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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

Real-time analysis of single influenza virus replication complexes reveals large promoter-dependent differences in initiation dynamics

Nucleic Acids Research Oxford University Press 47:12 (2019) 6466-6477

Authors:

Nicole Robb, AJW Te Velthuis, E Fodor, AN Kapanidis

Abstract:

The viral RNA (vRNA) genome of influenza viruses is replicated by the RNA-dependent RNA polymerase (RNAP) via a complementary RNA (cRNA) intermediate. The vRNA promoter can adopt multiple conformations when bound by the RNAP. However, the dynamics, determinants, and biological role of these conformations are unknown; further, little is known about cRNA promoter conformations. To probe the RNA conformations adopted during initial replication, we monitored single, surface-immobilized vRNA and cRNA initiation complexes in real-time. Our results show that, while the 3′ terminus of the vRNA promoter exists in dynamic equilibrium between pre-initiation and initiation conformations, the cRNA promoter exhibited very limited dynamics. Two residues in the proximal 3′ region of the cRNA promoter (residues absent in the vRNA promoter) allowed the cRNA template strand to reach further into the active site, limiting promoter dynamics. Our results highlight promoter-dependent differences in influenza initiation mechanisms, and advance our understanding of virus replication.
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Tracking antibiotic mechanisms.

Nature reviews. Microbiology 17:4 (2019) 201-201

Authors:

Oliver J Pambos, Achillefs N Kapanidis
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Single Nitrogen-Vacancy Imaging in Nanodiamonds for Multimodal Sensing

Biophysical Journal Elsevier 116:3 (2019) 174a

Authors:

Maabur Sow, Horst Steuer, Barak Gilboa, Laia Gines, Soumen Mandal, Sanmi Adekanye, Jason M Smith, Oliver A Williams, Achillefs N Kapanidis
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Guidelines for DNA recombination and repair studies: Mechanistic assays of DNA repair processes.

Microbial cell (Graz, Austria) 6:1 (2019) 65-101

Authors:

Hannah L Klein, Kenny KH Ang, Michelle R Arkin, Emily C Beckwitt, Yi-Hsuan Chang, Jun Fan, Youngho Kwon, Michael J Morten, Sucheta Mukherjee, Oliver J Pambos, Hafez El Sayyed, Elizabeth S Thrall, João P Vieira-da-Rocha, Quan Wang, Shuang Wang, Hsin-Yi Yeh, Julie S Biteen, Peter Chi, Wolf-Dietrich Heyer, Achillefs N Kapanidis, Joseph J Loparo, Terence R Strick, Patrick Sung, Bennett Van Houten, Hengyao Niu, Eli Rothenberg

Abstract:

Genomes are constantly in flux, undergoing changes due to recombination, repair and mutagenesis. In vivo, many of such changes are studies using reporters for specific types of changes, or through cytological studies that detect changes at the single-cell level. Single molecule assays, which are reviewed here, can detect transient intermediates and dynamics of events. Biochemical assays allow detailed investigation of the DNA and protein activities of each step in a repair, recombination or mutagenesis event. Each type of assay is a powerful tool but each comes with its particular advantages and limitations. Here the most commonly used assays are reviewed, discussed, and presented as the guidelines for future studies.
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Tightly Regulated, yet Flexible and Ultrasensitive, 2 Directional Switching Mechanism of a Rotary Motor

(2019)

Authors:

Oshri Afanzar, Diana Di Paolo, Miriam Eisenstein, Kohava Levi, Anne Plochowietz, Achillefs N Kapanidis, Richard Berry, Michael Eisenbach
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