A power generation and supply system controlled by magnetic energy.

Abstract

This invention provides a magnetic energy-controlled power supply system for power generation that reduces energy consumption during power generation and significantly improves power generation efficiency. [Solution] The system includes a base 10 on which a magnetic control unit 20 is mounted above, three energy storage devices 30, three controllers 40, and a crankshaft 50. The crankshaft is connected to a generator 60 and a drive unit 70. The magnetic control unit has three upright tubes 21 fixed to the base, each with a magnetic core 22 fitted inside, and each with an electromagnetic coil 23 wound around it. After energizing the electromagnetic coils, the magnetic pole direction is changed to push the magnetic cores upward and make them protrude, or push them upward and then pull them back. The crankshaft is pivotally mounted horizontally on the base, and three link rods 51 are joined to the crankshaft. The three link rods are pivotally connected to the three magnetic cores, and the crankshaft can be moved and rotated by the link rods using the protrusion or retraction of the magnetic cores.

Description

Technical Field

[0001] The present invention relates to a "power supply system for power generation controlled by magnetic energy" that operates using changes in the direction of magnetic poles.

Background Art

[0002] Hitherto, conventional generators are mainly like those disclosed in the Chinese Patent Publication No. CN1664356. A spindle frame (12) is fixed to the bottom of the machine body (1), and a spindle (11) is attached to the spindle frame (12) (the attached spindle is rotatable). A booster cylinder (10) is fixed to the spindle (11), and a connector (4) is attached to the top end of the telescopic rod (3) of the booster cylinder. The connector (4) is connected to a crankshaft (5), and both ends of the crankshaft (5) are attached to the upper side of the machine body (1). A gear is fixed to one end of the crankshaft (5) and is connected to a gear assembly (6). Power is transmitted to a generator (7) so that the gear assembly (6) transmits and shifts gears. A hydraulic pump (2) is attached outside the machine body (1), and the hydraulic pump (2) is connected to the booster cylinder (10) via a pipe (8).

[0003] When in use, the telescopic rod (3) of the booster cylinder moves the connector (4) to perform up and down movements. The crankshaft (5) performs circular motion via the connector (4). The crankshaft (5) causes the generator (7) to generate electricity through the transmission and gear shifting of the gear assembly (6).

[0004] Also, the crankshaft (5) is divided into two groups. ab is the first group, and cd is the second group. When the first group reaches 45°, operation starts. a rotates until 135°, b rotates until 315° and stops. At this time, d reaches 45°, c reaches 225°, and operation starts simultaneously. d rotates until 135°, c rotates until 315°, and the two groups operate alternately.

[0005] However, the conventional structure described above still has the following problems in actual applications. Because the extension rod (3) of the pressure boosting cylinder (10) is extended and retracted hydraulically using the pressure boosting cylinder, it consumes a relatively large amount of energy, and as a result, the generator has the problem of poor power generation efficiency.

[0006] Therefore, taking this into consideration, the inventor conceived the idea for the invention, designed it based on many years of experience, and completed the invention after numerous discussions, prototype testing of samples, and several modifications and improvements. [Overview of the project] [Problems that the invention aims to solve]

[0007] The problem of poor power generation efficiency in conventional generators is a technical issue that this invention aims to solve. [Means for solving the problem]

[0008] Technical points for solving the problem The present invention relates to a power generation power supply system controlled by magnetic energy, comprising a base on which a magnetic control unit is mounted, three energy storage devices, three controllers, and a crankshaft, wherein the crankshaft is connected to a generator and a drive unit, the magnetic control unit has three vertical tubes fixed linearly to the base, each of which has a magnetic core fitted inside, and each of which has an electromagnetic coil wound around it, and by changing the direction of the magnetic pole after energizing the electromagnetic coil, the magnetic core can be pushed upward and made to protrude, or pushed upward and then pulled back, the electromagnetic coil of each vertical tube is connected to each of the energy storage devices, each of which consists of at least one battery, the battery stores the power generated after power generation, each of the energy storage devices is controlled independently by the controller, each of which is provided with a rectifier, and is connected to the drive unit via an inverter and a converter, and the crankshaft is on the base The crankshaft is pivotally mounted horizontally, and three link rods are connected to it. Each of the three link rods is pivotally connected to one of the three magnetic cores. By using the protrusion or retraction of the magnetic cores, the crankshaft can be moved and rotated by the link rods. Furthermore, three cams are provided on the crankshaft, and each cam is mounted at an angle to the others. Each cam is positioned relative to the respective link rod and magnetic core, and each cam is equipped with two angle sensors. When the crankshaft is moved and rotated by the link rods and magnetic cores, the angle sensors detect that the link rod has reached the top stroke position or the bottom stroke position. After the detected angle signal is transmitted to the controller, the controller can immediately switch the magnetic poles of the electromagnetic coil. Additionally, the weight of the cams themselves generates an inertial acceleration force when rotating downwards, and the power consumption required when the crankshaft rotates upwards can be effectively reduced.The power generation efficiency is significantly improved, and the generator is connected to the rectifier of the energy storage device via a transformer, thereby forming the structure of a power supply system for power generation controlled by magnetic energy. [Effects of the Invention]

[0009] Effects obtained compared to conventional technology According to the magnetic energy-controlled power supply system of the present invention, the change in the magnetic poles of the electromagnetic coil is used to move and rotate the crankshaft with the magnetic core and the link rod, which has the advantage of lower energy consumption during power generation. Furthermore, the weight of the cam itself generates an inertial acceleration force when rotating downwards, and the crankshaft can be moved upwards and rotated more easily, thereby significantly improving power generation efficiency. [Brief explanation of the drawing]

[0010] [Figure 1] This is a block diagram of the present invention. [Figure 2] This is a three-dimensional diagram of the present invention. [Figure 3] This is an exploded view showing a part of the present invention. [Figure 4] This is a plan view of the present invention. [Figure 5] This is a plan view of the present invention from a different angle. [Figure 6] This is a schematic diagram showing the state in which the link rod is pushed using the protrusion of the magnetic core of the present invention. [Figure 7] This is a front view showing the magnetic core of the present invention in a fully protruding state. [Figure 8] This is a front view showing the crankshaft of the present invention in a state of movement and rotation. [Figure 9] This is a schematic diagram showing the magnetic core of the present invention in a controlled and retracted state. [Modes for carrying out the invention]

[0011] In order to ensure a thorough understanding and recognition of the purpose, features, and effects of this invention, the following will provide a detailed explanation, using the drawings in the brief description of the drawings as examples of implementation.

[0012] Generally, according to the present invention, as shown in Figures 1 to 5, the present invention includes a base (10) on which a magnetic control unit (20) is mounted, three energy storage devices (30), three controllers (40), and a crankshaft (50), and the crankshaft (50) is connected to a generator (60) and a drive unit (70), and the magnetic control unit (20) has three vertical tubes (21) fixed linearly to the base (10), and each of the vertical tubes (21) has a magnetic core (22) fitted inside, and on the outside there are An electromagnetic coil (23) is wound around the tube, and after energizing the electromagnetic coil (23), the magnetic pole direction is changed (for example, changing the N pole to the S pole and then back from the S pole to the N pole), which pushes the magnetic core (22) upward and makes it protrude, or pushes it upward and then pulls it back. The electromagnetic coil (23) of each vertical tube (21) is connected to the respective energy storage device (30), and the energy storage device (30) consists of at least one battery (31), which stores the electricity generated after power generation, and the energy Each energy storage device (30) is independently controlled by the controller (40), and each energy storage device (30) is provided with a rectifier (32), and is connected to the drive unit (70) via an inverter (33) and a converter (34). The crankshaft (50) is pivotally mounted horizontally on the base (10), and three link rods (51) are joined to the crankshaft (50). The three link rods (51) are pivotally connected to three magnetic cores (22), thereby controlling the magnetic cores (22). The crankshaft (50) can be moved and rotated by the link rod (51) using protrusion or retraction, and the crankshaft (50) is provided with three cams (52), each cam (52) is mounted at an angle to each other, so that each of the link rods (51) and the magnetic core (22) is opposed to each of the cams (52), and each of the cams (52) is provided with two angle sensors (53), so when the crankshaft (50) is moved and rotated by the link rods (51) and the magnetic core (22),When the angle sensor (53) detects that the link rod (51) has reached the top stroke position or bottom stroke position, the detected angle signal is transmitted to the controller (40), which can then immediately switch the magnetic poles of the electromagnetic coil (23). Furthermore, the weight of the cam (52) itself is used to generate inertial acceleration when it rotates downward, and the power consumption required when the crankshaft (50) rotates upward is effectively reduced, thereby significantly improving power generation efficiency. The generator (60) is connected to the rectifier (32) of the energy storage device (30) via the transformer (61).

[0013] This invention provides a power supply system for power generation controlled by magnetic energy, wherein two support frames (11) are provided on the base (10), and the crankshaft (50) is pivotally mounted on the two support frames (11).

[0014] This invention provides a power supply system for power generation controlled by magnetic energy, wherein each of the cams (52) is composed of two cam blocks (521), and the abutting of the two cam blocks (521) allows the cam (52) to be smoothly clamped to the crankshaft (50), and the two angle sensors (53) of each of the cams (52) are each attached to the two cam blocks (521).

[0015] This invention provides a power supply system for power generation controlled by magnetic energy, wherein the angle sensor (53) transmits the detected signal to the controller (40) using a wireless transmission method such as Bluetooth®.

[0016] As described above, the three magnetic cores (22) move the crankshaft (50) via the three link rods (51) to rotate it (each link rod 51 moves the crankshaft 50 and rotates it by 120°), and the angle sensor (53) is used to detect the rotation angle. When the link rods (51) and the magnetic cores (22) rotate to the bottom stroke position ("bottom dead center"), the controller (40) changes the magnetic pole of the electromagnetic coil (23), allowing the magnetic cores (22) to be smoothly pushed upward and protruded (as shown in Figures 6, 7, and 8 as a series of diagrams). Conversely, when the link rods (51) rotate to the top stroke position ("top dead center"), the controller (40) changes the magnetic pole of the electromagnetic coil again. The magnetic pole of (23) can be changed, and the magnetic core (22) can be pulled back (as shown in Figure 9). By repeating this movement, the crankshaft (50) can be rotated continuously, generating electricity smoothly. Through the transformer (61) and rectifier (32), the voltage and current are transformed and rectified. During off-peak periods when the scale of power consumption is small, the generated power can be used to store the battery (31) of the energy storage device (30) after subtracting the required power consumption (where "power consumption" refers to the power consumption of the drive unit 70 and the electromagnetic coil 23 during normal operation). During peak periods, the stored power is connected to the power grid via the inverter (33) and converter (34), forming a magnetic energy control system that combines both power generation and energy storage functions.

[0017] According to the power supply system for power generation controlled by the magnetic energy, it has the following advantages: By using the change of the magnetic poles of the electromagnetic coil (23), the crankshaft (50) is moved and rotated by the magnetic core (22) and the link rod (51), so it has the advantage that the energy consumption during power generation is smaller. Furthermore, with the weight of the cam (52) itself, an inertial acceleration force is generated when rotating downward, and further the crankshaft (50) can be moved and rotated upward more easily. In this way, the power generation efficiency can be greatly improved.

[0018] The above is only a part of the embodiments according to the present invention, and does not limit the scope of implementation of the present invention. That is, changes, modifications, etc. made within the scope of the claims of the present invention should also belong to the scope of the present invention.

Explanation of Reference Signs

[0019] 10 Base 11 Support Frame 20 Magnetic Control Unit 21 Upright Tube 22 Magnetic Core 23 Electromagnetic Coil 30 Energy Storage Device 31 Battery 32 Rectifier 33 Inverter 34 Converter 40 Controller 50 Crankshaft 51 Link Rod 52 Cam 521 Cam Block 53 Angle Sensor 60 Generator 61 Transformer 70 Driving Machine

Claims

1. A power generation and supply system controlled by magnetic energy, comprising a base on which a magnetic control unit is mounted, three energy storage devices, three controllers, and a crankshaft, wherein the crankshaft is connected to a generator and a drive unit. The magnetic control unit has three vertical tubes fixed to the base, each of which has a magnetic core fitted inside, and each has an electromagnetic coil wound around it. By energizing the electromagnetic coil and changing the direction of the magnetic poles, the magnetic core can be pushed upward and made to protrude, or pushed upward and then pulled back. The electromagnetic coils of each vertical tube are connected to their respective energy storage devices. The energy storage device consists of at least one battery, which stores the electricity generated after power generation, each energy storage device is independently controlled by the controller, each energy storage device is equipped with a rectifier, and is connected to the drive unit via an inverter and a converter. The crankshaft is pivotally mounted horizontally on the base, and three link rods are joined to the crankshaft. Each of the three link rods is pivotally connected to one of the three magnetic cores, so that the crankshaft can be moved and rotated by the protrusion or retraction of the magnetic cores using the link rods. In addition, three cams are provided on the crankshaft, and each cam is mounted at an angle to each other, so that they are in opposition to each of the link rods and magnetic cores, and each cam is provided with two angle sensors, so that when the crankshaft is moved and rotated by the link rods and magnetic cores... A magnetic energy-controlled power supply system for power generation, characterized in that when the angle sensor detects that the link rod has reached the top stroke position or the bottom stroke position, the detected angle signal is transmitted to the controller, which can then immediately switch the magnetic poles of the electromagnetic coil, and the weight of the cam itself is used to generate an inertial acceleration force when it rotates downward, and the power consumption required when the crankshaft rotates upward can be effectively reduced, thereby greatly improving power generation efficiency, and the generator is connected to the rectifier of the energy storage device via a transformer.

2. The magnetic energy-controlled power supply system for power generation according to claim 1, characterized in that two support frames are provided on the base, and the crankshaft is pivotally mounted on the two support frames.

3. The magnetic energy-controlled power supply system for power generation according to claim 1, characterized in that each of the cams is composed of two cam blocks, and the cams can be smoothly clamped to the crankshaft by butting the two cam blocks together, and the two angle sensors of each cam are each attached to the two cam blocks.

4. The magnetic energy-controlled power supply system for power generation according to claim 1, characterized in that the angle sensor can transmit the detected signal to the controller using a wireless transmission method.

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