#turbulence — Public Fediverse posts
Live and recent posts from across the Fediverse tagged #turbulence, aggregated by home.social.
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And #FantasticVoyage lived up to expectations…
It looked fantastic. #Turbulence was mentioned very early on… 🥳 and the sets were so cool.
And there cant be many movies where a plot point is resolved by a dude whipping out a slide-rule?
The only downer was that it was an afternoon movie and the weather was the nicest we’ve had in weeks. 😐
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And #FantasticVoyage lived up to expectations…
It looked fantastic. #Turbulence was mentioned very early on… 🥳 and the sets were so cool.
And there cant be many movies where a plot point is resolved by a dude whipping out a slide-rule?
The only downer was that it was an afternoon movie and the weather was the nicest we’ve had in weeks. 😐
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And #FantasticVoyage lived up to expectations…
It looked fantastic. #Turbulence was mentioned very early on… 🥳 and the sets were so cool.
And there cant be many movies where a plot point is resolved by a dude whipping out a slide-rule?
The only downer was that it was an afternoon movie and the weather was the nicest we’ve had in weeks. 😐
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And #FantasticVoyage lived up to expectations…
It looked fantastic. #Turbulence was mentioned very early on… 🥳 and the sets were so cool.
And there cant be many movies where a plot point is resolved by a dude whipping out a slide-rule?
The only downer was that it was an afternoon movie and the weather was the nicest we’ve had in weeks. 😐
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And #FantasticVoyage lived up to expectations…
It looked fantastic. #Turbulence was mentioned very early on… 🥳 and the sets were so cool.
And there cant be many movies where a plot point is resolved by a dude whipping out a slide-rule?
The only downer was that it was an afternoon movie and the weather was the nicest we’ve had in weeks. 😐
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💁🏻♀️ TIL: 🦅💨 The nankeen #kestrel, a tiny Australian #falcon, flies with exceptional stability in turbulent winds, inspiring one international #research team.
Wind tunnel #experiments showed wing and tail extensions helped #birds maintain lift and reduce #flight irregularities. The team aims to integrate these features into small #drones as #climatechange increases atmospheric #turbulence.
👉 https://www.popsci.com/technology/falcon-aircraft-turbulence/
#biomimicry #nankeekestrel #engineering #robotics #climate #aviation #australia #animals #technology #tech
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💁🏻♀️ TIL: 🦅💨 The nankeen #kestrel, a tiny Australian #falcon, flies with exceptional stability in turbulent winds, inspiring one international #research team.
Wind tunnel #experiments showed wing and tail extensions helped #birds maintain lift and reduce #flight irregularities. The team aims to integrate these features into small #drones as #climatechange increases atmospheric #turbulence.
👉 https://www.popsci.com/technology/falcon-aircraft-turbulence/
#biomimicry #nankeekestrel #engineering #robotics #climate #aviation #australia #animals #technology #tech
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💁🏻♀️ TIL: 🦅💨 The nankeen #kestrel, a tiny Australian #falcon, flies with exceptional stability in turbulent winds, inspiring one international #research team.
Wind tunnel #experiments showed wing and tail extensions helped #birds maintain lift and reduce #flight irregularities. The team aims to integrate these features into small #drones as #climatechange increases atmospheric #turbulence.
👉 https://www.popsci.com/technology/falcon-aircraft-turbulence/
#biomimicry #nankeekestrel #engineering #robotics #climate #aviation #australia #animals #technology #tech
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💁🏻♀️ TIL: 🦅💨 The nankeen #kestrel, a tiny Australian #falcon, flies with exceptional stability in turbulent winds, inspiring one international #research team.
Wind tunnel #experiments showed wing and tail extensions helped #birds maintain lift and reduce #flight irregularities. The team aims to integrate these features into small #drones as #climatechange increases atmospheric #turbulence.
👉 https://www.popsci.com/technology/falcon-aircraft-turbulence/
#biomimicry #nankeekestrel #engineering #robotics #climate #aviation #australia #animals #technology #tech
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💁🏻♀️ TIL: 🦅💨 The nankeen #kestrel, a tiny Australian #falcon, flies with exceptional stability in turbulent winds, inspiring one international #research team.
Wind tunnel #experiments showed wing and tail extensions helped #birds maintain lift and reduce #flight irregularities. The team aims to integrate these features into small #drones as #climatechange increases atmospheric #turbulence.
👉 https://www.popsci.com/technology/falcon-aircraft-turbulence/
#biomimicry #nankeekestrel #engineering #robotics #climate #aviation #australia #animals #technology #tech
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Droplets in dense sprays live much longer than expected. The surrounding vapor saturates locally, delaying evaporation.
What controls the system is not the droplet, but the evolving vapor field.
🔗 https://journals.aps.org/prfluids/abstract/10.1103/ms1r-7jb9
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Droplets in dense sprays live much longer than expected. The surrounding vapor saturates locally, delaying evaporation.
What controls the system is not the droplet, but the evolving vapor field.
🔗 https://journals.aps.org/prfluids/abstract/10.1103/ms1r-7jb9
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Droplets in dense sprays live much longer than expected. The surrounding vapor saturates locally, delaying evaporation.
What controls the system is not the droplet, but the evolving vapor field.
🔗 https://journals.aps.org/prfluids/abstract/10.1103/ms1r-7jb9
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Droplets in dense sprays live much longer than expected. The surrounding vapor saturates locally, delaying evaporation.
What controls the system is not the droplet, but the evolving vapor field.
🔗 https://journals.aps.org/prfluids/abstract/10.1103/ms1r-7jb9
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Droplets in dense sprays live much longer than expected. The surrounding vapor saturates locally, delaying evaporation.
What controls the system is not the droplet, but the evolving vapor field.
🔗 https://journals.aps.org/prfluids/abstract/10.1103/ms1r-7jb9
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“Inferno”
Nothing showcases the incredible power of our atmosphere like storms, and no one does stormchase photography like Mike Olbinski. In this vignette, he shows a stunning line of supercells caught near sunset on July 17, 2022. The high shear–combined with the setting sun–put on an incredible show. Dust blown up in a haboob, microbursts and downpours in the distance, and lots of churning, roiling turbulence. (Video and image credit: M. Olbinski)
#convection #fluidDynamics #fluidsAsArt #haboob #microburst #physics #science #supercell #thunderstorm #turbulence -
“Inferno”
Nothing showcases the incredible power of our atmosphere like storms, and no one does stormchase photography like Mike Olbinski. In this vignette, he shows a stunning line of supercells caught near sunset on July 17, 2022. The high shear–combined with the setting sun–put on an incredible show. Dust blown up in a haboob, microbursts and downpours in the distance, and lots of churning, roiling turbulence. (Video and image credit: M. Olbinski)
#convection #fluidDynamics #fluidsAsArt #haboob #microburst #physics #science #supercell #thunderstorm #turbulence -
“Inferno”
Nothing showcases the incredible power of our atmosphere like storms, and no one does stormchase photography like Mike Olbinski. In this vignette, he shows a stunning line of supercells caught near sunset on July 17, 2022. The high shear–combined with the setting sun–put on an incredible show. Dust blown up in a haboob, microbursts and downpours in the distance, and lots of churning, roiling turbulence. (Video and image credit: M. Olbinski)
#convection #fluidDynamics #fluidsAsArt #haboob #microburst #physics #science #supercell #thunderstorm #turbulence -
“Inferno”
Nothing showcases the incredible power of our atmosphere like storms, and no one does stormchase photography like Mike Olbinski. In this vignette, he shows a stunning line of supercells caught near sunset on July 17, 2022. The high shear–combined with the setting sun–put on an incredible show. Dust blown up in a haboob, microbursts and downpours in the distance, and lots of churning, roiling turbulence. (Video and image credit: M. Olbinski)
#convection #fluidDynamics #fluidsAsArt #haboob #microburst #physics #science #supercell #thunderstorm #turbulence -
“Inferno”
Nothing showcases the incredible power of our atmosphere like storms, and no one does stormchase photography like Mike Olbinski. In this vignette, he shows a stunning line of supercells caught near sunset on July 17, 2022. The high shear–combined with the setting sun–put on an incredible show. Dust blown up in a haboob, microbursts and downpours in the distance, and lots of churning, roiling turbulence. (Video and image credit: M. Olbinski)
#convection #fluidDynamics #fluidsAsArt #haboob #microburst #physics #science #supercell #thunderstorm #turbulence -
From coffee-like swirls to atmospheric chaos, a data-driven model reproduces turbulent particle motion across scales using auto-regressive learning with memory effects.
https://phys.org/news/2026-05-driven-captures-dynamics-turbulence-scale.html
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From coffee-like swirls to atmospheric chaos, a data-driven model reproduces turbulent particle motion across scales using auto-regressive learning with memory effects.
https://phys.org/news/2026-05-driven-captures-dynamics-turbulence-scale.html
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From coffee-like swirls to atmospheric chaos, a data-driven model reproduces turbulent particle motion across scales using auto-regressive learning with memory effects.
https://phys.org/news/2026-05-driven-captures-dynamics-turbulence-scale.html
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From coffee-like swirls to atmospheric chaos, a data-driven model reproduces turbulent particle motion across scales using auto-regressive learning with memory effects.
https://phys.org/news/2026-05-driven-captures-dynamics-turbulence-scale.html
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From coffee-like swirls to atmospheric chaos, a data-driven model reproduces turbulent particle motion across scales using auto-regressive learning with memory effects.
https://phys.org/news/2026-05-driven-captures-dynamics-turbulence-scale.html
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Experiment Probes Particle Influence on Turbulent Streams
ISS experiment reveals how tiny particles change turbulent fluid flows, impacting weather and engine design. Read the findings.
#ISSexperiment, #FluidDynamics, #Turbulence, #SpaceScience, #ParticleFlow
https://newsletter.tf/iss-particle-influence-turbulent-fluid-flows/
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Scientists on the ISS found that small particles significantly change how turbulent fluids move. This is different from what we usually see on Earth.
#ISSexperiment, #FluidDynamics, #Turbulence, #SpaceScience, #ParticleFlow
https://newsletter.tf/iss-particle-influence-turbulent-fluid-flows/ -
On Dolphin Turbulence
Dolphins are such fast and agile swimmers that, naturally, scientists have long wanted to understand how they swim so well. A recent study draws on numerical simulation to analyze the flow a dolphin creates when flapping its tail.
The resulting flow is highly turbulent–researchers were only able to simulate up to a fraction of a dolphin’s actual Reynolds number–with both large-scale vortices and a cascade of smaller ones. The largest vortices, shown here in white, form on the upper and lower surface of the dolphin’s tail, then slide off the tail in a vortex ring. It’s these vortex rings, the researchers found, that provide the bulk of a dolphin’s thrust.
The smaller-scale vortices, in contrast, get formed by the large vortices, and they make little to no contribution to the dolphin’s propulsion. Interestingly, these results suggest that we might be able to describe the propulsion of dolphins and other highly turbulent swimmers by focusing only on the largest scales in the flow. (Video, image, and research credit: Y. Motoori et al.; via Ars Technica)
Animation of the simulated flow from a swimming dolphin. #biology #CFD #computationalFluidDynamics #dolphins #fluidDynamics #numericalSimulation #physics #propulsion #science #swimming #turbulence -
On Dolphin Turbulence
Dolphins are such fast and agile swimmers that, naturally, scientists have long wanted to understand how they swim so well. A recent study draws on numerical simulation to analyze the flow a dolphin creates when flapping its tail.
The resulting flow is highly turbulent–researchers were only able to simulate up to a fraction of a dolphin’s actual Reynolds number–with both large-scale vortices and a cascade of smaller ones. The largest vortices, shown here in white, form on the upper and lower surface of the dolphin’s tail, then slide off the tail in a vortex ring. It’s these vortex rings, the researchers found, that provide the bulk of a dolphin’s thrust.
The smaller-scale vortices, in contrast, get formed by the large vortices, and they make little to no contribution to the dolphin’s propulsion. Interestingly, these results suggest that we might be able to describe the propulsion of dolphins and other highly turbulent swimmers by focusing only on the largest scales in the flow. (Video, image, and research credit: Y. Motoori et al.; via Ars Technica)
Animation of the simulated flow from a swimming dolphin. #biology #CFD #computationalFluidDynamics #dolphins #fluidDynamics #numericalSimulation #physics #propulsion #science #swimming #turbulence -
On Dolphin Turbulence
Dolphins are such fast and agile swimmers that, naturally, scientists have long wanted to understand how they swim so well. A recent study draws on numerical simulation to analyze the flow a dolphin creates when flapping its tail.
The resulting flow is highly turbulent–researchers were only able to simulate up to a fraction of a dolphin’s actual Reynolds number–with both large-scale vortices and a cascade of smaller ones. The largest vortices, shown here in white, form on the upper and lower surface of the dolphin’s tail, then slide off the tail in a vortex ring. It’s these vortex rings, the researchers found, that provide the bulk of a dolphin’s thrust.
The smaller-scale vortices, in contrast, get formed by the large vortices, and they make little to no contribution to the dolphin’s propulsion. Interestingly, these results suggest that we might be able to describe the propulsion of dolphins and other highly turbulent swimmers by focusing only on the largest scales in the flow. (Video, image, and research credit: Y. Motoori et al.; via Ars Technica)
Animation of the simulated flow from a swimming dolphin. #biology #CFD #computationalFluidDynamics #dolphins #fluidDynamics #numericalSimulation #physics #propulsion #science #swimming #turbulence -
On Dolphin Turbulence
Dolphins are such fast and agile swimmers that, naturally, scientists have long wanted to understand how they swim so well. A recent study draws on numerical simulation to analyze the flow a dolphin creates when flapping its tail.
The resulting flow is highly turbulent–researchers were only able to simulate up to a fraction of a dolphin’s actual Reynolds number–with both large-scale vortices and a cascade of smaller ones. The largest vortices, shown here in white, form on the upper and lower surface of the dolphin’s tail, then slide off the tail in a vortex ring. It’s these vortex rings, the researchers found, that provide the bulk of a dolphin’s thrust.
The smaller-scale vortices, in contrast, get formed by the large vortices, and they make little to no contribution to the dolphin’s propulsion. Interestingly, these results suggest that we might be able to describe the propulsion of dolphins and other highly turbulent swimmers by focusing only on the largest scales in the flow. (Video, image, and research credit: Y. Motoori et al.; via Ars Technica)
Animation of the simulated flow from a swimming dolphin. #biology #CFD #computationalFluidDynamics #dolphins #fluidDynamics #numericalSimulation #physics #propulsion #science #swimming #turbulence -
On Dolphin Turbulence
Dolphins are such fast and agile swimmers that, naturally, scientists have long wanted to understand how they swim so well. A recent study draws on numerical simulation to analyze the flow a dolphin creates when flapping its tail.
The resulting flow is highly turbulent–researchers were only able to simulate up to a fraction of a dolphin’s actual Reynolds number–with both large-scale vortices and a cascade of smaller ones. The largest vortices, shown here in white, form on the upper and lower surface of the dolphin’s tail, then slide off the tail in a vortex ring. It’s these vortex rings, the researchers found, that provide the bulk of a dolphin’s thrust.
The smaller-scale vortices, in contrast, get formed by the large vortices, and they make little to no contribution to the dolphin’s propulsion. Interestingly, these results suggest that we might be able to describe the propulsion of dolphins and other highly turbulent swimmers by focusing only on the largest scales in the flow. (Video, image, and research credit: Y. Motoori et al.; via Ars Technica)
Animation of the simulated flow from a swimming dolphin. #biology #CFD #computationalFluidDynamics #dolphins #fluidDynamics #numericalSimulation #physics #propulsion #science #swimming #turbulence -
What does turbulence look like in a quantum fluid?
Researchers are exploring how Bose–Einstein condensates shift from weak to strong turbulence, revealing how energy cascades behave when quantum mechanics takes over.
🔗 https://physicsworld.com/a/what-happens-when-a-bose-einstein-condensate-becomes-turbulent/
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What does turbulence look like in a quantum fluid?
Researchers are exploring how Bose–Einstein condensates shift from weak to strong turbulence, revealing how energy cascades behave when quantum mechanics takes over.
🔗 https://physicsworld.com/a/what-happens-when-a-bose-einstein-condensate-becomes-turbulent/
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What does turbulence look like in a quantum fluid?
Researchers are exploring how Bose–Einstein condensates shift from weak to strong turbulence, revealing how energy cascades behave when quantum mechanics takes over.
🔗 https://physicsworld.com/a/what-happens-when-a-bose-einstein-condensate-becomes-turbulent/
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What does turbulence look like in a quantum fluid?
Researchers are exploring how Bose–Einstein condensates shift from weak to strong turbulence, revealing how energy cascades behave when quantum mechanics takes over.
🔗 https://physicsworld.com/a/what-happens-when-a-bose-einstein-condensate-becomes-turbulent/
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What does turbulence look like in a quantum fluid?
Researchers are exploring how Bose–Einstein condensates shift from weak to strong turbulence, revealing how energy cascades behave when quantum mechanics takes over.
🔗 https://physicsworld.com/a/what-happens-when-a-bose-einstein-condensate-becomes-turbulent/
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Continuous injection and advection of Lagrangian passive tracers into a grid MHD cosmological (ENZO) simulation, to track where matter goes as function of time. Still testing stuff with my @julialang code run in post-processing over many saved snapshots. Complex flow and baryons circulation patters even under just the "simple" effect of gravity and fluid-dynamics.
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Continuous injection and advection of Lagrangian passive tracers into a grid MHD cosmological (ENZO) simulation, to track where matter goes as function of time. Still testing stuff with my @julialang code run in post-processing over many saved snapshots. Complex flow and baryons circulation patters even under just the "simple" effect of gravity and fluid-dynamics.
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Continuous injection and advection of Lagrangian passive tracers into a grid MHD cosmological (ENZO) simulation, to track where matter goes as function of time. Still testing stuff with my @julialang code run in post-processing over many saved snapshots. Complex flow and baryons circulation patters even under just the "simple" effect of gravity and fluid-dynamics.
-
Continuous injection and advection of Lagrangian passive tracers into a grid MHD cosmological (ENZO) simulation, to track where matter goes as function of time. Still testing stuff with my @julialang code run in post-processing over many saved snapshots. Complex flow and baryons circulation patters even under just the "simple" effect of gravity and fluid-dynamics.
-
Continuous injection and advection of Lagrangian passive tracers into a grid MHD cosmological (ENZO) simulation, to track where matter goes as function of time. Still testing stuff with my @julialang code run in post-processing over many saved snapshots. Complex flow and baryons circulation patters even under just the "simple" effect of gravity and fluid-dynamics.
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https://www.europesays.com/si/112523/ Drama nad Sarajevom: Airbus A380 povzročil hude težave manjšemu letalu, pet ranjenih #AirbusA320 #AirbusA380 #Business #Economic #Emirates #LetalskeNesreče #Poslovni #PoslovniSvet #SI #Slovene #Slovenia #Slovenija #Slovenščina #turbulence #ZračniVrtinci
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Wake Turbulence From Passing Emirates A380 Superjumbo Leaves Five People Injured On Smaller Eurowings Plane
Wake turbulence from a massive Emirates Airbus A380 superjumbo injured four people on a Eurowings plane that was…
#France #FR #Europe #EU #Airbus #a380 #airline #Emirates #eurowings #superjumbo #turbulence
https://www.europesays.com/france/28951/ -
Screams amid ‘drop tower’ turbulence on Cathay Pacific flight from Brisbane, 10 injured
Ten passengers and crew members were injured when a Cathay Pacific Airways flight from Brisbane to Hong Kong…
#NewsBeep #News #Business #AirportAuthority #AU #Australia #Brisbane #CathayPacific #CX #HongKong #NorthLantauHospital #saturday #Socialmedia #turbulence
https://www.newsbeep.com/au/689330/ -
Screams amid ‘drop tower’ turbulence on Cathay Pacific flight from Brisbane, 10 injured
Ten passengers and crew members were injured when a Cathay Pacific Airways flight from Brisbane to Hong Kong…
#NewsBeep #News #Business #AirportAuthority #AU #Australia #Brisbane #CathayPacific #CX #HongKong #NorthLantauHospital #saturday #Socialmedia #turbulence
https://www.newsbeep.com/au/689330/ -
Final report reveals #truth behind deadly #SingaporeAirlines flight SQ321 #turbulence
" #SIA said tt across 29,000 #Boeing777 flights btw May 2023 & July 2025, 12 cases of under-detection, 4 cases of overdetection & 20 cases of not detecting inclement weather were logged. Te SQ321 aircraft accounted for 1 of te non-detection cases & 2 of te under-detection cases. When te #aircraft was flown back to🇸🇬 fr BKK aft te incident, indicat'ns of under-detection also occurred"🧐 1/2
https://www.scmp.com/news/asia/southeast-asia/article/3354218/final-report-reveals-truth-behind-deadly-singapore-airlines-flight-sq321-turbulence?utm_source=rss_feed -
Final report reveals #truth behind deadly #SingaporeAirlines flight SQ321 #turbulence
" #SIA said tt across 29,000 #Boeing777 flights btw May 2023 & July 2025, 12 cases of under-detection, 4 cases of overdetection & 20 cases of not detecting inclement weather were logged. Te SQ321 aircraft accounted for 1 of te non-detection cases & 2 of te under-detection cases. When te #aircraft was flown back to🇸🇬 fr BKK aft te incident, indicat'ns of under-detection also occurred"🧐 1/2
https://www.scmp.com/news/asia/southeast-asia/article/3354218/final-report-reveals-truth-behind-deadly-singapore-airlines-flight-sq321-turbulence?utm_source=rss_feed -
Final report reveals #truth behind deadly #SingaporeAirlines flight SQ321 #turbulence
" #SIA said tt across 29,000 #Boeing777 flights btw May 2023 & July 2025, 12 cases of under-detection, 4 cases of overdetection & 20 cases of not detecting inclement weather were logged. Te SQ321 aircraft accounted for 1 of te non-detection cases & 2 of te under-detection cases. When te #aircraft was flown back to🇸🇬 fr BKK aft te incident, indicat'ns of under-detection also occurred"🧐 1/2
https://www.scmp.com/news/asia/southeast-asia/article/3354218/final-report-reveals-truth-behind-deadly-singapore-airlines-flight-sq321-turbulence?utm_source=rss_feed -
Final report reveals #truth behind deadly #SingaporeAirlines flight SQ321 #turbulence
" #SIA said tt across 29,000 #Boeing777 flights btw May 2023 & July 2025, 12 cases of under-detection, 4 cases of overdetection & 20 cases of not detecting inclement weather were logged. Te SQ321 aircraft accounted for 1 of te non-detection cases & 2 of te under-detection cases. When te #aircraft was flown back to🇸🇬 fr BKK aft te incident, indicat'ns of under-detection also occurred"🧐 1/2
https://www.scmp.com/news/asia/southeast-asia/article/3354218/final-report-reveals-truth-behind-deadly-singapore-airlines-flight-sq321-turbulence?utm_source=rss_feed