Lift generator using horizontal force

Abstract

To provide a lift generator that utilizes horizontal force to improve the fuel efficiency of automobiles. 【Solution means】To improve the fuel efficiency of automobiles, lift generators 1 for lifting the vehicle body are installed on both the left and right sides. By simultaneously activating lift impact devices 2 that combine pole-designated electromagnets 4-1, reaction horizontal protrusions 5-2, and impact vertical protrusions 5-5, the impact force of an even number of lift impact devices is increased by a half-wave rectified pulsating current, and by activating other even-numbered lift impact devices with a delayed pulsating current to continuously generate impact force, a lift force for floating a load object is generated. Since the electromagnetic reaction force by the left and right pole-designated electromagnets and the reaction plate reaction force by the left and right reaction plates 5-1 are opposite in direction and equal in magnitude in the horizontal direction, there is no horizontal movement. The mechanism of the lift generator is also valid in an environment where gravity does not exist.

Description

Technical Field

[0001] The present invention simultaneously activates lift impact devices that are installed on both the left and right sides and combine a magnetically specified electromagnet, a horizontal projection for reaction force, and a vertical projection for impact, and increases the impact force of an even number of the lift impact devices by a half-wave rectified pulsating current. At the same time, an even number of other lift impact devices are activated by a delayed pulsating current, and the impact force is continuously generated to generate a lift for floating a load object. The electromagnetic reaction force by the left and right magnetically specified electromagnets and the reaction force of the reaction plates by the left and right reaction plates are opposite in direction and the same in magnitude in the horizontal direction, so there is no horizontal movement. The mechanism of the lift generator also holds in an environment where there is no gravity. The present invention relates to a lift generator that utilizes horizontal force, characterized by the above.

Background Art

[0002] Conventionally, there has been no lift generator that simultaneously activates lift impact devices installed on both the left and right sides, which combine a magnetically specified electromagnet, a horizontal projection for reaction force, and a vertical projection for impact, increases the impact force of an even number of the lift impact devices by a half-wave rectified pulsating current, and continuously generates the impact force by activating an even number of other lift impact devices by a delayed pulsating current to generate a lift for floating a load object. The electromagnetic reaction force by the left and right magnetically specified electromagnets and the reaction force of the reaction plates by the left and right reaction plates are opposite in direction and the same in magnitude in the horizontal direction, so there is no horizontal movement. The mechanism of the lift generator also holds in an environment where there is no gravity.

Summary of the Invention

Problems to be Solved by the Invention

[0003] In existing automobiles, due to the large vehicle body weight, improving fuel efficiency has been a problem, and efforts such as reducing the vehicle body weight have been made, but there has been no significant progress in fuel efficiency.

Means for Solving the Problem

[0004] In order to improve the fuel efficiency of an automobile, from the idea that a lift generator for lifting the vehicle body may be attached to the vehicle body, a lift striking device combining a magnetically specified electromagnet, a horizontal projection for reaction force, and a vertical projection for striking, installed on both the left and right sides, is simultaneously activated, and the striking force of an even number of the lift striking devices is increased by a half-wave rectified pulsating current, and at the same time, an even number of the other lift striking devices are activated by a delayed pulsating current to continuously generate the striking force, thereby generating a lift for floating a load object. The electromagnetic force reaction by the left and right magnetically specified electromagnets and the reaction plate reaction by the left and right reaction plates do not cause horizontal movement because they are opposite in direction and equal in magnitude in the horizontal direction. Also, the mechanism of the lift generator holds true even in an environment where gravity does not exist. A lift generator utilizing horizontal force is thus devised, which is characterized by the above.

Effect of the Invention

[0005] By attaching the lift generator utilizing horizontal force of the present invention to the vehicle body of an automobile, the weight applied to the vehicle body of the automobile can be significantly reduced, and by enhancing the strength and output of each component of the lift generator utilizing horizontal force, the automobile can also be placed in a state close to floating, thus making it possible to create a new transport vehicle.

Brief Description of the Drawings

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Embodiments for Carrying Out the Invention

[0007] First, as shown in FIGS. 1, 2, 3, 4, 5, and 6, a lift generating machine base 1-1 is made for mounting a load object tray 3, and for fixedly installing a lift generating device 2 that combines a magnetic pole designating electromagnet 4-1, a reaction force horizontal protrusion 5-2, and the impact vertical protrusion 5-5 by existing methods such as adhesion with an adhesive or fixing with screws. The lift generating machine base 1-1 has a uniform and small thickness, is disk-shaped, and has 4n (n is a positive integer) vertical protrusion through-holes 1-3 for the impact vertical protrusion 5-5-2 with an impact solid magnet attached near the center, and load movement preventing protrusions 1-2 are provided in the east-west and north-south directions to prevent the load object tray 3 from moving horizontally.

[0008] When making the lift generating machine base 1-1, as shown in FIGS. 1, 4, 5, and 6, at four locations in the east-west and north-south directions on the board of the lift generating machine base 1-1, load movement preventing protrusions 1-2 are made to be integrally formed with the lift generating machine base 1-1 or separately made and then fixedly installed by existing methods such as adhesion with an adhesive or fixing with screws to prevent the load object tray 3 from moving horizontally.

[0009] Separately, as shown in FIG. 27, an impact receiving tray reaction force 17-1 is generated, which is a reaction force from top to bottom by the load object tray 3 corresponding to the impact from bottom to top by the impact vertical protrusion 5-5 having an impact solid magnet 5-5-2 set so that the upper surface is the N pole. The impact from bottom to top by the impact vertical protrusion 5-5 is received, and the repulsive force between the N poles of the magnets softens the impact and vibration on the load object tray 3. To this end, as shown in FIGS. 9, 10, 11, and 12, a tray reaction force generating disk 3-4 is made by fitting a tray solid magnet 3-4-2 into a tray reaction force generating disk base 3-4-1 so that the lower surface of the tray solid magnet 3-4-2 is the N pole, using existing materials and existing methods.

[0010] Next, on the upper surface of the load object receiving tray base 3-2, the load object cushion 3-1 is adhesively fixed by an existing method such as adhesion with an adhesive. On the lower surface of the load object receiving tray base 3-2, the lift generating machine base cushion 3-3 and the reaction force generating plate 3-4 are adhesively fixed by an existing method such as adhesion with an adhesive to form the load object receiving tray 3. After that, the load object receiving tray 3 is inserted inside the load movement preventing protrusion 1-2 and placed on the lift generating machine base 1-1.

[0011] Separately, as shown in FIG. 13, a set of components consisting of a magnetic pole designating electromagnet 4-1, an electromagnet support frame 4-2, and an electromagnet support plate 4-3 is made by using existing materials and existing methods. By fixing this set of components to the lift generating machine base 1-1, the reaction force horizontal protrusion ejecting electromagnet set 4 that enables the lift impact device 2 to function is made.

[0012] Alternatively, as shown in FIGS. 18 and 19, and as shown in FIG. 27, the electromagnetic force of the N pole of the magnet of the pole-designated electromagnet 4-1, represented as 16, repels the reaction force horizontal protrusion 5-2 having the N pole of the magnet, and accordingly, the impact vertical protrusion 5-5 moves from the bottom to the top of the load object tray 3. The impact vertical protrusion 5-5, represented as 14-1 in FIG. 31, applies an electromagnetic impact force to strike the reaction force generating plate 3-4 of the tray. Next, as shown in FIG. 27, due to the reaction force from the load object tray 3, represented as 17-1, the load object tray reaction force, the impact vertical protrusion 5-5 is repelled from the top to the bottom, and the reaction force horizontal protrusion 5-2 strikes the reaction plate 5-1. Due to the reaction force from the reaction plate 5-1, represented as 17-2, the reaction force horizontal protrusion 5-2 is repelled again, creating a movement where it is repelled, strikes the reaction plate 5-1, and is repelled again. Further, as shown in FIG. 27, when the reaction force horizontal protrusion 5-2 returns to its original position after being repelled from the reaction plate 5-1, the electromagnetic force of the N pole of the magnet of the pole-designated electromagnet 4-1 repels the reaction force horizontal protrusion 5-2 again. As a result, the moving speed of the reaction force horizontal protrusion 5-2 increases after the second time. Accordingly, as shown in FIG. 31, an additional impact force, represented as 15-1, due to the reaction force from the reaction plate 5-1 is added to the electromagnetic impact force, represented as 14-1, where the impact vertical protrusion 5-5 strikes the reaction force generating plate 3-4 of the tray, creating a situation where the impact force striking the load object tray 3 from the bottom to the top increases. The acceleration generating impact device 5 is fabricated using existing materials and existing methods.

[0013] Next, fix the reaction force horizontal protrusion ejecting electromagnet set 4 and the acceleration generating impact device 5 to the lower surface of the lift generating machine base 1-1 by existing methods such as adhesion with an adhesive. Then, fix the lift impact device cover 2-9 to the lower surface of the lift generating machine base 1-1 by existing methods such as adhesion with an adhesive to make the lift impact device 2. However, group the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7 and arrange them in the east-west-north-south directions. Also, group the northwest lift impact device 2-2, the southwest lift impact device 2-4, the southeast lift impact device 2-6, and the northeast lift impact device 2-8 with delays and arrange them in the northwest, southwest, southeast, and northeast directions, and fix them by existing methods such as adhesion with an adhesive.

[0014] Separately, as shown in FIG. 30, arrange the power supply 6-3, the rectifier 6-4, the transformer 6-5, the current wavelength adjuster 6-6, and the delay timer 6-7 necessary to start the lift generating machine 1 using the horizontal force of the present invention. Further, make the lift generating machine circuit 6 by arranging the north lift impact device connection terminal 6-2-1, the west lift impact device connection terminal 6-2-3, the south lift impact device connection terminal 6-2-5, the east lift impact device connection terminal 6-2-7, and the northwest lift impact device connection terminal 6-2-2, the southwest lift impact device connection terminal 6-2-4, the southeast lift impact device connection terminal 6-2-6, and the northeast lift impact device connection terminal 6-2-8. Connect the respective lead wires 4-1-3 for the pole-designated electromagnets of the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7 to the north lift impact device connection terminal 6-2-1, the west lift impact device connection terminal 6-2-3, the south lift impact device connection terminal 6-2-5, and the east lift impact device connection terminal 6-2-7. At the same time, connect the respective lead wires 4-1-3 for the pole-designated electromagnets of the northwest lift impact device 2-2, the southwest lift impact device 2-4, the southeast lift impact device 2-6, and the northeast lift impact device 2-8 to the northwest lift impact device connection terminal 6-2-2, the southwest lift impact device connection terminal 6-2-4, the southeast lift impact device connection terminal 6-2-6, and the northeast lift impact device connection terminal 6-2-8.

[0015] Next, using the rectifier 6-4, create the pulsating current represented as 13-1 and the delayed pulsating current represented as 13-2. Using the transformer 6-5, the reaction force horizontal protrusion 5-2 with the reaction force solid magnet 5-2-2 installed in the left lift impact device 2 and the reaction force horizontal protrusion 5-2 with the reaction force solid magnet 5-2-2 installed in the right lift impact device 2 are simultaneously repelled in the horizontal center direction using the electromagnetic force represented as 16, and by changing the moving direction upward near the center, the impact solid magnet 5-5-2 is used to strike the upper load object tray 3 with the impact vertical protrusion 5-5. To cause such an operation, set the voltages of the pulsating current and the delayed pulsating current, and by using the current wavelength adjuster 6-6 to change the wavelengths of the pulsating current and the delayed pulsating current, as shown in Fig. 27, the electromagnetic force of the N pole of the magnet of the pole-designated electromagnet 4-1, represented as 16, repels the reaction force horizontal protrusion 5-2 with the N pole of the magnet, and accordingly, the impact vertical protrusion 5-5 gives the electromagnetic impact force represented as 14-1 in Fig. 31 to the load object tray 3 from bottom to top. Next, as shown in Fig. 27, due to the reaction force of the load object tray, the load object tray reaction force represented as 17-1, the impact vertical protrusion 5-5 is repelled from top to bottom, the reaction force horizontal protrusion 5-2 strikes the reaction plate 5-1, and due to the reaction force of the reaction plate 5-1, the reaction plate reaction force represented as 17-2, the reaction force horizontal protrusion 5-2 is repelled again. When it returns to the original position, set the wavelengths of the pulsating current and the delayed pulsating current to match the movement of the lift impact device 2 so that the electromagnetic force of the N pole of the magnet of the pole-designated electromagnet 4-1 can repel the reaction force horizontal protrusion 5-2 again.

[0016] After finishing the setting of the lift generator circuit 6, by turning on the switch 6-2, the lift generator 1 is started. As shown in FIGS. 28 and 29, a pulsating current represented as 13-1 is passed through a group of the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7, so that the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7 simultaneously strike the load object tray 3. After arranging the existing delay timer, a delayed pulsating current represented as 13-2 is passed through a group of the northwest lift impact device 2-2, the southwest lift impact device 2-4, the southeast lift impact device 2-6, and the northeast lift impact device 2-8. In a time zone when the pulsating current does not exist, the northwest lift impact device 2-2, the southwest lift impact device 2-4, the southeast lift impact device 2-6, and the northeast lift impact device simultaneously strike the load object tray 3, so that a striking force for striking the load object tray 3 from bottom to top is continuously generated. By using the half-wave rectified pulsating current and the delayed pulsating current, as shown in FIG. 27, when the reaction force horizontal protrusion 5-2 is bounced back from the reaction plate 5-1 to the original position for the first time, the electromagnetic force reaction 16 of the N pole of the magnet of the magnetic pole designated electromagnet 4-1 bounces back the reaction force horizontal protrusion 5-2 again, and the moving speed of the reaction force horizontal protrusion 5-2 after the second time increases. Along with this, as shown in FIG. 31, an additional striking force represented as 15-1 by the reaction plate reaction force 17-2 from the reaction plate 5-1 is added to the electromagnetic striking force represented as 14-1 of the striking vertical protrusion 5-5, creating a situation where the striking force for striking the load object tray 3 from bottom to top increases, gradually increasing the striking force from the bottom to the load object tray 3 and generating a lift force for floating the load object placed on the load object tray 3.

Embodiment

[0017] First, as shown in FIGS. 1, 2, 3, 4, 5, and 6, it is a component made by an existing method using an existing insulating material such as hard anodized aluminum that has a strength to withstand impact and vibration and does not stick to a magnet. It has a uniform and small thickness, is disc-shaped, and has, near the center, four times the number of vertical protrusion through-holes 1-3 for the vertical impact protrusion 5-5-2 with the impact solid magnet 5-5-2 passing through. Load movement prevention protrusions 1-2 are provided in the east, west, south, and north directions to prevent the load object tray 3 from moving horizontally. It is characterized by having a load object tray 3 for placing the load object tray 3, and a lift impact device 2 that combines the magnetic pole designating electromagnet 4-1, the reaction force horizontal protrusion 5-2, and the impact vertical protrusion 5-5 is fixedly installed by an existing method such as adhesion with an adhesive or fixing with screws to make a lift generation machine base 1-1.

[0018] Next, as shown in FIGS. 1, 4, 5, and 6, it is a component made by an existing method using an existing insulating material such as hard anodized aluminum that has a strength to withstand impact and vibration and does not stick to a magnet. When making the lift generation machine base 1-1, load movement prevention protrusions 1-2 are made at four locations in the east, west, south, and north directions on the board of the lift generation machine base 1-1 to prevent the load object tray 3 from moving horizontally. These protrusions are integrally formed with the lift generation machine base 1-1 or separately formed and then fixedly installed by an existing method such as adhesion with an adhesive or fixing with screws.

[0019] Separately, as shown in FIG. 27, the impact vertical protrusion 5-5 with the impact solid magnet 5-5-2 set so that the upper surface is the N pole receives the impact from bottom to top. Due to the repulsive force between the N poles of the magnets, the impact and vibration on the load object tray 3 are alleviated. To generate the load object tray reaction force represented as 17-1, which is the reaction force from top to bottom by the load object tray 3 corresponding to the impact from bottom to top by the impact vertical protrusion 5-5, as shown in FIGS. 9, 10, 11, and 12, a tray reaction force generation disc 3-4 is made by fitting a tray solid magnet 3-4-2 into a tray reaction force generation disc base 3-4-1 so that the lower surface of the tray solid magnet 3-4-2 is the N pole, using existing materials and existing methods.

[0020] Next, on the upper surface of the load object receiving tray base 3-2, the load object cushion 3-1 is adhesively fixed by an existing method such as adhesion with an adhesive. On the lower surface of the load object receiving tray base 3-2, the lift force generator base cushion 3-3 and the reaction force generating plate 3-4 are adhesively fixed by an existing method such as adhesion with an adhesive to form the load object receiving tray 3. Then, the load object receiving tray 3 is inserted inside the load movement preventing protrusion 1-2 and placed on the lift force generator base 1-1.

[0021] Separately, as shown in Fig. 13, a set of components consisting of a magnetic pole designated electromagnet 4-1, an electromagnet support frame 4-2, and an electromagnet support plate 4-3 is made by using existing materials and existing methods. By fixing this set of components to the lift force generator base 1-1, the reaction force horizontal protrusion ejecting electromagnet set 4 that enables the lift force striking device 2 to function is formed.

[0022] Specifically, as shown in FIGS. 18 and 19, it is a component composed of a reaction plate 5-1, a horizontal projection 5-2 for reaction force, a housing 5-3 of the horizontal projection for reaction force, a housing 5-4 of the vertical projection for impact, a vertical projection 5-5 for impact, a connecting rod 5-6 between the horizontal and vertical projections, a support rod 5-7 for the vertical projection, a support rod 5-8 for the horizontal projection, a suspension rod 5-9 for the horizontal projection, and a support frame 5-10 for the horizontal and vertical projections. As shown in FIG. 27, the electromagnetic reaction force represented as 16 of the N pole of the magnet of the magnetically specified electromagnet 4-1 repels the horizontal projection 5-2 for reaction force having the N pole of the magnet, and accordingly, the vertical projection 5-5 for impact moves from the bottom to the top of the load object tray 3, and the vertical projection 5-5 for impact strikes the reaction force generating plate 3-4 of the tray, applying the electromagnetic impact force represented as 14-1 shown in FIG. 31. Next, as shown in FIG. 27, due to the reaction force from the load object tray 3, namely, the load object tray reaction force represented as 17-1, the vertical projection 5-5 for impact is repelled from the top to the bottom, and the horizontal projection 5-2 for reaction force strikes the reaction plate 5-1, and due to the reaction force from the reaction plate 5-1, namely, the reaction plate reaction force represented as 17-2, the horizontal projection 5-2 for reaction force is repelled again, creating a movement. Furthermore, as shown in FIG. 27, when the horizontal projection 5-2 for reaction force returns to its original position after being repelled from the reaction plate 5-1, the electromagnetic reaction force of the N pole of the magnet of the magnetically specified electromagnet 4-1 repels the horizontal projection 5-2 for reaction force again, so that the moving speed of the horizontal projection 5-2 for reaction force after the second time increases. Accordingly, as shown in FIG. 31, an additional impact force represented as 15-1 due to the reaction plate reaction force from the reaction plate 5-1 is added to the electromagnetic impact force with which the vertical projection 5-5 for impact strikes the reaction force generating plate 3-4 of the tray, creating a situation where the impact force for striking the load object tray 3 from the bottom to the top increases. The acceleration generating impact device 5 is fabricated using existing materials and existing methods.

[0023] Next, by an existing method such as adhesion with an adhesive, after fixing the reaction force horizontal projection ejecting electromagnet set 4 and the acceleration generating impact device 5 to the lower surface of the lift generating machine base 1-1, the lift impact device cover 2-9 is fixed to the lower surface of the lift generating machine base 1-1 by an existing method such as adhesion with an adhesive to make the lift impact device 2. However, the group of the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7 is arranged in the east-west-north-south direction, and also, the group of delays of the northwest lift impact device 2-2, the southwest lift impact device 2-4, the southeast lift impact device 2-6, and the northeast lift impact device 2-8 is arranged in the northwest direction, the southwest direction, the southeast direction, and the northeast direction, and is fixed by an existing method such as adhesion with an adhesive.

[0024] Incidentally, as shown in FIG. 30, a power supply 6-3, a rectifier 6-4, a transformer 6-5, a current wavelength adjuster 6-6, and a delay timer 6-7 necessary for starting the lift generator 1 utilizing the horizontal force of the present invention are arranged. Further, for connecting the respective lead wires 4-1-3 for the pole-designated electromagnets of each group of the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7, there are provided a north lift impact device connection terminal 6-2-1, a west lift impact device connection terminal 6-2-3, a south lift impact device connection terminal 6-2-5, and an east lift impact device connection terminal 6-2-7. Also, for connecting the respective lead wires 4-1-3 for the pole-designated electromagnets of each group of the northwest lift impact device 2-2, the southwest lift impact device 2-4, the southeast lift impact device 2-6, and the northeast lift impact device 2-8, there are provided a northwest lift impact device connection terminal 6-2-2, a southwest lift impact device connection terminal 6-2-4, a southeast lift impact device connection terminal 6-2-6, and a northeast lift impact device connection terminal 6-2-8. A lift generator circuit 6 is formed. The respective lead wires 4-1-3 for the pole-designated electromagnets of the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7 are connected to the north lift impact device connection terminal 6-2-1, the west lift impact device connection terminal 6-2-3, the south lift impact device connection terminal 6-2-5, and the east lift impact device connection terminal 6-2-7. At the same time, the respective lead wires 4-1-3 for the pole-designated electromagnets of the northwest lift impact device 2-2, the southwest lift impact device 2-4, the southeast lift impact device 2-6, and the northeast lift impact device 2-8 are connected to the northwest lift impact device connection terminal 6-2-2, the southwest lift impact device connection terminal 6-2-4, the southeast lift impact device connection terminal 6-2-6, and the northeast lift impact device connection terminal 6-2-8.

[0025] Next, the rectifier 6-4, transformer 6-5, and current wavelength adjuster 6-6 of the lift generator circuit 6 for starting the lift generator 1, which was constructed through the above operations, will be adjusted. Using the rectifier 6-4, a pulsating current represented as 13-1 and a delayed pulsating current represented as 13-2 are created. Using the transformer 6-5, the reaction force horizontal protrusion 5-2 with the reaction force solid magnet 5-2-2 installed in the left lift striking device 2 and the reaction force horizontal protrusion 5-2 with the reaction force solid magnet 5-2-2 installed in the right lift striking device 2 are simultaneously repelled in the horizontal center direction using the electromagnetic reaction force represented as 16, and by changing their moving direction upward near the center, the striking vertical protrusion 5-5 with the striking solid magnet 5-5-2 strikes the upper load object receiving tray 3. To cause such an operation, the voltages of the pulsating current and the delayed pulsating current are set, and using the current wavelength adjuster 6-6, the wavelengths of the pulsating current and the delayed pulsating current are changed. As shown in FIG. 27, the electromagnetic reaction force represented as 16 of the N pole of the magnet of the pole-designated electromagnet 4-1 repels the reaction force horizontal protrusion 5-2 with the N pole of the magnet, and accordingly, the striking vertical protrusion 5-5 gives the electromagnetic striking force represented as 14-1 shown in FIG. 31 to the load object receiving tray 3 from below to above. Next, as shown in FIG. 27, due to the load object receiving tray reaction force represented as 17-1, which is the reaction force from the load object receiving tray 3, the striking vertical protrusion 5-5 is repelled from above to below, and the reaction force horizontal protrusion 5-2 strikes the reaction plate 5-1. Due to the reaction plate reaction force represented as 17-2, which is the reaction force from the reaction plate 5-1, the reaction force horizontal protrusion 5-2 is repelled again and returns to its original position. When it returns to the original position, the electromagnetic reaction force of the N pole of the magnet of the pole-designated electromagnet 4-1 can repel the reaction force horizontal protrusion 5-2 again. Set the wavelengths of the pulsating current and the delayed pulsating current to match the movement of the lift striking device 2.

[0026] After setting the lift generator circuit 6, by turning on the switch 6-2, the lift generator 1 is activated. As shown in FIGS. 28 and 29, a pulsating current represented as 13-1 is passed through the group of the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7, so that the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7 simultaneously strike the load object tray 3. After arranging the existing delay timer, a delayed pulsating current represented as 13-2 is passed through the group of the northwest lift impact device 2-2, the southwest lift impact device 2-4, the southeast lift impact device 2-6, and the northeast lift impact device 2-8. During the time period when the pulsating current does not exist, the northwest lift impact device 2-2, the southwest lift impact device 2-4, the southeast lift impact device 2-6, and the northeast lift impact device simultaneously strike the load object tray 3, so that a striking force that strikes the load object tray 3 from bottom to top continuously occurs. By using the half-wave rectified pulsating current and the delayed pulsating current, as shown in FIG. 27, when the reaction force horizontal protrusion 5-2 is bounced back from the reaction plate 5-1 to the original position for the first time, the electromagnetic force reaction 16 of the N pole of the magnet of the magnetic pole designated electromagnet 4-1 bounces back the reaction force horizontal protrusion 5-2 again, and the moving speed of the reaction force horizontal protrusion 5-2 after the second time increases. Along with this, as shown in FIG. 31, an additional striking force represented as 15-1 by the reaction plate reaction 17-2 from the reaction plate 5-1 is added to the electromagnetic striking force represented as 14-1 of the striking vertical protrusion 5-5, creating a situation where the striking force that strikes the load object tray 3 from bottom to top increases, gradually increasing the striking force from the bottom to the load object tray 3 and generating a lift force to float the load object placed on the load object tray 3.

Industrial Applicability

[0027] The lift generator using the horizontal force of the present invention can be attached not only to the existing automobile body but also to any vehicle that transports people and goods, so it has the potential to be used in industries that handle transport vehicles.

Explanation of Reference Numerals

[0028] 1 As shown in FIGS. 1 and 2, it has a lift generating machine base 1-1, and has a load movement prevention protrusion 1-2, a load object cushion 3-1, a load object receiving tray base 3-2, and a lift generating machine base cushion 3-3 on the upper surface of the lift generating machine base 1-1. It has a north lift impact device 2-1, a west lift impact device 2-3, a south lift impact device 2-5, and an east lift impact device 2-7, and a northwest lift impact device 2-2, a southwest lift impact device 2-4, a southeast lift impact device 2-6, and a northeast lift impact device 2-8 on the lower surface of the lift generating machine base 1-1. As shown in FIG. 5, the lift impact device 2 combined with the magnetic pole designated electromagnet 4-1, the reaction force horizontal protrusion 5-2, and the impact vertical protrusion 5-5 installed on both left and right sides is simultaneously activated. As shown in FIG. 31, the impact force of an even number of the lift impact devices 2 is increased by the pulsating current represented as 13-1. As shown in FIG. 32, another even number of the lift impact devices 2 are simultaneously activated by the delayed pulsating current represented as 13-2, and the impact force is continuously generated to generate a lift for floating the load object. It is a lift generating machine. The magnetic pole designated electromagnet 4-1 installed in the left lift impact device 2 and the magnetic pole designated electromagnet 4-1 installed in the right lift impact device 2 are simultaneously activated by the pulsating current. The reaction force horizontal protrusion 5-2 with the reaction force solid magnet 5-2-2 installed in the left lift impact device 2 and the reaction force horizontal protrusion 5-2 with the reaction force solid magnet 5-2-2 installed in the right lift impact device 2 are simultaneously bounced horizontally towards the center direction using the electromagnetic force reaction represented as 16, and the moving direction is changed upward near the center. Then, the left and right impact vertical protrusions 5-5 with the impact solid magnet 5-5-2 simultaneously strike the upper load object receiving tray 3. Then, the moving direction of the downward load object receiving tray reaction force represented as 17-1, which is the reaction force from the load object receiving tray 3, is changed to the horizontal left direction and the horizontal right direction this time. The left reaction force horizontal protrusion 5-2 strikes the left reaction plate 5-1, and the right reaction force horizontal protrusion 5-2 strikes the right reaction plate 5-1, generating the reaction plate reaction force represented as 17-2, which is the reaction force from the reaction plate 5-1, simultaneously on both left and right sides, by the two magnetic pole designated electromagnets 4-1 activated by the second wave of the pulsating current.The operation of adding the reaction plate reaction force by the reaction plate 5-1 to the second electromagnetic reaction force that simultaneously repels the two horizontal protrusions 5-2 for reaction force to the left and right in the horizontal center direction is repeatedly generated by using the half-wave rectified pulsating current, gradually increasing the impact force on the upper load object tray 3, and generating a lifting force for floating the load object placed on the load object tray 3. As shown in FIGS. 28 and 29, by passing the pulsating current represented as 13-1 through the group of the north lifting force impact device 2-1, the west lifting force impact device 2-3, the south lifting force impact device 2-5, and the east lifting force impact device 2-7, the north lifting force impact device 2-1, the west lifting force impact device 2-3, the south lifting force impact device 2-5, and the east lifting force impact device 2-7 simultaneously strike the load object tray 3. After arranging the existing delay timer, by passing the delayed pulsating current represented as 13-2 through the delay group of the northwest lifting force impact device 2-2, the southwest lifting force impact device 2-4, the southeast lifting force impact device 2-6, and the northeast lifting force impact device 2-8, the northwest lifting force impact device 2-2, the southwest lifting force impact device 2-4, the southeast lifting force impact device 2-6, and the northeast lifting force impact device simultaneously strike the load object tray 3 during the time period when the pulsating current does not exist. Since the electromagnetic reaction force by the left and right magnetic pole designated electromagnets 4-1 and the reaction plate reaction force by the left and right reaction plates 5-1 are opposite in direction and equal in magnitude in the horizontal direction, there is no horizontal movement. The mechanism is characterized in that it also holds in an environment where gravity does not exist, as shown in FIGS. 1, 2, 3, and 4, a lifting force generator using horizontal force. As shown in FIGS. 1, 2, 3, 4, 5, and 6, it is a component made by an existing method using an existing insulating material such as hard anodized aluminum that has a strength resistant to impact and vibration and does not stick to a magnet. It has a uniform and small thickness, is disc-shaped, and has a vertical protrusion through-hole 1-3 for a vertical impact protrusion 5-5 with a multiple of 4 solid impact magnets 5-5-2 attached near the center. It is characterized by having load movement prevention protrusions 1-2 in the east-west-north-south directions to prevent the load object tray 3 from moving horizontally. It is for placing the load object tray 3, and a lift impact device 2 combining a magnetic pole-designating electromagnet 4-1, a reaction force horizontal protrusion 5-2, and a vertical impact protrusion 5-5 is fixedly installed by an existing method such as adhesion with an adhesive or fixing with screws, for a lift generation machine base 1-2 As shown in FIGS. 1, 4, 5, and 6, it is a component made by an existing method using an existing insulating material such as hard anodized aluminum that has a strength resistant to impact and vibration and does not stick to a magnet. At four locations in the east-west-north-south directions on the board of the lift generation machine base 1-1, it is integrally created with the lift generation machine base 1-1, or separately created and then fixedly installed by an existing method such as adhesion with an adhesive or fixing with screws to prevent the load object tray 3 from moving horizontally. A load movement prevention protrusion 1-3 As shown in FIG. 6, it is a circular hole opened for a vertical impact protrusion 5-5 with a multiple of 4 solid impact magnets 5-5-2 attached near the center of the lift generation machine base 1-1. Not limited to the 8 holes shown in FIG. 6, when increasing the lift, as the number of reaction force horizontal protrusions 5-2 and the vertical impact protrusions 5-5 is increased by a multiple of 2, the number of these holes will also increase. A vertical protrusion through-hole As shown in Fig. 5, it is a component composed of a pole-designating electromagnet 4-1, a diaphragm 5-1, a horizontal projection 5-2 for reaction force, a vertical projection 5-5 for striking, a cover 2-9 for a lifting impact device, etc. The pole-designating electromagnet 4-1 installed in the left part of the component and the pole-designating electromagnet 4-1 installed in the right part of the component are simultaneously activated by the pulsating current represented as 13-1 in Fig. 31. Using the electromagnetic reaction force represented as 16, the horizontal projection 5-2 with a solid magnet 5-2-2 for reaction force installed in the left part of the component and the horizontal projection 5-2 with the solid magnet 5-2-2 for reaction force installed in the right part of the component are simultaneously bounced in the horizontal center direction, and by changing the moving direction upward near the center, the upper load object tray 3 is struck by the vertical projection 5-5 for striking. Then, by changing the moving direction of the downward load object tray reaction force, represented as 17-1, which is the reaction force from the load object tray 3, to the horizontal left direction and the horizontal right direction, the horizontal projection 5-2 for reaction force on the left strikes the diaphragm 5-1 on the left, and the horizontal projection 5-2 for reaction force on the right strikes the diaphragm 5-1 on the right, generating a diaphragm reaction force represented as 17-2, which is the reaction force from the diaphragm 5-1. To the second electromagnetic reaction force that simultaneously bounces the two horizontal projections 5-2 for reaction force in the horizontal center direction by the two pole-designating electromagnets 4-1 activated by the second wave of the pulsating current, the diaphragm reaction force by the diaphragm 5-1 is added. By using the half-wave rectified pulsating current, this operation is repeatedly generated to gradually increase the impact force on the upper load object tray 3 and generate a lifting force for floating the load object placed on the load object tray 3. For this mechanism, the pole-designating electromagnet 4-1, the horizontal projection 5-2 for reaction force, and the vertical projection 5-5 for striking installed on both the left and right sides are combined into a lifting impact device As shown in FIGS. 2, 3, 4, and 5, it is a component composed of a pole-designating electromagnet 4-1, a reaction plate 5-1, a reaction horizontal projection 5-2, a striking vertical projection 5-5, a lift striking device cover 2-9, etc. Also, in FIG. 3, it is the lift striking device installed in the north direction among the eight lift striking devices. By creating the wiring circuit 6 shown in FIG. 30, as shown in FIG. 28, together with the west lift striking device 2-3 installed in the west direction, the south lift striking device 2-5 installed in the south direction, and the east lift striking device 2-7 installed in the east direction, it simultaneously receives the pulsating current represented as 13-1 after half-wave rectification, causing the four pole-designating electromagnets 4-1 to operate simultaneously, creating a situation where the four striking vertical projections 5-5 simultaneously strike the load object tray 3. It is the north lift striking device among the four sets of the lift striking devices for creating such a situation As shown in FIGS. 2, 3, 4, and 5, it is a component composed of a pole-designating electromagnet 4-1, a diaphragm 5-1, a reaction horizontal projection 5-2, a striking vertical projection 5-5, a lift striking device cover 2-9, etc. Also, in FIG. 3, it is the lift striking device installed in the northwest direction among the eight lift striking devices. In the wiring circuit 6 shown in FIG. 30, after arranging a commercially available existing delay timer and then arranging this component, as shown in FIG. 32, a delayed pulsating current represented as 13-2 is generated with a delay to the pulsating current represented as 13-1, and when the pulsating current disappears, by flowing this delayed pulsating current during the time period when the pulsating current does not exist, it is delayed from the group of the north lift striking device 2-1, the west lift striking device 2-3, the south lift striking device 2-5, and the east lift striking device 2-7, and this component and the group of the southwest lift striking device 2-4, the southeast lift striking device 2-6, and the northeast lift striking device 2-8 will simultaneously strike the load object tray 3, and since the striking force on the load object tray 3 can be continuously generated, as shown in FIG. 29, together with the southwest lift striking device 2-4, the southeast lift striking device 2-6, and the northeast lift striking device 2-8, they simultaneously receive the half-wave rectified delayed pulsating current, and the four pole-designating electromagnets 4-1 operate simultaneously, creating a situation where the four striking vertical projections 5-5 simultaneously strike the load object tray 3. It is installed to create such a situation. Among the four sets of this lift striking device, the northwest lift striking device As shown in FIGS. 2, 3, 4, and 5, it is a component composed of a pole-designating electromagnet 4-1, a reaction plate 5-1, a reaction horizontal protrusion 5-2, a striking vertical protrusion 5-5, a lift striking device cover 2-9, etc. Also, in FIG. 3, it is the lift striking device installed in the west direction among the eight lift striking devices. By creating the wiring circuit 6 shown in FIG. 30, as shown in FIG. 28, together with the lift striking device 2-1 installed in the north direction, the lift striking device 2-5 installed in the south direction, and the lift striking device 2-7 installed in the east direction, it receives the pulsating current represented as the half-wave rectified 13-1 at the same time, causing the four pole-designating electromagnets 4-1 to operate simultaneously, creating a situation where the four striking vertical protrusions 5-5 strike the load object tray 3 simultaneously. It is the west lift striking device among the four sets of such lift striking devices for creating such a situation As shown in FIGS. 2, 3, 4, and 5, it is a component composed of a pole-designating electromagnet 4-1, a reaction plate 5-1, a horizontal projection 5-2 for reaction force, a vertical projection 5-5 for impact, a lift impact device cover 2-9, etc. Also, in FIG. 3, it is the lift impact device installed in the southwestern direction among the 8 lift impact devices. In the wiring circuit 6 shown in FIG. 30, after arranging a commercially available existing delay timer and then arranging this component, as shown in FIG. 32, a delayed pulsating current represented as 13-2 is generated with a delay with respect to the pulsating current represented as 13-1, and when the pulsating current disappears, the delayed pulsating current is made to flow during the time period when the pulsating current does not exist. As a result, the group of the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7 is delayed, and the group of the northwestern lift impact device 2-2, this component, the southeastern lift impact device 2-6, and the northeastern lift impact device 2-8 will strike the load object tray 3, and the impact force on the load object tray 3 can be continuously generated. Therefore, as shown in FIG. 29, together with the northwestern lift impact device 2-2, the southeastern lift impact device 2-6, and the northeastern lift impact device 2-8, the half-wave rectified delayed pulsating current is received simultaneously, and the 4 pole-designating electromagnets 4-1 operate simultaneously, creating a situation where the 4 vertical projections 5-5 for impact strike the load object tray 3 simultaneously. It is installed to create such a situation, and among the 4 sets of this lift impact device, the southwestern lift impact device As shown in FIGS. 2, 3, 4, and 5, it is a component composed of a pole-designating electromagnet 4-1, a reaction plate 5-1, a reaction horizontal protrusion 5-2, a striking vertical protrusion 5-5, a lift striking device cover 2-9, etc. Also, in FIG. 3, it is the lift striking device installed in the south direction among the eight lift striking devices. By creating the wiring circuit 6 shown in FIG. 30, as shown in FIG. 28, together with the lift striking device 2-1 installed in the north direction, the lift striking device 2-3 installed in the west direction, and the lift striking device 2-7 installed in the east direction, it receives the pulsating current represented as the half-wave rectified 13-1 at the same time, causing the four pole-designating electromagnets 4-1 to operate simultaneously, creating a situation where the four striking vertical protrusions 5-5 strike the load object tray 3 simultaneously. It is the south lift striking device among the four sets of such lift striking devices for creating such a situation As shown in FIGS. 2, 3, 4, and 5, it is a component composed of a pole-designating electromagnet 4-1, a diaphragm 5-1, a reaction horizontal protrusion 5-2, a striking vertical protrusion 5-5, a lift striking device cover 2-9, etc. Also, in FIG. 3, it is the lift striking device installed in the southeast direction among the eight lift striking devices. In the wiring circuit 6 shown in FIG. 30, after arranging an existing commercially available delay timer and then arranging this component, as shown in FIG. 32, a delayed pulsating current represented as 13-2 is generated with a delay from the pulsating current represented as 13-1, and when the pulsating current disappears, by flowing the delayed pulsating current during the time period when the pulsating current does not exist, it is delayed from the group of the north lift striking device 2-1, the west lift striking device 2-3, the south lift striking device 2-5, and the east lift striking device 2-7, and the group of the northwest lift striking device 2-2, the southwest lift striking device 2-4, this component, and the northeast lift striking device 2-8 will strike the load object tray 3, and the striking force on the load object tray 3 can be continuously generated. Therefore, as shown in FIG. 29, together with the northwest lift striking device 2-2, the southwest lift striking device 2-4, and the northeast lift striking device 2-8, they simultaneously receive the half-wave rectified delayed pulsating current, and the four pole-designating electromagnets 4-1 operate simultaneously, creating a situation where the four striking vertical protrusions 5-5 strike the load object tray 3 simultaneously. It is installed to create such a situation. Among the four sets of the lift striking devices, the southeast lift striking device As shown in FIGS. 2, 3, 4, and 5, it is a component composed of a magnetic pole designating electromagnet 4-1, a reaction plate 5-1, a reaction horizontal projection 5-2, a striking vertical projection 5-5, a lift striking device cover 2-9, etc. Also, in FIG. 3, it is the lift striking device installed in the east direction among the eight lift striking devices. By creating the wiring circuit 6 shown in FIG. 30, as shown in FIG. 28, together with the lift striking device 2-1 installed in the north direction, the lift striking device 2-3 installed in the west direction, and the lift striking device 2-5 installed in the south direction, the pulsating current represented as the half-wave rectified 13-1 is received simultaneously, and the four magnetic pole designating electromagnets 4-1 operate simultaneously to create a situation where the four striking vertical projections 5-5 strike the load object tray 3 simultaneously. It is the east lift striking device among the four sets of the lift striking devices for this purpose. As shown in FIGS. 2, 3, 4, and 5, it is a component composed of a pole-designating electromagnet 4-1, a reaction plate 5-1, a reaction horizontal protrusion 5-2, a striking vertical protrusion 5-5, a lift-impact device cover 2-9, etc. Also, in FIG. 3, it is the lift-impact device installed in the northeast direction among the eight lift-impact devices. In the wiring circuit 6 shown in FIG. 30, after arranging an existing commercially available delay timer 6-8, this component is arranged. As shown in FIG. 32, a delayed pulsating current represented as 13-2 is generated with a delay from the pulsating current represented as 13-1, and when the pulsating current disappears, the delayed pulsating current is made to flow during the time period when the pulsating current does not exist. Thus, the group of the northwest lift-impact device 2-2, the southwest lift-impact device 2-4, the southeast lift-impact device 2-6, and this component lags behind the group of the north lift-impact device 2-1, the west lift-impact device 2-3, the south lift-impact device 2-5, and the east lift-impact device 2-7 and strikes the load object tray 3, and the impact force on the load object tray 3 can be continuously generated. Therefore, as shown in FIG. 29, the northwest lift-impact device 2-2, the southwest lift-impact device 2-4, and the southeast lift-impact device 2-6 together receive the half-wave rectified delayed pulsating current simultaneously, creating a situation where the four pole-designating electromagnets 4-1 operate simultaneously and the four striking vertical protrusions 5-5 strike the load object tray 3 simultaneously. It is installed to create such a situation and is the northeast lift-impact device among the four sets of the lift-impact devices As shown in FIGS. 5 and 7, it is a component made by an existing method using an existing insulating material such as hard anodized aluminum that has strength to withstand impact and vibration and does not stick to magnets. Also, it is a container for covering the lift-impact device 2 that combines the pole-designating electromagnet 4-1, the reaction horizontal protrusion 5-2, and the striking vertical protrusion 5-5, and is fixedly installed on the lift generation machine base 1-1 by an existing method such as adhesion with an adhesive or fixing with screws, the lift-impact device cover As shown in FIGS. 8 and 9, it is a component made by an existing method using an existing insulating material that has the strength to withstand impact and vibration and does not stick to the magnet. On the upper surface of the load object receiving tray base 3-2, the load object cushion 3-1 is adhesively fixed by an existing method such as adhesion with an adhesive. On the lower surface of the load object receiving tray base 3-2, the lift generator base cushion 3-3 is adhesively fixed by an existing method such as adhesion with an adhesive. In a state where a load object is placed on the upper part of the component, the impact and vibration transmitted to the load object are alleviated. In a state where the lift generator base 1-1 is in contact with the lower surface of the component, the impact and vibration transmitted to the lift generator base 1-1 are alleviated. As shown in FIGS. 10, 11, and 12, after setting a disk-shaped receiving tray solid magnet 3-4-2 on the upper part with the lower surface being the N pole, the inserted receiving tray reaction force generating disk 3-4 is adhesively fixed to the bottom surface of the load object receiving tray base 3-2 by an existing method such as adhesion with an adhesive. As shown in FIG. 24, when the impact vertical projection 5-5 having the impact solid magnet 5-5-2 with the upper surface set as the N pole strikes the receiving tray reaction force generating disk 3-4, the repulsive force between the N poles of the magnets alleviates the impact and vibration on the receiving tray reaction force generating disk 3-4. A load object receiving tray for placing a load object with such a device. 3-1 As shown in FIGS. 8 and 9, it is a component made by an existing method using an existing insulating material such as sponge, silicon, or rubber that is easy to absorb impact and vibration and does not stick to the magnet. On the upper surface of the load object receiving tray base 3-2 that receives impact from the impact vertical projection 5-5, the impact solid magnet 5-5-2 is adhesively fixed by an existing method such as adhesion with an adhesive. When the impact vertical projection 5-5 having the impact solid magnet 5-5-2 strikes the receiving tray reaction force generating disk 3-4, it will alleviate the impact and vibration on the load object placed on the load object receiving tray 3. A circular load object cushion As shown in FIGS. 8 and 9, it is a part made by an existing method using an existing insulating material such as hard anodized aluminum that has the strength to withstand impact and vibration and does not stick to the magnet. As shown in FIGS. 10, 11, and 12, after setting the disk-shaped tray solid magnet 3-4-2 so that the lower surface is the N pole, the fitted tray reaction force generating disk 3-4 is adhesively fixed to the bottom surface of the part by an existing method such as adhesion with an adhesive, thereby fabricating the load object tray 3, which serves as a base for receiving impact from the vertical impact protrusion 5-5, the load object tray base As shown in FIGS. 8 and 9, it is a part made by an existing method using an existing insulating material such as sponge, silicon, or rubber that is easy to absorb impact and vibration and does not stick to the magnet. By adhesively fixing it to the lower surface of the load object tray base 3-2 that receives impact from the vertical impact protrusion 5-5 by an existing method such as adhesion with an adhesive, the impact and vibration transmitted to the lift generator base 1-1 are mitigated in a state where the lift generator base 1-1 is in contact with the lower surface of the part, a cushion for the lift generator base in the shape of a hollowed-out circle As shown in FIG. 27, it receives the upward impact from the vertical impact protrusion 5-5 having the solid impact magnet 5-5-2 set so that the upper surface is the N pole, and by the repulsive force between the N poles of the magnets, it mitigates the impact and vibration on the load object tray 3, and to generate the load object tray reaction force represented as 17-1, which is the downward reaction force from the load object tray 3 corresponding to the upward impact from the vertical impact protrusion 5-5, as shown in FIGS. 9, 10, 11, and 12, the tray solid magnet 3-4-2 is fitted into the tray reaction force generating disk base 3-4-1 so that the lower surface of the tray solid magnet 3-4-2 is the N pole, the tray reaction force generating disk As shown in FIGS. 10 and 12, it is a part made by an existing method using an existing insulating material such as rubber or silicon that can withstand impact and vibration and does not stick to the magnet. A disk-shaped tray solid magnet 3-4-2 is fitted into the circular non-penetrating hole opened in the part so that the lower surface is the N pole, the tray reaction force generating disk base for making the tray reaction force generating disk 3-4 As shown in FIGS. 10 and 12, it is a disc-shaped magnet component made of existing materials by an existing method, and the magnet component is fitted into the tray reaction force generating disc base 3-4-1 to make the tray reaction force generating disc 3-4, a tray solid magnet As shown in FIG. 13, it is a set of components consisting of a magnetic pole-designated electromagnet 4-1, an electromagnet support frame 4-2, and an electromagnet support plate 4-3. By fixing the set of components to the lift generating machine base 1-1, a reaction force horizontal projection ejecting electromagnet set for functioning the lift striking device 2 As shown in FIGS. 5, 13, and 14, it is a component made using an existing electromagnet, and a wire is wound around the component such that the acceleration generating striking device 5 side of the component becomes the N pole 7 of the magnet, a magnetic pole-designated electromagnet As shown in FIG. 14, it is a component made using an existing lightweight core material for an electromagnet, a magnetic pole-designated electromagnet core material As shown in FIG. 14, it is an existing wire for an electromagnet, and it is wound around the magnetic pole-designated electromagnet 4-1 such that the acceleration generating striking device 5 side of the magnetic pole-designated electromagnet 4-1 becomes the N pole 7 of the magnet, a magnetic pole-designated wire As shown in FIG. 14, it is a lead wire for a magnetic pole-designated electromagnet for pulling out the magnetic pole-designated wire 4-1-2 wound around the magnetic pole-designated electromagnet 4-1 to the outside As shown in FIGS. 13 and 15, it is a component made of an existing insulating material such as hard anodized aluminum that has strength to withstand impact and vibration and does not stick to the magnet by an existing method. Also, as shown in FIG. 13, the magnetic pole-designated electromagnet core material 4-1-1 is filled into the groove portions of the electromagnet support plates 4-3 on both the left and right sides, and the electromagnet support plates 4-3 are adhesively fixed to the component by an existing method such as adhesion with an adhesive, thereby becoming an outer frame for fixing and supporting the entire magnetic pole-designated electromagnet 4-1 shown in FIG. 14. After completing the assembly of the reaction force horizontal projection ejecting electromagnet set 4, the upper part of the component is adhesively fixed to the lift generating machine base 1-1 by an existing method such as adhesion with an adhesive, thereby functioning the lift striking device 2, an electromagnet support frame As shown in FIGS. 13, 16, and 17, it is a component made by an existing method using an existing insulating material such as rubber or silicon that can withstand impact and vibration and does not stick to magnets. By adhering and fixing this component to the electromagnetic support frame 4-2 by an existing method such as adhesion with an adhesive, the entire magnetic pole-designated electromagnet 4-1 is fixed and supported, the electromagnetic support plate As shown in FIGS. 18 and 19, it is a component composed of a reaction plate 5-1, a horizontal projection for reaction force 5-2, a housing for horizontal projection for reaction force 5-3, a housing for vertical projection for impact 5-4, a vertical projection for impact 5-5, a connecting rod for horizontal and vertical projections 5-6, a support rod for vertical projection 5-7, a support rod for horizontal projection 5-8, a suspension rod for horizontal projection 5-9, and a support frame for horizontal and vertical projections 5-10. As shown in FIG. 27, the electromagnetic reaction force represented as 16 of the N pole of the magnet of the magnetic pole-designated electromagnet 4-1 repels the horizontal projection for reaction force 5-2 having the N pole of the magnet, and accordingly, the vertical projection for impact 5-5 applies an electromagnetic impact force represented as 14-1 in FIG. 31 from the bottom to the top to the load object tray 3. Next, as shown in FIG. 27, the vertical projection for impact 5-5 is repelled from the top to the bottom by the reaction force of the load object tray, which is the reaction force of the load object tray represented as 17-1, and the horizontal projection for reaction force 5-2 strikes the reaction plate 5-1, and the horizontal projection for reaction force 5-2 is repelled again by the reaction force of the reaction plate, which is the reaction force of the reaction plate represented as 17-2. This creates a movement. Further, as shown in FIG. 27, when the horizontal projection for reaction force 5-2 is repelled from the reaction plate 5-1 and returns to its original position for the first time, the electromagnetic reaction force of the N pole of the magnet of the magnetic pole-designated electromagnet 4-1 repels the horizontal projection for reaction force 5-2 again, so that the moving speed of the horizontal projection for reaction force 5-2 after the second time increases. Accordingly, as shown in FIG. 31, an additional impact force represented as 15-1 due to the reaction force of the reaction plate from the reaction plate 5-1 is added to the electromagnetic impact force of the vertical projection for impact 5-5, creating a situation where the impact force for striking the load object tray 3 from the bottom to the top increases, the acceleration generating impact device As shown in FIGS. 18, 19, and 20, it is a component made by an existing method using an existing insulating material such as rubber or silicon that can withstand impact and vibration and does not stick to a magnet. As shown in FIG. 27, the magnetic force lines of the N pole of the magnet of the magnetic pole-designated electromagnet 4-1 are passed through, and the reaction force of the N pole of the magnet of the magnetic pole-designated electromagnet 4-1 is transmitted to the reaction-force horizontal projection 5-2 having the N pole of the magnet. At the same time, due to the reaction force of the load object tray 3, which is represented as 17-1, the striking vertical projection 5-5 is bounced downward, and the reaction-force horizontal projection 5-2 strikes the component. Due to the reaction force of the component, which is represented as 17-2, the reaction-force horizontal projection 5-2 is bounced off again, creating a movement of a reaction plate 5-2 As shown in FIGS. 19, 21, 22, 23, and 24, it consists of a reaction-force horizontal projection end 5-2-1 and a reaction-force solid magnet 5-2-2. The S pole of the magnet of the reaction-force solid magnet 5-2-2 is placed in the depression of the reaction-force horizontal projection end 5-2-1 so that the S pole faces outward. Then, by using an existing method such as adhesion with an adhesive, the reaction-force solid magnet 5-2-2 is fixedly installed on the reaction-force horizontal projection end 5-2-1. After that, the N pole of the magnet of the reaction-force solid magnet 5-2-2 is arranged to face the N pole of the magnet of the magnetic pole-designated electromagnet 4-1, and it is fixedly installed on the reaction-force horizontal projection body 5-3 by using an existing method such as adhesion with an adhesive, thus completing the reaction-force horizontal projection, which is the tip portion that collides with the reaction plate 5-1 5-2-1 As shown in FIGS. 22 and 24, it is a component made by an existing method using an existing insulating material such as rubber or silicon that can withstand impact and vibration and does not stick to a magnet. The reaction-force solid magnet 5-2-2 is placed in the depression of the component so that the S pole of the magnet of the reaction-force solid magnet 5-2-2 faces outward. Then, by using an existing method such as adhesion with an adhesive, the reaction-force solid magnet 5-2-2 is fixedly installed with the component, thus completing the reaction-force horizontal projection, which is the tip portion of the reaction-force horizontal projection 5-2 that collides with the reaction plate 5-1 As shown in FIGS. 22 and 24, it is a disc-shaped magnet component made of existing materials by an existing method. In order for the electromagnetic reaction force represented as 16 at the N pole of the magnet of the magnetic pole-designated electromagnet 4-1 to repel the horizontal projection 5-2 for reaction force having the N pole of the magnet, the N pole of the magnet of the component is arranged to face the N pole of the magnet of the magnetic pole-designated electromagnet 4-1. Reaction solid magnet As shown in FIGS. 18 and 19, it is a component made of an existing insulating material such as hard anodized aluminum that has strength to withstand impact and vibration and does not stick to the magnet by an existing method. By fixedly installing the horizontal projection 5-2 for reaction force on the component by an existing method such as adhesion with an adhesive, the horizontal projection housing for reaction force that will exhibit the function of the acceleration generating impact device 5 As shown in FIGS. 18 and 19, it is a component made of an existing insulating material such as hard anodized aluminum that has strength to withstand impact and vibration and does not stick to the magnet by an existing method. By fixedly installing the vertical projection 5-5 for impact on the component by an existing method such as adhesion with an adhesive, the vertical projection housing for impact that will exhibit the function of the acceleration generating impact device 5 As shown in FIGS. 18, 19, 21, 22, 23, and 24, it is a component composed of the end portion 5-5-1 of the vertical projection for impact and the solid magnet 5-5-2 for impact. The solid magnet 5-5-2 for impact is placed in the depression of the end portion 5-5-1 of the vertical projection for impact so that the S pole of the magnet of the solid magnet 5-5-2 for impact faces outward, and then fixedly installed with the end portion 5-5-1 of the vertical projection for impact by an existing method such as adhesion with an adhesive. Then, the N pole of the magnet of the solid magnet 5-5-2 for impact is arranged to face the N pole of the magnet of the receiving dish solid magnet 3-4-2, and fixedly installed on the vertical projection housing 5-4 for impact by an existing method such as adhesion with an adhesive. And it is the vertical projection for impact that becomes the tip portion that collides with the load object receiving dish 3 As shown in FIGS. 22 and 24, it is a component made by an existing method using an existing insulating material such as rubber or silicon that can withstand impact and vibration and does not adhere to the magnet. The solid magnet for impact 5-5-2 is placed in the recess of the component so that the S pole of the magnet of the reaction force solid magnet 5-2-2 faces outward, and is fixedly installed with the component by an existing method such as adhesion with an adhesive, thereby forming the vertical protrusion for impact 5-5. And the end of the vertical protrusion for impact, which is the tip part of the vertical protrusion for impact 5-5 that collides with the tray reaction force generating disk 3-4 As shown in FIGS. 22 and 24, it is a disk-shaped magnet component made by an existing method using an existing material. The vertical protrusion for impact 5-5 moved by the electromagnetic reaction force represented as 16 of the N pole of the magnet of the magnetically specified electromagnet 4-1 strikes the tray reaction force generating disk 3-4 and exerts a lifting force to lift the tray reaction force generating disk 3-4. Further, when the vertical protrusion for impact 5-5 having the component set so that the upper surface is the N pole strikes the tray reaction force generating disk 3-4, in order to reduce the impact and vibration on the tray reaction force generating disk 3-4 due to the repulsive force between the N poles of the magnets, the N pole of the magnet of the tray reaction force generating disk 3-4 and the N pole of the magnet of the component are arranged to face each other. Solid magnet for impact As shown in FIGS. 18, 19 and 25, it is a component made by an existing method using an existing insulating material such as hard anodized aluminum that has a strength to withstand impact and vibration and does not adhere to the magnet. A rod-shaped material with a circular cross-section whose diameter is slightly smaller than the inner diameters of the holes drilled in the reaction force horizontal protrusion body 5-3 and the lower part of the impact vertical protrusion body 5-4 is bent by an existing method. The component is inserted into the holes drilled in the side surfaces on both sides of the reaction force horizontal protrusion body 5-3 and also inserted into the holes drilled in the side surfaces on both sides of the lower part of the impact vertical protrusion body 5-4, thereby connecting the reaction force horizontal protrusion body 5-3 and the impact vertical protrusion body 5-4 so that the reaction force horizontal protrusion body 5-3 and the impact vertical protrusion body 5-4 can move integrally left and right. Horizontal protrusion vertical protrusion connecting rod As shown in FIGS. 18 and 19, it is a component made by an existing method using an existing insulating material such as hard anodized aluminum that has the strength to withstand impact and vibration and does not stick to the magnet. A rod-shaped material with a circular cross-section, whose diameter is slightly smaller than the inner diameter of the hole drilled in the upper part of the vertical impact protrusion body 5-4, is used to make the component. After inserting and passing the component through the hole drilled through the upper part of the vertical impact protrusion body 5-4, the component is inserted into the support frame hole 5-10-2 opened on both side surfaces of the acceleration generating impact device support frame 5-10, where the inner diameter of the support frame hole 5-10-2 is slightly larger than the diameter of the component. By doing so, the vertical impact protrusion body 5-4 can move in the left-right direction and the up-down direction, the vertical protrusion support rod As shown in FIGS. 18 and 19, it is a component made by an existing method using an existing insulating material such as hard anodized aluminum that has the strength to withstand impact and vibration and does not stick to the magnet. On both sides of the horizontal reaction protrusion body 5-3, after passing the horizontal protrusion vertical protrusion connecting rod 5-6 through the circular end at the lower part of the horizontal protrusion suspension rod 5-9, a rod-shaped material with a circular cross-section, whose diameter is slightly smaller than the inner diameter of the circular end at the upper part of the horizontal protrusion suspension rod 5-9, is used to make the component. After passing the component through the circular end at the upper part of the horizontal protrusion suspension rod 5-9, the component is inserted into the horizontally opened support frame horizontally elongated hole 5-10-1 on both side surfaces of the acceleration generating impact device support frame 5-10, where the height of the support frame horizontally elongated hole 5-10-1 is slightly larger than the diameter of the component. By doing so, the horizontal reaction protrusion body 5-3 can move in the left-right direction, the horizontal protrusion support rod As shown in FIGS. 18 and 19, it is a part made by an existing method using an existing insulating material such as hard anodized aluminum that has a strength resistant to impact and vibration and does not stick to a magnet. Both ends of a rod-shaped material with a circular cross-section are bent greatly to create an end with a circular space inside. The inner diameter of the lower circular end is made slightly larger than the diameter of the horizontal protrusion vertical protrusion connecting rod 5-6, and the inner diameter of the upper circular end is made slightly larger than the diameter of the horizontal protrusion support rod 5-8. By passing the horizontal protrusion vertical protrusion connecting rod 5-6, a structure is made to suspend the reaction force horizontal protrusion body 5-3 and hang it on the horizontal protrusion support rod 5-8, so that the reaction force horizontal protrusion body 5-3 can move in the left-right direction, the horizontal protrusion suspension rod As shown in FIGS. 18 and 26, it is a part made by an existing method using an existing insulating material such as hard anodized aluminum that has a strength resistant to impact and vibration and does not stick to a magnet. The horizontal protrusion support rod 5-8 for suspending the reaction force horizontal protrusion body 5-3 has a horizontally long support frame hole 5-10-1 for inserting, and the vertical protrusion support rod 5-7 for suspending the striking vertical protrusion body 5-4 has a vertical protrusion moving support frame hole 5-10-2 for inserting. A horizontal protrusion vertical protrusion support frame for enabling the reaction force horizontal protrusion 5-2 and the striking vertical protrusion 5-5 to move integrally As shown in FIG. 26, it is a hole made in the horizontal protrusion vertical protrusion support frame 5-10 by an existing method. The height of the hole is made slightly larger than the diameter of the horizontal protrusion support rod 5-8. A horizontally long support frame hole for inserting the horizontal protrusion support rod 5-8 for suspending the reaction force horizontal protrusion body 5-3 As shown in FIG. 26, it is a hole made in the horizontal protrusion vertical protrusion support frame 5-10 by an existing method. The diameter of the hole is made slightly larger than the diameter of the vertical protrusion support rod 5-7 for suspending the striking vertical protrusion body 5-4. A vertical protrusion moving support frame hole for inserting the vertical protrusion support rod 5-7 for suspending the striking vertical protrusion body 5-4 As shown in Fig. 30, a power supply 6-3, a rectifier 6-4, a transformer 6-5, a current wavelength adjuster 6-6, and a delay timer 6-7 necessary for starting the lift generator 1 using the horizontal force of the present invention are arranged. Further, a north lift impact device connection terminal 6-2-1, a west lift impact device connection terminal 6-2-3, a south lift impact device connection terminal 6-2-5, and an east lift impact device connection terminal 6-2-7 for connecting the respective lead-out conductors 4-1-3 for the pole-designated electromagnets of the group of the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7, and a north-west lift impact device connection terminal 6-2-2, a south-west lift impact device connection terminal 6-2-4, a south-east lift impact device connection terminal 6-2-6, and a north-east lift impact device connection terminal 6-2-8 for connecting the respective lead-out conductors 4-1-3 for the pole-designated electromagnets of the group of the north-west lift impact device 2-2, the south-west lift impact device 2-4, the south-east lift impact device 2-6, and the north-east lift impact device 2-8 are arranged. A schematic lift generator circuit diagram showing the outline of the lift generator circuit 6-2 As shown in Fig. 30, it is a component constituting the lift generator 1 using the horizontal force, and it is an existing switch for turning on and off the lift generator circuit 6 6-2-1 As shown in Fig. 30, it is a terminal for connecting the lead-out conductor 4-1-3 for the pole-designated electromagnet in the north lift impact device 2-1 to the lift generator circuit 6, the north lift impact device connection terminal 6-2-2 As shown in Fig. 30, it is a terminal for connecting the lead-out conductor 4-1-3 for the pole-designated electromagnet in the north-west lift impact device 2-2 to the lift generator circuit 6, the north-west lift impact device connection terminal 6-2-3 As shown in Fig. 30, it is a terminal for connecting the lead-out conductor 4-1-3 for the pole-designated electromagnet in the west lift impact device 2-3 to the lift generator circuit 6, the west lift impact device connection terminal 6-2-4 As shown in Fig. 30, it is a terminal for connecting the lead-out conductor 4-1-3 for the pole-designated electromagnet in the south-west lift impact device 2-4 to the lift generator circuit 6, the south-west lift impact device connection terminal 6-2-5 As shown in Fig. 30, the south lift impact device connection terminal, which is a terminal for connecting the lead wire 4-1-3 for the pole-designated electromagnet in the south lift impact device 2-5 to the lift generator circuit 6 6-2-6 As shown in Fig. 30, the southeast lift impact device connection terminal, which is a terminal for connecting the lead wire 4-1-3 for the pole-designated electromagnet in the southeast lift impact device 2-6 to the lift generator circuit 6 6-2-7 As shown in Fig. 30, the east lift impact device connection terminal, which is a terminal for connecting the lead wire 4-1-3 for the pole-designated electromagnet in the east lift impact device 2-7 to the lift generator circuit 6 6-2-8 As shown in Fig. 30, the northeast lift impact device connection terminal, which is a terminal for connecting the lead wire 4-1-3 for the electromagnet in the northeast lift impact device 2-8 to the lift generator circuit 6 6-3 As shown in Fig. 30, it is a component that constitutes the lift generator 1 that utilizes the horizontal force, and it is an existing power source for supplying current to the lift generator circuit 6 for driving the lift generator 1 that utilizes the horizontal force 6-4 As shown in Fig. 30, it is a component that constitutes the lift generator 1 that utilizes the horizontal force, and it is an existing rectifier that creates a pulsating current represented as 13-1 and a delayed pulsating current represented as 13-2 by half-wave rectifying the current 6-5 As shown in Fig. 30, it is a component that constitutes the lift generator 1 that utilizes the horizontal force. The reaction horizontal protrusion 5-2 with the reaction solid magnet 5-2-2 installed in the left lift impact device 2 and the reaction horizontal protrusion 5-2 with the reaction solid magnet 5-2-2 installed in the right lift impact device 2 are simultaneously pushed away in the horizontal central direction using the electromagnetic reaction force represented as 16, and by changing the moving direction upward near the center, the impact vertical protrusion 5-5 with the impact solid magnet 5-5-2 strikes the upper load object tray 3. It is an existing transformer for setting the voltages of the pulsating current represented as 13-1 and the delayed pulsating current represented as 13-2 necessary to cause such an operation As shown in Fig. 30, it is a component that constitutes the lift generator 1 that utilizes horizontal force. By changing the wavelengths of the pulsating current represented as 13-1 and the delayed pulsating current represented as 13-2, as shown in Fig. 27, the electromagnetic force of the N pole of the magnet of the pole-designated electromagnet 4-1, represented as 16, repels the horizontal projection 5-2 for the reaction force having the N pole of the magnet, and accordingly, the vertical projection 5-5 for striking applies an electromagnetic striking force represented as 14-1 in Fig. 31 from the bottom to the top to the load object tray 3. Next, as shown in Fig. 27, due to the reaction force from the load object tray 3, the load object tray reaction force represented as 17-1, the vertical projection 5-5 for striking is repelled from the top to the bottom, and the horizontal projection 5-2 for the reaction force strikes the reaction plate 5-1. Due to the reaction force from the reaction plate 5-1, the reaction plate reaction force represented as 17-2, the horizontal projection 5-2 for the reaction force is repelled again, and when it returns to the original initial position, the electromagnetic force of the N pole of the magnet of the pole-designated electromagnet 4-1 can repel the horizontal projection 5-2 for the reaction force again. For setting the wavelengths of the pulsating current represented as 13-1 and the delayed pulsating current represented as 13-2 that match the movement of the lift striking device 2, an existing current wavelength adjuster 6-7 As shown in Fig. 30, it is a component that constitutes the lift generator 1 that utilizes horizontal force. An existing delay timer used to slightly delay the activation of the group of the northwest lift striking device 2-2, the southwest lift striking device 2-4, the southeast lift striking device 2-6, and the northeast lift striking device 2-8 from the activation of the group of the north lift striking device 2-1, the west lift striking device 2-3, the south lift striking device 2-5, and the east lift striking device 2-7 7 As shown in Figs. 12, 14, and 24, a symbol for explaining the N pole representing the N pole of the magnet 8 As shown in Figs. 12, 14, and 24, a symbol for explaining the S pole representing the S pole of the magnet 9 As shown in Figs. 12, 14, and 24, a dotted line for explanation representing the magnetic field lines created by the magnet 10 As shown in Figs. 31 and 32, a symbol for explaining the voltage used to indicate the magnitudes of the voltages of the pulsating current represented as 13-1 and the delayed pulsating current represented as 13-2 11 As shown in FIGS. 31 and 32, a symbol for explaining the impact force used to indicate the magnitude of the impact force with which the vertical projection 5-5 for impact strikes the tray reaction force generating plate 3-4 12 As shown in FIGS. 31 and 32, the pulsating current 13-1, the delayed pulsating current 13-2, the impact force represented as 14-1 with which the vertical projection 5-5 for impact strikes the tray reaction force generating plate 3-4, and the delayed impact force represented as 14-2 with which the vertical projection 5-5 for impact strikes the tray reaction force generating plate 3-4. A symbol for explaining the change over time 13-1 As shown in FIGS. 31 and 32, the pulsating current that has been half-wave rectified and is represented by a solid line curve 13-2 As shown in FIG. 32, the delayed pulsating current that has been half-wave rectified and is represented by a dotted line curve 14-1 As shown in FIGS. 31 and 32, the impact force with which the vertical projection 5-5 for impact strikes the tray reaction force generating plate 3-4, generated by the electromagnetic force reaction represented as 16 by the respective pole-designated electromagnets 4-1 of the group of the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7, and represented by a solid bar graph, the electromagnetic impact force 14-2 As shown in FIG. 32, the impact force with which the vertical projection 5-5 for impact strikes the tray reaction force generating plate 3-4, generated by the electromagnetic force reaction represented as 16 by the respective pole-designated electromagnets 4-1 of the group of the northwest lift impact device 2-2, the southwest lift impact device 2-4, the southeast lift impact device 2-6, and the northeast lift impact device 2-8, and represented by a dotted bar graph, the delayed impact force As shown in FIGS. 31 and 32, the reaction force of the reaction plate 5-1, which is the reaction force generated by the semi-wave rectified pulsating current represented as 13-1 flowing through each of the groups of the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7, caused by the electromagnetic force of the first pole-designated electromagnet 4-1, represented as 16, and represented as 17, is added to the electromagnetic force of the second pole-designated electromagnet 4-1. The impact force generated when the impact vertical projection 5-5 strikes the tray reaction force generating disk 3-4 gradually increases. To represent this, the impact force caused by the reaction force of the reaction plate 5-1, which is the reaction force generated by the electromagnetic force of the first pole-designated electromagnet 4-1, is represented by a solid bar graph with diagonal lines, the additional impact force 15-2 As shown in FIG. 32, after the groups of the north lift impact device 2-1, the west lift impact device 2-3, the south lift impact device 2-5, and the east lift impact device 2-7, the reaction force of the reaction plate 5-1, which is the reaction force generated by the semi-wave rectified delayed pulsating current represented as 13-2 flowing through each of the groups of the northwest lift impact device 2-2, the southwest lift impact device 2-4, the southeast lift impact device 2-6, and the northeast lift impact device 2-8, caused by the electromagnetic force of the first pole-designated electromagnet 4-1, represented as 16, and represented as 17-2, is added to the electromagnetic force of the second pole-designated electromagnet 4-1. The impact force generated when the impact vertical projection 5-5 strikes the tray reaction force generating disk 3-4 gradually increases. To represent this, the impact force caused by the reaction force of the reaction plate 5-1, which is the reaction force generated by the electromagnetic force of the first pole-designated electromagnet 4-1, is represented by a dotted bar graph with diagonal lines, the delayed additional impact force 16 As shown in FIG. 27, the electromagnetic force of the magnet by the first pole-designated electromagnet 4-1 is represented by a solid arrow, the electromagnetic force 17-1 As shown in FIG. 27, the reaction force, which is the reaction force from the load object tray 3 generated by the electromagnetic force of the pole-designated electromagnet 4-1, represented as 16, is represented by a double solid arrow, the load object tray reaction force As shown in Fig. 27, the reaction force from the reaction plate 5-1, which is caused by the electromagnetic force represented as 16 by the pole-designating electromagnet 4-1, is represented by a triple solid line arrow, the reaction force of the reaction plate As shown in Fig. 27, the cut-out arrow for order explanation, which is used to represent that each component changes its movement and position over time, represents a three-step sequence in which the movement and the position change greatly As shown in Fig. 1, Fig. 2, Fig. 3, etc., the large parentheses for explanation, which are used to represent the range of each component

Claims

【Request 1】 The lift generator base has a load transfer prevention protrusion, a load object cushion, a load object receiving tray base, and a lift generator base cushion on the upper surface of the lift generator base, and an even number of lift striking devices, such as a north lift striking device, a west lift striking device, a south lift striking device, an east lift striking device, a northwest lift striking device, a southwest lift striking device, a southeast lift striking device, and a northeast lift striking device, are provided on the lower surface of the lift generator base, and the lift striking devices, which are combined with a magnetic pole designating electromagnet, a horizontal protrusion for reaction force, and a vertical protrusion for striking, are simultaneously activated on both the left and right sides. and increasing the impact force of an even number of said lifting impact devices by a pulsating current, while simultaneously activating the other even number of said lifting impact devices by a delayed pulsating current, thereby generating the impact force continuously, thereby generating lift for lifting a load object. The magnetic pole designated electromagnet installed in the left lifting impact device and the magnetic pole designated electromagnet installed in the right lifting impact device are simultaneously activated by the pulsating current, and the reaction force horizontal protrusion with a reaction force solid magnet installed in the left lifting impact device and the lift force horizontal protrusion with a reaction force solid magnet installed in the right lifting impact device are simultaneously activated by the pulsating current. The horizontal reaction protrusions to which the solid reaction magnets installed in the impact device are attached are simultaneously bounced horizontally toward the center using electromagnet reaction force, and their direction of movement is changed to upward near the center, so that the left and right vertical impact protrusions to which the solid impact magnets are attached simultaneously strike the upper load object tray, and then the direction of movement of the downward load object tray reaction force, which is the reaction force from the load object tray, is changed to the horizontal left and right directions, so that the left horizontal reaction protrusion strikes the left reaction plate, and the right horizontal reaction protrusion strikes the right reaction plate. The mechanism is such that the action of striking the load plate, which is a reaction force from the reaction plate, is generated simultaneously on both the left and right sides, and the reaction plate reaction force from the reaction plate is added to the second electromagnet reaction force generated by the two left and right magnetic pole designated electromagnets activated by the second wave of the pulsating current, which simultaneously repels the two left and right horizontal reaction protrusions toward the horizontal center, by repeatedly generating this action by using the half-wave rectified pulsating current, gradually increasing the striking force on the upper load object tray, and generating a lifting force for floating the load object placed on the load object tray,By passing the pulsating current through a group of an even number of lifting striking devices, such as the north lifting striking device, the west lifting striking device, the south lifting striking device, and the east lifting striking device, the even number of lifting striking devices, such as the north lifting striking device, the west lifting striking device, the south lifting striking device, and the east lifting striking device, strike the load object tray simultaneously, and after disposing the existing delay timer, the delayed pulsating current is passed through a delayed group of an even number of lifting striking devices, such as the northwest lifting striking device, the southwest lifting striking device, the southeast lifting striking device, and the northeast lifting striking device. Thus, during the time period when the pulsating current does not exist, an even number of the lift striking devices, such as the northwest lift striking device, the southwest lift striking device, the southeast lift striking device, and the northeast lift striking device, strike the load object tray simultaneously, and since the electromagnet reaction force due to the left and right magnetic pole designated electromagnets and the reaction plate reaction force due to the left and right reaction plates are opposite in direction but equal in magnitude in the horizontal direction, no horizontal movement occurs, and the mechanism is valid even in an environment where gravity does not exist.

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