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High-yield atmospheric water capture via bioinspired material segregation. | LitMetric

AI Article Synopsis

  • Transforming atmospheric water vapor into liquid can help provide water in dry areas for drinking, thermal management, and hydrogen production.
  • Current methods are slow and rely on solid materials, while this new approach uses a liquid salt solution for capturing water, making the process more efficient.
  • The proposed method utilizes a hydrogel membrane for rapid water capture, showing potential to supply enough water for two to three people per square meter in arid conditions.

Article Abstract

Transforming atmospheric water vapor into liquid form can be a way to supply water to arid regions for uses such as drinking water, thermal management, and hydrogen generation. Many current methods rely on solid sorbents that cycle between capture and release at slow rates. We envision a radically different approach where water is transformed and directly captured into a liquid salt solution that is suitable for subsequent distillation or other processing using existing methods. In contrast to other methods utilizing hydrogels as sorbents, we do not store water within hydrogels-we use them as a transport medium. Inspired by nature, we capture atmospheric water through a hydrogel membrane "skin" at an extraordinarily high rate of 5.50 kgm[Formula: see text]d[Formula: see text] at a low humidity of 35%. and up to 16.9 kgm[Formula: see text]d[Formula: see text] at higher humidities. For a drinking-water application, calculated performance of a hypothetical one-square-meter device shows that water could be supplied to two to three people in arid environments. This work is a significant step toward providing new resources and possibilities to water-scarce regions.

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Source
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC11536074PMC
http://dx.doi.org/10.1073/pnas.2321429121DOI Listing

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