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WO2024130362A1 - Systèmes résonateurs capteurs de charges électriques de la terre et utilisation de procédé de transfert de charges électriques de la terre par les circuits électriques d'alimentation - Google Patents

Systèmes résonateurs capteurs de charges électriques de la terre et utilisation de procédé de transfert de charges électriques de la terre par les circuits électriques d'alimentation Download PDF

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Publication number
WO2024130362A1
WO2024130362A1 PCT/BR2023/050458 BR2023050458W WO2024130362A1 WO 2024130362 A1 WO2024130362 A1 WO 2024130362A1 BR 2023050458 W BR2023050458 W BR 2023050458W WO 2024130362 A1 WO2024130362 A1 WO 2024130362A1
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Prior art keywords
earth
electrical
circuits
circuit
charges
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PCT/BR2023/050458
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English (en)
Portuguese (pt)
Inventor
Nilson BARBOSA
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Evolucoes Cientificas E Tecnologicas Ltda
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Evolucoes Cientificas E Tecnologicas Ltda
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Priority claimed from BR102022026022-2A external-priority patent/BR102022026022A2/pt
Application filed by Evolucoes Cientificas E Tecnologicas Ltda filed Critical Evolucoes Cientificas E Tecnologicas Ltda
Publication of WO2024130362A1 publication Critical patent/WO2024130362A1/fr
Anticipated expiration legal-status Critical
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    • H—ELECTRICITY
    • H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02N—ELECTRIC MACHINES NOT OTHERWISE PROVIDED FOR
    • H02N11/00—Generators or motors not provided for elsewhere; Alleged perpetua mobilia obtained by electric or magnetic means

Definitions

  • the present patent application refers to the improvement of the circuits of the objects of patent application BR 10 2021 019838-9.
  • the present application includes in electrical circuits of alternating power the use of electrical circuits carrying electrical voltage coupled directly to earth through the use of the electrical circuits of the objects of the present patent application, it also reveals some alternative variants of the improved circuits that contribute strongly to the supply of energy, “green energy”, using the resonance effect at the fundamental frequency to cause the electrification and polarization of the earth's electrical charges to transfer energy from the earth through electrical power circuits.
  • Said request also refers to the “USE OF METHOD FOR TRANSFERRING ELECTRICAL CHARGES FROM THE EARTH THROUGH ELECTRICAL POWER CIRCUITS” which includes in electrical alternating power transmission and/or distribution circuits the use of grounding structure/s /s that are individually connected to each of the electrical voltage carrying lines of each of the R, S and/or T phases, making these grounding structures work permanently energized, uninterruptedly transferring electrical charges from the earth through the circuits of the “EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS” through alternating power electrical circuits.
  • Electrification processes are phenomena in which electrons are transferred from one body to another due to a difference in the amount of electrical charges existing between two or more bodies, or even through the acquisition of energy arising from friction between bodies.
  • the neutral body has the same charge of the electrified, that is, electrification by contact.
  • Induction electrification occurs when the electrification of an initially neutral body (induced) occurs by simply approaching a charged body (inductor), without there being contact between the bodies.
  • the inductor must be connected to the Earth or a larger body that can supply electrons to it or receive them from it in a flow caused by the presence of the inductor.
  • Electrical grounding fulfills an essential function in an electrical energy distribution system and must meet, among several requirements, those established regarding step and touch voltage values. Electrical grounding has three main functions: protecting the user of the equipment from atmospheric discharges, by enabling an alternative path to earth, from atmospheric discharges, “discharging” static charges accumulated in the casings of machines or equipment to the earth. Soil is considered a conductor through which an electric current can flow.
  • the Earthing electrode is the conductor (or set of conductors) buried and electrically connected to the ground, and functional grounding is the name given to the earth connection of one of the live conductors of the system, in which this, which in general, is the neutral.
  • the present invention refers to the improvement introduced in the invention described in PI BR 10 2021 019838-9, part of the text of which is reproduced below:
  • the present invention refers to a new application for the use of resonant circuits, described here as, for use in simultaneously obtaining reverse active energy and reverse reactive energy by the alternating side of the electrical network.
  • These “ELECTRIC CHARGE RESONATOR COMPENSATOR SYSTEMS” are powered by a primary source of external electrical energy and consume from this primary source a tiny demand for direct active power.
  • These systems, objects of the present invention increase the efficiency of the electrical network by exceptionally allowing the perfect use of the phenomenon of resonance in an alternating electrical network, now in an original way it allows to supply reverse active energy and reverse reactive energy, simultaneously.
  • the present invention also refers to a “METHOD OF USE” that increases the energy efficiency of the electrical circuit.
  • Capacitor banks in electrical installations, aim to correct the system power factor by reducing the cosine (cos cp) of the angle. To resolve the issue of power factor, capacitor banks are installed in parallel with these non-linear loads, which may undesirably cause series or parallel resonance.
  • Resonance a characteristic condition of any electrical circuit, occurs whenever the capacitive reactance equals the inductive reactance at a given frequency, known as resonance frequency.
  • Series resonance occurs when the capacitive reactance is equal to the inductive reactance, the path through which the current circulates has low impedance, so for that resonance frequency we will have high current, this is not beneficial.
  • Series resonance usually occurs when the association of a transformer with a bank of capacitors forms a circuit tuned to the frequency generated by the system's harmonic sources, constituting a low impedance path for the flow of a given harmonic frequency current, even if the voltage of the harmonic frequency is small, a high current can occur, causing a current surge at the harmonic frequency, this can cause serious problems for the network and/or capacitor banks.
  • the dealership network comes into resonance with the capacitor bank, creating a low impedance path at the resonance frequency of the harmonic current that produces a current surge at that harmony frequency that can damage the capacitor bank.
  • Parallel resonance occurs when the equivalent inductance of the utility supply system and a capacitor bank of the consumer installation resonate at a frequency close to that generated by a harmonic source, constituting a high impedance path for the flow of a given harmonic current, even a small harmonic current can give rise to a significant overvoltage at the resonant frequency.
  • the effect of resonance in alternating electrical networks is something undesirable when they damage the capacitor bank and other equipment in the resonance path.
  • a way to maintain oscillations in a system Damped is to provide energy periodically through a generator, which will perform positive work on the system.
  • the application of an alternating external voltage will produce a forced oscillation in this system.
  • the important thing is that the system will oscillate (load, current and voltages) at the same frequency with which the generator supplies energy, but, in general, with a small amplitude. If the oscillation amplitude (whether of the charge, qp, current, ip, capacitor voltage, VCP, or inductor voltage, VLP, where the index P means “peak”) is small, this means that little energy is being transferred from the generator to the RLC circuit.
  • the oscillations in a forced RLC system will be of small amplitude whenever the generator's oscillation frequency is different from the natural frequency of the system. If the generator allows continuous frequency variation, it can be noted that as the generator frequency approaches the natural frequency of the system, the amplitude of oscillation (whether of load, qp, current, ip, VLP OR VCP) increases dramatically. When the generator frequency is identical to the natural frequency of the system, the oscillation amplitude reaches its maximum value and this condition is known as resonance. And the natural frequency of the system is also known as the resonant frequency.
  • the resonance condition is the condition in which energy is most efficiently transferred from the generator to the system or to the RLC circuit, in this case.
  • the objective of the present invention is achieved with the use of resonant circuits now configured as “ELECTRIC CHARGE RESONATOR COMPENSATOR SYSTEMS”, systems that are powered by a primary voltage source and use the energy from the primary source to cause forced oscillation, maintaining vibrations and oscillations in a permanent regime with amplitude, constantly reaching the resonance condition. Said objects of the present invention are simply kept connected, preferably connected to the primary and/or secondary circuit, to achieve the resonance effect.
  • the objects of the present invention are achieved with the configuration of “ELECTRIC CHARGE RESONATOR COMPENSATOR SYSTEMS” and include in the configurations of said objects of the invention at least one reactor (2) and/or at least one inductor (3), associated with at least one resistor (4), associated with at least one filtering capacitor (5), associated with at least one capacitor set or capacitor bank (7), with each capacitor bank necessarily configured through the association of multiple capacitors , with each capacitor preferably having a capacitance of 0.5 pF to 5 pF, each capacitor bank (7) of the association being configured within the capacitance range of 0.5 pFa 300 pF, preferably within the capacitance range of 20 at 270 microfarads.
  • ELECTRIC LOAD RESONATOR COMPENSATOR SYSTEMS may also be without the use of resistor device/s (4) and filter capacitor device/s (5) in their internal circuit.
  • the objects of the present invention can be housed in enclosures according to the desired degree of protection.
  • the objects of the present invention may be single-phase, two-phase and/or three-phase, low, medium, high or ultra-high power.
  • the objects of the present invention can be configured with the inclusion of protection devices and power controls, including measuring instruments, including suitable software to monitor the use of the method through the behavior of electrical powers present in the electrical network.
  • protection devices and power controls including measuring instruments, including suitable software to monitor the use of the method through the behavior of electrical powers present in the electrical network.
  • These systems, objects of the present invention can be programmed and/or configured as semi-automatic or automatic fixed power and/or programmable systems.
  • “ELECTRIC CHARGE RESONATOR COMPENSATOR SYSTEMS” use energy from the primary source to cause forced oscillation, maintaining vibrations and oscillations in a permanent regime with amplitude, constantly reaching the resonance condition, with transfer in permanent and simultaneous reverse active power and reverse reactive power for the circuit.
  • the direct active power consumed by the load/s connected between the inductor (3) and the capacitor bank (7) returns as reverse active power to supply the load/ connected to the external electrical circuit.
  • Another objective of the present invention is achieved with the use of a “METHOD OF USE” that increases the efficiency of electrical networks by simultaneously providing reactive energy and especially reverse active energy, with minimal consumption of direct active electrical energy from the primary source supplying electrical energy, through the use of “ELECTRICAL LOAD RESONATOR COMPENSATOR SYSTEMS” that are installed and kept connected, for a determined or indefinite period of time, as if they were loads installed in strategic locations of the electrical network of low, medium, high or ultra voltage, preferably at the end of the primary distribution circuit lines and/or secondary distribution lines, or Furthermore, installed at the end of power transmission lines in locations, preferably far from power generation sources.
  • the reverse active and reverse reactive electrical quantities interact in a directly proportional way with the impedance.
  • Increasing the impedance in the electrical network increases the negative power factor and increases the supply of reverse active power to the electrical circuit.
  • the objects of the present invention also achieve high powers - through a scalable configuration - with the increase of multiple associations of “ELECTRIC CHARGE RESONATOR COMPENSATOR SYSTEMS”.
  • the objective of the present invention is to achieve the transfer of electrical charges from the earth by injecting an alternating flow of voltage and sinusoidal resonant current that cross and close the electrical circuit through the ground, causing electromagnetic interactions between the carriers of electrical charges that cause the transfer of energy at the fundamental frequency through the use of the circuits of the objects of the present invention and its method of transferring electrical charges from the earth that use the circuits of the “EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS” to provide the transfer of energy through the charges electrical charges of the earth through their charge carriers using the action and effect of resonance to resonate at the fundamental frequency providing the range of electrization and polarization of the electrical charges of the earth causing the permanent transfer of electrical charges from the earth through the earth to the electrical circuit of alternating power through the circuit lines of the R, S and/or T phases, this fact occurs without the dissipation of energy from the electrical charge carriers of the earth due to the resonance effect that overcomes the strong opposition to the injection of passage of electric current in the ground, currents that close
  • EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS are used to gain power, always connected to the electrical grid through R, S and/or T phase lines that are independently grounded separately for each of their R phase lines, S and/o T through the circuits of the “EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS” which are used to electrify the Earth's soil, always powered between an electrical voltage source and the ground, aiming at the transfer of electrical charges coming from the ground for electrical alternating power circuits for the transmission and/or distribution of electrical energy.
  • the ground circuit is configured as an independent type of grounding so that the ground is permanently electrified with the aim of transferring electrical charges from the ground to the electrical power circuit that receives the charge transfers in an instantaneous, permanent and constant manner. through their charge carriers to supply the electrical charge receivers.
  • the present invention is characterized by including in alternating power electrical circuits, that is, generation, transmission and/or distribution, the use of independent and energized grounding structures as a means of accessing the source of transferring electrical charges from the earth, establishing access to this energy source and making these grounding structures work permanently energized, uninterruptedly transferring electrical charges from the earth through the circuits of the “EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS” connected with the alternating power electrical circuits .
  • “EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS” are LC/RLC circuits that are, alternatively, previously configured to resonate naturally at the fundamental frequency and - alternatively can be designed through the addition of suitable devices that make it difficult to pass of energy to cause resonance at negative frequencies of up to at least 70 (-) GHz and/or resonate at a positive resonance frequency of up to at least 7.8 GHz - comprise at least one electric and/or magnetic field generating device or equivalent, provided with at least one ferromagnetic core in the form of a reactor, stator, transformer or the combination, association between them, which are configured using at least one primary coil and/or at least one secondary coil and/or set of coils that use and associate at least one coil (1) associated with at least one capacitor or at least one set of capacitors or at least one bank of capacitors (2), each capacitor or set of capacitors or bank of capacitors (2) being configured through the preferred association with the use of capacitors of 3 uF, 6 uF, 9 uF and 18
  • Said objects of the present invention “RESONATOR SYSTEMS CAPTURING ELECTRIC CHARGES FROM THE EARTH” can be housed in casings according to the desired degree of protection.
  • the objects of the present invention may be single-phase, two-phase and/or three-phase, low, medium, high or ultra-high power.
  • the objects of the present invention can be configured with the inclusion of protection devices and power controls, including measuring instruments, including suitable software to monitor the use of the systems and/or the use of the method through the behavior of the power flow. of the circuit.
  • These objects of the present invention can be programmed and/or configured as uncontrolled or controlled automated, programmable, semi-automatic and/or automatic power systems.
  • the circuit of an AC induction electric motor is adapted applying the same concept of the aforementioned patent application to configure an electric motor induction which is characterized by including a change in the way of closing the internal circuit at the end of the winding of at least one coil or sets of coils, of the stator or rotor, of each of the phases A, B and/or C of the circuit.
  • grounding structures can be built in locations close to or far from the electrical transmission and/or distribution networks of electrical energy as long as they are coupled with at least one of the circuits of the “EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS” which are characterized by making association and coupling with at least one grounding structure (6.1, 6.2 and/or 6.3) or with at least one set of independent and energized metal rods or coupled with at least one group of independent and energized grounding mesh or coupled with at least an independent and energized earthing system or with at least one equivalent energized earth circuit (6.1, 6.2 and/or 6.3) and are provided with at least one connection to at least one transmission line and/or power distribution line (1 1.1, 11.2 and 11.3) and coupled in (6.1, 6.2 and 6.3) to supply electrical charges to power electrical charge receivers.
  • the “EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS” which are characterized by making association and coupling with at least one grounding structure (6.1, 6.2
  • grounding structures or grounding systems (6.1, 6.2 and 6.3) alternatively include in their configurations the use of control and power management systems, mechanisms and/or sectioning devices drive and protection mechanisms, manual and/or automated operation and control mechanisms and/or devices, monitoring systems for local and/or remote control circuits.
  • grounding structures must make use of soils protected against flooding, have life protection infrastructure and preferably with the use of customized materials, a non-limiting example would be the use of metal rods applied in deep ways, preferably fixed and protected by inspection boxes made of insulating materials provided with safety seals and signs; Furthermore, they must preferably use conductors insulated on the surface and/or alternatively partially insulated, with the conductors preferably marked with an indication (ground symbol “DANGER electrical voltage”), preferably with the use of vibrant and eye-catching colors associated with the color green, with all
  • the areas of the grounding plant isolated and marked and, alternatively with appropriate protections may be built in urban and/or rural areas, preferably on higher ground and/or located in basements free from flooding.
  • the “USE OF METHOD FOR TRANSFERRING ELECTRICAL CHARGES FROM THE EARTH THROUGH ELECTRICAL POWER CIRCUITS” uses the circuits of the “EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS” to interconnect the electrical network lines from the voltage sources to the ground through of independent live active energized earthings, which is characterized by operating permanently energized, preferably uninterruptedly, and by instantly achieving, as a new and advantageous technical effect, the electrification and transfer of polarized electrical charges from the earth.
  • the circuit provides the transfer of energy through the earth's electrical charges through their charge carriers using the effect of resonance action to resonate at the fundamental frequency providing the range of electrization and polarization of electrical charges of the earth without the occurrence of dissipation of energy transferred through the earth's electrical charge carriers.
  • the resonant effect closes the physically open electrical circuit between R, S and/or T through the ground and causes the permanent transfer of electrical charges from the ground through the ground to the electrical circuit of alternating power through the circuit lines of the R, S and/or T phases.
  • the electrical load receiver circuits can also alternatively be connected and fed directly through the ground in the region of the energized grounding area and, as a new technical effect, the energy transferred to the electrical load receivers is supplied by the DDP potential difference achieved between different points on the ground within the grounding areas.
  • the electrical receiver circuits for resistive loads (12) can also be connected and powered directly through the ground without connections (6.1, 6.2 and 6.3) and, as a new technical effect when the electrical receivers of resistive loads (12) are powered by the potential difference caused and reached in the earth's soil, a closed flow of current is established between the earth and the electrical load receivers (12) (connected to electrodes set in the earth and without physical connection for contact with a metallic conductor with the circuit of lines R, S and/or T) which are supplied by electrical charges from the earth, this type of connection does not direct electrical current to the circuit of the primary source of alternating power when the electrical charge receivers are connected and powered directly through the DDP caused in the earth's soil.
  • the “EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS” use resonance to cause the achievement of electrization and polarization of the earth's electrical charges that are transferred instantly and permanently to the alternating power electrical circuits.
  • the “EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS” resonates at the fundamental frequency, provides a sinusoidal signal, is free from harmonic distortions above THDU 3% in voltage and free from harmonic distortions above THDI 5% in current.
  • the resistive load electrical receiver circuits (12) can also be connected and powered directly through the ground without connections (6.1, 6.2 and 6.3) when the resistive load electrical receivers (12) are powered by the potential difference caused and reached in the earth's soil, a closed flow of current is established between the earth and the electrical load receivers (12) (connected to electrodes stuck in the earth and without physical connection for contact with metallic conductor with the circuit of lines R, S and/or T) which are supplied by electrical charges from the earth, this type of connection does not direct electrical current to the circuit of the primary source of alternating power when the electrical charge receivers are connected and fed directly through the DDP caused in the earth's soil.
  • Figure n and 1 shows a non-limiting representation of a multi-wire electrical circuit.
  • Figure n and 1 shows an alternative circuit, in this case the same circuit used as an example in the aforementioned patent application and used to assemble the prototype of the “EARTH ELECTRIC CHARGES CAPTURE RESONATOR SYSTEMS” which is connected with three meshes. independent and energized earthing and a protective earth.
  • Figure n and 1 shows the direct energy input point supplied by the primary source - powered by a 45 kVA three-phase transformer - AT 13.8kV - BT 380V F/F and 220VAC F/N connection group Dyn1, shows the circuit - (13) and output of electrical charges from the earth (13, 1 1.1 , 1 1 .2 and
  • Figure n and 1 shows a set of coils (1.1, 1.2 and 1.3), more specifically a set of coils wound on a two-pole stator type iron and a series connection between the two coils and an association of capacitors (2.1, 2.2 and 2.3).
  • Figure n and 1 shows the couplings of the independent ground circuits (3.1, 3.2, and 3.3) connected with conductor circuits (7.1, 7.2 and
  • Figure n and 1 shows a set of capacitors associated in parallel (2.1, 2.2 and 2.3). [0057] Figure n and 1 shows the phase lines of the R, S and T circuit (5.1, 5.2 and 5.3), the neutral (4.1, 4.2 and 4.3) and the grounds (6.1, 6.2 and 6.3).
  • Figure n and 1 shows a power distribution and/or power transmission network (11.1, 11.2 and 11.3) derived from independent energized groundings (6.1, 6.2 and 6.3).
  • Figure n and 1 shows a power distribution and/or power transmission network (11.1, 11.2 and 11.3) derived from the independent energized grounds (6.1, 6.2 and 6.3) that feed the load receivers (12).
  • Figure n and 1 shows protective grounding (8).
  • Figure n and 1 shows the installation location and the electrical quantity multimeter (9.1) that measures in the four quadrants.
  • Figure n and 1 shows one of the alternative non-limiting variants of the circuits of the objects of the present invention (10).
  • Figure n and 1 shows the load receivers (12) coupled to the power distribution and/or power transmission network by (11.1, 11.2 and 11.3) through the circuit of the objects of the present invention.
  • Figure n and 1 shows the primary source of excitation (13).
  • Figure n and 2 shows the screen image of the measurements that present only results of the transfer of electrical charges from the earth caused by the impedance of the soil that transfers electrical charges from the earth to the charge receivers coupled to the primary source of excitation.
  • Figure n and 3 shows the image of the results accumulated during the 1 (one) hour period of a new measurement.
  • this period of 1 (one) hour of transferring electrical charges from the earth to the electrical power circuit from the beginning of the test, the supply of two three-phase electrical resistances 4kW 380VAC was included, a fact that resulted in an increase of 8 kW to the results measurements, an event that provided a new technical effect by delivering a greater supply of reverse active energy to the electrical power circuit.
  • Figure n and 3 show in the “Energy” information field the EA+ results which correspond to direct active energy consumption of just 0.66 Wh accumulated in one hour of operation. [0068] Figure n and 3 show in the “Energy” information field, the EA- results, which correspond to the supply of reverse active energy accumulated in 1 (one) hour of operation corresponding to 21.30 kWh.
  • Figure n and 3 show in the “Energy” information field, the ER+ results which correspond to the direct reactive energy accumulated in 1 (one) hour of operation corresponding to 1.50 kVArh.
  • Figure n and 3 shows in the “Energy” information field, the EA- results, which correspond to the supply of reverse active energy accumulated in 1 (one) hour of operation corresponding to - 21.30 kWh reverse flow.
  • Figure n and 3 shows in the “Energy” information field, the ER- results, which correspond to the reverse reactive energy accumulated in 1 (one) hour of operation corresponding to -627.9 VArh.
  • Figure n and 3 shows in the “Demand” information field, the DA results corresponding to 0.00W.
  • Figure n and 3 show in the “Demand” information field, the MDA results corresponding to 0.00W.
  • Figure n and 3 show in the “Demand” information field, the DS results corresponding to 16.94kVA.
  • Figure n and 3 show in the “Demand” information field, the MDS results corresponding to 20.80kVA.
  • Figure n and 4 shows the screen image of the minimum and maximum reading measurements.
  • Figure n and 5 shows the image of the four-quadrant meter configuration screen (9.1) of Figure n and 1.
  • Figure n and 6 shows the image of the measurement carried out with clamp meters at the input before the meter (9), in Figure n and 1.
  • Figure n and 7 shows the image of the measurement carried out with a clamp meter in phase R (5.1) at the input before the meter (9), in Figure n and 1.
  • Figure n and 8 shows the image of the measurement carried out with a clamp meter in phase S (5.2) at the input before the meter (9), in Figure n and 1.
  • Figure n and 9 shows the image of the measurement carried out with a clamp meter in phase T (5.3) at the input before the meter (9), in Figure n and 1.
  • Figure n and 10 shows the image of the measurement carried out with clamp meters joining all neutral conductors (4.1, 4.2 and 4.3) in Figure n and 1.
  • Figure n and 11 shows the image of the measurement carried out with clamp meters on the grounding conductor (7.1) in Figure n and 1.
  • Figure n and 12 shows the image of the measurement carried out with clamp meters on the grounding conductor (7.2) in Figure n and 1.
  • Figure n and 13 shows the image of the measurement carried out with clamp meters on the grounding conductor (7.3) in Figure n and 1.
  • Figure n and 14 shows the image of the measurement carried out with a clamp meter joining all the conductors (7.1, 7.2, 7.3) of the independent energized grounds (6.1, 6.2 and 6.3), in Figure n and 1.
  • Figure n and 15 shows the image of the current measurement carried out with a clamp meter in one of the three phase lines of the supply conductor circuit (11.1, 11.2 and 11.3) of the 8 kW 380VAC resistive loads ( 12) shown in Figure n and 1.
  • Figure n and 16 shows an image of the soil resistivity measurement.
  • the meter (9.1) was installed and measurement began in four quadrants with a bidirectional multimeter, for a period of 60 (sixty) minutes.
  • the measuring instrument was used, represented in figure n and 1 (9.1) bidirectional multimeter that measures in four quadrants, which uses electrical magnitude transducer technology, measuring technology that converts electrical signals into power, which meets the following standards: IEC 61000-4-2, IEC 61000-4-6, IEC 61000-4-3, IEC 610 00-4-8, IEC 61000-4-4, IEC 61000-4-1 1 , IEC 61000 -4-5 and CISPR 1 1.
  • Konect energy multimeter (9.1) with built-in CT, was installed on the 380V AC three-phase distribution network.
  • the voltage signal between the phases was obtained by the meter configured in TL: T-48 - Three-phase Delta (3F) / TP: 1.0 / TI:15 / TC 1.0 / Seq.
  • PF F2, F1, F0, EXP.
  • Fig. n and 2 shows in phase R 16A, in phase S 23.4A and in phase T 23.9A, flows of electrical charges from the earth that are attracted and transferred to the electrical circuit of power without dissipation of energy from the electrical charge carriers of the earth, favored by the effect of resonance and electrification.

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Abstract

La présente invention concerne une amélioration apportée aux circuits objets de la demande d'invention BR 10 2021 019838-9. La présente invention comprend, dans des circuits électriques de courant alterné, l'utilisation des circuits électriques portables de tension électrique accouplés directement à la terre par l'utilisation des circuits électriques objets de la présente demande, en utilisant l'effet de résonance à la fréquence fondamentale pour résonner et provoquer l'électrisation et la polarisation des charges électriques de la terre afin de transférer l'énergie de la terre par les circuits électrique d'alimentation. L'objectif de la présente invention est de parvenir au transfert de charges électriques de la terre injectant un flux alterné de tension et de courant résonnant sinoïdal qui traversent et ferment le circuit électrique par le sol, provoquant des interactions électromagnétiques entre les porteurs de charges électriques qui causent le transfert permanent de l'énergie à la fréquence fondamentale pour les circuits électriques de courant alterné par l'utilisation des circuits de la présente invention et de son procédé de transfert de charges électriques de la terre qui utilisent les circuits des "SYSTÈMES RÉSONATEURS CAPTEURS DE CHARGES ÉLECTRIQUES DE LA TERRE" accouplés à la terre et ne provoquent pas de dissipation d'énergie des porteurs de charges électriques de la terre en raison de l'effet de résonnance.
PCT/BR2023/050458 2022-12-19 2023-12-18 Systèmes résonateurs capteurs de charges électriques de la terre et utilisation de procédé de transfert de charges électriques de la terre par les circuits électriques d'alimentation Ceased WO2024130362A1 (fr)

Applications Claiming Priority (6)

Application Number Priority Date Filing Date Title
BR102022026022-2A BR102022026022A2 (pt) 2022-12-19 "sistemas ressonadores captor de cargas elétricas da terra e uso de método para transferência de cargas elétricas da terra para transmissão, distribuição e abastecimento dos circuitos elétricos de potência"
BR1020220260222 2022-12-19
BR132023026638 2023-12-17
BR1320230266389 2023-12-17
BR1020230266398 2023-12-17
BR102023026639 2023-12-17

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WO2024130362A1 true WO2024130362A1 (fr) 2024-06-27

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Citations (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
GB2390941A (en) * 2002-03-09 2004-01-21 Harold Aspden Electricity generating apparatus
US20070007844A1 (en) * 2005-07-08 2007-01-11 Levitronics, Inc. Self-sustaining electric-power generator utilizing electrons of low inertial mass to magnify inductive energy
GB2432463A (en) * 2005-11-22 2007-05-23 Harold Aspden Electrical power generating apparatus
WO2014000716A1 (fr) * 2012-06-28 2014-01-03 Arnedo Gonzalez Luis Raul Équipement électrique flottant qui génère de l'énergie électrique en continu
US20140183937A1 (en) * 2012-12-29 2014-07-03 Vesselin C. Noninski Method and Device Producing Energy by Violating of the Principle of Conservation of Energy and Absolute Ways to Prove the Reality of Such Energy Production
US20140210308A1 (en) * 2006-02-21 2014-07-31 Ion Power Group Llc Energy Collection

Patent Citations (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
GB2390941A (en) * 2002-03-09 2004-01-21 Harold Aspden Electricity generating apparatus
US20070007844A1 (en) * 2005-07-08 2007-01-11 Levitronics, Inc. Self-sustaining electric-power generator utilizing electrons of low inertial mass to magnify inductive energy
GB2432463A (en) * 2005-11-22 2007-05-23 Harold Aspden Electrical power generating apparatus
US20140210308A1 (en) * 2006-02-21 2014-07-31 Ion Power Group Llc Energy Collection
WO2014000716A1 (fr) * 2012-06-28 2014-01-03 Arnedo Gonzalez Luis Raul Équipement électrique flottant qui génère de l'énergie électrique en continu
US20140183937A1 (en) * 2012-12-29 2014-07-03 Vesselin C. Noninski Method and Device Producing Energy by Violating of the Principle of Conservation of Energy and Absolute Ways to Prove the Reality of Such Energy Production

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