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#heattransfer — Public Fediverse posts

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

  1. What connects Leidenfrost phenomena, boiling crises and industrial heat transfer challenges?

    LeidenForce researcher Arghya explored these questions during the CISM Advanced Course “Two-phase flow and phase-change: experiments, simulations and modeling” in Udine.

    A week dedicated to understanding complex multiphase flows through experiments, simulations and modelling.

    #TwoPhaseFlow #PhaseChange #HeatTransfer #CFD #MSCA #LeidenForce

  2. Can geometry control where and when condensed water drips?

    Researchers from the @UniversitedeLiege Matteo Leonard and Nicolas Vandewalle, show that simple grooves can turn random edge dripping into regular, predictable release, opening new possibilities for dew harvesting and passive cooling.

    🔗 pubs.acs.org/doi/10.1021/acs.l

    #Condensation #FluidDynamics #HeatTransfer #SurfaceEngineering #geometry

  3. Can geometry control where and when condensed water drips?

    Researchers from the @UniversitedeLiege Matteo Leonard and Nicolas Vandewalle, show that simple grooves can turn random edge dripping into regular, predictable release, opening new possibilities for dew harvesting and passive cooling.

    🔗 pubs.acs.org/doi/10.1021/acs.l

    #Condensation #FluidDynamics #HeatTransfer #SurfaceEngineering #geometry

  4. Can geometry control where and when condensed water drips?

    Researchers from the @UniversitedeLiege Matteo Leonard and Nicolas Vandewalle, show that simple grooves can turn random edge dripping into regular, predictable release, opening new possibilities for dew harvesting and passive cooling.

    🔗 pubs.acs.org/doi/10.1021/acs.l

    #Condensation #FluidDynamics #HeatTransfer #SurfaceEngineering #geometry

  5. Can geometry control where and when condensed water drips?

    Researchers from the @UniversitedeLiege Matteo Leonard and Nicolas Vandewalle, show that simple grooves can turn random edge dripping into regular, predictable release, opening new possibilities for dew harvesting and passive cooling.

    🔗 pubs.acs.org/doi/10.1021/acs.l

    #Condensation #FluidDynamics #HeatTransfer #SurfaceEngineering #geometry

  6. Can geometry control where and when condensed water drips?

    Researchers from the @UniversitedeLiege Matteo Leonard and Nicolas Vandewalle, show that simple grooves can turn random edge dripping into regular, predictable release, opening new possibilities for dew harvesting and passive cooling.

    🔗 pubs.acs.org/doi/10.1021/acs.l

    #Condensation #FluidDynamics #HeatTransfer #SurfaceEngineering #geometry

  7. Heat transfer in emulsions isn't just about the fluids involved.

    Using direct numerical simulations, researchers show that swapping water and oil between dispersed and continuous phases changes local mixing, yet leaves the overall heat transfer nearly unchanged.

    🔗 doi.org/10.1103/wsc4-44wc

    #HeatTransfer #MultiphaseFlow #Emulsions #CFD #FluidDynamics

  8. Microdroplets do not spread the same way when they hit a surface head-on or at an angle.

    New simulations refine how impact conditions shape early spreading laws.

    🔗 doi.org/10.1063/5.0328302

    #fluiddynamics #droplets #wetting #simulation #heattransfer

  9. Boiling behaves very differently without gravity.

    Researchers from the @utwente are testing smart surfaces that actively control bubbles in microgravity, helping reveal the physics of boiling while paving the way for more reliable cooling systems in future spacecraft. 🚀

    🔗 phys.org/news/2026-06-smart-su

    #Boiling #HeatTransfer #Microgravity #SpaceTech #Physics

  10. Boiling behaves very differently without gravity.

    Researchers from the @utwente are testing smart surfaces that actively control bubbles in microgravity, helping reveal the physics of boiling while paving the way for more reliable cooling systems in future spacecraft. 🚀

    🔗 phys.org/news/2026-06-smart-su

    #Boiling #HeatTransfer #Microgravity #SpaceTech #Physics

  11. Boiling behaves very differently without gravity.

    Researchers from the @utwente are testing smart surfaces that actively control bubbles in microgravity, helping reveal the physics of boiling while paving the way for more reliable cooling systems in future spacecraft. 🚀

    🔗 phys.org/news/2026-06-smart-su

    #Boiling #HeatTransfer #Microgravity #SpaceTech #Physics

  12. Boiling behaves very differently without gravity.

    Researchers from the @utwente are testing smart surfaces that actively control bubbles in microgravity, helping reveal the physics of boiling while paving the way for more reliable cooling systems in future spacecraft. 🚀

    🔗 phys.org/news/2026-06-smart-su

    #Boiling #HeatTransfer #Microgravity #SpaceTech #Physics

  13. Boiling behaves very differently without gravity.

    Researchers from the @utwente are testing smart surfaces that actively control bubbles in microgravity, helping reveal the physics of boiling while paving the way for more reliable cooling systems in future spacecraft. 🚀

    🔗 phys.org/news/2026-06-smart-su

    #Boiling #HeatTransfer #Microgravity #SpaceTech #Physics

  14. Heat behaves differently inside living cells than in simple fluid-filled systems.

    The study suggests that cellular organization and biomolecules can reshape heat transport, challenging conventional fluid-dynamics predictions.

    🔗 phys.org/news/2026-05-cells-wa

    #HeatTransfer #Biophysics #SoftMatter #CellBiology #Physics

  15. Heat behaves differently inside living cells than in simple fluid-filled systems.

    The study suggests that cellular organization and biomolecules can reshape heat transport, challenging conventional fluid-dynamics predictions.

    🔗 phys.org/news/2026-05-cells-wa

    #HeatTransfer #Biophysics #SoftMatter #CellBiology #Physics

  16. Heat behaves differently inside living cells than in simple fluid-filled systems.

    The study suggests that cellular organization and biomolecules can reshape heat transport, challenging conventional fluid-dynamics predictions.

    🔗 phys.org/news/2026-05-cells-wa

    #HeatTransfer #Biophysics #SoftMatter #CellBiology #Physics

  17. Heat behaves differently inside living cells than in simple fluid-filled systems.

    The study suggests that cellular organization and biomolecules can reshape heat transport, challenging conventional fluid-dynamics predictions.

    🔗 phys.org/news/2026-05-cells-wa

    #HeatTransfer #Biophysics #SoftMatter #CellBiology #Physics

  18. Heat behaves differently inside living cells than in simple fluid-filled systems.

    The study suggests that cellular organization and biomolecules can reshape heat transport, challenging conventional fluid-dynamics predictions.

    🔗 phys.org/news/2026-05-cells-wa

    #HeatTransfer #Biophysics #SoftMatter #CellBiology #Physics

  19. Magnetic fields can dramatically reorganize fluid motion.

    Using coupled fluid–thermal–structural simulations, this work shows how MHD effects suppress jets and vortices while altering heat transfer, mass transport and wall stresses.

    🔗 doi.org/10.1063/5.0324488

    #FluidMechanics #MHD #HeatTransfer #TransportPhenomena #Physics

  20. Magnetic fields can dramatically reorganize fluid motion.

    Using coupled fluid–thermal–structural simulations, this work shows how MHD effects suppress jets and vortices while altering heat transfer, mass transport and wall stresses.

    🔗 doi.org/10.1063/5.0324488

    #FluidMechanics #MHD #HeatTransfer #TransportPhenomena #Physics

  21. Magnetic fields can dramatically reorganize fluid motion.

    Using coupled fluid–thermal–structural simulations, this work shows how MHD effects suppress jets and vortices while altering heat transfer, mass transport and wall stresses.

    🔗 doi.org/10.1063/5.0324488

    #FluidMechanics #MHD #HeatTransfer #TransportPhenomena #Physics

  22. Magnetic fields can dramatically reorganize fluid motion.

    Using coupled fluid–thermal–structural simulations, this work shows how MHD effects suppress jets and vortices while altering heat transfer, mass transport and wall stresses.

    🔗 doi.org/10.1063/5.0324488

    #FluidMechanics #MHD #HeatTransfer #TransportPhenomena #Physics

  23. Magnetic fields can dramatically reorganize fluid motion.

    Using coupled fluid–thermal–structural simulations, this work shows how MHD effects suppress jets and vortices while altering heat transfer, mass transport and wall stresses.

    🔗 doi.org/10.1063/5.0324488

    #FluidMechanics #MHD #HeatTransfer #TransportPhenomena #Physics

  24. LeidenForce quiz of the day: can you solve our Fake or Fact?

    Can the Leidenfrost effect protect an object from fire?

    In our Fake or Fact series, we test your science knowledge about the Leidenfrost effect!

    #LeidenfrostEffect #ScienceFact #ThermalPhysics #PhysicsExperiment #heattransfer

  25. LeidenForce quiz of the day: can you solve our Fake or Fact?

    Can the Leidenfrost effect protect an object from fire?

    In our Fake or Fact series, we test your science knowledge about the Leidenfrost effect!

    #LeidenfrostEffect #ScienceFact #ThermalPhysics #PhysicsExperiment #heattransfer

  26. LeidenForce quiz of the day: can you solve our Fake or Fact?

    Can the Leidenfrost effect protect an object from fire?

    In our Fake or Fact series, we test your science knowledge about the Leidenfrost effect!

    #LeidenfrostEffect #ScienceFact #ThermalPhysics #PhysicsExperiment #heattransfer

  27. LeidenForce quiz of the day: can you solve our Fake or Fact?

    Can the Leidenfrost effect protect an object from fire?

    In our Fake or Fact series, we test your science knowledge about the Leidenfrost effect!

    #LeidenfrostEffect #ScienceFact #ThermalPhysics #PhysicsExperiment #heattransfer

  28. LeidenForce quiz of the day: can you solve our Fake or Fact?

    Can the Leidenfrost effect protect an object from fire?

    In our Fake or Fact series, we test your science knowledge about the Leidenfrost effect!

    #LeidenfrostEffect #ScienceFact #ThermalPhysics #PhysicsExperiment #heattransfer

  29. Tiny pressure oscillations can strongly affect #BubbleDynamics during #boiling.

    Understanding these instabilities is key to predicting transitions toward #Leidenfrost states and improving #HeatTransfer control in extreme thermal conditions.

    🔗 pubs.aip.org/aip/pof/article/3

    #FluidDynamics

  30. Tiny pressure oscillations can strongly affect #BubbleDynamics during #boiling.

    Understanding these instabilities is key to predicting transitions toward #Leidenfrost states and improving #HeatTransfer control in extreme thermal conditions.

    🔗 pubs.aip.org/aip/pof/article/3

    #FluidDynamics

  31. Droplet impacts on superheated surfaces do not cool smoothly. This study shows a nonlinear shift driven by vapor film dynamics.

    Above a critical impact velocity, heat transfer jumps sharply, revealing a threshold behavior linked to the Leidenfrost regime.

    doi.org/10.1063/5.0320873

    #HeatTransfer #FluidDynamics #Leidenfrost #Cooling #Physics

  32. Droplet impacts on superheated surfaces do not cool smoothly. This study shows a nonlinear shift driven by vapor film dynamics.

    Above a critical impact velocity, heat transfer jumps sharply, revealing a threshold behavior linked to the Leidenfrost regime.

    doi.org/10.1063/5.0320873

    #HeatTransfer #FluidDynamics #Leidenfrost #Cooling #Physics

  33. Droplet impacts on superheated surfaces do not cool smoothly. This study shows a nonlinear shift driven by vapor film dynamics.

    Above a critical impact velocity, heat transfer jumps sharply, revealing a threshold behavior linked to the Leidenfrost regime.

    doi.org/10.1063/5.0320873

    #HeatTransfer #FluidDynamics #Leidenfrost #Cooling #Physics

  34. Droplet impacts on superheated surfaces do not cool smoothly. This study shows a nonlinear shift driven by vapor film dynamics.

    Above a critical impact velocity, heat transfer jumps sharply, revealing a threshold behavior linked to the Leidenfrost regime.

    doi.org/10.1063/5.0320873

    #HeatTransfer #FluidDynamics #Leidenfrost #Cooling #Physics

  35. Droplet impacts on superheated surfaces do not cool smoothly. This study shows a nonlinear shift driven by vapor film dynamics.

    Above a critical impact velocity, heat transfer jumps sharply, revealing a threshold behavior linked to the Leidenfrost regime.

    doi.org/10.1063/5.0320873

    #HeatTransfer #FluidDynamics #Leidenfrost #Cooling #Physics