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  1. 🌖🌊 Possible liquid #nitrogen flows on #Pluto.

    A new study argues that dark features in northern #SputnikPlanitia may be traces of N₂ basal melt that rose through the nitrogen ice sheet, flowed briefly across the surface, and refroze.

    📝 doi.org/10.3847/PSJ/ae7e85

    #PlanetaryScience #SpacePhysics

  2. 🌖🌊 Possible liquid #nitrogen flows on #Pluto.

    A new study argues that dark features in northern #SputnikPlanitia may be traces of N₂ basal melt that rose through the nitrogen ice sheet, flowed briefly across the surface, and refroze.

    📝 doi.org/10.3847/PSJ/ae7e85

    #PlanetaryScience #SpacePhysics

  3. 🌖🌊 Possible liquid #nitrogen flows on #Pluto.

    A new study argues that dark features in northern #SputnikPlanitia may be traces of N₂ basal melt that rose through the nitrogen ice sheet, flowed briefly across the surface, and refroze.

    📝 doi.org/10.3847/PSJ/ae7e85

    #PlanetaryScience #SpacePhysics

  4. 🌖🌊 Possible liquid #nitrogen flows on #Pluto.

    A new study argues that dark features in northern #SputnikPlanitia may be traces of N₂ basal melt that rose through the nitrogen ice sheet, flowed briefly across the surface, and refroze.

    📝 doi.org/10.3847/PSJ/ae7e85

    #PlanetaryScience #SpacePhysics

  5. 🌖🌊 Possible liquid #nitrogen flows on #Pluto.

    A new study argues that dark features in northern #SputnikPlanitia may be traces of N₂ basal melt that rose through the nitrogen ice sheet, flowed briefly across the surface, and refroze.

    📝 doi.org/10.3847/PSJ/ae7e85

    #PlanetaryScience #SpacePhysics

  6. Especially interesting: #Reconnection at #Mars is not just a local #plasma process. It can restructure the induced #magnetosphere, generate flux ropes and jets, open magnetic escape pathways, contribute to #auroral activity, and possibly affect #atmospheric ion loss.

    Even a planet without a global #MagneticField can have very dynamic #PlasmaPhysics.

    #SpacePhysics #Aurora #PolarLights

  7. Especially interesting: #Reconnection at #Mars is not just a local #plasma process. It can restructure the induced #magnetosphere, generate flux ropes and jets, open magnetic escape pathways, contribute to #auroral activity, and possibly affect #atmospheric ion loss.

    Even a planet without a global #MagneticField can have very dynamic #PlasmaPhysics.

    #SpacePhysics #Aurora #PolarLights

  8. Especially interesting: #Reconnection at #Mars is not just a local #plasma process. It can restructure the induced #magnetosphere, generate flux ropes and jets, open magnetic escape pathways, contribute to #auroral activity, and possibly affect #atmospheric ion loss.

    Even a planet without a global #MagneticField can have very dynamic #PlasmaPhysics.

    #SpacePhysics #Aurora #PolarLights

  9. Especially interesting: #Reconnection at #Mars is not just a local #plasma process. It can restructure the induced #magnetosphere, generate flux ropes and jets, open magnetic escape pathways, contribute to #auroral activity, and possibly affect #atmospheric ion loss.

    Even a planet without a global #MagneticField can have very dynamic #PlasmaPhysics.

    #SpacePhysics #Aurora #PolarLights

  10. Especially interesting: #Reconnection at #Mars is not just a local #plasma process. It can restructure the induced #magnetosphere, generate flux ropes and jets, open magnetic escape pathways, contribute to #auroral activity, and possibly affect #atmospheric ion loss.

    Even a planet without a global #MagneticField can have very dynamic #PlasmaPhysics.

    #SpacePhysics #Aurora #PolarLights

  11. Nice review on #MagneticReconnection 🧲 ❌ in #Mars’ space environment:

    📝 doi.org/10.1007/s11038-026-095

    Lin, R., Huang, S., Jiang, K. et al. Recent advances in magnetic reconnection in Mars’ space environment

    Unlike #Earth, Mars has no global intrinsic dipole field. Its #plasma environment is shaped by the #SolarWind, an induced #magnetosphere, localized crustal #MagneticFields, and heavy planetary ions. …makes Mars a fascinating laboratory for reconnection physics.

    #SpacePhysics #PlanetaryScience

  12. Nice review on #MagneticReconnection 🧲 ❌ in #Mars’ space environment:

    📝 doi.org/10.1007/s11038-026-095

    Lin, R., Huang, S., Jiang, K. et al. Recent advances in magnetic reconnection in Mars’ space environment

    Unlike #Earth, Mars has no global intrinsic dipole field. Its #plasma environment is shaped by the #SolarWind, an induced #magnetosphere, localized crustal #MagneticFields, and heavy planetary ions. …makes Mars a fascinating laboratory for reconnection physics.

    #SpacePhysics #PlanetaryScience

  13. Nice review on #MagneticReconnection 🧲 ❌ in #Mars’ space environment:

    📝 doi.org/10.1007/s11038-026-095

    Lin, R., Huang, S., Jiang, K. et al. Recent advances in magnetic reconnection in Mars’ space environment

    Unlike #Earth, Mars has no global intrinsic dipole field. Its #plasma environment is shaped by the #SolarWind, an induced #magnetosphere, localized crustal #MagneticFields, and heavy planetary ions. …makes Mars a fascinating laboratory for reconnection physics.

    #SpacePhysics #PlanetaryScience

  14. Nice review on #MagneticReconnection 🧲 ❌ in #Mars’ space environment:

    📝 doi.org/10.1007/s11038-026-095

    Lin, R., Huang, S., Jiang, K. et al. Recent advances in magnetic reconnection in Mars’ space environment

    Unlike #Earth, Mars has no global intrinsic dipole field. Its #plasma environment is shaped by the #SolarWind, an induced #magnetosphere, localized crustal #MagneticFields, and heavy planetary ions. …makes Mars a fascinating laboratory for reconnection physics.

    #SpacePhysics #PlanetaryScience

  15. Nice review on #MagneticReconnection 🧲 ❌ in #Mars’ space environment:

    📝 doi.org/10.1007/s11038-026-095

    Lin, R., Huang, S., Jiang, K. et al. Recent advances in magnetic reconnection in Mars’ space environment

    Unlike #Earth, Mars has no global intrinsic dipole field. Its #plasma environment is shaped by the #SolarWind, an induced #magnetosphere, localized crustal #MagneticFields, and heavy planetary ions. …makes Mars a fascinating laboratory for reconnection physics.

    #SpacePhysics #PlanetaryScience

  16. Groundbreaking research analyzing newly documented explosive releases of magnetic energy and high-energy particle bursts that occur along the boundaries of incoming coronal mass ejections (CMEs) in close proximity to Earth.
    #SpacePhysics #Heliophysics #MagnetosphericPhysics #sflorg
    sflorg.com/2026/08/heli0818260

  17. Groundbreaking research analyzing newly documented explosive releases of magnetic energy and high-energy particle bursts that occur along the boundaries of incoming coronal mass ejections (CMEs) in close proximity to Earth.
    #SpacePhysics #Heliophysics #MagnetosphericPhysics #sflorg
    sflorg.com/2026/08/heli0818260

  18. Groundbreaking research analyzing newly documented explosive releases of magnetic energy and high-energy particle bursts that occur along the boundaries of incoming coronal mass ejections (CMEs) in close proximity to Earth.
    #SpacePhysics #Heliophysics #MagnetosphericPhysics #sflorg
    sflorg.com/2026/08/heli0818260

  19. Groundbreaking research analyzing newly documented explosive releases of magnetic energy and high-energy particle bursts that occur along the boundaries of incoming coronal mass ejections (CMEs) in close proximity to Earth.
    #SpacePhysics #Heliophysics #MagnetosphericPhysics #sflorg
    sflorg.com/2026/08/heli0818260

  20. Groundbreaking research analyzing newly documented explosive releases of magnetic energy and high-energy particle bursts that occur along the boundaries of incoming coronal mass ejections (CMEs) in close proximity to Earth.
    #SpacePhysics #Heliophysics #MagnetosphericPhysics #sflorg
    sflorg.com/2026/08/heli0818260

  21. @Umbertogaetani One thing that surprised me: I don’t see Roth et al.’s #HST work on #Europa’s #plume/water-vapor signatures cited here, nor Saur et al. or much from the Europa #SpacePlasma community.

    Not fatal for their thermo-fluid model I guess, but given the broader claim about limited #ocean–#surface exchange, it feels like a gap in the framing.

    #IcyMoons #SpacePhysics

  22. @Umbertogaetani One thing that surprised me: I don’t see Roth et al.’s #HST work on #Europa’s #plume/water-vapor signatures cited here, nor Saur et al. or much from the Europa #SpacePlasma community.

    Not fatal for their thermo-fluid model I guess, but given the broader claim about limited #ocean–#surface exchange, it feels like a gap in the framing.

    #IcyMoons #SpacePhysics

  23. @Umbertogaetani One thing that surprised me: I don’t see Roth et al.’s #HST work on #Europa’s #plume/water-vapor signatures cited here, nor Saur et al. or much from the Europa #SpacePlasma community.

    Not fatal for their thermo-fluid model I guess, but given the broader claim about limited #ocean–#surface exchange, it feels like a gap in the framing.

    #IcyMoons #SpacePhysics

  24. @Umbertogaetani One thing that surprised me: I don’t see Roth et al.’s #HST work on #Europa’s #plume/water-vapor signatures cited here, nor Saur et al. or much from the Europa #SpacePlasma community.

    Not fatal for their thermo-fluid model I guess, but given the broader claim about limited #ocean–#surface exchange, it feels like a gap in the framing.

    #IcyMoons #SpacePhysics

  25. @Umbertogaetani One thing that surprised me: I don’t see Roth et al.’s #HST work on #Europa’s #plume/water-vapor signatures cited here, nor Saur et al. or much from the Europa #SpacePlasma community.

    Not fatal for their thermo-fluid model I guess, but given the broader claim about limited #ocean–#surface exchange, it feels like a gap in the framing.

    #IcyMoons #SpacePhysics

  26. @Umbertogaetani Their simulations suggest that #water rising through narrow dykes would freeze too quickly to supply the volumes needed for features such as chaos terrain, pits, domes or ridges. #Turbulence makes this worse by enhancing heat loss, supercooling the water, producing frazil ice, and clogging the dyke.

    If correct, shallow liquid reservoirs on #Europa may form more by local in situ melting than by direct #ocean-to-surface exchange.

    #PlanetaryScience #SpacePhysics #IcyMoons

  27. @Umbertogaetani Their simulations suggest that #water rising through narrow dykes would freeze too quickly to supply the volumes needed for features such as chaos terrain, pits, domes or ridges. #Turbulence makes this worse by enhancing heat loss, supercooling the water, producing frazil ice, and clogging the dyke.

    If correct, shallow liquid reservoirs on #Europa may form more by local in situ melting than by direct #ocean-to-surface exchange.

    #PlanetaryScience #SpacePhysics #IcyMoons

  28. @Umbertogaetani Their simulations suggest that #water rising through narrow dykes would freeze too quickly to supply the volumes needed for features such as chaos terrain, pits, domes or ridges. #Turbulence makes this worse by enhancing heat loss, supercooling the water, producing frazil ice, and clogging the dyke.

    If correct, shallow liquid reservoirs on #Europa may form more by local in situ melting than by direct #ocean-to-surface exchange.

    #PlanetaryScience #SpacePhysics #IcyMoons

  29. @Umbertogaetani Their simulations suggest that #water rising through narrow dykes would freeze too quickly to supply the volumes needed for features such as chaos terrain, pits, domes or ridges. #Turbulence makes this worse by enhancing heat loss, supercooling the water, producing frazil ice, and clogging the dyke.

    If correct, shallow liquid reservoirs on #Europa may form more by local in situ melting than by direct #ocean-to-surface exchange.

    #PlanetaryScience #SpacePhysics #IcyMoons

  30. @Umbertogaetani Their simulations suggest that #water rising through narrow dykes would freeze too quickly to supply the volumes needed for features such as chaos terrain, pits, domes or ridges. #Turbulence makes this worse by enhancing heat loss, supercooling the water, producing frazil ice, and clogging the dyke.

    If correct, shallow liquid reservoirs on #Europa may form more by local in situ melting than by direct #ocean-to-surface exchange.

    #PlanetaryScience #SpacePhysics #IcyMoons

  31. RE: mastodon.uno/@Umbertogaetani/1

    🌖🌊 Interesting new #NatureAstronomy paper on #Europa’s #subsurface #ocean:

    Ojha, Barik & Buffo argue that direct liquid-water transport from Europa’s deep ocean into shallow subsurface reservoirs may be much more limited than often assumed.

    🌍 doi.org/10.1038/s41550-026-029

    Thanks @Umbertogaetani for sharing ✌️

    #PlanetaryScience #SpacePhysics #IcyMoons #Astrobiology

  32. RE: mastodon.uno/@Umbertogaetani/1

    🌖🌊 Interesting new #NatureAstronomy paper on #Europa’s #subsurface #ocean:

    Ojha, Barik & Buffo argue that direct liquid-water transport from Europa’s deep ocean into shallow subsurface reservoirs may be much more limited than often assumed.

    🌍 doi.org/10.1038/s41550-026-029

    Thanks @Umbertogaetani for sharing ✌️

    #PlanetaryScience #SpacePhysics #IcyMoons #Astrobiology

  33. RE: mastodon.uno/@Umbertogaetani/1

    🌖🌊 Interesting new #NatureAstronomy paper on #Europa’s #subsurface #ocean:

    Ojha, Barik & Buffo argue that direct liquid-water transport from Europa’s deep ocean into shallow subsurface reservoirs may be much more limited than often assumed.

    🌍 doi.org/10.1038/s41550-026-029

    Thanks @Umbertogaetani for sharing ✌️

    #PlanetaryScience #SpacePhysics #IcyMoons #Astrobiology

  34. RE: mastodon.uno/@Umbertogaetani/1

    🌖🌊 Interesting new #NatureAstronomy paper on #Europa’s #subsurface #ocean:

    Ojha, Barik & Buffo argue that direct liquid-water transport from Europa’s deep ocean into shallow subsurface reservoirs may be much more limited than often assumed.

    🌍 doi.org/10.1038/s41550-026-029

    Thanks @Umbertogaetani for sharing ✌️

    #PlanetaryScience #SpacePhysics #IcyMoons #Astrobiology

  35. RE: mastodon.uno/@Umbertogaetani/1

    🌖🌊 Interesting new #NatureAstronomy paper on #Europa’s #subsurface #ocean:

    Ojha, Barik & Buffo argue that direct liquid-water transport from Europa’s deep ocean into shallow subsurface reservoirs may be much more limited than often assumed.

    🌍 doi.org/10.1038/s41550-026-029

    Thanks @Umbertogaetani for sharing ✌️

    #PlanetaryScience #SpacePhysics #IcyMoons #Astrobiology

  36. This is the exciting part: #KHI can mix magnetized and non-magnetized #plasma, drive #turbulence, transport mass/energy/momentum/ #MagneticFlux, and may contribute to small-scale #magnetic braiding, thus one route by which free #MagneticEnergy is built up in the solar #atmosphere.

    That makes them relevant to the long-standing puzzle of why the #corona is heated to millions of kelvin while the visible surface is only ~5,800 K. 😎🔥

    #SolarPhysics #PlasmaPhysics #SpacePhysics #KHI

  37. This is the exciting part: #KHI can mix magnetized and non-magnetized #plasma, drive #turbulence, transport mass/energy/momentum/ #MagneticFlux, and may contribute to small-scale #magnetic braiding, thus one route by which free #MagneticEnergy is built up in the solar #atmosphere.

    That makes them relevant to the long-standing puzzle of why the #corona is heated to millions of kelvin while the visible surface is only ~5,800 K. 😎🔥

    #SolarPhysics #PlasmaPhysics #SpacePhysics #KHI

  38. This is the exciting part: #KHI can mix magnetized and non-magnetized #plasma, drive #turbulence, transport mass/energy/momentum/ #MagneticFlux, and may contribute to small-scale #magnetic braiding, thus one route by which free #MagneticEnergy is built up in the solar #atmosphere.

    That makes them relevant to the long-standing puzzle of why the #corona is heated to millions of kelvin while the visible surface is only ~5,800 K. 😎🔥

    #SolarPhysics #PlasmaPhysics #SpacePhysics #KHI

  39. This is the exciting part: #KHI can mix magnetized and non-magnetized #plasma, drive #turbulence, transport mass/energy/momentum/ #MagneticFlux, and may contribute to small-scale #magnetic braiding, thus one route by which free #MagneticEnergy is built up in the solar #atmosphere.

    That makes them relevant to the long-standing puzzle of why the #corona is heated to millions of kelvin while the visible surface is only ~5,800 K. 😎🔥

    #SolarPhysics #PlasmaPhysics #SpacePhysics #KHI

  40. This is the exciting part: #KHI can mix magnetized and non-magnetized #plasma, drive #turbulence, transport mass/energy/momentum/ #MagneticFlux, and may contribute to small-scale #magnetic braiding, thus one route by which free #MagneticEnergy is built up in the solar #atmosphere.

    That makes them relevant to the long-standing puzzle of why the #corona is heated to millions of kelvin while the visible surface is only ~5,800 K. 😎🔥

    #SolarPhysics #PlasmaPhysics #SpacePhysics #KHI

  41. For the first time, #KelvinHelmholtzInstabilities 🌀 have been directly observed in the #Sun’s #photosphere ☀️🔭

    #DKIST images reveal tiny #vortex-like structures at the edges of #MagneticFlux concentrations. #MHD simulations reproduce them and show that shear flows along these #magnetic boundaries trigger the instability.

    📄 doi.org/10.1038/s41586-026-108

    #SolarPhysics #PlasmaPhysics #SpacePhysics #KHI

  42. For the first time, #KelvinHelmholtzInstabilities 🌀 have been directly observed in the #Sun’s #photosphere ☀️🔭

    #DKIST images reveal tiny #vortex-like structures at the edges of #MagneticFlux concentrations. #MHD simulations reproduce them and show that shear flows along these #magnetic boundaries trigger the instability.

    📄 doi.org/10.1038/s41586-026-108

    #SolarPhysics #PlasmaPhysics #SpacePhysics #KHI

  43. For the first time, #KelvinHelmholtzInstabilities 🌀 have been directly observed in the #Sun’s #photosphere ☀️🔭

    #DKIST images reveal tiny #vortex-like structures at the edges of #MagneticFlux concentrations. #MHD simulations reproduce them and show that shear flows along these #magnetic boundaries trigger the instability.

    📄 doi.org/10.1038/s41586-026-108

    #SolarPhysics #PlasmaPhysics #SpacePhysics #KHI

  44. For the first time, #KelvinHelmholtzInstabilities 🌀 have been directly observed in the #Sun’s #photosphere ☀️🔭

    #DKIST images reveal tiny #vortex-like structures at the edges of #MagneticFlux concentrations. #MHD simulations reproduce them and show that shear flows along these #magnetic boundaries trigger the instability.

    📄 doi.org/10.1038/s41586-026-108

    #SolarPhysics #PlasmaPhysics #SpacePhysics #KHI

  45. For the first time, #KelvinHelmholtzInstabilities 🌀 have been directly observed in the #Sun’s #photosphere ☀️🔭

    #DKIST images reveal tiny #vortex-like structures at the edges of #MagneticFlux concentrations. #MHD simulations reproduce them and show that shear flows along these #magnetic boundaries trigger the instability.

    📄 doi.org/10.1038/s41586-026-108

    #SolarPhysics #PlasmaPhysics #SpacePhysics #KHI

  46. “A #telescope in #Chile has captured evidence of the impact caused by part of a SpaceX #Falcon9 rocket slamming into the moon while travelling at 8,690km/h (5,400mph).

    The European Southern Observatory’s (ESO) Very Large Telescope observed “spectral lines” – a colourful illustration of the #sodium and #lithium gas – in the plume of #LunarDust stirred up by the impact.

    The #ESO telescope recorded these “chemical fingerprints” of the plume, which were visible for five to 10 minutes, the #observatory said. The #plume measured a few tens of kilometres in size, according to #CarlSchmidt, an astronomer from #BostonUniversity’s Center for #SpacePhysics.”

    #Moon <theguardian.com/science/2026/a>

  47. “A #telescope in #Chile has captured evidence of the impact caused by part of a SpaceX #Falcon9 rocket slamming into the moon while travelling at 8,690km/h (5,400mph).

    The European Southern Observatory’s (ESO) Very Large Telescope observed “spectral lines” – a colourful illustration of the #sodium and #lithium gas – in the plume of #LunarDust stirred up by the impact.

    The #ESO telescope recorded these “chemical fingerprints” of the plume, which were visible for five to 10 minutes, the #observatory said. The #plume measured a few tens of kilometres in size, according to #CarlSchmidt, an astronomer from #BostonUniversity’s Center for #SpacePhysics.”

    #Moon <theguardian.com/science/2026/a>

  48. “A #telescope in #Chile has captured evidence of the impact caused by part of a SpaceX #Falcon9 rocket slamming into the moon while travelling at 8,690km/h (5,400mph).

    The European Southern Observatory’s (ESO) Very Large Telescope observed “spectral lines” – a colourful illustration of the #sodium and #lithium gas – in the plume of #LunarDust stirred up by the impact.

    The #ESO telescope recorded these “chemical fingerprints” of the plume, which were visible for five to 10 minutes, the #observatory said. The #plume measured a few tens of kilometres in size, according to #CarlSchmidt, an astronomer from #BostonUniversity’s Center for #SpacePhysics.”

    #Moon <theguardian.com/science/2026/a>

  49. “A #telescope in #Chile has captured evidence of the impact caused by part of a SpaceX #Falcon9 rocket slamming into the moon while travelling at 8,690km/h (5,400mph).

    The European Southern Observatory’s (ESO) Very Large Telescope observed “spectral lines” – a colourful illustration of the #sodium and #lithium gas – in the plume of #LunarDust stirred up by the impact.

    The #ESO telescope recorded these “chemical fingerprints” of the plume, which were visible for five to 10 minutes, the #observatory said. The #plume measured a few tens of kilometres in size, according to #CarlSchmidt, an astronomer from #BostonUniversity’s Center for #SpacePhysics.”

    #Moon <theguardian.com/science/2026/a>

  50. “A #telescope in #Chile has captured evidence of the impact caused by part of a SpaceX #Falcon9 rocket slamming into the moon while travelling at 8,690km/h (5,400mph).

    The European Southern Observatory’s (ESO) Very Large Telescope observed “spectral lines” – a colourful illustration of the #sodium and #lithium gas – in the plume of #LunarDust stirred up by the impact.

    The #ESO telescope recorded these “chemical fingerprints” of the plume, which were visible for five to 10 minutes, the #observatory said. The #plume measured a few tens of kilometres in size, according to #CarlSchmidt, an astronomer from #BostonUniversity’s Center for #SpacePhysics.”

    #Moon <theguardian.com/science/2026/a>

  51. This made me very happy to read: An #asteroid has been named after Susanne Pfalzner.

    I attended her lectures on #ComputationalAstrophysics and #StarFormation during my studies, and she later served as the 2nd examiner for my Master’s thesis. She is an outstanding scientist and lecturer, and this is such a well-deserved honor. My warmest congratulations to her! 👏👏👏

    🌍 fz-juelich.de/en/jsc/news/news

    #Astronomy #Astrophysics #Physics #SpacePhysics 🌌

  52. This made me very happy to read: An #asteroid has been named after Susanne Pfalzner.

    I attended her lectures on #ComputationalAstrophysics and #StarFormation during my studies, and she later served as the 2nd examiner for my Master’s thesis. She is an outstanding scientist and lecturer, and this is such a well-deserved honor. My warmest congratulations to her! 👏👏👏

    🌍 fz-juelich.de/en/jsc/news/news

    #Astronomy #Astrophysics #Physics #SpacePhysics 🌌

  53. This made me very happy to read: An #asteroid has been named after Susanne Pfalzner.

    I attended her lectures on #ComputationalAstrophysics and #StarFormation during my studies, and she later served as the 2nd examiner for my Master’s thesis. She is an outstanding scientist and lecturer, and this is such a well-deserved honor. My warmest congratulations to her! 👏👏👏

    🌍 fz-juelich.de/en/jsc/news/news

    #Astronomy #Astrophysics #Physics #SpacePhysics 🌌

  54. This made me very happy to read: An #asteroid has been named after Susanne Pfalzner.

    I attended her lectures on #ComputationalAstrophysics and #StarFormation during my studies, and she later served as the 2nd examiner for my Master’s thesis. She is an outstanding scientist and lecturer, and this is such a well-deserved honor. My warmest congratulations to her! 👏👏👏

    🌍 fz-juelich.de/en/jsc/news/news

    #Astronomy #Astrophysics #Physics #SpacePhysics 🌌

  55. This made me very happy to read: An #asteroid has been named after Susanne Pfalzner.

    I attended her lectures on #ComputationalAstrophysics and #StarFormation during my studies, and she later served as the 2nd examiner for my Master’s thesis. She is an outstanding scientist and lecturer, and this is such a well-deserved honor. My warmest congratulations to her! 👏👏👏

    🌍 fz-juelich.de/en/jsc/news/news

    #Astronomy #Astrophysics #Physics #SpacePhysics 🌌