Science · 2008 · 386 citations · 23 references
Life SciencesImmunologyNeuroscienceMolecular VirologyNeuroimmunologyVirologyAntiviral ImmunityCellular Immunity In InfectionViral InfectionsViral LatencyViral PathogenesisViral PathologyCellular Immune Response To VirusesHerpes Simplex Virus LatencyHerpes Simplex Virus ReactivationHerpesvirus ReactivationNeuroviral PathogenesisViral Gene Expression In LatencyViral Gene Expression RegulationViral Inactivation
Reactivation of herpes simplex virus type 1 (HSV-1) from neuronal latency is a common and potentially devastating cause of disease worldwide. CD8+ T cells can completely inhibit HSV reactivation in mice, with interferon-gamma affording a portion of this protection. We found that CD8+ T cell lytic granules are also required for the maintenance of neuronal latency both in vivo and in ex vivo ganglia cultures and that their directed release to the junction with neurons in latently infected ganglia did not induce neuronal apoptosis. Here, we describe a nonlethal mechanism of viral inactivation in which the lytic granule component, granzyme B, degrades the HSV-1 immediate early protein, ICP4, which is essential for further viral gene expression.
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Neal A. DeLuca, Ann Marie McCarthy, P A Schaffer · Journal of Virology · 1985 · 704 citations · Full text
MicroRNAs expressed by herpes simplex virus 1 during latent infection regulate viral mRNAs
Jennifer L. Umbach, Martha F. Kramer, Igor Jurak et al. · Nature · 2008 · 695 citations · Full text
Latent Herpes Simplex Virus in Human Trigeminal Ganglia
K D Croen, Jeffrey M. Ostrove, L J Dragovic et al. · New England Journal of Medicine · 1987 · 319 citations