EA044440B1 - ULTRA HIGH FREQUENCY ELECTROMAGNETIC MOTOR - Google Patents

Description

Field of technology to which the present invention relates

This invention was developed in the field of electronic engineering and physics, in particular in the field of electromagnetic theory.

Prerequisites for the creation of the proposed invention

The concept of the present invention consists of a motor or propulsion system motor that requires only a power supply to operate, and which can be used in outer space to extend the operating life of communication satellites, and which can be used in spacecraft; There is currently no propulsion system or propulsion system powered solely by solar or nuclear power that can operate in outer space. The closest thing to a powered propulsion system are ion thrusters or propulsion thrusters; however, such engines require a material, usually a gas, that is ionized, resulting in the acceleration of the ions by the electric field, although the mass of the ions is extremely low, this is compensated by the very high speed at the moment of ejection, giving this type of engine higher efficiency compared to chemical ones ; Such engines continue to operate on the basis of Newton's third law, they eject a certain amount of material at a certain speed, and the sum of the mass over the exit velocity, which constitutes the amount of motion or torque, results in an acceleration of the engine that is proportional to that amount and in the opposite direction. This is another type of reaction engine in which the catapulted material is accelerated by electrical or non-chemical means, as occurs in traditional chemical engines or reaction control engines, however the problem is that when the gas supply is cut off, the engine stops working.

Other types of electric propulsion systems have been created, such as magnetohydrodynamic plasma engines. Such engines only work at sea, because... are based on the generation of magnetic fields in salt water that surrounds the engine, boats or submarines that have been created using such technology, however, it is obvious that this type of system cannot work without water.

Sailing propulsion for use in space usually uses the energy of the sun or laser beams located on the surface of the earth or orbit, but there are many problems associated with steering the ship in the desired direction, and the size of the sail is gigantic, such propulsion is based on the process of kinetic transfers.

The real contribution of our design is that it does not require the use of gaseous fuel and is not based on the effects of kinetic transmission of action or reaction. There are many engine designs that operate solely on electric power, but none can operate in a vacuum or space environment as part of a propulsion system.

Brief description of the invention

The engine or engine of the reactive control system, which is the subject of this invention, has several modes of operation. In its first modality, consisting of a structure to which a magnetic field emitter is attached, such as a group of Helmholtz rings, and a target consisting of a plate of conductive material located at a predetermined distance (L), the generating ring produces magnetic field pulses of very high intensity , but only for a very short time (t), so short that it must be less than the distance (L) (distance between the field emitter and the target) divided by the speed of light, so that a magnetic field of very high intensity is created, and such a field enters the surrounding space to the engine, but after time (t) such a field will be disconnected from the element that created it, and thus, such a field will be connected to space and will pass through it, but will be disconnected from the element that created it, and after such a field reaches the target, it creates an induced current in it, which in turn creates a magnetic field that will be opposite to the magnetic field that created it, creating a repulsive force between the space and the plate acting as a target, which force is multiplied by the duration of the magnetic impulse and will give us an impulse, which in turn accelerates the plate, the plate is mounted on a structure that combines it with the emitter element, and if such a structure is made of a non-conducting material and was magnetically transparent to the field, a small impulse will be received throughout the entire assembly, which will repeat a billion times per second, thereby integrating essentially the total pulse, the repetition of pulses created by the rings is controlled by an electronic circuit, the electronic control can also operate as a UHF oscillator, where the current signal that activates the rings is part of a resonant circuit that increases efficiency, but in the latter case, the frequency of the UHF generator must be such that its wavelength is less than (L) divided by (C), where (C) is the speed of light, and (L) is the distance between the emitter ring and the plate acting as goals. This creates a passive magnetic version of the motor; in the active magnetic version of the motor, the plate acting as the target is replaced by a ring that operates synchronized with respect to the generating ring or group of generating rings so that after creating a magnetic pulse and

- 1 044440 union from the transmitter ring, immediately before the magnetic pulse reaches such a target ring, a field will be created opposite to the magnetic pulse that reaches it; such action may be supplemented by another ring placed on the same support structure but on the other side of the pulse transmitter, and such other ring will produce a magnetic field at the same time as creating an attraction relative to the magnetic pulse that has been created, provided that the magnetic pulse is propagated in two directions relative to the generator element, using a group of Helmholtz rings helps concentrate propagation line forces more parallel to the assembly structure, the use of two target rings or secondary rings allows the benefit of the same magnetic impulse to create repulsion and attraction, which results in acceleration of the assembly in that same direction.

Another modality of the same engine uses only an electric field. The electric field generating plate creates an electric field pulse of very short duration, as in the magnetic version, but in this case, target plates or secondary plates are used to create an attractive or repulsive action relative to the pulse of the created and disconnected electric field, which propagates into the space between the generating plate and target plates or secondary plates, in which case the field moves and spreads in a more focused and directional manner.

The concept of field decoupling is the core operation of this motor, and we can explain it more simply if we consider that we have an element that can produce very short field pulses, and then such an emitter disappears, and we have a field pulse that passes through space that can influence or interact with the corresponding devices - a conductive plate, ring or second field generator. The electronic components and devices needed to create such ultra-high frequency fields are readily available, such as cold cathode tubes and high-power gallium nitride transistors.

Brief description of the attached graphic materials

In fig. 1 shows the basic design of the engine, in which the generator and the target element are mounted on a structure that supports them, and the field pulse that has been created and which, after being disconnected from the emitter, moves towards the target.

In fig. Figure 2 shows how the field pulse after reaching the target interacts with the field created after reaching the target, resulting in the formation of a repulsion pulse on the supporting structure.

In fig. Figure 3 shows the created secondary field, which, after interacting with the disconnected field pulse, penetrating into space in the direction of the target, moves in the direction of the primary pulse generator, but no longer interacts with it.

In fig. Figure 4 shows how using a group of Helmholtz rings will create more concentrated magnetic fields, increasing their interaction with the target plates, regardless of whether they are flat or concave.

In fig. Figure 5 shows the four main motor modalities, namely: passive magnetic, active magnetic, magnetic with Helmholtz group and electric.

In fig. Figure 6 shows a block diagram for emitting pulses of a high-power, high-frequency magnetic field.

In fig. Figure 7 shows a block diagram for operating the engine in a magnetically active mode using a UHF and centimeter wave generator and a controlled delay line to synchronize the two emitter groups.

In fig. Figure 8 shows how the phase settings work to synchronize the primary and secondary fields.

In fig. Figure 9 shows a three-ring motor, one primary generator and two secondary generators at three different operating cycle times.

In fig. Figure 10 shows a magnetic pulse-generating ring and part of the circuits necessary for its operation.

In fig. 11 shows the basic structure of a three-plate electric field motor, a primary generating plate and two secondary generating plates.

In fig. Figure 12 shows the operation of an electric field reluctance control system motor or motor at three different stages of the operating cycle.

In fig. 13 shows a version of the motor using electromagnetic waves, the emitter is replaced by an emitter group, and an antenna, plate or resonant circuit is used as the target.

Detailed description of the proposed invention

The UHF electromagnetic motor or reluctance control motor, which is the subject of this invention, is based on the creation of a pulsed electric or magnetic field of extremely short duration (in the nanosecond range) field pulses that are released into the surrounding space with decoupling from the source and the motor structure until such pulses, which can be considered ultra-short duration fields and which move through space, will not reach what we call a target, which is an element capable of interacting with such a pulse field, creating a force from such interaction,

- 2 044440 and consists in the fact that the initially created field is connected with the surrounding space, but not with any other component of the engine or engine of the reactive control system. It can create a pulse on a target, but of very short duration, a pulse that is transmitted to the entire engine that the target is attached to, as well as the emitter that created the pulse field. Such a process is repeated a billion times per second to integrate the corresponding total impulse into the target, and thereby into the engine itself, so that such total impulse is the sum of all partial impulses (FxdT) per second, which is equal to the integration of the value (FxdT), where dT is the differential the time during which the impulse lasts. Although the pulse of each cycle has an extremely short duration, if the intensity of the pulsed fields is very high, a useful final pulse can be obtained, the distance between the field emitter element and the targets should preferably be in the range of 20 to 120 cm. This distance is what we call (L), facilitates the integration of all electronic and power elements, because makes them bigger, but the force created has an inverse quadratic relationship with the distance, so it's best to shorten (L) as much as possible where the electronics that control the radiation allow it.

In general, the operation of a given motor or reluctance control system motor is based on the creation of extremely short and powerful pulses of electric, magnetic or electromagnetic field and the detachment of such field pulses from the source that created them so that subsequently another element attached to the supporting structure that holds the emitter device and the device we call the target remained disconnected from the pulse field and waited for the pulse field to reach the target, at the point at which such element would emit a new pulse field with a polarity that generated an attractive or repulsive force of the original pulse field relative to the target and thereby, in relation to the engine or propulsion control system of which they are a part as the emitter and target installations connected by a support structure.

Correct timing of field pulse emission is controlled by a set of electronic circuits consisting of a power module, a microcontroller-based control unit, power supply, capacitor banks and surge suppression circuits; all such circuits together form a pulse generator or continuous signal that operates as such, operating in the UHF to microwave range. Although we have currently only tested with magnetic fields and frequencies at the lower end of the UHF band, we can generate forces of a few grams, which may seem negligible, but it is not when we consider that the motor can generate constant acceleration over long periods of time. period of time, which can be very useful for such uses as for example servicing satellites in orbit, etc., we can increase the operating frequency of the engine, the resulting forces will be much greater.

In fig. 1 shows the main engine assembly. In this case, the support structure (3) is shown on which the primary magnetic field emitter (1) and the emitter reflector (2) or secondary field emitter, which acts as a target, are mounted, the pulsed field or field pulse (4) is represented by arrows for ease of understanding, and such a created field pulse (4) propagates in two directions, in the case of Fig. 1, left and right; distance (L) between the primary magnetic field emitter (1) and the emitter reflector (2); As an example of work, let us assume that the primary emitter of the magnetic field (1) is a coil of a ring and that the field pulse (4) has a duration (t), with t less than the distance (L) divided by (C), where (C) is the speed of light, which is the speed of field propagation; as shown in Fig. 1 at the moment the field will move and will be completely disconnected from its primary magnetic field emitter (I), and since the material of the supporting structure (3) is non-conductive and transparent to the field, the field impulse (4) will be associated only with space, and not with the elements that form part of the engine, until the field impulse (4) reaches the target, which in this case case is the emitter reflector (2). In this case, the reflector of the emitter is a plate of conductive material, when the field pulse (4) reaches such a plate, it creates an induced current on the plate, which in turn creates a magnetic field, which is opposite to the field pulse (4). Such a reaction field or reactive field (5), as shown in FIG. 2, results in the generation of a resultant force (6) in the direction opposite to the field impulse (4), during a period of time (t), this will generate an impulse (F x t); this process is repeated a billion times per second to integrate the significant total pulse generated by the sum of all the micropulses that are created in each cycle. Such an operation is carried out taking into account proper synchronization in the creation of each pulse, so in this case there is no counterproductive interaction of the reactive field (5), which is generated and which has a lower intensity than the initial field pulse (4). However, part of such a field will move towards the primary magnetic field emitter (1) and other engine components, as shown in FIG. 3, and it is therefore necessary to prevent the transition of such a reactive field (5) from creating unnecessary reactions with the remaining components or other elements that are part of the engine, for such a ring that constitutes the primary emitter mag

- 3 044440 thread field (1), will be instantly turned off and without the possibility of electromagnetic interaction with the reactive field (5). To create sufficiently powerful field pulses, electronic circuits can operate with high voltages at the field emitters, in this case, the transmitter ring, and frequencies ranging from the ultra high frequency band to super high frequency (UHF, microwave).

For simplicity, we have represented field offsets using arrows. As can be seen in FIG. 4, the magnetic fields and field lines have toroid-like configurations, as can be seen at the top of FIG. 4, in which the primary magnetic field emitter (1), which is a simple ring, produces a very diffuse field pulse (4), and a concave target plate (9) or reflector is used to take advantage of this type of field. In the image shown below FIG. 4 shows the use of two rings (7, 8) in a group known as a group of Helmholtz rings. This group allows field lines to be aligned in a more colinear manner with rings (7, 8) spaced apart at a distance equal to the radius of the rings. This makes it easier to use the flat emitter reflector (2), increasing engine performance. All the above description is aimed at simplifying the principle of the basic operation of a given motor or reluctance control system motor, but it can be created in various modalities, which increases the efficiency and simplicity of design, being able to work with electric fields and magnetic fields or even electromagnetic fields, but All modalities have the same operating principle and basic design.

In fig. 5 shows 4 different modalities, window (c) corresponds to the model described above, and we can call it a passive magnetic model, because it uses a primary magnetic field emitter (1), which in this case is a transmitter or ring generating a magnetic field, to create a magnetic field pulse (4), which subsequently affects the emitter reflector (2), which in this case is conductive plate, creates an opposite field, which turns into a pulse. This is the simplest engine assembly. Window (c) shows the primary magnetic field emitter (1), formed by a ring that generates a magnetic field pulse, which generates a magnetic field pulse (4), and in this case the target is a secondary magnetic field emitter (11), which generates a magnetic field , opposite to the field pulse (4). In this case, the latter is activated by an electronic circuit, which determines the exact moment at which the reactive field (5) should be created. This assembly is more efficient and produces more force than the passive magnetic assembly shown in window (c). We call it the active magnetic model. Window (c) shows the active magnetic model assembled, but when using the Helmholtz group formed by the rings (7, 8) as a field emitter, the field pulse (4) will be more aligned with the central axis that passes through the rings (7, 8) and a secondary magnetic field emitter (11), allowing better use of the created magnetic field pulse (4). Window (c) shows an all-electric motor assembly that uses a primary electric field emitter (12) that creates an electric field pulse (14) that will interact with a secondary electric field emitter (13), similar to how nodes operate based on magnetic field. For simplicity, the electric field pulse (14) is represented by an arrow pointing in the direction of the secondary electric field emitter (13), although in fact the field propagates in this direction and the opposite direction at the same time. Because using a plate, these emitters create electric fields with field lines perpendicular to the plane of the plates, so you can use most of the energy captured in the field pulses created. We call this the basic electrical model, and it is more efficient than magnetic fields, but requires working with very high voltage electrical pulses.

The architecture of this system is not limited to the use of a magnetic assembly or an electrical assembly, it is also possible to combine both models by creating an electromagnetic field emitted by an antenna that interacts with a target located on a common structure, as in the case described above. In this embodiment, the antenna design for using the majority of the radiation must take into account the length of the main antenna and the placement of multiple antennas at a distance that is a fraction of the wavelength of the emitted signal in order to give the radiation direction and concentration relative to the target.

The basic architecture of the circuits which regulate the excitation of the field emitters which form part of a given motor has basically two modes of operation - the first consists of a circuit which produces large pulses of current or voltage depending on the nature of the emitter, and as shown in FIG. 6, consists of a power unit (10), responsible for increasing and regulating the voltage at the required level, and a capacitor bank (15), which allows you to instantly have a sufficient amount of current and voltage, a microcontroller (16), which is responsible for coordinating and synchronizing all operations motor, in other words, when each pulse should be emitted and in what synchronicity; the firing order is transmitted by this microcontroller (16) to the power unit (17), responsible for administering the energy required for the field emitters; Overvoltage limiting (18) ensures this when the microcontroller (16) issues a stop command from

- 4 044440 pulse radiation, the inertia of the system does not continue to send energy to the emitter, but the excess energy that has been created must be diverted so that it does not continue to power the emitter, and may even help suppress the pulse radiation. The latter can be seen in Fig. 10, where in this case the primary magnetic field emitter (1) is a single-circuit tubular ring formed by a hollow tube, inside which there is a conductor, which, together with an ultra-fast diode, forms an overvoltage limiter (18). This works on the basis that after the microcontroller (16) commands the power unit (17) to stop the pulse that is being emitted, the current passing through the primary magnetic field emitter (1) represents an inertial effect and will try to continue passing through it however, when the power unit (17) completes pulsing, the current that previously passed through the outside of the ring will now cause immediate polarization of the ring, and such residual current will now flow through the cable located inside the tubular ring, but in the opposite direction , helping to abruptly interrupt the emission of the magnetic field pulse. The fact that the ring is hollow serves two purposes: it helps limit overvoltage, and it also helps ensure optimal performance at very high frequencies because every solid conductor, when used to carry a current of very high frequency, conducts more and more current in the direction of the surface or outer area of the conductor until it becomes equivalent to the use of a tube, because the cores or center of the conductor is never used, this is usually called the skin effect, which especially occurs when using UHF, the tubular shape of the ring can also be used to pass through the interior, the coolant as a current that can reach several hundred amperes during operation.

The second modality of architecture for the electronic circuits that control the motor is based on the use of a frequency signal, preferably created by a resonant circuit that forms an oscillator that operates in the bands between UHF and microwave. Such a generator is very powerful, and because... it operates with high levels of voltage and current, while operating at such high frequencies, in gigahertz, for specific purposes, we can assume that each peak or depression created by such an oscillator is a pulse by adjusting the wavelength of such signal with intensity (L ), which is the distance between the primary magnetic field emitter (1) and the targets, and a much more powerful system free of overvoltage is achieved.

In fig. 7 shows a block diagram of such a group, where the UHF-microwave generator (19) powers the primary magnetic field emitter (1), which is located at a distance (L) from the secondary magnetic field emitter (11), which is powered indirectly from the same UHF generator -Microwave (19), but the phase is controlled by the delay line (20), which is self-adjusting using the delay control (21).

In fig. In Figure 8, the primary field and secondary field supply current generated by the primary magnetic field emitter (1) and the secondary magnetic field emitter (11) can be seen, and it can be seen that the phase adjustment allows the excitation of each ring (shaded area) to be controlled so that the electronics perform the required adjustment so that the time (t) equivalent to a half cycle is less than or equal to (L) the distance between the two emitters divided by (C), which is the speed of light and the speed of field propagation.

In fig. Figure 9 shows the most efficient group for a magnetic pulse motor. Such an array consists of three magnetic field generating rings placed on the same support structure (3), which is not shown in this figure for clarity. In this group, the central ring is the primary emitter of the magnetic field (1) and has a primary reactive ring (23) and a secondary reactive ring (22). These three rings are powered by an electronic circuit with one of the two architectures mentioned earlier, a pulsed or continuous wave oscillator. It simply adds an additional adjustable power (17) for the third ring and an additional delay control for the same ring. In FIG. Figure 9 also shows three different stages of the engine's operating cycle. During period (ta), the primary magnetic field emitter (1) creates a field pulse (4), which freely and without rooting or connection with its primary emitter moves through the space between the primary magnetic field emitter (1) and the primary or secondary reaction rings (23, 22), located at a distance (L) between each of them by the primary magnetic field emitter (1). At this moment, the field pulse passes through space and has no roots with any element of the engine. Such a field represents north polarity on the left and south polarity on the right, as can be seen in the image corresponding to the period (tb). When the field pulse (4) is close enough to both reaction rings, they begin to create a polar field pulse, as shown in the figure corresponding to the period (tb), resulting in a repulsion of the primary reaction ring (23) to the left when fields of the same polarity collide , while in the secondary reaction ring (22) the attractive force of this ring relative to the field impulse (4) will be represented as belonging to space, which determines as a result the total impulse to the left of the three rings and the supporting structure that holds them. In the period (tc) we we see the general interaction of the field pulse (4) with the primary reactive field (32) and the secondary reactive field (24). This creates a net repulsive force (25) to the field momentum (4) and a net

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Claims (6)

the force of attraction (26) to the field impulse (4). In fig. Figure 11 shows the basic structure of a pure electric motor. In this case, three plates are placed on the support structure (3), the emitter plate (28), the primary reaction plate (29) and the secondary reaction plate (27). These plates can be implemented using electronic control and high voltage power supply circuits so that the charge that is stored on these plates, positive or negative, act as elements to generate electric fields of appropriate polarity. It is important to note that, unlike the creation of magnetic fields, electric fields are generated in a charged plate, have field lines or propagation lines perpendicular to the plane of the panel, and they propagate with the same polarity towards one side or the other of the plates. We continue to consider (L) the distance between each plate, as in the case of the solution with magnetic fields. In fig. Figure 12 shows the process of a running cycle with the engine operating only with an electric field. In the section labeled period (td), the emitter plate (28) is used to create an initial electric field pulse that moves perpendicularly in both directions of the emitter plate (28). The duration of such a pulse is less than or equal to the distance (L) that separates the plates from each other, divided by (C), which is the speed of light. The initial electric field pulse (33) is disconnected from its emitter plate (28) and moves to the other plates, the primary reaction plate (29) and the secondary reaction plate (27). After the initial electric field pulse (33) reaches the reaction plates (27, 29), they emit two electric field pulses (34, 35) as shown in FIG. 12. The initial pulse of the electric field (33) will find a field of equal polarity. The primary electric field pulse (34) on the left side creates a repulsion between the initial electric field pulse (33), which is now only associated with space, and the primary electric field pulse (34), which was created by the primary reaction plate (33), as can be seen in period (te), and on the right side of the figure it can be seen that the initial electric field pulse (33) is with the secondary electric field pulse (35) created by the secondary reaction plate (27), which creates an attractive effect between the initial electric field pulse ( 33) and the secondary reaction plate (27), as seen in the period (tf) corresponding to the bottom line in FIG. 12. This interaction of fields creates a repulsive force of the primary reaction plate (29) relative to the initial electric field (33) and an attractive force of the secondary reaction plate (27) relative to the initial electric field (33), given that the initial electric field (33) is completely disconnected from emitters, support structure and other engine components. The impulse is created from space in the direction of the reaction plates (27, 29), creating a final impulse in the same direction, in this case, to the left, being the forces of attraction and repulsion (31 and 30), forces that are added to the resulting impulse in the same direction, such forces are the result of the attractive force (30) and the repulsive force (31) of the surrounding space, connected by the initial electric field (33). As can be seen from the description, this engine or engine of the reactive control system requires only electrical power to operate, and can operate in a vacuum or outer space, electrical power can be obtained from solar panels, nuclear batteries, etc., and does not require the use of liquid to operate , can operate independently in the presence of any power source that can be converted into electrical power. In fig. 13 shows the same motor concept, but using electromagnetic pulses created by the emitter and the microwave antenna array (36), which creates electromagnetic pulses (38), where the target is a conductive plate (37), which can be replaced at any time a resonant circuit or other radiator and a microwave antenna array (36) located at a distance (L) from the first group and pointing in the opposite direction, or in the direction of the first antenna radiator group, such transmitters with their respective antennas being controlled by the same power drive and synchronization circuits. CLAIM 1. Ultra-high-frequency electromagnetic motor containing a primary emitter of field pulses; the first target located at a distance (L) relative to the primary emitter of field pulses; a support structure on which the primary field pulse emitter and the first target are installed; electronic power management circuit; power controller; control circuit and overvoltage control circuit, wherein - 6 044440 the primary emitter of field pulses is configured to create pulses of duration (t), and the value of t is less than or equal to the distance (L) divided by (C), where (C) is the speed of light, which allows you to disconnect the pulse from the source, and with repetition frequency in the UHF and microwave range of the primary emitter of field pulses. 2. An ultra-high-frequency electromagnetic motor according to claim 1, in which the primary emitter of field pulses is made in the form of a first hollow circular ring with a tubular structure, and inside the tubular structure there is a conductor running along the length of the tubular structure, but insulated in such a way that the conductor does not contact with the inner walls of the tube, except for one end, the conductor being connected by a surge suppressor connected to the power controller; wherein the power controller is controlled by a microcontroller that sets the duration and timing of the pulses created by discharging energy that is stored in a bank of capacitors, wherein the capacitors are charged by a power source, wherein the discharges created on the surface of the ring create a high-power magnetic pulse with a minimum duration, the first purpose being is a plate of conductive material mounted on the specified supporting structure holding the primary emitter of field pulses. 3. Ultra-high-frequency electromagnetic motor according to claim 1, containing a power supply circuit; a microcontroller, wherein the first target consists of a second ring connected to a power supply circuit configured to emit the pulses, the emission of the pulses being synchronized and controlled by the microcontroller such that the first target emits a magnetic pulse after the primary field pulse emitter has generated the first field pulse or primary field pulse, the first field pulse has a short duration t and is disconnected from the emitter element of the primary field pulse when directed towards the first target; the pulse generated by the second ring of the first target interacts with the first field pulse generated first by the primary field pulse emitter, and this interaction creates an attractive or repulsive force relative to the field that passes in the intermediate space between the first target and the primary field pulse emitter, which force after application for a time (t) creates a micro-impulse, and repeating this process billions of times per second creates as a whole, after one second, the total impulse exerted by the field pulses on the target ring and on the supporting structure. 4. The ultra-high frequency electromagnetic motor according to claim 1, comprising a second target consisting of a third ring, the third ring located at the other end of the support structure with a primary field pulse emitter in the center; the primary emitter of field pulses is located at an equidistant distance (L) from each of the two targets; and three rings are arranged longitudinally along the support structure; the third ring of the first target is controlled in the same way as the second ring of the first target, and the power of the third ring occurs inversely relative to the second ring, with one target ring generating a field that creates an attractive force; and the other ring generates a field that creates a repulsive force relative to the primary field pulse of the primary field pulse emitter. 5. An ultra-high-frequency electromagnetic motor according to claim 1, in which the primary emitter of field pulses contains two rings in a Helmholtz group, and the two rings compress the field lines of the emitted field pulses. 6. The ultra-high frequency electromagnetic motor according to claim 1, wherein the primary field pulse emitter and the first target are conductive plates or boards connected to a corresponding microcontroller, wherein the corresponding microcontroller is responsible for controlling and synchronizing the operation of power management circuits; wherein the power control circuits apply high voltage pulses to the plates configured to charge the plates at different polarities when the primary field pulse emitter emits electric field pulses; and electric field pulses penetrate or propagate perpendicular to the target plane in both directions perpendicular to the conductive plates, wherein an electric field pulse of such short duration is disconnected from the plate that generated it and the pulse moves through the intermediate space between the two plates so that the second plate is synchronized for charging second voltage pulse, and