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#phasechange — Public Fediverse posts

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

  1. Cooling is rarely steady. Experiments show how heat transfer changes dynamically during rapid temperature drops.

    These transient effects matter for boiling regimes and could help refine models of vapor layer formation.

    🔗 pubs.aip.org/aip/pof/article-a

    #heattransfer #phasechange #leidenfrosteffect #thermodynamics #physics

  2. Cooling is rarely steady. Experiments show how heat transfer changes dynamically during rapid temperature drops.

    These transient effects matter for boiling regimes and could help refine models of vapor layer formation.

    🔗 pubs.aip.org/aip/pof/article-a

    #heattransfer #phasechange #leidenfrosteffect #thermodynamics #physics

  3. Cooling is rarely steady. Experiments show how heat transfer changes dynamically during rapid temperature drops.

    These transient effects matter for boiling regimes and could help refine models of vapor layer formation.

    🔗 pubs.aip.org/aip/pof/article-a

    #heattransfer #phasechange #leidenfrosteffect #thermodynamics #physics

  4. Cooling is rarely steady. Experiments show how heat transfer changes dynamically during rapid temperature drops.

    These transient effects matter for boiling regimes and could help refine models of vapor layer formation.

    🔗 pubs.aip.org/aip/pof/article-a

    #heattransfer #phasechange #leidenfrosteffect #thermodynamics #physics

  5. Cooling is rarely steady. Experiments show how heat transfer changes dynamically during rapid temperature drops.

    These transient effects matter for boiling regimes and could help refine models of vapor layer formation.

    🔗 pubs.aip.org/aip/pof/article-a

    #heattransfer #phasechange #leidenfrosteffect #thermodynamics #physics

  6. Inside Solidification

    As children, we’re taught that there are three distinct phases of matter–solid, liquid, and gas–but the reality is somewhat more complicated. In the right–often exotic–conditions, there are far more phases matter takes on. In a recent study, researchers described a metal that sits somewhere between a liquid and a solid.

    In a liquid, atoms are free to move. During solidification, atoms lose this freedom, and their frozen positions relative to one another determine the solid’s properties. Atoms frozen into orderly patterns form crystals, whereas those frozen haphazardly become amorphous solids. In their experiment, researchers instead observed atoms in liquid metal nanoparticles that remained stationary throughout the transition from liquid to solid. The number and position of stationary atoms affected whether the final solid crystallized or not.

    By tracking these stationary atoms and their influence, the team hopes to better control the material properties of the final solidified metal. (Image credit: U. of Nottingham; research credit: C. Leist et al.; via Gizmodo)

    #amorphousSolid #fluidDynamics #materialScience #phaseChange #physics #science #solidification
  7. Inside Solidification

    As children, we’re taught that there are three distinct phases of matter–solid, liquid, and gas–but the reality is somewhat more complicated. In the right–often exotic–conditions, there are far more phases matter takes on. In a recent study, researchers described a metal that sits somewhere between a liquid and a solid.

    In a liquid, atoms are free to move. During solidification, atoms lose this freedom, and their frozen positions relative to one another determine the solid’s properties. Atoms frozen into orderly patterns form crystals, whereas those frozen haphazardly become amorphous solids. In their experiment, researchers instead observed atoms in liquid metal nanoparticles that remained stationary throughout the transition from liquid to solid. The number and position of stationary atoms affected whether the final solid crystallized or not.

    By tracking these stationary atoms and their influence, the team hopes to better control the material properties of the final solidified metal. (Image credit: U. of Nottingham; research credit: C. Leist et al.; via Gizmodo)

    #amorphousSolid #fluidDynamics #materialScience #phaseChange #physics #science #solidification
  8. Inside Solidification

    As children, we’re taught that there are three distinct phases of matter–solid, liquid, and gas–but the reality is somewhat more complicated. In the right–often exotic–conditions, there are far more phases matter takes on. In a recent study, researchers described a metal that sits somewhere between a liquid and a solid.

    In a liquid, atoms are free to move. During solidification, atoms lose this freedom, and their frozen positions relative to one another determine the solid’s properties. Atoms frozen into orderly patterns form crystals, whereas those frozen haphazardly become amorphous solids. In their experiment, researchers instead observed atoms in liquid metal nanoparticles that remained stationary throughout the transition from liquid to solid. The number and position of stationary atoms affected whether the final solid crystallized or not.

    By tracking these stationary atoms and their influence, the team hopes to better control the material properties of the final solidified metal. (Image credit: U. of Nottingham; research credit: C. Leist et al.; via Gizmodo)

    #amorphousSolid #fluidDynamics #materialScience #phaseChange #physics #science #solidification
  9. Inside Solidification

    As children, we’re taught that there are three distinct phases of matter–solid, liquid, and gas–but the reality is somewhat more complicated. In the right–often exotic–conditions, there are far more phases matter takes on. In a recent study, researchers described a metal that sits somewhere between a liquid and a solid.

    In a liquid, atoms are free to move. During solidification, atoms lose this freedom, and their frozen positions relative to one another determine the solid’s properties. Atoms frozen into orderly patterns form crystals, whereas those frozen haphazardly become amorphous solids. In their experiment, researchers instead observed atoms in liquid metal nanoparticles that remained stationary throughout the transition from liquid to solid. The number and position of stationary atoms affected whether the final solid crystallized or not.

    By tracking these stationary atoms and their influence, the team hopes to better control the material properties of the final solidified metal. (Image credit: U. of Nottingham; research credit: C. Leist et al.; via Gizmodo)

    #amorphousSolid #fluidDynamics #materialScience #phaseChange #physics #science #solidification
  10. Inside Solidification

    As children, we’re taught that there are three distinct phases of matter–solid, liquid, and gas–but the reality is somewhat more complicated. In the right–often exotic–conditions, there are far more phases matter takes on. In a recent study, researchers described a metal that sits somewhere between a liquid and a solid.

    In a liquid, atoms are free to move. During solidification, atoms lose this freedom, and their frozen positions relative to one another determine the solid’s properties. Atoms frozen into orderly patterns form crystals, whereas those frozen haphazardly become amorphous solids. In their experiment, researchers instead observed atoms in liquid metal nanoparticles that remained stationary throughout the transition from liquid to solid. The number and position of stationary atoms affected whether the final solid crystallized or not.

    By tracking these stationary atoms and their influence, the team hopes to better control the material properties of the final solidified metal. (Image credit: U. of Nottingham; research credit: C. Leist et al.; via Gizmodo)

    #amorphousSolid #fluidDynamics #materialScience #phaseChange #physics #science #solidification
  11. Just dropped a new rap video 🎤⚡ The EV revolution isn’t change—it’s a phase shift. Easy charging, hassle-free rides, freedom on tap. The robot with smoke? Symbolic of the fossil fuel era choking on its own demise. Future’s clean, electric, unstoppable. @EVCurveFuturist #EVs #PhaseChange #Lithium

    ⚡ EV Revolution

  12. Just dropped a new rap video 🎤⚡ The EV revolution isn’t change—it’s a phase shift. Easy charging, hassle-free rides, freedom on tap. The robot with smoke? Symbolic of the fossil fuel era choking on its own demise. Future’s clean, electric, unstoppable. @EVCurveFuturist #EVs #PhaseChange #Lithium

    ⚡ EV Revolution

  13. Just dropped a new rap video 🎤⚡ The EV revolution isn’t change—it’s a phase shift. Easy charging, hassle-free rides, freedom on tap. The robot with smoke? Symbolic of the fossil fuel era choking on its own demise. Future’s clean, electric, unstoppable. @EVCurveFuturist #EVs #PhaseChange #Lithium

    ⚡ EV Revolution

  14. Just dropped a new rap video 🎤⚡ The EV revolution isn’t change—it’s a phase shift. Easy charging, hassle-free rides, freedom on tap. The robot with smoke? Symbolic of the fossil fuel era choking on its own demise. Future’s clean, electric, unstoppable. @EVCurveFuturist #EVs #PhaseChange #Lithium

    ⚡ EV Revolution

  15. Just dropped a new rap video 🎤⚡ The EV revolution isn’t change—it’s a phase shift. Easy charging, hassle-free rides, freedom on tap. The robot with smoke? Symbolic of the fossil fuel era choking on its own demise. Future’s clean, electric, unstoppable. @EVCurveFuturist #EVs #PhaseChange #Lithium

    ⚡ EV Revolution

  16. Great moments at #Euromech Colloquium 651 in Metz with LeidenForce members!
    In the photo: @stephanedorbolo @UniversitedeLiege, cochair, and Benoit Scheid @ULBruxelles presenting on “Bubble and droplet dynamics in inertial microfluidics”.
    Also Anne-Laure Biance @cnrs with a talk on “Triboelectricity in droplet impact on superhydrophobic surfaces.”

    #microfluidics #heattransfer #PhaseChange