Abstract: 8. Abstract In this method of invention water is lifted from any bore wells or closed wells with the help of specially designed cylindrical systems based on mechanical advantage principles. Pneumatic controlled air compressors will be placed over positive displacement machines to lift the water. The quantity of water lifted in each stroke will depend on the volume of the vessel and the water available in the bore well. This system is named as "Samhitha Robotic pumping system" which can be operated manually avoiding any electricity or fuel consumption
1. Title of Invention
Closed well or Bore well water pumping systems without consuming electricity or fuel.
2. Applicant
Name : EESAVYASA TECHONOLOGIES PVT. LTD
Nationality : INDIAN
Address : R&D centre, Plot No: 79, Phase - III, Balanagar, Hyderabad, R.R. District, Andhra Pradesh, Pin - 500037, INDIA.
3. Preamble to the description:
Complete Specification:
Summary:
This invention describes the mechanical advantage systems used in underground fluid pumping system and it is driven by compressed air engine or effluent gases emitted by any device like diesel generator set, boiler etc. There are mainly 3 types of mechanical advantage systems.
Positive displacement system
• This pumping method will have positive displacement systems like piston or plunger or any other similar devices and cylinder with 4 NRV's (Non returning valves) both for inlet and outlet of water at different positions on cylinder.
• Positive displacement systems will have the movement with the screw rod attached to driven gear and the driving gear will be the compressed air engine.
• Two NRV's, which are for outlet, will be located at one side of the cylinder top & bottom. For inlet, one NRV will be to the base of the cylinder and another at the top side opposite to the outlet NRV.
• Inlet NRV's will be connected to a pipe and this pipe will be immersed into the water for suction of water.
• When the positive displacement systems moves up, water will be pumped out of one outlet NRV which is placed at the top of the cylinder and simultaneously water will be sucked inside from the bottom inlet NRV through suction principle.
• When the positive displacement systems moves down water will be pumped out from bottom outlet NRV and water will be sucked inside through top inlet NRV.
• Large capacities of water can be lifted with minimal effort and mechanical power input is also low.
Rack and Pinion system
• This pumping method has a positive displacement systems like piston and cylinder with 4 NRV's (Non returning valves) both for inlet and outlet of water at different positions on cylinder.
• Piston will have the movement with the rack & pinion attached to the driving gear of the compressed air engine.
• 2 NRV's, which are for outlet, will be located at one side of the cylinder top & bottom. For inlet, one NRV will be to the base of the cylinder and another at the top side opposite to the outlet NRV.
• Inlet NRV's will be connected to a pipe and this pipe will be immersed into the water for
suction of water.
• When the piston moves up, water will be pumped out of one outlet NRV which is placed at the top of the cylinder and simultaneously water will be sucked inside from the bottom inlet NRV through suction principle.
• When piston moves down water will be pumped out from bottom outlet NRV and water will be sucked inside through top inlet NRV.
• Large capacities of water can be lifted with minimal effort and mechanical power input is also low.
Pulley system
• This pumping method has a positive displacement systems like piston and cylinder with 4 NRV's (Non returning valves) both for inlet and outlet of water at different positions on cylinder.
• Piston will have the movement with the rope pulley attached to the unidirectional pulley system. This unidirectional pulley system is driven by compressed air engine.
• Counter weight will be added to the piston for the downward movement.
• 2 NRV's, which are for outlet will be located at one side of the cylinder top & bottom. For inlet, one NRV will be to the base of the cylinder and another at the top side opposite to the outlet NRV.
• Inlet NRV's will be connected to a pipe and this pipe will be immersed into the water for suction of water.
• When the piston moves up, water will be pumped out of one outlet NRV which is placed at the top of the cylinder and simultaneously water will be sucked inside from the bottom inlet NRV through suction principle.
• When piston moves down water will be pumped out from bottom outlet NRV and water will be sucked inside through top inlet NRV
• Large capacities of water can be lifted with minimal effort and mechanical power input is also low.
4. Description
The field of invention relates to an underground fluid pumping device without consuming either electricity or any fuel. This invention uses the principles of nano technology and mechanics to pump fluid from a closed or bore well pump.
In pumping method, cylinders are cascaded with each other stage wise and vacuum is created among them. The length of cylinder never exceeds 32 ft, and hence multiples of 32 ft cylinders are connected. Vacuum is created using vacuum pump. Once vacuum is created, all the cascaded pipes, water continuously will be pumped until bottom flow is stopped.
More than 85% of the total cost incurred over the lifecycle of a pump is towards consumption of electricity. Hence this invention cuts down the electricity cost which leads to the massive economic benefits. Cylinder inner surface is sputtered with graphite nana material to minimise frictional resistance. This further increases the efficiency of the system.
Background of invention
Several pumping systems involving different pumping and extraction devices have been developed for transfer of fluids from a closed/ bore well. These pumping systems run on AC motor and requires electricity for operation and the electricity consumption increases as the depth of suction increases. In case of Centrifugal pumps, the efficiency tends to decline as flow rates rise after peak efficiency is reached. The pump efficiencies also tend to decline over time to wear. In case of plunger pumps, lot of energy is wasted when the fluid is accelerated in the piping system, hence decreases efficiency of any plunger pump system.
The present invention makes the design simple with nano materials and makes corrosion free. The efficiency remains high throughout the pump lifecycle as the nano material is very less prone to wear out. The pumping system requires a very little/no power because of mechanical advantage principle involved in it. Hence it eliminates the cost incurred in expensive maintenance, cable cost, panel boards and frequent motor burn outs making the system complete electricity independent.
6. Brief description of drawing:
• Inlet of the pump is connected to a pipe.
• The other end of connected pipe is dipped in closed well or bore well.
• This pipe is split into two parts.
• Each splited pipe is connected to an inlet NRV, which is connected to cylinder.
• There is a piston in cylinder which is connected to screw rod.
• This screw rod is displaced using internal threads of a gear which is driven by other gear connected to air compressed engine.
• When piston reciprocates, fluid inside cylinder come out through other set of NRVs which are connected to a pipe which serves as outlet.
7. Claims
1. This method of systems is used as pumping solution to lift water from bore wells, closed wells, from sumps of deeper depths etc.
2. This method of systems is used as pumping solution to lift solvents, chemicals, oils, lubricants, and petroleum products etc which are non polar solvents and also for alcohol based semi polar solvents.
3. This method of systems is used as pumping solution to lift slurries, sledges, concrete mixtures, gel kind of any systems through closed pipes, tube wells to any heights from any depth using appropriate mechanical advantage methods described in the invention.
4. This method of systems is used as pumping solutions also used in pumping water through distribution lines by laying horizontally to the earth or any other supported structures for transportation of fluids like water, oils, petroleum, slurries, concrete mixtures etc, by same method of inventions mentioned above.
5. This method of invention can be used to lift materials against gravity by overcoming resistance in pumping solutions to higher altitudes. Using this method high pressure can be generated to directly connect the underground water to membrane systems in R.0 plants
6. This method of invention is used by running long length of smaller cross sections also while injecting grease, engine oils and other type of lubricants into engines or machines of higher capacities where human intervention can be minimized.
7. This method of invention also used for pumping of semi solid chemicals, fruit pulps, paper pulps or any other types of value added products to be transported across multiple directions in industrial applications.
8. This method of invention also used by connecting piezo electric accumulator kind of crystals to mechanical advantage system to pump blood, serum, plasma and other types of medicine discharge systems in medical systems.
9. This method of invention also used to directly pump water with higher pressure to feed drip irrigation systems, sprayers, sprinklers from bore wells directly avoiding booster pumps.
10. This method of invention also used to feed the storage tankers, overhead tanks, higher heights tanks directly from lower depths of system using closed tubes irrespective of the nature of fluid to be transported like water, oils, greases, lubricants, solvents, acids. Alkalis, slurries, concrete mixtures, fly ash fluids, molten, metal liquids in metallurgical industry, polymers in polymer industry and also in industrial gases, dairy industry, food processing industries etc.
| # | Name | Date |
|---|---|---|
| 1 | 93-CHE-2013 FORM-3 07-01-2013.pdf | 2013-01-07 |
| 2 | 93-CHE-2013 FORM-2 07-01-2013.pdf | 2013-01-07 |
| 3 | 93-CHE-2013 FORM-1 07-01-2013.pdf | 2013-01-07 |
| 4 | 93-CHE-2013 DESCRIPTION (PROVISIONAL) 07-01-2013.pdf | 2013-01-07 |
| 5 | 93-CHE-2013 FORM-2 06-01-2014.pdf | 2014-01-06 |
| 6 | 93-CHE-2013 DRAWINGS 06-01-2014.pdf | 2014-01-06 |
| 7 | 93-CHE-2013 DESCRIPTION(COMPLETE) 06-01-2014.pdf | 2014-01-06 |
| 8 | 93-CHE-2013 CORRESPONDENCE OTHERS 06-01-2014.pdf | 2014-01-06 |
| 9 | 93-CHE-2013 CLAIMS 06-01-2014.pdf | 2014-01-06 |
| 10 | 93-CHE-2013 ABSTRACT 06-01-2014.pdf | 2014-01-06 |
| 11 | 93-CHE-2013 FORM-28 05-08-2016.pdf | 2016-08-05 |
| 12 | 93-CHE-2013-Other Patent Document-F18-F28-050816.pdf | 2016-08-19 |
| 13 | 93-CHE-2013-FORM28-050816.pdf | 2016-08-19 |
| 14 | 93-CHE-2013-Form 18-050816.pdf | 2016-08-19 |
| 15 | 93-CHE-2013-FER.pdf | 2019-08-06 |
| 16 | 93-CHE-2013-OTHERS [06-02-2020(online)].pdf | 2020-02-06 |
| 17 | 93-CHE-2013-FER_SER_REPLY [06-02-2020(online)].pdf | 2020-02-06 |
| 18 | 93-CHE-2013-DRAWING [06-02-2020(online)].pdf | 2020-02-06 |
| 19 | 93-CHE-2013-CLAIMS [06-02-2020(online)].pdf | 2020-02-06 |
| 20 | 93-CHE-2013-ABSTRACT [06-02-2020(online)].pdf | 2020-02-06 |
| 21 | 93-CHE-2013-US(14)-HearingNotice-(HearingDate-09-03-2023).pdf | 2023-02-14 |
| 1 | search_22-02-2019.pdf |