TWM622342U - Pole switching control mechanism of magnetic energy transmission device - Google Patents

Abstract

The present invention refers to a pole changing control mechanism of a magnetic energy transmission device, which includes a base, at least one first magnetic force actuating unit, at least one second magnetic force actuating unit, at least one magnetic force passive unit and a magnetic pole switching control unit. The first and second magnetic force actuating units can synchronously generate the magnetic force of the same-direction magnetic repulsion force and magnetic attraction force on the magnetic force passive unit, and then synchronously perform the reciprocating switching of the magnetic force force through the magnetic pole switching control unit, so that the magnetic force passive unit can reciprocate It moves to generate a rotational or linear kinetic energy output, and the magnetic pole switching control unit is provided with first and second energy storage elements on the first and second magnetic force actuating units respectively, so as to generate a force that resists the change of the magnetic field, which can save labor effect, and make its magnetic pole switching action smoother.

Description

Magnetic energy transmission device pole change control mechanism

This creation belongs to the technical field of using magnetic energy transmission, and specifically refers to a pole changing control mechanism of a magnetic energy transmission device, which can effectively control the reaction efficiency of magnetic repulsion and magnetic attraction, and has the effect of saving labor and increasing the magnetic effect. It can reduce the output loss and enhance the output efficiency, thereby improving the energy conversion efficiency.

Press, the power source of the traditional power machine mainly comes from the electric motor or the internal combustion engine (such as oil or gas engine) to drive the gear set. As far as electric motors are concerned, in order to achieve high power output, not only must a large rated excitation coil and a rotor be wound, but also a relatively high amount of electrical energy must be consumed, and the excitation coil can drive the bulky rotor to run. Therefore, the purpose of high power output at the rated speed is achieved. It can be seen that the conventional electric motor has room for improvement in terms of energy consumption, manufacturing cost and power output performance. Since the electric scooters, electric vehicles, or vehicles with steam-electric symbiosis that are currently being promoted all over the world are limited by the current consumed in starting current and maintaining the rated speed, the torque and endurance are insufficient when used in urban traffic driving. It is the bottleneck of electric vehicle technology development at this stage.

In order to solve the aforementioned problems of energy consumption and power output performance, the industry has developed a variety of magnetic energy transmission devices to assist or replace the aforementioned power tools. Li Announcements No. I325923, No. M502288, No. M560542 and No. I640149, etc., this type of magnetic energy transmission device mainly defines at least two magnetic groups that can generate magnetic force (ie magnetic repulsion and magnetic attraction) as one. A magnetic force actuating unit and a magnetic force passive unit, and through the switching of the magnetic force between the magnetic force actuating unit and the magnetic force passive unit, that is, through the magnetic pole switching of the magnetic force actuating element, the magnetic repulsion and the magnetic attraction force are repeated between the two. Interleaved action, so that the magnetic passive unit can reciprocate relative to the magnetic actuating unit, thereby generating a kinetic energy and outputting it to a power output unit (such as a power generation system, a gear box, etc.) for use;

In the range of the magnetic force, the reaction rate of the magnetic repulsion force when controlling the shortest distance is higher than that of the magnetic attraction force when controlling the farthest distance, so how to effectively control the magnetic repulsion force becomes the main issue. According to Lenz's law, a magnetic field change produces an induced current, and the magnetic field caused by the induced current will form a force that resists the magnetic field change. Therefore, when the magnetic force actuating member of the aforementioned magnetic energy transmission device performs the magnetic pole switching, an anti-torque will be generated invisibly, so a large force must be applied to complete it, which is not only laborious in operation, but also affects the speed of controlling the pole changing. .

In other words, how to reduce the force as much as possible and control the switching of the magnetic poles to increase the ratio of the force difference between the magnetic repulsion force and the magnetic attraction force can improve its energy conversion efficiency, which is expected by the industry and users, and this is also the creation of this work. those who want to explore.

In view of this, the creators have concentrated on the research and application of theories in view of the problems faced by the above-mentioned existing players, adhering to years of experience in the design, development and implementation of the relevant industry, and improved the existing structure. Finally, successfully developed a A pole changing control mechanism of a magnetic energy transmission device is provided to overcome the trouble and inconvenience caused by the laborious pole changing control in the prior art.

Therefore, the main purpose of this creation is to provide a pole change control mechanism for a magnetic energy transmission device, which can effectively control the synchronous switching of the magnetic poles, and convert the pulling force and pushing force generated by the alternating reciprocating action of the magnetic attraction force and the magnetic repulsion force into output power. , thus improving the efficiency of its power output.

Furthermore, the main purpose of this creation is to provide a pole change control mechanism of a magnetic energy transmission device, which can effectively save the force when controlling the switching magnetic force, so as to improve the smoothness of its operation, and make the magnetic repulsion force and the magnetic attraction force. The ratio of the force difference increases, and the energy conversion efficiency can be improved.

Based on this, this creation is mainly through the following technical means to achieve the aforementioned purpose and its effects, including:

a base;

At least one first magnetic force actuating unit and at least one second magnetic force actuating unit are respectively disposed on the base, each of the first and second magnetic force actuating units are equidistant and arranged at staggered intervals, and the The first and second magnetic force actuating units are respectively provided with a first magnetic action portion and a second magnetic action portion with different polarities that can be switched, and the first magnetic force actuating portion and the second magnetic action portion of the first and second magnetic force actuating units The magnetic action part is arranged in the same position;

At least one magnetic passive unit is linearly slidable on the base, each of the magnetic passive units is respectively arranged between the adjacent first and second magnetic actuating units, and both ends of each of the magnetic passive units respectively have a first magnetic force unit. A magnetic passive part and a second magnetic passive part respectively correspond to the magnetic groups of the adjacent first and second magnetic force actuating units, so that the magnetic force passive unit can be actuated by the first and second magnetic force actuating unit magnetic groups at both ends. Driven by the generated magnetic repulsion and magnetic attraction acting in the same direction;

A magnetic pole switching control unit, which is arranged on the base, the magnetic pole switches The switching control unit has a first actuating element and a second actuating element which can actuate the first and second magnetic action parts of the first and second magnetic force actuating units respectively, and the magnetic pole switching control unit utilizes a The driving member actuates a linking member, and the linking member can drive the first and second actuating members synchronously. Furthermore, the magnetic pole switching control unit is provided with at least two actuating members respectively on the base for braking the first and second actuating members and generating a restoring pre-force. A first energy storage element and at least one second energy storage element, and the energy storage recovery strokes of the first and second energy storage elements are respectively located at both ends of the first and second magnetic force actuating units when the magnetic poles are switched to produce resistance to changes in the magnetic field. .

Thereby, through the specific realization of the above technical means, the pole change control mechanism of the magnetic energy transmission device of the present invention can utilize a slidable magnetic passive unit between the first and second magnetic actuating units, and the first and second magnetic force actuating units The moving unit can synchronously generate the magnetic force of the same-direction magnetic repulsion force and the magnetic attraction force to the magnetic passive unit, and then synchronously switch the magnetic force of the first and second magnetic force actuating units through the magnetic pole switching control unit, so that the magnetic force is passive The unit can reciprocate to generate a rotational or linear kinetic energy output, and further cooperate with the magnetic pole switching control unit to provide first and second energy storage elements on the first and second magnetic force actuating units respectively to generate a force that resists changes in the magnetic field , not only can achieve the effect of labor saving, but also make the magnetic pole switching action smoother, and at the same time make the switching of the magnetic poles of the first and second magnetic actuating units more sensitive, which can further increase the action stroke of the magnetic passive unit, thereby increasing its energy. Conversion efficiency, thereby increasing the added value of the product and improving its economic benefits.

In order to enable your reviewers to further understand the composition, features and other purposes of this creation, the following are some preferred embodiments of this creation, and they are described in detail with the drawings as follows, and at the same time, those who are familiar with the technical field can implement it. .

10: Pedestal

20: The first magnetic actuation unit

21: Magnetic group

211: The first magnetic action part

212: The second magnetic action part

22: Spindle

30: Second magnetic actuation unit

31: Magnetic group

311: The first magnetic action part

312: The second magnetic action part

32: Spindle

40: Magnetic passive unit

41: The first slide

410: The first magnetic passive part

42: Second slide

420: The second magnetic passive part

43: Crankset

44: The first swing arm

45: Second swing arm

46: Output shaft

47: Eccentric

470: Pivot

471: Counterweight

48: connecting rod

480: Output part

49: Output part

50: Magnetic pole switching control unit

51: The first actuating part

510: Brakes

52: Second Actuator

520: Brakes

53: Linkage

55: Drivers

56: The first energy storage element

57: Second energy storage element

80: PTO

Figure 1: It is a schematic view of the appearance of the first preferred embodiment of the pole changing control mechanism of the magnetic energy transmission device of the present invention.

Figure 2: It is a perspective exploded schematic diagram of the first preferred embodiment of the pole changing control mechanism of the magnetic energy transmission device of the present invention, which is used to illustrate the state and relative relationship of each component.

Figure 3: It is a three-dimensional action schematic diagram of the first preferred embodiment of the pole changing control mechanism of the magnetic energy transmission device of the present invention.

Figure 4: It is a schematic diagram of the plane action of the first preferred embodiment of the pole changing control mechanism of the magnetic energy transmission device of the present invention, for explaining its first movement state.

Figure 5: It is another plane action schematic diagram of the first preferred embodiment of the pole changing control mechanism of the magnetic energy transmission device of the present invention, which is used to illustrate the second movement state of the reverse return stroke.

Figure 6: It is a three-dimensional appearance schematic diagram of the second preferred embodiment of the pole changing control mechanism of the magnetic energy transmission device of the present invention, which is used to illustrate the different aspects of the magnetic passive unit.

Figure 7: It is a three-dimensional appearance schematic diagram of the third preferred embodiment of the pole changing control mechanism of the magnetic energy transmission device of the present invention, which is used to illustrate another different aspect of the magnetic passive unit.

Figure 8: It is a three-dimensional appearance schematic diagram of the fourth preferred embodiment of the pole changing control mechanism of the magnetic energy transmission device of the present invention.

Figure 9: It is a three-dimensional appearance schematic diagram of the fifth preferred embodiment of the pole changing control mechanism of the magnetic energy transmission device of the present invention, which is used to illustrate the form of its vertical matrix arrangement.

The tenth picture: the sixth of the pole change control mechanism of the magnetic energy transmission device of this creation A schematic diagram of the three-dimensional appearance of the preferred embodiment is used to illustrate the form of the horizontal matrix arrangement.

This creation is a pole-changing control mechanism of a magnetic energy transmission device. Among the specific embodiments of this creation and its components illustrated in the accompanying drawings, all the front and rear, left and right, top and bottom, upper and lower, and horizontal and vertical The reference is only for the convenience of description, and does not limit the creation, nor does it limit its components to any position or spatial orientation. The dimensions specified in the drawings and the description can be changed according to the design and requirements of the present creation without departing from the scope of the patent application of the present creation.

The main structure of the pole changing control mechanism of the magnetic energy transmission device of the present invention is shown in the first figure, which includes a base (10), at least one first magnetic force actuating unit (20), at least one second magnetic force actuating unit ( 30), at least one magnetic force passive unit (40) and a magnetic pole switching control unit (50) are composed, wherein each of the first magnetic force actuating units (20) and each of the second magnetic force actuating units (30) are in the same shape The magnetic force passive units (40) are slidably arranged on the adjacent first and second magnetic force actuating units (20, 30) or the adjacent second, On the base (10) of a magnetic force actuating unit (30, 20), so that the adjacent first and second magnetic force actuating units (20, 30) at both ends of each of the magnetic passive units (40) can generate them synchronously A magnetic attraction force and a magnetic repulsion force, and the magnetic pole switching control unit (50) can drive each of the first and second magnetic force actuating units (20, 30) to switch the magnetic poles corresponding to the adjacent magnetic force passive units (40) synchronously. The magnetic pole switching function of the first and second magnetic force actuating units (20, 30) enables each of the magnetic force passive units (40) to reciprocate and linearly move within a range that does not contact the first and second magnetic force actuating units (20, 30). , to generate a kinetic energy and output it to a power output unit (80) (such as a power generation system, a gear box, etc.), to for use;

As for the detailed structure of the first preferred embodiment of the present invention, as shown in the first and second figures, the base (10) can be formed by a frame with a U-shaped cross-section when viewed from one end, and the aforementioned The first and second magnetic force actuating units (20, 30) and each of the magnetic force passive units (40) are linearly arranged on the base (10), and wherein the first and second magnetic force actuating units (20, 30) There is a magnetic group (21, 31) respectively, and the magnetic group (21, 31) respectively has an equal first magnetic action part (211, 311) (can be N-pole or S-pole magnetic pole) and a different polarity. The second magnetic action part (that is, the S-pole magnetic pole or the N-pole magnetic pole), wherein the magnetic group (21, 31) can be a magnetic column, a magnetic disk or a magnetic strip, and the magnetic group (21, 31) Taking the magnetic column as the main embodiment, the magnetic groups (21, 31) of the first and second magnetic force actuating units (20, 30) can be pivoted on the base (10) using a rotating shaft (22, 32) respectively , and the first magnetic action parts (211, 311) and the second magnetic action parts (212, 312) of the first and second magnetic force actuating units (20, 30) are co-located, so that the first and second magnetic force actuating units The first magnetic action portion (211, 311) and the second magnetic action portion (212, 312) of (20, 30) can be synchronously switched to perform axial rotation;

Each of the magnetic passive units (40) has a first sliding seat (41) and a second sliding seat (41) and a second sliding seat (41) slidably arranged on the base (10) and capable of reciprocatingly linked relative to the first and second magnetic force actuating units (20, 30). The sliding seat (42), and the surfaces of the first and second sliding seats (41, 42) corresponding to the first and second magnetic force actuating units (20, 30) respectively have a first magnetic passive part (410) (which can be N poles) Magnetic pole or S-pole magnetic pole] and a second magnetic passive part (420) (that is, N-pole magnetic pole or S-pole magnetic pole), so that the magnetic passive unit (40) can use the first magnetic passive part (410) at both ends to communicate with each other. The second magnetic passive part (420) is opposite to the first magnetic action part (211, 311) or the second magnetic force actuation part (211, 311) of the first and second magnetic force actuating units (20, 30). The magnetic action parts (212, 312) simultaneously generate magnetic force of magnetic repulsion and magnetic attraction, and when the magnetic groups (21, 31) of the first and second magnetic force actuating units (20, 30) switch the first magnetic action part synchronously (211, 311) and the second magnetic action part (212, 312), the first and second slides (41, 42) of the magnetic passive unit (40) can maintain the same direction and linearly move back and forth, and the magnetic force The first and second sliding seats (41, 42) of the passive unit (40) can convert linear motion into rotational motion through a crank group (43), and the crank group (43) includes a crank group (43) pivoting on the first and second slides respectively. A first swing arm (44) and a second swing arm (45) of the sliding seat (41, 42), and the opposite ends of the first and second swing arms (44, 45) are pivoted relative to each other, and the crank The group (43) is pivotally provided in the middle of the base (10) with at least one output shaft (46) whose axis is equidistant from the axes of the first and second magnetic actuating units (20, 30) of the magnetic group (21, 31), The main example of this creation is the opposite output shafts (46) passing through the two sides of the pivot base (10) respectively, and each output shaft (46) is provided with an opposite eccentric member (47), and the eccentric members ( 47) The other end is jointly pivoted with a pivot (470) at the pivot joint of the first and second swing arms (44, 45), so that the first and second magnetic force actuating units (20, 30) When the two slides (41, 42) move in the same direction, the first and second swing arms (44, 45) and the eccentric member (47) can drive the output shafts (46) to rotate in a cranking manner to generate a rotational kinetic energy and output to a power output unit (80) (as shown in the first figure) for use, and each output shaft (46) may further have a counterweight (471) on the side different from the eccentric member (47). , so that the rotational movement of the first and second swing arms (44, 45) to drive the output shaft (46) does not generate a rotational dead point, so that the operation can be smoother. And according to some embodiments, as shown in Fig. 6, in the second preferred embodiment of the present creation, there may be a connecting rod ( 48), and the connecting rod (48) can be connected with an output part (480), so that the magnetic passive unit (40) can use the first The reciprocating linear motion of the first and second sliding seats (41, 42) generates a linear kinetic energy and outputs it for use. Furthermore, according to some embodiments, as shown in FIG. 7, the third preferred embodiment of the present invention, the first and second slides (41, 42) of the magnetic passive unit (40) can form an integrated structure, And an output part (49) is provided on the integral structure of the first and second sliding seats (41, 42), so that the magnetic passive unit (40) can utilize the reciprocating linear motion to generate a linear kinetic energy and output it for use;

Furthermore, the magnetic pole switching control unit (50) is respectively provided with a first actuating member (51) on the rotating shafts (22, 32) of the magnetic groups (21, 31) of the first and second magnetic force actuating units (20, 30) and a second actuating member (52), and the first and second actuating members (51, 52) can be driven in the same direction by a linking member (53) for synchronously rotating the first and second magnetic force actuating units (20, 53) The rotating shafts (22, 32) of the magnetic group (21, 31) of 30) make the magnetic groups (21, 31) of the first and second magnetic force actuating units (20, 30) opposite to the first magnetic force passive unit (40) 2. The two slides (41, 42) generate magnetic repulsion and magnetic attraction that act in the same direction, so that the magnetic passive unit (40) can generate rotational or linear kinetic energy, and the first and second actuating members (51, 52) It can be selected from gears (as shown in Figures 1 to 10), levers or other components that can actuate the rotating shafts (22, 32) to drive the magnetic groups (21, 31) to rotate, and the linking piece (53) can be for example Racks (as shown in Figures 1 to 7, 9 and 10), chains (as shown in the fourth embodiment of Figure 8) or other driveable The first and second actuating members (51, 52) act synchronously, such as connecting rods, for using a driving member (55) to actuate the linking member (53) to reciprocate, and the driving member (55) can be a forward and reverse servo A motor, a telescopic cylinder capable of linear motion or other elements that can drive the linkage (53) to act, and the magnetic pole switching control unit (50) can be provided on the base (10) for the first and second actuation respectively Pieces (51, 52) brake and generate return pre-force to At least one first energy storage element (56) and at least one second energy storage element (57), wherein the first and second energy storage elements (56, 57) can be elastic parts such as torsion springs, elastic pressure rods, etc. The first and second energy storage elements (56, 57) of the creation take the torsion springs sleeved on the rotating shafts (22, 32) of the first and second magnetic force actuating units (20, 30) as the main embodiment, and the first, One end of the torsion springs of the two energy accumulating elements (56, 57) is fixed on the base (10), and the other end can be locked by a braking member (510, 520) provided on the first and second actuating members (51, 52). Pressing produces an energy storage effect, and the energy storage and recovery strokes of the first and second energy storage elements (56, 57) are located at both ends of the first and second magnetic force actuating units (20, 30) relative to the magnetic force when switching magnetic poles The passive unit (40) generates a range that resists the change of the magnetic field (as shown in the third, fourth and fifth figures), so that the driving member (55) actuates the linking member (53) to drive the first and second magnetic force actuating units (20, 30) It can produce labor-saving effect when switching magnetic poles;

Thereby, the magnetic groups (21, 31) of the first and second magnetic force actuating units (20, 30) at both ends can switch the magnetic poles synchronously so as to be opposite to the first and second sliding seats (41) of the magnetic force passive unit (40). , 42) The magnetic repulsion and magnetic attraction that act in the same direction are generated, and a kinetic energy is generated for use, thereby forming a magnetic energy transmission device that can switch the magnetic poles synchronously and save labor.

As for the actual operation of the present creation, as shown in the first and third figures, when the first and second magnetic actuating units (20, 30) on the base (10) are driven by the magnetic pole switching control unit (50) (55) Actuating the action of the linking member (53), and through the linking member (53), the rotating shafts (22, 31) of the magnetic groups (21, 31) disposed on the first and second magnetic force actuating units (20, 30) can be driven synchronously. 32) of the first and second actuating members (51, 52), thereby driving the magnetic groups (21, 31) of the first and second magnetic force actuating units (20, 30) to switch the magnetic poles synchronously, for example, to actuate the first magnetic force. Magnetic group of unit (20) (21) The second magnetic action part (212) generates a magnetic repulsion force corresponding to the first sliding seat (41) of the magnetic passive unit (40) and the first magnetic passive part (410), and the second magnetic force actuating unit (30) When the first magnetic action part (311) of the magnetic group (31) corresponds to the second slider (42) of the magnetic passive unit (40) and the second magnetic passive part (420) generates a magnetic attraction force, the magnetic passive unit can be made to The first and second slides (41, 42) of (40) move synchronously to the right due to the magnetic force of magnetic repulsion and magnetic attraction respectively, and synchronously actuate the crank group (43) to generate a kinetic energy that is rotated by the output shaft (46) output, and at the same time make the first energy storage element (56) of the magnetic pole switching control unit (50) arranged in the first magnetic force actuating unit (20), such as a torsion spring, to be in a release shape, so as to generate a force that resists the change of the magnetic field, It can reduce the force exerted by the driving member (55) to produce a labor-saving effect, and the magnetic pole switching control unit (50) is arranged on the second energy storage element (57) of the second magnetic force actuating unit (30) such as torsion force The spring can compress the braking member (520) on the second actuating member (52) to form an energy storage state with restoring pre-force (as shown in the third and fourth figures), so as to generate restoring pre-force for the next cycle;

Next, as shown in the fourth and fifth figures, when the first and second magnetic force actuating units (20, 30) on the base (10) are actuated in the opposite direction by the driving member (55) of the magnetic pole switching control unit (50) A piece (53) is used to synchronously drive the first and second actuating pieces (51, 52) to reversely move through the linking piece (53), thereby driving the magnetic groups of the first and second magnetic force actuating units (20, 30) (21, 31) synchronously reverse switching, so that the magnetic group (21, 31) of the first magnetic force actuating unit (20) is switched from the second magnetic action part (212) to the first magnetic action part (211), and The magnetic group (331) of the second magnetic force actuating unit (30) is switched from the first magnetic action part (311) to the second magnetic action part (312) synchronously, so that the first magnetic force actuating unit (20) magnetic group ( 21) The first magnetic action part (211) corresponds to the first sliding seat (41) of the magnetic passive unit (40) and the first magnetic passive part (410) Switching to magnetic attraction, as for the second magnetic actuating unit (30), the magnetic group (31) has the second magnetic action part (312) corresponding to the second sliding seat (42) of the magnetic passive unit (40), the second magnetic passive part (420) Switch to magnetic repulsion, so that the first and second slides (41, 42) of the magnetic passive unit (40) move to the left synchronously due to the magnetic force of magnetic attraction and magnetic repulsion, respectively, and actuate the crankset synchronously (43) A kinetic energy is continuously generated and output by the rotation of the output shaft (46), and at the same time, the first energy storage element (56) of the magnetic pole switching control unit (50) provided in the first magnetic force actuating unit (20) can be The braking element (510) on an actuating element (51) is compressed into an energy storage state with restoring pre-force (as shown in the fifth figure), so as to generate restoring pre-force for the next cycle, and the magnetic pole switching control unit (50) ) The second energy storage element (57) provided in the second magnetic force actuating unit (30) can be released due to the restoring pre-force, so as to generate a force that resists the change of the magnetic field, so as to reduce the driving member (55) ), so as to achieve the effect of saving labor.

In addition, according to some embodiments, the pole changing control mechanism of the magnetic energy transmission device of the present invention can be arranged in a vertical array, and it can have two or more first and second magnetic force actuating units (20, 30) arranged in a linear direction. and a magnetic passive unit (40), as shown in the ninth figure, in this embodiment, two first magnetic actuating units (20), a second magnetic actuating unit (30) and two magnetic passive units are arranged at intervals (40), wherein each of the magnetic passive units (40) is equidistantly arranged between the adjacent first and second magnetic force actuating units (20, 30) and the second and one magnetic force actuating units (30, 20) , and the rotating shafts (22, 32) of the magnetic groups (21, 31) of the first and second magnetic force actuating units (20, 30) are respectively provided with the first and second actuating members (51) of the magnetic pole switching control unit (50). , 52), for synchronous driving by a linkage (53), so that all the first and second magnetic force actuating units (20, 30) can switch magnetic poles synchronously, generate a kinetic energy for output, and cooperate with the magnetic pole switching control unit (50) ) to drive the first and second magnetic actuation units (20, 30) The first and second actuating members (51, 52) for switching the magnetic poles are provided with first and second energy storage elements (56, 57), which can generate the force that resists the change of the magnetic field to achieve the purpose of saving labor, and When the number is larger, the labor-saving effect is more obvious, and the magnetic pole switching control is more effective.

Furthermore, according to some embodiments, the magnetic energy transmission device pole change control mechanism of the present invention can be arranged in a horizontal array, as shown in Figure 10, it can have two or more magnetic energy transmission device pole change control mechanisms arranged laterally. mechanism, and the rotating shafts (22, 32) of the magnetic groups (21, 31) of each of the first magnetic force actuating units (20) and each of the second magnetic force actuating units (30) of the adjacent magnetic energy transmission device pole change control mechanism They are respectively connected to form an integral shaft, so that when the driving member (55) of the magnetic pole switching control unit (50) actuates the first and second actuating members (51, 52) through the linking member (53), it simultaneously drives the horizontally arranged first and second actuating members (51, 52). The magnetic force actuating unit (20) and the second magnetic force actuating unit (30) perform magnetic pole switching to generate a kinetic energy for output, and at the same time cooperate with the magnetic pole switching control unit (50) to drive the first and second magnetic force actuating units (20) , 30) The first and second actuating members (51, 52) for switching the magnetic poles are provided with first and second energy storage elements (56, 57), which can generate the force that resists the change of the magnetic field to achieve the purpose of saving labor, and when the number of The more it is, the more obvious the labor-saving effect is, and the more effective the magnetic pole switching control is.

With the description of the above-mentioned specific embodiments, the pole change control mechanism of the magnetic energy transmission device of the present invention can utilize a slidable magnetic passive unit (40) between the first and second magnetic actuating units (20, 30), and through the first and second magnetic force actuating units (20, 30) One or two magnetic actuating units (20, 30) can synchronously generate magnetic forces of co-directional magnetic repulsion and magnetic attraction to the magnetic passive unit (40), and then synchronously perform the first and second steps through the magnetic pole switching control unit (50). The switching of the magnetic force of the two magnetic actuating units (20, 30) enables the magnetic passive unit (40) to reciprocate to generate a rotational or linear kinetic energy output, and further In cooperation with the magnetic pole switching control unit (50), the first and second magnetic force actuating units (20, 30) are respectively provided with first and second energy storage elements (56, 57), so as to generate a force that resists the change of the magnetic field, not only can It achieves the effect of labor saving, and makes the magnetic pole switching action smoother, at the same time, it can make the switching of the magnetic poles of the first and second magnetic force actuating units (20, 30) more sensitive, and can further increase the action stroke of the magnetic force passive unit (40). , thereby improving its energy conversion efficiency.

From this, it can be understood that this creation is an excellent creation, in addition to effectively solving the problems faced by habitual users, it also greatly improves the effect, and there is no identical or similar product creation or public use in the same technical field. , and at the same time, it has the effect of improving, so this creation has met the requirements of "novelty" and "progressiveness" of the new patent, and it is proposed to apply for a new patent in accordance with the law.

To sum up, it can be understood that this creation is a new type of creation with excellent creativity. In addition to effectively solving the problems faced by habitual practitioners, it also greatly improves the effect, and there is no identical or similar product creation in the same technical field. Or public use, and at the same time, it has the effect of improving, so this creation has met the requirements of "novelty" and "progressiveness" of the new patent, and it is proposed to apply for a new patent in accordance with the law.

10: Pedestal

20: The first magnetic actuation unit

21: Magnetic group

211: The first magnetic action part

212: The second magnetic action part

30: Second magnetic actuation unit

31: Magnetic group

312: The second magnetic action part

40: Magnetic passive unit

41: The first slide

410: The first magnetic passive part

42: Second slide

420: The second magnetic passive part

43: Crankset

47: Eccentric

470: Pivot

471: Counterweight

50: Magnetic pole switching control unit

51: The first actuating part

510: Brakes

52: Second Actuator

520: Brakes

53: Linkage

55: Drivers

56: The first energy storage element

57: Second energy storage element

80: PTO

Claims (10)

A pole change control mechanism of a magnetic energy transmission device, comprising: a base; At least one first magnetic force actuating unit and at least one second magnetic force actuating unit are respectively disposed on the base, each of the first and second magnetic force actuating units are equidistant and arranged at staggered intervals, and the The first and second magnetic force actuating units are respectively provided with a first magnetic action portion and a second magnetic action portion with different polarities that can be switched, and the first magnetic force actuating portion and the second magnetic action portion of the first and second magnetic force actuating units The magnetic action part is arranged in the same position; At least one magnetic passive unit is linearly slidable on the base, each of the magnetic passive units is respectively arranged between the adjacent first and second magnetic actuating units, and both ends of each of the magnetic passive units respectively have a first magnetic force unit. A magnetic passive part and a second magnetic passive part respectively correspond to the magnetic groups of the adjacent first and second magnetic force actuating units, so that the magnetic force passive unit can be actuated by the first and second magnetic force actuating unit magnetic groups at both ends. The generated magnetic repulsion force and magnetic attraction force acting in the same direction are driven, so that each of the magnetic passive units can reciprocate and linearly move within the range of not contacting the first and second magnetic actuating units; A magnetic pole switching control unit, which is arranged on the base, and the magnetic pole switching control unit has a first actuating element that can respectively actuate the magnetic groups of the first and second magnetic force actuating units to switch the first and second magnetic action parts and a second actuating member, and the magnetic pole switching control unit uses a driving member to actuate a linking member, and the linking member can synchronously drive the first and second actuating members, and the magnetic pole switching control unit is provided on the base with At least one first energy storage element and at least one second energy storage element for braking the first and second actuating parts and generating restoring pre-force respectively An energy storage element, and the energy storage recovery strokes of the first and second energy storage elements are respectively located in the range of the first and second magnetic force actuating units at both ends to resist the change of the magnetic field when the magnetic poles are switched. The pole change control mechanism of a magnetic energy transmission device as claimed in claim 1, wherein the magnetic groups of the first and second magnetic force actuating units can be in the form of a magnetic column, and the first and second magnetic force actuating units of the first and second magnetic force actuating units The perimeter of the acting portion is formed on the outer peripheral surface of the magnetic group, and the axes of the magnetic group of the first and second magnetic force actuating units have a rotating shaft pivoted on the base. The pole changing control mechanism for a magnetic energy transmission device as claimed in claim 1, wherein the magnetic passive unit has a first sliding seat and a second sliding seat and a second sliding seat that is slidably arranged on the base and can be reciprocatingly linked relative to the first and second magnetic force actuating units a sliding seat, and the first and second magnetic passive parts are respectively arranged on the surfaces of the first and second sliding seats corresponding to the first and second magnetic force actuating unit magnetic groups. The pole changing control mechanism for a magnetic energy transmission device as claimed in claim 3, wherein the first and second sliding seats of the magnetic passive unit can convert linear motion into rotational motion through a crank set, the crank set includes a crank set respectively pivoted on the first and second slides A first swing arm and a second swing arm of the first and second sliding seats, and the opposite ends of the first and second swing arms are pivoted relative to each other, and the crank set is pivoted in the middle of the base with at least one axis and The output shafts of the first and second magnetic actuating units are equidistant from the axes of the magnetic groups, and an eccentric member is arranged on the output shaft, and the other end of the eccentric member is jointly pivoted on the pivots of the first and second swing arms by a pivot shaft The connection is used to generate a rotational kinetic energy and output it. The pole changing control mechanism of the magnetic energy transmission device as claimed in claim 3, wherein a magnetic passive unit can have a The connecting rod can be connected with an output part, so that the magnetic passive unit can generate a linear kinetic energy and output it. The pole changing control mechanism of a magnetic energy transmission device as claimed in claim 2, wherein the first and second actuating members of the magnetic pole switching control unit can be arranged on the gears of the magnetic shafts of the first and second magnetic force actuating units, and the linking member can be It is a rack or chain that meshes with the first and second actuating members synchronously. The pole change control mechanism of a magnetic energy transmission device as claimed in claim 6, wherein the first and second energy storage elements of the magnetic pole switch control unit can be torsion springs sleeved on the rotating shaft of the magnetic group, and the first and second energy storage elements One end of the torsion spring is fixed on the base, and the other end can be pressed by one of the first and second actuating members to generate energy storage. The pole changing control mechanism of a magnetic energy transmission device as claimed in claim 1, wherein the magnetic energy transmission device pole changing control mechanism can be arranged in a longitudinal array, which has two or more first and second magnetic force actuating units and a magnetic passive force units, wherein each of the magnetic passive units is equidistantly arranged between the adjacent first and second magnetic force actuating units and the second and one magnetic force actuating units. The magnetic energy transmission device pole changing control mechanism as claimed in claim 2, wherein the magnetic energy transmission device pole changing control mechanism can be arranged in a horizontal array, and it can have two or more magnetic energy transmission device pole changing control mechanisms arranged in a transverse arrangement, And the magnetic group rotating shafts of each of the first magnetic force actuating units and each of the second magnetic force actuating units of the adjacent magnetic energy transmission device pole changing control mechanisms are respectively connected to form an integral shaft, so that the driving member of the magnetic pole switching control unit is connected through the linkage. When the first and second actuating pieces actuate, the The first magnetic force actuating unit and the second magnetic force actuating unit arranged laterally perform magnetic pole switching to generate a kinetic energy for output. A pole change control mechanism of a magnetic energy transmission device, comprising: a base; At least one first magnetic force actuating unit and at least one second magnetic force actuating unit are respectively disposed on the base, each of the first and second magnetic force actuating units are equidistant and arranged at staggered intervals, and the The first and second magnetic force actuating units are respectively provided with at least one first magnetic action portion and at least one second magnetic action portion with different polarities that can be switched, wherein the first and second magnetic action portions are arranged in a staggered manner, and the first , the first magnetic action part and the second magnetic action part of the two magnetic force actuating units are arranged in the same position; At least one magnetic passive unit is linearly slidable on the base, each of the magnetic passive units is respectively arranged between the adjacent first and second magnetic actuating units, and both ends of each of the magnetic passive units respectively have a first magnetic force unit. A magnetic passive part and a second magnetic passive part respectively correspond to the magnetic groups of the adjacent first and second magnetic force actuating units, so that the magnetic force passive unit can be actuated by the first and second magnetic force actuating unit magnetic groups at both ends. The generated magnetic repulsion force and magnetic attraction force acting in the same direction are driven, so that each of the magnetic passive units can reciprocate and linearly move within the range of not contacting the first and second magnetic actuating units; A magnetic pole switching control unit, which is arranged on the base, and the magnetic pole switching control unit has a first actuating element that can respectively actuate the magnetic groups of the first and second magnetic force actuating units to switch the first and second magnetic action parts and a second actuating member, and the magnetic pole switching control unit uses a driving member to actuate a linking member, and the linking member can drive the first and second actuating members synchronously.

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