Experimental system for realizing interference gravitational field by electrified porous structure

Abstract

The invention relates to an experimental system for realizing an interference gravitational field by using a charged porous structure, which is characterized in that a porous material thick plate (1) is arranged in the system, tin foil paper or a metal net (2) is wrapped outside the thick plate, a direct-current high-voltage generator (3) is arranged in the system, one pole (4) is connected with the tin foil paper, the other pole (5) is grounded, and one side of the plane of the porous material thick plate is connected with the direct-current high-voltage generator (3). A metal mesh electrode (6) is further arranged, a Tesla coil (7) is further arranged in the system, the metal mesh electrode is connected with a high-voltage output part (8) of the Tesla coil, a high-dielectric material interlayer (9) needs to be added between the metal mesh electrode and the porous material thick plate, and the thick plate and the metal mesh are both sealed in a sealed container (10). And an acceleration sensor (11) is suspended above the system.

Description

Technical Field

[0001] The invention relates to the experimental field of gravity research, in particular to an experimental system for realizing interference of gravity field with a charged porous structure. Background Art

[0002] Gravity is everywhere. All massive celestial bodies, including the Earth, have gravity. People have been studying gravity-related technologies for many years and have indeed produced certain results. The patent with the announcement number CN201310186964.5 discloses an experimental device for interfering with the gravity field, which interferes with the gravity field in the central area of ​​the device through a magnetic field. There is also a patent with the announcement number CN201310186996.5, which also discloses a ring-type gravity field interference device, which interferes with the gravity field in a certain area above the device through a magnetic field. The above patents can interfere with the gravity field through a magnetic field to reduce the weight of objects in the vicinity of the device, but the existing technology only interferes with the gravity field outside the device to reduce the weight of objects outside the system. The interfered gravity field has no effect on the system itself, so that the system itself will not produce a weight loss phenomenon. Therefore, humans have not yet built a set of devices for interfering with the gravity field in the laboratory to reduce the weight of the entire system. Summary of the invention

[0003] In view of the problems existing in the prior art, the purpose of the present invention is to provide an experimental system for realizing interference of the gravitational field with a charged porous structure. In order to realize that the system interferes with the gravitational field and also acts on the system itself, the system includes a porous material thick plate for storing charges, which is made of high dielectric material. The use of porous materials can more effectively realize the polarization phenomenon of the charges in the holes, and maintain the polarization phenomenon when the external electric field is lost. In the porous material, the depth element of the hole is greater than the inner diameter of the hole, and the large number of holes makes it have a very high surface area, and each hole is parallel and perpendicular to the plane of the thick plate, similar to a honeycomb structure. In order to obtain the charge afterwards, it is necessary to wrap the thick plate with tin foil outside the porous material thick plate. A DC high-voltage generator is also provided in the system, and one pole of the generator is connected to the tin foil, and the other pole is grounded, so that a large amount of certain charges are accumulated on the porous thick plate. The next step is to use an external electric field to polarize the charge, so a metal mesh electrode is also set up at a close distance on one side of the plane of the porous material thick plate, and a Tesla coil is set up in the system, and then the high-voltage output part of the Tesla coil is connected to the metal mesh electrode. At the same time, in order to prevent the high-voltage breakdown problem, a high-dielectric material barrier needs to be added between the metal mesh electrode and the porous material thick plate. At the same time, in order to save power consumption and prevent high-voltage breakdown from causing air ionization, the thick plate and the metal mesh are enclosed in a sealed container. The last step is the test. Above the system, an acceleration sensor is hung, which does not contact the system and is used to test the size of the interference gravity field in the area above the system.

[0004] The present invention has the following beneficial effects: The present invention changes the restricted area of ​​the interference gravity field, not only realizing the amplification of the area of ​​the interference gravity field, including the system itself, but also realizing the control of the direction, which has never been done before the publication of the present invention. This change is huge for the existing field of gravity research. This change also represents the final result of this type of experiment. It is no longer a weight reduction in a target area, but the weight reduction and direction control of the experimental system itself and a larger area around it. Then the beneficial effect of the present invention is no longer limited to simulating the space gravity environment in a certain area, but makes the system that interferes with the gravity field become a carrier, and by controlling the direction, it can realize movement in any direction, thereby realizing the long-distance transportation function of goods and personnel. BRIEF DESCRIPTION OF THE DRAWINGS

[0005] Figure 1 Thick plates of three porous materials Figure 2 Diagram of important system components Figure 3 System profile Description of the numbers in the figure: 1. Thick plate 2. Metal mesh 3. DC high voltage generator 4. One pole 5. The other pole 6. Mesh electrode 7. Tesla coil 8. High voltage output part 9. Interlayer 10. Sealed container 11. Acceleration sensor 12. Thick plate with hexagonal holes 13. Thick plate with square holes 14. Thick plate with circular holes DETAILED DESCRIPTION

[0006] like Figure 1 The diagram shows three types of porous material thick plates. A porous material thick plate (1) for storing electric charge is arranged in the system. The thick plate is made of high surface area and insulating material, such as porous fir, paper fiberboard, porous diatomaceous earth, polymer fiberboard, etc. The holes of the porous material thick plate (1) are post-processed. The cross-section of the hole can be hexagonal (12), square (13), or circular (14). The depth of the hole is much larger than the inner diameter of the hole. The large number of holes makes it have a very high surface area. Each hole is parallel and juxtaposed, perpendicular to the plane of the thick plate, similar to a honeycomb structure.

[0007] like Figure 2 Figure 2 is a diagram of the important components of the system, which are the thick plate (1), the mesh electrode (6), and the spacer (9) between them.

[0008] like Figure 3The system is a cross-sectional view, specifically, a porous material thick plate (1) is wrapped with tin foil or metal mesh (2). A DC high voltage generator (3) is also provided in the system, which can generate a high voltage DC power of up to 300,000 volts, and one of the electrodes (4) is connected to the tin foil or metal mesh (2), and the other electrode (5) is grounded, so that a large amount of certain electric charges are accumulated on the porous thick plate (1).

[0009] On one side of the plane of the porous material thick plate (1), a metal mesh electrode (6) is also arranged at a close distance. A Tesla coil (7) with an arc length of 10 times that of the thick plate (1) is also arranged in the system, and the high-voltage output part (8) of the Tesla coil is connected to the metal mesh electrode (6). A non-polar high-dielectric material interlayer (9), such as a polyethylene plate or a barium titanate ceramic plate or a mica plate, is required to be added between the metal mesh electrode (6) and the porous material thick plate (1) to prevent high-voltage breakdown, which causes the charge of the metal mesh electrode (6) and the charge of the thick plate (1) to be connected to each other. Afterwards, the porous material thick plate (1), the metal mesh electrode (6) and the interlayer (9) are all sealed in a sealed container (10) to prevent their high-voltage breakdown from causing air ionization, while also reducing energy consumption. Finally, an acceleration sensor (11) is suspended above the system, which does not contact the system and is used to test the size of the interference gravity field in the area above the system.

[0010] The above description is only a preferred embodiment of the present invention, and does not limit the patent scope of the present invention. All equivalent structural changes made by using the contents of the present invention specification under the principle and concept of the present invention, or directly / indirectly applied in other related technical fields are included in the patent protection scope of the present invention.

Claims

1. An experimental system for interfering with gravity field using a charged porous structure, characterized in that: A porous material thick plate (1) is provided in the system, and the thick plate is wrapped with tin foil or metal mesh (2) outside the thick plate. A DC high voltage generator (3) is provided in the system, and one pole (4) thereof is connected to the tin foil, and the other pole (5) is grounded. A metal mesh electrode (6) is also provided on one side of the plane of the porous material thick plate. A Tesla coil (7) is also provided in the system, and the metal mesh electrode is connected to the high voltage output part (8) of the Tesla coil. A high dielectric material interlayer (9) is added between the metal mesh electrode and the porous material thick plate, and the thick plate and the metal mesh are both enclosed in a sealed container (10). An acceleration sensor (11) is suspended above the system.

2. The experimental system for realizing interference of gravity field by a charged porous structure according to claim 1, characterized in that: A thick porous material plate (1) for storing electric charge is arranged in the system and is made of a high surface area and insulating material.

3. The experimental system for realizing interference of gravity field by a charged porous structure according to claim 1, characterized in that: The holes of the porous material thick plate (1) may have a hexagonal (12), square (13), or circular (14) cross-section. The depth of the hole is much greater than the inner diameter of the hole. The large number of holes gives it a very high surface area ratio. Each hole is parallel and juxtaposed, perpendicular to the plane of the thick plate, similar to a honeycomb structure.

4. The experimental system for realizing interference of gravity field by a charged porous structure according to claim 1, characterized in that: The porous material thick plate (1) is wrapped with tin foil or metal mesh (2).

5. The experimental system for realizing interference of gravity field by using a charged porous structure according to claim 1, characterized in that: The system is provided with a DC high voltage generator (3), one pole (4) of which is connected to the tin foil or metal mesh (2), and the other pole (5) is grounded, so that a large amount of certain electric charges are accumulated on the porous thick plate (1).

6. The experimental system for realizing interference of gravity field by using a charged porous structure according to claim 1, characterized in that: A metal mesh electrode (6) is also provided at a close distance on one side of the plane of the porous material thick plate (1).

7. The experimental system for realizing interference of gravity field by using a charged porous structure according to claim 1, characterized in that: The system is also provided with a Tesla coil (7), and a high-voltage output portion (8) of the Tesla coil is connected to the metal mesh electrode (6).

8. The experimental system for realizing interference of gravity field by using a charged porous structure according to claim 1, characterized in that: A high dielectric material barrier layer (9) needs to be added between the metal mesh electrode (6) and the porous material thick plate (1) to prevent high voltage breakdown.

9. The experimental system for realizing interference of gravity field by using a charged porous structure according to claim 1, characterized in that: The porous material thick plate (1) and the metal mesh electrode (6) are both enclosed in a sealed container (10) to prevent high voltage breakdown from causing air ionization, while also reducing energy consumption.

10. The experimental system for realizing interference of gravity field by using a charged porous structure according to claim 1, characterized in that: An acceleration sensor (11) is suspended above the system, which is not in contact with the system and is used to test the magnitude of the disturbing gravity field in the area above the system.

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