TW201935817A - Closed-type strong magnetic motor structure which can fully generate the maximum magnetic assistance, reduce the energy consumption, and simultaneously increase the output power to achieve the purpose of improving the energy conversion efficiency - Google Patents

Abstract

The present invention relates to a closed-type strong magnetic motor structure comprising at least one opposite magnetic set, at least one coil row set and at least one inductive switch set. The opposite magnetic set and the coil row set can be respectively defined as rotors or stators that can relatively move at high speeds. The opposite magnetic set includes at least one first magnetic row set and at least one second magnetic row set, both of which are parallel to each other and synchronously move. The coil row set is equidistantly disposed between the first and second magnetic row sets. The inductive switch set is further used to synchronously or respectively supply power to the coil row set selectively. Thereby, the present invention can fully generate the maximum magnetic assistance, further reduce the energy consumption, and simultaneously increase the output power to achieve the purpose of improving the energy conversion efficiency.

Description

Closed strong magnetic motor structure

The invention belongs to the technical field of an electric device, and specifically refers to a closed-type strong magnetic motor structure, so that the magnetic field lines of the opposing magnetic group converge to form a virtual strong magnetic field, and cooperate with the magnetic flux strings at both ends of the coil component. Increase the magnetic force, and fully increase the magnetic assistance, while increasing the output power, thereby improving the efficiency of the motor.

Press, the electric device [ie general motor] is mainly composed of two opposite magnetic groups as the stator and the rotor, at least one of which is a coil, which is made into an electromagnet by intermittently supplying power to the coil. , And can generate repulsive and attracting magnetic force against another magnetic group, thereby driving the rotor to rotate at high speed. However, during the operation of the existing electric devices, due to the intermittent power supply method, the required magnetic force is captured to drive the rotor. However, in the entire process, a magnetic resistance that hinders the driving force is generated. Under the loss of drag, the output power efficiency of traditional electric devices is not good. For this reason, the inventors have previously developed a "closed high torque electric device" such as China's application No. 105127575 and a "converging type" of application No. 106122044. "Magnetic blocking electric device" invention patent, which is composed of at least one magnetic column group, at least one coil column group and at least one induction switch group, and these coil column groups can be opposed in the magnetic line space of the magnetic column group. Movement, and the magnetic line of force of the magnetic array group is at both ends A closed area with directional magnetic currents in parallel movement directions is formed between the departure points of the magnetic field lines. Further, the induction switch group can be used to control the magnetic array group or the coil array group to supply power in the closed area, and not to supply power outside the closed area, so that the magnetic array group In the closed area, the magnetic assist force of the front section magnetic attraction and the rear section magnetic repulsion are mutually generated with the coil array group, which can effectively improve the kinetic energy of the output and save energy by reducing the dynamic loss. These invention patents can effectively solve the problems faced by traditional electric devices. The problem.

Of course, there is still room for further improvement in practical applications. Because the magnetic array group and the coil array group want to mutually produce the effects of the front section magnetic attraction and the rear section magnetic repulsion in the closed area, the departure points of the two magnetic lines of force are inwardly contracted. The magnetic assist stroke is relatively shortened. In addition, due to the outward expansion of the magnetic field lines of the opposing magnetic group, if the magnetic force is to be increased, the distance between the opposing magnetic components needs to be expanded, resulting in a large volume of the mechanism. The length of the coil is also limited, so that the magnetic boost after magnetization is also limited, and the increase in power is limited; In fact, judging from the opposing magnetic group (1) shown in the first and second figures, since the opposing magnetic group (1) is composed of a first magnetic column group (10) and a second magnetic group parallel to each other. The first magnetic column group (10) has at least two magnetic pieces (11, 12) arranged at intervals along the moving direction and magnetized in the vertical moving direction, and the adjacent magnetic pieces (11) , 12) The magnetic poles corresponding to the second magnetic column group (20) are adjacent to the same pole. As for the second magnetic column group (20), the second magnetic column group (20) has at least two magnetic members (arranged along the movement direction and magnetized in the vertical movement direction) 21, 22), and the magnetic members (21, 22) of the second magnetic column group (20) correspond to the magnetic members (11, 12) of the first magnetic column group (10), and the first magnetic column group (10 ) And the second magnetic column group (20) The magnetic pieces (11, 21 or 12, 22) are opposite poles. For example, the first figure shows the magnetic pieces (10, 20) of the first and second magnetic column groups (10, 20) of the opposing magnetic group (1). 11, 21 or 12, 22) are N-pole opposite, and as disclosed in the second figure, the magnetic members (11, 1) of the first and second magnetic column groups (10, 20) of the opposing magnetic group (1). 21 or 12, 22) is opposite to the S pole; so, under the characteristic that the external magnetic field lines flow from the N pole to the S pole and the magnetic field lines go without resistance, the magnetic properties of the first and second magnetic column groups (10, 20) The magnetic field lines flowing from the opposite N pole of the pieces (11, 12 and 21, 22) will collect in the middle and return to the S pole of each of the magnetic pieces (11, 12 and 21, 22). The co-located magnetic pieces (11, 21 and 12, 22) of the column group (10, 20) are compressed in the opposite direction, thus forming a virtual S pole strong magnetic zone (1) between the first and second magnetic column groups (10, 20). L) or a virtual N-pole strong magnetic region (L), the two ends of which are respectively located in front of the first and second magnetic column groups (10, 20), and the magnetic pieces (11 (21, 21) A free magnetically permeable piece is positioned in the center of the magnetically locating part (12, 22) that is opposite to the rear. Wavering anchor member.

In addition, from the coil components (31) of the coil array group (30) shown in the third figure, when the coil component (31) is magnetized to form N pole poles and S pole poles at both ends, the external magnetic lines of force It flows from the N pole to the S pole like the general magnetic parts. Therefore, the two ends of the coil element (31) will form the most dense magnetic flux strings, and the magnetic force is also the place where the entire coil element (31) has the largest; in other words, The electric device can effectively use the strong magnetic field (L) and the coil array (30) of the first and second magnetic arrays (10, 20) during the power supply. The dense magnetic flux strings at both ends of the coil piece (31) can generate the maximum magnetic assist force, which can achieve the effect of reducing energy consumption and increasing output, and can effectively improve the performance of the motor. How to achieve the aforementioned purpose is Expected by the present invention.

The reason is that the inventors have in-depth discussions on the advanced needs of the aforementioned electric devices, and through years of research and development experience in related industries, actively seek solutions, through continuous research and trial work, finally successfully developed a closed type The strong magnetic motor structure can further improve the magnetic assist force and improve the motor performance.

Therefore, the main purpose of the present invention is to provide a closed type strong magnetic motor structure, which can utilize the virtual strong magnetic field and the magnetic flux string of the coil component to fully increase the magnetic force and generate the maximum magnetic assist force for further increasing the rotation speed. At the same time, the output power is increased, which can further improve the motor performance.

In addition, a second main object of the present invention is to provide a closed type strong magnetic motor structure, which can increase the magnetic stroke distance to favorably increase the inertial acceleration.

In addition, another main object of the present invention is to provide a closed-type strong magnetic motor structure, which can narrow the gap between opposing magnetic groups, achieve the purpose of reducing the volume, and further reduce the magnetic resistance.

In addition, another main object of the present invention is to provide a closed type ferromagnetic motor structure, which can lengthen the length of the coils of the coil array and further improve its output power.

Based on this, the present invention is mainly implemented through the following technical means The foregoing purpose and its effects are composed of at least one pair of magnetic groups, at least one coil array group and at least one inductive switch group, wherein the opposing magnetic groups and the coil array groups can be defined as A rotor or stator capable of relative movement; and the opposite magnetic group includes at least a first magnetic column group and at least a second magnetic column group that are parallel to each other and move synchronously, wherein the first magnetic column group is composed of It is composed of at least one first magnetic piece and at least one second magnetic piece staggered along the moving direction, and the first and second magnetic pieces are magnetized in the vertical moving direction, and the adjacent first and second magnetic pieces are magnetized. There is a magnetic gap between them, and the magnetic poles of the adjacent first and second magnetic pieces corresponding to the second magnetic column group are adjacent to the same pole, and the second magnetic column group is at least A third magnetic piece and at least one fourth magnetic piece, and the third and fourth magnetic pieces are magnetized in a vertical direction of movement, and adjacent third and fourth magnetic pieces have a magnetic gap therebetween, and the The third and fourth magnetic pieces of the second magnetic array group, the magnetic gap and the first magnetic The first and second magnetic members of the group and the magnetic gap are in the same position, and the third and fourth magnetic members of the second magnetic column group and the first and second magnetic members of the first magnetic column group are opposite poles. And when the adjacent first and second magnetic pieces of the first magnetic column group and the adjacent third and fourth magnetic pieces facing the second magnetic column group flow from the N pole to the S pole through the opposing magnetic field lines, the opposite magnetic A strong magnetic field is generated between the gaps; the other coil group is composed of at least one coil component that is excited in parallel movement directions and spaced along the movement direction, wherein the coil components are electrically connected with a power source, and the power source It is possible to selectively supply power to the coil; as for the inductive switch group, it includes at least one power supply detector, at least one power failure detector, and at least one starter provided in the coil array group. The motion sensor and at least one shutdown sensor, wherein the power feeding detector is provided in the magnetic gap of the first and second magnetic array groups, and the corresponding strong magnetic field leaves the end position of the coil component according to the movement direction, and the power is cut off. The detectors are arranged in the magnetic gaps of the first and second magnetic array groups, and the corresponding ferromagnetic regions enter the end positions of the coil components according to the direction of movement. Furthermore, the activation sensors are arranged in the coil components of the coil array group. The exit end corresponding to the opposing magnetic group in the direction of movement in the middle, and the other closing sensors are provided at the entry end corresponding to the opposing magnetic group in the coil component of the coil row group in the direction of movement.

In summary, the present invention realizes the foregoing technical means, so that the present invention can fully generate the maximum magnetic assist force through the strong magnetic zone of the opposing magnetic group and the magnetic flux string of the coils of the coil array group, and at the same time, it can make the magnetic action stroke distance. Increase to favorably increase the inertial acceleration and narrow the gap between the first and second magnetic column groups of the opposing magnetic group to achieve the purpose of reducing the volume, further reduce the magnetic resistance, and further enable the coil array The length of the coils of the group is increased, thereby increasing its speed and output power, thereby achieving the purpose of improving the efficiency of the motor and further realizing the economic benefits of energy saving.

In order to make your reviewers better understand the composition, features, and other purposes of the present invention, the following is a description of the preferred embodiments of the present invention, which will be described in detail with reference to the drawings, and will be implemented by those familiar with the technical field.

(1) ‧‧‧ Opposite Magnetic Group

(10) ‧‧‧The first magnetic column group

(11) ‧‧‧Magnetic

(12) ‧‧‧Magnetic

(20) ‧‧‧Second magnetic train group

(21) ‧‧‧Magnetic

(22) ‧‧‧Magnetic

(30) ‧‧‧Coil Column Group

(31) ‧‧‧Coil

(5) ‧‧‧ Opposite Magnetic Group

(50) ‧‧‧First magnetic train

(51) ‧‧‧The first magnetic piece

(52) ‧‧‧Second magnetic part

(55) ‧‧‧Magnetic gap

(60) ‧‧‧Second magnetic train

(61) ‧‧‧The third magnetic piece

(62) ‧‧‧Fourth magnetic piece

(65) ‧‧‧Magnetic gap

(70) ‧‧‧Coil Column Group

(71) ‧‧‧Coil

(80) ‧‧‧Induction switch group

(81) ‧‧‧Power detector

(82) ‧‧‧The first power failure detector

(85) ‧‧‧Activation sensor

(86) ‧‧‧Close sensor

(L) ‧‧‧Strong magnetic zone

The first figure is a schematic diagram of the magnetic current of the oppositely magnetized group of vertical magnetization applied to an electric device.

The second figure is a schematic diagram of the magnetic current of another perpendicularly magnetized opposing magnetic group applied to an electric device.

The third figure is a schematic diagram of the magnetic current of a coil component applied to an electric device when it is magnetized.

FIG. 4 is a schematic structural diagram of a preferred embodiment of the closed type ferromagnetic motor structure of the present invention.

Figure 5: Schematic diagram of another preferred embodiment of the closed type ferromagnetic motor structure of the present invention.

FIG. 6 is a schematic diagram of the operation of starting the power supply of the preferred embodiment of the closed type ferromagnetic motor structure of the present invention.

Figures 7-9 are schematic diagrams of the operation of the preferred embodiment of the closed-type strong magnetic motor structure of the present invention in the power supply operation.

Fig. 10 is a schematic diagram of the operation of stopping the power supply of the preferred embodiment of the closed type ferromagnetic motor structure of the present invention.

Fig. 11 is a schematic diagram of the action of starting the power supply of another preferred embodiment of the closed type ferromagnetic motor structure of the present invention.

Figures 12 to 14 are schematic diagrams of operations of another preferred embodiment of the closed type ferromagnetic motor structure of the present invention during power feeding operation.

Fig. 15 is a schematic diagram of the operation of stopping the power supply of another preferred embodiment of the closed type ferromagnetic motor structure of the present invention.

The present invention is a closed type ferromagnetic motor structure. In the specific embodiments of the present invention and its components illustrated in the accompanying drawings, all about front and back, left and right, top and bottom, upper and lower, and horizontal and vertical. Reference, for easy access only The description does not limit the invention, nor does it limit its components to any position or spatial direction. The dimensions specified in the drawings and the description can be changed according to the design and requirements of the specific embodiments of the present invention without departing from the scope of the patent application of the present invention.

The structure of the closed type strong magnetic motor structure of the present invention is as shown in the fourth and fifth figures, which is composed of at least one pair of magnetic groups (5), at least one coil row group (70) and at least one induction switch group. (80), where the opposing magnetic groups (5) and the coil array groups (70) can be defined as rotors or stators that can move relatively at high speed, and the opposing magnetic group (5) contains mutual At least one first magnetic array group (50) and at least one second magnetic array group (60) moving in parallel and synchronously relative to the coil array group (70), and the coil array groups (70) are equidistantly arranged at the first Between the two magnetic array groups (50, 60), the induction switch groups (80) are further used to synchronize or selectively power on or off the coil array groups (70); As for the detailed structure of the preferred embodiment of the closed type ferromagnetic motor structure of the present invention, please refer to the fourth and fifth figures. The first magnetic column group (50) of the opposing magnetic group (5) is formed along the moving direction. It is composed of at least one first magnetic piece (51) and at least one second magnetic piece (52) staggered at intervals, and the lengths of the first and second magnetic pieces (51, 52) can be equal, and the first The two magnetic pieces (51, 52) are magnetized in the direction of vertical movement, and there is a magnetic gap between the adjacent first, second magnetic pieces (51, 52) or the second and one magnetic pieces (52, 51). (55), and the adjacent magnetic poles of the first and second magnetic pieces (51, 52) or the second and first magnetic pieces (52, 51) corresponding to the second magnetic column group (60) are adjacent to each other with the same pole [for example The first magnetic column shown in the fourth figure The first and second magnetic pieces (51, 52) of the group (50) correspond to the second magnetic column group (60) with N poles, and the first and second magnetic column groups (50) are shown in the fifth figure. The magnetic pieces (51, 52) correspond to the second magnetic column group (60) with S pole magnetic poles; and the second magnetic column group (60) of the parallel first magnetic column group (50) is staggered and spaced apart along the moving direction. Consisting of at least one third magnetic piece (61) and at least one fourth magnetic piece (62), and the lengths of the third and fourth magnetic pieces (61, 62) may be equal, and the third and fourth magnetic pieces The pieces (61, 62) are magnetized in the direction of vertical movement, and there is a magnetic gap (65) between the adjacent third and fourth magnetic pieces (61, 62) or the fourth and third magnetic pieces (62, 61). And the third and fourth magnetic pieces (61, 62) and magnetic gap (65) of the second magnetic array group (60) and the first and second magnetic pieces (51, 52) of the first magnetic array group (50) And the magnetic gap (55) are in the same position and equal in length, and the third and fourth magnetic members (61, 62) of the second magnetic column group (60) and the first of the first magnetic column group (50) The opposite magnetic poles of the two magnetic pieces (51, 52) are in the same polar opposite shape [for example, the third and fourth magnetic pieces (61 of the second magnetic array group (60) shown in the fourth figure) 62) N pole magnetic poles correspond to the first magnetic column group (50), and as shown in the fifth figure, the third and fourth magnetic members (61, 62) of the second magnetic column group (60) correspond to the S magnetic poles to the first magnetic column group (50). One magnetic column group (50)], and the adjacent first and second magnetic pieces (51, 52) of the first magnetic column group (50) and the adjacent third and fourth magnetic column groups (60) When the magnetic lines (61, 62) pass through opposing magnetic lines of force from the opposite inner N-pole magnetic pole to the different outer S-pole magnetic pole [as shown in the fourth figure], corresponding to the first and second magnetic column groups (50, 60) A strong S magnetic field (L) is generated between the first and second magnetic pieces (51, 52) and the third and fourth magnetic pieces (61, 62). [The definition of the strong magnetic area is shown in the first figure. and Description of paragraph 0006]. The adjacent first and second magnetic members (51, 52) of the first magnetic column group (50) and the adjacent third and fourth magnetic members (61, 62) opposite the second magnetic column group (60) are transmitted through. When the opposing magnetic lines of force flow from the different outer N-pole magnetic poles to the opposite inner S-pole magnetic poles [as shown in the fifth figure], the first and second magnetic pieces (51, 51) corresponding to the first and second magnetic column groups (50, 60) 52) A virtual N pole strong magnetic zone (L) is generated between the third and fourth magnetic pieces (61, 62) [the definition of the strong magnetic zone is shown in the second figure and the description in paragraph 0006]; The coil group (70) is composed of at least one coil component (71) that is excited in parallel motion directions and spaced apart along the motion direction. The coil components (71) are electrically connected with a power source for selection. The coil element (71) is electrically powered, so that the first and second magnetic array groups (50, 60) are the first and third magnetic elements (51, 61) or the second and fourth magnetic elements (N, poles) opposite each other. 52, 62) When entering the coil component (71) of the coil array group (70), the corresponding coil component (71) can be excited by the forward power supply [as shown in the fourth and sixth figures], so that the corresponding The exit end of the coil piece (71) and the first and second magnetic column groups (50 60) of the first and third magnetic pieces (51, 61) or the second and fourth magnetic pieces (52, 62) are opposite poles [as shown in the sixth figure, when the first and second magnetic column groups (50, 60) the first, third magnetic piece (51, 61) or the second, fourth magnetic piece (52, 62) are opposite to the NN pole, then the coil member (71) of the coil row group (70) is away from the direction of relative movement Excitation is relative to S pole]. Conversely, when the first and second magnetic columns (50, 60) have the S pole opposite to the first, third magnetic member (51, 61) or the second and fourth magnetic members (52, 62), they enter the coil column group ( 70) of the coil component (71), the corresponding coil component (71) can be excited by the reverse power supply [such as (Fifth and eleven as shown in the figure), leaving the corresponding coil component (71) away from the first end and the first and second magnetic array group (50, 60) of the first and third magnetic components (51, 61) or the second and fourth The magnetic pieces (52, 62) are opposite poles [as shown in the eleventh figure, when the first or third magnetic pieces (51, 61) or the second, The four magnetic parts (52, 62) are opposite to the SS pole, and the exit end of the relative movement direction of the coil piece (71) of the coil row group (70) is N-pole opposite. As for the inductive switch group (80), At least one power detector (81), at least one power failure detector (82), and at least one activation sensor provided in the coil array (70), provided in the first and second magnetic arrays (50, 60). (85) and at least one shutdown sensor (86) for controlling whether the coils of the coil components (71) of the coil array group (70) are connected to a power source for power supply. The power supply detector (81) is located in the corresponding magnetic field (L) in the magnetic gap (55, 65) of the first and second magnetic array groups (50, 60) and leaves the coil component (71) in the direction of movement. And the power failure detector (82) is located in the corresponding magnetic field (L) in the magnetic gap (55, 65) of the first and second magnetic column groups (50, 60) according to the direction of movement. Enter the end position of the coil component (71), and the start sensors (85) are arranged in the coil component (71) of the coil array group (70). At the exit end, the start sensor (85) on the coil component (71) is used to detect the power supply detector (81) of the first and second magnetic array groups (50, 60) [such as the sixth and eleven diagrams. [Shown], the controllable power supply communicates with the corresponding coil component (71) and forward power [as shown in the sixth figure] or reverse power [as shown in the eleventh figure], so that the coil is magnetized into electromagnetic due to excitation Iron, and the other closing sensors (86) are provided in the coil components (71) of the coil array (70) corresponding to the opposite magnetic The group (5) enters the end according to the movement direction, and the closing sensor (86) on the coil component (71) is used to detect the power failure detector (82) of the first and second magnetic array groups (50, 60). [As shown in the tenth and fifteenth figures], it is possible to cut off the communication between the power supply and the corresponding coil component (71), to form a non-powered state, so that the coil component (71) will not be magnetized into an electromagnet; Construct a closed-type strong magnetic motor structure that can fully increase magnetic assistance and improve efficiency.

As for the preferred embodiment of the closed type ferromagnetic motor structure of the present invention, when it is actually operated, it is shown in Figures 6 to 15 in which Figures 6 to 10 are matched with the first and second magnetic column groups (50, 60). The forward power-supply operation state of the formed virtual S extremely strong magnetic field (L). The eleventh to fifteenth diagrams are the reverse power supply operation states of the virtual N extremely strong magnetic field (L) formed by the first and second magnetic column groups (50, 60); as shown in the sixth and eleventh diagrams, when When the first and second magnetic column groups (50, 60) of the opposing magnetic group (5) move from left to right with respect to the coil column group (70), the power supply in the first and second magnetic column groups (50, 60) The detector (81) corresponds to the start sensor (85) in the coil element (71) of the coil element (71) at the exit end, and the power supply provides power to the coil element (71), so that the exit end of the coil element (71) and The opposite magnetic poles of the first and second magnetic column groups (50, 60) are opposite poles. [As shown in the sixth figure, the coil element (71) has an S-pole magnetic pole at the exit end and the first and second magnetic column groups (50, 60) ) Is the N-pole magnetic poles opposite, and as shown in the eleventh figure, the coil element (71) is the N-pole magnetic pole at the exit end and the first and second magnetic column groups (50, 60) are the S-pole magnetic poles. The external magnetic field lines of (71) flow in the same direction as the magnetic field lines between the first and second magnetic column groups (50, 60). Therefore, because the coil (71) corresponds to the first and second magnetic poles with the S-pole magnetic pole at the exit end. The virtual S-pole strong magnetic field (L) of the column group (50, 60) [as shown in Figures 6 and 7] or the coil element (71) with the N-pole magnetic pole at the exit end corresponding to the first and second magnetic column groups ( 50, 60) virtual N-pole strong magnetic zone (L) [as shown in the eleventh and twelfth figures], so that the coil component (71) leaves the end magnetic pole relative to the first and second magnetic column groups (50, 60) The strong magnetic zone (L) generates the same-pole repulsion effect [as shown in Figures 6 and 7 and Figures 11 and 12] to form a magnetic assist force in a favorable direction of movement; further, a coil is further added The component (71) has a dense magnetic flux string at the magnetic pole, forming a large thrust along the direction of motion, which repels the same pole as the strong magnetic zone, and the opposite poles at the entry end of the coil component (71) are close to the first and third magnetic fields. The center of the same-pole magnetic poles of the pieces (51, 61) is a field weakening area where the magnetic lines of force are not collected. Although the same-pole repulsion is formed and a small reverse force different from the direction of movement is formed, The forward thrust is significantly greater than the small reverse blocking force at the entry end [as shown in Figures 6 and 7 and Figures 11 and 12], so the magnetic assist force that is conducive to the movement of the opposing magnetic group (5) can still be increased.

In addition, when the opposing magnetic group (5) is continuously displaced, and the magnetic pole at the entry end of the coil component (71) is relatively close to the magnetic gap (55, 65) at the exit end of the first and third magnetic components (51, 61), When the magnetic field (L) leaves the terminal [as shown in Figures 8 and 9, and Figures 13 and 14], the coil element (71) corresponds to the first and second magnetic column groups (50 with the N poles on the entering side). , 60) virtual S-pole strong magnetic field (L) [as shown in Figures 8 and 9] or the S-pole magnetic pole of the coil element (71) at the entry end corresponds to the first and second magnetic column groups (50, 60 ) Virtual N-pole strong magnetic field (L) [as shown in Figures 13 and 14], make the coil component (71) enter the strong magnetic field of the end magnetic pole relative to the first and second magnetic column groups (50, 60) Region (L) corresponds to the formation of heteropolar attraction [such as the eighth, ninth figure and the first Figures 13 and 14], for magnetic assistance to form a favorable direction of movement, so that the entire movement process continuously forms a magnetic repulsion before the relative direction of movement [as shown in Figures 6 and 7 and Figures 11 and 12] (Shown) and the magnetic assist force of the subsequent magnetic attraction [as shown in Figures 8 and 9, and Figures 13 and 14]; and furthermore, the coil component (71) has a dense magnetic flux string at the magnetic extreme, so that the coil component ( The entry magnetic pole of 71) corresponds to the strong magnetic zone (L) in the exit magnetic gap (55, 65) of the first and third magnetic pieces (51, 61). Suction, and the exiting magnetic pole of the coil part (71) is close to the center of the opposite poles of the first and third magnetic parts (51, 61), which is a weak magnetic field where the magnetic lines of force are not collected, forming a different pole attraction and different from the movement Small reverse suction in the direction, but since the large suction at both ends is significantly larger than the small reverse suction [as shown in Figures 9 and 14], it is still possible to increase the magnetic assist force that is conducive to the movement of the opposing magnetic group (5) .

When the first and third magnetic members (50, 60) of the first and third magnetic members (51, 61) leave the magnetic gap (55, 65) of the magnetic gap (55) corresponding to the power failure detector (82) When the closing sensor (86) corresponding to the entry end of the coil element group (70) of the coil element (71) [as shown in Figures 10 and 15], the power supply to the coil element (71) is interrupted So that the coil components (71) of the coil array group (70) will not be magnetized, so that the coil components (71) will not generate magnetic assist or magnetic resistance to the opposing magnetic group (5), so that the opposing magnetic group (5 ) Can be operated continuously with inertia without magnetic assistance or magnetic resistance, so it can reduce energy consumption, and increase the moving speed of the first and second magnetic trains (50, 60) as the rotor, and can further improve its Output kinetic energy.

It can be known from the above description that the present invention can fully generate the maximum power through the power supply of the magnetic field (L) of the opposing magnetic group (5) and the induction switch group (80). Magnetic assist to further reduce energy consumption and increase output power, so that the energy conversion efficiency can be further improved, and at the same time, the magnetic action stroke distance can be increased to favorably increase the inertial acceleration, and can make the opposing magnetic group (5) the first The gap between the first and second magnetic arrays (50, 60) is narrowed to achieve the purpose of reducing the volume, which can further reduce the magnetic resistance, and further increase the length of the coil components (71) of the coil array (70). , And then increase its output power, so that the speed and power can be increased, and the purpose of improving energy conversion efficiency is achieved.

In this way, it can be understood that the present invention is an excellent creative creation. In addition to effectively solving the problems faced by practitioners, it has greatly improved the efficacy, and has not seen the same or similar product creation or public use in the same technical field. At the same time, it has the improvement of efficacy. Therefore, the present invention has already met the requirements of "newness" and "progressiveness" of the invention patent, and has applied for an invention patent in accordance with the law.

Claims (2)

A closed-type strong magnetic motor structure is composed of at least one pair of magnetic groups, at least one coil group, and at least one inductive switch group. The opposing magnetic groups and the coil groups can be defined as A rotor or stator capable of relative movement; and the opposite magnetic group includes at least a first magnetic column group and at least a second magnetic column group that are parallel to each other and move synchronously, wherein the first magnetic column group is composed of It is composed of at least one first magnetic piece and at least one second magnetic piece staggered along the moving direction, and the first and second magnetic pieces are magnetized in the vertical moving direction, and the adjacent first and second magnetic pieces are magnetized. There is a magnetic gap between them, and the magnetic poles of the adjacent first and second magnetic pieces corresponding to the second magnetic column group are adjacent to the same pole, and the second magnetic column group is at least A third magnetic piece and at least one fourth magnetic piece, and the third and fourth magnetic pieces are magnetized in a vertical direction of movement, and adjacent third and fourth magnetic pieces have a magnetic gap therebetween, and the The third and fourth magnetic pieces of the second magnetic array group and the magnetic gap are the same as the first The first and second magnetic members and magnetic gaps of the column group are in the same position, and the third and fourth magnetic members of the second magnetic column group are the same as the opposite magnetic poles of the first and second magnetic members of the first magnetic column group. Opposite, and between the adjacent first and second magnetic pieces of the first magnetic column group and the adjacent third and fourth magnetic pieces facing the second magnetic column group, when the magnetic lines of force flow from the N pole to the S pole, A strong magnetic field is generated between the magnetic gaps respectively; the other coil row group is composed of at least one coil element excited in parallel movement directions and spaced along the movement direction, wherein the coil elements are electrically connected with a power source, and the The power source can selectively supply power to the coil component. As for the inductive switch group, at least one power supply detector, at least one power failure detector and at least one of the coil array group are provided in the opposite magnetic group. Sense of activation And the at least one closing sensor, wherein the power feeding detector is provided in the magnetic gap of the first and second magnetic column groups, and the corresponding strong magnetic field leaves the end position of the coil component according to the movement direction, and the power failure detection The detectors are located in the magnetic gaps of the first and second magnetic array groups, and the corresponding strong magnetic regions enter the end positions of the coil components according to the direction of movement. Furthermore, the activation sensors are installed in the coil components of the coil array group. For the exit end of the corresponding magnetic group in the direction of movement, the other closing sensors are provided in the coil components of the coil row group corresponding to the entry end of the opposite magnetic group in the direction of movement. The closed type ferromagnetic motor structure described in item 1 of the scope of the patent application, wherein the third and fourth magnetic members of the second magnetic column group and the first and second magnetic members of the first magnetic column group are of equal length.