Recombination of Autodissociated Water Ions in a Nanoscale Pure Water Droplet

The recombination of water ions has diverse scientific and practical implications, ranging from acid–base chemistry and biological systems to planetary environments and applications in fuel cell and carbon conversion technologies. While spatial confinement affects the physicochemical properties of w...

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Bibliographic Details
Main Author:	Soonho Kwon (1402972) (author)
Other Authors:	Prabhat Prakash (5367200) (author), Yixiang Cao (3007887) (author), Frances A. Houle (4318186) (author), William A. Goddard (1235154) (author)
Published:	2025
Subjects:	Biophysics Medicine Ecology Inorganic Chemistry Plasma Physics Plant Biology Computational Biology Space Science Environmental Sciences not elsewhere classified Biological Sciences not elsewhere classified Chemical Sciences not elsewhere classified Physical Sciences not elsewhere classified sup >–</ sup spend almost 50 spatial confinement affects results provide insights reaction microenvironments presented molecular mechanical calculations classical rexpon force carbon conversion technologies adaptive quantum mechanical 18 000 waters 5 nm beneath water wire connecting water dramatically decreases often prevent recombination molecular dynamics simulations water ion distribution nanoscopic water droplets autodissociated water ions ion recombination process 2 </ sub recombination process 2 nm water ions water dynamics water droplets slight preference reside longer practical implications planetary environments physicochemical properties local structure fuel cell drops occurs diverse scientific biological systems 400 ps 3000 h 1000 h 1 ns
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Recombination of Autodissociated Water Ions in a Nanoscale Pure Water Droplet

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