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Hoi! Bedank hoor. Waar kan ik barasol vinden? Mvg

Explanation of Operation of a Pump-less Suction System Operation: In this system, water suction is achieved solely by the hydrostatic pressure exerted by the weight of the water in the container. The pressure at the bottom of the container (P_tank) is greater than the pressure in the tube (P_tube) due to the elevation difference. The pressure difference (ΔP = P_tank - P_tube) pushes the water up the tube, creating flow. Compared to a system with a pump: - Advantages: - Simplicity: No pump is required, reducing cost and complexity. - Reliability: Fewer moving parts, reducing the risk of failure. - Low operating cost: No energy is required for operation. - Disadvantages: - Lower flow rate: The flow rate is limited by hydrostatic pressure, so it may be slow. - Limited lifting height: The maximum elevation difference that can be pumped is limited by hydrostatic pressure. - Dependence on slope: Operation relies on the slope of the terrain, making it unsuitable for horizontal installations. Applications: This system can be useful in situations where simplicity, reliability, and low operating cost are more important than flow rate. - Agriculture: For irrigating fields on slopes with low water demand. - Hydraulic works: For supplying small tanks or reservoirs at low elevations. - Education: For demonstrating principles of hydrostatics and fluid flow. In summary: Implementing a pump-less water suction system is feasible, but requires careful design, considering limitations in flow rate, lifting height, and dependence on slope.

Explanation of Operation of a Pump-less Suction System Operation: In this system, water suction is achieved solely by the hydrostatic pressure exerted by the weight of the water in the container. The pressure at the bottom of the container (P_tank) is greater than the pressure in the tube (P_tube) due to the elevation difference. The pressure difference (ΔP = P_tank - P_tube) pushes the water up the tube, creating flow. Compared to a system with a pump: - Advantages: - Simplicity: No pump is required, reducing cost and complexity. - Reliability: Fewer moving parts, reducing the risk of failure. - Low operating cost: No energy is required for operation. - Disadvantages: - Lower flow rate: The flow rate is limited by hydrostatic pressure, so it may be slow. - Limited lifting height: The maximum elevation difference that can be pumped is limited by hydrostatic pressure. - Dependence on slope: Operation relies on the slope of the terrain, making it unsuitable for horizontal installations. Applications: This system can be useful in situations where simplicity, reliability, and low operating cost are more important than flow rate. - Agriculture: For irrigating fields on slopes with low water demand. - Hydraulic works: For supplying small tanks or reservoirs at low elevations. - Education: For demonstrating principles of hydrostatics and fluid flow. In summary: Implementing a pump-less water suction system is feasible, but requires careful design, considering limitations in flow rate, lifting height, and dependence on slope.

Calculation of Water Suction in a Closed Container - The container is closed: Atmospheric pressure no longer affects the interior of the container. Calculation of pressure inside the container: - The pressure (P_tank) inside the container is determined by the hydrostatic pressure of the water in the container. - P_tank = ρgh, where: - ρ = 1000 kg/m³ - g = 9.81 m/s² - h = 0.8 meters (height of water in the container) - P_tank = 1000 kg/m³ * 9.81 m/s² * 0.8 m = 7848 Pa Calculation of pressure in the tube: - The pressure (P_tube) in the tube must be less than P_tank to create suction. - For simplicity, we assume that friction losses are negligible and the velocity of the flowing water is constant. - P_tube = P_tank - ρgh, where h = 1.5 meters (length of the tube) - P_tube = 7848 Pa - 1000 kg/m³ * 9.81 m/s² * 1.5 m = -5984 Pa Conclusion: - The P_tube (-5984 Pa) is negative, which means there is a vacuum in the tube. - Therefore, water suction from the system is feasible. Notes: - In this case, suction is solely due to the hydrostatic pressure of the water in the container. - The absence of atmospheric pressure in the container allows for the creation of a vacuum in the tube, reducing the internal pressure and enabling the flow of water. - The velocity of the flowing water and the volume of water suctioned per second can be calculated using the same formulas used previously, replacing Patm with P_tank. Additional observations: - The presence of friction losses in the tube will reduce P_tube and therefore the velocity of the flowing water. - Changing the height of the water in the container will affect P_tank and consequently P_tube. - The temperature of the water can also affect its density and thus the hydrostatic pressure. Overall, water suction in a closed container is feasible, but the velocity of the flowing water and the volume suctioned depend on various factors

Cool idea, however I guess this is only working if its a muddy soil without any rocks or igneous formations. Where I live its basically only igneous formations mixed with rocks.

The white bucket has to be airtight

I tried drilling with this method but had no success 😢. My setup is 1inch pipes with the air inlet at the drill head about 35cm from the bottom. My issue that I'm having is that instead of the air pumping out it seems to be venting from below and having the water bubble around my drill but. I'm using a shop compressor and inputting the air with a airblow gun attachment. My drilling fluid is using bentonite. Any advice would be appreciated

arkadaşlarım ile bu yüzden tartıştık lan . olmaz diyorum bizim burda var diyorlar . fiziken imkansız diyorum fizik bilmeden konuşuyorsun diyorlar lan ben sayısal mezunuyum sen sözel diyorum yok abi anlatamıyorum ya

Do you ever use your wells for geothermal heating and cooling systems?

I would call this kind of pump a syphon with vacuum assist. with a larger tank it will indeed suck additional water into the tank but the tank will eventually empty to a point where the vacuum is not strong enough to raise the water needed to keep the tank full. Its a flow extender rather than a free water pump. but never the less a good idea as raising water in buckets is hard work.

This guy is a genius!

You did not put a foot valve at the point of suction !

Thats awesome everyone comes together ❤️ I would like to dig a handpump but I live in New England I can dig a 4ft hole in the ground 1 foot round and have 50 big stones in a pile..

seperti orang orang yang sedang dipenjara yang dijadikan pekerja.

300 ft= 91 meter

Great job!! Cheers

Tnx❤❤❤❤❤

Your first design was flawed, it could work if you change your design.

Guys a fkn genius

I Drill with Vacuum trucks in Florida. The Ground Changes from water at 6ft-rock or sand at 30ft

While watching your demonstration is a leak pressure I hope no vacum is created, I have not tested yet but I have watch a lot of free energy I understand the mechanism how it work, the suction inlet pipe need to retain water hence no air remained inside the pipe before the outlet knob is open, When filling the drum full of water and afterward when outlet pipe knob is open the filled water flow out hence creating strong vacum pressure, hence suck water from the inlet suction pipe. # nteresting point when suction pipe retain no water the mechanism fail badly.

Amazing my friend, do you have any video where you make the head ?

கீழ் மட்டத்தில் உள்ள தொட்டியிலிருந்து பத்து அடி உயரம் கொண்டு செல்லும் போது மொத்த உயரத்தின் அளவை விட மூன்று நான்கு பங்கு நீளம் உள்ள ஹோஸ் கொண்டு நீரை இறைத்திடலாம்.

that is great look simple but great . I will try it in my village in africa

the top of the upper bucket has to be sealed and the input pipe must be "primed" or filled with water.

perhaps a tesla valve on the outlet? if there is a check valve or one way valve perhaps this could work, air enters the outlet making even pressure, if it cant let air back in a low pressure in the bucket could create suction.

Thanks for this. This has made it easier to understand how all drilling works at the mines. Lots of videos overcomplicating something so straightforward

Would this method work on an existing well that has sediment build up?

*Tremendous* ... _it can be done!_ 🙂

if don"t know science you should not poke your nose into it.

Nice!

This would never work!!!

genius !!! can you show how to pump out the water after borehole is ready?

Use smaller pipe!

just wondering - what happens if you hit a rock? anything bigger than a golf ball is gunna ruin the whole dig.

you're doing it wrong. make sure do it in perfect Vacuum no Air or leaked. And add pressure tank in the top and make it upto -100 or minimum of -10 PSI and you will get the negative Pump that will like a Hammer pump.

You have the gifted ideas 💡 brother of all 😊,,, can you send me the photos of all the materials you used in your project.

I want to try this to water my garden or to provide some water if we lose our water. But I am curious. Your metal tubes and drill bit seemed narrower than your grey PVC pipe. How did it so easily go in the hole? And where did you get the long sock like filter to go over that pipe? Also, what if you hit rock? I’m in New England.

nice one bro!

👍

Is it possible your build is air locked?

Amazing bro!!!

Big-Borehole doesnt want you to find this video.

that when the drill is working and the water is flowing in the pipe, the water does not leak out

Hello. How I can make the cross section of the water pipe and the rotating part attached to the drill

The springs solve the ram pump noise problem.

Excellent idea and well thought out. 👍

works like a septic tank"

very benifit method for poor people

Thank you very much, I'm watching from Papua New Guinea.