Hybrid power generation equipment

Abstract

To provide a hybrid power generation device that generates power stably and safely in accordance with demand without limiting the purpose or place of use. [Solution] The device comprises a power unit consisting of a motor that drives a flywheel, a reciprocating engine, and a switch that switches between them; the flywheel with a permanent magnet embedded in it; a fixed ring that is installed around the flywheel and has an electromagnetic induction terminal embedded in it, which generates electromagnetic induction toward the permanent magnet of the flywheel; an electromagnetic induction unit that has a control panel that controls these; and a power generation unit that has a generator that uses the rotation of the flywheel as a power source.

Description

[Technical Field]

[0001] The present invention relates to a hybrid power generating device that uses the power of a motor and a reciprocating engine to drive a stationary flywheel, amplifies the rotation of the flywheel through electromagnetic induction, and generates electricity using the rotational power. [Background technology]

[0002] Conventionally, methods for driving a generator include applying rotational power to a flywheel and amplifying torque by utilizing the law of inertia, or amplifying the rotation speed by changing the gear ratio.

[0003] The power generating device of Patent Document 1 is a power generating device that uses a magnetic rotating device that can effectively extract energy, which is the repulsive force between magnets that rotate the rotor.

[0004] In the power generation device of Patent Document 2, a storage battery drives a motor to rotate a flywheel, and electricity is generated by the rotational motion caused by the inertia of the flywheel. This electricity is supplied to the home and to another storage battery, and the two storage batteries are switched between as needed to generate electricity, making it a self-circulating generator. [Prior art documents] [Patent documents]

[0005] [Patent Document 1] Japanese Patent Application Publication No. 2024-57680 [Patent Document 2] Utility Model Registration No. 3240538 Summary of the Invention [Problem to be solved by the invention]

[0006] However, the power generating device in Patent Document 1 is a power generating device in which a motor-driven power generating rotor and a flywheel are connected by a shaft, and a large number of magnets embedded in the flywheel and magnets embedded in the outer fixed part are attached so that they repel each other, and the repulsive force of the magnets is used to amplify the rotation of the flywheel and the power generating rotor.However, there was an issue that the generator was complex and took a long time to manufacture.

[0007] The power generation device in Patent Document 2 is a device that generates electricity by driving a motor with a storage battery and rotating a flywheel, but it has the problem that it is designed to supply electricity to homes and is not intended to supply electricity to factories, commercial facilities, etc.

[0008] SUMMARY OF THE INVENTION An object of the present invention is to provide a hybrid power generation system that generates power stably and safely in accordance with demand, without being limited to places of use or by changes in environmental conditions due to disasters or the like. [Means for solving the problem]

[0009] In order to solve this problem, the invention according to claim 1 is as follows: A plurality of motors and a reciprocating engine are connected to a switch, and any power is applied through the switch to drive a stopped flywheel. The power unit and The flywheel has a plurality of permanent magnets arranged around it in the circumferential direction, and a fixed ring is provided with a plurality of electromagnetic induction terminals fixed to the periphery of the flywheel and generating electromagnetic induction toward the permanent magnets, an electromagnetic induction unit including a control panel having a function of controlling the switch to switch between the plurality of motors and the reciprocating engines to rotate the stopped flywheel and a function of transmitting a signal to the electromagnetic induction terminal to generate the electromagnetic induction; a power generating unit having a generator powered by the rotation of the flywheel; The present invention is characterized by the following features.

[0011] The invention according to claim 2 is characterized in that the electromagnetic induction section is a permanent magnet having an S pole and an N pole. but alternately placed the flywheel and the electromagnetic induction terminal, which is installed around the flywheel and faces the permanent magnet to generate the electromagnetic induction; Several The fixed ring has a function of amplifying the rotation of the flywheel.

[0012] The invention according to claim 3 is characterized in that the power generating unit includes the generator that uses the rotation of the flywheel amplified by the electromagnetic induction as power.

[0013] The invention according to claim 4 is characterized in that the switch switches to the reciprocating engine when the motor cannot be used, for example, in the event of a disaster, Stopped The motor has a function of rotating the flywheel.

[0014] The invention of claim 5 is characterized in that the control panel has a function of controlling the rotation of the flywheel to generate power appropriate to the power demand, and a control function of preventing overload on the generator by amplifying the flywheel. [Effects of the Invention]

[0015] The present invention makes it possible to generate and supply electricity not only to homes but also to large-scale facilities such as schools, office buildings, commercial facilities, and factories.

[0016] Furthermore, because it is equipped with a reciprocating engine, it can generate and supply electricity to homes, schools, office buildings, commercial facilities, factories, etc. even when infrastructure is destroyed due to a power outage or disaster such as an earthquake. [Brief explanation of the drawings]

[0017] [Figure 1] 1 is a system configuration diagram of a hybrid power generation device that is composed of a power unit, an electromagnetic induction unit, and a power generation control unit. DETAILED DESCRIPTION OF THE INVENTION

[0018] An embodiment of the present invention will be described with reference to FIG.

[0019] FIG. 1 shows a configuration diagram of a hybrid power generating device that is made up of a power unit 1, an electromagnetic induction unit 2, and a power generating unit 3.

[0020] As shown in FIG. 1, the power unit 1 is configured such that a motor 4, a motor 5, and a reciprocating engine 6 are connected to a switch 7, and any power is transmitted via the switch 7 to a flywheel 11 via a power transmission pulley 8 and a rotation speed switching pulley 10.

[0021] The end of flywheel rotation speed control shaft 16, which is the rotation axis of flywheel 11, is equipped with torque rotation speed transmission sensor 9 that measures the torque and rotation speed of flywheel 11, and when flywheel 11 exceeds a predetermined rotation speed (for example, 1200 rpm to 1500 rpm), control panel 14 switches the rotational power of flywheel 11 between motor 4 and motor 5 via switch 7 based on the value detected by torque rotation speed transmission sensor 9.

[0022] Also, the control panel 14 is configured to switch between the motor 4 or the motor 5 and the reciprocating engine 6 via a switch 7.

[0023] As shown in FIG. 1, the electromagnetic induction unit 2 includes a flywheel 11 in which a permanent magnet 17 is embedded, and a fixed ring 19 that is fixed to the periphery of the flywheel 11, has an electromagnetic induction terminal 18 embedded therein, and generates electromagnetic induction toward the permanent magnet 17.

[0024] The control panel 14 is configured to switch between the motor 4 or the motor 5 and the reciprocating engine 6 via the switch 7 based on the value detected by the torque / rotational speed transmission sensor 9, and to send a pulse signal that generates electromagnetic induction to the electromagnetic induction terminal 18, thereby controlling the rotation of the flywheel 11 via the torque / rotational speed amplification control device 15.

[0025] The control panel 14 is also configured to measure the output current and output voltage of the generator 20 and control the rotation of the flywheel 11 via a torque / rotational speed amplification control device 15 .

[0026] As shown in Figure 1, the power generation unit 3 is equipped with a generator 20 powered by the rotational force of a flywheel 11, and the rotational force of the flywheel 11 is configured to be transmitted to the generator 20 via a rotation speed adjustment pulley 12 coaxial with the flywheel 11 and a rotation speed transmission pulley 13.

[0027] Next, the operation will be described.

[0028] Motors 4 and 5 are driven by an external power source, and the power of motor 4 increases its torque through inverter control of switch 7, causing a stopped flywheel 11 to rotate via power transmission pulley 8 and speed switching pulley 10. When motors 4 and 5 cannot be used, control panel 14 switches to reciprocating engine 6 via switch 7 to rotate flywheel 11.

[0029] When the flywheel 11 exceeds a predetermined rotation speed (for example, 1200 rpm to 1500 pm), the control panel 14 transmits the power of the motor 5 to the flywheel 11 via the switch 7 based on the value detected by the torque rotation speed transmission sensor 9, and the control panel 14 stops the motor 4.

[0030] The rotation of the flywheel 11 is stabilized by the power of the motor 5 and the inertia of the flywheel 11, and the rotation speed (for example, 1400 rpm to 1800 r pm) When it exceeds Based on the value detected by the torque / rotation speed transmission sensor 9, the control panel 14 sends a pulse signal to the electromagnetic induction terminal 18, which generates electromagnetic induction toward the permanent magnet 17, amplifying the rotation of the flywheel 11, and at the same time, the control panel 14 stops the rotation of the motor 5.

[0031] The amplified rotational force of the flywheel 11 is transmitted to the generator 20 via a rotation speed adjustment pulley 12 coaxial with the flywheel 11 and a rotation speed transmission pulley 13, and electricity is generated by the generator 20.

[0032] Furthermore, the amplified rotation of the flywheel 11 is controlled by the control panel 14 via the torque / rotational speed amplification control device 15 based on the value detected by the torque / rotational speed transmission sensor 9, and transmitted to the generator 20, thereby enabling power generation that meets demand.

[0033] Furthermore, the control panel 14 measures the output current and output voltage of the generator 20 and controls the rotation of the flywheel 11 via the torque / rotational speed amplification control device 15 before the rated voltage of the generator 20 is exceeded, thereby enabling safe power generation.

[0034] In this way, the motor 4 or motor 5 and the reciprocating engine 6 are used to rotate the stopped flywheel 11, and after the rotation has stabilized, the rotation is amplified by the inertia of the flywheel 11 and electromagnetic induction to generate electricity. To do so, It is an energy-saving and energy-efficient power generation device.

[0035] Although two motors 4 and 5 are used in the above embodiment and drawings, it goes without saying that the number may be increased to three or more as required. [Explanation of symbols]

[0036] 1 Power section 2 Electromagnetic induction part 3 Power Generation Department 4 motors 5 motors 6 reciprocating engine 7 Switch 8 Power transmission pulley 9 Torque / speed transmission sensor 10 Speed ​​change pulley 11 Flywheel 12 Speed ​​adjustment pulley 13 Speed ​​transmission pulley 14 Control Panel 15 Torque rotation speed amplification control device 16 Flywheel rotation speed control shaft 17 Permanent magnets 18 Electromagnetic induction terminal 19 Fixing ring 20. Generator

Claims

1. A power unit in which a plurality of motors and a reciprocating engine are connected to a switch, and any power is applied via the switch to drive a stopped flywheel; The flywheel has a plurality of permanent magnets arranged in the circumferential direction around it, and a fixed ring is provided with a plurality of electromagnetic induction terminals fixed to the periphery of the flywheel and generating electromagnetic induction toward the permanent magnets, an electromagnetic induction unit including a control panel having a function of controlling the switch to switch between the plurality of motors and the reciprocating engines to rotate the stopped flywheel and a function of transmitting a signal to the electromagnetic induction terminal to generate the electromagnetic induction; a power generating unit having a generator powered by the rotation of the flywheel; A hybrid power generation system comprising:

2. 2. The hybrid power generation apparatus according to claim 1, wherein the electromagnetic induction unit has a function of amplifying rotation of the flywheel by means of the flywheel on which the south poles and north poles of the permanent magnets are alternately arranged and the fixing ring which is installed around the flywheel and has the plurality of electromagnetic induction terminals which are directed toward the permanent magnets and generate the electromagnetic induction.

3. 2. The hybrid power generating system according to claim 1, wherein the power generating unit includes the generator powered by the rotation of the flywheel amplified by the electromagnetic induction.

4. 2. The hybrid power generation system according to claim 1, wherein the switch has a function of switching to the reciprocating engine and rotating the stopped flywheel when the motor cannot be used, such as in the event of a disaster.

5. 2. The hybrid power generation system according to claim 1, wherein the control panel has a function of controlling the rotation of the flywheel in order to generate power suited to power demand, and a control function of amplifying the rotation of the flywheel to prevent overload on the generator.

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