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      On the colloidal and chemical stability of solar nanofluids: From nanoscale interactions to recent advances

      , ,
      Physics Reports
      Elsevier BV

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          The London—van der Waals attraction between spherical particles

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            Size matters: why nanomaterials are different.

            Gold is known as a shiny, yellow noble metal that does not tarnish, has a face centred cubic structure, is non-magnetic and melts at 1336 K. However, a small sample of the same gold is quite different, providing it is tiny enough: 10 nm particles absorb green light and thus appear red. The melting temperature decreases dramatically as the size goes down. Moreover, gold ceases to be noble, and 2-3 nm nanoparticles are excellent catalysts which also exhibit considerable magnetism. At this size they are still metallic, but smaller ones turn into insulators. Their equilibrium structure changes to icosahedral symmetry, or they are even hollow or planar, depending on size. The present tutorial review intends to explain the origin of this special behaviour of nanomaterials.
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              Solar vapor generation enabled by nanoparticles.

              Solar illumination of broadly absorbing metal or carbon nanoparticles dispersed in a liquid produces vapor without the requirement of heating the fluid volume. When particles are dispersed in water at ambient temperature, energy is directed primarily to vaporization of water into steam, with a much smaller fraction resulting in heating of the fluid. Sunlight-illuminated particles can also drive H(2)O-ethanol distillation, yielding fractions significantly richer in ethanol content than simple thermal distillation. These phenomena can also enable important compact solar applications such as sterilization of waste and surgical instruments in resource-poor locations.
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                Author and article information

                Contributors
                (View ORCID Profile)
                Journal
                Physics Reports
                Physics Reports
                Elsevier BV
                03701573
                June 2020
                June 2020
                : 867
                : 1-84
                Article
                10.1016/j.physrep.2020.04.005
                a14f5915-7c93-4912-ad3d-cb6d83e274ae
                © 2020

                https://www.elsevier.com/tdm/userlicense/1.0/

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