JP2023138667A - Rotational power mechanism - Google Patents

Abstract

To produce a large amount of electric power without consuming fuel and to realize a stable electric power supply to humankind.SOLUTION: A rotational power mechanism 1 includes a rotating body 11 having magnetic bodies Mr1 to Mr5, a piston 21 having a magnetic body Ms, and a crankshaft. The rotating body 11 performs rotational motion by utilizing the magnetic repulsive force and the attractive force generated in a gap D between the magnetic bodies Mr1 to Mr5 and the magnetic body Ms. By utilizing the magnetic repulsive force and the attractive force, the piston 21 reciprocates in conjunction with the rotational motion of the rotating body 11 while maintaining a gap spacing distance d at the gap spacing D with the rotating body 11. The crankshaft 31 rotates in conjunction with the reciprocating motion of the piston 21.SELECTED DRAWING: Figure 1

Description

The present invention relates to a rotary power mechanism.

Electrical energy is said to be the only clean energy on earth. For this reason, it is considered to be an urgent task for humankind to secure an electric power production mechanism that realizes a constant and stable supply of electric power. Various technologies already exist in the field of electric power production (power generation) (for example, Patent Document 1).

Utility model registration No. 3220511

However, it is desirable to develop a power production mechanism that can produce a large amount of power without consuming fuel and realize a stable power supply to humanity compared to conventional technologies including the technology of Patent Document 1. I am in a situation where I am in a difficult situation.

The present invention has been made in view of this situation, and aims to provide a power production mechanism that can produce a large amount of power without consuming fuel and realize a stable power supply to humanity. purpose.

In order to achieve the above object, the rotary power mechanism according to the present invention includes:
a rotating body having a plurality of first magnetic bodies whose magnetic poles are not uniform in direction, and the distances between each of the plurality of first magnetic bodies and the axis of a rotating shaft are not uniform; and a piston having a second magnetic body; A rotational power mechanism comprising a crankshaft,
Each of the rotating body and the piston maintains a preset gap distance by utilizing magnetic repulsion and attraction force generated in the gap between the first magnetic body and the second magnetic body. Perform rotational movement and reciprocating movement while maintaining
The crankshaft performs rotational movement in conjunction with the reciprocating movement of the piston.

According to the present invention, it is possible to provide a power production mechanism that can produce a large amount of power without consuming fuel and realize a stable power supply to humanity.

1 is a cross-sectional view showing an example of the configuration of a rotational power mechanism according to a first embodiment of the present invention. It is a sectional view showing an example of composition of a rotary power mechanism concerning a 2nd embodiment of the present invention. FIG. 7 is a cross-sectional view showing an example of the configuration of a rotating body in the rotational power mechanism according to the second embodiment of the present invention. It is a front sectional view showing an example of composition of a rotary power mechanism concerning a 3rd embodiment of the present invention. It is a side sectional view showing an example of composition of a rotary power mechanism concerning a 3rd embodiment of the present invention. It is a sectional view showing an example of composition of a rotary power mechanism concerning a 4th embodiment of the present invention. It is a sectional view showing an example of composition of a rotating body in a rotary power mechanism concerning a 4th embodiment of the present invention.

Hereinafter, one embodiment of the present invention will be described using the drawings.

[First embodiment]
FIG. 1 is a sectional view showing an example of the configuration of a rotational power mechanism according to a first embodiment of the present invention.
FIG. 1A shows a front sectional view showing an example of the configuration of a rotational power mechanism according to a first embodiment of the present invention.
FIG. 1(B) shows a side cross-sectional view showing an example of the configuration of the rotational power mechanism according to the first embodiment of the present invention.

(Basic configuration)
The rotational power mechanism 1 shown in FIGS. 1A and 1B is a power mechanism that includes at least a rotating body 11, a piston 21, and a crankshaft 31.
The rotary power mechanism 1 generates rotational motion in the rotary body 11 and the piston 21 by using the repulsive force and attraction force generated in the gap D between the rotary body 11 and the piston 21, which have magnetic bodies facing each other. and reciprocating motion, respectively. The rotational power mechanism 1 causes the rotational movement of the crankshaft 31 to interlock with the reciprocating movement of the piston 21.
That is, the rotary power mechanism 1 functions as a reciprocating engine that converts the magnetic energy generated in the gap D between opposing magnetic bodies into kinetic energy of the reciprocating motion of the piston 21, and further outputs it as kinetic energy of the rotational motion of the crankshaft 31. Function.

According to the rotary power mechanism 1 having such a configuration, the following effects can be expected, for example.
In other words, since the crankshaft 31 can rotate a large generator at high speed, electricity can be stably generated without consuming fuel or being affected by natural disasters or changes in the weather environment. It becomes possible to produce. As a result, it is possible to realize healthy electricity production that does not cause global warming and is kind to living things on earth.
By spreading the electric power production mechanism using this rotary power mechanism 1, it will become possible to easily generate electricity anywhere on the earth. That is, since the electric power production mechanism using the rotary power mechanism 1 can be easily installed in-house, it becomes possible to produce a large amount of electric power at low cost, for example, under the control of each local government.
In addition, it will be possible to reduce the number of power transmission lines that are connected to conventional power generation facilities, which will reduce the huge costs that were previously required for inspection and repair work on power transmission lines. I can do it. Specifically, for example, it is possible to prevent a situation in which a problem occurs in a power transmission line due to the influence of a typhoon or the like, resulting in loss of stable power supply to a target area.

Each component of the rotary power mechanism 1 will be explained in detail below.

(Rotating body)
The rotating body 11 is a rotating body that includes a plate 101 and a plate 102 and rotates about an axis P as a rotation axis.

The plate 101 is a substantially elliptical plate with steps and uneven distances from the center of the axis P to the outer edge E. At least a portion of the outer edge E is composed of magnetic bodies Mr1 to Mr5 arranged at substantially equal intervals. The length from the axial center of the axis P to the tip of each of the magnetic bodies Mr1 to Mr5 can be set for each magnetic body as a parameter.
When the rotating body 11 having such a configuration rotates, the magnetic bodies Mr1 to Mr5 are located at positions facing the piston 21 in that order in accordance with the rotation. The magnetic bodies Mr1 to Mr5 are arranged such that one magnetic pole faces the direction of the axis P and the other magnetic pole faces the direction opposite to the axis P.
Note that the orientation of the magnetic poles of the magnetic bodies Mr1 to Mr5 is not particularly limited, but in this embodiment, although not shown, the magnetic bodies Mr1 and Mr2 are both arranged such that their N poles face the direction of the axis P. . Moreover, the magnetic bodies Mr3 to Mr5 are all arranged so that their S poles face the direction of the axis P.
In a piston head 201 of a piston 21, which will be described later, at least a portion of a head H is made of a magnetic body Ms. Although the direction of the magnetic pole of the magnetic body Ms is not particularly limited, in this embodiment, the magnetic body Ms is arranged so that the north pole faces the direction of the rotating body 11.

Due to the orientation and arrangement of the magnetic poles, when the rotating body 11 starts from the state shown in FIG. The N pole of , and the N pole of Mr5 are repeatedly present in that order at positions facing the N pole of the magnetic body Ms of the piston 21. In this case, an attractive force and a repulsive force are alternately generated in the gap D between each of the magnetic bodies Mr1 to Mr5 located at positions facing the piston 21 and the magnetic body Ms of the piston 21.
Here, on the outer edge E of the rotating body 11, which has a substantially elliptical shape having a step, a plurality of magnetic bodies Mr1 to Mr5 whose magnetic pole directions are not uniform are arranged. Therefore, when the rotational movement of the rotating body 11 is started while the gap distance d, which will be described later, is maintained at a constant value, the reciprocating movement of the piston 21 is started in conjunction with this movement.
In other words, the outer edge E of the rotating body 11 has a substantially elliptical shape with a step, and the rotating body 11 is configured to rotate while maintaining a constant gap distance d, which will be described later. This is why the piston 21 can perform reciprocating motion due to the rotational movement of the rotating body 11.
In other words, if the outer edge E of the rotating body 11 has a perfect circular shape or a substantially perfect circular shape with no steps, the rotating body 11 can be rotated while maintaining a constant gap distance d, which will be described later. Even if this occurs, the piston 21 will not reciprocate due to the rotational movement of the rotating body 11.

Generally, the repulsive force and attractive force generated between opposing magnetic bodies become smaller as the distance between the magnetic bodies increases. Specifically, the repulsive force and attractive force generated between opposing magnetic bodies are inversely proportional to the square of the distance between the magnetic bodies (Crohn's law). In other words, the repulsive force and attractive force generated between each of the magnetic bodies Mr1 to Mr5 and the magnetic body Ms rapidly decrease and become ineffective as the gap distance d in the gap D between them increases.
In this embodiment, each of the magnetic bodies Mr1 to Mr5 can be composed of a plurality of layers (laminated structure) of magnetic bodies. That is, by using the magnetic bodies in a superimposed manner, it is possible to increase the repulsive force and attractive force generated in the gap D between each of the magnetic bodies Mr1 to Mr5 and the magnetic body Ms of the piston 21, which will be described later.
Note that the magnetic bodies to be superimposed may have the same shape or may have irregular shapes.
Thereby, a strong rotational torque can be generated in the rotational movement of the rotating body 11, so that the above-mentioned effects can be further improved. In addition, the demagnetizing force of a permanent magnetic material is usually estimated to be about 0.2% over 100 years, but by configuring each of the magnetic materials Mr1 to Mr5 with multiple layers, the demagnetization force can be changed from the N pole to the S pole. Cycles of magnetic field lines are superimposed. This makes it possible to semi-permanently prevent demagnetizing force.
Note that if each of the magnetic bodies Mr1 to Mr5 consisting of a plurality of layers is replaced with a single magnetic body having the same thickness, the effect obtained when the magnetic bodies are composed of a plurality of layers cannot be expected. Specifically, for example, when comparing two stacked magnetic bodies with a thickness of 1 cm and a magnetic body with a thickness of 2 cm, the effect of the former cannot be expected from the latter.

In this way, when the magnetic bodies Mr1 to Mr5 and the magnetic body Ms to be described later are composed of a plurality of layers of magnetic bodies, the repulsion and attraction forces become extremely strong. For this reason, the magnetic bodies Mr1 to Mr5 and the magnetic body Ms are always housed in a case made of a non-magnetic material (for example, aluminum). Thereby, it is possible to ensure safety and promptness during the installation work and replacement work of the magnetic bodies Mr1 to Mr5 and the magnetic body Ms to be described later.

The plate 102 is a plate that functions as a balancer to rotate the rotating body 11 smoothly.
As described above, the plate 101 has a substantially elliptical shape in which the distance from the center of the axis P to the outer edge E is uneven. Further, the axial center of the axis P of the plate 101 is located at a position shifted from the center of gravity of the plate 101. Therefore, if the plate 101 is rotated only, the rotation will be unbalanced.
Therefore, a plate 102, which is coaxial (axis P), has the same shape, and has the same weight as the plate 101, is fixed parallel to and in the opposite direction to the plate 101. Thereby, balance is maintained during rotation, so that smooth rotational movement of the rotating body 11 can be realized.

(piston)
The piston 21 includes a cylinder 202 and a piston head 201 that reciprocates inside the cylinder 202. The piston head 201 is slidable within the cylinder 202 via at least one of a bearing and circulating oil. Thereby, the coefficient of friction when the piston head 201 reciprocates inside the cylinder 202 can be reduced.
At least a portion of the head H of the piston head 201 is made of a magnetic body Ms. Although the direction of the magnetic pole of the magnetic body Ms is not particularly limited, as described above, in this embodiment, the magnetic body Ms is arranged so that the north pole faces the direction of the rotating body 11.
Furthermore, the magnetic body Ms can be composed of a plurality of magnetic layers, as shown in FIG. Thereby, it is possible to increase the repulsive force and attractive force generated in the gap distance D between the magnetic body Ms and each of the magnetic bodies Mr1 to Mr5.
(gap interval)

A gap D is provided between the rotating body 11 and the piston 21. The gap distance D is set such that the gap distance d between the magnetic body Ms and any one of the magnetic bodies Mr1 to Mr5 existing at a position facing the magnetic body Ms is maintained within a predetermined range even during the rotational movement of the rotating body 11. This is the gap interval provided in . By providing the gap interval D, the rotating body 11 and the piston 21 each perform rotational movement and reciprocating movement by utilizing the strong repulsive force and adhesion force generated in the gap interval D.
Specifically, for example, when the state shown in FIG. 1 is the starting point, a repulsive force is generated in the gap D between the magnetic body Ms (N pole) and the N pole of the magnetic body Mr5, and the magnetic body Ms Adsorption force is generated in the gap D between the north pole and the south pole of the magnetic body Mr1. As a result, the rotating body 11 starts rotating in the direction of arrow Y. After that, an attractive force occurs in the gap D between the N pole of the magnetic body Ms and the S pole of the magnetic body Mr2, and a repulsive force occurs in the gap D between the N pole of the magnetic body Ms and the N pole of the magnetic body Mr3, By using the repulsive force generated in the gap D between the N pole of the magnetic body Ms and the N pole of the magnetic body Mr4, the rotating body 11 continues its rotational motion, and the piston 21 continues its reciprocating motion.
In this way, precisely because the orientations of the magnetic poles of the magnetic bodies Mr1 to Mr5 arranged on the rotating body 11 side are not uniform, the gap distance D between each of the magnetic bodies Mr1 to Mr5 and the magnetic body Ms on the piston 21 side is Repulsive force and adsorption force occur alternately. As a result, the rotary body 11 can continue its rotational motion, and the piston 21 can continue its reciprocating motion in conjunction with the rotational motion of the rotary body 11.

Here, the value of the gap distance d in the gap distance D is not particularly limited, but is preferably maintained within a range of 5 mm to 10 mm. In order to maintain the gap distance d at a preferable value, it is preferable that the repulsive force and attractive force generated in the gap distance D between each of the magnetic bodies Mr1 to Mr5 and the magnetic body Ms are large. Therefore, as described above, by forming each of the magnetic bodies Mr1 to Mr5 and the magnetic body Ms with a plurality of layers of magnetic bodies to increase the repulsion and attraction forces, the gap distance d can be set to a preferable value. can be maintained.

(Crankshaft)
The crankshaft 31 is a crankshaft that rotates in conjunction with the reciprocation of the piston head 201 of the piston 21.
That is, the kinetic energy of the reciprocating motion of the piston head 201 is converted into the kinetic energy of the rotational motion of the crankshaft 31 and output. In other words, a strong rotational torque can be generated in the crankshaft 31, so that a large-sized generator can be rotated at high speed. This makes it possible to produce electricity without consuming fuel.

In the rotary power mechanism 1, a plurality of parameters including the position where the rotating body 11 rotates, the timing at which each of the magnetic bodies Mr1 to Mr5 and the magnetic body Ms approach, the value of the gap distance d in the gap distance D, etc. combinations are considered.
In other words, the rotary power mechanism 1 can achieve the above-described effects by having a configuration that takes into consideration the combination of the plurality of parameters described above.
Specifically, for example, the rotary power mechanism 1 moves the rotary body 11 within a movement distance (hereinafter referred to as a "stroke") in which the piston head 201, which performs reciprocating motion, moves from the top dead center position to the bottom dead center position. Combinations of the multiple parameters described above are taken into consideration so that there is no conflict with the above parameters.
Further, for example, the combination of the plurality of parameters described above is set so that the difference in the radial distance from the axis of the axis P to the tips of each of the magnetic bodies Mr1 to Mr5 exactly matches the stroke of the opposing piston head 201. being considered.
That is, the position of the magnetic body Mrk (k is an integer between 1 and 5) in the direction of the piston 21, which is present at a position facing the magnetic body Ms, until the rotating body 11 makes one rotation (360° rotation). The combination of the plurality of parameters described above is taken into consideration so that the total amount of change is the same as the total amount of change in the position of the magnetic body Ms.
As a result, even if each of the magnetic bodies Mr1 to Mr5 approaches the magnetic body Ms, the rotary power mechanism 1 is driven in a state where the gap distance d in the gap D is maintained at a constant value without colliding with each other. . As a result, smooth operation of the rotational power mechanism 1 is realized, and the above-mentioned effects can be achieved.

[Second embodiment]
FIG. 2 is a side sectional view showing an example of the configuration of a rotational power mechanism according to a second embodiment of the present invention.
FIG. 3 is a front cross-sectional view showing an example of the configuration of a rotating body in the rotational power mechanism according to the second embodiment of the present invention.

(Basic configuration)
As shown in FIG. 2, the rotary power mechanism 2 according to the second embodiment includes a rotating body 41, a piston 21, a crankshaft 31, a cylinder 71, gears 801 to 804, and fixed parts 901 and 902. It is a power mechanism equipped with.
The rotary power mechanism 2 according to the second embodiment, like the rotary power mechanism 1 according to the first embodiment, uses a repulsive force generated in the gap D between the rotary body 41 and the piston 21, each having a magnetic body facing each other. The force is used to cause the rotating body 41 and the piston 21 to perform rotational motion and reciprocating motion, respectively. Similarly to the rotational power mechanism 1 according to the first embodiment, the rotational power mechanism 2 causes the rotational movement of the crankshaft 31 to interlock with the reciprocating movement of the piston 21. The rotating body 41 and the crankshaft 31 both perform rotational motion with the axis P as the rotation axis.
That is, like the rotary power mechanism 1 according to the first embodiment, the rotary power mechanism 2 converts the magnetic energy generated in the gap D between the opposing magnetic bodies into kinetic energy of the reciprocating motion of the piston 21. The rotary power mechanism 2 functions as a reciprocating engine by outputting the kinetic energy of the reciprocating motion of the piston 21 as the kinetic energy of the rotational motion of the crankshaft 31.
Thereby, the rotary power mechanism 2 can rotate a large-sized power generator at high speed, so that the same effects as in the first embodiment described above can be obtained.

Each component of the rotational power mechanism 2 will be described in detail below.

(Rotating body)
As shown in FIG. 3, the rotating body 41 is a rotating body that has an inner circumferential surface J and rotates about an axis P as a rotation axis. The shape of the inner circumferential surface J is a substantially elliptical shape in which the distance from the axis of the axis P to the inner circumferential surface J is uneven. A part of the inner circumferential surface J is composed of magnetic bodies Mr11 to Mr22 arranged at substantially equal intervals.
Further, on the outer circumferential surface of the rotating body 41, there is an adjustment screw 411 that can vary and adjust the gap distance d in the gap distance D between each of the magnetic bodies Mr11 to Mr22 and the magnetic body Ms in the range of 1 mm to 10 mm. is provided. The number and position of the adjustment screws 411 are not particularly limited as long as they can adjust the gap distance d, but in this embodiment, as shown in FIG. There are two each. However, the number of adjustment screws 411 is not limited to this.
When the rotating body 41 having such a configuration rotates, the magnetic bodies Mr11 to Mr22 are sequentially located at positions facing the piston head 201 in accordance with the rotation.
As a result, similarly to the first embodiment, the repulsive force and attractive force generated in the gap D between the magnetic bodies Mr11 to Mr22 and the magnetic body Ms are used to maintain the gap distance d in the gap D at a constant value. The piston head 201 of the piston 21 can be made to reciprocate while being maintained. As a result, the crankshaft 31 rotates, allowing the large-sized generator to rotate at even higher speeds.

In the rotational power mechanism 2 according to the second embodiment, the rotational movement of the rotating body 41 is controlled by controlling the gap distance d in the gap D between the rotating body 41 and the piston 21.
That is, when the rotating body 41 and the piston 21 are completely separated from each other, the rotating body 41 completely stops its rotational motion according to Crohn's law described above. On the other hand, in a state where the rotating body 41 and the piston 21 are close to each other and are in opposing positions with a gap distance d in between, the above-mentioned repulsion force and attraction force are exerted, so that the rotation Body 41 begins a rotational movement.
Therefore, in this embodiment, the position of the axis P of the rotating body 41 in the longitudinal direction is made variable, and the position of the piston 21 in the longitudinal direction is made constant, thereby enabling the following control.

By bringing the rotating body 41 close to the piston 21, control can be performed to start the rotational movement of the rotating body 41 and the reciprocating movement of the piston 21. On the other hand, by separating the rotating body 41 from the piston 21, control can be performed to stop the rotational movement of the rotating body 41 and the reciprocating movement of the piston 21.
Specifically, as shown in FIG. 2, in the rotary power mechanism 2 according to the second embodiment, a shaft P ( The cylinder 71, the rotating body 41, and the gears 801 to 804 each perform various movements independently or in conjunction with the rotational movement of the crankshaft 31).

The cylinder 71 extends and contracts along the longitudinal direction of the axis P, independently of the rotational movement of the axis P. Note that FIG. 2 shows the cylinder 71 in its most contracted state. Therefore, the cylinder 71 performs a movement extending in the direction of the arrow Z along the longitudinal direction of the axis P from the state shown in FIG. Here, when the cylinder 71 moves to extend in the direction of arrow Z, the spring S disposed between the gears 801 and 804 contracts. This causes the spring S to accumulate elastic energy. Thereafter, the spring S extends in the direction opposite to the direction of the arrow Z, so as to push back the rotating body 41 while releasing the accumulated elastic energy.

The rotating body 41 is disposed inside a part of the cylindrical housing K, and rotates along the axis along with the housing K in conjunction with the expansion and contraction movement of the cylinder 71 and independently of the rotational movement of the axis P. Change the position in the longitudinal direction of P. Specifically, as shown in FIG. 2, the rotating body 41 changes its position from position A1 to position A2 while sliding in the direction of arrow Z. Although not shown, the rotating body 41 changes its position while sliding from position A2 to position A1.
When the rotating body 41 changes its position from position A1 to position A2, the piston 21 will fit completely inside the rotating body 41, so that one of the magnetic bodies Mr11 to Mr22 and the magnetic body Ms have a gap distance D. They face each other with a gap distance d between them. On the other hand, when the rotating body 41 changes its position from the position A2 to the position A1, the piston 21, which had been completely housed inside the rotating body 41, is separated from the rotating body 41. As a result, the rotational movement of the rotating body 41 comes to a halt according to Crohn's law described above.

The gear 801 is a gear fixed to the shaft P (crankshaft 31). The gear 801 rotates along with the rotation of the shaft P (crankshaft 31). Note that the position of the gear 801 is fixed by a fixing portion 902.
Gear 802 is a gear meshed with gear 801. Therefore, the gear 802 rotates in conjunction with the rotation of the gear 801. Note that the position of the gear 802 is fixed by a fixing portion 902.
The gear 803 is a gear having a rotating shaft coaxial with the gear 802. Therefore, when the gear 802 performs a rotational movement, the gear 803 performs a rotational movement together with the rotational movement. Note that the position of the gear 803 is fixed together with the gear 802 by a fixing portion 902.
Gear 804 is a gear meshed with gear 803. Therefore, the gear 804 rotates in conjunction with the rotation of the gear 803. Note that, unlike the gears 801 to 803, the gear 804 is not fixed to the shaft P but to the rotating body 41. Therefore, when the rotating body 41 slides in the direction of the arrow Z, it slides in the direction of the arrow Z while maintaining the meshed state with the gear 803. At this time, the spring S disposed between the gear 801 and the gear 804 is compressed.
Further, by shifting the engagement between the gears 803 and 804, the deviation in rotation of the rotating body 41 is adjusted, and forward rotation and reverse rotation are adjusted. Thereby, the positional relationship between the rotating body 41 and the piston can be made optimal.

At least a portion of the head H of the piston head 201 of the piston 21 is made of a magnetic body Ms. Although the direction of the magnetic pole of the magnetic body Ms is not particularly limited, in this embodiment, the magnetic body Ms is arranged so that the north pole faces the direction of the rotating body 41.

In the rotary power mechanism 2 having such a configuration, the position of the rotating body 41 can be switched between the position A1 and the position A2 by controlling the expansion and contraction movement of the cylinder 71. Thereby, the rotary power mechanism 2 can bring the rotary body 41 into a state in which the piston 21 does not exist inside the rotary body 41 (that is, a state in which the rotary body 41 is not rotated) by moving the rotary body 41 to the position A1. Furthermore, by moving the rotary body 41 to position A2, it is possible to create a state in which the piston 21 exists inside the rotary body 41 (that is, a state in which the rotary body 41 is rotated).
That is, by controlling the expansion and contraction movement of the cylinder 71, the rotary power mechanism 2 can control the repulsive force and attractive force generated in the gap D between the magnetic bodies Mr11 to Mr22 and the magnetic body Ms.

Each of the magnetic bodies Mr11 to Mr22 arranged on at least a portion of the inner circumferential surface J of the rotating body 41 can be composed of a plurality of layers of magnetic bodies, similarly to the first embodiment. Thereby, it is possible to increase the repulsive force and attractive force generated in the gap D between the piston 21 and the magnetic body Ms. As a result, a strong rotational torque can be generated in the rotational movement of the rotating body 11, so that the above-mentioned effects can be improved.
Further, similarly to the first embodiment, when one magnetic body having the same thickness is used for each of the magnetic bodies Mr11 to Mr22 consisting of a plurality of layers of magnetic bodies, it is possible to use a plurality of layers. No effect can be expected from this configuration.
Further, similarly to the first embodiment, when the magnetic bodies Mr11 to Mr22 and the magnetic body Ms are composed of a plurality of layers of magnetic bodies, the repulsive force and attractive force generated in the gap D are extremely strong. Become. Therefore, the magnetic bodies Mr11 to Mr22 and the magnetic body Ms are always housed in a case made of a non-magnetic material (for example, aluminum). Thereby, safety and promptness can be ensured during the installation work and replacement work of the magnetic bodies Mr11 to Mr22 and the magnetic body Ms.

Further, in each of the magnetic bodies Mr11 to Mr22 arranged on at least a part of the inner peripheral surface of the rotating body 41, one magnetic pole faces the direction of the axis P (crankshaft 31), and the other magnetic pole faces the direction of the axis P (crankshaft 31). The shaft 31) is arranged so as to face in the opposite direction. The orientation of the magnetic poles of the magnetic bodies Mr11 to Mr22 is not particularly limited. In this embodiment, although not shown in the drawings, the magnetic bodies Mr11 to Mr17 are all arranged such that their north poles face the direction of the axis P (crankshaft 31). Further, the magnetic bodies Mr18 to Mr22 are all arranged such that their S poles face the direction of the axis P (crankshaft 31).
In the rotating body 41 having such magnetic pole orientation and arrangement, for example, when the rotating body 41 starting from the state shown in FIG. 3 rotates in the direction of the arrow Y, the magnetic bodies Mr11, Mr22, Mr21, Mr20, Mr19, Mr18, Mr17, Mr16, Mr15, Mr14, Mr13, and Mr12 are present at positions facing the piston 21 in this order. Then, each of the magnetic bodies Mr11 to Mr22 existing at a position facing the piston 21 and the magnetic body Ms of the piston 21 continuously repel and attract each other through the gap D. . As a result, the rotational movement of the rotating body 41 and the reciprocating movement of the piston 21 are continuously performed while the gap distance d in the gap D is maintained at a constant value.
(gap interval)

Similar to the first embodiment, a gap D is provided between the rotating body 41 and the piston 21. By providing the gap distance D, the rotating body 41 and the piston 21 each perform rotational motion and reciprocating motion by utilizing the strong repulsive force and adsorption force generated in the gap distance D. . The gap spacing distance d in the gap spacing D can be corrected by adjusting, for example, shifting the meshing of the meshing portions of the gears 803 and 804.
Here, the value of the gap distance d in the gap D is not particularly limited, but it is preferably maintained within the range of 5 mm to 10 mm, as in the first embodiment. In order to maintain the gap distance d in the gap D at a preferable value, it is preferable that the repulsive force and attractive force generated in the gap D between each of the magnetic bodies Mr11 to Mr22 and the magnetic body Ms are large. Therefore, as described above, by configuring each of the magnetic bodies Mr11 to Mr22 and the magnetic body Ms with a plurality of layers, the gap distance d in the gap D can be maintained at a preferable value.

(others)
The respective configurations of the piston 21 and the crankshaft 31 are basically the same as those in the first embodiment, so their explanations will be omitted.

In the rotary power mechanism 2, as in the first embodiment, the position where the rotating body 41 rotates, the timing at which each of the magnetic bodies Mr11 to Mr22 approaches the magnetic body Ms, and the gap distance d in the gap D are determined. Combinations of multiple parameters are considered, including values, etc.
In other words, the rotary power mechanism 2 can achieve the above-described effects by having a configuration that takes into consideration the combination of the plurality of parameters described above.

In this embodiment, all operations from the start to the stop of the rotational power mechanism 2 can be controlled by using the rotational power of a control motor (not shown).

[Third embodiment]
FIG. 4 is a front sectional view showing an example of the configuration of a rotational power mechanism according to a third embodiment of the present invention.
FIG. 5 is a side sectional view showing an example of the configuration of a rotary power mechanism according to a third embodiment of the present invention.

(Basic configuration)
The rotational power mechanism 3 shown in FIGS. 4 and 5 is a power mechanism that includes at least a rotating body 51, a piston 21, and a crankshaft 31. The crankshaft 31 is connected to a power generation mechanism 91.
Similar to the first embodiment, the rotary power mechanism 3 utilizes the repulsive force and attraction force generated in the gap D between the rotary body 51 and the piston 21, each having a magnetic body facing each other, to rotate the rotary body 51 and the piston 21. and perform rotational motion and reciprocating motion, respectively. The rotational power mechanism 3 causes the rotational movement of the crankshaft 31 to interlock with the reciprocating movement of the piston 21.
That is, the rotary power mechanism 3 converts the magnetic energy generated in the gap D between the opposing magnetic bodies into kinetic energy of the reciprocating motion of the piston 21. The engine functions as a reciprocating engine that outputs the kinetic energy of the reciprocating motion of the piston 21 as the kinetic energy of the rotational motion of the crankshaft 31.
Thereby, the rotational power mechanism 3 can rotate the generator of the power generation mechanism 91 at high speed. Note that the effects that can be achieved by the rotational power mechanism 3 are similar to those of the first embodiment described above.

Each component of the rotary power mechanism 3 will be explained in detail below.

(Rotating body)
The rotating body 51 is a rotating body having a rotation axis P and plates 501 and 502, similarly to the first embodiment. Note that the configuration of the rotating body 51 is basically the same as the configuration of the rotating body 11 of the first embodiment except for the number of magnetic bodies, so a description thereof will be omitted.
That is, as in the first embodiment, a plurality of magnetic bodies Mr31 to Mr42 are arranged on the substantially elliptical outer edge E having steps of the rotary body 51, and the magnetic bodies Mr31 to Mr42 have their respective magnetic poles unequal in direction. Utilizing the repulsive force and attraction force generated in the gap D between Mr42 and the magnetic body Ms, the piston head 201 of the piston 21 is caused to reciprocate while the gap distance d in the gap D is maintained at a constant value. can be made to
As a result, the generator of the power generating mechanism 91 connected to the piston 21 can be rotated at high speed.

As shown in FIGS. 4 and 5, the rotating body 51 according to the third embodiment has a rotating shaft P supported by an arm 81. As shown in FIGS. The arm 81 can be moved up and down by the expansion and contraction of the cylinder 82 using the axis U as the rotation axis. Thereby, the gap distance d in the gap D between the magnetic bodies Mr31 to Mr42 and the magnetic body Ms can be adjusted. By moving the arm 81 up and down, it is possible to generate repulsion and attraction force in the gap D between the magnetic bodies Mr31 to Mr42 and the magnetic body Ms, or to prevent the generation of repulsion and attraction force. It becomes possible to do so. Thereby, whether or not the rotating body 51 rotates can be freely controlled.

Each of the magnetic bodies Mr31 to Mr42 can be composed of a plurality of layers of magnetic bodies, similarly to the first embodiment. Thereby, it is possible to increase the repulsive force and attractive force generated in the gap D between the piston 21 and the magnetic body Ms. As a result, a strong rotational torque can be generated in the rotational movement of the rotating body 11, so that the above-mentioned effects can be improved.
Further, similarly to the first embodiment, when replacing with a single magnetic body having the same thickness as each of the magnetic bodies Mr31 to Mr42 consisting of a plurality of layers, No effect can be expected.
Further, similarly to the above-described embodiment, when the magnetic bodies Mr31 to Mr42 and the magnetic body Ms are constituted by a plurality of layers, the repulsive force and attractive force generated in the gap D become strong. Therefore, the magnetic bodies Mr31 to Mr42 and the magnetic body Ms are always housed in a case made of a non-magnetic material (for example, aluminum). Thereby, safety and promptness can be ensured during the installation work and replacement work of the magnetic bodies Mr31 to Mr42.
(gap interval)

Similar to the first embodiment, a gap D is provided between the rotating body 51 and the piston 21. By providing the gap distance D, the rotating body 51 and the piston 21 each perform rotational motion and reciprocating motion by utilizing the strong repulsive force and adsorption force generated in the gap distance D. .
Here, the value of the gap distance d in the gap D is not particularly limited, but it is preferably maintained within the range of 5 mm to 10 mm, as in the first embodiment. In order to maintain the gap distance d at a preferable value, it is preferable that the repulsive force and attractive force generated in the gap distance D between each of the magnetic bodies Mr31 to Mr42 and the magnetic body Ms are large. Therefore, as described above, by configuring each of the magnetic bodies Mr31 to Mr42 and the magnetic body Ms with a plurality of layers, the gap distance d in the gap distance D can be maintained at a preferable value.

(others)
The respective configurations of the piston 21 and the crankshaft 31 are basically the same as those in the first embodiment, so their explanations will be omitted. Note that oil is circulated and supplied to the piston 21 from an oil tank 92 via a filter. Thereby, the coefficient of friction when the piston head 201 reciprocates inside the cylinder 202 can be reduced. Further, the friction coefficient can also be reduced by providing a bearing between the piston head 201 and the cylinder 202.

In the rotary power mechanism 3, as in the first embodiment, the position where the rotating body 51 rotates, the timing at which each of the magnetic bodies Mr31 to Mr42 approaches the magnetic body Ms, and the gap distance d in the gap distance D are determined. Combinations of multiple parameters are considered, including values, etc.
In other words, the rotational power mechanism 3 can achieve the above-described effects by having a configuration that takes into consideration the combination of the plurality of parameters described above.

In addition to the embodiments described above, according to the present invention, the following effects can be expected, for example.
That is, it is possible to realize stable energy sharing for so-called electric vehicles (EVs), which are expected to become popular in the future.
In addition, in response to the problem of drinking water shortages that are predicted to occur worldwide in the future, sterile water produced by pumping up deep sea water and steaming it can be used as drinking water, for example, without worrying about electricity consumption. can do. At the same time, natural mineral salts produced during the evaporation process of deep sea water can also be used as table salt.
In addition, drinking water can be secured by pumping up deep underground water through boring operations, for example, without worrying about power consumption. This will help prevent desertification on Earth and provide sufficient water to people in undeveloped areas. As a result, it is possible to prevent the spread of food poisoning and infectious diseases that have conventionally been caused by using unsanitary pond or river water, rainwater, etc. as drinking water.

In this embodiment, all operations from the start to the stop of the rotational power mechanism 3 can be controlled by using the rotational power of a control motor (not shown).

[Fourth embodiment]
FIG. 6 is a side sectional view showing an example of the configuration of a rotational power mechanism according to a fourth embodiment of the present invention.
FIG. 7 is a front sectional view showing an example of the configuration of a rotating body in the rotational power mechanism according to the fourth embodiment of the present invention.

(Basic configuration)
As shown in FIG. 6, the rotational power mechanism 4 according to the fourth embodiment includes a rotating body 41, pistons 21a and 21b, a crankshaft 31, a cylinder 71, a control motor 301, and flywheels 401 and 402. , a power mechanism including a gearbox 601, gears 801 to 806, and fixed parts 901 and 902.
The rotary power mechanism 4 according to the fourth embodiment, like the rotary power mechanism 2 according to the second embodiment, uses a repulsive force generated in the gap Da between the rotary body 41 and the piston 21a, each having opposing magnetic bodies, and an adsorption force. The force is used to cause the rotating body 41 and the piston 21a to perform rotational motion and reciprocating motion, respectively.
Further, the rotary power mechanism 4 according to the fourth embodiment includes a piston 21b having the same configuration as the piston 21a and facing the piston 21a on the 180° opposite magnetic pole side of the piston 21a. As a result, the direction of the magnetic pole becomes the north pole or the south pole at the radius of 180° of the rotary body 41, and more efficient rotational movement without waste is realized. As a result, the rotational speed can be further accelerated and a stronger rotational torque can be generated than in the case where there is only one piston 21.
The rotary power mechanism 4 utilizes the repulsive force and attraction force generated in the gap intervals Da and Db between the rotary body 41, which has opposing magnetic bodies, and the pistons 21a and 21b, respectively. The pistons 21a and 21b are caused to perform rotational movement and reciprocating movement, respectively. The rotational power mechanism 4 causes the rotational movement of the crankshaft 31 to interlock with the reciprocating movement of the pistons 21a and 21b. The rotating body 41 and the crankshaft 31 both perform rotational motion with the axis P as the rotation axis.
That is, the rotary power mechanism 4 according to the fourth embodiment converts the magnetic energy generated in each of the gap intervals Da and Db between the opposing magnetic bodies into kinetic energy of the reciprocating motion of the pistons 21a and 21b. The rotary power mechanism 2 functions as a reciprocating engine by outputting the kinetic energy of the reciprocating motion of the pistons 21a and 21b as the kinetic energy of the rotational motion of the crankshaft 31.
Thereby, the rotary power mechanism 4 can rotate a large-sized power generator at high speed, and therefore can obtain higher effects than the above-described second embodiment.

Each component of the rotary power mechanism 4 will be explained in detail below.

(Rotating body)
As shown in FIG. 7, the rotating body 41 is a rotating body that has an inner circumferential surface J and rotates about an axis P as a rotation axis. The shape of the inner circumferential surface J is a substantially elliptical shape in which the distance from the axis of the axis P to the inner circumferential surface J is uneven. A part of the inner circumferential surface J is composed of magnetic bodies Mr11 to Mr22 arranged at substantially equal intervals.
Further, on the outer circumferential surface of the rotating body 41, there is an adjustment screw 411 that can vary and adjust the gap distance d in the gap distance D between each of the magnetic bodies Mr11 to Mr22 and the magnetic body Ms in the range of 1 mm to 10 mm. is provided. The number and position of the adjustment screws 411 are not particularly limited as long as they can adjust the gap distance d, but in this embodiment, as shown in FIG. There are four each. However, the number of adjustment screws 411 is not limited to this.
When the rotating body 41 having such a configuration rotates, the magnetic bodies Mr11 to Mr22 are sequentially located at positions facing each of the piston heads 201a and 201b in accordance with the rotation.
Accordingly, similarly to the second embodiment, the repulsive force and attraction force generated in the gap distances Da and Db between the magnetic bodies Mr11 to Mr22 and the magnetic bodies Msa and Msb, respectively, are utilized to increase the gap distance Da and the magnetic bodies Msa and Msb. The piston heads 201a and 201b of the pistons 21a and 21b can be caused to reciprocate while maintaining the gap distance d in each of the pistons 21a and 21b at a constant value. As a result, the crankshaft 31 rotates, allowing the large-sized generator to rotate at even higher speeds.

In the rotary power mechanism 4 according to the fourth embodiment, the rotation of the rotor 41 is controlled by controlling the gap distance d in each of the gap intervals Da and Db between the rotor 41 and the pistons 21a and 21b. Movement is controlled.
That is, when the rotating body 41 and the pistons 21a and 21b are completely separated from each other, the rotating body 41 completely stops its rotational motion according to Crohn's law described above. On the other hand, in a state where the rotating body 41 and at least one of the pistons 21a and 21b are close to each other and are in opposing positions separated by the gap distance d, the above-mentioned repulsive force and attraction force are exerted. The rotating body 41 starts rotating.
Therefore, in this embodiment, the longitudinal position of the axis P of the rotating body 41 is made variable, and the longitudinal positions of the pistons 21a and 21b are made constant, thereby making it possible to perform the following control. There is.

In this embodiment, by bringing the rotating body 41 close to the pistons 21a and 21b and using the rotational power of the control motor 301, control is performed to start the rotational movement of the rotating body 41 and the reciprocating movement of the pistons 21a and 21b. be able to. On the other hand, by separating the rotating body 41 from the piston 21, control can be performed to stop the rotational movement of the rotating body 41 and the reciprocating movement of the pistons 21a and 21b.
Specifically, as shown in FIG. 6, in the rotational power mechanism 4 according to the fourth embodiment, a shaft P ( The cylinder 71, the rotating body 41, and the gears 801 to 806 each perform various movements independently or in conjunction with the rotational movement of the crankshaft 31).

The cylinder 71 extends and contracts along the longitudinal direction of the axis P, independently of the rotational movement of the axis P. Note that FIG. 6 shows the cylinder 71 in its most contracted state. Therefore, the cylinder 71 moves in the direction of the arrow Z along the longitudinal direction of the axis P from the state shown in FIG. Here, when the cylinder 71 moves to extend in the direction of arrow Z, the spring S disposed between the gears 801 and 804 contracts. This causes the spring S to accumulate elastic energy. Thereafter, the spring S extends in the direction opposite to the direction of the arrow Z, so as to push back the rotating body 41 while releasing the accumulated elastic energy.

The rotating body 41 is disposed inside a part of the cylindrical housing K, and rotates along the axis along with the housing K in conjunction with the expansion and contraction movement of the cylinder 71 and independently of the rotational movement of the axis P. Change the position in the longitudinal direction of P. Specifically, as shown in FIG. 6, the rotating body 41 changes its position from position A1 to position A2 while sliding in the direction of arrow Z. Although not shown, the rotating body 41 changes its position while sliding from position A2 to position A1.
When the rotating body 41 changes its position from the position A1 to the position A2, the pistons 21a and 21b are completely accommodated inside the rotating body 41, so that one of the magnetic bodies Mr11 to Mr22 and the magnetic bodies Msa and Msb are They face each other with a gap distance d in each of the gap intervals Da and Db. On the other hand, when the rotating body 41 changes its position from the position A2 to the position A1, the pistons 21a and 21b, which were completely housed inside the rotating body 41, are separated from the rotating body 41. As a result, the rotational movement of the rotating body 41 comes to a halt according to Crohn's law described above.

The gear 801 is a gear fixed to the shaft P (crankshaft 31). The gear 801 rotates along with the rotation of the shaft P (crankshaft 31). Further, the gear 801 is meshed with a gear 802 and a gear 806. The position of the gear 801 is fixed by a fixing part 902.
Gear 802 is a gear meshed with gear 801 and gear 805. Therefore, the gear 802 rotates in conjunction with the rotation of the gears 801 and 805. The position of gear 802 is fixed by a fixing part 902.
The gear 803 is a gear having a rotating shaft coaxial with the gear 802. Therefore, when the gear 802 performs a rotational movement, the gear 803 performs a rotational movement together with the rotational movement. Further, the gear 803 is meshed with the gear 804. The position of the gear 803 is fixed together with the gear 802 by a fixing part 902.
Gear 804 is a gear meshed with gear 803. Therefore, the gear 804 rotates in conjunction with the rotation of the gear 803. Note that, unlike the gears 801 to 803, the gear 805, and the gear 806, the gear 804 is not fixed to the shaft P but is fixed to the rotating body 41. Therefore, when the rotating body 41 slides in the direction of the arrow Z, it slides in the direction of the arrow Z while maintaining the meshed state with the gear 803. At this time, the spring S disposed between the gear 801 and the gear 804 is compressed.
Furthermore, by shifting the engagement between the gears 803 and 804, the deviation in rotation of the rotating body 41 is adjusted, and forward rotation and reverse rotation are adjusted. Thereby, the positional relationship between the rotating body 41 and the piston can be optimized.
The gear 805 is a gear that rotates together with the rotation of the control motor 301. Gear 805 is meshed with gear 802. Therefore, the gear 802 rotates in conjunction with the rotation of the gear 805. Note that the position of the gear 805 is fixed together with the control motor 301 by a fixing portion 902.
Gear 806 is a gear meshed with gear 801. Therefore, the gear 806 rotates in conjunction with the rotation of the gear 801. The rotational movement of gear 806 is regulated by gearbox 601. Note that the position of the gear 806 is fixed together with the gearbox 601 by a fixing portion 902.

At least a portion of the head H of the piston head 201a of the piston 21a is made of a magnetic body Msa. Although the direction of the magnetic pole of the magnetic body Msa is not particularly limited, in this embodiment, the magnetic body Msa is arranged so that the north pole faces the direction of the rotating body 41.
At least a portion of the head H of the piston head 201b of the piston 21b is made of a magnetic body Msb. Although the direction of the magnetic pole of the magnetic body Msb is not particularly limited, in this embodiment, the magnetic body Msb is arranged so that the north pole faces the direction of the rotating body 41.

In the rotary power mechanism 4 having such a configuration, the position of the rotating body 41 can be switched between the position A1 and the position A2 by controlling the expansion and contraction movement of the cylinder 71. As a result, the rotary power mechanism 4 can move the rotary body 41 to position A1 to bring the pistons 21a and 21b into a state where the pistons 21a and 21b do not exist inside the rotary body 41 (i.e., a state in which the rotary body 41 is not rotated). . Furthermore, by moving the rotating body 41 to position A2, a state can be created in which the pistons 21a and 21b exist inside the rotating body 41 (that is, a state in which the rotating body 41 is rotated).
That is, the rotary power mechanism 4 controls the expansion and contraction movement of the cylinder 71 to reduce the repulsive force and attraction force generated in the respective gap intervals Da and Db between the magnetic bodies Mr11 to Mr22 and the magnetic bodies Msa and Msb, respectively. becomes possible to control.

Each of the magnetic bodies Mr11 to Mr22 arranged on at least a portion of the inner circumferential surface J of the rotating body 41 can be composed of a plurality of layers of magnetic bodies, similarly to the second embodiment. Thereby, it is possible to increase the repulsive force and attractive force generated in the gap Da between the piston 21a and the magnetic body Msa and the gap Db between the piston 21b and the magnetic body Msb. As a result, a strong rotational torque can be generated in the rotational movement of the rotating body 11, so that the above-mentioned effects can be improved.
Further, similarly to the second embodiment, when one magnetic body having the same thickness is used for each of the magnetic bodies Mr11 to Mr22 consisting of a plurality of layers of magnetic bodies, the plurality of layers may be used. No effect can be expected from this configuration.
Further, similarly to the second embodiment, when the magnetic bodies Mr11 to Mr22 and the magnetic bodies Msa and Msb are each composed of a plurality of layers of magnetic bodies, the repulsive force generated in each of the gap distances Da and Db. And the adsorption power becomes very strong. Therefore, the magnetic bodies Mr11 to Mr22 and the magnetic bodies Msa and Msb are always housed in a case made of a non-magnetic material (for example, aluminum). Thereby, safety and promptness can be ensured during the installation work and replacement work of the magnetic bodies Mr11 to Mr22 and the magnetic bodies Msa and Msb.

Further, in each of the magnetic bodies Mr11 to Mr22 arranged on at least a part of the inner peripheral surface of the rotating body 41, one magnetic pole faces the direction of the axis P (crankshaft 31), and the other magnetic pole faces the direction of the axis P (crankshaft 31). The shaft 31) is arranged so as to face in the opposite direction. The orientation of the magnetic poles of the magnetic bodies Mr11 to Mr22 is not particularly limited. In this embodiment, although not shown in the drawings, the magnetic bodies Mr11 to Mr17 are all arranged such that their north poles face the direction of the axis P (crankshaft 31). Further, the magnetic bodies Mr18 to Mr22 are all arranged such that their S poles face the direction of the axis P (crankshaft 31).

Specifically, N-pole magnetic bodies Mr are arranged at each 30° (six locations) of 180° (half rotation) out of 360° around one rotation of the rotating body 41 . The distance from the axis P to one N-pole magnetic body Mr is a distance obtained by dividing the operating stroke distance of the piston 21a into six. Furthermore, by setting the gap distance d between the N pole of the piston 21a and the magnetic body Msa to be approximately 5 mm to 10 mm (preferably 5 mm), strong repulsive energy can be converted into rotational energy. can be converted.
In addition, an S-pole magnetic body Mr is arranged at each 30° (six locations) of 180° (half rotation) out of 360° around one rotation of the rotating body 41. The distance from the axis P to one N-pole magnetic body Mr is a distance obtained by dividing the operating stroke distance of the piston 21b into six. Furthermore, by setting the gap distance d in the gap distance Db between the N pole of the piston 21b and the magnetic body Msb to be approximately 5 mm to 10 mm (preferably 5 mm), strong adsorption energy can be converted into rotational energy. can be converted.
That is, by providing the pistons 21a and 21b, more powerful rotational energy is produced than when only one piston 21 is used, and the effect of doubling the rotational speed of the rotating body 41 can be obtained.

In the rotating body 41 having such magnetic pole orientation and arrangement, for example, when the rotating body 41 starting from the state shown in FIG. 7 rotates in the direction of the arrow Y, the magnetic bodies Mr11, Mr22, Mr21, Mr20, Mr19, Mr18, Mr17, Mr16, Mr15, Mr14, Mr13, and Mr12 are present in the order facing the piston 21a. Further, the magnetic bodies Mr17, Mr16, Mr15, Mr14, Mr13, Mr12, Mr11, Mr22, Mr21, Mr20, Mr19, and Mr18 are present in the order facing the piston 21b.
Then, each of the magnetic bodies Mr11 to Mr22 existing at a position facing the piston 21a and the magnetic body Msa of the piston 21a continuously repel each other and attract each other through the gap interval Da. be exposed. Similarly, the piston 21b and the magnetic body Msb continuously repel each other and attract each other via the gap Db. As a result, the rotational motion of the rotating body 41 and the reciprocating motion of the pistons 21a and 21b are maintained while the gap distance d in the gap Da and the gap distance d in the gap Db are each maintained at a constant value. will be carried out continuously.

(gap interval)
Similar to the second embodiment, a gap Da is provided between the rotating body 41 and the piston 21a. Further, a gap Db is provided between the rotating body 41 and the piston 21b. In this way, by providing the gap intervals Da and Db, the rotating body 41 and the pistons 21a and 21b can rotate by utilizing the strong repulsive force and adsorption force generated in the gap interval D. and reciprocating motion, respectively. The respective gap distances d in the gap distances Da and Db can be corrected by adjusting, for example, shifting the meshing of the meshing portions of the gears 803 and 804.
As described above, the value of the gap distance d in each of the gap distances Da and Db is not particularly limited, but it is preferably maintained in the range of 5 mm to 10 mm (preferably 5 mm) as in the second embodiment. In order to maintain the gap distance d in each of the gap distances Da and Db at a preferable value, the repulsion that occurs in the gap distances Da and Db between each of the magnetic bodies Mr11 to Mr22 and each of the magnetic bodies Msa and Msb is necessary. It is preferable that the force and adsorption force be large. Therefore, as described above, by configuring each of the magnetic bodies Mr11 to Mr22 and the magnetic bodies Msa and Msb with a plurality of layers, the gap distance d in each of the gap distances Da and Db can be maintained at a preferable value. be able to.

(control motor)
The control motor 301 is composed of a DC or AC variable motor. The control motor 301 controls all operations of the rotary power mechanism 4 from starting to stopping. That is, the control motor 301 controls the operation of the rotary power mechanism 4 from the start of rotation to practical efficiency rotation, and all the operations thereafter until the operation is stopped. As a result, the driving force of the control motor 301 also contributes to the operation of the rotary power mechanism 4. As a result, even stronger rotational torque is generated.
Further, the control motor 301 can also automatically charge a battery with a part of the energy generated by the rotary power mechanism 4 and drive using the electric power. Specifically, the control motor 301 is operated using a 36V x 60Ah battery, which is usually six 12V x 30Ah batteries. Thereby, the control motor 301 can control all the rotation mechanisms of the rotation power mechanism 4. A portion of the resulting large amount of power generated by the powerful rotational torque is automatically charged into the battery. This establishes a cycle in which the control motor 301 is automatically driven.

(gearbox)
The gearbox 601 is a variable speed gearbox that performs final adjustment of the rotational speed of the rotary body 41 so that the rotational torque of the rotary body 41 is optimized. Specifically, the gearbox 601 adjusts the rotation speed so that the efficiency of the rotational torque of the output shaft (shaft P) becomes the most efficient. In this way, by making the efficiency of the rotational torque most efficient, a large-sized generator can be operated, so that a large amount of electric power can be generated. Further, as described above, since the rotational torque of the control motor 301 is added, even larger rotational torque can be generated. For example, it is possible to generate rotational torque five to ten times that of the control motor 301.

(others)
The respective configurations of the piston 21 and the crankshaft 31 are basically the same as those in the second embodiment, so their explanations will be omitted.

In the rotary power mechanism 4, the position where the rotating body 41 performs rotational movement, the timing at which each of the magnetic bodies Mr11 to Mr22 approaches each of the magnetic bodies Msa and Msb, and the gap distance d in each of the gap intervals Da and Db are determined. Combinations of multiple parameters are considered, including values of .
In other words, the rotary power mechanism 4 can achieve the above-described effects by having a configuration that takes into consideration the combination of the plurality of parameters described above.

Although one embodiment of the present invention has been described above, the present invention is not limited to the above-described embodiment, and modifications, improvements, etc. within the range that can achieve the purpose of the present invention are included in the present invention. It is. Further, various changes may be made without departing from the gist of the present invention.

For example, in the embodiments described above, the number of magnetic bodies arranged on the rotating body side is merely an example. An arbitrary number of magnetic bodies can be arranged as the above-mentioned parameters.

For example, in the above-described embodiment, the directions of the magnetic poles of the magnetic bodies disposed on the rotating body side and the piston side are merely examples. The magnetic body can be arranged with any magnetic pole direction as the above-mentioned parameters.

In summary, the rotary power mechanism to which the present invention is applied only needs to have the following configuration, and can take various embodiments.
That is, the rotary power mechanism to which the present invention is applied (for example, the rotary power mechanism 1 in FIG. 1),
It has a plurality of first magnetic bodies (for example, magnetic bodies Mr1 to Mr5 in FIG. 1) whose magnetic poles are not uniform in direction, and the distance between each of the plurality of first magnetic bodies and the axis of the rotation axis (for example, axis P) A rotating body (for example, the rotating body 11 in FIG. 1) that is not uniform, a piston (for example, the piston 21 in FIG. 1) having a second magnetic body (for example, the magnetic body Ms in FIG. 1), and a crankshaft (for example, the crank in FIG. 1). A rotary power mechanism comprising a shaft 31),
Each of the rotating body and the piston has a preset gap distance ( For example, performing rotational movement and reciprocating movement while maintaining the gap distance d),
The crankshaft performs rotational movement in conjunction with the reciprocating movement of the piston.

This has a plurality of first magnetic bodies whose magnetic poles are not uniform in direction, a rotating body whose distances between each of the plurality of first magnetic bodies and the axis of the rotation axis are not uniform, and a second magnetic body. By utilizing the magnetic repulsion and attraction force generated in the gap between the first magnetic body and the second magnetic body, each of the pistons can rotate and reciprocate while maintaining a preset gap distance. Exercise and exercise respectively.
Since the crankshaft rotates in conjunction with the reciprocating movement of the piston, the generator can be rotated at high speed.
As a result, it becomes possible to produce a large amount of electricity without consuming fuel, making it possible to realize a stable supply of electricity to humanity.

Further, at least one of the first magnetic body and the second magnetic body may have a stacked structure of magnetic bodies having the same shape or different shapes.

Thereby, it is possible to increase the repulsive force and attractive force generated in the gap between the magnetic body on the rotating body side and the magnetic body on the piston side.
As a result, a strong rotational torque can be generated in the rotational motion of the rotating body, so that the effects of the present invention can be further improved. Moreover, it becomes possible to prevent demagnetizing force.

Further, by sliding at least one of the first magnetic body and the second magnetic body in the vertical direction or the horizontal direction and changing the gap distance in the gap interval, the presence or absence of the repulsive force and the attractive force can be determined. It is possible to further include an operation control mechanism (for example, cylinder 71 in FIG. 3, arm 81 and cylinder 82 in FIG. 4) that controls the start and stop of the rotational movement of the rotating body by adjustment.

Thereby, the gap distance between the magnetic body on the rotating body side and the magnetic body on the piston side can be adjusted.
As a result, it is possible to freely create repulsion and attraction forces in the gap between the magnetic body on the rotor side and the magnetic body on the piston side, or to prevent the generation of repulsion and attraction forces. Therefore, the drive of the rotary power mechanism can be freely controlled.

Further, the gap distance in the gap interval can be maintained at 5 mm to 10 mm.

This has a plurality of first magnetic bodies whose magnetic poles are not uniform in direction, a rotating body whose distances between each of the plurality of first magnetic bodies and the axis of the rotation axis are not uniform, and a second magnetic body. By utilizing the magnetic repulsion and attraction force generated in the gap between the first magnetic body and the second magnetic body, the piston can rotate and reciprocate while maintaining a gap distance of 5 mm to 10 mm. Exercise and exercise respectively.
Since the crankshaft rotates with strong torque in conjunction with the reciprocating motion of the piston, it is possible to rotate the generator at a higher speed with stronger force.
As a result, it becomes easy to produce a large amount of electric power without consuming fuel, thereby realizing a more stable supply of electric power to humanity.

1 to 4... Rotating power mechanism, 11, 41, 51... Rotating body, 21, 21a, 21b... Piston, 31... Crankshaft, 71... Cylinder, 81... Arm, 82... Cylinder, 91... Power generation mechanism, 92... Oil tank, 101, 102, 501, 502... Plate, 201, 201a, 201b... Piston head, 202... Cylinder, 301 ...Control motor, 401,402...Flywheel, 601...Gear box, 801 to 806...Gear, 901,902...Fixed part, 911,912...Bearing part, A1, A2... Area in which the rotating body can move, D, Da, Db... Gap interval, d... Gap interval distance, E... Outer edge, H... Head of piston head, J...・Inner peripheral surface of rotating body, P, U...shaft, S...spring, Y...arrow, Z...arrow, Mr...magnetic body on rotating body side, Ms...piston side Magnetic body, K... housing

Claims (4)

a rotating body having a plurality of first magnetic bodies whose magnetic poles are not uniform in direction, and the distances between each of the plurality of first magnetic bodies and the axis of a rotating shaft are not uniform; and a piston having a second magnetic body; A rotational power mechanism comprising a crankshaft,
Each of the rotating body and the piston maintains a preset gap distance by utilizing magnetic repulsion and attraction force generated in the gap between the first magnetic body and the second magnetic body. Perform rotational movement and reciprocating movement while maintaining
The crankshaft performs rotational motion in conjunction with the reciprocating motion by the piston.
Rotary power mechanism. At least one of the first magnetic body and the second magnetic body has a stacked structure of magnetic bodies having the same shape or a different shape.
The rotary power mechanism according to claim 1. By sliding at least one of the first magnetic body and the second magnetic body in the vertical direction or the horizontal direction and changing the gap distance to adjust the presence or absence of the repulsive force and the attractive force, further comprising an operation control mechanism that controls the start and stop of the rotational movement of the rotating body;
The rotary power mechanism according to claim 1 or 2. the gap distance is maintained at 5 mm to 10 mm;
The rotary power mechanism according to any one of claims 1 to 3.

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