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In microgravity, pure water can sorm a stable, flat sheet stretched across the wire loop, something physically impossible on earth. Gravity normally pulls water downward, causing film to sag, drain and rupture into droplets within seconds.

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Check this out! 👀 Gravity waves can be seen on this satellite loop moving through southeast Canada and the Northeast US, emanating from an MCS in the Midwest. Like a rock dropped into water, strong vertical motions within the storm complex generate ripples in the atmosphere.

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VIDEO | The bell rings and within seconds, classrooms pause as students reach for their water bottles, taking quick sips before the next lesson begins. This is not a regular school bell, it is a "water bell". In classrooms across Delhi, this simple sound has taken on a new meaning, a reminder to stay hydrated as temperatures continue to soar across the national capital. With temperatures crossing 40 degrees Celsius and a yellow alert in place, schools have introduced the "water bell" that rings every 45 to 60 minutes to remind students to drink water and stay hydrated. (Full video available on PTI Videos -

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Elon Musk "All 8 billion people on Earth can fit on one floor in the city of New York. Another way, if you're flying across the country and your goal is to drop a water balloon on someone, you will fail because it's empty."

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This was so fascinating. I had a teflon knitting needle on ishaan and charged it by rubbing with my Russian fur boots. Then I directed water droplets from a syringe towards the charged knitting needle and this is the resulting dynamics. The droplets, due to charge forces, go into a crazy orbit around the knitting needle. If planets were cylindrical this would be the orbit of its moons due to gravity. Canon G1 video camera, Expedition 30, 2012.

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Engineers discover a new class of materials that passively harvest water from air | University of Pennsylvania A serendipitous observation in a Chemical Engineering lab at Penn Engineering has led to a surprising discovery: a new class of nanostructured materials that can pull water from the air, collect it in pores and release it onto surfaces without the need for any external energy. The research, published in Science Advances, was conducted by an interdisciplinary team, including Daeyeon Lee, Russell Pearce and Elizabeth Crimian Heuer Professor in Chemical and Biomolecular Engineering (CBE), Amish Patel, Professor in CBE, Baekmin Kim, a postdoctoral scholar in Lee's lab and first author, and Stefan Guldin, Professor in Complex Soft Matter at the Technical University of Munich. Their work describes a material that could open the door to new ways to collect water from the air in arid regions and devices that cool electronics or buildings using the power of evaporation. "We weren't even trying to collect water," says Lee. "We were working on another project testing the combination of hydrophilic nanopores and hydrophobic polymers when Bharath Venkatesh, a former Ph.D. student in our lab, noticed water droplets appearing on a material we were testing. It didn't make sense. That's when we started asking questions." Those questions led to an in-depth study of a new type of amphiphilic nanoporous material: one that blends water-loving (hydrophilic) and water-repelling (hydrophobic) components in a unique nanoscale structure. The result is a material that both captures moisture from air and simultaneously pushes that moisture out as droplets. Water-Collecting Nanopores When water condenses on surfaces, it usually requires either a drop in temperature or very high humidity levels. Conventional water harvesting methods rely on these principles, often requiring energy input to chill surfaces or a dense fog to form to collect water passively from humid environments. But Lee and Patel's system works differently. Instead of cooling, their material relies on capillary condensation, a process where water vapor condenses inside tiny pores even at lower humidity. This is not new. What is new is that in their system, the water doesn't just stay trapped inside the pores, as it usually does in these types of materials. "In typical nanoporous materials, once the water enters the pores, it stays there," explains Patel. "But in our material, the water moves, first condensing inside the pores, then emerging onto the surface as droplets. That's never been seen before in a system like this, and at first we doubted our observations." A Material That Defies Physics Before they understood what was happening, the researchers first thought that water was simply condensing onto the surface of the material due to an artifact of their experimental setup, such as a temperature gradient in the lab. To rule that out, they increased the thickness of the material to see if the amount of water collected on the surface would change. "If what we were observing was due to surface condensation alone, the thickness of the material wouldn't change the amount of water present," explains Lee. But, the total amount of water collected increased as the film's thickness increased, proving that the water droplets forming on the surface came from inside the material. Even more surprising: the droplets didn't evaporate quickly, as thermodynamics would predict. "According to the curvature and size of the droplets, they should have been evaporating," says Patel. "But they were not; they remained stable for extended periods." With a material that could potentially defy the laws of physics on their hands, Lee and Patel sent their design off to a collaborator to see if their results were replicable. "We study porous films under a wide range of conditions, using subtle changes in light polarization to probe complex nanoscale phenomena," says Guldin. "But we've never seen anything like this. It's absolutely fascinating and will clearly spark new and exciting research." A Stabilized Cycle of Condensation and Release It turns out that they had created a material with just the right balance of water-attracting nanoparticles and water-repelling plastic -- polyethylene -- to create a nanoparticle film with this special property. "We accidentally hit the sweet spot," says Lee. "The droplets are connected to hidden reservoirs in the pores below. These reservoirs are continuously replenished from water vapor in the air, creating a feedback loop made possible by this perfect balance of water-loving and water-repelling materials." A Platform for Passive Water Harvesting and More Beyond the physics-defying behavior, the materials' simplicity is part of what makes them so promising. Made from common polymers and nanoparticles using scalable fabrication methods, these films could be integrated into passive water harvesting devices for arid regions, surfaces for cooling electronics or smart coatings that respond to ambient humidity. "We're still uncovering the mechanisms at play," says Patel. "But the potential is exciting. We're learning from biology -- how cells and proteins manage water in complex environments -- and applying that to design better materials." "This is exactly what Penn does best, bringing together expertise in chemical engineering, materials science, chemistry and biology to solve big problems," adds Lee. The next steps include studying how to optimize the balance of hydrophilic and hydrophobic components, scale the material for real-world use and investigating how to make the collected droplets roll off surfaces efficiently. Ultimately, the researchers hope this discovery will lead to technologies that offer clean water in dry climates or more sustainable cooling methods using only the water vapor already in the air. Read more:

Engineers discover a new class of materials that passively harvest water from air | University of Pennsylvania A serendipitous observation in a Chemical Engineering lab at Penn Engineering has led to a surprising discovery: a new class of nanostructured materials that can pull water from the air, collect it in pores and release it onto surfaces without the need for any external energy. The research, published in Science Advances, was conducted by an interdisciplinary team, including Daeyeon Lee, Russell Pearce and Elizabeth Crimian Heuer Professor in Chemical and Biomolecular Engineering (CBE), Amish Patel, Professor in CBE, Baekmin Kim, a postdoctoral scholar in Lee's lab and first author, and Stefan Guldin, Professor in Complex Soft Matter at the Technical University of Munich. Their work describes a material that could open the door to new ways to collect water from the air in arid regions and devices that cool electronics or buildings using the power of evaporation. "We weren't even trying to collect water," says Lee. "We were working on another project testing the combination of hydrophilic nanopores and hydrophobic polymers when Bharath Venkatesh, a former Ph.D. student in our lab, noticed water droplets appearing on a material we were testing. It didn't make sense. That's when we started asking questions." Those questions led to an in-depth study of a new type of amphiphilic nanoporous material: one that blends water-loving (hydrophilic) and water-repelling (hydrophobic) components in a unique nanoscale structure. The result is a material that both captures moisture from air and simultaneously pushes that moisture out as droplets. Water-Collecting Nanopores When water condenses on surfaces, it usually requires either a drop in temperature or very high humidity levels. Conventional water harvesting methods rely on these principles, often requiring energy input to chill surfaces or a dense fog to form to collect water passively from humid environments. But Lee and Patel's system works differently. Instead of cooling, their material relies on capillary condensation, a process where water vapor condenses inside tiny pores even at lower humidity. This is not new. What is new is that in their system, the water doesn't just stay trapped inside the pores, as it usually does in these types of materials. "In typical nanoporous materials, once the water enters the pores, it stays there," explains Patel. "But in our material, the water moves, first condensing inside the pores, then emerging onto the surface as droplets. That's never been seen before in a system like this, and at first we doubted our observations." A Material That Defies Physics Before they understood what was happening, the researchers first thought that water was simply condensing onto the surface of the material due to an artifact of their experimental setup, such as a temperature gradient in the lab. To rule that out, they increased the thickness of the material to see if the amount of water collected on the surface would change. "If what we were observing was due to surface condensation alone, the thickness of the material wouldn't change the amount of water present," explains Lee. But, the total amount of water collected increased as the film's thickness increased, proving that the water droplets forming on the surface came from inside the material. Even more surprising: the droplets didn't evaporate quickly, as thermodynamics would predict. "According to the curvature and size of the droplets, they should have been evaporating," says Patel. "But they were not; they remained stable for extended periods." With a material that could potentially defy the laws of physics on their hands, Lee and Patel sent their design off to a collaborator to see if their results were replicable. "We study porous films under a wide range of conditions, using subtle changes in light polarization to probe complex nanoscale phenomena," says Guldin. "But we've never seen anything like this. It's absolutely fascinating and will clearly spark new and exciting research." A Stabilized Cycle of Condensation and Release It turns out that they had created a material with just the right balance of water-attracting nanoparticles and water-repelling plastic -- polyethylene -- to create a nanoparticle film with this special property. "We accidentally hit the sweet spot," says Lee. "The droplets are connected to hidden reservoirs in the pores below. These reservoirs are continuously replenished from water vapor in the air, creating a feedback loop made possible by this perfect balance of water-loving and water-repelling materials." A Platform for Passive Water Harvesting and More Beyond the physics-defying behavior, the materials' simplicity is part of what makes them so promising. Made from common polymers and nanoparticles using scalable fabrication methods, these films could be integrated into passive water harvesting devices for arid regions, surfaces for cooling electronics or smart coatings that respond to ambient humidity. "We're still uncovering the mechanisms at play," says Patel. "But the potential is exciting. We're learning from biology -- how cells and proteins manage water in complex environments -- and applying that to design better materials." "This is exactly what Penn does best, bringing together expertise in chemical engineering, materials science, chemistry and biology to solve big problems," adds Lee. The next steps include studying how to optimize the balance of hydrophilic and hydrophobic components, scale the material for real-world use and investigating how to make the collected droplets roll off surfaces efficiently. Ultimately, the researchers hope this discovery will lead to technologies that offer clean water in dry climates or more sustainable cooling methods using only the water vapor already in the air. Read more:

Owen Gregorian

137,919 görüntüleme • 1 yıl önce

Have you ever looked closely at the Amazon River? 🤔 One of the longest river systems on Earth… flowing in a single, consistent direction for over 43 hundred miles. If Earth is a spinning globe, How does water maintain a continuous level path Across curvature, rotation, and changing orientations? Water always seeks equilibrium. So what exactly is it responding to?

Have you ever looked closely at the Amazon River? 🤔 One of the longest river systems on Earth… flowing in a single, consistent direction for over 43 hundred miles. If Earth is a spinning globe, How does water maintain a continuous level path Across curvature, rotation, and changing orientations? Water always seeks equilibrium. So what exactly is it responding to?

vegastar

80,307 görüntüleme • 7 ay önce

Oh, the mystery of the never-ending water flow in the French drain perplexes the woman. Where could all this water possibly be coming from? The enigma deepens as she contemplates the source of this aquatic influx. As she grapples with this watery conundrum, the woman embarks on a quest to unravel the origins of the flowing liquid. Each drop in the drain holds a secret - a tale of its journey before converging in this hidden channel beneath the surface. Armed with curiosity and determination, she delves into the investigation, determined to solve the mystery of the elusive water source. The journey to uncover the truth behind the torrent of water in the French drain begins, unveiling a story waiting to be told.

Oh, the mystery of the never-ending water flow in the French drain perplexes the woman. Where could all this water possibly be coming from? The enigma deepens as she contemplates the source of this aquatic influx. As she grapples with this watery conundrum, the woman embarks on a quest to unravel the origins of the flowing liquid. Each drop in the drain holds a secret - a tale of its journey before converging in this hidden channel beneath the surface. Armed with curiosity and determination, she delves into the investigation, determined to solve the mystery of the elusive water source. The journey to uncover the truth behind the torrent of water in the French drain begins, unveiling a story waiting to be told.

Dr.L

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🚨#BREAKING: Multiple emergency crews are on the scene after a 48-inch water main pipe burst, causing severe flooding that has impacted numerous buildings and cars 📌#Bronx l #NewYork At this time New York emergency services and other agencies are on the scene to a major water main break in the Bronx, causing extensive flooding across several blocks. Streets are submerged, with numerous cars and buildings impacted by the rising water. Train services in the area have also been disrupted, adding to the chaos. Emergency officials have traced the source to a 48-inch main and have begun repair efforts. The break has left some residents without water, while others are experiencing low water pressure. Authorities are urging the public to avoid the affected area or stay indoors for safety while crews work to contain the damage and restore services.

R A W S A L E R T S

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Water has a mind of its own in space. The common memory justifies that if you spill water on Earth, it rushes to hug the Mother Earth and whatever intervening material may be there in between. In space, it refuse to settle. As you see in the video, it forms a neat sphere, the most optimal shape to minimize surface area when gravity is too weak to act against surface tension. Then I use a pencil lead to carefully rotate this blob (A trick I learned on the station). Notice how the shape changes - a cylinder. Under the influence of the rotational forces the neat sphere gives way to the new shape. The environment of microgravity introduces new dynamics between the forces unlike what we see on Earth. Incidentally, this is why our Earth itself is flatter at poles and bulged at equator. The rotation of the Earth causes that. Wait till the end to see what happens to this blob. Space is a great classroom. #shux #space #axiom4 #shubhanshushukla #india

Water has a mind of its own in space. The common memory justifies that if you spill water on Earth, it rushes to hug the Mother Earth and whatever intervening material may be there in between. In space, it refuse to settle. As you see in the video, it forms a neat sphere, the most optimal shape to minimize surface area when gravity is too weak to act against surface tension. Then I use a pencil lead to carefully rotate this blob (A trick I learned on the station). Notice how the shape changes - a cylinder. Under the influence of the rotational forces the neat sphere gives way to the new shape. The environment of microgravity introduces new dynamics between the forces unlike what we see on Earth. Incidentally, this is why our Earth itself is flatter at poles and bulged at equator. The rotation of the Earth causes that. Wait till the end to see what happens to this blob. Space is a great classroom. #shux #space #axiom4 #shubhanshushukla #india

Shubhanshu Shukla

10,504 görüntüleme • 5 ay önce

We know gravity pulls things together in space… but have you ever watched it work in phase space? In this scene we’re looking at a thin probability sheet in (x, v) position-velocity space evolving under its own self-gravity. In the collisionless limit, Liouville’s theorem says the sheet can stretch, fold, and swirl, but it can’t tear and it can’t change area. Any collapse in x is paid for by stretching in v. Numerically this is a 1D cold-dark-matter toy universe: a sheet of particles evolved under the Vlasov-Poisson system. We solve Poisson on a periodic line to get the self-consistent gravitational field, then integrate Hamilton’s equations so the sheet folds into a multi-layer spiral. The glowing filaments are the places the sheet keeps revisiting dense, sharp caustics carved into phase space. Gravity here isn’t stuff falling down. It’s area-preserving origami in (x, v). #Physics #VlasovPoisson #PhaseSpace #Liouville #DarkMatter #HamiltonianFlow #ProbabilityFlow #Mathematics

We know gravity pulls things together in space… but have you ever watched it work in phase space? In this scene we’re looking at a thin probability sheet in (x, v) position-velocity space evolving under its own self-gravity. In the collisionless limit, Liouville’s theorem says the sheet can stretch, fold, and swirl, but it can’t tear and it can’t change area. Any collapse in x is paid for by stretching in v. Numerically this is a 1D cold-dark-matter toy universe: a sheet of particles evolved under the Vlasov-Poisson system. We solve Poisson on a periodic line to get the self-consistent gravitational field, then integrate Hamilton’s equations so the sheet folds into a multi-layer spiral. The glowing filaments are the places the sheet keeps revisiting dense, sharp caustics carved into phase space. Gravity here isn’t stuff falling down. It’s area-preserving origami in (x, v). #Physics #VlasovPoisson #PhaseSpace #Liouville #DarkMatter #HamiltonianFlow #ProbabilityFlow #Mathematics

Mathelirium

16,437 görüntüleme • 5 ay önce

We could watch this all day! 👀 Known as Cucaña, this traditional challenge is held during summer festivals in coastal towns across Spain, including the Valencia region. Participants sprint along a greased pole suspended over the water and try to grab a flag at the end. It sounds easy. It isn’t. Most end up in the water within seconds. 💦😅 Would you give it a try? 🤷🏽‍♂️

We could watch this all day! 👀 Known as Cucaña, this traditional challenge is held during summer festivals in coastal towns across Spain, including the Valencia region. Participants sprint along a greased pole suspended over the water and try to grab a flag at the end. It sounds easy. It isn’t. Most end up in the water within seconds. 💦😅 Would you give it a try? 🤷🏽‍♂️

Rosie Bella

604,545 görüntüleme • 1 ay önce

🚨 NASA IS HIDING A 7-SECOND GRAVITY BLACKOUT ON EARTH - INTERNET ERUPTS A wild claim is ripping through social media after a viral video alleged NASA knows Earth will briefly lose gravity for seven seconds on August 12, 2026 and isn’t telling the public why. The rumor centers on a supposed secret operation dubbed “Project Anchor,” allegedly tied to an $89 BILLION budget, with claims it’s designed to test whether Earth can survive a gravity disruption. No confirmation. No denial. Just silence, and anyone questioning it gets labeled a conspiracy theorist. Theories range from black holes to deep space anomalies and critics say if this is pure nonsense, the details are way too specific to ignore. Seven seconds. One planet. Zero gravity. If this is fake, why does it have a date, a project name, and a budget?

🚨 NASA IS HIDING A 7-SECOND GRAVITY BLACKOUT ON EARTH - INTERNET ERUPTS A wild claim is ripping through social media after a viral video alleged NASA knows Earth will briefly lose gravity for seven seconds on August 12, 2026 and isn’t telling the public why. The rumor centers on a supposed secret operation dubbed “Project Anchor,” allegedly tied to an $89 BILLION budget, with claims it’s designed to test whether Earth can survive a gravity disruption. No confirmation. No denial. Just silence, and anyone questioning it gets labeled a conspiracy theorist. Theories range from black holes to deep space anomalies and critics say if this is pure nonsense, the details are way too specific to ignore. Seven seconds. One planet. Zero gravity. If this is fake, why does it have a date, a project name, and a budget?

HustleBitch

1,881,955 görüntüleme • 6 ay önce

This slake test shows the difference in soil structure between 10 years of tillage (on the left) and 10 years of pasture (on the right). When dropped into water, the chunk of tilled soil quickly breaks apart as water is drawn into unstable pores. On the other hand, the pasture soil has stable aggregates and macropores that maintain their form in the presence of water. Stable soil aggregates and macropores are formed when soil has the right ratio of cations to allow for flocculation, enough biological activity to stick soil particles together with microbial and root exudates, and sufficient organic matter to drive the cycle. While some tilled soils will have the right chemistry to form a healthy structure, routine tillage simply doesn't allow for the biological activity required to maintain the structure. This results in poor nutrient cycling, drastically reduced water-holding capacity, and topsoil erosion. A slake test is a quick and easy way to grade a soil's structure. Video credit: Ranae Dietzel

This slake test shows the difference in soil structure between 10 years of tillage (on the left) and 10 years of pasture (on the right). When dropped into water, the chunk of tilled soil quickly breaks apart as water is drawn into unstable pores. On the other hand, the pasture soil has stable aggregates and macropores that maintain their form in the presence of water. Stable soil aggregates and macropores are formed when soil has the right ratio of cations to allow for flocculation, enough biological activity to stick soil particles together with microbial and root exudates, and sufficient organic matter to drive the cycle. While some tilled soils will have the right chemistry to form a healthy structure, routine tillage simply doesn't allow for the biological activity required to maintain the structure. This results in poor nutrient cycling, drastically reduced water-holding capacity, and topsoil erosion. A slake test is a quick and easy way to grade a soil's structure. Video credit: Ranae Dietzel

Sam Knowlton

141,841 görüntüleme • 2 yıl önce