Literature DB >> 16789186

Frog virus 3 replication: induction and intracellular distribution of polypeptides in infected cells.

R M Elliott1, D C Kelly.   

Abstract

The synthesis of the polypeptides induced in frog virus 3-infected cells was analyzed by high-resolution sodium dodecyl sulfate-polyacrylamide gel electrophoresis of radiolabeled cell extracts. Purified frog virus 3 contained 22 polypeptides, with molecular weights in the range 9 x 10(3) to 114 x 10(3). All of the structural and an additional seven nonstructural polypeptides were detected in infected cell lysates. The following three classes of induced polypeptides (under temporal control) were observed in BHK cells: at 2 h, four alpha polypeptides; at 4 h, 13 beta polypeptides; and at 6 h, the remaining 12 gamma polypeptides. The total molecular weight of the infected cell-specific polypeptides (ICPs) was approximately 1.5 x 10(6), which accounts for about 30% of the coding capacity of the viral genome. At least 10 of the induced polypeptides were phosphorylated, but none was glycosylated or sulfated. No evidence for posttranslation cleavage of polypeptides in pulse-chase and inhibition experiments was obtained. The synthesis of gamma polypeptides was not detected in the presence of the viral DNA replication inhibitors cytosine arabinoside and hydroxyurea, but halogenated nucleotides apparently had no effect. These results suggest that alpha and beta polypeptides are "early" events and that detectable gamma polypeptide synthesis is dependent on the production of progeny viral DNA. The regulation of frog virus 3-induced polypeptide synthesis in infected BHK cells was examined by using inhibitors of protein and RNA synthesis and amino acid analogs. These experiments confirmed the existence of three sequentially synthesized, coordinately regulated classes of polypeptides, designated alpha, beta, and gamma. The requirements for the synthesis of each class were as follows: (i) alpha polypeptides did not require previous cell protein synthesis; (ii) beta polypeptides required a prescribed period of alpha polypeptide synthesis and new mRNA synthesis; and (iii) gamma polypeptides required prior synthesis of functional beta polypeptides and new mRNA synthesis. alpha polypeptide synthesis was controlled by beta and gamma polypeptides, and alpha and beta polypeptides were involved in the suppression of host cell polypeptide synthesis. Indirect evidence was obtained for the temporal regulation of frog virus 3 transcription. The intracellular distribution of virus-induced polypeptides in cells infected with frog virus 3 was investigated by using standard cell fractionation techniques. Most of the 29 induced polypeptides were bound to structures within the nucleus, and only two ICPs were not associated with purified nuclei. When isolated nuclei were incubated in an infected cell cytoplasm preparation, all of the nuclear ICPs were incorporated in vitro. All of the ICPs were associated with ribosomal and rough endoplasmic reticulum fractions of infected cells, and a number of ICPs were found on smooth intracellular membranes. Most of the ICPs were also associated with purified plasma membranes of infected cells, and one polypeptide (ICP 58) was highly enriched in the plasma membrane compared with whole cell extracts or purified frog virus 3.

Entities:  

Year:  1980        PMID: 16789186      PMCID: PMC288521     

Source DB:  PubMed          Journal:  J Virol        ISSN: 0022-538X            Impact factor:   5.103


  77 in total

1.  Macromolecular synthesis in cells infected with frog virus 3. V. The absence of polyadenylic acid in the majority of frog virus 3-specific mRNA species.

Authors:  D B Willis; A Granoff
Journal:  Virology       Date:  1976-09       Impact factor: 3.616

2.  Macromolecular synthesis in cells infected by frog virus 3. IV. Regulation of virus-specific RNA synthesis.

Authors:  D B Willis; A Granoff
Journal:  Virology       Date:  1976-04       Impact factor: 3.616

3.  RNA synthesis in cells infected with an icosahedral cytoplasmic deoxyvirus (frog virus 3).

Authors:  R W Armentrout; B R McAuslan
Journal:  J Virol       Date:  1974-05       Impact factor: 5.103

4.  Preparation and properties of an inhibitory extract from frog virus 3 particles.

Authors:  A M Aubertin; C Hirth; C Travo; H Nonnenmacher; A Kirn
Journal:  J Virol       Date:  1973-05       Impact factor: 5.103

5.  The polypeptides of influenza virus. VII. Synthesis of the hemagglutinin.

Authors:  P Stanley; S S Gandhi; D O White
Journal:  Virology       Date:  1973-05       Impact factor: 3.616

6.  Effects of camptothecin on RNA synthesis in L-1210 cells.

Authors:  D Kessel; R Dysard
Journal:  Biochim Biophys Acta       Date:  1973-07-27

7.  Viruses and renal carcinoma of Rana pipiens. IV. Nucleic acid synthesis in frog virus 3-infected BHK 21/13 cells.

Authors:  R Maes; A Granoff
Journal:  Virology       Date:  1967-11       Impact factor: 3.616

8.  Camptothecin inhibits macromolecular synthesis in mammalian cells but not in isolated mitochondria of E. coli.

Authors:  H B Bosmann
Journal:  Biochem Biophys Res Commun       Date:  1970-12-24       Impact factor: 3.575

Review 9.  Viruses of amphibia.

Authors:  A Granoff
Journal:  Curr Top Microbiol Immunol       Date:  1969       Impact factor: 4.291

10.  Frog virus 3 replication: electron microscope observations on the terminal stages of infection in chronically infected cell cultures.

Authors:  D C Kelly; M A Atkinson
Journal:  J Gen Virol       Date:  1975-09       Impact factor: 3.891

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  13 in total

1.  Is the major capsid protein of iridoviruses a suitable target for the study of viral evolution?

Authors:  C A Tidona; P Schnitzler; R Kehm; G Darai
Journal:  Virus Genes       Date:  1998       Impact factor: 2.332

2.  Temperature-sensitive mutants of frog virus 3: biochemical and genetic characterization.

Authors:  V G Chinchar; A Granoff
Journal:  J Virol       Date:  1986-04       Impact factor: 5.103

Review 3.  Viruses of lower vertebrates.

Authors:  S Essbauer; W Ahne
Journal:  J Vet Med B Infect Dis Vet Public Health       Date:  2001-08

4.  Comparison of capsid polypeptides of group B coxsackie-viruses and polypeptide synthesis in infected cells.

Authors:  N K Chatterjee; C Tuchowski
Journal:  Arch Virol       Date:  1981       Impact factor: 2.574

5.  Protein synthesis in cells infected by chilo iridescent virus (iridovirus, type 6).

Authors:  S Barray; G Devauchelle
Journal:  Arch Virol       Date:  1985       Impact factor: 2.574

6.  Frog Virus 3 Replication: Analysis of Structural and Nonstructural Polypeptides in Infected BHK Cells by Acidic and Basic Two-Dimensional Gel Electrophoresis.

Authors:  R M Elliott; R Bravo; D C Kelly
Journal:  J Virol       Date:  1980-01       Impact factor: 5.103

7.  Phosphonoacetic Acid inhibition of frog virus 3 replication.

Authors:  R M Elliott; A Bateson; D C Kelly
Journal:  J Virol       Date:  1980-01       Impact factor: 5.103

8.  Proteins specified by African Swine Fever virus. IV. Glycoproteins and phosphoproteins.

Authors:  E Tabarés; J Martínez; E Martín; J M Escribano
Journal:  Arch Virol       Date:  1983       Impact factor: 2.574

9.  Identification of the glycoproteins of lymphocystis disease virus (LDV) of fish.

Authors:  J Robin; A Laperrière; L Berthiaume
Journal:  Arch Virol       Date:  1986       Impact factor: 2.574

10.  Frog virus 3 DNA replication occurs in two stages.

Authors:  R Goorha
Journal:  J Virol       Date:  1982-08       Impact factor: 5.103

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