Virology Methods Manual, First Edition

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Free Shipping Free global shipping No minimum order. Principles Chapter 1. Discovery and Classification Abstract 1. Virus Structure Abstract 2.

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Virus Life Cycle Abstract 3. Diagnosis and Methods Abstract 4. Host Immune Response Abstract 5. Polyomaviruses: SV40 Abstract 6. Papillomaviruses Abstract 7.

Chapter 3: Hepatitis A

Adenoviruses Abstract 8. Herpesviruses Abstract 9. Picornavirus Abstract Flaviviruses Abstract Rhabdovirus Abstract Influenza Viruses Abstract RT Viruses Chapter Retroviruses Abstract Hepadnaviruses Abstract Other Viruses Chapter Virus Vectors Abstract Subviral Agents and Prions Abstract Full Citation: Short, S. Chen, and S. The construction and analysis of marker gene libraries, p. ABSTRACT: Marker genes for viruses are typically amplified from aquatic samples to determine whether specific viruses are present in the sample, or to examine the diversity of a group of related viruses.

In this chapter, we will provide an overview of common methods used to amplify, clone, sequence, and analyze virus marker genes, and will focus our discussion on viruses infecting algae, bacteria, and heterotrophic flagellates. Within this chapter, we endeavor to highlight critical aspects and components of these methods. To this end, instead of providing a detailed experimental protocol for each of the steps involved in examining virus marker gene libraries, we have provided a few key considerations, recommendations, and options for each step.

We conclude this chapter with a brief discussion of research on a major capsid protein g20 of cyanomyoviruses using this work as a case study for polymerase chain reaction primer design and development. By building on the experience of numerous labs, this chapter should not only be useful to the new virus ecologist, but also serve as a valuable resource to established research groups. Full Citation: Nagasaki, K. Isolation of viruses infecting photosynthetic and nonphotosynthetic protists, p. ABSTRACT: Viruses are the most abundant biological entities in aquatic environments and our understanding of their ecological significance has increased tremendously since the first discovery of their high abundance in natural waters.

About 40 viruses infecting eukaryotic algae and 4 viruses infecting nonphotosynthetic protists have so far been isolated and characterized to different extents. The isolated viruses infecting phytoplankton Chlorophyceae, Prasinophyceae, Haptophyceae, Dinophyceae, Pelagophyceae, Raphidophyceae, and Bacillariophyceae and heterotrophic protists Bicosoecophyceae, Acanthamoebidae, and Thraustochytriaceae are all lytic. Some of the brown algal phaeoviruses, which infect host spores or gametes, have also been found in a latent form lysogeny in vegetative cells. Viruses infecting eukaryotic photosynthetic and nonphotosynthetic protists are highly diverse both in size ca.

Availability of host-virus laboratory cultures is a necessary prerequisite for characterization of the viruses and for investigation of host-virus interactions. In this report we summarize and comment on the techniques used for preparation of host cultures and for screening, cloning, culturing, and maintaining viruses in the laboratory. Full Citation: Brussaard, C. Payet, C. Winter, and M. Quantification of aquatic viruses by flow cytometry, p. ABSTRACT: For many laboratories, flow cytometry is becoming the routine method for quantifying viruses in aquatic systems because of its high reproducibility, high sample throughput, and ability to distinguish several subpopulations of viruses.

Comparison of viral counts between flow cytometry and epifluorescence microscopy typically shows slopes that are statistically not distinguishable from 1, thus confirming the usefulness of flow cytometry. Here we describe in detail all steps in the procedure, discuss potential problems, and offer solutions.

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Full Citation: Wommack, K. Sime-Ngando, D. Winget, S. Jamindar, and R. Filtration-based methods for the collection of viral concentrates from large water samples, p. In the case of microbial communities, these data are primarily gathered using microscopy and molecular genetic approaches. The diminutive size of viruses means that obtaining genetic material sufficient for molecular approaches for examining the diversity and composition of aquatic viral assemblages can be challenging. Moreover, in procedures for the isolation and cultivation of novel viruses from natural waters, high-density viral inocula provide the best chance for success.

This report outlines procedures for the preparation of viral concentrates from large volume water samples using TFF and discusses the effect of concentration procedures on viral recovery and downstream molecular genetic analyses. Full Citation: Middelboe, M. Chan, and S. Isolation and life cycle characterization of lytic viruses infecting heterotrophic bacteria and cyanobacteria, p. ABSTRACT: Basic knowledge on viruses infecting heterotrophic bacteria and cyanobacteria is key to future progress in understanding the role of viruses in aquatic systems and the influence of virus-host interactions on microbial mortality, biogeochemical cycles, and genetic exchange.

Such studies require the isolation, propagation, and purification of host-virus systems. This contribution presents some of the most widely used methodological approaches for isolation and purification of bacteriophages and cyanophages, the first step in detailed studies of virus-host interactions and viral genetic composition, and discusses the applications and limitations of different isolation procedures.

Most work on phage isolation has been carried out with aerobic heterotrophic bacteria and cyanobacteria, culturable both on agar plates and in enriched liquid cultures.

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The procedures presented here are limited to lytic viruses infecting such hosts. In addition to the isolation procedures, methods for life cycle characterization one-step growth experiments of bacteriophages and cyanophages are described. Finally, limitations and drawbacks of the proposed methods are assessed and discussed.

Full Citation: Wilson, W. Sequencing and characterization of virus genomes, p. ABSTRACT: By unraveling the genetic code of viruses, genome sequencing offers a new era for aquatic virus ecology giving access to ecological function of viruses on an unprecedented scale.

Although this chapter starts with the suggestion to that virus genome sequencing should be conducted professionally if financially feasible, we essentially try and guide the reader through some of the procedures that will direct a novice through a genome sequencing project. Arguably, the most important recommendation is to start with as high purity virus nucleic acid as possible. We use the adage, junk in equals junk out. Once sequence information is obtained, there is plenty of free, user-friendly software available to help build, annotate, and then compare sequence data.

Acquiring metadata is another important aspect that is not often considered when embarking on a genome project. A new initiative by the Genomic Standards Consortium has introduced Minimum Information about a Genome Sequence MIGS that allows standardization of the way the data are collected to make it useful for downstream post-genomic analyses. Most viruses sequenced to date have produced surprises, and there is more to come from the other viruses still to be sequenced. This chapter focuses on sequencing purified virus isolates rather than virus metagenomes.

Full Citation: Suttle, C. Enumeration of virus particles in aquatic or sediment samples by epifluorescence microscopy, p. ABSTRACT: Microbes and microbial processes are crucial and quantitatively important players in aquatic environments, and viruses as major agents of microbial mortality and nutrient cycling are a key component of aquatic systems.

These roles have led to the need to routinely quantify viral abundance as the part of many investigations. Electron microscopy was first used to demonstrate high viral abundances in aquatic samples; by the mids, the greater accuracy and higher precision of estimates of viral abundance made by epifluorescence microscopy EFM were evident. Initially, DAPI 6-diamidinophenylindole was the stain used to enumerate virus particles in natural samples, but this dye was soon superseded by a new generation of much brighter fluorochromes. Each of these stains has advantages and disadvantages, but for natural water samples they produce indistinguishable estimates of viral abundance when the appropriate protocols are carefully followed.

Full Citation: Steward, G. Hickman 22 Gastrointestinal Viruses Michael D. Dollard and Timothy M. Buller 33 Poxviruses Ashley V.

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Kondas and Victoria A. Olson 34 Rabies Virus Robert J. Rudd and April A. Davis 35 Arboviruses Laura D. Kramer, Elizabeth B.

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Kauffman, Norma P. Ross, Nadim J. Ajami, and Joseph F.