SI24931A - Pushers of the hydraulic lever or generator of linear movement by use of buoyancy force and pumping of liquids by a vacuum - Google Patents

Abstract

The invention solves the problem of how to utilize a linear movement for sucking a fluid in a closed system by means of a vacuum, by which the liquid is sucked and a static vacuum cylinder is filled. This solves the problem of minimum power consumption for system operation. The invention utilizes the buoyancy force, and in this case, the vacuum cylinder (A1) and the adapted flat plunger (B10) vacuum the liquid and prepare it for discharge. When the fluid from the cylinder (A1) passes into the ballast tank (B), the ballast tank (B) begins to submerge and pull the whole mechanism down. This process is then repeated. The ballast tank (B) is planted on the valves and then the liquid begins to drop into the reservoir for re-suction. In the system, one and the same fluid and gas are constantly circulated. air. With the system it is possible to push a lever which pushes hydraulics, in this way the system can be used to generate electricity.

Description

The subject of the invention is a hydraulic lever pusher, which is a generator of direct motion by utilizing the force of buoyancy and pumping fluid through a vacuum. It replaces a pump that consumes a lot of energy for pumping water, because higher altitudes cause more pressure. The invention takes advantage of the moves resulting from the displacement of a shaft mounted on a flat piston, which moves together with the ballast tank up and down the cylinder by sucking and lowering water in a closed system. This system can be placed anywhere on earth or in space, where there is an adequate force of gravity and a temperature that allows the liquid and gas to remain permanently stable in a closed system. The system does not depend on natural energy sources such as. coal, oil, gas, running water, uranium, wind, sun and the like.

A technical problem

The invention solves a technical problem of how to utilize a straight-line motion for suction of a liquid in a closed system by means of a vacuum, by which it sucks the liquid and fills a static vacuum cylinder. This solves the problem of minimum electricity consumption for the system operation. Electricity is only required to open and close the valves. The valves are also designed according to the principle of quick coupling, so they are opened mechanically, thus allowing them to «· · ·

their operation does not require a lot of energy because the system will be automatically powered by buoyancy and gravity.

The invention also solves the problem of minimizing environmental pollution during the power generation process, by allowing the use of strokes (transmissions or straight movements) of the piston (hydraulic) shaft. Walking is used with minimal use of electricity - only to open holes in the piston, valves and switches. However, if the valves are opened mechanically, we only need to supply electricity to open the holes on the flat piston and the lower part of the cylinder, which consumes even less electricity. The system enables automatic synchronous operation of repetitive processes. Mostly it does not depend on weather and geographical conditions. It can also be used in smaller units, e.g. households for electricity generation.

The state of the art

The solutions associated with the power generator are described by patents RS20080352A, KR20090055536A, DE102008048693Al, CA2443801A1, WO2010079501A2, W02009104376A1, KR20000052069A and

KR20000026978A. The solutions they describe are not related to the present invention because the latter generates linear motion due to fluid flow and the effect of gravity. Otherwise known generators of linear motion are usually made using magnets, and some of these are also described by the aforementioned patents, most commonly used to haul trains on tracks or to accelerate launching of aircraft on aircraft carriers, possibly in industrial robots and the like.

Patent application P-201300178 to URSIL (of the same author - Silvan Bizjak) describes a multi-stage hydraulic power plant with a compressor that utilizes buoyancy for its operation, which is similar to the present invention. The difference is that said patent application uses multi-stage hydraulics, and the present invention utilizes gauges to push the hydraulics, so the inventions are complementary,

since in the case of the present invention, the invention according to the aforementioned patent also does not require much electricity for its operation. Straight motion can therefore be used to drive an electricity generator according to patent application P201300178.

Description of the invention

The invention harnesses the force of buoyancy by sucking up a liquid with a vacuum cylinder and an adapted flat piston with a vacuum (when it goes flat, it sucks the liquid) and prepares it for release. When fluid passes from the cylinder into the ballast tank, the ballast tank begins to sink and pull the entire mechanism down. This process is then repeated. The ballast tank is mounted on the valves and at that time begins to drain the liquid into the re-suction tank. The same fluid and gas (or air) circulates in the system.

An embodiment of the invention will be described in the figures showing:

SI. 1: the whole system with a vacuum cylinder in cross section

FIG. 2: traveling element with telescopic tube extension

FIG. 3: a complete system in which a three-way valve is replaced by a socket valve - an illustration of a system in which socket valves are mechanically opened Fig. 4: enlarged view of the assembly by which air or gas flows from the lower part of the cylinder to the upper part of the cylinder

SI. 5: complete socket valve assembly - view of opening on ballast tank connected via valve to lower part of primary pool

The individual reference marks in the figures represent the following:

Al - static vacuum cylinder attached

A2 - inner surface of the vacuum cylinder (materials used to maximize gliding are used, eg Teflon, glass, ceramics, porcelain, etc.)

A3 - orings or. seals that seal

A4 - joints for assembling and disassembling the vacuum cylinder for repair

Α5 - Air or gas inflow from lower part of vacuum cylinder Al when lowering shaft and flat piston B10

A6 - exhaust air or gas from the upper part of the vacuum cylinder Al through a non-return valve Ali into the reservoir A12 from which the fixed pipe A14 is drawn into the primary pool D into which the ballast tank is submerged D. The pipe Al14 is fastened to the pipe A14. filling ballast B with gas or air.

A7 - Pipes for the discharge of fluid into the ballast tank B to which the three-way valves A8 are attached. When the vacuum cylinder Al discharge stage is completed, the three-way valve A8 is purged and vents air or gas into the upper part of the vacuum cylinder Al via the pipe A16 and the opening A5 to allow the traveling flat piston B10 to descend into the lower part of the vacuum cylinder Al.

A8 - Three-way valve with A10 motor and A9 sprocket, which allows diversion of the necessary fluid discharge stages and diversion of air or gas to the upper part of Al A9 cylinder - gears on A8 valve

A10 - Gear motor for turning the three-way valve A8

Or - non-return valve in front of Al2 tank

A12 - Air or gas tank

A13 - A pipe through which air or gas flows at a certain stage to allow travel of the traveling element B

A14 - a pipe under tank A12 flowing into pool D connected to valve Al 5, which releases gas into ballast tank B, and at the same time, through the valves BI and B26, the fluid E in seconds drains from which always the same fluid Al 5 is drawn. - quick-release valve with mounting mechanism

A16 - Tube connected from the three-way valve A8 to the upper part of the static vacuum cylinder Al

Al7 - Power supply: An electric cable running through the middle of the Al 8 axis to the electric motors

A18 - Axle on travel element B to push hydraulic or other power generation system

Β - ballast tank or. traveling element with terminals Bi for draining fluid into the lower part of basin D, and terminals B2 which, through pipeline B3, release air via ball valve B4 into ballast tank B

BI - solenoid valves in the lower and upper parts of the fluid flow tank B

BI '- opening in ballast tank B

B2 - quick release coupling that allows air or gas to flow when needed

B3 - Pipeline for air or gas flow when needed

B4 - Ball valve or non-return valve that prevents fluid from entering

B5 - a pipe and, at the same time, an axle with openings B7, connected to a flat piston B10 and passed through the center of the ballast tank B, through which the vacuum sucks fluid through the openings B7, which enables the ring B6 with the openings B7 ', which align with the openings upon rotation of the ring B6. B7

B6 - ring with openings B7 'for establishing fluid passage through openings B7 on pipe B5

B7 - openings on ring B6 for suction of fluid from the secondary pool E

B8 - Gears across the entire circumference for turning B6 to allow for the alignment of openings

B7 on pipe B5 and B7 'on ring B6

B9 - gear motor for turning ring B6 through gears B8, motor B9 may be attached to pipe B5 or drowned in flat piston B10 B10 - round flat piston with orifices for sealing BI 1 and wipers. Oringi Bil seal on the wall of the vacuum cylinder Al.

Billets and wipers running along the perimeter of B10 flat piston B12 - air or gas vent hole in B10 flat piston. When the flat piston B10 enters the upper part of the vacuum cylinder Al, the hole B12 allows gas or air to pass through the pipe BI6 from the ballast tank B into the tank BI3 above the flat piston B10, which allows air or air flow. of gas via Teflon or. of ceramic disc B14 with appropriate sealing orings to the bottom of the vacuum cylinder Al and the fluid allows flow through the valves A8 and BI into the ballast tank B.

Β13 - Flat circular reservoir, connected to pipes B16 and seals, allows gas or air flow to allow fluid to flow into ballast tank B B14 - Round flat disc with corresponding holes BI 5 and gears around circumference B15 - Holes on circular flat disc B14

B16 - Tubes connected to the upper part of ballast tank B through the inner tube B5 to the tank BI3

B17 - gear motor attached to flat piston B10 that allows circular flat disk B14 to flow air through holes B12, B15 and B18

B18 - A hole in the B13 tank that allows air or gas to flow

B19 - blockage on tube B5 which does not allow the telescopic tube B20 to pass into the upper part of tube B5

B19 '- lower blockage on tube B5 which allows the tubes to remain together during telescopic extension

B20 - pipe with orings (or seals) that can extend telescopically or contractions B21 - orings that allow sealing on pipes

B22 - tube immersed in seconds Pool E partly looks into primary pool D. The tube has a non-return flap below - ball in cage B23, also has blockage B24 and corresponding seals B21

B23 - non-return valve with ball allowing free passage of water in vacuum suction through pipes B5, B20 and B22, which extend telescopically B24 - blockage of pipe B22

B25 - Tubes with B26 valves that are immersed in primary pool D. With proper sealing, fluid can flow freely from ballast tank B in seconds, pool E.

B26 - valve on pipe B25

B27 - A drain that allows fluid to flow when the BI0 flat piston falls on cylinder Al, the fluid is poured through pipe B28, which is connected to the overflow valve by ball B29, and then the fluid is poured into tube B30, which is fed in seconds by reservoir E. This always leaves the same amount of fluid up to a certain level.

B28 - pipe connected to valve B29 and overflow pipe B30

B29 - A ball valve that allows overflow at the required height

Β30 when needed

B30 - a tube driven to return fluid in seconds the pool E and at the same time allowing the plunger B10 to descend through the vacuum cylinder Al

B31 - chain guides attached to the wall of the primary pool D

B32 - Chain attached to ballast B, with tension control

B33 - A pinion mounted to the wall has a generator for generating electricity and a brake

B34 - attachment of the chain to the ballast tank B

D - the primary pool into which the ballast tank B is lowered and raised, immersed in always the same fluid, which in the primary pool DE - in seconds is the pool in which the process of suction of the fluid through the telescopic assembly with parts B20, B21 and B22, then the fluid at the BI or valve sockets. F drains from reservoir B

F - complete socket valve assembly designed to mechanically close and open socket valves without using electricity

F1 - static tube attached to primary pool D so that it does not move, fluid flows from ballast tank B in seconds pool E F2 - holes in pipe F1 cut around the perimeter. They are opened as long as the tube F1 is immersed in ballast B

F3 - telescopic assembly with shaft F13 attached to piston F5 and seals F12. It allows the entry of F1 pipes with holes F2 into the ballast tank B to drain the fluid.

F4 - spring for moving F5 piston away from ballast B

F5 - piston closing hole ΒΓ on ballast tank B

F6 - O-ring, which allows straight movement and sealing contact with ballast B and allows the entry of Fiz holes F2 through holes F2 into ballast B

F7 - bearing that allows the F6 ring to be locked to automatically lock ballast B

F8 - spring that allows the ring F6 to open vertically to open and close the holes F2 on pipe F1 and thereby enter pipe F1 with holes F2 into ballast tank B F9 - pipe stop F1 - contact with piston F5

F10 - Ball-barrier attached to ballast tank B allows ballast-tank B to be locked to the primary pool D via the ring with seals F6 Fll - balls at blockade F10 blocking ring F6

F12 - gaskets or seals. orings

F13 - the axis of the wine on which the piston F5 is attached

G - complete assembly allowing air flow from the lower part of the cylinder Al with a disk, tank and mechanism for opening and closing the holes Gl - holes in the lower part of the vacuum cylinder Al

Gl '- holes on top of G2 disc

G2 - Disc with gears and sealing discs

G3 - flat reservoir with holes Gl '

G4 - pinion on engine G5 for turning disc G2, which aligns holes Gl 'on top of disc G2 with holes Gl on bottom of cylinder Al, to divert gas to upper part of cylinder Al

G5 - motor for turning G4 gearbox and thus G2 ^V disk

In the lower position of primary pool D, ballast tank B is filled with gas or air via the Al5 valve and the quick-release principle of clutch B2. The valves BI and B26 are closed, then the ring B6 with the motor B9 on the pipe B5 is opened under the piston B10, thus aligning the openings B7 and B7 ¹ . The B33 brakes are unlocked. The braking mechanism may be chain-operated or may be by gears or by other suitable means.

Ballast B is a complete set of very strong construction and is made of lightweight materials. Tank B starts to force upward and push the flat piston B10 in cylinder Al, creating a vacuum through telescopic assemblies B22, B20 and B5, which have a proper seal. Reservoir B begins to suck up water from the secondary pool E and pour it over openings B7 and B7 ', thus starting with liquid • «filling the lower part of cylinder Al. Cylinder Al fills with liquid due to vacuum. By pushing Ballast B upwards, the three-way valves A8 and BI are joined together. When piston B10 is in the up position, that is, below openings A5 and A6, it stops. When stopped, a circular flat disk B14 with corresponding holes BI 5 and seals (withings), with a periphery gear and a motor BI7 (gear is on a motor BI7), aligns holes B12 on a flat piston B10, with holes BI5 on a disk with a gear B14 and holes BI8 on the BI3 tank. This is when gas or air flows from the lower part of ballast tank B through the pipe BI6 and the tank BI3 to the lower part of cylinder Al. The gas allows the fluid to flow from the lower part of cylinder Al to the ballast tank B. When all the fluid passes from the lower part of cylinder Al to the ballast tank B, ring B6 closes openings B7 on pipe B5. At that time, the three-way valve A8 redirects the gas through the pipe Al6 and the opening A5 to the upper part of the cylinder Al. The planar piston BI0 starts to fall on cylinder Al and the excess fluid contained in pipes B5, B20, B22 is poured through a branch B27, pipe B28, valve with ball B29 and pipe B30 in seconds, so that the fluid remains in pipes B5, B20 and B22 even when ballast B reaches the lower end position. Repeated cycles at intervals allow the exploitation of strokes, thereby pushing hydraulics or generating electricity through another suitable mechanism.

Figure 3 shows a system without a three-way valve A8 comprising only the socket valve F. The assembly of the socket valve F is immersed in the primary pool D. When the ballast tank B is filled with fluid towards the bottom of the primary pool D, the ring F6 is joined to the bottom. ballast tank B, where the opening is ΒΓ. The Fiz tube, through the openings F2 and the closed upper part F9, is connected to the piston F5 and pushed upwards through the telescopic system F3 fixed in ballast tank B to the full opening of the holes F2 on the pipe Fl. Liquid begins to flow through holes F2 from ballast B. The F10 lock on the ballast tank locks the F6 ring with Fll beads until the complete fluid discharge phase. When the phase is complete (so that the ballast tank is full of air or gas), the torque-lifting force (torque wrench) disconnects the system and begins to push ballast B toward the top of cylinder Al and suck fluid from the secondary

bazena E.

At the top of the system (see Figure 3), the system without the three-way valves and with the socket valve F works in the same way. The holes around the perimeter Gl are closed by the G2 disks. When cylinder Al is empty, when fluid flows into ballast tank B via valves F, the G5 engine with gear G4 receives a command via automatic control and switches to wrap and loosen the holes Gl. This is when air or gas flows through the pipe Al6 into the upper part of the cylinder Al, and thus allows the whole piston B10 to be pushed down into the lower part of the cylinder Al.

Use

In this way, the system can be used as a stand-alone power generator with a rack and pinion or for other purposes, e.g. for pushing fluid through hydraulics into a water tower. The shaft (Al 8) on the traveling element (B) can therefore be driven by a hydraulic or other power generation system or, as said, act as a standalone power generator.

The invention can be made in larger and smaller variants, therefore it is not possible to specify the exact dimensions of the individual parts.

Claims (14)

PATENT APPLICATIONS 1. A linear motion generator utilizing buoyancy and vacuum pumping, characterized in that it consists of the following components: a static vacuum cylinder (Al), for which the inner surface (A2) uses materials that allow for the best possible slip, further consists of orings or. gaskets (A3), joints for assembling and disassembling the vacuum cylinder during remediation (A4), air or gas inlet (A5) from the bottom of the vacuum cylinder, air or gas (A6) from the upper part of the vacuum cylinder, fluid outlet pipe (A7) ) into ballast tank, three-way valve (A8) with rotary motor (A 10) and gear (A9), non-return valve (Ali) in front of gas or air tank (A12), gas or air flow pipe (A13) ), pipes under the tank (A14) fed into the primary pool (D) connected by a quick-acting valve (Al 5), pipes (Al6) piped from the three-way valve (A8) to the upper part of the static vacuum cylinder (Al), supply ( Al7), traveling ballast tank (B) with shaft (Al 8) and secondary pool (E). 2. The linear motion generator according to claim 1, characterized in that the ballast reservoir (B) has valves (BI) for draining fluid into the lower part of the primary pool (D) and quick-release couplings (B2) which pass air through the pipeline (B3). or gas through a ball or non-return valve (B4) into a ballast tank (B) in which a hole (ΒΓ) is made, through which a pipe is connected which is at the same time an axis (B5) connected to a flat piston (B10), which vacuum sucks fluid from the secondary pool (E) through openings (B7) that open and close at required stages, allowing the ring (B6) with gears (B8) across the entire circumference of the motor-driven turn (B9) it may be attached to a pipe (B5) or buried in a flat plunger (B10) through which the orings (Bil) for sealing against the wall of the vacuum cylinder (Al) are passed over the entire circumference. 3. The linear motion generator according to claims 1 and 2, characterized in that an air or gas (BI2) vent is provided in the flat piston (B10) to allow gas or air to pass through the pipe (BI6) from the ballast tank (B ) into a reservoir (BI3) above the flat piston (B10) allowing fluid to flow through a circular flat disc (BI4) having holes (BI5) and a gear motor with a periphery (BI7) into the lower part of the vacuum cylinder (Al), it also allows fluid to flow through the valves (A8, BI) into the ballast tank (B), while the air or gas flow on the tank (BI3) is provided by the hole (BI8). 4. A linear motion generator according to claims 2 and 3, characterized in that there is a block (BI5) on the tube (B5) which does not allow the telescopic tube (B20) to pass into the upper part of the tube (B5) and the lower block (BI9 '). ), which allows the tube (B20) not to fall out of the tube (B5) during telescopic stretching, and the tube (B22) is routed in seconds to the pool (E) and partly to the primary pool (D) and has a non-return ball valve ( B23), which allows free passage of water during vacuum suction through telescopically extending tubes (B5, B20, B22), also incorporating a blockage (B24) and suitable seals (B21). 5. The linear motion generator according to claims 1 to 4, characterized in that the chain (B32) with tensioning chains (B32) is mounted on the wall of the primary pool (D) and on the ballast tank (B) with the possibility of regulating it and that tubes (B25) are also attached to the primary pool (D) by valves (B26) which, with proper sealing, allow the fluid to flow freely from the ballast tank (B) in seconds to the pool (E), thereby overflowing the liquid when the piston is flat (B10 ) falls through the cylinder (Al), allows a branch (B27), which allows the liquid to be poured through the pipe (B28), which is connected to the overflow valve by a ball (B29) and then poured into the pipe (B30), which is driven by returning the fluid in seconds the pool (E) while allowing the plunger (B10) to flow down the pipe (B5). 6. The linear motion generator according to claims 1 to 5, characterized in that the air or gas (A6) exhaust from the upper part of the vacuum cylinder (Al) is passed through a non-return valve (Al 1) into the reservoir (Al 2) from which derived fixed pipe (A14) to the primary pool (D), in which the ballast tank (B) is immersed in the fluid, and a quick coupling (Al 5) is fastened to the pipe (A14) to fill the ballast tank (B) with gas or air, and when the discharge phase of the fluid from the vacuum cylinder (Al) into the ballast tank (B) is completed, the three-way valve (A8) is primed and vents air or gas into the upper part of the vacuum cylinder (Al) through the pipe (A 16). and apertures (A5) to allow the traveling flat piston (B10) to lower into the lower part of the vacuum cylinder (Al), while at the same time the three-way valve (A8) with the motor (A 10) and the gear (A9) allow the necessary stages of fluid discharge and diversion to be diverted air or gas to the top of the cylinder (Al). 7. The linear motion generator according to claim 1, characterized in that the tube (Al 3), through which the air or gas flows at a certain stage, permits the travel of the traveling element (B), the tube under the tank (A14), introduced into the primary pool (D) connected to the valve (Al 5), which vents the gas, allows the ballast tank (B) to be emptied by draining the fluid (seconds) through the valves (BI, B26) in seconds, while at the same time is filled with gas and thus the ballast tank (B) is lowered and raised in the primary pool (D), which is always the same fluid, while in the secondary pool (E) the process of suction of the liquid through the telescopic assembly (B20, B21, B22) ), the fluid being then via valves (BI) and (B26) or. the socket valves (F) drain from the tank (B). 8. The linear motion generator according to claims 1 and 7, characterized in that the socket valve assembly (F) consists of a static pipe (Fl), submerged and fixed in the primary pool (D), and through it flows fluid from the ballast tank (F). B) in seconds, the pool E, further consists of holes (F2) on the pipe (Fl), which are open as long as the pipe (Fl) enters the ballast tank (B), of the telescopic assembly (F3) with the shaft (F13), which is attached to the piston (F5) and has seals (F12), from a spring (F4) to move the piston (F5) away from the ballast tank (B), from the piston (F5) that closes the hole (ΒΓ) on the ballast tank (B ), from the ring with seals (F6), the bearing around the perimeter (F7), the springs (F8), the closures (F9) of the pipes (Fl), the ball bearings (F 10), which are attached to the ballast tank (B) and to assemble the assemblies (B, F6) from the beads (Fl 1) on the lock (F 10), which lock the ring (F6), from the seals (F12) and the shaft (F13) on which the piston (F5) is attached, the shaft (F 13) allowing the pipe to enter (Fl ) with holes (F2) into the ballast tank (B) as far as necessary to drain the fluid. 9. The linear motion generator according to claims 7 and 8, characterized in that the sealing ring (F6) allows the ballast tank (B) to be displaced and sealed and to allow the tubes (Fl) to enter the holes (F2) into the ballast tank (F2). B), and the perimeter bearing (F7) allows certain ring rotations (F6) to be automatically adjusted to the surface of the ballast tank (B), while the spring (F8) allows the ring (F6) to move vertically to open and close holes (F2) and immersing them in the ballast tank (B) to a certain limit. 10. A method of operating a straight-line generator by utilizing a buoyancy force and pumping fluid through a vacuum, characterized in that the ballast tank (B) begins to fill the ballast reservoir (B) through the valve (Al5) and according to the quick-change principle (B2). ) with gas or air, the valves (BI, B26) being closed, then opening under the piston (B10) the ring (B6) with the motor (B9) on the pipe (B5), thereby opening the openings (B7, B7 ' ) and the brakes (B33) are unblocked, and then the ballast tank (B) starts to force upwards and push the flat piston (B10) in the cylinder (Al), creating a vacuum through the telescopic assemblies (B22, B20, B5), thereby the reservoir (B) starts to suck up water from the secondary pool (E) and pours it over the openings (B7, B7 '), thereby filling the bottom of the cylinder (Al) with liquid, which is filled with liquid due to vacuum. 11. The method of operation of a linear motion generator according to claim 10, characterized in that by pushing the ballast tank (B) upwards, the three-way valves (A8, BI) are joined together and when the piston (B10) is in the up position, it stops then and the circular flat disk (B14) with the corresponding holes (B15) and the seals and peripheral gear and motor (BI7) aligns the holes (BI2) on the flat piston (B10), the holes (B15) on the disk with the sprocket (B14) and the holes ( B18) on the reservoir (BI3), thereby starting to flow gas or air from the lower part of the ballast reservoir (B) through the pipe (BI6) and the reservoir (BI3) into the lower cylinder cylinder (Al). 12. A method of operating a linear motion generator according to claims 10 and 11, characterized in that the gas allows the fluid to start from the lower part of the cylinder (Al) to flow into the ballast tank (B) and when all the fluid passes from the lower part of the cylinder (Al ) into the ballast tank (B), the ring (B6) closes the openings (B7) on the pipe (B5), then the three-way valve (A8) directs gas through the pipe (Al6) and the openings (A5) to the upper part of the cylinder (Al), flat the piston (B10) starts to fall on the cylinder (Al) and the excess fluid which is in the pipes (B5, B20, B22) is poured through the drain (B27), the pipe (B28), the ball valve (B29) and the pipe (B30). in seconds the pool (E) so that the fluid remains in the pipes (B5, B20, B22) even when the ballast tank (B) reaches the lower end position, allowing repeated cycles at intervals to exploit the strokes, thereby pushing the hydraulic or generation of electricity by another appropriate mechanism. 13. The method of operating a straight-line motion generator according to claims 10 to 12, characterized in that it is possible to establish a system without a three-way valve (A8) comprising only a socket valve (F), with the socket valve assembly (F) submerged in the primary pool (D) and when, in this case, the fluid-filled ballast (B) is lowered toward the bottom of the primary pool (D), the ring (F6) is joined to the lower part of the ballast tank (B), where the opening (ΒΓ) is Push the pipe (Fl) with the openings (F2) and the closed upper part (F9) into the piston (F5) and push it upwards through the telescopic system (F3) fixed in the ballast tank (B) until the holes (F2) are fully open. pipe (Fl), and fluid flows out of the holes (F2) through the holes (F2), then the blockage (F 10) blocks the ring (F6) with beads (Fl 1) until the complete fluid discharge phase and when the phase is complete, the force momentum-based buoyancy disconnects the system and starts pushing the ballast tank (B) toward the top of the cylinder (Al) and suck the fluid from the secondary pool (E). 14. The method of operation of a linear motion generator according to claim 13, characterized in that the upper part of the system operates without the three-way valves and with the socket valve (F) in the same way: the holes around the circumference (Gl) are closed by the disks (G2) and when the cylinder is (Al) empty when fluid flows into ballast tank (B) via valves (F), engine (G5) with gear (G4) receives command via automatic control and switches to wring and loosen holes (Gl), then it begins flow air or gas down the pipe (A 16) into the upper part of the cylinder (Al), thereby allowing the whole piston (B10) to be pushed down into the lower part of the cylinder (Al).