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CMP
Credit: Jack Hobhouse

Professor Achillefs Kapanidis

Professor of Biological Physics

Research theme

  • Biological physics

Sub department

  • Condensed Matter Physics

Research groups

  • Gene machines
Achillefs.Kapanidis@physics.ox.ac.uk
Telephone: 01865 (2)72226
Biochemistry Building
groups.physics.ox.ac.uk/genemachines/group
  • About
  • Publications

Optimized delivery of fluorescently labeled proteins in live bacteria using electroporation

Histochemistry and Cell Biology Springer Nature 142:1 (2014) 113-124

Authors:

Marko Sustarsic, Anne Plochowietz, Louise Aigrain, Yulia Yuzenkova, Nikolay Zenkin, Achillefs Kapanidis
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Correction

Biophysical Journal Elsevier 106:9 (2014) 2082
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Visualizing Protein-DNA Interactions in Live Bacterial Cells Using Photoactivated Single-molecule Tracking

Journal of Visualized Experiments MyJove (2014) 51177

Authors:

Stephan Uphoff, David J Sherratt, Achillefs N Kapanidis
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Visualizing Protein-DNA Interactions in Live Bacterial Cells Using Photoactivated Single-molecule Tracking

Journal of Visualized Experiments MyJove (2014)

Authors:

Stephan Uphoff, David J Sherratt, Achillefs N Kapanidis
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Visualizing protein-DNA interactions in live bacterial cells using photoactivated single-molecule tracking

Journal of Visualized Experiments (2014)

Authors:

S Uphoff, DJ Sherratt, AN Kapanidis

Abstract:

Protein-DNA interactions are at the heart of many fundamental cellular processes. For example, DNA replication, transcription, repair, and chromosome organization are governed by DNA-binding proteins that recognize specific DNA structures or sequences. In vitro experiments have helped to generate detailed models for the function of many types of DNA-binding proteins, yet, the exact mechanisms of these processes and their organization in the complex environment of the living cell remain far less understood. We recently introduced a method for quantifying DNA-repair activities in live Escherichia coli cells using Photoactivated Localization Microscopy (PALM) combined with single-molecule tracking. Our general approach identifies individual DNA-binding events by the change in the mobility of a single protein upon association with the chromosome. The fraction of bound molecules provides a direct quantitative measure for the protein activity and abundance of substrates or binding sites at the single-cell level. Here, we describe the concept of the method and demonstrate sample preparation, data acquisition, and data analysis procedures. © JoVE 2006-2014. All Rights Reserved.
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