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The electrosolvation force: a new physical paradigm in chemistry and biology

Project description

New force explains attraction between like-charged particles

Despite their importance in science and life, many natural processes like protein aggregation, DNA packing and crystallisation remain poorly understood. A key to these mysteries may lie in a recently discovered electrosolvation force that causes like-charged particles in solutions to spontaneously attract under certain conditions. This force arises from the way solvent molecules align around charged particles and behaves differently depending on the charge and solvent type. For example, negatively charged particles attract in water, countering conventional wisdom. The ERC-funded ELECTROSOL project will carry out advanced experiments and theoretical investigations and molecular simulations to study this force across different scales. The aim is to uncover the role of the electrosolvation force in these processes, ultimately reshaping understanding of molecular and particle interactions in solutions.

Objective

Over the last several decades, dating back to the work of Langmuir, and Rosalind Franklin, the literature has consistently reported on a long-ranged attraction between particles in solution carrying electrical charge of the same sign. This attraction is not explained by standing theories and has remained an open conundrum. My laboratory has recently made important progress in elucidating the underpinnings of this phenomenon, introducing an “electrosolvation” force that drives spontaneous attraction and cluster formation in like-charged particles in solution. The force is long-ranged and is governed by the orientation of solvent molecules at the particle-electrolyte interface. The sign of the force exhibits an asymmetric response to the sign of charge of the particle: e.g. in water, negatively charged particles counterintuitively attract, whilst positives repel as expected, and vice versa in other solvents. This fundamental and unexpected mechanistic insight now opens for the first time the possibility to systematically investigate the origins of a host of poorly understood natural processes that are likely governed by this interaction, touching virtually all areas of the life sciences and beyond. Noteworthy examples include interactions driving biomolecular condensation, pathological protein aggregation, crystallization, gelation and DNA packing. We will carry out an in-depth experimental exploration of the interaction across length scales - from molecules to microspheres and macroscopic surfaces - using cutting edge experimental methods pioneered in my laboratory. We will further advance a fundamental understanding of the interaction through theoretical modelling and simulation. This comprehensive investigation will likely lead to the establishment of a broad and generally applicable conceptual paradigm that will fundamentally redefine how we think about molecular and particle interactions in the solution phase.

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HORIZON-ERC - HORIZON ERC Grants

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Call for proposal

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(opens in new window) ERC-2024-ADG

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Host institution

THE CHANCELLOR, MASTERS AND SCHOLARS OF THE UNIVERSITY OF OXFORD
Net EU contribution

Net EU financial contribution. The sum of money that the participant receives, deducted by the EU contribution to its linked third party. It considers the distribution of the EU financial contribution between direct beneficiaries of the project and other types of participants, like third-party participants.

€ 2 500 000,00
Address
WELLINGTON SQUARE UNIVERSITY OFFICES
OX1 2JD Oxford
United Kingdom

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Region
South East (England) Berkshire, Buckinghamshire and Oxfordshire Oxfordshire
Activity type
Higher or Secondary Education Establishments
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Total cost

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Beneficiaries (1)

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