Literature DB >> 6262246

Lysis of herpes simplex virus-infected cells early in the infectious cycle by human antiviral antibody and complement.

T L Cromeans, S L Shore.   

Abstract

Chang liver (CL) cells and human embryonic lung fibroblasts (MRC-5) were infected with type 1 herpes simplex virus (HSV), ant the time postinfection at which these cells became susceptible to lysis by antiviral antibody and complement of human origin was determined in a 51Cr release assay. Using a 1:2 dilution of fresh HSV antibody-positive human serum, we initially detected specific lysis by 4 h postinfection in HSV-infected CL cells and by 3 h postinfection in HSV-infected MRC-5 cells in suspension. MRC-5 cells were more completely lysed than CL cells. Protein inhibition studies with cycloheximide showed that all of the HSV-infected CL cells and most (83%) of the HSV-infected MRC-5 cells injured early in the infectious cycle were attacked because of newly synthesized viral surface antigens rather than because of adherent input virus. Suspension cells early in the infectious cycle were less completely lysed and required higher concentrations of both antiviral antibody and complement for lysis than cells that were in the later stages of infection (18 h postinfection). Guinea pig serum was inferior to human serum as a complement source for lysis of early infectious cycle cells. Lysis early in the infectious cycle was directly proportional to the multiplicity of infection and inversely proportional to the cell concentration. Infected cells in monolayers were lysed less readily and about 1 to 2 h later in the infectious cycle than infected cells in suspension. This difference was pronounced for CL cells, but modest for MRC-5 cells. These studies demonstrate that, despite previously held notions, HSV-infected tissue culture cells can be lysed by antiviral antibody and complement early in the infectious cycle before the initial production of progeny virus particles. The demonstration of lysis was highly dependent on experimental conditions, however, including cell type, suspension versus monolayer culture, cell density, and concentration of antibody and complement as well as the source of complement.

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Year:  1981        PMID: 6262246      PMCID: PMC351424          DOI: 10.1128/iai.31.3.1054-1061.1981

Source DB:  PubMed          Journal:  Infect Immun        ISSN: 0019-9567            Impact factor:   3.441


  25 in total

1.  Precise standardization of reagents for complement fixation.

Authors:  J F KENT; E H FIFE
Journal:  Am J Trop Med Hyg       Date:  1963-01       Impact factor: 2.345

2.  Proteins specified by herpes simplex virus. XI. Identification and relative molar rates of synthesis of structural and nonstructural herpes virus polypeptides in the infected cell.

Authors:  R W Honess; B Roizman
Journal:  J Virol       Date:  1973-12       Impact factor: 5.103

3.  Virus antigens on the surface of infected cells: binding and elution of ( 125 I)-labelled antivirus antibody.

Authors:  J Rosenthal; K Hayashi; A L Notkins
Journal:  J Gen Virol       Date:  1973-02       Impact factor: 3.891

4.  Use of the 51 Cr release test to demonstrate patterns of antibody response in humans to herpesvirus types 1 and 2.

Authors:  J W Smith; E Adam; J L Melnick; W E Rawls
Journal:  J Immunol       Date:  1972-09       Impact factor: 5.422

5.  Detection of early cell surface changes in herpes simplex virus infected cells by agglutination with concanavalin A.

Authors:  S S Tevethia; S Lowry; W E Rawls; J L Melnick; V McMillan
Journal:  J Gen Virol       Date:  1972-04       Impact factor: 3.891

6.  An antigen density effect on the hemolytic efficiency of complement.

Authors:  W D Linscott
Journal:  J Immunol       Date:  1970-05       Impact factor: 5.422

7.  Inhibition or enhancement of immunological injury of virus-infected cells.

Authors:  A M Brier; C Wohlenberg; J Rosenthal; M Mage; A L Notkins
Journal:  Proc Natl Acad Sci U S A       Date:  1971-12       Impact factor: 11.205

8.  The lymphocytotoxic reaction: the mechanism of rabbit complement action.

Authors:  S Ferrone; N R Cooper; M A Pellegrino; R A Reisfeld
Journal:  J Immunol       Date:  1971-10       Impact factor: 5.422

9.  Cell cycle-dependent immune lysis of Moloney virus-transformed lymphocytes: presence of viral antigen, accessibility to antibody, and complement activation.

Authors:  R A Lerner; M B Oldstone; N R Cooper
Journal:  Proc Natl Acad Sci U S A       Date:  1971-10       Impact factor: 11.205

10.  Prevention of cell-to-cell spread of herpes simplex virus by leukocytes.

Authors:  D L Lodmell; A Niwa; K Hayashi; A L Notkins
Journal:  J Exp Med       Date:  1973-03-01       Impact factor: 14.307

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  4 in total

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Authors:  A M Abu el-Asrar; K Geboes; L Missotten; M H Emarah; V Desmet
Journal:  Int Ophthalmol       Date:  1990-07       Impact factor: 2.031

2.  Herpesvirus glycoprotein synthesis and insertion into plasma membranes.

Authors:  M L Peake; P Nystrom; L I Pizer
Journal:  J Virol       Date:  1982-05       Impact factor: 5.103

3.  The herpes-specific immune response of individuals with herpes-associated erythema multiforme compared with that of individuals with recurrent herpes labialis.

Authors:  S L Brice; S S Stockert; J D Bunker; D Bloomfield; J C Huff; D A Norris; W L Weston
Journal:  Arch Dermatol Res       Date:  1993       Impact factor: 3.017

Review 4.  Complement in malaria immunity and vaccines.

Authors:  Liriye Kurtovic; Michelle J Boyle; D Herbert Opi; Alexander T Kennedy; Wai-Hong Tham; Linda Reiling; Jo-Anne Chan; James G Beeson
Journal:  Immunol Rev       Date:  2019-09-26       Impact factor: 12.988

  4 in total

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