for retroelements as well as phylogenetically distinct viral families, acting similarly through the recognition of viral gene products via B30.2/PRYSPRY. This spectrum of antiviral activity raises questions regarding the genetic and structural plasticity of this protein as a mediator of the recognition of a potentially diverse array of viral molecular patterns. This review highlights the dynamic evolutionary footprint of the B30.2/PRYSPRY domain in response to retroviruses while exploring the guided ‘specificity’ conferred by the totality of TRIM5α’s additional domains that may account for its recently identified promiscuity.
AbstractList The evolutionary pressures exerted by viral infections have led to the development of various cellular proteins with potent antiviral activities, some of which are known as antiviral restriction factors. TRIpartite Motif-containing protein 5 alpha (TRIM5α) is a well-studied restriction factor of retroviruses that exhibits virus- and host-species-specific functions in protecting against cross-primate transmission of specific lentiviruses. This specificity is achieved at the level of the host gene through positive selection predominantly within its C-terminal B30.2/PRYSPRY domain, which is responsible for the highly specific recognition of retroviral capsids. However, more recent work has challenged this paradigm, demonstrating TRIM5α as a restriction factor for retroelements as well as phylogenetically distinct viral families, acting similarly through the recognition of viral gene products via B30.2/PRYSPRY. This spectrum of antiviral activity raises questions regarding the genetic and structural plasticity of this protein as a mediator of the recognition of a potentially diverse array of viral molecular patterns. This review highlights the dynamic evolutionary footprint of the B30.2/PRYSPRY domain in response to retroviruses while exploring the guided 'specificity' conferred by the totality of TRIM5α's additional domains that may account for its recently identified promiscuity.
The evolutionary pressures exerted by viral infections have led to the development of various cellular proteins with potent antiviral activities, some of which are known as antiviral restriction factors. TRIpartite Motif-containing protein 5 alpha (TRIM5α) is a well-studied restriction factor of retroviruses that exhibits virus- and host-species-specific functions in protecting against cross-primate transmission of specific lentiviruses. This specificity is achieved at the level of the host gene through positive selection predominantly within its C-terminal B30.2/PRYSPRY domain, which is responsible for the highly specific recognition of retroviral capsids. However, more recent work has challenged this paradigm, demonstrating TRIM5α as a restriction factor for retroelements as well as phylogenetically distinct viral families, acting similarly through the recognition of viral gene products via B30.2/PRYSPRY. This spectrum of antiviral activity raises questions regarding the genetic and structural plasticity of this protein as a mediator of the recognition of a potentially diverse array of viral molecular patterns. This review highlights the dynamic evolutionary footprint of the B30.2/PRYSPRY domain in response to retroviruses while exploring the guided 'specificity' conferred by the totality of TRIM5α's additional domains that may account for its recently identified promiscuity.The evolutionary pressures exerted by viral infections have led to the development of various cellular proteins with potent antiviral activities, some of which are known as antiviral restriction factors. TRIpartite Motif-containing protein 5 alpha (TRIM5α) is a well-studied restriction factor of retroviruses that exhibits virus- and host-species-specific functions in protecting against cross-primate transmission of specific lentiviruses. This specificity is achieved at the level of the host gene through positive selection predominantly within its C-terminal B30.2/PRYSPRY domain, which is responsible for the highly specific recognition of retroviral capsids. However, more recent work has challenged this paradigm, demonstrating TRIM5α as a restriction factor for retroelements as well as phylogenetically distinct viral families, acting similarly through the recognition of viral gene products via B30.2/PRYSPRY. This spectrum of antiviral activity raises questions regarding the genetic and structural plasticity of this protein as a mediator of the recognition of a potentially diverse array of viral molecular patterns. This review highlights the dynamic evolutionary footprint of the B30.2/PRYSPRY domain in response to retroviruses while exploring the guided 'specificity' conferred by the totality of TRIM5α's additional domains that may account for its recently identified promiscuity.
Audience Academic
Author Grigg, Michael E.
Spada, Stephanie J.
Zhang, Peijun
Bouamr, Fadila
Best, Sonja M.
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innate immunity
orthopoxviruses
orthoflaviviruses
structure
retroviruses
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SSID ssj0066907
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SecondaryResourceType review_article
Snippet The evolutionary pressures exerted by viral infections have led to the development of various cellular proteins with potent antiviral activities, some of which...
SourceID doaj
proquest
gale
pubmed
crossref
SourceType Open Website
Aggregation Database
Index Database
StartPage 997
SubjectTerms Analysis
Animals
Antiviral activity
Antiviral agents
Antiviral drugs
antiviral properties
Antiviral Restriction Factors - metabolism
Autophagy
capsid
Capsids
Cellular proteins
Cytokines
Disease transmission
domain
Evolution, Molecular
Genes
Genetic diversity
Genomes
Health aspects
HIV
Host-Pathogen Interactions - immunology
Human immunodeficiency virus
Humans
Immune system
Immunity, Innate
Innate immunity
Kinases
Lentivirus
Molecular dynamics
Monkeys & apes
orthoflaviviruses
orthopoxviruses
Pathogens
Phylogeny
plasticity
Positive selection
Protein arrays
Proteins
Retroviridae - genetics
Retroviridae - immunology
Retroviridae - physiology
retroviruses
structure
TRIM5α
Tripartite Motif Proteins - metabolism
Ubiquitin-Protein Ligases - metabolism
Viral infections
Viruses
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Title TRIM5α: A Protean Architect of Viral Recognition and Innate Immunity
URI https://www.ncbi.nlm.nih.gov/pubmed/39066160
https://www.proquest.com/docview/3084993116
https://www.proquest.com/docview/3085121649
https://www.proquest.com/docview/3153717402
https://doaj.org/article/984f30febf0b4e30a98e0c1aabbbc04a
Volume 16
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