#Fluiddynamics

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#Fluiddynamics Reel by @gaugehow (verified account) - Fluid mechanics is the branch of physics and engineering studying fluids (liquids, gases, plasmas) and the forces on them, divided into fluid statics
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@gaugehow
Fluid mechanics is the branch of physics and engineering studying fluids (liquids, gases, plasmas) and the forces on them, divided into fluid statics (fluids at rest) and fluid dynamics (fluids in motion). Be a useful Mechanical Engineering with GaugeHow (Link in Bio) #fluidmechanics #engineeringstudents #engineeringtech #engineeringlovers #mechanicalengineering
#Fluiddynamics Reel by @mechworlz - Both tanks contain 1000 litres of water, but their geometry is different. Question for fellow engineers: ✓Which tank will empty faster? ✓How does the
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@mechworlz
Both tanks contain 1000 litres of water, but their geometry is different. Question for fellow engineers: ✓Which tank will empty faster? ✓How does the variation in cross-sectional area affect discharge pressure and flow rate? #mechworlz #EngineeringChallenge #FluidDynamics #ChemicalEngineering #ProcessThinking
#Fluiddynamics Reel by @engineering_school_9 - Bernoulli's Principle 🔥 In this video I cover about Bernoulli principle and how it is working. This Theory = Bernoulli's Principle is a fundamenta
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@engineering_school_9
Bernoulli’s Principle 🔥 In this video I cover about Bernoulli principle and how it is working. This Theory = Bernoulli’s Principle is a fundamental concept in fluid dynamics (the study of liquids and gases in motion). In its simplest form, it states that as the speed of a moving fluid increases, the pressure within that fluid decreases.  Imagine air or water moving through a pipe; if the fluid speeds up, it doesn’t push as hard against the sides of the pipe. 1. The Core Concept The principle is essentially a statement of the conservation of energy for flowing fluids. A fluid in motion has three main types of energy that must stay balanced:  1. Kinetic Energy: Energy from its velocity (speed).  2. Potential Energy: Energy from its elevation (height).  3. Internal Pressure Energy: The static pressure of the fluid.  If the speed (kinetic energy) goes up, another form of energy—usually pressure—must go down to keep the total energy constant.  2. The Equation The formal version, known as Bernoulli’s Equation, relates these factors mathematically: #engineering_school_9 #reel #engineering #tech
#Fluiddynamics Reel by @learningthrough_song - Water That Looks Frozen - But Is Still Flowing. ❄️ Some water can look completely frozen - yet it's still flowing. This Short explains the science b
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@learningthrough_song
Water That Looks Frozen — But Is Still Flowing. ❄️ Some water can look completely frozen — yet it’s still flowing. This Short explains the science behind supercooling, viscosity, or ultra-slow flow, and why our eyes can be fooled by physics. 🎶 Learning Through Song — popular science explained simply. #PopularScience #PhysicsExplained #ScienceFacts #HowThingsWork #FluidDynamics LearningThroughSong water that looks frozen but flowing supercooled water explained slow motion water flow fluid dynamics explained laminar flow water physics of water movement science optical illusion supercooled water explained, water looks frozen but flowing, fluid dynamics science, laminar flow explained, physics illusion water, science shorts, learning through song
#Fluiddynamics Reel by @scienceexplored - When a stream of water hits the back of a spoon, it spreads out into a thin, glass-like sheet, but if you place your fingers just beneath it, the wate
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@scienceexplored
When a stream of water hits the back of a spoon, it spreads out into a thin, glass-like sheet, but if you place your fingers just beneath it, the water suddenly splits and flows smoothly along them. This mesmerizing effect is caused by laminar flow, where water moves in smooth layers without turbulence, and surface tension, which makes it cling to your skin. It’s a simple trick, but a perfect example of how fluid dynamics can turn everyday objects into science experiments. This content is shared strictly for educational purposes. DM us for credit/removal. (No copyright intended) #science #knowledge #interesting
#Fluiddynamics Reel by @dontlookback.ai - A classic fluid dynamics demonstration reveals the mesmerizing world of Stokes flow, where colored droplets in corn syrup appear to magically unmix af
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@dontlookback.ai
A classic fluid dynamics demonstration reveals the mesmerizing world of Stokes flow, where colored droplets in corn syrup appear to magically unmix after being blended together. This isn’t an illusion but rather an elegant display of reversible laminar flow physics at work. The secret lies in Stokes flow, an extreme form of laminar flow where viscosity completely dominates and inertia becomes negligible. At very low Reynolds numbers, the governing equations of fluid motion become essentially reversible in time, creating conditions rarely seen in everyday life. In this demonstration, thick corn syrup fills a narrow gap between two cylinders rotating slowly, creating smooth concentric streamlines. As you turn the handle, each colored droplet stretches into a long thin filament that wraps around the cylinder, making the colors appear completely blurred and mixed. But here’s the fascinating part: almost no actual molecular diffusion has occurred during this process. Because the motion is deterministic and time reversible, rotating the cylinder backward causes every fluid element to retrace its exact path. The stretched filaments reassemble back into the original droplets, as if you’re watching the mixing process in reverse. This stands in stark contrast to everyday mixing scenarios like stirring cream into coffee, where turbulent inertia dominated flow scrambles fluid elements irreversibly. No amount of reverse stirring can undo turbulent mixing. This demonstration beautifully illustrates the boundary between reversible and irreversible processes in fluid mechanics, showing how viscosity and flow regimes fundamentally change the behavior of liquids at different scales. ⸻ Don’t forget to Share and Follow @dontlookback.ai ⸻ #engineering #fluiddynamics #science #physicsdemo Reynolds number, laminar flow, viscosity, corn syrup experiment, reversible flow, streamlines, molecular diffusion, turbulent flow, physics demonstration, flow regimes, fluid mechanics, deterministic motion
#Fluiddynamics Reel by @mtishtech_international - Capillary action is when liquids move through narrow spaces 🔬: like water climbing up a thin tube or paper towel soaking up a spill. It's due to adhe
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@mtishtech_international
Capillary action is when liquids move through narrow spaces 🔬: like water climbing up a thin tube or paper towel soaking up a spill. It's due to adhesion and surface tension 💧. #SurfaceTension #CapillaryAction #Viscosity #FluidDynamics #Physics
#Fluiddynamics Reel by @unreal.knowledge - This video showcases a teacher removing a mandarin orange from a full glass of water without spilling, highlighting principles of buoyancy and surface
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@unreal.knowledge
This video showcases a teacher removing a mandarin orange from a full glass of water without spilling, highlighting principles of buoyancy and surface tension. By utilizing the orange's buoyant properties and careful, steady movement, the demonstration illustrates basic fluid dynamics for young learners, similar to a "sink or float" experiment.  1) Science:  The experiment demonstrates that the mandarin orange is less dense than water, causing it to float. The surface tension of the water allows it to hold a shape slightly above the rim, and when the orange is removed carefully, minimal liquid is displaced. 2) The Technique:  Instead of lifting the orange directly, the teacher (or student) often pushes it down slightly before sliding it out, which helps manage the surface tension and prevent overflow. 3) Educational Value: This interactive demonstration captivates children while teaching them about density, volume, and how objects interact with liquids. Follow 👉 @unreal.knowledge Via: @cooltechtipz #physics #science #orange #education #experiment
#Fluiddynamics Reel by @pulsatai - What you're looking at is cavitation inside a piston diaphragm pump, a phenomenon most engineers only hear… but almost never get to see. When pressur
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@pulsatai
What you’re looking at is cavitation inside a piston diaphragm pump, a phenomenon most engineers only hear… but almost never get to see. When pressure inside a pump drops too low, the liquid flashes into vapor, forming tiny bubbles. When pressure rises again, those bubbles collapse violently. That implosion creates microscopic shockwaves strong enough to pit metal, damage valves, destroy seals, and ruin pumps from the inside out. This is one of the biggest hidden enemies in industrial pumping systems, fluid mechanics, hydraulic engineering, chemical processing, and water treatment plants. The clear head on this LEWA pump lets you watch cavitation in real time, something normally invisible during operation. 🎥Credit: @smw_service_und_pumpentechnik 👉 Follow @pulsatai to see engineering and physics most people never get to witness. #fluiddynamics #mechanicalengineering #industrialtech #engineeringfacts #physics
#Fluiddynamics Reel by @sciencexplains - Bernoulli's principle states that: When the speed of a fluid (like air or water) increases, its pressure decreases. In other words: Fast-moving fluid
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@sciencexplains
Bernoulli's principle states that: When the speed of a fluid (like air or water) increases, its pressure decreases. In other words: Fast-moving fluid → lower pressure Slow-moving fluid → higher pressure Example A common example is airplane wings: Air moves faster over the top of the wing. Air moves slower under the wing. The pressure above becomes lower than below. This pressure difference creates lift, allowing the plane to fly. This principle is also used in: Airplanes Perfume spray bottles Carburetors Wind flow over roofs A little history The principle was discovered by Daniel Bernoulli in 1738 in his book Hydrodynamica. He was a Swiss mathematician who studied how fluids behave when they move. Many physics professors explain this law using demonstrations. One famous lecturer is Walter Lewin, known for his energetic physics lectures at Massachusetts Institute of Technology. His classes often include live experiments (like swinging pendulums or airflow demos) to visually show physics principles such as Bernoulli’s law. #BernoullisPrinciple #PhysicsExplained #FluidDynamics #ScienceEducation #WalterLewin
#Fluiddynamics Reel by @physicsexplored - Pouring liquid cleanly is actually controlled by surface tension and fluid flow. When liquid leaves a container, it tends to cling to the surface beca
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@physicsexplored
Pouring liquid cleanly is actually controlled by surface tension and fluid flow. When liquid leaves a container, it tends to cling to the surface because of adhesion and surface tension, which often causes messy drips along the edge. By placing an object like a spoon near the mouth of the bottle, the liquid follows the curved surface instead of spreading along the rim. This guides the flow in a smooth stream and reduces splashing or dripping. It’s a simple example of how physics can control everyday actions like pouring liquids. This content is shared strictly for educational purposes. DM us for credit/removal. (No copyright intended) #Physics #Science #FluidDynamics
#Fluiddynamics Reel by @aidisruptor - When a liquid is vibrated vertically at a specific frequency, something extraordinary happens. Once the vibration exceeds a critical threshold, the f
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@aidisruptor
When a liquid is vibrated vertically at a specific frequency, something extraordinary happens. Once the vibration exceeds a critical threshold, the flat surface becomes unstable and transforms into repeating geometric patterns called "Faraday waves". The waves oscillate at exactly half the driving frequency. You vibrate the container at one speed, but the water responds at half that rate: a phenomenon called parametric resonance. The patterns can take the form of stripes, close-packed hexagons, squares, or even quasiperiodic designs. As you change the frequency or amplitude, the entire pattern shifts and reorganizes into different geometric forms. First described by Michael Faraday in 1831, these waves are still actively studied today, appearing in everything from vibrating wine glasses to alligator mating calls. 🚨 Follow @aidisruptor for the latest in AI and tech innovation. Credit: FollowingOdd896 on Reddit DM for credit/removal (no copyright intended) #fluidmechanics #fluiddynamics #physics #science #wavepatterns

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#Fluiddynamics is one of the most engaging trends on Instagram right now. With over thousands of posts in this category, creators like @mechworlz, @aidisruptor and @dontlookback.ai are leading the way with their viral content. Browse these popular videos anonymously on Pictame.

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