Magnetic force accelerator in which magnetic slope is applied

Abstract

To provide a method for generating a bias in magnetic force and converting a difference in force by the bias to kinetic energy of a movable body (W=(F1-F2)×s), and to provide a method for using a technique as a magnetic accelerator, in a current situation where a Gaussian accelerator or a planet swing-by is a technique to convert a difference in potential energy or a difference in attractive force generated by a bias in force on a centripetal (incidence and approach) side and a centrifugal (ejection and departure) side around the maximum point of the attractive force, but the technique is not efficiently used in our everyday life.SOLUTION: It is possible to generate a bias in magnetic force by applying "Magnetic Force Slope" by a separate application patent. By using "Magnetic Force Slope," a difference in force can be converted to kinetic energy of a movable body (W=(F1-F2)×s) without colliding the movable body such as an incident ball, and a technique can be used as a magnetic accelerator.SELECTED DRAWING: Figure 3

Description

[Technical Field]

[0001] The present invention relates to a method for converting a force difference caused by a bias in magnetic force into kinetic energy of a moving body. [Prior art documents] [Patent documents]

[0002] [Patent Document 1] Issues that the separately applied patent "Magnetic Slope" invention aims to solve

[0003] Gaussian accelerators and planetary swing-bys are technologies that convert the difference in potential energy, or the difference in gravitational force, that occurs due to the imbalance of force between the centripetal (entrance, approach) side and the centrifugal (ejection, departure) side around the point of maximum gravitational force into the kinetic energy of a moving body, but the reality is that this technology is not effectively utilized in our everyday lives. The object of this invention is to provide a method for creating an imbalance in magnetic force and converting the resulting difference in force into the kinetic energy of a moving body, "W = (F1 - F2) x s." Means for solving the problem

[0004] By applying the "magnetic force slope" patent that has been applied for separately, it is possible to create a bias in the magnetic force. In addition, by combining multiple "magnetic force slopes," it is possible to convert the difference in force into the kinetic energy of the moving object, "W = (F1 - F2) x s." Effects of the invention

[0005] The present invention makes it possible to convert the difference in force due to the bias of magnetic force into the kinetic energy of the moving body "W = (F1 - F2) x s". [Brief explanation of the drawings]

[0006] [Figure 1] This is a quote from a separately applied-for patent entitled "Magnetic Slope," entitled "Magnetic Slope Using Ferromagnetic Material." [Figure 2] This is an example of a configuration in which the magnetic slope unit (7) and the ferromagnetic body (6) such as a permanent magnet or iron ball are in a "2:1 positional relationship." [Figure 3] This is an example of a configuration in which the magnetic slope unit (7) and the permanent magnet or ferromagnetic body (6) such as an iron ball inside the permanent magnet unit (8) are in a "2:2 positional relationship." [Figure 4] This is an embodiment of the present invention. DETAILED DESCRIPTION OF THE INVENTION

[0007] This invention is used to convert the force difference caused by magnetic force imbalance into the kinetic energy of a moving object (W = (F1 - F2) × s). Figure 4 shows an example of this invention. Two sets of fixed bases (20) are fixed to magnetic slope units each having a cylindrical permanent magnet (11) and a magnetic slope (12). Six iron pillars (13) of the same thickness as the cylindrical permanent magnets (11) are fixed to a rotatable disk (14). The magnetic slope units and iron pillars (13) are positioned in a 2:2 positional relationship so that a clockwise force is always applied to the disk (14), causing the disk (14) to rotate. A pulley (15) of the disk (14) and a pulley (17) of a generator (18) are connected by a belt (16). As the disk (14) rotates, electricity is generated by the generator (18), and electrical energy can be obtained. [Industrial Applicability]

[0008] This invention makes it possible to use permanent magnets as an energy source that can be used for decades without replacement, and because it is unrelated to gravity, it can be used in a variety of fields, including the space field, medium-scale fields such as general household use and electric vehicles, and small-scale fields such as embedded and mobile power sources for home appliances and information terminals. In addition, because the difference in force is converted into kinetic energy, even if the load temporarily increases and the device stops, operation will automatically resume once the load is removed, making it easy to use as temporary power. [Explanation of symbols]

[0009] 1. A barrier-free rail or boundary. It does not need to be a physical object. 2. Permanent magnet. A single or multiple permanent magnets grouped together. 3 Magnetic slope: A ferromagnetic material that adheres closely to a permanent magnet and magnetizes it. 4. Magnitude and direction of force. 5 Resultant of forces 4a and 4b. 6. A permanent magnet or a ferromagnetic material such as an iron ball. 7. Magnetic slope unit. The separately applied patent "Magnetic slope" can be used alone or in combination with a permanent magnet. 8. Permanent magnet unit: A collection of permanent magnets or ferromagnetic materials such as iron balls. 9 Force acting on a permanent magnet in a permanent magnet unit or a ferromagnetic body such as an iron ball. 10 Force acting on the permanent magnet unit. 9 resultant force. 11 Pillar-shaped permanent magnet. 12 Magnetic slope. 13 Iron pillar. 14 Rotatable disc. 15 pulleys. 16 Belt. 17 Pulleys. 18 generators. 19 Foundation. 20 Fixed base.

Claims

1. This magnetic accelerator uses a magnetic slope, which has a barrier-free rail or boundary (1) as shown in Figure 2, magnetic slope units (7) arranged alternately above and below it, and ferromagnetic bodies (6) such as permanent magnets or iron balls, and by always maintaining a 2:1 positional relationship between the magnetic slope units (7) and the ferromagnetic bodies (6) such as permanent magnets or iron balls, the resultant force (5) of the forces (4a) and (4b) from the magnetic slope units (7) is always in the direction of movement of the ferromagnetic bodies (6) such as permanent magnets or iron balls. Also, this magnetic accelerator repeats a minimum number of magnetic slope units (7) and ferromagnetic bodies (6) such as permanent magnets or iron balls in a "2:1 positional relationship." The magnetic slope unit (5) is a separate patented "magnetic slope" unit, or a combination of a "magnetic slope" and a permanent magnet.

2. This magnetic accelerator applies a magnetic slope, which has the magnetic slope unit (7) of Figure 3, a permanent magnet unit (8) to which multiple permanent magnets or ferromagnetic bodies (6) such as iron balls are fixed, and rails or boundaries (1) that take barrier-free access into consideration, and by always maintaining an "m:n positional relationship" between the magnetic slope unit (7) and the permanent magnets or ferromagnetic bodies (6) such as iron balls inside the permanent magnet unit (8), the resultant force (10) of the forces (9a) and (9b) applied from the magnetic slope unit (7) to the ferromagnetic bodies (6) such as permanent magnets or iron balls inside the permanent magnet unit (8) is always in the direction of movement of the permanent magnet unit (8). Figure 3 shows an example of a "2:2 positional relationship." Also, the magnetic accelerator repeats the minimum number of "m:n positional relationships" between the magnetic slope unit (7) and the permanent magnet or ferromagnetic material (6) such as iron balls inside the permanent magnet unit (8). The "m:n positional relationship" does not have to be adjacent, but may be diagonal on the circumference.

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