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#atmosphericscience — Public Fediverse posts

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

  1. Evaluative governance is a systemic framework that integrates objective scientific data with social values to determine acceptable climate limits and drive actionable policy.
    #Environmental #MarineBiology #Ecology #AtmosphericScience #SocialScience #sflorg
    sflorg.com/2026/05/env05122601

  2. Evaluative governance is a systemic framework that integrates objective scientific data with social values to determine acceptable climate limits and drive actionable policy.
    #Environmental #MarineBiology #Ecology #AtmosphericScience #SocialScience #sflorg
    sflorg.com/2026/05/env05122601

  3. Evaluative governance is a systemic framework that integrates objective scientific data with social values to determine acceptable climate limits and drive actionable policy.
    #Environmental #MarineBiology #Ecology #AtmosphericScience #SocialScience #sflorg
    sflorg.com/2026/05/env05122601

  4. Evaluative governance is a systemic framework that integrates objective scientific data with social values to determine acceptable climate limits and drive actionable policy.
    #Environmental #MarineBiology #Ecology #AtmosphericScience #SocialScience #sflorg
    sflorg.com/2026/05/env05122601

  5. Evaluative governance is a systemic framework that integrates objective scientific data with social values to determine acceptable climate limits and drive actionable policy.
    #Environmental #MarineBiology #Ecology #AtmosphericScience #SocialScience #sflorg
    sflorg.com/2026/05/env05122601

  6. A New Way to Fight Climate Change Emerges From Erupting Volcano

    When the Hunga Tonga–Hunga Ha’apa submarine volcano erupted in 2022, it spewed roughly 2.9 billion tons of ash…
    #NewsBeep #News #US #USA #UnitedStates #UnitedStatesOfAmerica #Science #atmosphericscience #Chemistry #globalwarming #methane #volcaniceruptions
    newsbeep.com/us/637537/

  7. A #Venusian atmospheric hydraulic jump is an abrupt slowing and deepening of a fast-moving atmospheric fluid, which creates a massive 6,000-kilometer-wide wave front in the planet's cloud layer. It forces sulfuric acid vapor upward, condensing it into a distinctly visible, planetary-scale line of cloud.
    #PlanetaryScience #AtmosphericScience #Meteorology #sflorg
    sflorg.com/2026/05/ps05102601.

  8. A #Venusian atmospheric hydraulic jump is an abrupt slowing and deepening of a fast-moving atmospheric fluid, which creates a massive 6,000-kilometer-wide wave front in the planet's cloud layer. It forces sulfuric acid vapor upward, condensing it into a distinctly visible, planetary-scale line of cloud.
    #PlanetaryScience #AtmosphericScience #Meteorology #sflorg
    sflorg.com/2026/05/ps05102601.

  9. A #Venusian atmospheric hydraulic jump is an abrupt slowing and deepening of a fast-moving atmospheric fluid, which creates a massive 6,000-kilometer-wide wave front in the planet's cloud layer. It forces sulfuric acid vapor upward, condensing it into a distinctly visible, planetary-scale line of cloud.
    #PlanetaryScience #AtmosphericScience #Meteorology #sflorg
    sflorg.com/2026/05/ps05102601.

  10. A #Venusian atmospheric hydraulic jump is an abrupt slowing and deepening of a fast-moving atmospheric fluid, which creates a massive 6,000-kilometer-wide wave front in the planet's cloud layer. It forces sulfuric acid vapor upward, condensing it into a distinctly visible, planetary-scale line of cloud.
    #PlanetaryScience #AtmosphericScience #Meteorology #sflorg
    sflorg.com/2026/05/ps05102601.

  11. A #Venusian atmospheric hydraulic jump is an abrupt slowing and deepening of a fast-moving atmospheric fluid, which creates a massive 6,000-kilometer-wide wave front in the planet's cloud layer. It forces sulfuric acid vapor upward, condensing it into a distinctly visible, planetary-scale line of cloud.
    #PlanetaryScience #AtmosphericScience #Meteorology #sflorg
    sflorg.com/2026/05/ps05102601.

  12. Recent research demonstrates that while moderate ambient temperature increases can benefit bumble bees by expanding optimal foraging hours, extreme heat events severely threaten colony survival, particularly for populations utilizing above-ground nests.
    #Entomology #Ecology #BehavioralScience #AtmosphericScience #sflorg
    sflorg.com/2026/05/ent05062601

  13. Recent research demonstrates that while moderate ambient temperature increases can benefit bumble bees by expanding optimal foraging hours, extreme heat events severely threaten colony survival, particularly for populations utilizing above-ground nests.
    #Entomology #Ecology #BehavioralScience #AtmosphericScience #sflorg
    sflorg.com/2026/05/ent05062601

  14. Recent research demonstrates that while moderate ambient temperature increases can benefit bumble bees by expanding optimal foraging hours, extreme heat events severely threaten colony survival, particularly for populations utilizing above-ground nests.
    #Entomology #Ecology #BehavioralScience #AtmosphericScience #sflorg
    sflorg.com/2026/05/ent05062601

  15. Recent research demonstrates that while moderate ambient temperature increases can benefit bumble bees by expanding optimal foraging hours, extreme heat events severely threaten colony survival, particularly for populations utilizing above-ground nests.
    #Entomology #Ecology #BehavioralScience #AtmosphericScience #sflorg
    sflorg.com/2026/05/ent05062601

  16. Recent research demonstrates that while moderate ambient temperature increases can benefit bumble bees by expanding optimal foraging hours, extreme heat events severely threaten colony survival, particularly for populations utilizing above-ground nests.
    #Entomology #Ecology #BehavioralScience #AtmosphericScience #sflorg
    sflorg.com/2026/05/ent05062601

  17. Rising global temperatures and shifting climate patterns are projected to drive rodent-borne arenaviruses into previously unaffected regions of South America over the next two to four decades, significantly increasing the risk of zoonotic spillover to new human populations.
    #Veterinary #Epidemiology #Virology #AtmosphericScience #ClimateChange #sflorg
    sflorg.com/2026/05/epi05042601

  18. Rising global temperatures and shifting climate patterns are projected to drive rodent-borne arenaviruses into previously unaffected regions of South America over the next two to four decades, significantly increasing the risk of zoonotic spillover to new human populations.
    #Veterinary #Epidemiology #Virology #AtmosphericScience #ClimateChange #sflorg
    sflorg.com/2026/05/epi05042601

  19. Rising global temperatures and shifting climate patterns are projected to drive rodent-borne arenaviruses into previously unaffected regions of South America over the next two to four decades, significantly increasing the risk of zoonotic spillover to new human populations.
    #Veterinary #Epidemiology #Virology #AtmosphericScience #ClimateChange #sflorg
    sflorg.com/2026/05/epi05042601

  20. Rising global temperatures and shifting climate patterns are projected to drive rodent-borne arenaviruses into previously unaffected regions of South America over the next two to four decades, significantly increasing the risk of zoonotic spillover to new human populations.
    #Veterinary #Epidemiology #Virology #AtmosphericScience #ClimateChange #sflorg
    sflorg.com/2026/05/epi05042601

  21. Rising global temperatures and shifting climate patterns are projected to drive rodent-borne arenaviruses into previously unaffected regions of South America over the next two to four decades, significantly increasing the risk of zoonotic spillover to new human populations.
    #Veterinary #Epidemiology #Virology #AtmosphericScience #ClimateChange #sflorg
    sflorg.com/2026/05/epi05042601

  22. Recreating Atmospheres

    In planetary atmospheres, energy and vorticity can cascade from large scales to smaller ones, but the mechanics of this transfer remain somewhat elusive. In a recent experiment, researchers built a lab-scale representation of an atmosphere using a meter-scale rotating annular tank. The outer bottom edge of the tank gets heated–representing the sun’s warming at the equator–while a pipe in the center of the tank gets cooled near the tank surface, which mimics the chilling effect of the poles. Researchers filled the tank with a water-glycerol mixture and recorded how their artificial atmosphere responded at different rotation rates.

    Two different rotating atmospheres, colored by vorticity (red clockwise, blue counterclockwise). The left version has a slower rate of rotation, and thus larger length scales.

    The results show an energy spectrum that’s consistent with atmospheric observations–with a steep drop at large length scales and a flatter one at smaller scales. But interestingly, they also found that the cascade was temperature-dependent in ways that current models don’t predict. Untangling that effect could help us understand not only our atmosphere but those of other planets. (Image credit: tank – H. Scolan, animation – S. Ding et al.; research credit: S. Ding et al.; via APS)

    #atmosphericScience #energyCascade #flowVisualization #fluidDynamics #physics #planetaryScience #rotatingFlow #science #turbulence #vorticity
  23. Recreating Atmospheres

    In planetary atmospheres, energy and vorticity can cascade from large scales to smaller ones, but the mechanics of this transfer remain somewhat elusive. In a recent experiment, researchers built a lab-scale representation of an atmosphere using a meter-scale rotating annular tank. The outer bottom edge of the tank gets heated–representing the sun’s warming at the equator–while a pipe in the center of the tank gets cooled near the tank surface, which mimics the chilling effect of the poles. Researchers filled the tank with a water-glycerol mixture and recorded how their artificial atmosphere responded at different rotation rates.

    Two different rotating atmospheres, colored by vorticity (red clockwise, blue counterclockwise). The left version has a slower rate of rotation, and thus larger length scales.

    The results show an energy spectrum that’s consistent with atmospheric observations–with a steep drop at large length scales and a flatter one at smaller scales. But interestingly, they also found that the cascade was temperature-dependent in ways that current models don’t predict. Untangling that effect could help us understand not only our atmosphere but those of other planets. (Image credit: tank – H. Scolan, animation – S. Ding et al.; research credit: S. Ding et al.; via APS)

    #atmosphericScience #energyCascade #flowVisualization #fluidDynamics #physics #planetaryScience #rotatingFlow #science #turbulence #vorticity
  24. Recreating Atmospheres

    In planetary atmospheres, energy and vorticity can cascade from large scales to smaller ones, but the mechanics of this transfer remain somewhat elusive. In a recent experiment, researchers built a lab-scale representation of an atmosphere using a meter-scale rotating annular tank. The outer bottom edge of the tank gets heated–representing the sun’s warming at the equator–while a pipe in the center of the tank gets cooled near the tank surface, which mimics the chilling effect of the poles. Researchers filled the tank with a water-glycerol mixture and recorded how their artificial atmosphere responded at different rotation rates.

    Two different rotating atmospheres, colored by vorticity (red clockwise, blue counterclockwise). The left version has a slower rate of rotation, and thus larger length scales.

    The results show an energy spectrum that’s consistent with atmospheric observations–with a steep drop at large length scales and a flatter one at smaller scales. But interestingly, they also found that the cascade was temperature-dependent in ways that current models don’t predict. Untangling that effect could help us understand not only our atmosphere but those of other planets. (Image credit: tank – H. Scolan, animation – S. Ding et al.; research credit: S. Ding et al.; via APS)

    #atmosphericScience #energyCascade #flowVisualization #fluidDynamics #physics #planetaryScience #rotatingFlow #science #turbulence #vorticity
  25. Recreating Atmospheres

    In planetary atmospheres, energy and vorticity can cascade from large scales to smaller ones, but the mechanics of this transfer remain somewhat elusive. In a recent experiment, researchers built a lab-scale representation of an atmosphere using a meter-scale rotating annular tank. The outer bottom edge of the tank gets heated–representing the sun’s warming at the equator–while a pipe in the center of the tank gets cooled near the tank surface, which mimics the chilling effect of the poles. Researchers filled the tank with a water-glycerol mixture and recorded how their artificial atmosphere responded at different rotation rates.

    Two different rotating atmospheres, colored by vorticity (red clockwise, blue counterclockwise). The left version has a slower rate of rotation, and thus larger length scales.

    The results show an energy spectrum that’s consistent with atmospheric observations–with a steep drop at large length scales and a flatter one at smaller scales. But interestingly, they also found that the cascade was temperature-dependent in ways that current models don’t predict. Untangling that effect could help us understand not only our atmosphere but those of other planets. (Image credit: tank – H. Scolan, animation – S. Ding et al.; research credit: S. Ding et al.; via APS)

    #atmosphericScience #energyCascade #flowVisualization #fluidDynamics #physics #planetaryScience #rotatingFlow #science #turbulence #vorticity
  26. Recreating Atmospheres

    In planetary atmospheres, energy and vorticity can cascade from large scales to smaller ones, but the mechanics of this transfer remain somewhat elusive. In a recent experiment, researchers built a lab-scale representation of an atmosphere using a meter-scale rotating annular tank. The outer bottom edge of the tank gets heated–representing the sun’s warming at the equator–while a pipe in the center of the tank gets cooled near the tank surface, which mimics the chilling effect of the poles. Researchers filled the tank with a water-glycerol mixture and recorded how their artificial atmosphere responded at different rotation rates.

    Two different rotating atmospheres, colored by vorticity (red clockwise, blue counterclockwise). The left version has a slower rate of rotation, and thus larger length scales.

    The results show an energy spectrum that’s consistent with atmospheric observations–with a steep drop at large length scales and a flatter one at smaller scales. But interestingly, they also found that the cascade was temperature-dependent in ways that current models don’t predict. Untangling that effect could help us understand not only our atmosphere but those of other planets. (Image credit: tank – H. Scolan, animation – S. Ding et al.; research credit: S. Ding et al.; via APS)

    #atmosphericScience #energyCascade #flowVisualization #fluidDynamics #physics #planetaryScience #rotatingFlow #science #turbulence #vorticity
  27. Experimental exposure to elevated CO2 demonstrates that understory trees in the Amazon initially increase their carbon uptake and growth, though this long-term capacity is ultimately constrained by soil nutrient availability.
    #TerrestrialEcology #Biogeochemistry #AtmosphericScience #EnvironmentalGeoscience #sflorg
    sflorg.com/2026/04/eco04282601

  28. Experimental exposure to elevated CO2 demonstrates that understory trees in the Amazon initially increase their carbon uptake and growth, though this long-term capacity is ultimately constrained by soil nutrient availability.
    #TerrestrialEcology #Biogeochemistry #AtmosphericScience #EnvironmentalGeoscience #sflorg
    sflorg.com/2026/04/eco04282601

  29. Experimental exposure to elevated CO2 demonstrates that understory trees in the Amazon initially increase their carbon uptake and growth, though this long-term capacity is ultimately constrained by soil nutrient availability.
    #TerrestrialEcology #Biogeochemistry #AtmosphericScience #EnvironmentalGeoscience #sflorg
    sflorg.com/2026/04/eco04282601

  30. Experimental exposure to elevated CO2 demonstrates that understory trees in the Amazon initially increase their carbon uptake and growth, though this long-term capacity is ultimately constrained by soil nutrient availability.
    #TerrestrialEcology #Biogeochemistry #AtmosphericScience #EnvironmentalGeoscience #sflorg
    sflorg.com/2026/04/eco04282601

  31. Experimental exposure to elevated CO2 demonstrates that understory trees in the Amazon initially increase their carbon uptake and growth, though this long-term capacity is ultimately constrained by soil nutrient availability.
    #TerrestrialEcology #Biogeochemistry #AtmosphericScience #EnvironmentalGeoscience #sflorg
    sflorg.com/2026/04/eco04282601

  32. Persistent emissions of ozone-depleting feedstock chemicals, which are currently permitted as industrial raw materials, are projected to delay the complete recovery of the Earth's stratospheric ozone layer by approximately seven years.
    #AtmosphericScience #Climatology #Environmental #sflorg
    sflorg.com/2026/04/as04162602.

  33. Persistent emissions of ozone-depleting feedstock chemicals, which are currently permitted as industrial raw materials, are projected to delay the complete recovery of the Earth's stratospheric ozone layer by approximately seven years.
    #AtmosphericScience #Climatology #Environmental #sflorg
    sflorg.com/2026/04/as04162602.

  34. Persistent emissions of ozone-depleting feedstock chemicals, which are currently permitted as industrial raw materials, are projected to delay the complete recovery of the Earth's stratospheric ozone layer by approximately seven years.
    #AtmosphericScience #Climatology #Environmental #sflorg
    sflorg.com/2026/04/as04162602.

  35. Persistent emissions of ozone-depleting feedstock chemicals, which are currently permitted as industrial raw materials, are projected to delay the complete recovery of the Earth's stratospheric ozone layer by approximately seven years.
    #AtmosphericScience #Climatology #Environmental #sflorg
    sflorg.com/2026/04/as04162602.

  36. Persistent emissions of ozone-depleting feedstock chemicals, which are currently permitted as industrial raw materials, are projected to delay the complete recovery of the Earth's stratospheric ozone layer by approximately seven years.
    #AtmosphericScience #Climatology #Environmental #sflorg
    sflorg.com/2026/04/as04162602.

  37. Corona discharges are miniature pulses of electricity that occur at the highest tips of tree leaves during thunderstorms, generating a faint glow in both the visible and ultraviolet (UV) spectrums.
    #Meteorology #AtmosphericScience #AtmosphericChemistry #sflorg
    sflorg.com/2026/04/as04162601.