Magnetic energy controlled power generation system

Abstract

A magnetic energy control power generation system includes: a base, on which a magnetic control unit, three sets of energy storage devices, three controllers, and a crankshaft are mounted, and the crankshaft is interconnected with a generator and a drive motor. The magnetic control unit has three vertical tubes fixed on the base, each tube housing a magnetic core, and each tube is wound with an electromagnetic coil. When the electromagnetic coil is energized, the magnetic pole direction is changed, causing the magnetic core to be pushed upward and extended, or pushed upward and then pulled back. The crankshaft is horizontally pivotally mounted on the base, and three connecting rods are connected to the crankshaft. The three connecting rods are pivotally connected to the three magnetic cores, so that the extension or retraction of the magnetic cores drives the crankshaft to rotate via the connecting rods.

Description

[Technical Field]

[0001] This invention relates to a "magnetic energy controlled power generation system" that uses the change of magnetic pole direction for driving. [Previous Technology]

[0002] According to the present invention, most commonly known generators, as disclosed in the People’s Republic of China Publication No. CN1664356, have a bottom shaft frame (12) fixed at the bottom of the body (1), and a bottom shaft (11) is installed on the bottom shaft frame (12) (the shaft can rotate after installation). The booster cylinder (10) is fixed on the bottom shaft (11). A connector (4) is installed at the top of the booster cylinder telescopic rod (3). The connector (4) is connected to the crankshaft (5). Both ends of the crankshaft (5) are installed above the body (1). A gear is fixed at one end of the crankshaft (5) and connected to the gear set (6). The power is transmitted to the generator (7) through the transmission and speed change of the gear set (6). The hydraulic pump (2) is installed outside the body (1). The hydraulic pump (2) is connected to the booster cylinder (10) by a pipeline (8).

[0003] In use, the booster cylinder telescopic rod (3) drives the connecting piece (4) to move up and down. The shaft moves in a circular motion through the connecting piece (4). The crankshaft (5) is driven by the gear set (6) to change speed so that the generator (7) generates electricity.

[0004] The crankshaft (5) is divided into two groups, ab is the first group and cd is the second group. When the first group starts working at 45 degrees, a runs to 135 degrees and b runs to 315 degrees and stops. At this time, d runs to 45 degrees and c runs to 225 degrees and starts working at the same time. d runs to 135 degrees and c runs to 315 degrees. The two groups run alternately.

[0005] However, the conventional structure described above still has the following problems in practical applications: it uses a booster cylinder (10) to hydraulically drive the booster cylinder telescopic rod (3) to perform telescopic system, which consumes a lot of energy, resulting in poor power generation efficiency of the generator.

[0006] Therefore, the inventor, in view of this, conceived the idea of ​​creation and designed it based on many years of experience. After extensive discussions, sample testing, and multiple revisions and improvements, the present invention was launched.

[0008] It is known that generators have poor power generation efficiency, which is a technical problem that needs to be solved.

[0010] The magnetic energy control power generation system of the present invention comprises: a base, on which a magnetic control unit, three sets of energy storage devices, three controllers, and a crankshaft are mounted, and the crankshaft is interconnected with a generator and a drive motor. The magnetic control unit has three vertical tubes fixed linearly on the base. Each vertical tube contains a magnetic core, and each is externally wound with an electromagnetic coil. When the electromagnetic coil is energized, the magnetic pole direction is changed, causing the magnetic core to be pushed upwards and extended, or pushed upwards and then pulled back. Each electromagnetic coil of each vertical tube is connected to one set of energy storage devices. Each energy storage device consists of at least one battery to store the electricity generated after power generation. Each energy storage device is individually controlled by one of the controllers, and each energy storage device has a rectifier, and they are all connected to the drive motor through an inverter and a frequency converter. The crankshaft is horizontally pivotally mounted on the base, and a [missing information - likely a component or component] is attached to the crankshaft. Three connecting rods are pivotally connected to three magnetic cores, allowing the crankshaft to rotate via the extension or retraction of the magnetic cores. The crankshaft has three sets of cams, each spaced at an angle to correspond to a connecting rod and a magnetic core. Each cam has two angle sensors. When the crankshaft rotates due to the connecting rods and magnetic cores, and the angle sensors detect that the connecting rod has reached its maximum or minimum stroke position, the measured angle signal is transmitted to the controller. The controller then immediately changes the magnetic poles of the electromagnetic coil. The weight of the cams themselves generates inertial acceleration during downward rotation, effectively reducing the energy consumed by the crankshaft during upward rotation and significantly improving power generation efficiency. The generator is connected to the rectifier of the energy storage device via a transformer. This constitutes the magnetic energy controlled power generation system.

[0012] The magnetic energy control power generation system of the present invention utilizes the change of the magnetic poles of the electromagnetic coil to drive the crankshaft to rotate via the magnetic core and the connecting rod. It has the advantage of low power generation energy consumption. In addition, the weight of the cam itself generates inertial acceleration force when rotating downwards, which makes it easier for the crankshaft to be driven to rotate upwards. In this way, the power generation efficiency can be greatly improved. [Simplified Explanation of the Diagram]

[0022] [Figure 1] is a block structure diagram of the present invention.

[0023] [Figure 2] is a perspective view of the present invention.

[0024] [Figure 3] is a partial exploded view of the present invention.

[0025] [Figure 4] is a plan view of the present invention.

[0026] [Figure 5] is a plan view of the present invention from another angle.

[0027] [Figure 6] is a state diagram of the present invention using the extension of the magnetic core to push the connecting rod.

[0028] [Figure 7] is a diagram showing the magnetic core of the present invention fully extended.

[0029] [Figure 8] is a diagram showing the state of the crankshaft of the present invention being driven to rotate.

[0030] [Figure 9] is a state diagram of the magnetic core retraction controlled by the present invention.

Implementation Method

[0013] To enable your review committee to have a better understanding of the purpose, features and effects of this invention, the following is a detailed description in conjunction with the [simple description of the drawings]:

[0014] According to the present invention, as shown in Figures 1 to 5, it generally includes: a base (10), on which a magnetic control unit (20), three sets of energy storage devices (30), three controllers (40) and a crankshaft (50) are provided, and the crankshaft (50) is connected to a generator (60) and a drive motor (70). The magnetic control unit (20) has three vertical tubes (21) fixed in a straight line on the base (10). Each vertical tube (21) is fitted with a magnetic core (22), and each is externally wound with an electromagnetic coil (23). The direction of the magnetic pole is changed by energizing the electromagnetic coil (23). Changing the N pole to the S pole and then back to the N pole will allow the magnetic core (22) to be pushed upwards and extended, or pushed upwards and then pulled back. The electromagnetic coil (23) of each of the risers (21) is connected to a set of energy storage devices (30). Each energy storage device (30) consists of at least one battery (31) to store the electricity generated after power generation. Each energy storage device (30) is individually controlled by a controller (40), and each energy storage device (30) is equipped with a rectifier (32), and they are all connected to the drive motor (70) through an inverter (33) and a frequency converter (34). The crankshaft (50) is horizontally pivotally mounted on the base (10). Three connecting rods (51) are attached to the crankshaft (50). These three connecting rods (51) are pivotally connected to three magnetic cores (22), allowing the crankshaft (50) to rotate via the connecting rods (51) through the extension or retraction of the magnetic cores (22). The crankshaft (50) is equipped with three sets of cams (52), each cam (52) installed at an angle to correspond to one connecting rod (51) and one magnetic core (22). Each cam (52) is equipped with two angle sensors (53). When the crankshaft (50) is rotated by the connecting rods (51), the angle sensor detects the angle of rotation. 51) When the magnetic core (22) rotates, the angle sensor (53) detects that the connecting rod (51) has reached the highest or lowest stroke position. Then, the measured angle signal is transmitted to the controller (40), and the controller (40) immediately changes the magnetic pole of the electromagnetic coil (23). The cam (52) generates inertial acceleration force when it rotates downwards due to its own weight. This can also effectively reduce the electrical energy consumed by the crankshaft (50) when it rotates upwards, thereby greatly improving the power generation efficiency. The generator (60) is connected to the rectifier (32) of the energy storage device (30) through a transformer (61).

[0015] The present invention provides a magnetic energy control power generation system, wherein the base (10) is provided with two support frames (11) so as to provide the crankshaft (50) for pivoting.

[0016] The present invention provides a magnetic energy control power generation system, wherein each cam (52) is composed of two cam blocks (521), and the cam (52) can be smoothly clamped on the crankshaft (50) by the docking of the two cam blocks (521), and the two angle sensors (53) of each cam (52) are respectively installed on the two cam blocks (521).

[0017] The present invention provides a magnetic energy control power generation system, wherein the angle sensor (53) transmits the measured signal to the controller (40) using wireless transmission methods such as Bluetooth.

[0018] As described above, the three magnetic cores (22) drive the crankshaft (50) to rotate via the three connecting rods (51) (each connecting rod 51 drives the crankshaft 50 to rotate 120 degrees). By using the angle sensor (53) to detect the rotation angle, the controller (40) can change the magnetic pole of the electromagnetic coil (23) when the connecting rod (51) and the magnetic core (22) rotate to the lowest stroke position (or bottom dead center), so that the magnetic core (22) can be pushed up smoothly (please view Figures 6, 7, and 8 simultaneously). Conversely, when the connecting rod (51) rotates to the highest stroke position (or top dead center), the controller (40) will change the electromagnetic coil again. The magnetic poles of (23) allow the magnetic core (22) to be pulled down and retracted (see Figure 9). This repeated action will cause the crankshaft (50) to rotate continuously, thus generating electricity. Through the transformer (61) and the rectifier (32) for voltage transformation and rectification, the generated electricity can be stored in the battery (31) of the energy storage device (30) after deducting necessary consumption (the consumption refers to the power consumption of the drive motor 70 and the electromagnetic coil 23 under normal operation) during off-peak hours when the power consumption scale is small. During peak hours, the stored power will be connected to the power grid through the inverter (33) and the frequency converter (34) to achieve a magnetic energy control system that combines power generation and energy storage.

[0019] The above-mentioned magnetic energy control power generation system has the following advantages: it uses the change of the magnetic pole of the electromagnetic coil (23) to drive the crankshaft (50) to rotate through the magnetic core (22) and the connecting rod (51), which has the advantage of low power generation energy consumption. In addition, the weight of the cam (52) itself generates inertial acceleration force when rotating downward, which can make the crankshaft (50) more easily driven to rotate upward. In this way, the power generation efficiency can be greatly improved.

[0020] The above description is only one preferred embodiment of the present invention and should not be construed as limiting the scope of the present invention; that is, all equivalent changes and modifications made in accordance with the scope of the patent application of the present invention should still fall within the scope of the present invention.

Claims

1. A magnetic energy-controlled power generation and supply system, comprising: a base, on which a magnetic control unit, three sets of energy storage devices, three controllers, and a crankshaft are mounted, wherein the crankshaft is interconnected with a generator and a drive motor, wherein: The magnetic control unit has three vertical tubes fixed on the base. Each vertical tube has a magnetic core and an electromagnetic coil wound around it. When the electromagnetic coil is energized, the direction of the magnetic pole is changed, which can push the magnetic core upward and extend it, or push it upward and then pull it back. The electromagnetic coil of each vertical tube is connected to a group of energy storage devices. The energy storage device is composed of at least one battery to store the electricity generated after power generation. Each energy storage device is individually controlled by a controller, and each energy storage device is equipped with a rectifier. They are connected to the drive motor through an inverter and a frequency converter. The crankshaft is horizontally pivotally mounted on the base. Three connecting rods are connected to the crankshaft, each pivotally connected to one of the three magnetic cores. The extension or retraction of the magnetic cores drives the crankshaft to rotate via the connecting rods. The crankshaft also has three sets of cams, each spaced at an angle to correspond to one connecting rod and one magnetic core. Each cam has two angle sensors. When the crankshaft rotates due to the connecting rods and magnetic cores, and the angle sensors detect that the connecting rods have reached their maximum or minimum travel positions, the measured angle signal is transmitted to the controller. The controller then immediately changes the magnetic poles of the electromagnetic coil. The weight of the cams themselves generates inertial acceleration during downward rotation, effectively reducing the energy consumed when the crankshaft rotates upwards, thus significantly improving power generation efficiency. The generator is connected to the rectifier of the energy storage device via a transformer.

2. The magnetic energy controlled power generation and supply system as described in claim 1, wherein, The base is provided with two support frames, which are used to pivot the crankshaft.

3. The magnetic energy controlled power generation and supply system as described in claim 1, wherein, Each of the cams is composed of two cam blocks. By connecting the two cam blocks, the cam can be smoothly clamped onto the crankshaft, and the two angle sensors of each cam are respectively mounted on the two cam blocks.

4. The magnetic energy controlled power generation and supply system as described in claim 1, wherein, The angle sensor transmits the measured signal to the controller wirelessly.

Images