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Single Molecule Analysis

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Cover of 'Single Molecule Analysis'

Table of Contents

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    Book Overview
  2. Altmetric Badge
    Chapter 1 Introduction to Optical Tweezers: Background, System Designs, and Applications
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    Chapter 2 Quantifying ATP-Independent Nucleosome Chaperone Activity with Single-Molecule Methods
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    Chapter 3 Protein Tethering for Single-Molecule Force Spectroscopy
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    Chapter 4 Insect Cell-Based Expression of Cytoskeletal Motor Proteins for Single-Molecule Studies
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    Chapter 5 Probing Mitotic Chromosome Mechanics Using Optical Tweezers
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    Chapter 6 A Brief Introduction to Single-Molecule Fluorescence Methods
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    Chapter 7 Single-Molecule Fluorescence Microscopy in Sensory Cilia of Living Caenorhabditis elegans
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    Chapter 8 Lattice Light-Sheet Motor-PAINT: A Method to Map the Orientations of Microtubules in Complex Three-Dimensional Arrays
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    Chapter 9 Fluorescence Microscopy of Nanochannel-Confined DNA
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    Chapter 10 Single-Molecule FRET X
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    Chapter 11 Single-Molecule Fluorescence Imaging of DNA Replication Stalling at Sites of Nucleoprotein Complexes
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    Chapter 12 Measuring Transcription Dynamics of Individual Genes Inside Living Cells
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    Chapter 13 Single-Molecule FRET-Resolved Protein Dynamics – from Plasmid to Data in Six Steps
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    Chapter 14 Atomic Force Microscopy: An Introduction
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    Chapter 15 Atomic Force Microscopy of Viruses: Stability, Disassembly, and Genome Release
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    Chapter 16 Unfolding and Refolding Proteins Using Single-Molecule AFM
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    Chapter 17 Visualizing Molecular Dynamics by High-Speed Atomic Force Microscopy
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    Chapter 18 An Introduction to Magnetic Tweezers
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    Chapter 19 Surface Functionalization, Nucleic Acid Tether Characterization, and Force Calibration for a Magnetic Tweezers Assay
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    Chapter 20 Correlated Single-Molecule Magnetic Tweezers and Fluorescence Measurements of DNA-Enzyme Interactions
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    Chapter 21 Detecting DNA Loops Using Tethered Particle Motion
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    Chapter 22 Single-Cell Measurements Using Acoustic Force Spectroscopy (AFS)
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    Chapter 23 DNA Origami-Based Single-Molecule Force Spectroscopy and Applications
Attention for Chapter 15: Atomic Force Microscopy of Viruses: Stability, Disassembly, and Genome Release
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Chapter title
Atomic Force Microscopy of Viruses: Stability, Disassembly, and Genome Release
Chapter number 15
Book title
Methods in Molecular Biology
Published by
Springer US, October 2023
DOI 10.1007/978-1-0716-3377-9_15
Pubmed ID
Book ISBNs
978-1-07-163376-2, 978-1-07-163377-9
Authors

Miguel Cantero, María Jesús Rodríguez-Espinosa, Klara Strobl, Pablo Ibáñez, Alejandro Díez-Martínez, Natalia Martín-González, Manuel Jiménez-Zaragoza, Alvaro Ortega-Esteban, Pedro José de Pablo

Abstract

In atomic force microscopy (AFM), the probe is a nanometric tip located at the end of a microcantilever which palpates the specimen under study as a blind person manages a walking stick. In this way, AFM allows obtaining nanometric resolution images of individual protein shells, such as viruses, in liquid milieu. Beyond imaging, AFM also enables not only the manipulation of single protein cages but also the evaluation of each physicochemical property which is able of inducing any measurable mechanical perturbation to the microcantilever that holds the tip. In this chapter, we start revising some recipes for adsorbing protein shells on surfaces and how the geometrical dilation of tips can affect to the AFM topographies. This work also deals with the abilities of AFM to monitor TGEV coronavirus under changing conditions of the liquid environment. Subsequently, we describe several AFM approaches to study cargo release, aging, and multilayered viruses with single indentation and fatigue assays. Finally, we comment on a combined AFM/fluorescence application to study the influence of crowding on GFP packed within individual P22 bacteriophage capsids.

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Student > Doctoral Student 1 50%
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Unspecified 1 50%
Unknown 1 50%