BR102017000284A2 - SYNERGISTIC METHOD FOR THE GENERATION OF HYDRODYNAMIC ENERGY WITH NEUTRALIZED HEAD PRESSURE PUMP - Google Patents

Description

SYNERGICAL METHOD FOR GENERATING HYDRODYNAMIC ENERGY WITH NEUTRALIZED HEAD PRESSURE PUMP Field of the Invention [01] The present invention relates to the field of energy production and use and, more specifically, to the field of energy production. energy through hydrodynamic sources.

BACKGROUND OF THE INVENTION An energy generating station is an industrial machine or factory for the generation of mechanical, hydrodynamic or electrical energy. At the center of almost every power station is a generator, which typically includes a rotary machine that converts mechanical energy into electrical energy creating relative motion between a magnetic field and a conductor. The power source for rotating the generator varies widely - from moving water and wind, to fossil fuels (such as coal, oil / oil and natural gas) and nuclear material. In recent times, however, due to the depletion of fossil fuel reserves and the environmental impact of their use in power generation, abundant and cleaner alternatives for power generation have become more popular. One of the cleanest alternatives is hydropower; however, hydropower is limited by the size of lakes kept in reservoirs or behind dams. Such water has a potential energy that, when released, will provide energy in a certain way. The standard form used today is to allow water flow to spin a turbine at the maximum speed point of the turbine's energy curve to generate maximum energy. In a theoretical example, in a 200 foot height system with a 5 foot diameter Wheel / Turbine, 30 "bucket area, at 400 GPM (Gallons Per Minute) flow, we have already calculated 15 kilowatt theoretically available energy , which deploys in multiple pumps to pump water back to a height of 200 feet, with 40% efficiency, we can expect about 160 GPM of pumping output. In our method, we use the same potential energy over the same turbine, to directly drive a pump using another higher torque energy curve point at about 10% of turbine speed and 90% of torque (controlling and reducing flow using a valve under the turbine), such a method does not it will change the value of available potential energy but will move the power utilization point on the curve toward maximum torque, minimizing flow to 40 GPM, and also minimizing available energy to 1.5 kilograms. s axes the additional driving force of approximately 2600 Ibf (and an energy output torque equivalent to about 4500 ft-lbf) where 1 ft -Ibf is sufficient energy to lift one Pound, one foot vertically per second, theoretically allowing to pump About 160 Gallons Per Minute at 200 Ft Reservoir Height, with only 40 GPM downflow. In this alternative method, we have a 120 GPM Net Gain available to be launched over the second turbine into a 200 foot high housing, to generate what we have already estimated about 4 kilowatt of power as usual, but without draining the reservoir. upper or lake.

[03] With respect to power generation savings, theoretical calculations show that having at least two turbines and one pump in sequence, according to the method described above, produces a similar number of Watts generated per Flux per last turbine in series. but without depleting the upper reservoir or the lake behind a dam. Energy production, then, is only limited to the number of turbines used, rather than the size of the lake behind the dam or the size of the upper reservoir. Limits on the amount of energy available from hydrodynamic facilities will be eliminated and hydrodynamic energy could cover 100% of our human energy needs. The cost of producing hydrodynamic energy is already cheap but limited, and will decrease further when a dam's energy utilization potential is increased.

[04] Hydropower is limited. Hydroelectric refers to electricity generated by hydroelectric energy, for example, the production of electrical energy through the use of the gravitational force of falling water. However, the limited availability of hydropower can be resolved through the use of synergistic turbine assemblies where we can have the energy production process pass in multiple steps before a certain controlled flow can be advanced to the production turbine and where Net energy produced is dependent on height and number of turbines. The alternative method will consist of at least two turbines and the assembly pumping device.

[05] Energy pump utilization increases with high head pressure. Another major problem with hydropower is in low usage times where a PSH system is used to save unused energy by pumping water back to higher level reservoir so that it recovers its potential energy, however the main problem in the PSH method is the lower efficiency, where the energy is spent on high head overcoming or endurance. To save energy we need not waste more energy, but instead we need to use higher suction torque energy that can be obtained without requiring a high volume of water flow. In our method, high suction torque is delivered to the pump or jet of a first turbine to ensure pumping capacity without the need to spend more Watts, but the minimum flow allowed by the first turbine will be deducted from the total pumping volume for calculate the net pumping volume.

[06] Connecting a pump or jet to a turbine wheel using a gear or axle can create a hoist such as the lever system, but with the larger force and the larger arm (the wheel torque and diameter) situated on one side of the lever. In an ordinary hoist, such a configuration results in distance gain, causing the lifting wire to allow use limited to the length of the wire. In our system, the water flow replaces the lift wires and the distance gain is actually a gain in pumping flow speed, where for every gallon falls from top to bottom of the housing to drive the wheel, we have more gallons pumped. bottom-up housing / box causing net gains in gravitational energy storage. FIG. 12

[07] Consequently, there is a need to overcome the problems with the prior art / technique as discussed above, and particularly for a more efficient way of providing cleaner, more abundant, more environmentally friendly and recycling alternatives for the production of namely the production of hydroelectric power.

SUMMARY OF THE INVENTION [08] A method for hydrodynamic energy generation and the neutralized head pressure pump assembly is provided. This Summary is provided to introduce a selection of concepts disclosed in a simplified form which are further described in the "Detailed Description" including the drawings provided. This Summary is not intended to identify the main features or essential features of the claimed subject matter. This Summary is not intended to be used to limit the scope / scope of the claimed subject matter.

[09] In one embodiment, the method for hydrodynamic energy generation includes providing a housing comprising a hollow interior, pumping water through the housing using a pump located at a bottom of the housing, the pump equipped with a first fluid inlet directs fluid from a turbine high head pressure housing and a second fluid inlet that routes fluid from a second low head housing. Providing a first vertically aligned housing within the housing, wherein the first vertically aligned housing has a first opening at an upper end and a second opening at a lower end interfacing with the first fluid inlet, mechanically coupling a first water wheel. , located below the first opening at the bottom end and inside the first housing for mounting the pump. A pumping jet is moved when the first water wheel is moved by water falling into the first compartment, providing a flow control valve in the second opening of the first compartment, providing a second vertically aligned compartment within the housing, wherein the second The housing has a first aperture at an upper end and a second aperture at a lower end which interacts with the second fluid inlet, mechanically coupling a second water wheel near the second aperture of the second compartment to a generator for generating rotating electrical energy or mechanically, by the generator, when the second water wheel is moved by water flow means which then exits the lower end of the second compartment, reading the data from a controlled water level under the second turbine. Providing a third vertically aligned housing within or adjacent to the housing, wherein the third housing has a first opening at an upper end and a second opening at a lower end, wherein the upper end of the third housing is in fluid communication with the first and the second compartment, providing a fourth compartment within the housing arranged near the lower ends of the first, second and third compartments, wherein the second apertures of the first, second and third compartments provide fluid communication with the fourth compartment, a pump or a jet to remove water from the fourth housing to the third housing, where the pump is mechanically coupled to the first water wheel through the outer gearbox, the well or chain / chain and at least partially powered by the generator or power source external and conductively coupling the si hydrodynamic energy generation system with the external energy source through a coupling.

The foregoing features and other prior advantages will be apparent from the following more particular description of the preferred embodiments as illustrated in the accompanying drawings.

BRIEF DESCRIPTION OF THE DRAWINGS The subject matter, which is considered as the invention, is particularly pointed to and distinctly claimed in the claims at the conclusion of the specification. The foregoing and other features as well as the advantages of the invention will be apparent from the following detailed description taken in conjunction with the accompanying drawings. In addition, the leftmost digit of a reference number identifies the drawing in which the reference number first appears.

[012] FIGURE 1 is a diagram illustrating the hydrodynamic energy generation system according to a form of embodiment.

FIGURE 2 is a diagram of a neutralized head pressure pump according to an alternative embodiment.

FIGURE 3 is a flowchart showing the hydrodynamic power generation method according to one embodiment.

FIGURE 4 is a block diagram of a system including an example of computing apparatus and other computing apparatus.

[016] FIGURE 5 is a diagram of a neutral pressure pump flow inlet, according to a embodiment.

FIGURE 6 is a diagram illustrating a gear system and a water wheel of the hydrodynamic power generation system in accordance with yet another alternative embodiment.

[018] FIGURE 7 is a diagram illustrating the energy curve utilization of each turbine of the hydrodynamic power generation system.

FIGURE 8 is a flowchart illustrating the method of synergistically managing potential energy use.

[020] FIGURE 9 is a diagram illustrating the method of mechanical communication of water balance forces.

[021] FIGURE 10 is a diagram illustrating the example and flow method of the neutralized pressure pump.

FIGURE 11 is a diagram illustrating an internal jet and a water wheel of the hydrodynamic power generation system, in accordance with yet another alternative embodiment.

FIGURE 12 is a diagram illustrating the example of distance gain lever system when both large forces and the large arm are situated on one side of the lever. The system water flow in the example resembles a chain on a pulley crane.

Detailed Description of the Invention The following detailed description relates to the accompanying drawings. Wherever possible, the same reference numerals are used in the drawings and the following description to refer to the same or like elements. While embodiments of the invention may be described, modifications, adaptations, and other implementations are possible. For example, substitutions, additions or modifications may be made to the elements illustrated in the drawings, and the methods described herein may be modified by substituting, reordering or adding stages to the disclosed methods. Accordingly, the following detailed description does not limit the invention only. Instead, the appropriate scope of the invention is defined by the appended claims.

According to the embodiments described herein, a neutralized pressure pump at the bottom of a hydrodynamic power generation system is disclosed that overcomes the problems with the prior art as discussed above, providing a power generation system using the renewable, efficient and clean energy and produces no waste. As an improvement over conventional power generation systems, the disclosed systems allow for energy production through the unique use of abundant and renewable potential falling water energy or a recycled method without the disadvantages of burning fossil fuels. - eg waste products. Also, the hydrodynamic power generation system provides a system with a minimum number of component parts, thereby reducing the potential for failure or malfunction of its combination parts. In addition, the minimum number of component parts enables quick and inexpensive manufacture of combination parts, thus resulting in an economical system. Finally, the hydrodynamic power generation system is easily maneuverable, easily transportable, inexpensive to manufacture and light in its physical characteristics.

[026] In this embodiment, the high pressure forces working against pumping efforts will be used in a favorable direction by circulating fluid through a second pump inlet to drive a water wheel which is in its own right. coupled through gears to drive the pump. For such use to be possible, we needed to have two inlets before the pump, a gearbox well or the chain that allows the water wheel and pump to be coupled in FIGURES 6 and 7. This is not the first time in history to use the opposing force energy in a favorable direction and the good example is the work of Herman Fottinger around 1904 who was able to benefit from the hydrodynamic energy of the water jet created behind a ship by changing its direction of force through a hydrodynamic transmission and apply its force to spin / rotate the ship's engine. In his case, the water jet was already there and needed a method of applying its force in the opposite direction to help drive the ship's engine. In our case, we needed to create the path of such hydrodynamic movement behind the pump to peripherally contact and drive a water wheel, which is mechanically coupled to drive the pump.

[027] The embodiment of the method and the hydrodynamic energy generation system are described for now with reference to FIGURES 1 to 12 below.

[028] FIGURE 1 is a block diagram illustrating the hydrodynamic power generation method and system 100 according to a embodiment of embodiments. In a non-limiting embodiment, the method and system 100 may include a housing 105 or other vertically aligned member comprising a hollow interior. The housing may comprise a tubular shaped body and may alternatively incorporate a horizontal part or different portions into a variety of sequences or configurations. In other embodiments, the housing may comprise a cube or other hollow shaped bodies. The housing may comprise material with properties capable of containing water, such as aluminum, alloys, iron, glass, ceramics, plastics, any combination thereof. Hydrodynamic power generation system 100 may be submerged wholly or partially in a body of water (such as an ocean, lake or river).

[029] The box or housing has at least three vertically aligned compartments. However, in a submerged configuration, one or more compartments may be replaced by means surrounding a lake or reservoir. In the present embodiment, the first vertically aligned compartment 110 (called a preferred gravity compartment) is located between the second vertically aligned compartment 140 (called the preferred pressure compartment) and the third vertically aligned compartment 170 (called the preferred pressure compartment). fluid movement fluctuation, where buoyancy factors may be applicable to help the fluid move up). However, this is not a limitation and the first compartment can be positioned in other configurations. A fourth compartment 187 is located within the housing and near the lower ends of the first, second and third vertically aligned compartments and partly comprises the pump feed path. The fourth compartment may be positioned below the second compartment by traversing / covering the entire lower end of the first compartment. The fourth compartment may also be positioned such that a portion of the second and third compartments are positioned on top of the fourth compartment and a portion of the second and third compartments are positioned on the sides of the fourth compartment. However, other forms of personifications are within the spirit and scope of the invention.

[030] In the present embodiment the compartments are defined by vertical and horizontal walls or structures 167 within the housing. The first vertically aligned housing within the housing has a first opening 155 at an upper end 145 and a second opening 156 at a lower end 150 of the housing. The second lower end opening of the first compartment is configured for valve controlled fluid to flow or drain from the first compartment to the fourth compartment, the control valve can be manually or electronically adjusted and monitored. A first water wheel and / or turbine 165 is near the second opening of the first compartment. The flow of water through the opening 156 is configured to move in a peripheral contact around the water wheel 165 and may be the jet driven by using an internal jet fed by an external power source FIGURE 11, The first water wheel or The turbine is mechanically coupled to pump through a well or gearbox (or reverse speed reducer) 196 that produces rotational energy when the first water wheel is driven by water leaving the lower end of the first housing. The first water and / or turbine wheel may comprise a rotary machine that converts hydrodynamic energy into mechanical energy driving a gearbox 196 (further illustrated in FIGURE 6 and explained below), which produces and manipulates a rotational energy between the first water wheel disc (165) and the external jet pump disc (190). The amount of rotational torque energy generated by the first turbine is proportional to the elevation of the first compartment and the surface area of the first pressing wheel buckets.

The second vertically aligned housing has an upper end 115 and an opposite lower end 120. A first opening 125 is located at the upper end of the second housing and configured to allow water to flow into the second housing. A second opening 126 is located at the lower end of the second compartment and is configured to allow water to flow out or out of the second compartment and flow into the fourth compartment 187. The present embodiment may further include a valve 130 coupled to the upper end second compartment to control and regulate an amount of water entering the opening at the upper end of the second compartment through the first opening and the water level at the bottom of the second compartment in coordination with a special water level sensor and also in coordination with the flow rate of the pump. Valve 130 may comprise one or more valves for regulating water flow, such as a ball valve, a butterfly valve, a gate valve, a globe valve, a needle valve, a carriage valve or a valve. of security. Valve 130 may furthermore be a check / check valve or foot valve, which are one-way valves that only allow water to flow in one direction.

The present embodiment may also include an energy producing water wheel and / or a turbine 135 (chained or otherwise mechanically coupled with a generator 195), wherein the water wheel 135 and / or turbine is located. below valve 125. The generator produces electrical power when water wheel 135 and / or the turbine is driven by water entering opening 125 and falling into the first compartment. Water wheel 135 and / or turbine may comprise a rotary machine that converts hydrodynamic energy into mechanical energy that drives the first generator (and / or other set of water pumps) that produces the electrical energy. The amount of energy generated by the generator is proportional to the amount of water falling into the second compartment and is proportional to the distance from aperture 125 to the first turbine.

The third vertically aligned housing 170 within the housing has a first opening 185 at the upper end 175 of the third housing and a second opening 188 at the lower end 180 of the third housing. The upper end of the third compartment is in fluid communication with the first and second compartments such that water can flow from the first opening 185 of the third compartment to the first and second compartments through the first first and second compartment openings 125, 155. The second lower end opening of the third compartment is configured for fluid to flow or to be pumped from the fourth compartment to the third compartment.

The fourth compartment 187 within the housing is positioned near the lower ends of the first, second and third compartments. The fourth compartment is configured such that the second apertures at the lower ends of the first, second and third compartments provide fluid communication with the fourth compartment. Additionally, valves may be used in the openings of all compartments to control the flow of fluid or water between the compartments. Such valves may comprise one or more valves for regulating water flow, such as a ball valve, a butterfly valve, a gate / gate valve, a globe valve, a needle valve, a carpool valve. or a safety valve. The valve may also be a check valve or foot valve, which are one-way valves that only allow water to flow in one direction.

[035] A pump 190 or an external jet for moving water from the fourth compartment 187 into the third compartments 170 is positioned near the second opening of the third compartment. The pump is mechanically coupled to the well, chain or gearbox 196 and is adapted so that it can be at least partially powered by the generator or external power. In other embodiments, additional pumps may be used, as in FIGURES 2 and 6. The pump, or any other item of the present embodiment (such as the first wheel, alternatively driven by external energy) which may require electricity it can be coupled (via a conductive coupling) and powered from an external power source. Such an external power source may perhaps be the power grid or other power producer such as solar power, wind power, hydro power, nuclear power, battery power, etc.

The structure comprised of the pump 190, the fourth compartment, the first turbine (165), the low head pressure fluid opening or inlet (126) and the high fluid head pressure route inlet (156) and the external gearbox (the reverse speed reducer) all together comprise a "neutralized pressure pump" wherein the head pressure applied to propelling the first turbine is equal (or more when fluids begin to acquire speed) from the that the head pressure faces the external jet at any given elevation and as a result, the pump head pressure is calculated alternatively by the pump head torque or impellers where (Head Torque = Pump Load Torque - first output / turbine torque output).

[037] In the event, method and system 100 is a net energy consumer, system 100 has identical utility in certain dynamics to a pulsed storage hydroelectricity system. However, the disclosed system is different in that, due to the installation below the surface of a body of water, or due to equal elevation of water in first and third compartments and presence water balancing forces, pumping water no longer requires energy, when the elevation between the storage level (or water return level) and the pump level is increased due to the use of equal values or the challenging head pressure balance facing the pump and the first turbine drive torque , which forces through the connected gearbox to drive the rotational energy of the pump. As this is well known in the art that pumped storage hydroelectricity is a net energy consumer and still has a known utility. Pumped Storage Hydroelectricity (PSH) is a type of hydropower storage used by electric power systems to balance the load. The method stores energy as the gravitational potential energy of water pumped from a lower elevation reservoir. Low-priced acute off-peak power is used to run the pumps. During periods of high electrical demand, turbines produce electricity. Although losses from the pumping process make the plant a net consumer of energy in general, the system increases throughput by selling more electricity during peak demand periods when electricity prices are higher. This same utility can apply to system 100, while a better return can be calculated.

[038] In onshore installations of PSH systems, water driven to higher storage levels consumes more energy than energy is wasted to overcome higher head pressure, and negative net energy remains at all times. However, in the disclosed system, while the majority of energy can be obtained from deeper systems of dropped water through an inlet, pumping a fixed amount of water out of the system consumes a similar amount of energy at different depths. , due to the neutralization of the pressure factors in the known pumping formula using the gearbox between the outer jet pump (190) and the first turbine (165). The formula in general is (pumping energy growth = change or change in head pressure flow) and, in our system, a change in head pressure is eliminated by mechanically communicating water balancing forces. as in FIGURE 9, anyway of the pumping elevation. And the formula is (the pumping energy = 1 * constant system flow *) where 1 in the formula replaces the change in head pressure over the system height charges / charges, and is the ratio of head pressure in the third compartment for head / main pressure in the first compartment, and where the system constant differs according to the system specifications, which means that both flow and pumping energy remain the same despite elevation, thus giving rise to the potential that at some depth the energy produced may exceed the energy consumed. In the disclosed or described system, if falling water produces more energy as the system is deployed to a deeper depth and when discharging falling water consumes the same amount of energy regardless of depth, then the disclosed system can reach a some depth the level of being a net producer of energy. Such gain is not produced from breaking physical laws, but more likely from synergistic management, it is a system open to potential energy, where by definition of thermodynamics, a system is not considered closed if the system is open to potential energy. However, the existing practice of using potential power is limited to flow (where the energy produced is relevant to the system height and flows over a turbine), whereas in the system we have an alternative use where in the first turbine the torque produced is the relevant energy for the system height and bucket surface area and the wheel size. Second, when the diameter ratio of the first turbine disc (165) and the outer jet driving disc or outer pump (190) is greater than 1, then based on this ratio we can establish a secondary gain in the storage of gravitational energy to torque gain, pump head, which can be translated into gain in pumping flow velocity or pumping flow volume, based on the hoist lever calculation discussed above.

[039] Hydrodynamic Power Generation Method 100 and System 100 may be more mechanically stationary and fixedly fixed in place, such as by attaching the system to one or more of a concrete block, metal constructions, or any other fixed support. In one embodiment / embodiment, the housing includes a valve-coupled filter at the top of the housing, wherein the filter eliminates unwanted debris from water flowing through the valves. It is desirable to eliminate the ingress of debris and other unwanted materials in order to reduce or eliminate obstructions and other malfunctions.

[040] The present embodiment may further include a first sensor 136 for detecting water flow and level as water falls into second compartment 110 through inlet 125. The first sensor may be an accelerometer, a water flow sensor. , a temperature sensor, a conductance measuring device, a barometer, mm pressure sensor, etc. The present embodiment may also include a second sensor 166 for detecting an amount of water flowing into the first compartment 140. The second sensor may be an accelerometer, a water flow sensor, a temperature sensor, an apparatus or device for conductance measurement, a barometer, a pressure sensor, etc. The present embodiment may also include a third sensor 186 for detecting an amount of water flowing into the third compartment 170 and for detecting the water level in the third compartment. The third sensor may be an Accelerometer, a Water Flow Sensor, a temperature sensor, a conductance measuring device or apparatus, a barometer, a pressure sensor, etc. The present embodiment may also include a fourth sensor 191 for detecting an amount of water flowing into the fourth compartment 187. The second sensor may be an accelerometer, a water flow sensor, a temperature sensor, a water flow measuring device. conductance, a barometer, a pressure sensor, etc. In FIGURE 1, the first, second, third and fourth sensors may be an integrated unit or may comprise a plurality of sensors distributed throughout the system and method 100 at different locations.

The present embodiment may further include a computer or a control processor 199. The processor may be communicatively coupled with valve 130, first generator 195, first water wheel or turbine 165, second water wheel or turbine 135, pump 190 and sensors 136, 166, 186, 191 and as well as power source 197 and the second generator or gearbox 196. In one embodiment, processor 199 may be a central processing unit, the microprocessor , the integrated circuit, the programmable device or the computing device as defined below with reference to FIGURE 4. The control processor 199 is configured to read data from the first, second, third and fourth sensors, the first generator, the second generator or gearbox, and the first and second wheels of water or turbines and sending the control signals to the valve and to the pump and second turbine, where the control signals are con shown to activate the valve to regulate an amount of water entering the first inlet of the upper end of the first compartment, to activate the pump to move water from the fourth compartment into the third compartment and to regulate an amount of water held in the first, second and third compartments.

[042] As water moves from the fourth compartment 187 and into the third compartment 170, the water level rises in the third compartment until water flows into the first and second compartments. As water flows into the second compartment, gravity forces the water to move the second water wheel above the controlled water level. As for example, water flows into the first compartment, the difference in water level between the second compartment and the first compartment, while interconnected, forces the water to move to the lower end of the second compartment and into the fourth. compartment thus moving the first water wheel by the main head thrust as water exits the first compartment. In the present embodiment, the first water / turbine wheel is positioned within the fourth compartment near the second inlet of the first compartment. However, in other embodiments, the water wheel may be positioned near the second inlet and within the first compartment.

FIGURE 3 is a flow diagram illustrating process flow 300 of method and system operation 100 according to a non-limiting embodiment. The first, in phase 302, the first, third and fourth compartments are filled with water to a certain level using an external power source. The external power source may be External Power Source 197. As mentioned above, the external power source may be generated from mains, solar power, wind power, nuclear power, etc. Then, at step 304, the pump 190 is activated to cause water inside the fourth compartment 187 to flow into the third compartment through inlet 188. As the pump moves the water into the third compartment, the water level rises from the third compartment, rises until water flows into the first and second compartments. As for example, water begins to fall freely in the second compartment, water flows through the second turbine. As water passes through the second water / turbine wheel and into the lower end of the second compartment, the process moves to phase 305 and electrical power is generated through the turbine.

As water continues to flow from the third compartment into the first compartment 140, the process moves to phase 306. In phase 306, as water enters the first compartment, water flows through the first water wheel. water as it exits from the first compartment to the fourth compartment through inlet 156. Next in step 308, as water begins to flow into the fourth compartment, the second water wheel or turbine 165 rotates and the housing gears gears or generator are rotated generating mechanical energy. After the gears are activated, the process moves to step 310 and the gears or generator can generate power to at least partially power the pump. At step 309, the pump may be supplied or supplied with power by external power source 197 to partially power the pump. After the pump is activated, the process moves to step 312. In step 312, water from compartment one and two entering compartment four can be used to continuously increase the water level of compartment three. As the water level of compartment three increases, the process moves back to step 304 and continues until a user wishes to complete the process. Additionally, at step 314, the power generated by the generator or the power supplied by the external power source and by use to power any system component as well as to provide power to monitor and regulate the valves and to control the system components.

FIGURE 4 is a block diagram of a system including an example computing device 400 and other computing devices. Consistent with the embodiments described herein, the above actions performed by computer 199 may be implemented on a computing device, such as the computing device 400 of FIGURE 4. Any suitable combination of Hardware, Software or Firmware may be used to implement computing device 400. The above-mentioned system, device and processors are examples and other systems, devices and processors may comprise the above-mentioned computing device. In addition, computing device 400 may comprise an operating environment for the method illustrated in FIGURE 3 above.

Referring to FIGURE 4, a system consistent with one embodiment of the invention may include a plurality of computing devices, such as computing device 400. In a basic configuration, computing device 400 may include at least one embodiment. processing unit 402 and system memory 404. Depending on the configuration and type of computing device, system memory 404 may comprise, but is not limited to, volatile (e.g., Random Access Memory (RAM)), non-volatile (for example, Read Only Memory (ROM)), flash memory, or any combination or memory. System memory 404 may include operating system 405, one or more programming modules 406 (such as program module 407). Operating system 405, for example, may be suitable for controlling the operation of computing device 400. In one embodiment, programming modules 406 may include, for example, a program module 407. In addition, embodiments of the invention they may be practiced in conjunction with a graphics library, other operating systems or any other application program and are not limited to any application or system. This basic configuration is illustrated in FIGURE 4 by those components within a dotted line 420.

[047] Computing device 400 may have additional features or additional functionality. For example, computing device 400 may also include additional data storage devices (removable and / or non-removable) such as, for example, magnetic disks, optical disks or recording devices. Such additional storage is illustrated in FIGURE 4 by a removable storage 409 and a non-removable storage 410. Computer storage media may include volatile and non-volatile removable and non-removable media implemented in any method or technology for storing information. such as computer readable instructions, data structures, program modules, or other data. System memory 404, removable storage 409, and nonremovable storage 410 are all examples of computer storage media (i.e. memory storage). Computer storage media may include, but is not limited to, RAM, ROM, Electrically Erasable Read-Only Memory (EEPROM), flash memory, or other memory technology, CD-ROM, digital versatile discs (DVD). or other optical storage, Magnetic Cassettes, magnetic tape / recording, magnetic disk storage or other magnetic storage devices or any other means that may be used to store information and which may be accessed by computing device 400. Any such storage media or computer media may be part of device 400. Computing device 400 may have input device (s) 412, such as a keyboard, mouse, pen, sound input device, camera , a touch input device, etc. 414 devices such as a monitor, speakers, or speaker, a printer may also be included. The above mentioned devices are examples only and other devices may be added or replaced.

[048] Computing device 400 may also contain a communication connection 416 that may allow device 400 to communicate with other computing devices 418, such as over a network in a distributed computing environment, for example, an intranet or the Internet. . Communication connection 416 is an example of communication media. Communication media may typically be incorporated by computer readable instructions, data structures, program modules, or other data into a modulated data signal, such as a vehicle wave or other transport mechanism, and include any information distribution means. . The term "modulated data signal" may describe as a signal having one or more characteristics configured or altered in such a manner as to encode information in the signal. For example, and not limitation, communication media may include wired media such as a wired network or direct connection, and wireless media such as acoustics, radio frequency (RF), infrared, and other media. wireless. The term computer readable media as used herein may include both computer storage media and media.

[049] As shown above, a number of program modules and data files may be stored in system memory 404, including operating system 405. While running on processing unit 402, programming modules 406 may perform processes including, for example, one or more of the methods shown in FIGURE 3 above. The computing device 402 may also include a graphics processing unit 403, which supplements the processing capabilities of processor 402 and which may execute programming modules 406, including all or a portion of those processes and methods illustrated in FIGURE 3 above. The above processes are examples, and processing units 402 and 403 may perform other processes. Other programming modules that may be used in accordance with embodiments of the present invention may include email and contact applications, word processing and spreadsheet applications, database applications, slideshow applications , design or computer aided application programs, etc.

Generally consistent with embodiments of the invention, program modules may include routines, programs, components, data structures, and other types of structures that may perform particular tasks or that may implement particular abstract data types. In addition, embodiments of the invention may be practiced with other computer system configurations, including handheld devices, multiprocessor systems, microprocessor-based or programmable consumer electronics, minicomputers, mainframe or central computers, and the like. Embodiments of the invention may also be practiced in distributed computing environments where tasks are performed by remote processing devices that are connected via a communications network. In a distributed computing environment, program modules can be located on both local and remote memory storage devices.

In addition, embodiments of the invention may be practiced in an electrical circuit comprising discrete electronic elements, packaged or integrated electronic chips containing logic gates, a circuit utilizing a microprocessor or a single chip (such as a Chip System) containing electronic elements or microprocessors. Embodiments of the invention may also be practiced using other technologies capable of performing logical operations such as, for example, AND, OR, and NOT, including but not limited to mechanical, optical, fluid and quantum. Additionally, embodiments of the invention may be practiced within a general purpose computer or any other circuit or system.

Embodiments of the present invention, for example, are described above with reference to block diagrams and / or operational illustrations of computer program methods, systems and products in accordance with embodiments of the invention. The functions / acts observed in the blocks may occur out of order as shown in any flowchart. For example, two blocks shown in series may actually be executed substantially concurrently or the blocks may sometimes be executed in reverse order, depending on the functionality / acts involved.

Although certain embodiments of the invention have been described, other embodiments may exist. Furthermore, while embodiments of the present invention have been described as being associated with data stored in memory and other storage media, the data may also be stored or read from other types of computer readable media such as devices. secondary storage, such as hard disks, floppy disks or a CD-ROM, or other forms of RAM or ROM. Moreover, the stages of the disclosed methods may be modified in any way, including by reordering stages and / or insertion or elimination stages, without departing from the invention.

Although the subject has been described in specific language for structural features and / or methodological acts, it is to be understood that the main subject / theme defined in the appended claims is not necessarily limited to the specific features or acts described above. Most likely, the specific features and specific acts described above are disclosed as exemplary embodiments of the claims.

FIGURE 6 is a block diagram illustrating the gearbox 196 for the power generation method and system 100 according to one embodiment. The gearbox may include a second housing 205 which houses gears and the gearbox may be interconnected with a second generator. The first water wheel or turbine may be mechanically coupled (such as through an axle) to a first gear assembly including a large gear (or disc) 202 and a small gear (or disc) 204, wherein the small gear ( or disk) 204 moves at a higher rotational speed to drive pump 190. Pump 190 pumps or moves water out of the fourth housing through opening 188 and directly into the third housing 170. In one embodiment, several sets Gear units can be chained in sequence to propagate power to other systems, pumps or gear assemblies.

[056] FIGURE 8 is a flowchart illustrating synergistic management and use of potential energy, where potential energy (negative, unavailable) follows multiple steps before it is finally used as a positive water flow energy. The method in this system begins with controlled slow flow in the first compartment of step 802, to transform negative potential energy into positive torque energy when the first wheel is moved, step 804. Then the gear is activated and the pump is started. moved, causing the first-wheel positive torque energy to convert to negative (unavailable) energy from the pumped water gravitational energy storage at phase 808. Then the obtained liquid gravitational energy storage is separated by breaking off the pumped fluid for recirculation flow, step 818, and net gain / increase flow, as in step 810. Then, the net increase in negative gravitational energy storage is converted to positive flow energy, which causes the second turbine to drive, at step 812. Next, power is generated when the second turbine, which drives the generator, is rotated at step 814.

FIGURE 9 is a box diagram illustrating a method of balancing liquids, but with the communication of balancing forces on both sides of the system (compartment 1 and 3) mechanically through the use of (turbine-gear-pump). or jet).

[058] FIGURE 10 is a diagram illustrating the flow model in a neutralized head pressure pump and the method of use and maintaining the negative torque head, regardless of system height (avoiding the increase in active pump head pressure. higher systems and avoiding as a result the increase in pumped energy consumption).

[059] FIGURE 12 is a pulley crane diagram illustrating the gain or increase in distance (from current movement) when both the large force and the large arm are situated on one side and the increase in distance was the same. purpose of use rather than balancing forces. In this system, the flow of water around the first water wheel and around the pump jet impellers, with mechanical gear connection, resemble the pulley chain movement. Using the numbers of the above mentioned system specifications, we can state that the 40 GPM (Gallon Per Minute) of water flow down in the first compartment can cause the pump to pump out about 160 Gallon Per Minute.

Claims (24)

1. METHOD FOR HYDRODYNAMIC ENERGY GENERATION characterized by providing a housing comprising a concave interior and situated between the upper and lower water reservoirs; pumping water through the housing using a first pump located at a bottom of the housing, the first pump equipped with a first fluid inlet providing fluid at low head pressure and a second fluid inlet that routes fluid through a pressure head housing. raised head; providing a first vertically aligned housing within the housing, wherein the first vertically aligned housing has a first opening / passageway at an upper end and a second opening at a lower end interacting with the first fluid inlet; mechanically coupling at least one water wheel located below the first opening at the upper end and within the first housing for the first pump; cause the first pump to start pumping when a first connected water wheel is driven by water falling into the first compartment; mechanically coupling the first water wheel, near the second opening of the first compartment, to the first pump via an external gearbox, a pit or chain; providing a second vertically aligned housing within the housing, wherein the second housing has a first opening at an upper end and a second opening at a lower end which interacts with the second fluid inlet; a second water wheel located in the second compartment; generate rotating mechanical energy or electrical energy by a generator when the second water wheel is moved by water flow before leaving the lower end of the second compartment; providing a third vertically aligned housing or tube within or adjacent to the housing, wherein the third housing has a first opening at an upper end and a second opening at the lower end, wherein the upper end of the third housing is in fluid communication with the housing. first and second compartments; providing a fourth compartment within the housing arranged near the lower ends of the first, second and third compartments, wherein the second apertures of the first, second and third compartments provide fluid communication with the fourth compartment; read data from a controlled water level under the second water wheel; the first pump to remove water from the fourth compartment into the third compartment, wherein the first pump is mechanically coupled to the first water wheel through the external shaft / shaft, chain or gearbox and at least partially fed by the generator and wherein the first pump is at least partially powered by an external power source; and conductively coupling the hydrodynamic power generation system to the external power source through a coupling. METHOD FOR HYDRODYNAMIC POWER GENERATION according to Claim 1, and further characterized by providing a turbine assembly wherein at least one turbine is dedicated to provide mechanical rotating energy to propel the pump impellers through a well / connecting shaft or gearbox. A method for the generation of hydrodynamic energy according to claim 1, further comprising a turbine assembly, wherein at least one first turbine is equipped with a flow control valve located under the turbine. Method for the generation of hydrodynamic energy according to Claim 1, and further characterized by providing a turbine assembly, wherein at least one turbine is mechanically connected to the generator. A method for generating hydrodynamic energy according to Claim 1, and further providing / providing a turbine assembly, wherein at least one first turbine is alternatively driven by pressurized steam or gas or an external power source. A method for the generation of hydrodynamic energy according to Claim 1, and further providing a multi-compartment housing located below an upper water reservoir. A method for the generation of hydrodynamic energy according to claim 1, further comprising providing a split valve located after the first pump. Method for the generation of hydrodynamic energy according to Claim 1, further characterized by detecting, using a first sensor, the water flow and the water level at the bottom of the second compartment. A method for the generation of hydrodynamic energy according to Claim 1, further characterized by detecting, using a second sensor, the flow of water through the second compartment. A method for the generation of hydrodynamic energy according to Claim 1, further comprising detecting, using a third sensor, an amount of water in the third compartment. A method for the generation of hydrodynamic energy according to Claim 1, further characterized by detecting, using a fourth sensor, the flow of water through a fourth compartment. A method for the generation of hydrodynamic energy according to Claim 1, further characterized by controlling an amount of water entering the first compartment through its first opening / inlet using a valve coupled to the lower end of the first compartment. A method for the generation of hydrodynamic energy according to claim 1, and further characterized by communicatively coupling a control processor with the first pump, the first water wheel and the generator. A method for generating hydrodynamic energy according to Claim 13, and further characterized in that the control processor is configured to read data from the first pump and the first water wheel; and sending control signals to the first pump, and the first water wheel wherein the control signals are configured to activate the pump and turbine to regulate a preserved amount and flow of water in the first, second and third compartments. A method for the generation of hydrodynamic energy according to Claim 14, and further characterized by communicatively coupling the processor to the second water wheel, wherein the processor is further configured to read data sent from the second water wheel. A method for the generation of hydrodynamic energy according to claim 1, and further characterized in that the first water wheel is a turbine. A method for the generation of hydrodynamic energy according to claim 1, and further providing a turbine assembly, wherein at least one of said turbine assembly is a motor wheel. 18. METHOD FOR GENERATING HYDRODYNAMIC POWER GENERATION characterized by providing at least a partially submerged housing comprising a concave interior; situated under a water surface of a lake or reservoir; pumping water out of the housing using a first pump located at a bottom of the housing, the first pump equipped with a first fluid inlet providing the fluid at low head pressure and a second fluid inlet that routes the fluid from a housing. high head / main pressure or system out there; providing a dedicated first compartment vertically aligned within or adjacent to the housing; mechanically coupling at least one water wheel located at the bottom of the first compartment to the first pump; causing the first pump to start pumping and move when the first connected water wheel is moved by water moving from the first compartment through the first water wheel; mechanically coupling the first water wheel near the bottom of the first compartment to the first pump via an external gearbox; providing a second vertically aligned housing within the housing, wherein the second housing has a first opening at an upper end and a second opening at a lower end which interacts with the second fluid inlet; a second water wheel located in the second compartment generating electrical rotational energy or mechanical rotational energy by a generator when the second water wheel is moved by water flow before leaving the lower end of the second compartment; providing a third vertically aligned housing within or adjacent to the housing; providing a fourth compartment within the housing arranged near the lower ends of the first, second and third compartments, wherein the second apertures of the second compartment provide fluid communication with the fourth compartment; reading data about a water level under the second water wheel; and the first pump for removing water from the fourth compartment into the third compartment, wherein the first pump is mechanically coupled to the first water wheel via an external and at least partially fed shaft / chain, gearbox or gearbox. by the generator, and wherein the first pump is at least partially powered by an external power source; and conductively coupling the hydrodynamic power generation system to the external power source via a coupling. 19. METHOD FOR HYDRODYNAMIC ENERGY GENERATION characterized by providing a system for generating the energy for a main pressure / head neutralized pump utility; providing a housing comprising a concave interior; situated between the upper water reservoirs and lower water reservoirs; pumping water through the housing using a first pump located at a bottom of the housing, the first pump equipped with a first fluid inlet that provides fluid at low head pressure and a second fluid inlet that routes fluid from a pressure head housing. raised head; providing a first vertically aligned housing within or beside the housing, wherein the first vertically aligned housing has a first opening at an upper end and a second opening at a lower end which interacts with the first fluid inlet; mechanically coupling at least one water wheel located below the first opening at the lower end and within the first housing for the first pump; causing the first pump to start pumping and move when a first connected water wheel is moved by water falling into the first compartment; mechanically coupling the first water wheel, near the second opening of the first compartment, to the first pump via an external shaft / shaft, chain or gearbox; providing a second compartment vertically aligned within or beside the housing, wherein the second compartment has a lower / lower water reservoir; an upper water reservoir above the housing for storing excess liquid flow of pumped water; providing a third housing or tube vertically aligned within or beside the housing, wherein the third housing has a first opening at an upper end and a second opening at a lower end, wherein the upper end of the third housing is in fluid communication with the first one. and second compartments; providing a fourth compartment within the housing arranged near the lower end of the third compartment, wherein the second apertures of the first and third compartments provide fluid communication with the fourth compartment; reading data from a controlled water level at the bottom of the second compartment; the first pump for removing water from the fourth compartment into the third compartment, wherein the first pump is mechanically coupled to the first water wheel through the external gearbox and at least partially powered by an external power source; and conductively coupling the hydrodynamic power generation system to the external power source via a coupling. The method for the generation of hydrodynamic energy according to claim 19, and further detecting, using a first sensor, a water flow and a water level in the second compartment. The method for the generation of hydrodynamic energy according to Claim 19, further characterized by detecting, using a second sensor, a water flow through the first compartment. The method for the generation of hydrodynamic energy according to Claim 19, further characterized by controlling an amount of water entering the first compartment through its first opening using a valve coupled to the lower end of the first compartment. The method for the generation of hydrodynamic energy according to claim 19, and further characterized by communicatively coupling a control / command processor with the first pump. 24. METHOD FOR HYDRODYNAMIC ENERGY GENERATION characterized by providing a system for generating power for a decorative waterfall pump; providing a housing comprising a concave interior; situated between the upper water reservoirs and lower water reservoirs; pumping water through the housing using a first pump located at a bottom of the housing, the first pump equipped with a first fluid inlet providing the fluid at a low head main pressure and a second fluid inlet that routes fluid from a pressure compartment high head; providing a first vertically aligned housing within or adjacent to the housing, wherein the first vertically aligned housing has a first opening at an upper end and a second opening at a lower end interacting with the first fluid inlet; mechanically coupling at least one water wheel located below the first opening at the lower end and within the first housing for the first pump; causing the first pump to start pumping and move when a first connected water wheel is moved by water falling into the first compartment; mechanically coupling the first water wheel, near the second opening of the first compartment, to the first pump via an external shaft / well, chain or gearbox; providing a second vertically aligned housing within the housing, wherein the second housing has a first opening at an upper end and a second opening at a lower end which interacts with the second fluid inlet and a third opening through which the decorative waterfall is observed; a second water reservoir above the housing for storing the excess amount of pumped water wherein that reservoir feeds / supplies the decorative carriage in the second compartment; providing a third housing vertically aligned within or beside the housing, wherein the third housing has a first opening at an upper end and a second opening at a lower end, wherein the upper end of the third housing is in fluid communication with the first and the second compartment; providing a fourth compartment within the housing arranged near the lower ends of the first, second and third compartments, wherein the second apertures of the first, second and third compartments provide fluid communication with the fourth compartment; reading data from a controlled water level at the bottom of the second compartment; the first pump for removing water from the fourth compartment into the third compartment, wherein the first pump is mechanically coupled to the first water wheel through the external gearbox and at least partially supplied / powered by an external power source; and conductively coupling the hydrodynamic power generation system to the external power source via a coupling.