#vibration — Public Fediverse posts
Live and recent posts from across the Fediverse tagged #vibration, aggregated by home.social.
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“Thus, in low grades of initiation, dogmatic quarrels are inflamed by astral experience; as when Saint John distinguishes between the Whore BABALON and the Woman clothed with the Sun, between the Lamb that was slain and the Beast 666 whose deadly wound was healed; nor understands that Satan, the Old Serpent, in the Abyss, the Lake of Fire and Sulphur, is the Sun-Father, the vibration of Life, Lord of Infinite Space that flames with His Consuming Energy, and is also that throned Light whose Spirit is suffused throughout the City of Jewels.” https://library.hrmtc.com/2026/05/28/thus-in-low-grades-of-initiation-dogmatic-quarrels-are-inflamed-by-astral-experience-as-when-saint-john-distinguishes-between-the-whore-babalon-and-the-woman-clothed-with-the-sun-between-the-lam/ #666 #aleisterCrowley #astralExperience #babalon #beast #book #book4 #cityOfJewels #clothedWithTheSun #consumingEnergy #deadlyWound #distinguishesBetween #dogmaticQuarrels #flames #healed #inTheAbyss #InfiniteSpace #inflamed #initiation #lamb #liberAba #life #Lord #lowGrades #MagickInTheoryAndPractice #NotesForAnAstralAtlas #oldSerpent #quote #SaintJohn #satan #slain #spirit #suffusedThroughout #sunFather #theLakeOfFireAndSulphur #thronedLight #understands #vibration #whore #woman -
Controlling a Vibrobot with Only One Motor
https://fed.brid.gy/r/https://hackaday.com/2026/05/14/controlling-a-vibrobot-with-only-one-motor/
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Controlling a Vibrobot with Only One Motor
https://fed.brid.gy/r/https://hackaday.com/2026/05/14/controlling-a-vibrobot-with-only-one-motor/
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Can plants hear? Latest research offers new insights
#Science #Rain #Plants #PlantBiology #Botany #MIT #Research #Rice #Sound #Vibration #PlantIntelligence #Nature #Biology #Climate #Agriculture #Discovery #Deafness #PlantCurious #Hear
https://the-14.com/can-plants-hear-latest-research-offers-new-insights/ -
Can plants hear? Latest research offers new insights
#Science #Rain #Plants #PlantBiology #Botany #MIT #Research #Rice #Sound #Vibration #PlantIntelligence #Nature #Biology #Climate #Agriculture #Discovery #Deafness #PlantCurious #Hear
https://the-14.com/can-plants-hear-latest-research-offers-new-insights/ -
Can plants hear? Latest research offers new insights
#Science #Rain #Plants #PlantBiology #Botany #MIT #Research #Rice #Sound #Vibration #PlantIntelligence #Nature #Biology #Climate #Agriculture #Discovery #Deafness #PlantCurious #Hear
https://the-14.com/can-plants-hear-latest-research-offers-new-insights/ -
Can plants hear? Latest research offers new insights
#Science #Rain #Plants #PlantBiology #Botany #MIT #Research #Rice #Sound #Vibration #PlantIntelligence #Nature #Biology #Climate #Agriculture #Discovery #Deafness #PlantCurious #Hear
https://the-14.com/can-plants-hear-latest-research-offers-new-insights/ -
Can plants hear? Latest research offers new insights
#Science #Rain #Plants #PlantBiology #Botany #MIT #Research #Rice #Sound #Vibration #PlantIntelligence #Nature #Biology #Climate #Agriculture #Discovery #Deafness #PlantCurious #Hear
https://the-14.com/can-plants-hear-latest-research-offers-new-insights/ -
Jets From Impact
When a test tube of liquid hits a surface, the curvature of the meniscus focuses the rebounding fluid into a jet. In this video, researchers show some of the many variations they’ve explored on these experiments–from changing the depth of the fluid and the shape of the container, to changing the working fluid to honey or to dry grains. It’s a nice introduction to a fascinating phenomenon! (Video and image credit: H. Watanabe et al.; research credit: H. Watanabe et al. and K. Kobayashi et al.)
Animation showing how granular jets form in a test tube impact. #2025gofm #flowVisualization #fluidDynamics #jets #meniscus #physics #science #vibration #waterImpact -
Jets From Impact
When a test tube of liquid hits a surface, the curvature of the meniscus focuses the rebounding fluid into a jet. In this video, researchers show some of the many variations they’ve explored on these experiments–from changing the depth of the fluid and the shape of the container, to changing the working fluid to honey or to dry grains. It’s a nice introduction to a fascinating phenomenon! (Video and image credit: H. Watanabe et al.; research credit: H. Watanabe et al. and K. Kobayashi et al.)
Animation showing how granular jets form in a test tube impact. #2025gofm #flowVisualization #fluidDynamics #jets #meniscus #physics #science #vibration #waterImpact -
Jets From Impact
When a test tube of liquid hits a surface, the curvature of the meniscus focuses the rebounding fluid into a jet. In this video, researchers show some of the many variations they’ve explored on these experiments–from changing the depth of the fluid and the shape of the container, to changing the working fluid to honey or to dry grains. It’s a nice introduction to a fascinating phenomenon! (Video and image credit: H. Watanabe et al.; research credit: H. Watanabe et al. and K. Kobayashi et al.)
Animation showing how granular jets form in a test tube impact. #2025gofm #flowVisualization #fluidDynamics #jets #meniscus #physics #science #vibration #waterImpact -
Jets From Impact
When a test tube of liquid hits a surface, the curvature of the meniscus focuses the rebounding fluid into a jet. In this video, researchers show some of the many variations they’ve explored on these experiments–from changing the depth of the fluid and the shape of the container, to changing the working fluid to honey or to dry grains. It’s a nice introduction to a fascinating phenomenon! (Video and image credit: H. Watanabe et al.; research credit: H. Watanabe et al. and K. Kobayashi et al.)
Animation showing how granular jets form in a test tube impact. #2025gofm #flowVisualization #fluidDynamics #jets #meniscus #physics #science #vibration #waterImpact -
Jets From Impact
When a test tube of liquid hits a surface, the curvature of the meniscus focuses the rebounding fluid into a jet. In this video, researchers show some of the many variations they’ve explored on these experiments–from changing the depth of the fluid and the shape of the container, to changing the working fluid to honey or to dry grains. It’s a nice introduction to a fascinating phenomenon! (Video and image credit: H. Watanabe et al.; research credit: H. Watanabe et al. and K. Kobayashi et al.)
Animation showing how granular jets form in a test tube impact. #2025gofm #flowVisualization #fluidDynamics #jets #meniscus #physics #science #vibration #waterImpact -
https://www.europesays.com/britain/32425/ Automotive Polymer Parts Market in the United Kingdom | Report – IndexBox #AestheticAndTactileSurfaceFinishes #AutomotiveMarketReport #AutomotivePolymerParts #forecast #GasAssistAndWaterAssistMolding #Harshness)Reduction #InMoldDecorationAndLabeling #LightweightingForFuelEfficiency/EVRange #LongFiberThermoplastic(LFT)Processing #MarketAnalysis #MultiMaterialInjectionMolding #NVH(Noise #ThermalAndChemicalResistanceInEngineBays #UK #UnitedKingdom #Vibration
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https://www.europesays.com/uk/948994/ Automotive Polymer Parts Market in Germany | Report – IndexBox #AestheticAndTactileSurfaceFinishes #AutomotiveMarketReport #AutomotivePolymerParts #EU #Europe #Forecast #GasAssistAndWaterAssistMolding #Germany #Harshness)Reduction #InMoldDecorationAndLabeling #LightweightingForFuelEfficiency/EVRange #LongFiberThermoplastic(LFT)Processing #MarketAnalysis #MultiMaterialInjectionMolding #NVH(Noise #ThermalAndChemicalResistanceInEngineBays #vibration
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Inside an Ear
Our ears, like those of many other animals, convert mechanical signals to electrical ones, through a Rube-Goldberg-esque series of transformations. External sound waves make their way down the soft tube of the ear canal, which funnels them to a thin-walled cone, the eardrum, that’s about half as large as a dime. Here, the vibrating air pushes against the cone’s membrane, and those vibrations travel onward through a linked trio of small bones that amplify the vibration’s amplitude.
The last of these bones presses against an even smaller, oval-shaped membrane. As the bone moves, it shakes the membrane, sending waves through the liquid on its other side. Those waves travel down the spirals of the tiny, pea-sized cochlea, named for a snail shell’s shape. As the waves move through the liquid, they bend bundles of hair-like strands back and forth, like tall grass waving in a breeze. The bending triggers a chemical that binds to nerves at the base of the bundles, sending an electrical signal through the nerve and into the brain.
But the hair-like bundles, known as stereocilia, are also able to amplify incoming vibrations. In this case, the bundles in the outer portion of the cochlea expend energy to bend more than the incoming vibrations naturally make them move. This bending amplifies the fluid motion that gets transmitted to stereocilia further down the line; it’s those bundles that will make the final conversion to an electrical signal the brain receives. (Image credit: B. Kachar; research credit: Y. Thipmaungprom et al.; via APS)
Scanning electron microscope view of the stereocilia “hair bundles” inside a frog’s inner ear. #acoustics #biology #cilia #fluidDynamics #physics #science #vibration -
Inside an Ear
Our ears, like those of many other animals, convert mechanical signals to electrical ones, through a Rube-Goldberg-esque series of transformations. External sound waves make their way down the soft tube of the ear canal, which funnels them to a thin-walled cone, the eardrum, that’s about half as large as a dime. Here, the vibrating air pushes against the cone’s membrane, and those vibrations travel onward through a linked trio of small bones that amplify the vibration’s amplitude.
The last of these bones presses against an even smaller, oval-shaped membrane. As the bone moves, it shakes the membrane, sending waves through the liquid on its other side. Those waves travel down the spirals of the tiny, pea-sized cochlea, named for a snail shell’s shape. As the waves move through the liquid, they bend bundles of hair-like strands back and forth, like tall grass waving in a breeze. The bending triggers a chemical that binds to nerves at the base of the bundles, sending an electrical signal through the nerve and into the brain.
But the hair-like bundles, known as stereocilia, are also able to amplify incoming vibrations. In this case, the bundles in the outer portion of the cochlea expend energy to bend more than the incoming vibrations naturally make them move. This bending amplifies the fluid motion that gets transmitted to stereocilia further down the line; it’s those bundles that will make the final conversion to an electrical signal the brain receives. (Image credit: B. Kachar; research credit: Y. Thipmaungprom et al.; via APS)
Scanning electron microscope view of the stereocilia “hair bundles” inside a frog’s inner ear. #acoustics #biology #cilia #fluidDynamics #physics #science #vibration -
Inside an Ear
Our ears, like those of many other animals, convert mechanical signals to electrical ones, through a Rube-Goldberg-esque series of transformations. External sound waves make their way down the soft tube of the ear canal, which funnels them to a thin-walled cone, the eardrum, that’s about half as large as a dime. Here, the vibrating air pushes against the cone’s membrane, and those vibrations travel onward through a linked trio of small bones that amplify the vibration’s amplitude.
The last of these bones presses against an even smaller, oval-shaped membrane. As the bone moves, it shakes the membrane, sending waves through the liquid on its other side. Those waves travel down the spirals of the tiny, pea-sized cochlea, named for a snail shell’s shape. As the waves move through the liquid, they bend bundles of hair-like strands back and forth, like tall grass waving in a breeze. The bending triggers a chemical that binds to nerves at the base of the bundles, sending an electrical signal through the nerve and into the brain.
But the hair-like bundles, known as stereocilia, are also able to amplify incoming vibrations. In this case, the bundles in the outer portion of the cochlea expend energy to bend more than the incoming vibrations naturally make them move. This bending amplifies the fluid motion that gets transmitted to stereocilia further down the line; it’s those bundles that will make the final conversion to an electrical signal the brain receives. (Image credit: B. Kachar; research credit: Y. Thipmaungprom et al.; via APS)
Scanning electron microscope view of the stereocilia “hair bundles” inside a frog’s inner ear. #acoustics #biology #cilia #fluidDynamics #physics #science #vibration -
Inside an Ear
Our ears, like those of many other animals, convert mechanical signals to electrical ones, through a Rube-Goldberg-esque series of transformations. External sound waves make their way down the soft tube of the ear canal, which funnels them to a thin-walled cone, the eardrum, that’s about half as large as a dime. Here, the vibrating air pushes against the cone’s membrane, and those vibrations travel onward through a linked trio of small bones that amplify the vibration’s amplitude.
The last of these bones presses against an even smaller, oval-shaped membrane. As the bone moves, it shakes the membrane, sending waves through the liquid on its other side. Those waves travel down the spirals of the tiny, pea-sized cochlea, named for a snail shell’s shape. As the waves move through the liquid, they bend bundles of hair-like strands back and forth, like tall grass waving in a breeze. The bending triggers a chemical that binds to nerves at the base of the bundles, sending an electrical signal through the nerve and into the brain.
But the hair-like bundles, known as stereocilia, are also able to amplify incoming vibrations. In this case, the bundles in the outer portion of the cochlea expend energy to bend more than the incoming vibrations naturally make them move. This bending amplifies the fluid motion that gets transmitted to stereocilia further down the line; it’s those bundles that will make the final conversion to an electrical signal the brain receives. (Image credit: B. Kachar; research credit: Y. Thipmaungprom et al.; via APS)
Scanning electron microscope view of the stereocilia “hair bundles” inside a frog’s inner ear. #acoustics #biology #cilia #fluidDynamics #physics #science #vibration -
Inside an Ear
Our ears, like those of many other animals, convert mechanical signals to electrical ones, through a Rube-Goldberg-esque series of transformations. External sound waves make their way down the soft tube of the ear canal, which funnels them to a thin-walled cone, the eardrum, that’s about half as large as a dime. Here, the vibrating air pushes against the cone’s membrane, and those vibrations travel onward through a linked trio of small bones that amplify the vibration’s amplitude.
The last of these bones presses against an even smaller, oval-shaped membrane. As the bone moves, it shakes the membrane, sending waves through the liquid on its other side. Those waves travel down the spirals of the tiny, pea-sized cochlea, named for a snail shell’s shape. As the waves move through the liquid, they bend bundles of hair-like strands back and forth, like tall grass waving in a breeze. The bending triggers a chemical that binds to nerves at the base of the bundles, sending an electrical signal through the nerve and into the brain.
But the hair-like bundles, known as stereocilia, are also able to amplify incoming vibrations. In this case, the bundles in the outer portion of the cochlea expend energy to bend more than the incoming vibrations naturally make them move. This bending amplifies the fluid motion that gets transmitted to stereocilia further down the line; it’s those bundles that will make the final conversion to an electrical signal the brain receives. (Image credit: B. Kachar; research credit: Y. Thipmaungprom et al.; via APS)
Scanning electron microscope view of the stereocilia “hair bundles” inside a frog’s inner ear. #acoustics #biology #cilia #fluidDynamics #physics #science #vibration -
Your brain isn’t just a thinking machine it’s an antenna. E
https://de320.isrefer.com/go/CROWN963FREE/Stuartn/
#energy #consciousness #quantumfield #mindpower #vibration #ThinkandGrowEducation #RayBehan #Meditation #Consciousness -
Your brain isn’t just a thinking machine it’s an antenna. E
https://de320.isrefer.com/go/CROWN963FREE/Stuartn/
#energy #consciousness #quantumfield #mindpower #vibration #ThinkandGrowEducation #RayBehan #Meditation #Consciousness -
Your brain isn’t just a thinking machine it’s an antenna. E
https://de320.isrefer.com/go/CROWN963FREE/Stuartn/
#energy #consciousness #quantumfield #mindpower #vibration #ThinkandGrowEducation #RayBehan #Meditation #Consciousness -
Your brain isn’t just a thinking machine it’s an antenna. E
https://de320.isrefer.com/go/CROWN963FREE/Stuartn/
#energy #consciousness #quantumfield #mindpower #vibration #ThinkandGrowEducation #RayBehan #Meditation #Consciousness -
Your brain isn’t just a thinking machine it’s an antenna. E
https://de320.isrefer.com/go/CROWN963FREE/Stuartn/
#energy #consciousness #quantumfield #mindpower #vibration #ThinkandGrowEducation #RayBehan #Meditation #Consciousness -
Bouncing on a Wave
On a vibrating fluid, droplets can bounce and interact in complex ways. Here, researchers demonstrate some of the peculiar dynamics of these wave-guided droplets, showing how they can do things like pair up in waltzes. To keep the droplets from coalescing with one another, they perform their experiments in a pressurized chamber; the higher air pressure makes it harder for the air film between droplets to drain during a collision, making the droplets unable to coalesce. Under these conditions, the authors show that the droplet-wave system has quantum-like statistics. (Video and image credit: J. Clampett et al.)
#2025gofm #bouncingDroplets #coalescence #droplets #flowVisualization #fluidDynamics #hydrodynamicQuantumAnalogs #physics #pilotWaveHydrodynamics #quantumMechanics #science #vibration -
Bouncing on a Wave
On a vibrating fluid, droplets can bounce and interact in complex ways. Here, researchers demonstrate some of the peculiar dynamics of these wave-guided droplets, showing how they can do things like pair up in waltzes. To keep the droplets from coalescing with one another, they perform their experiments in a pressurized chamber; the higher air pressure makes it harder for the air film between droplets to drain during a collision, making the droplets unable to coalesce. Under these conditions, the authors show that the droplet-wave system has quantum-like statistics. (Video and image credit: J. Clampett et al.)
#2025gofm #bouncingDroplets #coalescence #droplets #flowVisualization #fluidDynamics #hydrodynamicQuantumAnalogs #physics #pilotWaveHydrodynamics #quantumMechanics #science #vibration -
Bouncing on a Wave
On a vibrating fluid, droplets can bounce and interact in complex ways. Here, researchers demonstrate some of the peculiar dynamics of these wave-guided droplets, showing how they can do things like pair up in waltzes. To keep the droplets from coalescing with one another, they perform their experiments in a pressurized chamber; the higher air pressure makes it harder for the air film between droplets to drain during a collision, making the droplets unable to coalesce. Under these conditions, the authors show that the droplet-wave system has quantum-like statistics. (Video and image credit: J. Clampett et al.)
#2025gofm #bouncingDroplets #coalescence #droplets #flowVisualization #fluidDynamics #hydrodynamicQuantumAnalogs #physics #pilotWaveHydrodynamics #quantumMechanics #science #vibration -
Bouncing on a Wave
On a vibrating fluid, droplets can bounce and interact in complex ways. Here, researchers demonstrate some of the peculiar dynamics of these wave-guided droplets, showing how they can do things like pair up in waltzes. To keep the droplets from coalescing with one another, they perform their experiments in a pressurized chamber; the higher air pressure makes it harder for the air film between droplets to drain during a collision, making the droplets unable to coalesce. Under these conditions, the authors show that the droplet-wave system has quantum-like statistics. (Video and image credit: J. Clampett et al.)
#2025gofm #bouncingDroplets #coalescence #droplets #flowVisualization #fluidDynamics #hydrodynamicQuantumAnalogs #physics #pilotWaveHydrodynamics #quantumMechanics #science #vibration -
Bouncing on a Wave
On a vibrating fluid, droplets can bounce and interact in complex ways. Here, researchers demonstrate some of the peculiar dynamics of these wave-guided droplets, showing how they can do things like pair up in waltzes. To keep the droplets from coalescing with one another, they perform their experiments in a pressurized chamber; the higher air pressure makes it harder for the air film between droplets to drain during a collision, making the droplets unable to coalesce. Under these conditions, the authors show that the droplet-wave system has quantum-like statistics. (Video and image credit: J. Clampett et al.)
#2025gofm #bouncingDroplets #coalescence #droplets #flowVisualization #fluidDynamics #hydrodynamicQuantumAnalogs #physics #pilotWaveHydrodynamics #quantumMechanics #science #vibration -
Da sitzt man nichtsahnend auf der Couch und erledigt seinen Job als „Türsteherin im Homeoffice“, als plötzlich die unbestellte Massage losging:
Erst vibriert es an den Füßen, dann am Rücken, schließlich zittern die Wände und das ganze Haus. Nach 6 Sekunden Wellness war es auch schon wieder vorbei. 😁#erdbeben #vibration #wackelkontakt #gänsehaut #Floki_EnjoyTheMoment
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Da sitzt man nichtsahnend auf der Couch und erledigt seinen Job als „Türsteherin im Homeoffice“, als plötzlich die unbestellte Massage losging:
Erst vibriert es an den Füßen, dann am Rücken, schließlich zittern die Wände und das ganze Haus. Nach 6 Sekunden Wellness war es auch schon wieder vorbei. 😁#erdbeben #vibration #wackelkontakt #gänsehaut #Floki_EnjoyTheMoment
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Scrubbing Bubbles
Cleaning produce helps fruits and vegetables last longer and reduces the chances for foodborne illness. But it can be a difficult feat with soft, delicate foods like tomatoes, berries, or greens. Current methods often combine ultrasonic cleaning and chemicals like chlorine. Instead, researchers are looking to boost the cleaning power of bubbles themselves by giving them an acoustic pick-me-up.
Stop-and-go. A bubble slides along an inclined surface in a pronounced stop-and-go motion when vibrated near its frequency for translational resonance.The team combined a bubble-filled bath with sound at low (sub-cavitation) frequencies. They found that driving sound waves at the right frequency could vibrate the bubbles in a way that made them slide in a stop-and-go motion along inclined surfaces. This swaying significantly boosted their cleaning power; getting surfaces 90% cleaner than non-resonating bubbles did. (Image credit: S. Hok/Cornell University; video and research credit: Y. Lin et al.; via Gizmodo)
#acoustics #bubbles #fluidDynamics #physics #resonance #science #shear #vibration -
Scrubbing Bubbles
Cleaning produce helps fruits and vegetables last longer and reduces the chances for foodborne illness. But it can be a difficult feat with soft, delicate foods like tomatoes, berries, or greens. Current methods often combine ultrasonic cleaning and chemicals like chlorine. Instead, researchers are looking to boost the cleaning power of bubbles themselves by giving them an acoustic pick-me-up.
Stop-and-go. A bubble slides along an inclined surface in a pronounced stop-and-go motion when vibrated near its frequency for translational resonance.The team combined a bubble-filled bath with sound at low (sub-cavitation) frequencies. They found that driving sound waves at the right frequency could vibrate the bubbles in a way that made them slide in a stop-and-go motion along inclined surfaces. This swaying significantly boosted their cleaning power; getting surfaces 90% cleaner than non-resonating bubbles did. (Image credit: S. Hok/Cornell University; video and research credit: Y. Lin et al.; via Gizmodo)
#acoustics #bubbles #fluidDynamics #physics #resonance #science #shear #vibration -
Scrubbing Bubbles
Cleaning produce helps fruits and vegetables last longer and reduces the chances for foodborne illness. But it can be a difficult feat with soft, delicate foods like tomatoes, berries, or greens. Current methods often combine ultrasonic cleaning and chemicals like chlorine. Instead, researchers are looking to boost the cleaning power of bubbles themselves by giving them an acoustic pick-me-up.
Stop-and-go. A bubble slides along an inclined surface in a pronounced stop-and-go motion when vibrated near its frequency for translational resonance.The team combined a bubble-filled bath with sound at low (sub-cavitation) frequencies. They found that driving sound waves at the right frequency could vibrate the bubbles in a way that made them slide in a stop-and-go motion along inclined surfaces. This swaying significantly boosted their cleaning power; getting surfaces 90% cleaner than non-resonating bubbles did. (Image credit: S. Hok/Cornell University; video and research credit: Y. Lin et al.; via Gizmodo)
#acoustics #bubbles #fluidDynamics #physics #resonance #science #shear #vibration -
Scrubbing Bubbles
Cleaning produce helps fruits and vegetables last longer and reduces the chances for foodborne illness. But it can be a difficult feat with soft, delicate foods like tomatoes, berries, or greens. Current methods often combine ultrasonic cleaning and chemicals like chlorine. Instead, researchers are looking to boost the cleaning power of bubbles themselves by giving them an acoustic pick-me-up.
Stop-and-go. A bubble slides along an inclined surface in a pronounced stop-and-go motion when vibrated near its frequency for translational resonance.The team combined a bubble-filled bath with sound at low (sub-cavitation) frequencies. They found that driving sound waves at the right frequency could vibrate the bubbles in a way that made them slide in a stop-and-go motion along inclined surfaces. This swaying significantly boosted their cleaning power; getting surfaces 90% cleaner than non-resonating bubbles did. (Image credit: S. Hok/Cornell University; video and research credit: Y. Lin et al.; via Gizmodo)
#acoustics #bubbles #fluidDynamics #physics #resonance #science #shear #vibration -
Scrubbing Bubbles
Cleaning produce helps fruits and vegetables last longer and reduces the chances for foodborne illness. But it can be a difficult feat with soft, delicate foods like tomatoes, berries, or greens. Current methods often combine ultrasonic cleaning and chemicals like chlorine. Instead, researchers are looking to boost the cleaning power of bubbles themselves by giving them an acoustic pick-me-up.
Stop-and-go. A bubble slides along an inclined surface in a pronounced stop-and-go motion when vibrated near its frequency for translational resonance.The team combined a bubble-filled bath with sound at low (sub-cavitation) frequencies. They found that driving sound waves at the right frequency could vibrate the bubbles in a way that made them slide in a stop-and-go motion along inclined surfaces. This swaying significantly boosted their cleaning power; getting surfaces 90% cleaner than non-resonating bubbles did. (Image credit: S. Hok/Cornell University; video and research credit: Y. Lin et al.; via Gizmodo)
#acoustics #bubbles #fluidDynamics #physics #resonance #science #shear #vibration -
"Pas besoin d'attendre que l'orage passe, il faut apprendre à danser sous la pluie..."
"Just singing in the rain
What a glorious feeling
I'm happy again"https://youtu.be/Us-PUIupxE4?si=LGvvx37eyBlKRTeH
#AnarchieEcologieRadicale
#FairePeterLeSysteme
#Liberte
#OuvreLesYeux
#AbreLosOjos
#OpenYourEyes
#AnotherWorld
#OtroMundo
#UnAutreMonde
#Terminator
#SilenceDesMachines
#QuitterInternet
#Orwell
#Matrix
#UnAutreMondeEstEnRoute
#SoñéOtroMundo
#NeverGiveUp
#SingingInTheRain
#Legendes
#Philosophie
#jeuDeMots
#Go
#Vibration -
"Pas besoin d'attendre que l'orage passe, il faut apprendre à danser sous la pluie..."
"Just singing in the rain
What a glorious feeling
I'm happy again"https://youtu.be/Us-PUIupxE4?si=LGvvx37eyBlKRTeH
#AnarchieEcologieRadicale
#FairePeterLeSysteme
#Liberte
#OuvreLesYeux
#AbreLosOjos
#OpenYourEyes
#AnotherWorld
#OtroMundo
#UnAutreMonde
#Terminator
#SilenceDesMachines
#QuitterInternet
#Orwell
#Matrix
#UnAutreMondeEstEnRoute
#SoñéOtroMundo
#NeverGiveUp
#SingingInTheRain
#Legendes
#Philosophie
#jeuDeMots
#Go
#Vibration -
Your vibration is your broadcast.
https://de320.isrefer.com/go/ENHANCED/Stuartn/
#energy #vibration #frequency #lawofattraction #mindbody #consciousliving #ThinkandGrowEducation #RayBehan #Frequencies #Vibrations -
Your vibration is your broadcast.
https://de320.isrefer.com/go/ENHANCED/Stuartn/
#energy #vibration #frequency #lawofattraction #mindbody #consciousliving #ThinkandGrowEducation #RayBehan #Frequencies #Vibrations -
Your vibration is your broadcast.
https://de320.isrefer.com/go/ENHANCED/Stuartn/
#energy #vibration #frequency #lawofattraction #mindbody #consciousliving #ThinkandGrowEducation #RayBehan #Frequencies #Vibrations -
Your vibration is your broadcast.
https://de320.isrefer.com/go/ENHANCED/Stuartn/
#energy #vibration #frequency #lawofattraction #mindbody #consciousliving #ThinkandGrowEducation #RayBehan #Frequencies #Vibrations
