Energy conversion system using magnetic gradation

Abstract

[Problem] The present invention addresses the problem of providing a system for converting energy by using magnetic gradation. [Solution] The present invention, which solves the problem, is an energy conversion system characterized by comprising an energy conversion set, a magnetic gradation system, and an MMO coordination system.

Description

Energy Conversion System Utilizing Magnetic Gradation

[0001] The present invention relates to energy conversion.

[0002] In the three invention products cited in the prior art documents, the main reason for the difficulty in their realization was that no MMO-related system was provided.

[0003] Japanese Patent Application Laid-Open No. 2023-008731, Japanese Patent Application Laid-Open No. 2023-055597, Japanese Patent Application Laid-Open No. 2024-054811

[0004] An object of the present invention is to provide a system that performs energy conversion using magnetic gradation.

[0005] The present invention has been made to solve the above problems, and is an energy conversion system characterized by including an energy conversion set, a magnetic gradation system, and an MMO-related system.

[0006] Perspective view of Example 1 of the present invention. Right side view of Example 1 of the present invention. Perspective view of Example 2 of the present invention. Right side view of Example 2 of the present invention. Perspective view of Example 3 of the present invention. Right side view of Example 3 of the present invention. Perspective view showing the magnetic object 7h of Example 3 of the present invention. Top view showing the magnetic object 7h of Example 3 of the present invention. Perspective view of Example 4 of the present invention. Right side view of Example 4 of the present invention. Perspective view showing Mode 1 of Example 5 of the present invention. Right side view showing Mode 1 of Example 5 of the present invention. Perspective view showing Mode 2 of Example 5 of the present invention. Right side view showing Mode 2 of Example 5 of the present invention. Perspective view of Example 6 of the present invention. Right side view of Example 6 of the present invention. Perspective view of Example 7 of the present invention. Perspective view of Example 8 of the present invention.

[0007] Hereinafter, embodiments of the present invention will be described.

[0008] 《Six Definitions》 1. In this disclosure, “the present invention” refers to “an energy conversion system utilizing magnetic gradation.” 2. All tangible objects are collectively referred to as “objects.” 3. Objects described in this disclosure and objects used in the embodiments are collectively referred to as “disclosed objects.” 4. Magnetic movers and auxiliary magnetic movers are collectively referred to as “magnetic movable objects.” 5. The present invention is a system that provides energy generated in magnetic movable objects. 6. Magnetic attraction and the strength of magnetic attraction are collectively referred to as “magnetic attractive force.”

[0009] 《Magnetic Objects》 1. "Magnetic object" is a general term for magnets and all objects other than magnets that attract magnets. 2. Magnetic objects are essential to the present invention, and two or more magnetic objects must be used in the embodiments. 3. The number of types of magnetic objects used in the embodiments is arbitrary, but if one type of magnetic object is used in the embodiments, one type must be selected from objects classified as magnets, and if multiple types of magnetic objects are used in the embodiments, at least one type must be selected from objects classified as magnets.

[0010] Energy Conversion Object 1. Magnetic movers and magnetic bases are collectively referred to as "energy conversion objects." However, this general term does not mean that it is essential to use both a magnetic mover and a magnetic base in the embodiments. 2. An energy conversion object is an object having a magnetic object, or an object that is entirely a magnetic object. That is, the minimum object required for an energy conversion object is a magnetic object. 3. In this disclosure, whether the magnetic object is the whole or a part of the energy conversion object, the magnetic attractive force acting on the magnetic object is defined as the magnetic attractive force acting on the energy conversion object.

[0011] 《Energy Conversion Set》 1. An "energy conversion set" is a set formed by multiple energy conversion objects when the present invention is in operation. That is, in order to form an energy conversion set, it is necessary to use multiple energy conversion objects in the embodiment. 2. An "energy conversion set" refers to a state in which multiple energy conversion objects cooperate as a set that performs energy conversion. 3. The state of the energy conversion set can be controlled by changing the state of the embodiment, and it is possible to form, disband, or change the composition of the set. However, the actual controllability of the state of the energy conversion set depends on the embodiment. 4. By forming an energy conversion set, a magnetic attractive force acts between the energy conversion objects within the energy conversion set. 5. The number of types of energy conversion objects that make up an energy conversion set is arbitrary, but at least one type of energy conversion object that falls under the definition of a magnetic mover must be included in the energy conversion set. 6. Depending on the embodiment, even if it appears to be a single unified energy conversion set, it may actually be multiple and separate energy conversion sets. 7. The energy conversion set is an essential set for the present invention. 8. A form that can assemble an energy conversion set is a form equipped with an energy conversion set.

[0012] 《Magnetic Mover》 1. A "magnetic mover" is a general term for an object that, when operating in the present invention, undergoes some kind of functional movement within the energy conversion set due to the magnetic attractive force acting on the object itself. However, the movement of a magnetic mover is not necessarily caused solely by magnetic attractive force. 2. Magnetic rotors, magnetic loopers, and magnetic runners are examples of magnetic movers and are sub-concepts of magnetic movers. 3. Magnetic movers are essential to the present invention, and at least one type of object that fits the definition of a magnetic mover must be used in the embodiment.

[0013] 《Magnetic Rotor》 1. "Magnetic rotor" is a general term for magnetic movers of a type that produce rotational motion. 2. In this disclosure, examples of magnetic rotors include three-pronged arm type, three-pronged type, wheel type, six-pronged arm type, and spiral type magnetic rotors.

[0014] 《Magnetic Looper》 1. "Magnetic looper" is a general term for a type of magnetic mover that is worn around the body and produces a circulating motion. 2. In this disclosure, a belt-type magnetic looper is shown as an example of a magnetic looper.

[0015] 《Magnetic Runner》 1. "Magnetic runner" is a general term for magnetic movers of the type that produce forward motion. 2. In this disclosure, a container-type magnetic runner is shown as an example of a magnetic runner.

[0016] 《Auxiliary Magnetic Mover》 1. "Auxiliary magnetic mover" is a general term for an object that, when operating an embodiment using this object, generates some functional movement within the energy conversion set due to the magnetic attractive force acting on the object itself, and functions as a component of the magnetic mover. However, the movement of the auxiliary magnetic mover is not necessarily caused solely by magnetic attractive force. 2. When an auxiliary magnetic mover is used in an embodiment, the auxiliary magnetic mover is provided on the magnetic mover and functions as a component of the magnetic mover. 3. An auxiliary magnetic mover is an object that has a magnetic object, or an object whose entirety is a magnetic object. That is, the minimum object required for an auxiliary magnetic mover is a magnetic object. 4. In this disclosure, when an auxiliary magnetic mover is used in an embodiment, whether the magnetic object is the entirety of the auxiliary magnetic mover or a part of it, the magnetic attractive force acting on the magnetic object is the magnetic attractive force acting on the auxiliary magnetic mover and the magnetic mover. 5. Auxiliary magnetic rotors and auxiliary magnetic loopers are examples of auxiliary magnetic movers and are subordinate concepts of auxiliary magnetic movers. 6. The auxiliary magnetic mover is not essential to this invention.

[0017] 《Auxiliary Magnetic Rotor》 1. "Auxiliary magnetic rotor" is a general term for auxiliary magnetic movers of the type that produce rotational motion. 2. In this disclosure, examples of auxiliary magnetic rotors include wheel-type and gear-type auxiliary magnetic rotors.

[0018] 《Auxiliary Magnetic Looper》 1. "Auxiliary magnetic looper" is a general term for auxiliary magnetic movers that are used by wrapping them around the body and produce a circulating motion. 2. In this disclosure, a belt-type auxiliary magnetic looper is shown as an example of an auxiliary magnetic looper.

[0019] 《Magnetic Base》 1. A "magnetic base" is a general term for an object that, when operating an embodiment using this object, does not exhibit functional movement due to a magnetic attractive force acting on it within the energy conversion set. 2. The main role of the magnetic base is to generate a magnetic attractive force on the magnetic movable object. 3. The magnetic base is not essential to the present invention and is one of the options for the energy conversion object used in the embodiment. 4. In this disclosure, examples of magnetic bases include ring-type, arc-type, and rail-type magnetic bases.

[0020] 《Holder》 1. The main role of a "holder" is to hold objects in order to maintain the coherence of the assembly. 2. Holders are either used as components of the energy conversion object or not. 3. There are no specifications for the material of the holder, but it is preferable that the material has strength appropriate to the use of the holder. 4. Considering the possibility of various interpretations of the definition of "holder," whether or not to use a holder in the embodiment is optional.

[0021] 《Magnetic Gradient System》 1. The "magnetic gradient system" is a system that guides the movement of a magnetic movable object by providing it with a magnetic gradient. However, when the present invention is in operation, the magnetic gradient system does not necessarily provide a magnetic gradient to all magnetic movable objects used in the embodiments. That is, when the present invention is in operation, the magnetic gradient system does not necessarily directly guide the movement of all magnetic movable objects used in the embodiments. 2. "Magnetic gradient" refers to the magnetic attractive force that changes sequentially in accordance with the movement of a magnetic movable object. 3. A magnetic gradient can be created by sequentially changing some element related to the magnetic attractive force along a direction effective for moving the magnetic movable object (hereinafter referred to as the "direction of the magnetic gradient"). 4. The magnetic gradient system can be implemented by employing at least one of the following six methods. These methods are referred to as the "six methods for implementing the magnetic gradient system." 4.1. Use multiple magnetic objects that produce different magnetic attractive forces under the same conditions. 4.2. 4.3. Use magnetic objects that can generate different magnetic attractive forces depending on the location. 4.4. Devise the arrangement of the magnetic objects. 4.5. Devise the orientation of the magnetic objects. 4.6. Devise the shape of the magnetic objects. 5. A configuration that can implement a magnetic gradation system is a configuration equipped with a magnetic gradation system. 6. Depending on the embodiment, the magnetic gradation system may be implemented by a movable magnetic control system and / or an electric magnetic control system. 7. The magnetic gradation system is an essential system for the present invention.

[0022] 《Loss Zone System》 1. The zone in which the inductive effect of the magnetic gradation system is interrupted is called the "loss zone." 2. An example of a loss zone is the zone in the magnetic gradation of the magnetic gradation system where the magnetic attractive force is strongest and the surrounding area. 3. The existence of a loss zone may prevent the magnetic movable object from functioning. However, the existence of a loss zone also has the advantage of preventing the magnetic movable object from accelerating indefinitely. 4. The timing at which the inductive effect on the magnetic movable object and / or a part of the magnetic movable object is interrupted due to the loss zone is called the "loss timing." 5. The "loss zone system" is a system that can be optionally provided in the present invention for the purpose of countermeasures against the loss zone and / or improving the performance of the present invention. In other words, the loss zone system is not an essential system for the present invention. 6. The reason why the loss zone system is not an essential system for the present invention is that the function of the magnetic movable object can be achieved even without providing a loss zone system in the present invention. For example, if the present invention is introduced to a bicycle and human power is used to assist the present invention, and even if the magnetic movable object enters the loss zone, if it can be removed from the loss zone by human power, then it is possible to realize the function of the magnetic movable object without providing a loss zone system in the present invention. 7. The loss zone system can be implemented by adopting at least one of the following four modes. These modes are referred to as the "four modes for implementing the loss zone system". 7.1. A mode in which, at least when the present invention is in operation, multiple magnetic movers share the kinetic energy, and when the present invention is in operation, all magnetic movers do not simultaneously lose kinetic energy. 7.2. A mode in which, when the present invention is in operation, all parts of a magnetic mover (at least one of the multiple magnetic movers used in the embodiment) do not simultaneously experience a loss timing. 7.3. A mode in which, when the present invention is in operation, all parts of an auxiliary magnetic mover (at least one of the multiple auxiliary magnetic movers used in the embodiment) do not simultaneously experience a loss timing. 7.4. The present invention provides a mechanism in which sufficient inertial force acts on a magnetically movable object to move it out of the loss zone during operation.8. A configuration in which the loss zone system can be implemented is a configuration that includes the loss zone system. 9. Depending on the embodiment, the loss zone system may be implemented by a movable magnetic control system and / or an electric magnetic control system.

[0023] 《MMO Linkage System》 1. The "MMO Linkage System" is a system in which magnetic movable objects move in coordination with each other in order to enable the induction effect of the magnetic gradient system to work effectively on the magnetic movable objects. 2. The MMO Linkage System can be implemented by adopting at least one of the following two modes. These modes are referred to as "two modes for implementing the MMO Linkage System". 2.1. A mode in which a magnetic mover and an auxiliary magnetic mover move in coordination, at least when the present invention is in operation. 2.2. A mode in which multiple magnetic movers move in coordination, at least when the present invention is in operation. 3. The MMO Linkage System is an essential system for the present invention. 4. A form in which the MMO Linkage System can be implemented is a form equipped with the MMO Linkage System. 5. "MMO" in MMO Linkage System is an abbreviation for "magnetic movable object".

[0024] 《Movable Magnetic Control》 1. "Movable magnetic control" is a method of controlling the present invention by controlling at least one of the position, orientation, or attitude of a magnetic object using an MO controller, and controlling the magnetic attractive force. 2. A system that performs movable magnetic control is called a "movable magnetic control system". 3. Movable magnetic control is a control method that enables control of start, stop, output control, braking of the magnetic movable object, control of the direction of movement of the magnetic movable object, control of the state of the energy conversion set, control of the magnetic gradation system, control of the loss zone and loss timing, etc. However, the types of control that are actually possible when performing movable magnetic control depend on the embodiment. 4. An "MO controller" is a control unit added to the embodiment when performing movable magnetic control. 5. A magnetic object that performs movable magnetic control is directly or indirectly connected to the MO controller, and the magnetic object connected to the MO controller can control at least one of its position, orientation, or attitude. 6. The MO controller may take any form as long as it has a mechanism for controlling the magnetic object, and is therefore not shown in the figures in this disclosure. 7. "MO" in MO controller is an abbreviation for "magnetic object". 8. Whether or not the present invention is controlled by movable magnetic control, and whether or not a movable magnetic control system is provided in the present invention, is optional. 9. A form in which movable magnetic control can be implemented is a form equipped with a movable magnetic control system.

[0025] 《Electric Magnetic Control》 1. "Electric magnetic control" is a control method that becomes possible when an electromagnet is used for a magnetic object. 2. "Electric magnetic control" is a method of controlling the present invention by controlling the current flowing through the magnetic object using a current controller and thereby controlling the magnetic attractive force. 3. A system that performs electric magnetic control is called an "electric magnetic control system". 4. Electric magnetic control is a control method that enables control of starting, stopping, output control, braking of magnetic movable objects, control of the direction of movement of magnetic movable objects, control of the state of energy conversion sets, control of magnetic gradation systems, control of loss zones and loss timings, etc. However, the types of control that are actually possible when performing electric magnetic control depend on the embodiment. 5. A "current controller" is a control unit added to the embodiment when performing electric magnetic control. 6. A magnetic object that performs electric magnetic control is directly or indirectly connected to the current controller, and the magnetic object connected to the current controller can control the magnetic attractive force by controlling the current. 7. The current controller may take any form as long as it has the necessary mechanism to control the current flowing through the magnetic object, and is therefore not illustrated in this disclosure. 8. Whether or not the present invention is controlled by electric magnetic control, and whether or not an electric magnetic control system is provided in the present invention, is optional. 9. A form in which electric magnetic control can be performed is a form in which an electric magnetic control system is provided.

[0026] 《Other》 1. The embodiments in which the present invention can be carried out, and the forms of disclosed objects in which the present invention can be carried out, are not limited to those shown in the examples. 2. The present invention and / or disclosed objects may use objects other than those used in the examples. For example, although not used in the examples, bearings may be used in the rotating sliding parts. 3. The present invention and / or disclosed objects may have some functions added to them. 4. Depending on the embodiment, one object may perform the roles of multiple disclosed objects. For example, one energy conversion object may also serve as a holder for other energy conversion objects. 5. The present invention may be controlled by methods other than movable magnetic control and electrical magnetic control. 6. The present invention may be controlled by both movable magnetic control and electrical magnetic control.

[0027] The form and mechanism of Example 1 will be described below with reference to Figures 1 and 2.

[0028] 《Energy Conversion Set》 1. In Example 1, an energy conversion set can be assembled using one magnetic rotor 1a and one magnetic base 6c. 2. When Example 1 is in operation, a magnetic attractive force acts between the magnetic rotor 1a and the magnetic base 6c.

[0029] 《Magnetic Rotor》 1. The magnetic rotor 1a is a three-pronged arm type magnetic rotor composed of a three-pronged arm type holder 8a, a rotating shaft 9a fitted to the center of the holder 8a, and an auxiliary magnetic rotor 4b rotatably held at the end of the arm of the holder 8a. 2. During operation of Embodiment 1, the auxiliary magnetic rotor 4b, holder 8a, and rotating shaft 9a rotate together as a single unit. 3. The magnetic rotor 1a is rotatably held by a holder (not shown). 4. The magnetic rotor 1a is provided with three auxiliary magnetic rotors 4b, and each auxiliary magnetic rotor 4b has one magnetic object 7b, so the magnetic rotor 1a has a total of three magnetic objects 7b.

[0030] 《Auxiliary Magnetic Rotor》 1. The auxiliary magnetic rotor 4b is a wheel-type auxiliary magnetic rotor composed of a ring-shaped magnetic object 7b, a circular holder 8b that holds the magnetic object 7b, and a rotating shaft 9b fitted to the center of the circle of the holder 8b. 2. When the first embodiment is in operation, the magnetic object 7b, the holder 8b, and the rotating shaft 9b rotate together as a single unit.

[0031] 《Magnetic Base》 1. The magnetic base 6c is a ring-shaped magnetic base composed of 22 circular magnetic objects 7c and a ring-shaped holder 8c that holds the magnetic objects 7c. 2. The magnetic base 6c uses 11 different sizes of magnetic objects 7c, two of each size, and the holder 8c is provided with holes that fit into and hold each magnetic object 7c. 3. The magnetic base 6c is connected to an MO controller (not shown), and the magnetic objects 7c on the magnetic base 6c are also indirectly connected to the MO controller. 4. The magnetic base 6c is arranged so that the magnetic rotor 1a fits inside the ring of the holder 8c. 5. The position of the magnetic base 6c can be controlled by the MO controller, and when changing the position of the magnetic base 6c, it can be moved along the axial direction of the rotation axis 9a. 6. The magnetic base 6c functions when positioned in a location surrounding the auxiliary magnetic rotor 4b and holder 8a (hereinafter referred to as "function position c" in the description of Embodiment 1), and the magnetic object 7c executes the magnetic gradient system.

[0032] 《Magnetic Gradation System》 1. In Example 1, a magnetic gradation system is implemented using magnetic objects 7c on a magnetic base 6c. 2. The magnetic objects 7c of 11 sizes on the magnetic base 6c exhibit a stronger magnetic attraction force under the same conditions as the size of the magnetic object 7c increases. 3. As shown in Figure 2, the magnetic objects 7c of 11 sizes are arranged in ascending order of size, counterclockwise from two starting points 15c. 4. Thus, in Example 1, at least methods 4.1 and 4.4 of the six methods for implementing the magnetic gradation system are employed.

[0033] 《Loss Zone System》 1. In Embodiment 1, the loss zone system is executed by at least one of the four modes for executing the loss zone system, which corresponds to 7.2. 2. Embodiment 1 is designed so that, during operation, two or more of the three auxiliary magnetic rotors 4b, which are components of the magnetic rotor 1a, do not experience loss timing at the same time. When one auxiliary magnetic rotor 4b is at loss timing, the other two auxiliary magnetic rotors 4b are affected by the inductive action of the magnetic gradation system, allowing the magnetic rotor 1a and the auxiliary magnetic rotors 4b to continue moving.

[0034] 《MMO Linkage System》 1. In Example 1, the MMO linkage system is executed by the mode corresponding to 2.1., one of the two modes for executing the MMO linkage system. 2. Example 1 is designed so that when in operation, the magnetic rotor 1a and the auxiliary magnetic rotor 4b move in conjunction with each other, and this mode makes the induction effect of the magnetic gradation system effective.

[0035] 《Mechanism》 1. When Embodiment 1 is started, the magnetic object 7c of the magnetic base 6c executes the magnetic gradation system. 2. When the magnetic gradation system is executed, the auxiliary magnetic rotor 4b provided on the magnetic rotor 1a rotates and revolves under the guidance of the magnetic gradation system, and the MMO linkage system is executed at the same time as the auxiliary magnetic rotor 4b moves. 3. When the MMO linkage system is executed, the magnetic rotor 1a rotates in conjunction with the movement of the auxiliary magnetic rotor 4b. 4. The three auxiliary magnetic rotors 4b sequentially and repeatedly experience loss timing, but the magnetic rotor 1a and the auxiliary magnetic rotors 4b can continue to move because the loss zone system is executed.

[0036] 《Movable Magnetic Control》 1. In Embodiment 1, movable magnetic control is possible using the magnetic object 7c of the magnetic base 6c. 2. In Embodiment 1, the following control is possible by movable magnetic control: 2.1. When the magnetic base 6c is not positioned in function position c, Embodiment 1 is started by positioning the magnetic base 6c in function position c. 2.2. Embodiment 1 is stopped by moving the magnetic base 6c, which is positioned in function position c, to a position other than function position c.

[0037] The form and mechanism of Example 2 will be described below with reference to Figures 3 and 4.

[0038] 《Energy Conversion Set》 1. In Example 2, an energy conversion set can be assembled with one magnetic rotor 1d and twelve magnetic rotors 1e. 2. During operation of Example 2, a sequential and repeated magnetic attraction force acts between the magnetic rotor 1d and the twelve magnetic rotors 1e.

[0039] 《Magnetic Rotor (Three-Pronged Type)》 1. The magnetic rotor 1d is a three-pronged magnetic rotor composed of a three-pronged magnetic object 7d and a rotating shaft 9d fitted to the center of the magnetic object 7d. 2. During operation of Embodiment 2, the magnetic object 7d and the rotating shaft 9d rotate together as a single unit. 3. The magnetic rotor 1d is rotatably held by a holder (not shown).

[0040] 《Magnetic Rotor (Wheel Type)》 1. The magnetic rotor 1e is a wheel-type magnetic rotor composed of a ring-shaped magnetic object 7e, a circular holder 8e that holds the magnetic object 7e, and a rotating shaft 9e fitted to the center of the circle of the holder 8e. 2. When the 2nd embodiment is in operation, the magnetic object 7e, the holder 8e, and the rotating shaft 9e rotate together as a single unit. 3. The magnetic rotor 1e is rotatably held at the end of an arm-type holder 8f connected to an MO controller (not shown). That is, the magnetic rotor 1e is indirectly connected to the MO controller, and the magnetic object 7e of the magnetic rotor 1e is also indirectly connected to the MO controller. 4. Twelve magnetic rotors 1e are arranged around the magnetic object 7d by the MO controller. 5. The position of the magnetic rotors 1e can be controlled by the MO controller, and by controlling the position of the magnetic rotors 1e, the magnetic attractive force acting on the magnetic rotors 1e can be controlled. More specifically, by controlling the distance of the magnetic rotor 1e relative to the rotation trajectory d (hereinafter referred to as "rotation trajectory d" in the description of Embodiment 2) outside of the rotation trajectory d, it is possible to control the magnetic attractive force acting between the magnetic rotor 1e and the magnetic rotor 1d. Controlling the distance relative to the rotation trajectory d outside of the rotation trajectory d means controlling the distance from the magnetic rotor 1d while avoiding contact with the rotating object, the magnetic rotor 1d. The closer the magnetic rotor 1e is to the rotation trajectory d, the stronger the magnetic attractive force acting between the magnetic rotor 1e and the magnetic rotor 1d. 6. Since the position of each magnetic rotor 1e can be individually controlled by the MO controller, it is possible to individually control the magnetic attractive force acting on each magnetic rotor 1e. 7. Controlling the position of the magnetic rotor 1e is equivalent to controlling the position of the magnetic object 7e.

[0041] 《Magnetic Gradient System》 1. In Example 2, a magnetic gradient system is implemented using 12 magnetic objects 7e connected to an MO controller. 2. Specifically, as shown in Figure 4, the magnetic gradient system is implemented by individually controlling the position of each magnetic object 7e so that, as the rotation proceeds counterclockwise from the two magnetic rotors 1e, which are the starting point 15e, the curve traced by the row of magnetic objects 7e gradually approaches the rotation trajectory d. However, this arrangement of magnetic objects 7e is just one example of an arrangement for implementing the magnetic gradient system in Example 2. 3. It is also possible to control the direction of the magnetic gradient by controlling the arrangement of the 12 magnetic objects 7e using the MO controller. 4. Thus, in Example 2, at least 4.2 and 4.4 of the six methods for implementing the magnetic gradient system are employed.

[0042] 《Loss Zone System》 1. In Example 2, it is possible to implement at least one of the four modes for executing the loss zone system, which corresponds to 7.2. 2. Specifically, by executing the magnetic gradation system as described above, it is possible to ensure that two or more of the three protruding ends 14d on the magnetic rotor 1d do not experience loss timing at the same time.

[0043] 《MMO Linkage System》 1. In Example 2, the MMO linkage system is executed by the mode corresponding to 2.2., one of the two modes for executing the MMO linkage system. 2. In Example 2, the magnetic rotor 1d and magnetic rotor 1e are designed to move in conjunction during operation, and this mode enables the induction effect of the magnetic gradation system.

[0044] "Mechanism" 1. When Example 2 is started, a magnetic gradient system is executed by twelve magnetic objects 7e. 2. When the magnetic gradient system is executed, the magnetic rotor 1d rotates by the induction of the magnetic gradient system, and simultaneously with the rotation of the magnetic rotor 1d, the MMO linkage system is executed. 3. By executing the MMO linkage system, twelve magnetic rotors 1e rotate in linkage with the rotation of the magnetic rotor 1d. 4. The three protruding ends 14d on the magnetic rotor 1d are in loss timing sequentially and repeatedly, but the magnetic rotor 1d can continue to rotate by executing the loss zone system.

[0045] "Movable Magnetic Control" 1. In Example 2, movable magnetic control can be performed by twelve magnetic objects 7e connected to the MO controller. 2. In Example 2, the following controls are possible by movable magnetic control. 2.1. Start Example 2 by executing the magnetic gradient system. 2.2. Control the output by controlling the distance of the magnetic object 7e with respect to the rotation locus d while executing the magnetic gradient system. 2.3. Stop Example 2 by equalizing the distances of the twelve magnetic objects 7e with respect to the rotation locus d and stopping the magnetic gradient system. 2.4. Move the twelve magnetic objects 7e away from the rotation locus d so that no magnetic attraction force acts on the magnetic rotor 1d, or weaken the magnetic attraction force acting on the magnetic rotor 1d to stop Example 2. 2.5. Brake the magnetic rotor 1d by individually controlling the positions of the twelve magnetic objects 7e so that the magnetic attraction force acts only on some of the magnetic objects 7e. 2.6. Control the rotation direction of the magnetic rotor 1d by controlling the direction of the magnetic gradient of the magnetic gradient system. 2.7. Execute the loss zone system by controlling the loss zone and loss timing.

[0046] Hereinafter, the form and mechanism of Example 3 will be described based on FIGS. 5, 6, 7, and 8.

[0047] "Energy Conversion Set" 1. In Example 3, it is possible to configure an energy conversion set with one magnetic rotor 1g and one magnetic base 6i. 2. During the operation of Example 3, a magnetic attraction force acts between the magnetic rotor 1g and the magnetic base 6i.

[0048] "Magnetic Rotor" 1. The magnetic rotor 1g is a three - pronged - arm - type magnetic rotor composed of a three - pronged - arm - type holder 8g, a rotating shaft 9g fitted at the center of the holder 8g, a gear - type auxiliary magnetic rotor 4h rotatably held at the end of the arm of the holder 8g, and a timing belt 10g wound around the gear - type auxiliary magnetic rotor 4h. 2. During the operation of Example 3, the timing belt 10g, the auxiliary magnetic rotor 4h, the holder 8g, and the rotating shaft 9g rotate integrally. 3. The magnetic rotor 1g is rotatably held by a holder (not shown). 4. Three auxiliary magnetic rotors 4h are provided on the magnetic rotor 1g, and each auxiliary magnetic rotor 4h has two magnetic objects 7h, so the magnetic rotor 1g has a total of six magnetic objects 7h.

[0049] "Auxiliary Magnetic Rotor" 1. The auxiliary magnetic rotor 4h is a gear - type auxiliary magnetic rotor composed of two special - shaped magnetic objects 7h, a gear - type holder 8h for holding the magnetic objects 7h, and a rotating shaft 9h fitted at the center of the circle of the holder 8h. 2. The holder 8h is provided with holes that fit with and hold the magnetic objects 7h. 3. During the operation of Example 3, the magnetic objects 7h, the holder 8h, and the rotating shaft 9h rotate integrally.

[0050] "Timing Belt" 1. The timing belt 10g wound around the three auxiliary magnetic rotors 4h is used to maintain a form capable of executing a loss - zone system. 2. The teeth of the timing belt 10g mesh with the teeth of the auxiliary magnetic rotor 4h.

[0051] 《Magnetic Base》 1. The magnetic base 6i is a ring-shaped magnetic base composed of a ring-shaped magnetic object 7i and a holder 8i that holds the magnetic object 7i. 2. Three magnetic bases 6i are connected to an MO controller (not shown), and are arranged so that a magnetic rotor 1g is placed inside each ring. 3. The position of each magnetic base 6i can be individually controlled by the MO controller, and when changing the position of a magnetic base 6i, it is possible to move it along the axial direction of the rotation axis 9g. 4. Controlling the position of the magnetic base 6i is equivalent to controlling the position of the magnetic object 7i. 5. When Embodiment 3 is in operation, two or more magnetic bases 6i do not function simultaneously; only one magnetic base 6i is functional, positioned in a location surrounding the timing belt 10g, auxiliary magnetic rotor 4h, and holder 8g (hereinafter referred to as "function position i" in the description of Embodiment 3). 6. The magnetic base 6i positioned in function position i generates a magnetic attractive force for moving the magnetic rotor 1g and auxiliary magnetic rotor 4h using the magnetic object 7i. 7. In Example 3, three different sizes of magnetic bases 6i with varying ring diameters for the magnetic object 7i are used. The smaller the ring diameter of the magnetic base 6i, the closer the distance between the inner surface of the ring of the magnetic object 7i and the magnetic rotor 1g when positioned in the function position i, resulting in a stronger magnetic attraction force between the magnetic base 6i and the magnetic rotor 1g.

[0052] 《Magnetic Gradation System》 1. In Example 3, the magnetic gradation system is implemented by the magnetic object 7h of the auxiliary magnetic rotor 4h. 2. As shown in Figures 7 and 8, the magnetic object 7h is arc-shaped, and its width gradually changes from one end to the other, with the magnetic attraction force being stronger in the wider parts. 3. Thus, in Example 3, at least methods 4.3 and 4.6 of the six methods for implementing the magnetic gradation system are employed.

[0053] 《Loss Zone System》 1. In Example 3, the loss zone system is executed by at least one of the four modes for executing the loss zone system, which corresponds to 7.2. 2. In Example 3, during operation, two or more of the three auxiliary magnetic rotors 4h, which are components of the magnetic rotor 1g, are not in a loss timing state at the same time. When one auxiliary magnetic rotor 4h is in a loss timing state, the other two auxiliary magnetic rotors 4h are affected by the inductive action of the magnetic gradation system, allowing the magnetic rotor 1g and the auxiliary magnetic rotors 4h to continue moving. 3. The timing belt 10g maintains that two or more auxiliary magnetic rotors 4h are not in a loss timing state at the same time.

[0054] 《MMO Linkage System》 1. In Example 3, the MMO linkage system is executed by the mode corresponding to 2.1., one of the two modes for executing the MMO linkage system. 2. Example 3 is designed so that when in operation, the magnetic rotor 1g and the auxiliary magnetic rotor 4h move in conjunction with each other, and this mode makes the induction effect of the magnetic gradation system effective.

[0055] 《Mechanism》 1. When Example 3 is started, the magnetic object 7h of the auxiliary magnetic rotor 4h executes the magnetic gradation system. 2. When the magnetic gradation system is executed, the auxiliary magnetic rotor 4h rotates on its own axis and revolves around the earth under the guidance of the magnetic gradation system, and the MMO linkage system is executed simultaneously with the movement of the auxiliary magnetic rotor 4h. The timing belt 10g circulates as the auxiliary magnetic rotor 4h rotates. 3. When the MMO linkage system is executed, the magnetic rotor 1g rotates in conjunction with the movement of the auxiliary magnetic rotor 4h. 4. The three auxiliary magnetic rotors 4h sequentially and repeatedly experience loss timing, but the magnetic rotor 1g and the auxiliary magnetic rotors 4h can continue to move because the loss zone system is executed.

[0056] 《Movable Magnetic Control》 1. In Embodiment 3, movable magnetic control is possible using the magnetic object 7i of the magnetic base 6i. 2. In Embodiment 3, the following control is possible by movable magnetic control: 2.1. When the magnetic base 6i is not positioned in function position i, Embodiment 3 is started by positioning one of the three magnetic bases 6i in function position i. 2.2. The output is controlled in three stages by selecting which of the three magnetic bases 6i to position i in function position i. 2.3. Embodiment 3 is stopped by moving the magnetic base 6i positioned in function position i to a position other than function position i, so that none of the three magnetic bases 6i are positioned in function position i.

[0057] The form and mechanism of Example 4 will be described below with reference to Figures 9 and 10.

[0058] Energy Conversion Set 1. In Example 4, an energy conversion set can be assembled with one magnetic rotor 1j and four magnetic bases 6l. 2. During operation of Example 4, a sequential and repeated magnetic attraction force acts between the magnetic rotor 1j and the four magnetic bases 6l.

[0059] 《Magnetic Rotor》 1. The magnetic rotor 1j is a six-pronged arm type magnetic rotor composed of a six-pronged arm type holder 8j, a rotating shaft 9j fitted to the center of the holder 8j, a pulley 11j rotatably held at the end of the arm of the holder 8j, and an auxiliary magnetic looper 5k wrapped around the pulley 11j. 2. During operation of Embodiment 4, the auxiliary magnetic looper 5k, pulley 11j, holder 8j, and rotating shaft 9j rotate together as a single unit. 3. The magnetic rotor 1j is rotatably held by a holder (not shown).

[0060] 《Auxiliary Magnetic Looper》 1. The auxiliary magnetic looper 5k is a belt-type auxiliary magnetic looper in which the entirety is a flexible magnetic object 7k. 2. The auxiliary magnetic looper 5k is wound around six pulleys 11j.

[0061] 《Magnetic Base》 1. The magnetic base 6l is an arc-shaped magnetic base composed of an arc-shaped magnetic object 7l and an arm-shaped holder 8l that holds the magnetic object 7l. 2. The magnetic base 6l is connected to an MO controller (not shown), and the magnetic object 7l of the magnetic base 6l is also indirectly connected to the MO controller. 3. The position of the magnetic base 6l can be controlled by the MO controller, and by controlling the position of the magnetic base 6l, it is possible to control the magnetic attractive force acting on the magnetic base 6l. More specifically, by controlling the distance of the magnetic base 6l with respect to the rotation trajectory j (hereinafter referred to as "rotation trajectory j" in the description of Embodiment 4) outside of the rotation trajectory j of the three protrusions 14j on the magnetic rotor 1j, it is possible to control the magnetic attractive force acting between the magnetic base 6l and the magnetic rotor 1j. Furthermore, controlling the distance from the rotation trajectory j outside of the rotation trajectory j means controlling the distance from the magnetic rotor 1j while avoiding contact with the rotating object, which is the magnetic rotor 1j. The closer the magnetic base 6l is to the rotation trajectory j, the stronger the magnetic attractive force acting between the magnetic base 6l and the magnetic rotor 1j. 4. Since the position of each magnetic base 6l can be individually controlled by the MO controller, the magnetic attractive force acting on each magnetic base 6l can be individually controlled. 5. Controlling the position of the magnetic base 6l is equivalent to controlling the position of the magnetic object 7l. 6. The bifurcated portion of the holder 8l that holds the magnetic object 7l can be swung by the MO controller, and by swinging this bifurcated portion, the attitude of the magnetic object 7l can be controlled.

[0062] 《Magnetic Gradient System》 1. In Example 4, the magnetic gradient system is executed by a magnetic object 7l connected to an MO controller. 2. Specifically, as shown in Figures 9 and 10, the MO controller controls the orientation of the magnetic object 7l, so that the distance to the rotation trajectory j gradually decreases from one end of the magnetic object 7l to the other end (shifting the orientation of the magnetic object 7l), thereby executing the magnetic gradient system. 3. It is also possible to control the direction of the magnetic gradient by controlling the orientation of the magnetic object 7l with the MO controller. 4. Thus, in Example 4, at least method 4.5. of the six methods for executing the magnetic gradient system is employed.

[0063] 《Loss Zone System》 1. In Embodiment 4, the loss zone system is executed by at least one of the four modes for executing the loss zone system, which corresponds to 7.2. 2. Embodiment 4 is designed such that, during operation, two or more of the three protrusions 14j on the magnetic rotor 1j are not in a loss timing state at the same time. When one protrusion 14j is in a loss timing state, the other two protrusions 14j are affected by the inductive action of the magnetic gradation system, allowing the magnetic rotor 1j and the auxiliary magnetic looper 5k to continue moving.

[0064] 《MMO Linkage System》 1. In Example 4, the MMO linkage system is executed by the mode corresponding to 2.1., one of the two modes for executing the MMO linkage system. 2. Example 4 is designed so that when in operation, the magnetic rotor 1j and the auxiliary magnetic looper 5k move in conjunction, and in this mode, the induction effect of the magnetic gradation system is effective.

[0065] 《Mechanism》 1. When Embodiment 4 is started, the magnetic gradation system is executed by the magnetic object 7l connected to the MO controller. 2. When the magnetic gradation system is executed, the magnetic rotor 1j rotates under the guidance of the magnetic gradation system, and the MMO linkage system is executed simultaneously with the rotation of the magnetic rotor 1j. 3. When the MMO linkage system is executed, the auxiliary magnetic looper 5k circulates in conjunction with the rotation of the magnetic rotor 1j. 4. As the auxiliary magnetic looper 5k circulates, the pulley 11j rotates. 5. The three protrusions 14j on the magnetic rotor 1j experience sequential and repeated loss timing, but the magnetic rotor 1j and the auxiliary magnetic looper 5k can continue to move because the loss zone system is executed.

[0066] 《Movable Magnetic Control》 1. In Example 4, movable magnetic control is possible using a magnetic object 7l connected to the MO controller. 2. In Example 4, the following control is possible by movable magnetic control: 2.1. Example 4 is started by executing the magnetic gradation system. 2.2. The output is controlled by controlling the distance of the magnetic object 7l with respect to the rotation trajectory j while the magnetic gradation system is running. 2.3. Example 4 is stopped by eliminating the orientation bias of the magnetic object 7l and stopping the magnetic gradation system. 2.4. Example 4 is stopped by moving the four magnetic objects 7l away from the rotation trajectory j so that no magnetic attractive force acts on the magnetic rotor 1j, or by weakening the magnetic attractive force acting on the magnetic rotor 1j. 2.5. The magnetic rotor 1j is braked by stopping the magnetic gradation system and individually controlling the position of each magnetic object 7l so that a magnetic attractive force acts on only one of the four magnetic objects 7l. 2.6. The rotation direction of the magnetic rotor 1j is controlled by controlling the direction of the magnetic gradient in the magnetic gradient system.

[0067] The form and mechanism of Example 5 will be described below with reference to Figures 11, 12, 13, and 14. Figures 11 and 12 show the operation of Example 5, while Figures 13 and 14 show the stopped state of Example 5.

[0068] 《Energy Conversion Set》 1. In Example 5, an energy conversion set can be assembled using one magnetic looper 2m and one magnetic rotor 1o. 2. When Example 5 is in operation, a magnetic attractive force acts between the magnetic looper 2m and the magnetic rotor 1o.

[0069] 《Magnetic Looper》 1. The magnetic looper 2m is a belt-type magnetic looper, the entire thing being a flexible magnetic object 7m. 2. The magnetic looper 2m is wound around two pulleys 11n.

[0070] 《Magnetic Rotor》 1. The magnetic rotor 1o is a helical-shaped magnetic rotor composed of a helical-shaped magnetic object 7o and a rotating shaft 9o fitted to the center of the magnetic object 7o. 2. During operation of Embodiment 5, the magnetic object 7o and the rotating shaft 9o rotate together. 3. The magnetic rotor 1o is rotatably held by a holder 8p. 4. The holder 8p that holds the magnetic rotor 1o is connected to an MO controller (not shown), and the magnetic rotor 1o, which is indirectly connected to the MO controller, can have its orientation controlled by the MO controller. That is, the magnetic object 7o of the magnetic rotor 1o is also indirectly connected to the MO controller, and its orientation can be controlled by the MO controller.

[0071] 《Magnetic Gradation System》 1. In Example 5, a magnetic gradation system is implemented using a magnetic object 7o on the magnetic rotor 1o. 2. As shown in Figure 12, the spiral-shaped magnetic object 7o has a shape in which the radius of the spiral gradually increases clockwise from three starting points 15o, and then the radius of the spiral abruptly decreases at three ends 14o. Due to this shape, when the magnetic rotor 1o rotates, the distance between the outer surface of the magnetic object 7o and the magnetic looper 2m is not constant, and the longer the radius of the spiral of the magnetic object 7o, the closer it is to the magnetic looper 2m. In other words, the longer the radius of the spiral of the magnetic object 7o, the stronger the magnetic attraction force acting between it and the magnetic looper 2m. 3. Thus, in Example 5, at least method 4.6. of the six methods for implementing the magnetic gradation system is adopted.

[0072] 《Loss Zone System》 1. In Example 5, the loss zone system is executed by at least one of the four modes for executing the loss zone system, which corresponds to 7.2. 2. Example 5 is designed so that during operation, there is always at least one non-loss timing portion in the magnetic rotor 1o and magnetic looper 2m, so that not all parts of the magnetic rotor 1o are at loss timing at the same time, and not all parts of the magnetic looper 2m are at loss timing at the same time.

[0073] 《MMO Linkage System》 1. In Example 5, the MMO linkage system is executed by the mode corresponding to 2.2., one of the two modes for executing the MMO linkage system. 2. Example 5 is designed so that when in operation, the magnetic rotor 1o and the magnetic looper 2m move in conjunction, and this mode makes the induction effect of the magnetic gradation system effective.

[0074] 《Mechanism》 1. When Embodiment 5 is started, the magnetic object 7o of the magnetic rotor 1o executes the magnetic gradation system. 2. When the magnetic gradation system is executed, the magnetic rotor 1o rotates under the guidance of the magnetic gradation system, and the MMO linkage system is executed simultaneously with the rotation of the magnetic rotor 1o. 3. When the MMO linkage system is executed, the magnetic looper 2m circulates in conjunction with the rotation of the magnetic rotor 1o. 4. As the magnetic looper 2m circulates, the pulley 11n rotates. 5. When the loss zone system is executed, the magnetic rotor 1o and the magnetic looper 2m can continue to move.

[0075] 《Movable Magnetic Control》 1. In Embodiment 5, movable magnetic control is possible using a magnetic object 7o connected to the MO controller. 2. In Embodiment 5, the following control is possible using movable magnetic control. 2.1. By changing the orientation of the magnetic object 7o from the orientation shown in Figures 13 and 14 to the orientation shown in Figures 11 and 12, the magnetic gradation system is made operational and Embodiment 5 is started. 2.2. By changing the orientation of the magnetic object 7o from the orientation shown in Figures 11 and 12 to the orientation shown in Figures 13 and 14, the magnetic gradation system is stopped and Embodiment 5 is stopped.

[0076] The form and mechanism of Example 6 will be described below with reference to Figures 15 and 16.

[0077] 《Energy Conversion Set》 1. In Example 6, an energy conversion set can be assembled using one magnetic runner 3q and two magnetic bases 6s. 2. When Example 6 is in operation, a magnetic attractive force acts between the magnetic runner 3q and the magnetic bases 6s. 3. If there are multiple magnetic runners 3q on the magnetic bases 6s, and these magnetic runners 3q are not connected to each other but move individually (the magnetic runners 3q do not cooperate with each other), then multiple and separate energy conversion sets will be assembled by the multiple magnetic runners 3q. In other words, there will be as many energy conversion sets of magnetic runners 3q and magnetic bases 6s as there are magnetic runners 3q.

[0078] 《Magnetic Runner》 1. The magnetic runner 3q is a container-type magnetic runner consisting of a box-shaped container 12q, a holder 8q attached to the container 12q, an auxiliary magnetic rotor 4r rotatably held by the holder 8q, and a current controller (not shown). 2. The magnetic runner 3q is provided with two auxiliary magnetic rotors 4r, and each auxiliary magnetic rotor 4r has 24 magnetic objects 7r, so the magnetic runner 3q has a total of 48 magnetic objects 7r. 3. The magnetic runner 3q rests on two magnetic bases 6s.

[0079] 《Auxiliary Magnetic Rotor》 1. The auxiliary magnetic rotor 4r is a wheel-type auxiliary magnetic rotor composed of 24 magnetic objects 7r which are electromagnets, two holders 8r which each hold 12 of the 24 magnetic objects 7r, and a rotating shaft 9r fitted to the center of the circles of the two holders 8r. 2. When the embodiment 6 is in operation, the magnetic objects 7r, holders 8r, and rotating shaft 9r rotate together as a single unit. 3. The holders 8r are provided with holes that fit with and hold the magnetic objects 7r. 4. The holders 8r are in contact with the magnetic base 6s and function as wheels. 5. The magnetic objects 7r are connected to a current controller (not shown) of the magnetic runner 3q, and by individually controlling the current flowing through each magnetic object 7r using the current controller, it is possible to individually control the magnetic attractive force acting on each magnetic object 7r.

[0080] 《Magnetic Base》 1. The magnetic base 6s is a rail-type magnetic base entirely composed of magnetic objects 7s. 2. The magnetic base 6s is laid on the ground, floor, etc., and serves as the path for the magnetic runner 3q.

[0081] 《Magnetic Gradation System》 1. In Example 6, the magnetic gradation system is executed by magnetic objects 7r connected to a current controller. In Example 6, the magnetic gradation system is executed for each holder 8r. 2. Below, an example of how to execute the magnetic gradation system in Example 6 will be described based on Figure 16. 2.1. Starting from two magnetic objects 7r which are the starting point 15r in one holder 8r, the current flowing through each magnetic object 7r is individually controlled so that the six magnetic objects 7r in each holder are arranged in a clockwise or counterclockwise direction in order of decreasing magnetic attractive force. 2.2. The above control is performed in each holder 8r. At this time, the direction of the magnetic gradation is unified to either clockwise or counterclockwise. 3. By controlling the direction of the magnetic gradation, it is also possible to control the direction of travel of the magnetic runner 3q. 4. Thus, in Example 6, at least 4.2. is adopted from the six methods for executing the magnetic gradation system.

[0082] 《Loss Zone System》 1. In Embodiment 6, it is possible to implement at least one of the four modes for executing the loss zone system, which corresponds to 7.2. 2. Specifically, by controlling the position of the starting point 15r of the magnetic gradation system with a current controller and shifting the loss timing of the two auxiliary magnetic rotors 4r, it is possible to ensure that when Embodiment 6 is in operation, the two auxiliary magnetic rotors 4r do not simultaneously experience loss timing.

[0083] 《MMO Linkage System》 1. In Example 6, the MMO linkage system is executed by the mode corresponding to 2.1., one of the two modes for executing the MMO linkage system. 2. Example 6 is designed so that when in operation, the magnetic runner 3q and the auxiliary magnetic rotor 4r move in conjunction with each other, and this mode makes the induction effect of the magnetic gradation system effective.

[0084] 《Mechanism》 1. When Embodiment 6 is started, the magnetic object 7r of the auxiliary magnetic rotor 4r executes the magnetic gradation system. 2. When the magnetic gradation system is executed, the auxiliary magnetic rotor 4r rotates under the guidance of the magnetic gradation system, and the MMO linkage system is executed simultaneously with the rotation of the auxiliary magnetic rotor 4r. 3. When the MMO linkage system is executed, the magnetic runner 3q moves in conjunction with the rotation of the auxiliary magnetic rotor 4r. 4. The two auxiliary magnetic rotors 4r of the magnetic runner 3q sequentially and repeatedly experience loss timing, but the magnetic runner 3q and the auxiliary magnetic rotors 4r can continue to move because the loss zone system is executed.

[0085] 《Electrical Magnetic Control》 1. In Example 6, electrical magnetic control is possible using magnetic objects 7r connected to a current controller. 2. In Example 6, the following control is possible by electrical magnetic control: 2.1. Example 6 is started by executing the magnetic gradation system. 2.2. The output is controlled by controlling the current flowing through the magnetic objects 7r while the magnetic gradation system is running. 2.3. Example 6 is stopped by equalizing the current flowing through each magnetic object 7r and stopping the magnetic gradation system. 2.4. Example 6 is stopped by turning off the current flowing through each magnetic object 7r and eliminating the magnetic attractive force. 2.5. The magnetic runner 3q is braked by individually controlling the current flowing through each magnetic object 7r in each holder 8r so that the magnetic attractive force acts only on some of the magnetic objects 7r. 2.6. The direction of travel of the magnetic runner 3q is controlled by controlling the direction of the magnetic gradation of the magnetic gradation system. 2.7. The loss zone system is executed by controlling the loss zone and loss timing.

[0086] Below, an example of a feasible configuration of the loss zone system will be described based on Figure 17.

[0087] 《Loss Zone System》 1. In Example 7, the loss zone system is implemented by at least one of the four modes for implementing the loss zone system, which corresponds to 7.1. 2. The gear 13t of each magnetic rotor 1t meshes with the gear 13u, and rotational kinetic energy is shared among the three magnetic rotors 1t via the gear 13u. 3. The loss timings of the three magnetic rotors 1t are staggered, so that when Example 7 is in operation, two or more magnetic rotors 1t do not simultaneously lose rotational kinetic energy.

[0088] Below, an example of a feasible configuration of the loss zone system will be described based on Figure 18.

[0089] 《Loss Zone System》 1. In Example 8, the loss zone system is executed by at least one of the four modes for executing the loss zone system, which corresponds to 7.3. 2. The two magnetic objects 7v, which are components of the auxiliary magnetic rotor 4v, have their loss timings staggered, so that when Example 8 is in operation, the two magnetic objects 7v do not simultaneously experience loss timing.

[0090] 1. Magnetic rotor 2. Magnetic looper 3. Magnetic runner 4. Auxiliary magnetic rotor 5. Auxiliary magnetic looper 6. Magnetic base 7. Magnetic object 8. Holder 9. Rotating shaft 10. Timing belt 11. Pulley 12. Container 13. Gear 14. Tip 15. Starting point

Claims

1. An energy conversion system characterized by comprising an energy conversion set, a magnetic gradation system, and an MMO linkage system.

2. The energy conversion system according to claim 1, further comprising a loss zone system.

3. The energy conversion system according to claim 1, comprising a movable magnetic control system.

4. The energy conversion system according to claim 1, comprising an electromagnetic control system.

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