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website contera

Prof Sonia Antoranz Contera

Professor of Biological Physics

Sub department

  • Condensed Matter Physics
Sonia.AntoranzContera@physics.ox.ac.uk
Telephone: 01865 (2)72269
Clarendon Laboratory, room 275A,211,207,203,208 (office)
  • About
  • Publications
Conversation on physics bioinspired materials and the future of architecture
link to video of conversation with architect Amanda Levete on biophysics and the future of architecture

Biophysical characterization of DNA origami nanostructures reveals inaccessibility to intercalation binding sites

Cold Spring Harbor Laboratory (2019) 845420

Authors:

Helen L Miller, Sonia Contera, Adam JM Wollman, Adam Hirst, Katherine E Dunn, Sandra Schröter, Deborah O’Connell, Mark C Leake
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Biophysical characterization of DNA origami nanostructures reveals inaccessibility to intercalation binding sites

(2019)

Authors:

Helen L Miller, Sonia Contera, Adam JM Wollman, Adam Hirst, Katherine E Dunn, Sandra Schroeter, Deborah O'Connell, Mark C Leake
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Nano Comes to Life

JSTOR, 2019
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Electrophysiological-mechanical coupling in the neuronal membrane and its role in ultrasound neuromodulation and general anaesthesia

Acta Biomaterialia Elsevier 97 (2019) 116-140

Authors:

Antoine Jerusalem, Z Al-Rekabi, Haoyu Chen, A Ercole, Majid Malboubi, Miren Tamayo-Elizalde, Lennart Verhagen, Sonia Contera

Abstract:

The current understanding of the role of the cell membrane is in a state of flux. Recent experiments show that conventional models, considering only electrophysiological properties of a passive membrane, are incomplete. The neuronal membrane is an active structure with mechanical properties that modulate electrophysiology. Protein transport, lipid bilayer phase, membrane pressure and stiffness can all influence membrane capacitance and action potential propagation. A mounting body of evidence indicates that neuronal mechanics and electrophysiology are coupled, and together shape the membrane potential in tight coordination with other physical properties. In this review, we summarise recent updates concerning electrophysiological-mechanical coupling in neuronal function. In particular, we aim at making the link with two relevant yet often disconnected fields with strong clinical potential: the use of mechanical vibrations—ultrasound—to alter the electrophysiogical state of neurons, e.g., in neuromodulation, and the theories attempting to explain the action of general anaesthetics.
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A simple mathematical model of allometric exponential growth describes the early three-dimensional growth dynamics of secondary xylem in Arabidopsis roots

Royal Society Open Science The Royal Society 6:3 (2019) 190126-190126

Authors:

Anna Thamm, Sabina Sanegre-Sans, Jennifer Paisley, Susana Meader, Ana Milhinhos, Sonia ANTORANZ CONTERA, Javier Agusti
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