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WO2018068162A1 - Full load power generation device - Google Patents

Full load power generation device Download PDF

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Publication number
WO2018068162A1
WO2018068162A1 PCT/CN2016/000568 CN2016000568W WO2018068162A1 WO 2018068162 A1 WO2018068162 A1 WO 2018068162A1 CN 2016000568 W CN2016000568 W CN 2016000568W WO 2018068162 A1 WO2018068162 A1 WO 2018068162A1
Authority
WO
WIPO (PCT)
Prior art keywords
magnetic
sensing
magnetic member
coil
column group
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Ceased
Application number
PCT/CN2016/000568
Other languages
French (fr)
Chinese (zh)
Inventor
许永顺
许名俊
许文毓
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Yuzen Sustainable Energy Co Ltd
Yuzen(hk) Sustainable Energy Co Ltd
Yuzen Sustainable Energy Pte Ltd
Original Assignee
Yuzen Sustainable Energy Co Ltd
Yuzen(hk) Sustainable Energy Co Ltd
Yuzen Sustainable Energy Pte Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Yuzen Sustainable Energy Co Ltd, Yuzen(hk) Sustainable Energy Co Ltd, Yuzen Sustainable Energy Pte Ltd filed Critical Yuzen Sustainable Energy Co Ltd
Priority to PCT/CN2016/000568 priority Critical patent/WO2018068162A1/en
Publication of WO2018068162A1 publication Critical patent/WO2018068162A1/en
Anticipated expiration legal-status Critical
Ceased legal-status Critical Current

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    • H—ELECTRICITY
    • H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02K—DYNAMO-ELECTRIC MACHINES
    • H02K35/00—Generators with reciprocating, oscillating or vibrating coil system, magnet, armature or other part of the magnetic circuit
    • H02K35/02—Generators with reciprocating, oscillating or vibrating coil system, magnet, armature or other part of the magnetic circuit with moving magnets and stationary coil systems
    • H—ELECTRICITY
    • H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02K—DYNAMO-ELECTRIC MACHINES
    • H02K35/00—Generators with reciprocating, oscillating or vibrating coil system, magnet, armature or other part of the magnetic circuit
    • H02K35/04—Generators with reciprocating, oscillating or vibrating coil system, magnet, armature or other part of the magnetic circuit with moving coil systems and stationary magnets

Definitions

  • the invention relates to the technical field of electromagnetic power generation, in particular to a full-load power generation device capable of avoiding magnetic resistance, increasing magnetic assistance and reducing motion loss, so as to improve the operation rate and cutting frequency of the electromagnetic power generation device.
  • a full-load power generation device capable of avoiding magnetic resistance, increasing magnetic assistance and reducing motion loss, so as to improve the operation rate and cutting frequency of the electromagnetic power generation device.
  • the electromagnetic power generation device is composed of an induction group and a magnetic group, wherein the induction group is provided with at least one coil on at least one of the magnets, and the magnetic group is provided with two magnetic members at both ends of the axis of the induction group.
  • the two magnetic members are arranged with opposite pole magnetic poles, and the magnetic group and the sensing group can be respectively defined as a rotor and a stator, and the relative linear or rotational motion causes the coil of the sensing group to be induced by the magnetic line cutting of the magnetic group.
  • the electromotive force in turn, achieves the purpose of power generation.
  • the electromagnetic power generating device When the electromagnetic power generating device is actuated, when the coil of the induction group is connected to the load, the coil is magnetized, and under the induction of the polarity of the magnetic pole of the magnetic group, magnetic changes are generated at both ends of the coil to make it magnetic.
  • the magnetic components of the group generate magnetoresistance, so the conventional electromagnetic power generation device will have kinetic energy loss caused by the magnetoresistance effect of anti-energy proliferation under load, and the energy conversion rate thereof will decrease;
  • the main object of the present invention is to provide a full-load power generation device which can reduce energy loss by virtue of avoiding magnetic resistance, thereby improving energy conversion efficiency and achieving energy saving.
  • the second main object of the present invention is to provide a full-load power generating device capable of effectively increasing the rotational speed and increasing the amount of power generation by the magnetic boosting force thereof.
  • another main object of the present invention is to provide a full-load power generating device capable of forming micro-power generation under the avoidance of magnetic resistance and magnetic acceleration, and improving the practicability of the power generating device.
  • Another main object of the present invention is to provide a full-load power generating device which can effectively simplify the structure, in addition to reducing the cost, and improving the reliability of the overall operation.
  • a full-load power generation device which is composed of a magnetic column group and an induction column group, and the magnetic column group and the sensing column group can generate relative motion;
  • the magnetic column group is arranged with at least one first magnetic member and at least one second magnetic member in a moving direction, and each of the first magnetic member and the second magnetic member has the same length, and each of the first magnetic member and the second magnetic member
  • the magnets are magnetized in the moving direction, and the magnetic poles of the adjacent first magnetic member and the second magnetic member are adjacent to each other, and the adjacent first magnetic member, second magnetic member or second magnetic member, and first magnetic member Having a magnetic gap of one equal width, the length of each of the first magnetic member and the second magnetic member is equal to the width of the magnetic gap;
  • the sensing column group is disposed in parallel on one side of the magnetic column group, and the sensing column group respectively has one or more coaxial line sensing members, and each of the sensing members has a magnetizer and a coil wound around the magnetizer. And each of the coils is connected with a load, so that the sensing column group can be excited in the moving direction when the load is connected, and the coil length of each of the sensing members is equal to the width of the magnetic gap, and the length of the magnetizer is twice the length of the coil, and the coil The center is opposite to the center of the magnetizer.
  • the two ends of the magnet of the sensing component of the sensing column are respectively formed with a yoke of the same diameter as the coil, and the yokes of the two ends of the magnetizing magnet are respectively disposed on the opposite sides of the coil.
  • a full-load power generation device is characterized in that it is composed of two or more magnetic column groups and two or more groups of sensing columns, and each of the magnetic column groups is disposed at opposite intervals of the same pole, and each of the sensing groups
  • the column groups are respectively equidistantly disposed between the two pairs of opposite magnetic column groups, and each of the magnetic column groups and each of the sensing column groups can synchronously generate relative motion;
  • Each of the magnetic arrays has at least one first magnetic member and at least one second magnetic member arranged in a moving direction, and each of the first magnetic member and the second magnetic member has the same length, and each of the first magnetic members and the second The magnetic member is magnetized in the moving direction, and the magnetic poles of the adjacent first magnetic member and the second magnetic member are adjacent to the same pole, and the adjacent first magnetic member, second magnetic member or second magnetic member, first magnetic member Between the first magnetic member and the second magnetic member, the length of each of the first magnetic member and the second magnetic member is equal to the width of the magnetic gap;
  • Each of the sensing arrays is disposed in parallel with one side of the magnetic array, and the sensing arrays respectively have one or more coaxial sensing members, and each of the sensing members has a magnet and a coil wound around the magnet. And each of the coils is connected with a load, so that the sensing column group can be excited in the moving direction when the load is connected, and then
  • the length of the coil of each of the sensing members is equal to the width of the magnetic gap, and the length of the magnetic conductor is twice the length of the coil, and the center of the coil is opposite to the center of the magnetizer.
  • the full-load power generation device is a disk type matrix generator, which is formed by interleaving at least one magnetic disk and at least one coil disk, and each of the magnetic disks is provided with at least one magnetic column group, and each of the coil disks is provided At least one sensing column group is disposed, and the magnetic column group and the sensing column group are opposite to each other.
  • the sensing elements of each of the opposite sensing column groups are aligned with respect to the position of the magnetic column group relative to the magnetic member to improve the magnetic assistance at the same time point.
  • the sensing parts of each of the opposite sensing column groups are arranged in a wrong position corresponding to the position of the magnetic column group relative to the magnetic member, so that the magnetic column group can be continuously pushed to improve the inertial force in the moving direction.
  • the two ends of the magnet of the sensing element of each of the sensing columns are respectively formed with a yoke of the same diameter as the coil, and the yokes of the two ends of each of the guiding magnets are opposite to the inner side of the coil.
  • a full-load power generating device is characterized in that: two or more magnetic column groups and two or more sensing column groups are formed, and each of the magnetic column groups is arranged side by side in parallel with each other, and each of the sensing electrodes
  • the column groups are respectively equidistantly disposed on one side of the two-two-phase magnetic column group, and each of the magnetic column groups and each of the sensing column groups can synchronously generate relative motion;
  • Each of the magnetic arrays has at least one first magnetic member and at least one second magnetic member arranged in a moving direction, and each of the first magnetic member and the second magnetic member has the same length, and each of the first magnetic members and the second The magnetic member is magnetized in the moving direction, and the magnetic poles of the adjacent first magnetic member and the second magnetic member are adjacent to the same pole, and the adjacent first magnetic member, second magnetic member or second magnetic member, first magnetic member Between the first magnetic member and the second magnetic member, the length of each of the first magnetic member and the second magnetic member is equal to the width of the magnetic gap;
  • Each of the sensing arrays is disposed in parallel with one side of the magnetic array, and the sensing arrays respectively have one or more coaxial sensing members, and each of the sensing members has a magnet and a coil wound around the magnet. And each of the coils is connected with a load, so that the sensing array can be excited in the moving direction when the load is connected, and the length of each of the sensing members is equal to the width of the magnetic gap, and the length of the magnetic conductor is twice the length of the coil, and The center of the coil is opposite the center of the magnetizer.
  • the full-load power generation device may be a ring-type matrix generator, which is formed by interlacing at least one magnetic disk and at least one coil disk, and each of the magnetic disks is provided with at least two concentric magnetic column groups, and Each of the coil disks is provided with at least two coaxial inductive array groups, and each of the same-diameter magnetic column groups and the sensing column group are opposite each other, and the first magnetic members of the phase-aligned magnetic column groups of the magnetic disks The two ends of the second magnetic member are correspondingly bundled toward the axis, and the magnetizers of the sensing members of the phase-inductive array of the coil plates and the two ends of the coil are also correspondingly bundled toward the axis.
  • the sensing elements of each of the inductive column groups correspond to the magnetic column group and the positions of the magnetic members are aligned to improve the magnetic assistance at the same time point.
  • the sensing elements of each of the inductive column groups correspond to the magnetic column group and the magnetic members are arranged in a misaligned position, so that the magnetic column group can be continuously pushed to improve the inertial force in the moving direction.
  • the two ends of the magnet of the sensing element of each of the sensing columns are respectively formed with a yoke of the same diameter as the coil, and the yokes of the two ends of each of the guiding magnets are opposite to the inner side of the coil.
  • the full-load power generating device of the present invention is designed to completely avoid the magnetic resistance during the movement through the special ratio design of the magnetizer of the sensing member and the coil, the magnetic member and the magnetic gap, and to promote the magnetic assistance in the forward direction, except for the micro force.
  • it can effectively improve its energy conversion rate, further achieve energy-saving effects, and can increase the power generation capacity under the acceleration of magnetic assistance, so it can greatly enhance its added value and improve its economic benefits.
  • Figure 1 is a block diagram showing a preferred embodiment of a full load power generating apparatus of the present invention.
  • FIGS. 2A to 2E are schematic views showing the operation of a preferred embodiment of the full-load power generating device of the present invention, for explaining that the magnetic members of the magnetic array are in an N-N adjacent operation state.
  • 3A-3E are another schematic views of the operation of the preferred embodiment of the full-load power generating device of the present invention, for explaining that the magnetic members of the magnetic array are in an adjacent operation state of the S-S.
  • FIG. 4 is a schematic structural view of another preferred embodiment of the full-load power generating device of the present invention for explaining the state of the disk matrix.
  • Fig. 5 is a perspective view showing the embodiment of the full load power generating device of Fig. 4 of the present invention.
  • Fig. 6 is a block diagram showing the structure of the next preferred embodiment of the full-load power generating device of the present invention for explaining the state of the ring matrix.
  • Fig. 7 is a perspective view showing the embodiment of the full load power generating device of Fig. 6 of the present invention.
  • Fig. 8 is a plan view showing the sensing member of the sensing array in the full-load power generating device of the present invention, for further explaining the state of the magnetizer.
  • Fig. 9 is a perspective view showing still another preferred embodiment of the full load power generating device of the present invention.
  • the present invention is a full load power generating device, with reference to the drawings and specific embodiments of the present invention and its components, all of which relate to front and rear, left and right, top and bottom, upper and lower, and horizontal and vertical references. It is merely for convenience of description, not limiting the invention, nor limiting its components to any position or spatial orientation.
  • the drawings and the dimensions specified in the specification can be varied in accordance with the design and needs of the specific embodiments of the present invention without departing from the scope of the invention.
  • the configuration of the full-load power generator of the present invention is composed of one or more magnetic arrays 10 and one or more sensing arrays 20 as shown in FIGS. 1 and 4, and each of them
  • the magnetic arrays 10 are disposed at opposite intervals of the same pole, and each of the sensing arrays 20 are equally spaced between two pairs of opposite magnetic arrays 10 (as shown in FIG. 4) or one of the magnetic arrays 10 Side (as shown in FIG. 1), each of the magnetic arrays 10 and each of the sensing arrays 20 can be defined as a rotor or a stator, respectively, and can synchronously generate relative motion;
  • Each of the magnetic arrays 10 has at least one first magnetic member 11 and at least one second magnetic member 12 arranged in the moving direction, and each of the first magnetic member and the second magnetic member 11 and 12 has the same length, and each of the plurality of magnetic members 11 and 12
  • the first magnetic member and the second magnetic member 11 and 12 are magnetized in the moving direction, and the magnetic poles of the adjacent first magnetic member and the second magnetic member 11 and 12 are adjacent to each other, for example, the N pole corresponds to the N pole (eg, 1 or 2) or the S pole corresponds to the S pole (as shown in FIG. 3), and the adjacent first magnetic member, second magnetic member 11, 12, or second magnetic member, first magnetic member 12 11 has a magnetic gap 15 of equal width, and the length of each of the first magnetic member and the second magnetic member 11, 12 is equal to the width of the magnetic gap 15;
  • Each of the sensing arrays 20 has one or more coaxial sensing members 21, and each of the sensing members 21 has a magnet 22 and a coil 25 wound around the magnet 22, and each of the coils 25 is connected
  • the load (not shown) causes the sensing array 20 to be excited in the moving direction when the load is connected, and the length of the coil 25 of each of the sensing members 21 is equal to the width of the magnetic gap 15, and the magnetic conductor 22 of each of the sensing members 21 The length is twice the length of the coil 25, and the center of the coil 25 is opposite to the center of the magnetizer 22;
  • the group constitutes a full-load power generating device that can avoid magnetic resistance and proliferate magnetic assistance.
  • the magnetic array 10 when the actual operation is performed, for example, when each of the magnetic arrays 10 and the sensing arrays 20 are in relative motion, for example, in the embodiment, the magnetic array 10 is used as the rotor to be displaced from right to left.
  • the sensing column group 20 is used as the stator when it is not moving.
  • the magnetic array 10 when the displacement is displayed, the magnetic array 10 is moved from the N-pole of the first magnetic member 11 to the N-pole of the second magnetic member 12.
  • the sensing member 21 Since the coil 25 is connected to the load, when the coil 25 enters the magnetic gap 15, the sensing member 21 The first magnetic member 11 corresponding to the magnetic column group 10 is inductively affected, so that the two ends of the sensing member 21 corresponding to the first magnetic member 11 are different magnetic poles, and the sensing member 21 is formed into the corresponding magnetic column group 10.
  • the entry end is the S pole
  • the exit end of the corresponding magnetic column group 10 is the N pole
  • the two ends of the magnetizer 22 are located in the second magnetic member, A magnetic member 12, 11 and a magnetic gap 15 of the first magnetic member and the second magnetic member 11, 12 are in a neutral line, so that the N end of the magnet 22 of the sensing member 21 sucks the S end of the corresponding first magnetic member 11, and The end of the magnetizer 22S will suck the N end of the corresponding second magnetic member 12, completely avoiding the magnetic resistance, and further forming a magnetic assisting force for the moving direction;
  • the coil 25 of the sensing member 21 is in the process of the magnetic gap 15 between the first magnetic member and the second magnetic member 11, 12, in addition to generating power generation by magnetic line cutting, when the sensing column
  • the polarity of the sensing member 21 when the end of the coil 25 of the inductive component 21 of the group 20 corresponding to the entry end of the magnetic array 10 corresponds to the neutral of the magnetic gap 15 of the first magnetic member and the second magnetic member 11 and 12 of the magnetic array 10
  • the conversion occurs, and the inductive member 21 corresponds to the N-pole of the entry end of the magnetic array 10, and the exit end of the corresponding magnetic array 10 is the S-pole, which is designed according to the extension length of the magnetizer 22 of the sensing member 21.
  • the magnet 22 corresponds to the N pole pole end portion of the corresponding second magnetic member 12 corresponding to the entrance end of the magnetic array 10, and the S pole magnetic of the corresponding first magnetic member 11 is pushed correspondingly to the exit end of the corresponding magnetic array 10
  • the S pole pole end portion of the first magnetic member 11 generates a forward thrust which is repulsive with the same pole, and completely avoids the magnetic resistance and forms Shares in favor of the direction of movement of magnetic power;
  • the coil 25 of the sensing member 21 is still moved in the magnetic gap 15 between the first magnetic member and the second magnetic member 11, 12, so that the power generation function of the magnetic line cutting can be continued, and when the sensing column is
  • the center line of the group 20 inductive member 21 corresponds to the center line of the magnetic gap 15 between the first magnetic member and the second magnetic member 11 and 12 of the magnetic array unit 10
  • the polarity of the sensing member 21 is constant at both ends, and at this time, due to the sensing member 21
  • the two ends of the magnetizer 22 respectively correspond to the lines of the first magnetic member and the second magnetic member 11 and 12, so that when the magnetic column group 10 is moved, the magnetizer 22 will pass the second end of the magnetic column group 10 to the second end.
  • the magnetic member 12 is lined up and sucks the S pole pole end portion of the second magnetic member 12, and the magnetizer 22 passes over the line of the first magnetic member 11 corresponding to the exit end of the magnetic column group 10, and sucks the first magnetic member 11
  • the N-pole magnetic pole tip for generating a forward suction of a heteropolar attraction, and completely avoiding the reluctance, thereby forming a favorable motion Directional magnetic assistance;
  • the portion of the coil 25 of the sensing member 21 that moves in the magnetic gap 15 between the first magnetic member and the second magnetic member 11 and 12 can still generate power due to magnetic line cutting.
  • the sensing member 21 The polarity of the sensing element 21 is changed to the S pole of the corresponding magnetic column group 10, and the leaving end of the corresponding magnetic column group 10 is the N pole.
  • the corresponding S pole pole end portion of the second magnetic member 12 is pushed, and the exit end of the corresponding magnetic column group 10 is pushed to the corresponding N of the first magnetic member 11
  • the pole pole tip portion and because the magnetic array 10 is in operation, it causes the magnetizer 22 to pass the entry end of the magnetic array 10 past the S pole pole end portion of the second magnetic member 12, and the corresponding magnetic column group 10
  • the exit end of the first magnetic member 11 passes over the N-pole pole end portion of the first magnetic member 11 to generate a forward thrust repulsive forward thrust, so that it can be completely returned Reluctance to form a magnetic favor an assist direction of motion;
  • the line of the sensing member 21 of the sensing column group 20 corresponds to the line of the second magnetic member 12 of the magnetic column group 10, so that the entire sensing member 21 coil 25 corresponds to the first
  • the two magnetic members 12 are formed in a completely non-power generating state without an inductive polarity, but the coil 25 then crosses the S pole pole end portion of the second magnetic member 12 of the magnetic array 10 and enters the second magnetic field of the magnetic array 10
  • the magnetic gap 15 between the first magnetic members 12 and 11 forms a new operating state as shown in FIG.
  • the magnetic array 10 is moved from the S pole of the second magnetic member 12 toward the S pole of the first magnetic member 11.
  • the line of the second magnetic member 12 of the line-corresponding group 10 of the sensing group 20 is started.
  • the sensing unit 21 is sensitive to the polarity of the second magnetic member 12 corresponding to the magnetic array 10, so that the two ends of the sensing member 21 are different from the two ends of the second magnetic member 12, and the corresponding magnetic members of the sensing member 21 are present.
  • the entry end of the group 10 is N pole
  • the exit end of the corresponding magnetic column group 10 is S pole
  • the magnetizer 22 of the sensing member 21 is twice as long as the coil 25, the two ends of the magnetizer 22 are located at the first magnetic pole.
  • the middle of the magnetic gap 15 between the second magnetic member 11, 12 and the second magnetic member and the first magnetic member 12, 11 causes the S end of the magnet 22 of the sensing member 21 to suck the corresponding second magnetic member 12.
  • the N end, and the N end of the magnetizer 22 will suck the S end of the corresponding first magnetic member 11, and completely avoid the magnetic resistance, forming a magnetic assisting force for the direction of motion;
  • the coil 25 of the sensing member 21 is in the process of the magnetic gap 15 between the second magnetic member and the first magnetic members 12, 11, in addition to generating power generation by magnetic line cutting,
  • the sensing member The polarity of 21 is converted, and the inductive member 21 is the S pole of the corresponding magnetic column group 10 and the N pole of the corresponding magnetic column group 10, and the extension length of the magnetizer 22 of the sensing member 21 is designed.
  • the coil 25 of the sensing member 21 is still moved in the magnetic gap 15 between the second magnetic member and the first magnetic members 12, 11, so that the power generation function of the magnetic line cutting can be continuously generated, and when the sensing column is When the middle of the group 20 sensing member 21 corresponds to the line between the second magnetic member and the first magnetic member 12 and 11 of the magnetic gap 15, the polarity of the sensing member 21 is constant.
  • the two ends of the magnetizer 22 correspond to the second magnetic member and the first magnetic member 12, 11 respectively, so that under the operational movement of the magnetic array 10, the magnetic conductor 22 is caused to pass over the entry end of the magnetic array 10
  • the first magnetic member 11 is lined up and sucks the N pole pole end portion of the first magnetic member 11, and the magnetizer 22 passes the line of the second magnetic member 12 corresponding to the exit end of the magnetic array 10, and sucks the second magnetic
  • the S pole pole end of the piece 12 is used to generate a forward suction of a heteropolar attraction, and completely avoids the magnetic resistance, thereby forming a magnetic assisting force for the direction of motion;
  • the portion of the coil 25 of the sensing member 21 that moves in the magnetic gap 15 between the second magnetic member and the first magnetic members 12, 11 can still generate power by cutting the magnetic lines.
  • the sensing member The induced polarity of 21 is again converted, and the inductive member 21 is N-pole corresponding to the entry end of the magnetic column group 10, and the exit end of the corresponding magnetic column group 10 is S-pole, due to the extension length of the magnetizer 22 of the sensing member 21.
  • the design is such that the entrance end of the magnetic field group 10 corresponding to the magnetizer 22 will push the corresponding N pole pole end portion of the first magnetic member 11 and the exit end of the corresponding magnetic column group 10 will push the corresponding second magnetic member 12
  • the S pole pole end portion and because the magnetic array 10 continues to move, it causes the magnetizer 22 to pass the entry end of the magnetic array 10 over the N pole pole end portion of the first magnetic member 11 and the corresponding magnetic column
  • the exit end of the group 10 passes over the S pole pole end of the second magnetic member 12, generating a forward thrust that is repulsive with the same pole.
  • Full evade reluctance, shape Become a magnetic boost that is beneficial to the direction of motion;
  • the line of the sensing member 21 of the sensing array 20 corresponds to the line of the first magnetic member 11 of the magnetic array 10, so that the entire sensing member 21 coil 25 corresponds to the first
  • the magnetic member 11 is formed in a completely non-power generating state without an inductive polarity, but when the coil 25 of the sensing member 21 crosses the N-pole pole end portion of the first magnetic member 11 of the magnetic array 10, the magnetic column group 10 is entered.
  • the magnetic gap 15 between the first magnetic member and the second magnetic member 11 and 12 is circulated to form a state as shown in FIG. 2A, and the two ends of the sensing member 21 are again brought into phase with the opposite ends of the corresponding first magnetic member 11.
  • the opposite polarity is such that the inductive member 21 corresponds to the entry end of the magnetic column group 10 as the S pole, and the exit end of the corresponding magnetic column group 10 is the N pole for forming such a cyclic operation.
  • the full-load power generating device of the present invention utilizes the magnetizer 22 of the inductive array 20 to be twice the length of the coil 25 and the first magnetic member, the second magnetic members 11, 12, and the magnetic gap 15.
  • the design can make the coil 25 of the sensing component 21 of the sensing array 20 can be connected to the load in the most simple structure to form a full-load state, so that the magnetic resistance and the magnetic acceleration can be completely avoided in the whole process, and the sensing array 20 is added.
  • the rate of relative movement with the magnetic array 10 can reduce the kinetic energy loss, thereby improving the energy conversion efficiency and achieving the goal of energy saving, and can effectively increase the rotational speed and increase the power generation.
  • the utility model can be applied to the micro-power generation, and the utility of the power generation device can be improved, and the structure can be simplified, thereby reducing the cost and improving the reliability of the overall operation.
  • FIG. 4 and FIG. 5 Another preferred embodiment of the present invention is shown in FIG. 4 and FIG. 5.
  • the embodiment is a disk type matrix generator which is formed by interleaving at least one magnetic disk 1 and at least one coil disk 2.
  • Each of the magnetic disks 1 is provided with at least one magnetic column group 10 which are opposite to each other in the same polarity, so that the magnetic current is oriented and the magnetic wires are dense
  • each of the coil disks 2 is provided with at least one sensing column group 20, and the magnetic column
  • the group 10 is opposite to the sensing array 20, and each of the magnetic disk 1 and each of the coil disks 2 can be respectively defined as a rotor or a stator for synchronously moving relative to each other.
  • each of the coils 2 as a stator is a preferred embodiment, and a shaft hole 100 and 200 are respectively formed in the center of each of the magnetic disk 1 and each of the coil disks 2 for pivoting a rotating shaft 3 and a shaft hole of the disk 1 100 and the rotating shaft 3 are formed with corresponding key portions 105, 300, so that the magnetic disk 1 can be rotated by the rotating shaft 3 relative to the coil disk 2, and the sensing member 21 of each of the opposing sensing arrays 20 corresponds to the magnetic column group 10
  • the positions of a magnetic member and the second magnetic members 11 and 12 may be arranged in an alignment or a misalignment to increase the same time point. Or a magnetic power of the magnetic column group 10 can promote sustained action, can effectively increase the inertia force of the direction of movement.
  • the embodiment is in the form of a ring.
  • a matrix generator which is formed by interlacing at least one magnetic disk 1 and at least one coil disk 2, and each of the magnetic disks 1 is provided with at least two concentric magnetic field groups 10 which are mutually homopolar and The magnetic current is oriented and the magnetic wire is dense, and each of the coil disks 2 is provided with at least two coaxial sensing arrays 20, and each of the magnetic columns 10 of the same diameter and the sensing array 20 are opposite each other.
  • Both ends of the first magnetic members 11A, 11B or the second magnetic members 12A, 12B of the phase magnetic groups 10A, 10B of the magnetic disk 1 are correspondingly bundled toward the axis, and the respective coil disks 2 are merged.
  • the two ends of the sensing elements 21A, 21B of the sensing arrays 20A, 20B are also correspondingly converged toward the axis, and each of the magnetic disks 1 and each of the coil disks 2 can be defined as a rotor or a stator, respectively, for simultaneous generation.
  • the present invention is characterized in that each of the magnetic disk 1 is used as a rotor, and each of the coil disks 2 is used as a stator, and a shaft hole 100, 200 is formed in each of the magnetic disk 1 and each of the coil disks 2 respectively.
  • a pivot shaft 3 is pivoted, and the disk 1 shaft hole 100 and the rotating shaft 3 are formed with corresponding key portions 105, 300, so that the magnetic disk 1 can be rotated by the shaft 3
  • the position of the first magnetic member and the second magnetic member 11 and 12 of the magnetic array 10 can be aligned or misaligned, and the position of the first magnetic member and the second magnetic member 11 and 12 of the magnetic array 10 can be aligned.
  • Increasing the magnetic assistance at the same time point or enabling the magnetic array 10 to be pushed by the continuous action can effectively increase the inertial force in the direction of motion.
  • the two ends of the magnetizer 22 of the sensing member 21 of the sensing array 20 of the present invention are respectively formed with a yoke 220 having the same diameter as the coil 25.
  • the yokes 220 of the two ends of the magnetizer 22 are opposite.
  • the inner side can be attached to the two ends of the coil 25, so that the magnetic flux remaining on the coil 25 can be prevented from generating magnetic stress interference and the magnetic conductive effect of the magnetizer 22 can be enhanced, so that the magnetic conduction of the sensing member 21 to the two ends is different from each other. complete.
  • the present invention is an innovative utility model, which not only effectively solves the problems faced by the practitioners, but also greatly enhances the efficiency, and does not see the same or similar product utility models or disclosures in the same technical field.
  • the use and the improvement of the efficacy at the same time, the invention has been in accordance with the novelty and inventive conditions of the invention patent, and the invention patent is filed according to law.

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Abstract

A full load power generation device consists of at least one magnetic column group (10) and at least one sensing column group (20) which is movable with respect to the magnetic column group. The magnetic column group (10) has at least two magnetic parts (11, 12) of equal length which magnetize in the direction of movement, and there are magnetic gaps (15) of equal length between adjacent magnetic parts (11, 12). The adjacent portions of the adjacent magnetic parts (11, 12) have the same polarity. The sensing column groups (20) each have one or more coaxial sensing parts (21). The various sensing parts (21) each have a conducting magnet (22) and a coil (25) wound around the conducting magnet (22). Furthermore, the length of the coil (25) of each sensing part (21) is equal to the width of the magnetic gap (15), the length of the conducting magnet (22) is twice the length of the coil (25), and the center of the coil (25) corresponds to the center of the conducting magnet (22). In this way, magnetic resistance can be avoided in the whole process, and a movement assisted by the magnetic force can be generated, such that the inertial force in the direction of the movement can be increased, the rotating speed can be effectively improved, and thus the amount of the power being generated is improved. Meanwhile, the kinetic energy loss can be reduced, thereby improving the efficiency of energy conversion, and achieving the purpose of energy saving.

Description

全载发电装置Full load generator 技术领域Technical field

本发明涉及一种电磁发电的技术领域，具体而言系指一种可回避磁阻力、增加磁助力，使降低运动损耗的全载发电装置，以能提高电磁发电装置的运转速率与切割频率，从而提升其能源转换率，达节能并有效增加其发电量。The invention relates to the technical field of electromagnetic power generation, in particular to a full-load power generation device capable of avoiding magnetic resistance, increasing magnetic assistance and reducing motion loss, so as to improve the operation rate and cutting frequency of the electromagnetic power generation device. In order to increase its energy conversion rate, energy conservation and effective increase of its power generation.

背景技术Background technique

按，一般电磁发电装置由一感应组及一磁组所构成，其中感应组系于至少一导磁体上设有至少一线圈，而磁组系于感应组轴线两端分设有两磁性件，又该两磁性件系以异极磁极相对排列，且磁组与感应组可被分别定义为转子及定子，而通过相对的线性或旋转运动，使感应组的线圈因磁组的磁力线切割而产生感应电动势，进而达到发电的目的。In general, the electromagnetic power generation device is composed of an induction group and a magnetic group, wherein the induction group is provided with at least one coil on at least one of the magnets, and the magnetic group is provided with two magnetic members at both ends of the axis of the induction group. The two magnetic members are arranged with opposite pole magnetic poles, and the magnetic group and the sensing group can be respectively defined as a rotor and a stator, and the relative linear or rotational motion causes the coil of the sensing group to be induced by the magnetic line cutting of the magnetic group. The electromotive force, in turn, achieves the purpose of power generation.

前述电磁发电装置在作动时，当该感应组的线圈接上负载后，线圈会感应磁化，在对应该磁组磁极的极性的感应下，使线圈两端产生磁性变化，令其与磁组的磁性件产生磁阻现象，因此传统电磁发电装置在负载下会有反能量增生的磁阻效应所造成的动能损，使其能源转换率下降；When the electromagnetic power generating device is actuated, when the coil of the induction group is connected to the load, the coil is magnetized, and under the induction of the polarity of the magnetic pole of the magnetic group, magnetic changes are generated at both ends of the coil to make it magnetic. The magnetic components of the group generate magnetoresistance, so the conventional electromagnetic power generation device will have kinetic energy loss caused by the magnetoresistance effect of anti-energy proliferation under load, and the energy conversion rate thereof will decrease;

换言之，由于现有电磁发电装置受到反能量增生的磁阻效应的影响，造成运转动能损耗，降低其运动的速率，故如何解决前述问题，系业界所亟待开发者。In other words, since the existing electromagnetic power generation device is affected by the magnetoresistance effect of the anti-energy proliferation, the operation kinetic energy is lost and the speed of the movement is reduced. Therefore, how to solve the aforementioned problems is an urgent need of the industry.

有鉴于此，本发明人乃针对前述现有电磁发电装置在应用上所面临的问题深入探讨，并凭借多年从事相关产业的研发经验，积极寻求解决的道，经不断努力的研究与试作，终于成功的开发出一种全载发电装置，以克服现有电磁发电装置因反能量增生的磁阻效应所造成的动能损耗。In view of this, the present inventors have intensively discussed the problems faced by the aforementioned existing electromagnetic power generation devices, and have actively pursued solutions through years of research and development experience in related industries, and have been continuously researching and trialing. Finally, a full-load power generation device was successfully developed to overcome the kinetic energy loss caused by the magnetoresistance effect of the anti-energy proliferation of the existing electromagnetic power generation device.

发明内容Summary of the invention

因此，本发明的主要目的是在提供一种全载发电装置，凭借回避磁阻力，以减少动能损耗，从而提高能源转换效率，并可达到节能的目的。Therefore, the main object of the present invention is to provide a full-load power generation device which can reduce energy loss by virtue of avoiding magnetic resistance, thereby improving energy conversion efficiency and achieving energy saving.

又，本发明的次一主要目的是在提供一种全载发电装置，通过其增生的磁助力，可以有效的提升转速，增加其发电量。 Further, the second main object of the present invention is to provide a full-load power generating device capable of effectively increasing the rotational speed and increasing the amount of power generation by the magnetic boosting force thereof.

另，本发明的再一主要目的是在提供一种全载发电装置，其能在回避磁阻力及增生磁助力下，使其能形成微力发电，增进发电装置的实用性。Further, another main object of the present invention is to provide a full-load power generating device capable of forming micro-power generation under the avoidance of magnetic resistance and magnetic acceleration, and improving the practicability of the power generating device.

再者，本发明的另一主要目的是在提供一种全载发电装置，其能有效简化结构，除可降低成本外，并能提高整体运作的可靠性。Furthermore, another main object of the present invention is to provide a full-load power generating device which can effectively simplify the structure, in addition to reducing the cost, and improving the reliability of the overall operation.

基于此，本发明主要系通过下列的技术手段，来实现前述的目的及其功效：Based on this, the present invention mainly achieves the foregoing objects and effects by the following technical means:

一种全载发电装置，其特征在于：其由一磁列组及一感应列组所组成，且该磁列组与该感应列组能够产生相对运动；A full-load power generation device, which is composed of a magnetic column group and an induction column group, and the magnetic column group and the sensing column group can generate relative motion;

其中该磁列组沿运动方向排列有至少一第一磁性件及至少一第二磁性件，各该第一磁性件、第二磁性件的长度相等，且各该第一磁性件、第二磁性件呈运动方向充磁，相邻的第一磁性件、第二磁性件的磁极呈同极相邻，相邻的第一磁性件、第二磁性件或第二磁性件、第一磁性件间具有一等宽的磁隙，各该第一磁性件、第二磁性件的长度等于磁隙宽度；The magnetic column group is arranged with at least one first magnetic member and at least one second magnetic member in a moving direction, and each of the first magnetic member and the second magnetic member has the same length, and each of the first magnetic member and the second magnetic member The magnets are magnetized in the moving direction, and the magnetic poles of the adjacent first magnetic member and the second magnetic member are adjacent to each other, and the adjacent first magnetic member, second magnetic member or second magnetic member, and first magnetic member Having a magnetic gap of one equal width, the length of each of the first magnetic member and the second magnetic member is equal to the width of the magnetic gap;

而该感应列组平行设于磁列组的一侧，且该感应列组分别具有一个以上同轴线的感应件，各该感应件分别具有一导磁体及一绕设于导磁体的线圈，且各该线圈并连接有一负载，令感应列组于连通负载时能够呈运动方向激磁，再者各该感应件的线圈长度等于磁隙宽度，而导磁体长度为线圈长度的二倍，且线圈中心并与导磁体中心相对。The sensing column group is disposed in parallel on one side of the magnetic column group, and the sensing column group respectively has one or more coaxial line sensing members, and each of the sensing members has a magnetizer and a coil wound around the magnetizer. And each of the coils is connected with a load, so that the sensing column group can be excited in the moving direction when the load is connected, and the coil length of each of the sensing members is equal to the width of the magnetic gap, and the length of the magnetizer is twice the length of the coil, and the coil The center is opposite to the center of the magnetizer.

其中：该感应列组的感应件的导磁体两端分别形成有一与线圈同径的磁轭，各该导磁体的两端磁轭相对内侧可供该线圈两端贴抵。Wherein: the two ends of the magnet of the sensing component of the sensing column are respectively formed with a yoke of the same diameter as the coil, and the yokes of the two ends of the magnetizing magnet are respectively disposed on the opposite sides of the coil.

一种全载发电装置，其特征在于：其由二组以上的磁列组及二组以上的感应列组所组成，且各该磁列组呈同极相对的相间隔设置、而各该感应列组分别等距设于两两相对的磁列组之间，且各该磁列组与各该感应列组能够同步产生相对运动；A full-load power generation device is characterized in that it is composed of two or more magnetic column groups and two or more groups of sensing columns, and each of the magnetic column groups is disposed at opposite intervals of the same pole, and each of the sensing groups The column groups are respectively equidistantly disposed between the two pairs of opposite magnetic column groups, and each of the magnetic column groups and each of the sensing column groups can synchronously generate relative motion;

其中各该磁列组沿运动方向排列有至少一第一磁性件及至少一第二磁性件，各该第一磁性件、第二磁性件的长度相等，且各该第一磁性件、第二磁性件呈运动方向充磁，相邻的第一磁性件、第二磁性件的磁极呈同极相邻，相邻的第一磁性件、第二磁性件或第二磁性件、第一磁性件间具有一等宽的磁隙，各该第一磁性件、第二磁性件的长度等于磁隙宽度；Each of the magnetic arrays has at least one first magnetic member and at least one second magnetic member arranged in a moving direction, and each of the first magnetic member and the second magnetic member has the same length, and each of the first magnetic members and the second The magnetic member is magnetized in the moving direction, and the magnetic poles of the adjacent first magnetic member and the second magnetic member are adjacent to the same pole, and the adjacent first magnetic member, second magnetic member or second magnetic member, first magnetic member Between the first magnetic member and the second magnetic member, the length of each of the first magnetic member and the second magnetic member is equal to the width of the magnetic gap;

而各该感应列组平行设于磁列组的一侧，且该感应列组分别具有一个以上同轴线的感应件，各该感应件分别具有一导磁体及一绕设于导磁体的线圈，且各该线圈并连接有一负载，令感应列组于连通负载时能够呈运动方向激磁，再 者各该感应件的线圈长度等于磁隙宽度，而导磁体长度为线圈长度的二倍，且线圈中心并与导磁体中心相对。Each of the sensing arrays is disposed in parallel with one side of the magnetic array, and the sensing arrays respectively have one or more coaxial sensing members, and each of the sensing members has a magnet and a coil wound around the magnet. And each of the coils is connected with a load, so that the sensing column group can be excited in the moving direction when the load is connected, and then The length of the coil of each of the sensing members is equal to the width of the magnetic gap, and the length of the magnetic conductor is twice the length of the coil, and the center of the coil is opposite to the center of the magnetizer.

其中：该全载发电装置是盘式的矩阵化发电机，其由至少一磁盘与至少一线圈盘间隔交错设置而成，各该磁盘上设有至少一磁列组，而各该线圈盘上设有至少一感应列组，且磁列组与感应列组呈相对状。Wherein: the full-load power generation device is a disk type matrix generator, which is formed by interleaving at least one magnetic disk and at least one coil disk, and each of the magnetic disks is provided with at least one magnetic column group, and each of the coil disks is provided At least one sensing column group is disposed, and the magnetic column group and the sensing column group are opposite to each other.

其中：各该相对的感应列组的感应件对应磁列组相对磁性件的位置呈对位排列，以提高同一时间点的磁助力。Wherein: the sensing elements of each of the opposite sensing column groups are aligned with respect to the position of the magnetic column group relative to the magnetic member to improve the magnetic assistance at the same time point.

其中：各该相对的感应列组的感应件对应磁列组相对磁性件的位置呈错位排列，使磁列组能被持续作用推动，以提高运动方向的惯性力。Wherein: the sensing parts of each of the opposite sensing column groups are arranged in a wrong position corresponding to the position of the magnetic column group relative to the magnetic member, so that the magnetic column group can be continuously pushed to improve the inertial force in the moving direction.

其中：各该感应列组的感应件的导磁体两端分别形成有一与线圈同径的磁轭，各该导磁体的两端磁轭相对内侧可供该线圈两端贴抵。Wherein, the two ends of the magnet of the sensing element of each of the sensing columns are respectively formed with a yoke of the same diameter as the coil, and the yokes of the two ends of each of the guiding magnets are opposite to the inner side of the coil.

一种全载发电装置，其特征在于：其由二组以上的磁列组及二组以上的感应列组所组成，且各该磁列组呈同极并排的相并列设置，而各该感应列组分别等距设于两两相并的磁列组的一侧，且各该磁列组与各该感应列组能够同步产生相对运动；A full-load power generating device is characterized in that: two or more magnetic column groups and two or more sensing column groups are formed, and each of the magnetic column groups is arranged side by side in parallel with each other, and each of the sensing electrodes The column groups are respectively equidistantly disposed on one side of the two-two-phase magnetic column group, and each of the magnetic column groups and each of the sensing column groups can synchronously generate relative motion;

其中各该磁列组沿运动方向排列有至少一第一磁性件及至少一第二磁性件，各该第一磁性件、第二磁性件的长度相等，且各该第一磁性件、第二磁性件呈运动方向充磁，相邻的第一磁性件、第二磁性件的磁极呈同极相邻，相邻的第一磁性件、第二磁性件或第二磁性件、第一磁性件间具有一等宽的磁隙，各该第一磁性件、第二磁性件的长度等于磁隙宽度；Each of the magnetic arrays has at least one first magnetic member and at least one second magnetic member arranged in a moving direction, and each of the first magnetic member and the second magnetic member has the same length, and each of the first magnetic members and the second The magnetic member is magnetized in the moving direction, and the magnetic poles of the adjacent first magnetic member and the second magnetic member are adjacent to the same pole, and the adjacent first magnetic member, second magnetic member or second magnetic member, first magnetic member Between the first magnetic member and the second magnetic member, the length of each of the first magnetic member and the second magnetic member is equal to the width of the magnetic gap;

而各该感应列组平行设于磁列组的一侧，且该感应列组分别具有一个以上同轴线的感应件，各该感应件分别具有一导磁体及一绕设于导磁体的线圈，且各该线圈并连接有一负载，令感应列组于连通负载时能够呈运动方向激磁，再者各该感应件的线圈长度等于磁隙宽度，而导磁体长度为线圈长度的二倍，且线圈中心并与导磁体中心相对。Each of the sensing arrays is disposed in parallel with one side of the magnetic array, and the sensing arrays respectively have one or more coaxial sensing members, and each of the sensing members has a magnet and a coil wound around the magnet. And each of the coils is connected with a load, so that the sensing array can be excited in the moving direction when the load is connected, and the length of each of the sensing members is equal to the width of the magnetic gap, and the length of the magnetic conductor is twice the length of the coil, and The center of the coil is opposite the center of the magnetizer.

其中：该全载发电装置可以是环式的矩阵化发电机，其由至少一磁盘与至少一线圈盘间隔交错设置而成，各该磁盘上设有至少二同轴心的磁列组，而各该线圈盘上设有至少二同轴心的感应列组，且各该同径的磁列组与感应列组呈相对状，再者各该磁盘的相并磁列组的第一磁性件与第二磁性件的两端向轴心呈相对应收束，且各该线圈盘的相并感应列组的感应件的导磁体与线圈的两端也向轴心呈相对应收束。 Wherein: the full-load power generation device may be a ring-type matrix generator, which is formed by interlacing at least one magnetic disk and at least one coil disk, and each of the magnetic disks is provided with at least two concentric magnetic column groups, and Each of the coil disks is provided with at least two coaxial inductive array groups, and each of the same-diameter magnetic column groups and the sensing column group are opposite each other, and the first magnetic members of the phase-aligned magnetic column groups of the magnetic disks The two ends of the second magnetic member are correspondingly bundled toward the axis, and the magnetizers of the sensing members of the phase-inductive array of the coil plates and the two ends of the coil are also correspondingly bundled toward the axis.

其中：各该相并的感应列组的感应件对应磁列组相并磁性件的位置呈对位排列，以提高同一时间点的磁助力。Wherein: the sensing elements of each of the inductive column groups correspond to the magnetic column group and the positions of the magnetic members are aligned to improve the magnetic assistance at the same time point.

其中：各该相并的感应列组的感应件对应磁列组相并磁性件的位置呈错位排列，使磁列组能被持续作用推动，以提高运动方向的惯性力。Wherein: the sensing elements of each of the inductive column groups correspond to the magnetic column group and the magnetic members are arranged in a misaligned position, so that the magnetic column group can be continuously pushed to improve the inertial force in the moving direction.

其中：各该感应列组的感应件的导磁体两端分别形成有一与线圈同径的磁轭，各该导磁体的两端磁轭相对内侧可供该线圈两端贴抵。Wherein, the two ends of the magnet of the sensing element of each of the sensing columns are respectively formed with a yoke of the same diameter as the coil, and the yokes of the two ends of each of the guiding magnets are opposite to the inner side of the coil.

如此，本发明的全载发电装置通过其中感应件的导磁体与线圈、磁性件及磁隙的特殊比例设计，而使运动过程中完全回避磁阻力，增生顺向的磁助力，除具有微力发电的功能外，并能有效提升其能源转换率，进一步达到节能效果，并可在磁助力加速下，提高发电量的功效，故能大幅增进其附加价值，并提高其经济效益。In this way, the full-load power generating device of the present invention is designed to completely avoid the magnetic resistance during the movement through the special ratio design of the magnetizer of the sensing member and the coil, the magnetic member and the magnetic gap, and to promote the magnetic assistance in the forward direction, except for the micro force. In addition to the function of power generation, it can effectively improve its energy conversion rate, further achieve energy-saving effects, and can increase the power generation capacity under the acceleration of magnetic assistance, so it can greatly enhance its added value and improve its economic benefits.

为使贵审查委员能进一步了解本发明的构成、特征及其他目的，以下乃举本发明的若干较佳实施例，并配合图式详细说明如后，同时让熟悉该项技术领域者能够具体实施。In order to provide a further understanding of the present invention, the present invention, the preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings, .

附图说明DRAWINGS

图1是本发明全载发电装置较佳实施例的架构示意图。BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 is a block diagram showing a preferred embodiment of a full load power generating apparatus of the present invention.

图2A～图2E是本发明全载发电装置较佳实施例的动作示意图，供说明其磁列组的磁性件呈N-N相邻的动作态样。2A to 2E are schematic views showing the operation of a preferred embodiment of the full-load power generating device of the present invention, for explaining that the magnetic members of the magnetic array are in an N-N adjacent operation state.

图3A～图3E是本发明全载发电装置较佳实施例的另一动作示意图，供说明其磁列组的磁性件呈S-S相邻的动作态样。3A-3E are another schematic views of the operation of the preferred embodiment of the full-load power generating device of the present invention, for explaining that the magnetic members of the magnetic array are in an adjacent operation state of the S-S.

图4是本发明全载发电装置另一较佳实施例的架构示意图，供说明其盘式矩阵化的状态。4 is a schematic structural view of another preferred embodiment of the full-load power generating device of the present invention for explaining the state of the disk matrix.

图5是本发明全载发电装置图4所示实施例的立体示意图。Fig. 5 is a perspective view showing the embodiment of the full load power generating device of Fig. 4 of the present invention.

图6是本发明全载发电装置次一较佳实施例的架构示意图，供说明其环式矩阵化的状态。Fig. 6 is a block diagram showing the structure of the next preferred embodiment of the full-load power generating device of the present invention for explaining the state of the ring matrix.

图7是本发明全载发电装置图6所示实施例的立体示意图。Fig. 7 is a perspective view showing the embodiment of the full load power generating device of Fig. 6 of the present invention.

图8是本发明全载发电装置中感应列组的感应件的平面示意图，供进一步说明其导磁体的状态。Fig. 8 is a plan view showing the sensing member of the sensing array in the full-load power generating device of the present invention, for further explaining the state of the magnetizer.

图9是本发明全载发电装置再一较佳实施例的立体示意图。Fig. 9 is a perspective view showing still another preferred embodiment of the full load power generating device of the present invention.

附图标记说明：10磁列组；11第一磁性件；12第二磁性件；15磁隙；20感应 列组；21感应件；22导磁体；220磁轭；25线圈；1磁盘；100轴孔；105键部；2线圈盘；200轴孔；3旋转轴；300键部。DESCRIPTION OF REFERENCE NUMERALS: 10 magnetic column group; 11 first magnetic member; 12 second magnetic member; 15 magnetic gap; 20 induction Column group; 21 sensing member; 22 magnetizer; 220 yoke; 25 coil; 1 disk; 100 shaft hole; 105 key portion; 2 coil disk; 200 shaft hole; 3 rotating shaft; 300 key portion.

具体实施方式detailed description

本发明系一种全载发电装置，随附图例示的本发明的具体实施例及其构件中，所有关于前与后、左与右、顶部与底部、上部与下部、以及水平与垂直的参考，仅用于方便进行描述，并非限制本发明，也非将其构件限制于任何位置或空间方向。图式与说明书中所指定的尺寸，当可在不离开本发明的申请专利范围内，根据本发明的具体实施例的设计与需求而进行变化。The present invention is a full load power generating device, with reference to the drawings and specific embodiments of the present invention and its components, all of which relate to front and rear, left and right, top and bottom, upper and lower, and horizontal and vertical references. It is merely for convenience of description, not limiting the invention, nor limiting its components to any position or spatial orientation. The drawings and the dimensions specified in the specification can be varied in accordance with the design and needs of the specific embodiments of the present invention without departing from the scope of the invention.

而本发明的全载发电装置的构成，系如图1、图4所示，其由一或一组以上的磁列组10及一或一组以上的感应列组20所组成，且各该磁列组10呈同极相对的相间隔设置、而各该感应列组20分别等距设于两两相对的磁列组10之间(如图4所示)或该磁列组10的一侧(如图1所示)，各该磁列组10与各该感应列组20可被分别定义为作为转子或定子，可同步产生相对运动；The configuration of the full-load power generator of the present invention is composed of one or more magnetic arrays 10 and one or more sensing arrays 20 as shown in FIGS. 1 and 4, and each of them The magnetic arrays 10 are disposed at opposite intervals of the same pole, and each of the sensing arrays 20 are equally spaced between two pairs of opposite magnetic arrays 10 (as shown in FIG. 4) or one of the magnetic arrays 10 Side (as shown in FIG. 1), each of the magnetic arrays 10 and each of the sensing arrays 20 can be defined as a rotor or a stator, respectively, and can synchronously generate relative motion;

其中各该磁列组10沿运动方向排列有至少一第一磁性件11及至少一第二磁性件12，又各该第一磁性件、第二磁性件11、12的长度相等，且各该第一磁性件、第二磁性件11、12呈运动方向充磁，又相邻的第一磁性件、第二磁性件11、12的磁极呈同极相邻，例如N极对应N极(如图1、图2所示)或S极对应S极(如图3所示)，且相邻的第一磁性件、第二磁性件11、12、或第二磁性件、第一磁性件12、11间具有一等宽的磁隙15，再者各该第一磁性件、第二磁性件11、12的长度等于磁隙15宽度；Each of the magnetic arrays 10 has at least one first magnetic member 11 and at least one second magnetic member 12 arranged in the moving direction, and each of the first magnetic member and the second magnetic member 11 and 12 has the same length, and each of the plurality of magnetic members 11 and 12 The first magnetic member and the second magnetic member 11 and 12 are magnetized in the moving direction, and the magnetic poles of the adjacent first magnetic member and the second magnetic member 11 and 12 are adjacent to each other, for example, the N pole corresponds to the N pole (eg, 1 or 2) or the S pole corresponds to the S pole (as shown in FIG. 3), and the adjacent first magnetic member, second magnetic member 11, 12, or second magnetic member, first magnetic member 12 11 has a magnetic gap 15 of equal width, and the length of each of the first magnetic member and the second magnetic member 11, 12 is equal to the width of the magnetic gap 15;

而各该感应列组20分别具有一个以上同轴线的感应件21，各该感应件21分别具有一导磁体22及一绕设于导磁体22的线圈25，且各该线圈25并连接有一负载(图中未示)，使感应列组20于连通负载时可呈运动方向激磁，再者各该感应件21的线圈25长度等于磁隙15宽度，另各该感应件21的导磁体22长度为线圈25长度的二倍，且线圈25中心并与导磁体22中心相对；Each of the sensing arrays 20 has one or more coaxial sensing members 21, and each of the sensing members 21 has a magnet 22 and a coil 25 wound around the magnet 22, and each of the coils 25 is connected The load (not shown) causes the sensing array 20 to be excited in the moving direction when the load is connected, and the length of the coil 25 of each of the sensing members 21 is equal to the width of the magnetic gap 15, and the magnetic conductor 22 of each of the sensing members 21 The length is twice the length of the coil 25, and the center of the coil 25 is opposite to the center of the magnetizer 22;

如此，组构成一可回避磁阻力、且增生磁助力的全载发电装置者。In this way, the group constitutes a full-load power generating device that can avoid magnetic resistance and proliferate magnetic assistance.

至于本发明较佳实施例于实际作动时，如当各该磁列组10与各该感应列组20产生相对运动，例如本实施例以磁列组10作为转子由右向左位移、而感应列组20作为定子不动时。则系如图2所示，其系显示位移时，该磁列组10由第一磁性件11的N极磁极移向第二磁性件12的N极磁极的动作态样。首 先，如图2A，以感应列组20感应件21中线对应磁列组10第一磁性件11中线为始，此时由于线圈25连接负载，因此当线圈25进入磁隙15时，感应件21受磁列组10相对应的第一磁性件11感应影响，使该感应件21两端呈现与第一磁性件11相对应的两端为相异磁极，而形成感应件21对应磁列组10的进入端为S极、对应磁列组10的离开端为N极，且由于感应件21的导磁体22是线圈25的两倍长，故导磁体22两端适位于第二磁性件、第一磁性件12、11与第一磁性件、第二磁性件11、12的磁隙15中线，令感应件21导磁体22的N端会顺吸对应的第一磁性件11的S端、且导磁体22S端会顺吸对应的第二磁性件12的N端，而完全回避磁阻，更进而形成一股有利于运动方向的磁助力；As for the preferred embodiment of the present invention, when the actual operation is performed, for example, when each of the magnetic arrays 10 and the sensing arrays 20 are in relative motion, for example, in the embodiment, the magnetic array 10 is used as the rotor to be displaced from right to left. The sensing column group 20 is used as the stator when it is not moving. As shown in FIG. 2, when the displacement is displayed, the magnetic array 10 is moved from the N-pole of the first magnetic member 11 to the N-pole of the second magnetic member 12. First First, as shown in FIG. 2A, in the sensing column group 20, the sensing line 21 of the first magnetic member 11 of the corresponding magnetic column group 10 of the sensing member 21 is started. At this time, since the coil 25 is connected to the load, when the coil 25 enters the magnetic gap 15, the sensing member 21 The first magnetic member 11 corresponding to the magnetic column group 10 is inductively affected, so that the two ends of the sensing member 21 corresponding to the first magnetic member 11 are different magnetic poles, and the sensing member 21 is formed into the corresponding magnetic column group 10. The entry end is the S pole, the exit end of the corresponding magnetic column group 10 is the N pole, and since the magnetizer 22 of the sensing member 21 is twice as long as the coil 25, the two ends of the magnetizer 22 are located in the second magnetic member, A magnetic member 12, 11 and a magnetic gap 15 of the first magnetic member and the second magnetic member 11, 12 are in a neutral line, so that the N end of the magnet 22 of the sensing member 21 sucks the S end of the corresponding first magnetic member 11, and The end of the magnetizer 22S will suck the N end of the corresponding second magnetic member 12, completely avoiding the magnetic resistance, and further forming a magnetic assisting force for the moving direction;

接着，如图2B所示，此时感应件21的线圈25在位于第一磁性件、第二磁性件11、12间的磁隙15过程中，除了产生磁力线切割的发电作用外，当感应列组20感应件21中对应磁列组10的进入端的线圈25端部对应磁列组10的第一磁性件、第二磁性件11、12的磁隙15中线时，该感应件21的极性会发生转换，而变成感应件21对应磁列组10的进入端为N极、且对应磁列组10的离开端为S极，由于感应件21的导磁体22的延伸长度设计，使导磁体22对应磁列组10的进入端会顺推对应的第二磁性件12的N极磁极端部、而对应磁列组10的离开端会顺推对应的第一磁性件11的S极磁极端部，且因磁列组10在移动中，其会使导磁体22对应磁列组10的进入端越过第二磁性件12的N极磁极端部、而对应磁列组10的离开端越过第一磁性件11的S极磁极端部，产生一股同极相斥的顺向推力，而完全回避磁阻，形成一股有利于运动方向的磁助力；Next, as shown in FIG. 2B, at this time, the coil 25 of the sensing member 21 is in the process of the magnetic gap 15 between the first magnetic member and the second magnetic member 11, 12, in addition to generating power generation by magnetic line cutting, when the sensing column The polarity of the sensing member 21 when the end of the coil 25 of the inductive component 21 of the group 20 corresponding to the entry end of the magnetic array 10 corresponds to the neutral of the magnetic gap 15 of the first magnetic member and the second magnetic member 11 and 12 of the magnetic array 10 The conversion occurs, and the inductive member 21 corresponds to the N-pole of the entry end of the magnetic array 10, and the exit end of the corresponding magnetic array 10 is the S-pole, which is designed according to the extension length of the magnetizer 22 of the sensing member 21. The magnet 22 corresponds to the N pole pole end portion of the corresponding second magnetic member 12 corresponding to the entrance end of the magnetic array 10, and the S pole magnetic of the corresponding first magnetic member 11 is pushed correspondingly to the exit end of the corresponding magnetic array 10 The extreme portion, and because the magnetic array 10 is moving, it causes the conductive magnet 22 to pass over the N pole pole end of the second magnetic member 12 corresponding to the entry end of the magnetic array 10, and the exit end of the corresponding magnetic array 10 is crossed. The S pole pole end portion of the first magnetic member 11 generates a forward thrust which is repulsive with the same pole, and completely avoids the magnetic resistance and forms Shares in favor of the direction of movement of magnetic power;

紧接着，如图2C，此时感应件21的线圈25仍在第一磁性件、第二磁性件11、12间的磁隙15中移动，故可继续产生磁力线切割的发电作用，而当感应列组20感应件21中线对应磁列组10第一磁性件、第二磁性件11、12间的磁隙15中线时，因感应件21两端感应极性不变，此时由于感应件21的导磁体22的两端分别对应第一磁性件、第二磁性件11、12之中线，如此在磁列组10运转移动下，其会使导磁体22对应磁列组10的进入端越过第二磁性件12之中线、且顺吸第二磁性件12的S极磁极端部，而导磁体22对应磁列组10的离开端越过第一磁性件11之中线、且顺吸第一磁性件11的N极磁极端部，供产生一股异极相吸的顺向吸力，而完全回避磁阻，进而形成一股有利于运动 方向的磁助力；Then, as shown in FIG. 2C, at this time, the coil 25 of the sensing member 21 is still moved in the magnetic gap 15 between the first magnetic member and the second magnetic member 11, 12, so that the power generation function of the magnetic line cutting can be continued, and when the sensing column is When the center line of the group 20 inductive member 21 corresponds to the center line of the magnetic gap 15 between the first magnetic member and the second magnetic member 11 and 12 of the magnetic array unit 10, the polarity of the sensing member 21 is constant at both ends, and at this time, due to the sensing member 21 The two ends of the magnetizer 22 respectively correspond to the lines of the first magnetic member and the second magnetic member 11 and 12, so that when the magnetic column group 10 is moved, the magnetizer 22 will pass the second end of the magnetic column group 10 to the second end. The magnetic member 12 is lined up and sucks the S pole pole end portion of the second magnetic member 12, and the magnetizer 22 passes over the line of the first magnetic member 11 corresponding to the exit end of the magnetic column group 10, and sucks the first magnetic member 11 The N-pole magnetic pole tip for generating a forward suction of a heteropolar attraction, and completely avoiding the reluctance, thereby forming a favorable motion Directional magnetic assistance;

之后，如图2D所示，此时感应件21的线圈25在第一磁性件、第二磁性件11、12间的磁隙15中移动的部份，因磁力线切割仍可产生发电作用，而当感应列组20感应件21中对应磁列组10的离开端的线圈25端部对应磁列组10的第一磁性件、第二磁性件11、12间的磁隙15中线时，该感应件21的极性再次发生转换，而变成感应件21对应磁列组10的进入端为S极、且对应磁列组10的离开端为N极，由于感应件21的导磁体22延伸长度设计，使导磁体22对应磁列组10的进入端会顺推对应的第二磁性件12的S极磁极端部、而对应磁列组10的离开端会顺推对应的第一磁性件11的N极磁极端部，且因磁列组10在运作移动中，其会使导磁体22对应磁列组10的进入端越过该第二磁性件12的S极磁极端部、而对应磁列组10的离开端越过第一磁性件11的N极磁极端部，产生一股同极相斥的顺向推力，故可完全回避磁阻，而形成一股有利于运动方向的磁助力；Then, as shown in FIG. 2D, at this time, the portion of the coil 25 of the sensing member 21 that moves in the magnetic gap 15 between the first magnetic member and the second magnetic member 11 and 12 can still generate power due to magnetic line cutting. When the end of the coil 25 of the inductive array 20 in the sensing member 21 corresponding to the exit end of the magnetic array 10 corresponds to the center line of the magnetic gap 15 between the first magnetic member and the second magnetic member 11 and 12 of the magnetic array 10, the sensing member 21 The polarity of the sensing element 21 is changed to the S pole of the corresponding magnetic column group 10, and the leaving end of the corresponding magnetic column group 10 is the N pole. Due to the extension length of the magnetizer 22 of the sensing member 21, Corresponding to the entrance end of the magnetic array 10 of the magnetizer 22, the corresponding S pole pole end portion of the second magnetic member 12 is pushed, and the exit end of the corresponding magnetic column group 10 is pushed to the corresponding N of the first magnetic member 11 The pole pole tip portion, and because the magnetic array 10 is in operation, it causes the magnetizer 22 to pass the entry end of the magnetic array 10 past the S pole pole end portion of the second magnetic member 12, and the corresponding magnetic column group 10 The exit end of the first magnetic member 11 passes over the N-pole pole end portion of the first magnetic member 11 to generate a forward thrust repulsive forward thrust, so that it can be completely returned Reluctance to form a magnetic favor an assist direction of motion;

最后，如图2E，当磁列组10继续位移时，该感应列组20的感应件21中线对应磁列组10第二磁性件12之中线时，将使整个感应件21线圈25对应该第二磁性件12，形成完全不发电状态，而不会有感应极性，但线圈25再跨越磁列组10第二磁性件12的S极磁极端部后，将进入磁列组10第二磁性件、第一磁性件12、11间的磁隙15，形成如图3所示新的作动状态。Finally, as shown in FIG. 2E, when the magnetic column group 10 continues to be displaced, the line of the sensing member 21 of the sensing column group 20 corresponds to the line of the second magnetic member 12 of the magnetic column group 10, so that the entire sensing member 21 coil 25 corresponds to the first The two magnetic members 12 are formed in a completely non-power generating state without an inductive polarity, but the coil 25 then crosses the S pole pole end portion of the second magnetic member 12 of the magnetic array 10 and enters the second magnetic field of the magnetic array 10 The magnetic gap 15 between the first magnetic members 12 and 11 forms a new operating state as shown in FIG.

另如图3所示，其系显示位移时，该磁列组10由第二磁性件12的S极磁极移向第一磁性件11的S极磁极的动作态样。首先，如图3A，感应列组20感应件21之中线对应磁列组10第二磁性件12之中线为始，此时由于线圈25连接负载，因此当线圈25进入磁隙15时，感应件21受到磁列组10相对应的第二磁性件12的极性感应，使该感应件21两端呈现与第二磁性件12的两端为相异极性，而呈现感应件21对应磁列组10的进入端为N极、对应磁列组10的离开端为S极，且由于感应件21的导磁体22是线圈25的两倍长，故导磁体22的两端适位于第一磁性件、第二磁性件11、12与第二磁性件、第一磁性件12、11间的磁隙15之中线，令感应件21导磁体22的S端会顺吸对应的第二磁性件12的N端、且导磁体22的N端会顺吸对应的第一磁性件11的S端，而完全回避磁阻，形成一股有利于运动方向的磁助力；As shown in FIG. 3, when the displacement is displayed, the magnetic array 10 is moved from the S pole of the second magnetic member 12 toward the S pole of the first magnetic member 11. First, as shown in FIG. 3A, the line of the second magnetic member 12 of the line-corresponding group 10 of the sensing group 20 is started. At this time, since the coil 25 is connected to the load, when the coil 25 enters the magnetic gap 15, the sensing unit 21 is sensitive to the polarity of the second magnetic member 12 corresponding to the magnetic array 10, so that the two ends of the sensing member 21 are different from the two ends of the second magnetic member 12, and the corresponding magnetic members of the sensing member 21 are present. The entry end of the group 10 is N pole, the exit end of the corresponding magnetic column group 10 is S pole, and since the magnetizer 22 of the sensing member 21 is twice as long as the coil 25, the two ends of the magnetizer 22 are located at the first magnetic pole. The middle of the magnetic gap 15 between the second magnetic member 11, 12 and the second magnetic member and the first magnetic member 12, 11 causes the S end of the magnet 22 of the sensing member 21 to suck the corresponding second magnetic member 12. The N end, and the N end of the magnetizer 22 will suck the S end of the corresponding first magnetic member 11, and completely avoid the magnetic resistance, forming a magnetic assisting force for the direction of motion;

接着，如图3B所示，此时感应件21的线圈25在位于第二磁性件、第一磁性件12、11间的磁隙15过程中，除了产生磁力线切割的发电作用外，当感 应列组20感应件21中对应磁列组10的进入端的线圈25的端部对应磁列组10的第二磁性件、第一磁性件12、11间的磁隙15中线时，该感应件21的极性会发生转换，而变成感应件21对应磁列组10的进入端为S极、且对应磁列组10的离开端为N极，由于感应件21的导磁体22延伸长度设计，使导磁体22对应磁列组10的进入端会顺推对应的第一磁性件11的S极磁极端部、而对应磁列组10的离开端会顺推对应的第二磁性件12的N极磁极端部，且因磁列组10在继续移动中，其会使导磁体22对应磁列组10的进入端越过第一磁性件11的S极磁极端部、而对应磁列组10的离开端越过对应的第二磁性件12的N极磁极端部，产生一股同极相斥的顺向推力，而完全回避磁阻，形成一股有利于运动方向的磁助力；Next, as shown in FIG. 3B, at this time, the coil 25 of the sensing member 21 is in the process of the magnetic gap 15 between the second magnetic member and the first magnetic members 12, 11, in addition to generating power generation by magnetic line cutting, When the end of the coil 25 of the inductive component 21 of the corresponding group of the magnetic field group 10 corresponds to the second magnetic member of the magnetic array 10 and the neutral line of the magnetic gap 15 between the first magnetic members 12 and 11, the sensing member The polarity of 21 is converted, and the inductive member 21 is the S pole of the corresponding magnetic column group 10 and the N pole of the corresponding magnetic column group 10, and the extension length of the magnetizer 22 of the sensing member 21 is designed. So that the entrance end of the magnetic field group 10 corresponding to the magnetizer 22 will push the corresponding S pole pole end portion of the first magnetic member 11, and the exit end of the corresponding magnetic column group 10 will push the corresponding second magnetic member 12 The N-pole magnetic pole end portion, and because the magnetic column group 10 continues to move, it causes the magnetizing magnet 22 to pass the S pole pole end portion of the first magnetic member 11 corresponding to the entrance end of the magnetic column group 10, and the corresponding magnetic column group 10 The exit end passes over the N pole pole end portion of the corresponding second magnetic member 12, generating a forward thrust that is repulsive with the same pole, and completely avoids the magnetic resistance to form a magnetic assist force that is favorable for the moving direction;

紧接着，如图3C，此时感应件21的线圈25仍在第二磁性件、第一磁性件12、11间的磁隙15中移动，故可继续产生磁力线切割的发电作用，而当感应列组20感应件21之中线对应磁列组10第二磁性件、第一磁性件12、11间磁隙15之中线时，因感应件21两端感应极性不变，此时由于感应件21的导磁体22的两端分别对应第二磁性件、第一磁性件12、11之中线，如此在磁列组10的运作移动下，其会使导磁体22对应磁列组10的进入端越过第一磁性件11之中线、且顺吸第一磁性件11的N极磁极端部，而导磁体22对应磁列组10的离开端越过第二磁性件12之中线、且顺吸第二磁性件12的S极磁极端部，供产生一股异极相吸的顺向吸力，而完全回避磁阻，进而形成一股有利于运动方向的磁助力；Then, as shown in FIG. 3C, at this time, the coil 25 of the sensing member 21 is still moved in the magnetic gap 15 between the second magnetic member and the first magnetic members 12, 11, so that the power generation function of the magnetic line cutting can be continuously generated, and when the sensing column is When the middle of the group 20 sensing member 21 corresponds to the line between the second magnetic member and the first magnetic member 12 and 11 of the magnetic gap 15, the polarity of the sensing member 21 is constant. The two ends of the magnetizer 22 correspond to the second magnetic member and the first magnetic member 12, 11 respectively, so that under the operational movement of the magnetic array 10, the magnetic conductor 22 is caused to pass over the entry end of the magnetic array 10 The first magnetic member 11 is lined up and sucks the N pole pole end portion of the first magnetic member 11, and the magnetizer 22 passes the line of the second magnetic member 12 corresponding to the exit end of the magnetic array 10, and sucks the second magnetic The S pole pole end of the piece 12 is used to generate a forward suction of a heteropolar attraction, and completely avoids the magnetic resistance, thereby forming a magnetic assisting force for the direction of motion;

之后，如图3D所示，此时感应件21的线圈25在第二磁性件、第一磁性件12、11间的磁隙15中移动的部份，因磁力线切割仍可产生发电作用，而当感应列组20感应件21中对应磁列组10的离开端的线圈25的端部对应磁列组10的第二磁性件、第一磁性件12、11间的磁隙15中线时，该感应件21的感应极性再次发生转换，而变成感应件21对应磁列组10的进入端为N极、且对应磁列组10的离开端为S极，由于感应件21的导磁体22延伸长度设计，使导磁体22对应磁列组10的进入端会顺推对应的第一磁性件11的N极磁极端部、而对应磁列组10的离开端会顺推对应的第二磁性件12的S极磁极端部，且因磁列组10在继续移动中，其会使导磁体22对应磁列组10的进入端越过该第一磁性件11的N极磁极端部、而对应磁列组10的离开端越过第二磁性件12的S极磁极端部，产生一股同极相斥的顺向推力，故可完全回避磁阻，形 成一股有利于运动方向的磁助力；Then, as shown in FIG. 3D, at this time, the portion of the coil 25 of the sensing member 21 that moves in the magnetic gap 15 between the second magnetic member and the first magnetic members 12, 11 can still generate power by cutting the magnetic lines. When the end of the coil 25 of the sensing member group 21 corresponding to the exit end of the magnetic column group 10 corresponds to the second magnetic member of the magnetic array group 10 and the neutral line of the magnetic gap 15 between the first magnetic members 12 and 11, the sensing member The induced polarity of 21 is again converted, and the inductive member 21 is N-pole corresponding to the entry end of the magnetic column group 10, and the exit end of the corresponding magnetic column group 10 is S-pole, due to the extension length of the magnetizer 22 of the sensing member 21. The design is such that the entrance end of the magnetic field group 10 corresponding to the magnetizer 22 will push the corresponding N pole pole end portion of the first magnetic member 11 and the exit end of the corresponding magnetic column group 10 will push the corresponding second magnetic member 12 The S pole pole end portion, and because the magnetic array 10 continues to move, it causes the magnetizer 22 to pass the entry end of the magnetic array 10 over the N pole pole end portion of the first magnetic member 11 and the corresponding magnetic column The exit end of the group 10 passes over the S pole pole end of the second magnetic member 12, generating a forward thrust that is repulsive with the same pole. Full evade reluctance, shape Become a magnetic boost that is beneficial to the direction of motion;

最后，如图3E，当磁列组10继续位移时，该感应列组20的感应件21之中线对应磁列组10第一磁性件11之中线，使整个感应件21线圈25对应该第一磁性件11，形成完全不发电状态，而不会有感应极性，但当感应件21线圈25再跨越磁列组10第一磁性件11的N极磁极端部后，将进入磁列组10第一磁性件、第二磁性件11、12间的磁隙15，则循环形成如图2A的状态，再次使该感应件21的两端呈现与对应的第一磁性件11的两端为相异极性，使感应件21对应磁列组10的进入端为S极、且对应磁列组10的离开端为N极，供形成如此循环动作。Finally, as shown in FIG. 3E, when the magnetic array 10 continues to be displaced, the line of the sensing member 21 of the sensing array 20 corresponds to the line of the first magnetic member 11 of the magnetic array 10, so that the entire sensing member 21 coil 25 corresponds to the first The magnetic member 11 is formed in a completely non-power generating state without an inductive polarity, but when the coil 25 of the sensing member 21 crosses the N-pole pole end portion of the first magnetic member 11 of the magnetic array 10, the magnetic column group 10 is entered. The magnetic gap 15 between the first magnetic member and the second magnetic member 11 and 12 is circulated to form a state as shown in FIG. 2A, and the two ends of the sensing member 21 are again brought into phase with the opposite ends of the corresponding first magnetic member 11. The opposite polarity is such that the inductive member 21 corresponds to the entry end of the magnetic column group 10 as the S pole, and the exit end of the corresponding magnetic column group 10 is the N pole for forming such a cyclic operation.

通过上述的结构设计及动作说明可知，本发明的全载发电装置利用感应列组20的导磁体22是线圈25与第一磁性件、第二磁性件11、12及磁隙15的2倍长度设计，而能以最简单的结构使感应列组20的感应件21线圈25能全程连接负载，形成全载状态，使其全程可完全回避磁阻力、增生磁助力，而增加感应列组20与磁列组10相对运动的速率，除了可以减少动能损耗，从而提升能源转换效率，达到节能的目之外，同时可以有效的提高转速，增大其发电量。As can be seen from the above structural design and operation description, the full-load power generating device of the present invention utilizes the magnetizer 22 of the inductive array 20 to be twice the length of the coil 25 and the first magnetic member, the second magnetic members 11, 12, and the magnetic gap 15. The design can make the coil 25 of the sensing component 21 of the sensing array 20 can be connected to the load in the most simple structure to form a full-load state, so that the magnetic resistance and the magnetic acceleration can be completely avoided in the whole process, and the sensing array 20 is added. The rate of relative movement with the magnetic array 10 can reduce the kinetic energy loss, thereby improving the energy conversion efficiency and achieving the goal of energy saving, and can effectively increase the rotational speed and increase the power generation.

进一步能在回避磁阻力及增生磁助力下，使其能适用于微力发电，增进发电装置的实用性，且由于结构简化，故可降低成本外，并能提升整体运转的可靠性。Further, under the avoidance of the magnetic resistance and the magnetic acceleration, the utility model can be applied to the micro-power generation, and the utility of the power generation device can be improved, and the structure can be simplified, thereby reducing the cost and improving the reliability of the overall operation.

本发明的另一较佳实施例，则系如图4、图5所示，该实施例呈盘式的矩阵化发电机，其由至少一磁盘1与至少一线圈盘2间隔交错设置而成，各该磁盘1上设有互为同极相对的至少一磁列组10，以使磁流定向及磁线密实，而各该线圈盘2上设有至少一感应列组20，且磁列组10与感应列组20呈相对状，再者各该磁盘1与各该线圈盘2可分别被定义为转子或定子，供同步互相产生相对运动，本发明系以各该磁盘1作为转子、且各该线圈盘2作为定子为较佳实施例，其系于各该磁盘1与各该线圈盘2中心分别形成有一轴孔100、200，供一旋转轴3穿枢，且磁盘1轴孔100与旋转轴3形成有相对应的键部105、300，使磁盘1可被旋转轴3带动相对线圈盘2旋转，再者各该相对感应列组20的感应件21对应磁列组10第一磁性件、第二磁性件11、12的位置可呈对位排列或错位排列，以提高同一时间点的磁助力或使磁列组10能被持续作用推动，可有效提高运动方向的惯性力。Another preferred embodiment of the present invention is shown in FIG. 4 and FIG. 5. The embodiment is a disk type matrix generator which is formed by interleaving at least one magnetic disk 1 and at least one coil disk 2. Each of the magnetic disks 1 is provided with at least one magnetic column group 10 which are opposite to each other in the same polarity, so that the magnetic current is oriented and the magnetic wires are dense, and each of the coil disks 2 is provided with at least one sensing column group 20, and the magnetic column The group 10 is opposite to the sensing array 20, and each of the magnetic disk 1 and each of the coil disks 2 can be respectively defined as a rotor or a stator for synchronously moving relative to each other. And each of the coils 2 as a stator is a preferred embodiment, and a shaft hole 100 and 200 are respectively formed in the center of each of the magnetic disk 1 and each of the coil disks 2 for pivoting a rotating shaft 3 and a shaft hole of the disk 1 100 and the rotating shaft 3 are formed with corresponding key portions 105, 300, so that the magnetic disk 1 can be rotated by the rotating shaft 3 relative to the coil disk 2, and the sensing member 21 of each of the opposing sensing arrays 20 corresponds to the magnetic column group 10 The positions of a magnetic member and the second magnetic members 11 and 12 may be arranged in an alignment or a misalignment to increase the same time point. Or a magnetic power of the magnetic column group 10 can promote sustained action, can effectively increase the inertia force of the direction of movement.

又，如图6、图7所示，则系本发明的次一较佳实施例，该实施例呈环式 的矩阵化发电机，其由至少一磁盘1与至少一线圈盘2间隔交错设置而成，各该磁盘1上设有互为同极相并的至少二同轴心的磁列组10，以使磁流定向及磁线密实，而各该线圈盘2上设有至少二同轴心的感应列组20，且各该同径的磁列组10与感应列组20呈相对状，再者各该磁盘1的相并磁列组10A、10B的第一磁性件11A、11B或第二磁性件12A、12B的两端向轴心呈相对应收束，且各该线圈盘2的相并感应列组20A、20B的感应件21A、21B的两端也向轴心呈相对应收束，再者各该磁盘1与各该线圈盘2可分别被定义为转子或定子，供同步互相产生相对运动，本发明系以各该磁盘1作为转子、且各该线圈盘2作为定子为较佳实施例，其系于各该磁盘1与各该线圈盘2中心分别形成有一轴孔100、200，供一旋转轴3穿枢，且磁盘1轴孔100与旋转轴3形成有相对应的键部105、300，使磁盘1可被旋转轴3带动相对线圈盘2旋转，再者各该相并感应列组20的感应件21对应磁列组10第一磁性件、第二磁性件11、12的位置可呈对位排列或错位排列，以提高同一时间点的磁助力或使磁列组10能被持续作用推动，可有效提高运动方向的惯性力。6 and 7, which is a second preferred embodiment of the present invention, the embodiment is in the form of a ring. a matrix generator, which is formed by interlacing at least one magnetic disk 1 and at least one coil disk 2, and each of the magnetic disks 1 is provided with at least two concentric magnetic field groups 10 which are mutually homopolar and The magnetic current is oriented and the magnetic wire is dense, and each of the coil disks 2 is provided with at least two coaxial sensing arrays 20, and each of the magnetic columns 10 of the same diameter and the sensing array 20 are opposite each other. Both ends of the first magnetic members 11A, 11B or the second magnetic members 12A, 12B of the phase magnetic groups 10A, 10B of the magnetic disk 1 are correspondingly bundled toward the axis, and the respective coil disks 2 are merged. The two ends of the sensing elements 21A, 21B of the sensing arrays 20A, 20B are also correspondingly converged toward the axis, and each of the magnetic disks 1 and each of the coil disks 2 can be defined as a rotor or a stator, respectively, for simultaneous generation. For the relative movement, the present invention is characterized in that each of the magnetic disk 1 is used as a rotor, and each of the coil disks 2 is used as a stator, and a shaft hole 100, 200 is formed in each of the magnetic disk 1 and each of the coil disks 2 respectively. a pivot shaft 3 is pivoted, and the disk 1 shaft hole 100 and the rotating shaft 3 are formed with corresponding key portions 105, 300, so that the magnetic disk 1 can be rotated by the shaft 3 The position of the first magnetic member and the second magnetic member 11 and 12 of the magnetic array 10 can be aligned or misaligned, and the position of the first magnetic member and the second magnetic member 11 and 12 of the magnetic array 10 can be aligned. Increasing the magnetic assistance at the same time point or enabling the magnetic array 10 to be pushed by the continuous action can effectively increase the inertial force in the direction of motion.

再者，如图8所示，本发明感应列组20的感应件21的导磁体22两端分别形成有一与线圈25同径的磁轭220，各该导磁体22的两端磁轭220相对内侧可供该线圈25两端贴抵，如此可避免线圈25上残存磁流产生磁应力干扰及强化导磁体22导磁效果，让感应件21的导磁至二端互为相异磁极更为完全。Further, as shown in FIG. 8, the two ends of the magnetizer 22 of the sensing member 21 of the sensing array 20 of the present invention are respectively formed with a yoke 220 having the same diameter as the coil 25. The yokes 220 of the two ends of the magnetizer 22 are opposite. The inner side can be attached to the two ends of the coil 25, so that the magnetic flux remaining on the coil 25 can be prevented from generating magnetic stress interference and the magnetic conductive effect of the magnetizer 22 can be enhanced, so that the magnetic conduction of the sensing member 21 to the two ends is different from each other. complete.

如此，可以理解到本发明为一创意极佳的实用新型，除了有效解决习式者所面临的问题，更大幅增进功效，且在相同的技术领域中未见相同或近似的产品实用新型或公开使用，同时具有功效的增进，故本发明已符合发明专利有关新颖性与创造性的条件，乃依法提出申请发明专利。 Thus, it can be understood that the present invention is an innovative utility model, which not only effectively solves the problems faced by the practitioners, but also greatly enhances the efficiency, and does not see the same or similar product utility models or disclosures in the same technical field. The use and the improvement of the efficacy at the same time, the invention has been in accordance with the novelty and inventive conditions of the invention patent, and the invention patent is filed according to law.

Claims (12)

一种全载发电装置，其特征在于：其由一磁列组及一感应列组所组成，且该磁列组与该感应列组能够产生相对运动；A full-load power generation device, which is composed of a magnetic column group and an induction column group, and the magnetic column group and the sensing column group can generate relative motion; 其中该磁列组沿运动方向排列有至少一第一磁性件及至少一第二磁性件，各该第一磁性件、第二磁性件的长度相等，且各该第一磁性件、第二磁性件呈运动方向充磁，相邻的第一磁性件、第二磁性件的磁极呈同极相邻，相邻的第一磁性件、第二磁性件或第二磁性件、第一磁性件间具有一等宽的磁隙，各该第一磁性件、第二磁性件的长度等于磁隙宽度；The magnetic column group is arranged with at least one first magnetic member and at least one second magnetic member in a moving direction, and each of the first magnetic member and the second magnetic member has the same length, and each of the first magnetic member and the second magnetic member The magnets are magnetized in the moving direction, and the magnetic poles of the adjacent first magnetic member and the second magnetic member are adjacent to each other, and the adjacent first magnetic member, second magnetic member or second magnetic member, and first magnetic member Having a magnetic gap of one equal width, the length of each of the first magnetic member and the second magnetic member is equal to the width of the magnetic gap; 而该感应列组平行设于磁列组的一侧，且该感应列组分别具有一个以上同轴线的感应件，各该感应件分别具有一导磁体及一绕设于导磁体的线圈，且各该线圈并连接有一负载，令感应列组于连通负载时能够呈运动方向激磁，再者各该感应件的线圈长度等于磁隙宽度，而导磁体长度为线圈长度的二倍，且线圈中心并与导磁体中心相对。The sensing column group is disposed in parallel on one side of the magnetic column group, and the sensing column group respectively has one or more coaxial line sensing members, and each of the sensing members has a magnetizer and a coil wound around the magnetizer. And each of the coils is connected with a load, so that the sensing column group can be excited in the moving direction when the load is connected, and the coil length of each of the sensing members is equal to the width of the magnetic gap, and the length of the magnetizer is twice the length of the coil, and the coil The center is opposite to the center of the magnetizer. 根据权利要求1所述的全载发电装置，其特征在于：该感应列组的感应件的导磁体两端分别形成有一与线圈同径的磁轭，各该导磁体的两端磁轭相对内侧可供该线圈两端贴抵。The full-load power generating device according to claim 1, wherein a magnetic yoke of the same diameter as the coil is formed at each end of the magnet of the sensing member of the sensing array, and the yokes of the two ends of the magnet are opposite to the inner side. The ends of the coil can be attached. 一种全载发电装置，其特征在于：其由二组以上的磁列组及二组以上的感应列组所组成，且各该磁列组呈同极相对的相间隔设置、而各该感应列组分别等距设于两两相对的磁列组之间，且各该磁列组与各该感应列组能够同步产生相对运动；A full-load power generation device is characterized in that it is composed of two or more magnetic column groups and two or more groups of sensing columns, and each of the magnetic column groups is disposed at opposite intervals of the same pole, and each of the sensing groups The column groups are respectively equidistantly disposed between the two pairs of opposite magnetic column groups, and each of the magnetic column groups and each of the sensing column groups can synchronously generate relative motion; 其中各该磁列组沿运动方向排列有至少一第一磁性件及至少一第二磁性件，各该第一磁性件、第二磁性件的长度相等，且各该第一磁性件、第二磁性件呈运动方向充磁，相邻的第一磁性件、第二磁性件的磁极呈同极相邻，相邻的第一磁性件、第二磁性件或第二磁性件、第一磁性件间具有一等宽的磁隙，各该第一磁性件、第二磁性件的长度等于磁隙宽度；Each of the magnetic arrays has at least one first magnetic member and at least one second magnetic member arranged in a moving direction, and each of the first magnetic member and the second magnetic member has the same length, and each of the first magnetic members and the second The magnetic member is magnetized in the moving direction, and the magnetic poles of the adjacent first magnetic member and the second magnetic member are adjacent to the same pole, and the adjacent first magnetic member, second magnetic member or second magnetic member, first magnetic member Between the first magnetic member and the second magnetic member, the length of each of the first magnetic member and the second magnetic member is equal to the width of the magnetic gap; 而各该感应列组平行设于磁列组的一侧，且该感应列组分别具有一个以上同轴线的感应件，各该感应件分别具有一导磁体及一绕设于导磁体的线圈，且各该线圈并连接有一负载，令感应列组于连通负载时能够呈运动方向激磁，再者各该感应件的线圈长度等于磁隙宽度，而导磁体长度为线圈长度的二倍，且 线圈中心并与导磁体中心相对。Each of the sensing arrays is disposed in parallel with one side of the magnetic array, and the sensing arrays respectively have one or more coaxial sensing members, and each of the sensing members has a magnet and a coil wound around the magnet. And each of the coils is connected with a load, so that the sensing array can be excited in the moving direction when the load is connected, and the length of each of the sensing members is equal to the width of the magnetic gap, and the length of the magnetic conductor is twice the length of the coil, and The center of the coil is opposite the center of the magnetizer. 根据权利要求3所述的全载发电装置，其特征在于：该全载发电装置是盘式的矩阵化发电机，其由至少一磁盘与至少一线圈盘间隔交错设置而成，各该磁盘上设有至少一磁列组，而各该线圈盘上设有至少一感应列组，且磁列组与感应列组呈相对状。The full load power generating device according to claim 3, wherein the full load power generating device is a disk type matrix generator, which is formed by interleaving at least one magnetic disk and at least one coil disk, each of the disks At least one magnetic column group is disposed, and each of the coil disks is provided with at least one sensing column group, and the magnetic column group and the sensing column group are opposite to each other. 根据权利要求3或4所述的全载发电装置，其特征在于：各该相对的感应列组的感应件对应磁列组相对磁性件的位置呈对位排列，以提高同一时间点的磁助力。The full-load power generating device according to claim 3 or 4, wherein the sensing members of the opposite sensing arrays are aligned with respect to the position of the magnetic column group relative to the magnetic members to improve the magnetic assistance at the same time point. . 根据权利要求3或4所述的全载发电装置，其特征在于：各该相对的感应列组的感应件对应磁列组相对磁性件的位置呈错位排列，使磁列组能被持续作用推动，以提高运动方向的惯性力。The full-load power generating device according to claim 3 or 4, wherein the sensing members of the opposite sensing arrays are arranged in a dislocation relative to the position of the magnetic column group relative to the magnetic members, so that the magnetic array can be continuously driven. To increase the inertial force of the direction of motion. 根据权利要求3或4所述的全载发电装置，其特征在于：各该感应列组的感应件的导磁体两端分别形成有一与线圈同径的磁轭，各该导磁体的两端磁轭相对内侧可供该线圈两端贴抵。The full-load power generating device according to claim 3 or 4, wherein a magnetic yoke of the same diameter as the coil is formed at each end of the magnet of the sensing member of each of the sensing arrays, and magnetic fluxes at both ends of the magnet are respectively The yoke is opposite to the inner side for the ends of the coil to abut. 一种全载发电装置，其特征在于：其由二组以上的磁列组及二组以上的感应列组所组成，且各该磁列组呈同极并排的相并列设置，而各该感应列组分别等距设于两两相并的磁列组的一侧，且各该磁列组与各该感应列组能够同步产生相对运动；A full-load power generating device is characterized in that: two or more magnetic column groups and two or more sensing column groups are formed, and each of the magnetic column groups is arranged side by side in parallel with each other, and each of the sensing electrodes The column groups are respectively equidistantly disposed on one side of the two-two-phase magnetic column group, and each of the magnetic column groups and each of the sensing column groups can synchronously generate relative motion; 其中各该磁列组沿运动方向排列有至少一第一磁性件及至少一第二磁性件，各该第一磁性件、第二磁性件的长度相等，且各该第一磁性件、第二磁性件呈运动方向充磁，相邻的第一磁性件、第二磁性件的磁极呈同极相邻，相邻的第一磁性件、第二磁性件或第二磁性件、第一磁性件间具有一等宽的磁隙，各该第一磁性件、第二磁性件的长度等于磁隙宽度；Each of the magnetic arrays has at least one first magnetic member and at least one second magnetic member arranged in a moving direction, and each of the first magnetic member and the second magnetic member has the same length, and each of the first magnetic members and the second The magnetic member is magnetized in the moving direction, and the magnetic poles of the adjacent first magnetic member and the second magnetic member are adjacent to the same pole, and the adjacent first magnetic member, second magnetic member or second magnetic member, first magnetic member Between the first magnetic member and the second magnetic member, the length of each of the first magnetic member and the second magnetic member is equal to the width of the magnetic gap; 而各该感应列组平行设于磁列组的一侧，且该感应列组分别具有一个以上同轴线的感应件，各该感应件分别具有一导磁体及一绕设于导磁体的线圈，且各该线圈并连接有一负载，令感应列组于连通负载时能够呈运动方向激磁，再者各该感应件的线圈长度等于磁隙宽度，而导磁体长度为线圈长度的二倍，且线圈中心并与导磁体中心相对。Each of the sensing arrays is disposed in parallel with one side of the magnetic array, and the sensing arrays respectively have one or more coaxial sensing members, and each of the sensing members has a magnet and a coil wound around the magnet. And each of the coils is connected with a load, so that the sensing array can be excited in the moving direction when the load is connected, and the length of each of the sensing members is equal to the width of the magnetic gap, and the length of the magnetic conductor is twice the length of the coil, and The center of the coil is opposite the center of the magnetizer. 根据权利要求8所述的全载发电装置，其特征在于：该全载发电装置可以是环式的矩阵化发电机，其由至少一磁盘与至少一线圈盘间隔交错设置而 成，各该磁盘上设有至少二同轴心的磁列组，而各该线圈盘上设有至少二同轴心的感应列组，且各该同径的磁列组与感应列组呈相对状，再者各该磁盘的相并磁列组的第一磁性件与第二磁性件的两端向轴心呈相对应收束，且各该线圈盘的相并感应列组的感应件的导磁体与线圈的两端也向轴心呈相对应收束。The full-load power generating device according to claim 8, wherein the full-load power generating device is a ring-type matrix generator, which is interleaved by at least one magnetic disk and at least one coil disk. Each of the magnetic disks is provided with a magnetic column group of at least two concentric cores, and each of the coil disks is provided with at least two coaxial sensing group groups, and each of the magnetic column groups and the sensing column groups of the same diameter are In a relative shape, the first magnetic member of the phase magnetic group of each of the magnetic disks and the two ends of the second magnetic member are correspondingly bundled toward the axis, and the sensing members of the phase-inducing array of the coil disks are respectively The two ends of the magnet and the coil are also correspondingly bundled toward the axis. 根据权利要求8或9所述的全载发电装置，其特征在于：各该相并的感应列组的感应件对应磁列组相并磁性件的位置呈对位排列，以提高同一时间点的磁助力。The full-load power generating device according to claim 8 or 9, wherein the sensing members of the adjacent sensing arrays are aligned with the magnetic column group and the magnetic members are aligned to improve the same time point. Magnetic assistance. 根据权利要求8或9所述的全载发电装置，其特征在于：各该相并的感应列组的感应件对应磁列组相并磁性件的位置呈错位排列，使磁列组能被持续作用推动，以提高运动方向的惯性力。The full-load power generating device according to claim 8 or 9, wherein the sensing members of the adjacent sensing arrays are arranged in a position corresponding to the magnetic column group and the magnetic members are arranged in a misaligned manner, so that the magnetic array can be continued. The action is pushed to increase the inertial force in the direction of motion. 根据权利要求8或9所述的全载发电装置，其特征在于：各该感应列组的感应件的导磁体两端分别形成有一与线圈同径的磁轭，各该导磁体的两端磁轭相对内侧可供该线圈两端贴抵。 The full-load power generating device according to claim 8 or 9, wherein a magnetic yoke of the same diameter as the coil is formed on each of the two ends of the magnet of the sensing member of each of the sensing arrays, and magnetic ends of the magnetic conductors are respectively The yoke is opposite to the inner side for the ends of the coil to abut.
PCT/CN2016/000568 2016-10-14 2016-10-14 Full load power generation device Ceased WO2018068162A1 (en)

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CN202535236U (en) * 2011-09-30 2012-11-14 武汉振兴天帝机电有限公司 Multipath magnetic circuit disk generator
CN104065232A (en) * 2013-03-19 2014-09-24 张锡虎 Electric Motor Combined With Power Generator
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