WO2017187387A1

WO2017187387A1 - Hydrodynamic thrust, gravity and suction motor

Info

Publication number: WO2017187387A1
Application number: PCT/IB2017/052452
Authority: WO
Inventors: Carlos Andrés QUEVEDO BONILLA
Original assignee: M.C.C. System-Q, S.A.S.
Priority date: 2016-04-27
Filing date: 2017-04-27
Publication date: 2017-11-02

Abstract

The invention relates to a hydrodynamic thrust and gravity motor in the form of a machine designed to operate in continuous mode since it requires no external energy source for operation (fossil fuels, renewable energy, energy sources or reliefs). The hydrodynamic thrust and gravity motor is intended for large- or small-scale industrial energy generation, said motor using the movement of fluids inside the system in order to generate mechanical energy that is converted into electrical energy.

Description

PUSH, GRAVITY AND SUCTION HYDRODYNAMIC MOTOR

TECHNOLOGICAL SECTOR The present invention relates to an engine that has a special design for the generation of mechanical energy from the pumping of fluids and compression of gases.

BACKGROUND

The production of electricity currently generates environmental problems by using fossil fuels that release carbon dioxide, sulfur oxides, nitrogen oxides and varying amounts of solid waste into the atmosphere. This diversity of greenhouse gas emissions is considered among the factors responsible for climate change.

As an alternative to the use of fossil fuels, wind energy is known, which is obtained by taking advantage of the kinetic energy generated by the effect of air currents or vibrations produced by said wind. At present, wind turbines are used to generate electricity, especially in areas exposed to frequent winds, such as coastal areas, mountain heights or islands.

On the other hand, geothermal energy is obtained by harnessing heat from inside the Earth. In areas of very hot thermal waters at shallow depths, it is drilled by natural fractures of the basal rocks or within sedimentary rocks. Hot water or steam can flow naturally, by pumping or by impulses of water and steam flows (flashing).

Hydropower uses a hydroelectric power plant that generates electric power by harnessing the potential energy of the reservoir water in a dam located higher than the power station, where huge hydraulic turbines are located. Nuclear energy is characterized by the use of fissile materials that provide heat through nuclear reactions. This heat is used by a conventional thermodynamic cycle to move an alternator and produce electrical energy.

The photovoltaic solar energy obtains electrical energy through photovoltaic panels coupled in series to scale, the continuous electrical current provided by the photovoltaic panels can be transformed into alternating current and injected into the electrical network. Tidal energy is produced thanks to the movement generated by the tides, this energy is used by turbines, which in turn move the mechanics of an alternator that generates electrical energy.

However, despite the great efforts to provide alternative power generation systems to the use of fossil fuels, the implementation of any of these types of electric power generation has high costs, in addition to the need to implement accumulation systems , which make its construction and commissioning more expensive. Due to all these problems presented by the aforementioned technologies, new methods for energy generation appear, which take advantage of physical principles but still great limitations in their operation.

As an example of these methods, motors and machines are known that take advantage of physical principles but nevertheless need some kind of external energy source. Thus, for example, in the state of the art there is document US4207741 "POWER SOURCE USING CYCLICALLY VARIABLE LIQUID LEVEL", which refers to a hydraulic motor that, by means of the ascent and descent of a liquid (such as water), into a work tank, provides a vertical movement from top to bottom or from bottom to top of an internal tank, generating substantial work; however, this invention needs a gravity fluid drop to fill their tanks, something that makes it inefficient in places where there are no rivers. This invention does not teach an autonomous, independent and efficient engine.

Also known is document CN102705152A "DEVICE GENERATING POWER THROUGH LIQUID FLOW AND BUOYANCY", which is an apparatus for the generation of energy comprising a device for generating energy through liquid flow and buoyancy, but which by the fact Using a booster pump to pump the fluid to the upper piston and using gas to start its start-up makes it inefficient.

Finally, CN patent application 102797649 entitled "HYDRAULIC PISTON PUMP FOR POTENTIAL ENERGY CONVERSION DEVICE" refers to a device for converting the potential energy of a hydraulic piston pump and more particularly to a means of converting potential energy hydraulic of a piston pump. However, this invention does not teach an autonomous, independent and efficient engine.

For all the above, there is a need for the development of a continuous movement equipment, in which, by means of the movement of a piston in an ascending and descending manner, a movement of fluids controlled by vacuum, suction force of thrust and gravity is activated, without need to have an external energy source, which as a result, allows to generate kinetic energy, convertible into electrical energy, without using fossil fuels (such as coal, gas, oil and any of its derivatives), without using renewable natural energies (such as biomass , solar energy and wind), without using marine energy or ocean energy (waves), without using waterfalls (pelton turbines), without using hydrolysis, without using radioactive materials and without generating greenhouse gas emissions; and that involve low manufacturing costs, the reduction of volumes of water used to generate energy, the reduction of large territories; and that allows a fast and scalable assembly, that is not affected by geography (deserts, snow, mountains, sea), with low maintenance and operation costs and that generates energy in a constant way (24/7). Within the research scheme of this invention, the inventors of the technology described herein recently disclosed by means of patent applications PCT / CO2016 / 000005 and PCT / CO2016 / 000009, of which the present invention claims the right of priority, with technology related to hydrodynamic motors, where an engine is described consisting of a force cylinder that inside has a force piston that is connected with a rigid joint to the empty suction piston which is located inside an empty suction cylinder that is connected by a fluid loading pipe to the lower accumulation tank. BRIEF DESCRIPTION OF THE INVENTION

As a solution to all the above factors, the present invention provides a hydrodynamic thrust, gravity and suction motor, which works with mechanical elements of variable geometry, using principles and laws of physics that act sequentially, to generate a continuous movement . The operation of this invention is due to the movement of fluids within the system that takes advantage of the force of gravity and the pushing force of the Archimedes principle, generating mechanical energy that is transformed into electrical energy by means of a generator. The hydrodynamic thrust and gravity motor developed is easy to build, making it possible to start up anywhere in the world, as it is not affected by environmental conditions, nor does it depend on the use of fossil fuels. The efficiency of the hydrodynamic motor of the invention is superior to most of the machines that work under these principles.

BRIEF DESCRIPTION OF THE FIGURES

FIG. 1 schematically shows a volumetric view, where most of the components of the hydrodynamic engine are shown, together with its operation under the laws of gravity.

FIG. 2 shows the position of the assembly and the weight, in three-dimensional view. FIG. 3 schematically shows in an isometric view the internal structure of the force piston.

FIG. 4 shows the position of the hydrodynamic thrust and gravity motor, in an isometric view.

FIG. 5 shows the position of the hydrodynamic thrust and gravity motor, schematically in a volumetric view.

FIG. 6 shows the gravity and suction hydrodynamic thrust pump of the invention. FIG. 7 shows the position schematically, in isometric view, of the metal structure of the hydrodynamic thrust and gravity motor.

DETAILED DESCRIPTION OF THE INVENTION

The present invention specifically relates to the continuous movement of a piston in an ascending and descending manner, activated by a movement of fluids controlled by vacuum, suction and gravity.

The hydrodynamic thrust and gravity motor works with mechanical elements of variable geometry, using principles and laws of physics that act sequentially, to generate continuous movement. The operation of the present invention is due to the movement of fluids within the system that takes advantage of the force of gravity and the thrust force by the Archimedes principle, characterized by not having any external power source. These conditions generate mechanical energy that can be transformed into electrical energy using a generator. The hydrodynamic thrust, gravity and suction motor essentially comprises:

- Force cylinders (31, 32), where force pistons (4, 16) are housed that are submerged in a medium fluid volume (17); in its lower part the force cylinders (31, 32) have discharge valves (1, 18);

- Suction cylinders (5, 10) containing inside suction pistons (8, 11), connected and aligned to the force pistons (4, 16) by means of a rigid vertical joint (15), these suction pistons ( 8, 11) have dynamic seals on their perimeter (30). The suction cylinders (5, 10) are located and aligned on the force cylinders (31, 32);

- Feed system through a fluid accumulation tank (19), which provides the fluid to the suction cylinder (5, 10) by means of a fluid loading pipe (14);

- Discharge pipes (6, 9, 13, 20, 26 and 29) from the suction cylinder (5, 10) to the force cylinder (31, 32);

- pipes (22, 23) in the lower part of the suction cylinder (5, 10);

- optionally a weight (21) associated with the force cylinder, to facilitate its ascent race; Y

- a mechanical power output.

In detail, the hydrodynamic thrust, gravity and suction motor is mainly composed of force cylinders (31, 32) where force pistons (4, 16) are housed that are submerged in a medium fluid volume (17). The force cylinders (31, 32) have discharge valves (1, 18).

The force cylinders (31, 32) are associated with suction cylinders (5, 10) that contain liquid and inside they have suction pistons (8, 11) that are connected to the force pistons (4, 16) by means of a rigid joint (15), for example, metal or any type of high strength polymer; This union can be shaped like a connecting rod. The suction pistons (8, 11) have part of their perimeter dynamic seals (30).

The force cylinders (31, 32) are connected to the suction cylinders (5, 10) by means of discharge pipes (6, 9, 13 and 20).

The force pistons (4.16) optionally have a braking system independent of the electric generator (among others, selected from a pinion ratio, an electro brake or any type of brake, mechanical, hydraulic or pneumatic). The braking force must be greater than the sum of the force of the force pistons (4.16), which when deactivated activates the descent or ascent together of the force piston (16), the rigid joint (15) and the suction piston (11). The equipment is fed through a fluid accumulation tank (19), which provides the fluid to the suction cylinder (5, 10) by means of a fluid loading pipe (14) and loading pipes (22 , 2. 3). In addition there are discharge pipes (26, 29) from the suction cylinder (5, 10) to the force cylinder (31, 32).

The system has a structure (33) that will support the parts that make up a hydrodynamic engine. Additionally, the described mode refers to the arrangement consisting of two force cylinders (31, 32) and two suction cylinders (5, 10), however, each force cylinder and suction cylinder assembly can work independently or, associated with more sets. In one version of the invention, the motor can be associated with a hydrodynamic pump with gravity and suction thrust (34). Thus, in an open circuit, the fluid pump works with the engine, and the fluid does not recirculate in the system, but is expelled by a fluid outlet pipe thus achieving a large (industrial) or small ( domestic) scale.

Engine operation can begin its cycle with the force pistons (4.16) in the top dead center (so that the gravity force is used). When the force piston assembly (16), the rigid joint (15) and the empty suction piston (11) descend, the latter generates a vacuum in the suction cylinder (10) and in the fluid loading pipe (14) , achieving an upward flow of fluid through the fluid loading line (14). At the end of the downward stroke of the force piston (16) to the bottom dead center, a specific volume of fluid is stored in the suction cylinder (10). A weight (21) helps the free ascent of the force piston from its lower dead point to the upper dead point (Figure 2), in particular, since the force piston (16) is loaded inside with full fluid. When the assembly descends, the fluid contained in the suction cylinder (10) descends through the gravity discharge pipe (6, 9, 13 and 20) and the force piston (16) is submerged in fluid, at which point it weighs (21) (figure 2) facilitates the ascent of the force piston assembly (16), the rigid joint (15) and the empty suction piston (11).

Likewise, the operation of the engine can start its cycle with the force pistons (4.16) in the bottom dead center and the force cylinders (31.32) completely filled with fluid (17) (so that the principle is used of Archimedes). The rise of the force piston assembly (16), the rigid joint (15) and the empty suction piston (11), caused by the Archimedes principle, since the force cylinder is full of air, generates a vacuum in the cylinder of suction (10), so that an upward flow of fluid is achieved through the fluid loading line (22, 23). At the end of the upward stroke of the force piston (16) in the top dead center, a specific volume of fluid (17) is stored in the suction cylinder (10), and the valve (18) of the force cylinder (31) is activated. , 32), generating a current of fluid descent by gravity towards the lower fluid accumulation tank (19), so that the fluid (17) contained in the lower part of the force cylinder (31, 32) is discharged into its whole.

The force piston (16) can be held by any means of connection, for example, guides and pulleys, in its upper part to a weight (21), which has the same weight as the structure of the force piston (16) and the resistance of the dynamic seal (30) when ascending (figures 2 and 3). Said weight (figure 2) helps the free ascent of the force piston and guarantees the generation of mechanical energy in its entirety of the force piston.

When the fluid contained in the suction cylinder (5, 10) descends through the gravity discharge pipe (9,13), the force piston (16) ascends due to the Archimedes principle to its upper dead point, resulting in to a new power cycle. However, the operation of the engine can start its cycle with the force pistons (4.16) in the top dead center or the bottom dead center (taking advantage of the force of gravity and the Archimedes principle in combination). For example, the power cycle begins with the force pistons (4, 16) in the bottom dead center, that is, with the force cylinders (31, 32) with an accumulated average fluid volume (17). The rise of the force piston assembly (16), the rigid joint (15) and the suction piston (11, 5), due to the Archimedes principle, generates a vacuum in the suction cylinders (5, 10) and in the pipe of fluid loading (22, 23) achieving an upward flow of fluid.

At the end of the upward stroke of the force piston (16) to the top dead center, a specific volume of fluid is stored in the suction cylinders (5, 10), activating the valve (18) of the force cylinders (31, 32 ) where an average fluid volume (17) accumulates and generating a gravity current to the lower fluid accumulation tank (19), this medium fluid (17) is completely discharged.

When the fluid contained in the suction cylinders (5, 10) descends through the gravity discharge pipe (26,29), the force piston (16) ascends by the Archimedes principle, to its upper dead point, leading to A new power cycle.

In this case, the force piston (16) is divided into two sections, the first section is filled with fluid and the second section filled with air; This guarantees the generation of both ascending and descending energy.

Referring to Figure 3, the force piston (16) is fastened by connecting means such as gems and pulleys in its upper part to a weight (21) which has the same weight of the structure of the force piston (16) and the Dynamic seal resistance (30) ascend. The function of the weight (figure 2) is to help free ascent and guarantee the generation of energy in the entire movement of the force piston. Now, the new power cycle begins with the force pistons (4.16) in the top dead center. When the lowering of the force piston (16), the rigid joint (15) and the suction piston (11) is activated, the latter generates a vacuum in the suction cylinder (10) and in the fluid loading line ( 24, 25), achieving an upward flow of fluid through the fluid loading line (24.25). At the end of the force piston stroke (16) to the bottom dead center, a specific volume of fluid is stored in the suction cylinder (10).

When the fluid contained in the suction cylinder (10) descends through the discharge pipe (27,28) by gravity, the piston forces (16), when submerged in fluid, the counterweight (21) is activated, achieving ascent in force piston assembly (16), rigid joint (15) and empty suction piston (11) (figure 2)

Thus, the engine of the invention combines the operating principles to start its power cycle under either of the two methods, without altering its operation.

Example 1: Generation of one hundred kilowatts of electrical energy, taking advantage of the force of gravity This embodiment of the invention begins its force cycle with the force pistons (4, 16) in the top dead center. Each force piston has a height of seven meters (7 m) and a diameter of six meters (6 m). The force pistons (4.16) are completely filled with water, so they have a mass of one hundred ninety-seven thousand nine hundred and twenty-eight kilograms (197,920.8 kg), plus the weight of the building material, that in the present example, a36 steel corresponds, but it should be understood that any type of metal or resistant alloy can be used.

Due to the force of gravity, the force pistons (4, 16) provide a descending axial force of one million nine hundred forty thousand nine hundred forty Newton (1 '940,940 N). In this case, the force pistons (4.16) are braked by means of an electro brake which, when deactivated, activates the lowering of the force piston (16), the rigid joint (15) and the suction piston (11). . The force pistons (4, 16) are located inside force cylinders (31, 32), made of a36 steel, these force cylinders have a height of eight meters (8 m) and a diameter of six zero point one meter (6.01 m) each.

The suction pistons (8, 11) have a diameter of six point zero one meters (6.01m) and a height of zero point four meters (0.4 m), working at a vacuum pressure of minus eleven point five pounds per square inch (-11.5 Psi). This empty suction piston has two dynamic seals housed in its perimeter, which when descending by gravity, due to the descent of the force piston to which it is attached, generates a vacuum pressure in the suction cylinder and in the fluid loading pipe (14), managing to generate an upward flow of fluid through the fluid loading line (14).

The stroke or descent of the force pistons (4.16) has a duration of eighteen seconds (18 s). At the end of this race, the force piston (16) is in the lower dead center, managing to store a total volume of twenty-nine cubic meters (29 m ³ ) of fluid in the suction cylinder (10). The suction cylinders (5.10) have a height of one point five meters (1.5 m) and a diameter of six point zero three meters (6.03 m), in order to accumulate the fluid necessary to guarantee the ascent of the force piston (16) in the following cycle.

At the end of the downward stroke of the force piston (16), the gravity descent of the fluid contained in the suction cylinder (10) through the discharge pipes (9,13) to the force cylinder (32) is activated. .

In this mode, the force pistons (4,16) are held by guayas and pulleys to two independent weights (21). These two weights have a weight greater than the weight of the structure of the force piston (16), the rigid joint (15) and the suction piston (11) without water. For the force piston (16), being submerged in water and at the same time being full of water, the loads are equalized by the density of the fluids activating the weight of the weight (21), in order to achieve ascent as a whole of the force piston (16), the rigid joint (15) and the suction piston (11). To ensure the generation of energy continues while the force piston (16) is rising, the second force piston assembly (4) is activated, the rigid joint (35) and the suction piston (8).

The time it takes to travel a meter (1 m) of descent and ascent of the force piston (16) is calculated according to the time it takes to fully discharge the force cylinder (32), which contains the same accumulation volume of the suction cylinder (10), which is twenty-nine cubic meters (29 m ³ ), through the discharge pipes (high density polyethylene pipe material) (36, 37), which have a diameter fourteen inches each, towards the lower fluid accumulation tank (19). The two sets take the same time since their pipes have the same diameter. To achieve the upward fluid stroke of the lower fluid accumulation tank (19) to the empty suction cylinder (10) through the fluid loading pipe (14), the internal fluid volume of the fluid loading pipe is calculated ( 14), then multiply by the density of the fluid circulating in the pipeline (H2O) and at this value it is multiplied by a constant twelve (12), obtaining a value in kilograms. This value is necessary to break the inertia of the system and thus achieve the ascent of the fluid from the bottom up through the fluid loading pipe (14).

To calculate the electric generation, the work of one of the two pistons is used and divided by the discharge time of the force cylinder. This result reduces the resistance of the dynamic seal of the hydraulic piston when it descends and the force used to lift the fluid through the load line to the hydraulic cylinder.

Example 2: Generation of one hundred kilowatts of electrical energy, using the Archimedes principle the force of gravity

This mode starts its force cycle with the force cylinder (32) completely filled with fluid (17) and with the force pistons (4.16) in the bottom dead center. The Force pistons have a height of seven meters (7 m) and a diameter of six meters (6 m) each. The force pistons (4.16) are completely filled with air and, being submerged in fluid, according to the Archimedes principle, provide upward axial force of one million nine hundred forty thousand nine hundred forty Newton (Γ940,940 Ν).

The force pistons (4.16) are located inside force cylinders (31, 32), made of a36 steel, with a height of eight meters (8 m) and a diameter of six zero point a few meters (6 , 01 m) each. In this case, the force pistons (4, 16) are braked by means of an electro brake which, when deactivated, activates the overall rise of the force piston (16), the rigid joint (15) and the suction piston (11) .

The suction pistons (8, 11) have a diameter of six point zero one meters (6.01m) and a height of zero point four meters (0.4 m) each, and work at a vacuum pressure of minus eleven point five pounds per square inch (-11.5 Psi). This suction piston (11) has two dynamic seals housed in its perimeter, which when ascending by the Archimedes principle generates a vacuum pressure in the suction cylinder (10) and in the fluid loading pipe (14), achieving a current of upward fluid through the fluid charging line (14).

The stroke or ascent of the force pistons (4.16) takes a time of eighteen seconds (18 s). At the end of this race, the force piston (16) is in the top dead center, managing to store a total volume of twenty-nine cubic meters (29 m ³ ) of fluid in the suction cylinder (10).

The suction cylinders (5, 10) have a height of one point five meters (1.5 m) and a diameter of six point zero three meters (6.03 m), in order to accumulate the necessary fluid to guarantee the Ascent of the piston force (16). The force pistons must be completely submerged in water during the run of a meter, to guarantee the generation of one hundred kilowatts. At the end of the upward stroke of the force piston (16), the gravity descent of the fluid contained in the suction cylinder (10) through the discharge pipes (38,39) is activated, towards the force cylinder (31). By completely lowering the fluid by gravity from the suction cylinder (10), the discharge valves (18) are activated, achieving the descent by gravity of the fluid from the force cylinder (32) to the lower fluid accumulation tank ( 19). As the force cylinder (32) begins to empty, the assembly formed by the force piston (16), the rigid joint (15) and the suction piston (11) descends by gravity. To ensure the generation of energy continues while the force piston (16) is descending, the second set comprising the force piston (4), the rigid joint (35) and the suction piston (8) is activated.

The time it takes to travel the run of one meter (1 m) of ascent and descent of the force piston (16) is calculated by the time it takes to fully discharge the force cylinder (32), which contains the same accumulation volume of the suction cylinder (10), which is twenty-nine cubic meters (29 m ³ ), towards the lower fluid accumulation tank (19) through the discharge pipes (36, 37) that have a diameter of fourteen inches each. The two sets take the same time since their pipes have the same diameter.

To allow the lowering of the suction pistons (8,11), the sequence of discharge cycles is from the suction cylinder (5) to the force cylinder (32) and then from the suction cylinder (10) to the force cylinder (31) (figure 5). This embodiment of the invention can also work with a counterweight (21).

To calculate the electric generation, the work of one of the two pistons is used, divided by the discharge time of the outer cylinder. This result reduces the resistance of the dynamic seal of the hydraulic piston to descend and the force used to lift the fluid through the load line to the hydraulic cylinder. The force piston must have an extra mass, which must be greater than the resistance of the dynamic seal to descend, in this way the joint descent of the force pin is guaranteed the rigid joint and suction piston to its lower dead center. Example 3: Generation of one hundred kilowatts, taking advantage of the force of gravity and the principle of Archimedes in a combined way.

This embodiment of the invention can start its force cycle with the force cylinders (4, 16) alternately in the upper dead center or in the lower dead center. These two pistons have a height of fourteen meters (14 m) and a diameter of six meters (6 m) each. Being an engine that takes advantage of the force of gravity and the Archimedes principle in combination, the force pistons (4.16) have half their volume full of fluid and the other half full of air. Thus, the force pistons (4.16), having half their volume full of air, are influenced by the Archimedes principle, producing an ascending axial force of one million nine hundred forty thousand nine hundred forty Newton (1 '940,940 N). If the power cycle begins with the force piston (16) in the bottom dead center and with the force cylinder (32) completely filled with fluid (17). The force pistons (4.16) are located inside force cylinders (31, 32), which have a height of fifteen meters (15 m) and a diameter of six zero point one meters (6.01 m) each. In this case, the force pistons (4.16) are braked by an electro brake, with a braking force greater than the sum of the force of the two force pistons (4.16). When the brake is deactivated, the ascent of the force force piston (16), the rigid joint (15) and the suction piston (11) begins.

The suction pistons (8, 11) have a diameter of six point zero one meters (6.01m) and a height of zero point four meters (0.4 m), working at a vacuum pressure of minus eleven point five pounds per square inch (-11.5 Psi), due to the dynamic seals housed in its perimeter that when ascending by the Archimedes principle generates the vacuum pressure in the suction cylinder (45) and in the load pipe of fluid (22), producing an upward flow of fluid. The stroke or ascent of the force pistons (4.16) has a time of eighteen seconds (18 s).

At the end of the upward stroke, the force piston (16) is in the top dead center, managing to store a total volume of twenty-nine cubic meters (29 m ³ ) of fluid in the suction cylinder (45).

The suction cylinders (44.45) have a height of one point five meters (1.5 m) and a diameter of six point zero three meters (6.03 m), in order to accumulate the necessary fluid to guarantee the rise of the force piston (16). The force pistons must be completely submerged in water during the run of a meter, to guarantee the generation of one hundred kilowatts.

At the end of the upward stroke of the force piston (16), the gravity descent of the water contained in the suction cylinder (45) is activated, through the discharge pipes (38.39) to the force cylinder (31 ). By completely lowering the fluid by gravity from the suction cylinder (45), the discharge valves (18) are activated, achieving the gravity descent of the water contained in the force cylinder (32), towards the lower fluid accumulation tank (19). This starts the force cycle with the force piston (16) in the top dead center and with the force piston (4) in the bottom dead center. Again, the force pistons (4.16) have half their volume full of water, so they have a mass of one hundred ninety-seven thousand nine hundred twenty kilograms (197920 kg), plus the weight of the material from which be constructed, that in this case corresponds to a36 steel, the influence of gravity on the force pistons (4.16), produce a descending axial force of one million nine hundred forty thousand nine hundred forty Newton (1 '940,940 N).

When the force piston assembly (16), the rigid joint (15) and the suction piston (11) descend by gravity, a vacuum pressure is generated in the suction cylinder (42) and in the fluid loading line (24), achieving an upward flow of fluid through the fluid loading line (24). The downward stroke of the force pistons (4, 16) takes a time of eighteen seconds (18 s). At the end of the descending race, the Force piston (16) is in lower dead center, thus storing a total volume of twenty-nine cubic meters (29 m ³ ) of fluid in the suction cylinder (42). This volume of fluid stored in the suction cylinder (42) is discharged into the force cylinder (32), guarantees the upward stroke of the force piston due to the Archimedes principle, achieving continuous energy generation.

In this case, the machine combines the principles of operation to start its power cycle under either method, without altering its operation. Additionally, this modality may include a counterweight (21).

In this example, the hydrodynamic thrust and gravity motor can work independently in each module and the only combination is by discharging the fluid contained in the suction cylinders (45), to the force cylinder (32) and the same way of the suction cylinder (44) to the force cylinder (31), this in order to allow the suction pistons to descend (8.11) (figure 4).

Claims

1. Hydrodynamic system of thrust, gravity and suction comprising:

to. a force cylinder (31, 32) that houses a force piston (4, 16) inside it that is submerged in a volume of fluid (17);

b. a suction cylinder (5, 10) that houses a suction piston (8, 11) inside, connected and aligned to the force pistons (4, 16) by a rigid vertical joint (15);

C. a fluid supply system connected to the suction cylinder (5, 10) by means of a fluid loading line (14);

d. a fluid discharge system that connects the suction cylinder (5, 10) with the force cylinder (31, 32);

and. pipes (22, 23) at the bottom of the suction cylinder (5, 10);

F. optionally a weight (21) connected to the force cylinder; Y

g. A mechanical power output.

The system of Claim 1, wherein the discharge valve (1, 18) is located at the bottom of the force cylinders (31, 32).

The system of Claim 1, wherein the suction piston (8, 11) has dynamic seals (30) at its perimeter.

The system of Claim 1, wherein the suction cylinder (5, 10) are located and aligned on the force cylinders (31, 32);

The system of Claim 1, wherein the force piston is suspended or submerged in a volume of fluid in its lower part of the force cylinder.

The system of Claim 1, wherein the suction piston is connected to the force piston with a rigid vertical unit.

7. The system of Claim 1, wherein the suction piston has dynamic seals in its perimeter.