Active Physics & Astronomy Mathematics & Statistics
Nanoscale water: A Quantum Understanding of Angstrom-scale transport
Summary
Original abstract (not yet simplified)Water is a substance that needs no introduction: It shapes our blue planet, is life-enabling, and scientifically fascinating with a host of anomalous behaviours. Despite centuries of studies, breakthroughs in the last decade have shown that when wWater is an abundant, yet exceptional and life-enabling substance. The past decades have seen tremendous progress in our understanding of the many peculiarities...
View original technical description
Water is a substance that needs no introduction: It shapes our blue planet, is life-enabling, and scientifically fascinating with a host of anomalous behaviours. Despite centuries of studies, breakthroughs in the last decade have shown that when wWater is an abundant, yet exceptional and life-enabling substance. The past decades have seen tremendous progress in our understanding of the many peculiarities of water, many of which can be traced to the nature of the interactions between water molecules. When confining water to nanometer-range pores and cavities, wholly new and unexpected phenomena appear: water flows differently in confinement, its phase diagram changes drastically, and conventional theories break down. This is exciting from a scientific perspective, but also of great technological importance: nanoscale water is fundamental to water purification and desalination, where water has to flow through nanopores, and for energy-related processes as a source of protons and hydrogen. Here, we aim for fundamental new scientific insights into water at key length- and time-scales by bringing together a critical mass of researchers with complementarity skillsets in nanofluidics, spectroscopy, and theory and simulation. We follow a radically new perspective for nanoscale water transport, envisioning confined water not only in terms of real-space confinement, but also in terms of its collective modes: how they couple and resonate with the confining material and its - quantum - excitations to affect global transport. Seeing water dynamics in both the real and Fourier worlds allows us to naturally address quantum couplings and light- matter interactions and their effect at nanoscales. This opens a new world of possibilities, e.g., by controlling water motion through fine-tuning of its excitations, quantum engineering of water transport is made possible. Such views have the potential to enable world-changing novel technologies in the water-energy nexus and related fields.
Related Research
Grants with similar aims, by meaning.
Soft Water: understanding what makes a fluid behave like water
The structure and dynamics of water confined in nanoscale pools: the dynamic crossover
Mathematical Modelling of Rare Events in Nanoflows: A Feasibility Study
Fluid Flows at the Nano Scale: from Molecular Dynamics to Hydrodynamics
Unrevelling the Mysteries of the Water-Solid Interface with Statistical Mechanics and Ab Initio Simulations
Original classification
HORIZONPlain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research. Is something wrong? Let us know