home.social

#nanoscale — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #nanoscale, aggregated by home.social.

fetched live
  1. #Scientists created #microscopic reactors capable of driving light-powered #chemical processes by designing metal complex surfactants (MeCSs) that self-assemble into #nanoscale spheres called micelles. This innovation could drastically reduce #pollution in industries including #pharmaceuticals and materials science, where harmful organic solvents are often necessary.
    #Chemistry #sflorg
    sflorg.com/2025/02/chm02102501

  2. #Scientists created #microscopic reactors capable of driving light-powered #chemical processes by designing metal complex surfactants (MeCSs) that self-assemble into #nanoscale spheres called micelles. This innovation could drastically reduce #pollution in industries including #pharmaceuticals and materials science, where harmful organic solvents are often necessary.
    #Chemistry #sflorg
    sflorg.com/2025/02/chm02102501

  3. #Scientists created #microscopic reactors capable of driving light-powered #chemical processes by designing metal complex surfactants (MeCSs) that self-assemble into #nanoscale spheres called micelles. This innovation could drastically reduce #pollution in industries including #pharmaceuticals and materials science, where harmful organic solvents are often necessary.
    #Chemistry #sflorg
    sflorg.com/2025/02/chm02102501

  4. #Scientists created #microscopic reactors capable of driving light-powered #chemical processes by designing metal complex surfactants (MeCSs) that self-assemble into #nanoscale spheres called micelles. This innovation could drastically reduce #pollution in industries including #pharmaceuticals and materials science, where harmful organic solvents are often necessary.
    #Chemistry #sflorg
    sflorg.com/2025/02/chm02102501

  5. #Scientists created #microscopic reactors capable of driving light-powered #chemical processes by designing metal complex surfactants (MeCSs) that self-assemble into #nanoscale spheres called micelles. This innovation could drastically reduce #pollution in industries including #pharmaceuticals and materials science, where harmful organic solvents are often necessary.
    #Chemistry #sflorg
    sflorg.com/2025/02/chm02102501

  6. Many industrial processes, including those producing aluminum and “green” hydrogen, use electrodes to speed up chemical reactions. Unfortunately, bubbles that form on the electrode reduce its efficiency anywhere from 10 to 25 percent by blocking parts of the electrode. The assumption has been that any area shadowed by bubbles is blocked, but a recent study shows that’s not the case. Instead, it’s only the electrode area in direct contact with the bubble that’s blocked.

    To show this, researchers looked at a smooth electrode where bubbles formed randomly (left) and a nanotextured one with many spots where bubbles could form (right). In the animation above, bubble shadows are highlighted with circles. There are clearly more bubbles on the nanotextured electrode, but it actually performs better than the smooth electrode because the bubble contact area is smaller. (Image and research credit: J. Lake et al.; via MIT News)

    https://fyfluiddynamics.com/2024/11/blocking-bubbles/

    #bubbles #chemistry #fluidDynamics #nanoscale #nucleation #physics #science #surfaceRoughness

  7. Many industrial processes, including those producing aluminum and “green” hydrogen, use electrodes to speed up chemical reactions. Unfortunately, bubbles that form on the electrode reduce its efficiency anywhere from 10 to 25 percent by blocking parts of the electrode. The assumption has been that any area shadowed by bubbles is blocked, but a recent study shows that’s not the case. Instead, it’s only the electrode area in direct contact with the bubble that’s blocked.

    To show this, researchers looked at a smooth electrode where bubbles formed randomly (left) and a nanotextured one with many spots where bubbles could form (right). In the animation above, bubble shadows are highlighted with circles. There are clearly more bubbles on the nanotextured electrode, but it actually performs better than the smooth electrode because the bubble contact area is smaller. (Image and research credit: J. Lake et al.; via MIT News)

    https://fyfluiddynamics.com/2024/11/blocking-bubbles/

    #bubbles #chemistry #fluidDynamics #nanoscale #nucleation #physics #science #surfaceRoughness

  8. Many industrial processes, including those producing aluminum and “green” hydrogen, use electrodes to speed up chemical reactions. Unfortunately, bubbles that form on the electrode reduce its efficiency anywhere from 10 to 25 percent by blocking parts of the electrode. The assumption has been that any area shadowed by bubbles is blocked, but a recent study shows that’s not the case. Instead, it’s only the electrode area in direct contact with the bubble that’s blocked.

    To show this, researchers looked at a smooth electrode where bubbles formed randomly (left) and a nanotextured one with many spots where bubbles could form (right). In the animation above, bubble shadows are highlighted with circles. There are clearly more bubbles on the nanotextured electrode, but it actually performs better than the smooth electrode because the bubble contact area is smaller. (Image and research credit: J. Lake et al.; via MIT News)

    https://fyfluiddynamics.com/2024/11/blocking-bubbles/

    #bubbles #chemistry #fluidDynamics #nanoscale #nucleation #physics #science #surfaceRoughness

  9. : One-step Expansion reveals individual shapes:

    -protein visualization, ~1-nm resolution
    -conformational changes observable
    -incl. ONE plugin for image processing in

    doi.org/10.1038/s41587-024-024

  10. #ONE: One-step #Nanoscale Expansion #microscopy reveals individual #protein shapes:

    -protein visualization, ~1-nm resolution
    -conformational changes observable
    -incl. #OpenSource ONE plugin for image processing in #Fiji

    doi.org/10.1038/s41587-024-024
    #DIYbio #lab #instruments #imaging

  11. #ONE: One-step #Nanoscale Expansion #microscopy reveals individual #protein shapes:

    -protein visualization, ~1-nm resolution
    -conformational changes observable
    -incl. #OpenSource ONE plugin for image processing in #Fiji

    doi.org/10.1038/s41587-024-024
    #DIYbio #lab #instruments #imaging

  12. #ONE: One-step #Nanoscale Expansion #microscopy reveals individual #protein shapes:

    -protein visualization, ~1-nm resolution
    -conformational changes observable
    -incl. #OpenSource ONE plugin for image processing in #Fiji

    doi.org/10.1038/s41587-024-024
    #DIYbio #lab #instruments #imaging

  13. #ONE: One-step #Nanoscale Expansion #microscopy reveals individual #protein shapes:

    -protein visualization, ~1-nm resolution
    -conformational changes observable
    -incl. #OpenSource ONE plugin for image processing in #Fiji

    doi.org/10.1038/s41587-024-024
    #DIYbio #lab #instruments #imaging

  14. Introducing Viking, the Scandinavian Online Kit for Nanoscale Modelling! This user-friendly, web-based app simplifies computational chemistry and molecular dynamics simulations. With Viking, managing HPC jobs is effortless, without the need for SSH. This reduces barriers for new and non-technical users, making HPC systems more accessible.
    Viking is available at NHR-Nord@Göttingen & KISSKI

    #viking #nanoscale #hpc #hpc4germany #nhr #kisski #SecureCommunication

  15. Introducing Viking, the Scandinavian Online Kit for Nanoscale Modelling! This user-friendly, web-based app simplifies computational chemistry and molecular dynamics simulations. With Viking, managing HPC jobs is effortless, without the need for SSH. This reduces barriers for new and non-technical users, making HPC systems more accessible.
    Viking is available at NHR-Nord@Göttingen & KISSKI

    #viking #nanoscale #hpc #hpc4germany #nhr #kisski #SecureCommunication

  16. Introducing Viking, the Scandinavian Online Kit for Nanoscale Modelling! This user-friendly, web-based app simplifies computational chemistry and molecular dynamics simulations. With Viking, managing HPC jobs is effortless, without the need for SSH. This reduces barriers for new and non-technical users, making HPC systems more accessible.
    Viking is available at NHR-Nord@Göttingen & KISSKI

    #viking #nanoscale #hpc #hpc4germany #nhr #kisski #SecureCommunication

  17. Introducing Viking, the Scandinavian Online Kit for Nanoscale Modelling! This user-friendly, web-based app simplifies computational chemistry and molecular dynamics simulations. With Viking, managing HPC jobs is effortless, without the need for SSH. This reduces barriers for new and non-technical users, making HPC systems more accessible.
    Viking is available at NHR-Nord@Göttingen & KISSKI

    #viking #nanoscale #hpc #hpc4germany #nhr #kisski #SecureCommunication

  18. New #microscopy technology enables #nanoscale imaging of centimetre-scale tissues, making it possible to image the entire expanded mouse brain at cellular and subcellular resolution. #ReviewedPreprint #Neuroscience elifesciences.org/reviewed-pre