JP2023152580A - Surplus kinetic energy power generation/transmission system - Google Patents

Abstract

To save electric power, increase electric power, store electric power, or sell electric power by re-converting surplus kinetic energy in kinetic energy generated with electric energy of a normal electric power system into electric power and then transmitting the electric power since while regenerated energy is utilized in an energy saving field, some electric products have their electric power consumptions controlled with a small margin under the control of an inverter etc., by electric equipment operation control, but electric power control like this is not performed for all electric equipment, and much surplus energy is present in electric power-controlled electric equipment operation since electric control operation with a margin cannot be performed in consideration of safety.SOLUTION: The present invention is characterized mainly in that an electric generator is connected to a transmission device which converts surplus kinetic energy, more than the capacity that electric equipment operating with normal electric power system electricity requires for kinetic energy generated with electric energy, into rotational kinetic energy, and conversion into electric power that a power transmission destination requires is performed through transformation control to transmit electric power.SELECTED DRAWING: Figure 1

Description

Detailed description of the invention

The present invention converts surplus kinetic energy among various types of kinetic energy generated by electrical equipment normally operated by power grid electricity into rotational kinetic energy, uses the converted rotational energy as power to operate a generator to generate electricity, and transmits power. surplus kinetic energy transmission system.

Currently, renewable energy includes fields such as solar power generation, wind power generation, and hydroelectric power generation. However, the power generated is not constant due to various weather conditions and time of day. Furthermore, even in electrical equipment that consumes power in factories, facilities, homes, etc., the amount of power required is not constant due to 24-hour operation, intermittent operation, partial operation, etc.

In the field of energy conservation, in the field of renewable energy utilization and power saving, some electric appliances are controlled by inverters etc. to control the operation of electric appliances, but power consumption with a small margin is controlled. It does not have such power control. In addition, when operating electrical equipment under power control, there are cases where it is not possible to perform electrically controlled operation with a small margin in consideration of safety, so there is a lot of surplus energy. The present invention aims to save, increase, store, or sell electricity by reconverting surplus kinetic energy in the kinetic energy generated by the electrical energy of a normal power system into electricity and transmitting the electricity.

In the field of natural renewable energy such as solar power generation and wind power generation, it is not possible to secure stable power for factories, for example, so the renewable generated power is stored or sold, that is, transmitted to the electricity supply company, to generate the electricity necessary for operation. is consumed more than the electricity supply company.

For this reason, there is a large amount of electricity loss, and there is also the cost of equipment such as main lines and meters for electricity sales.

Furthermore, in addition to the amount of power consumed as a matter of course when electrical equipment is in operation, there is also an increase in electricity consumption due to contracts resulting from peak power usage charges due to sudden electricity when starting up electrical equipment, etc.

Although some electric appliances control power consumption with a small margin by controlling inverters and the like, all electric appliances do not have such power control. In addition, when operating electrical equipment under power control, there are cases where it is not possible to perform electrically controlled operation with a small margin due to safety concerns.

In the field of natural renewable energy, unstable power generation factors such as weather and time of day are significant, and its effectiveness as stable power in industry is not great.

An object of the present invention is to be able to use all the energy of electrical equipment that operates using existing electric power.

In order to solve the above problems, the main feature of the present invention is to convert surplus kinetic energy in the kinetic energy generated by electrical energy into rotational energy, operate a generator, perform substation and voltage transformation control, and transmit power. shall be.

In order to solve the above-mentioned problems, the present invention provides a generator for a transmission device that converts excess kinetic energy exceeding the necessary capacity of kinetic energy generated by electrical energy of electrical equipment normally operated by power grid electricity into rotational kinetic energy. The main feature is that it connects the power supply, performs substation and voltage transformation control, converts the power to the power required by the destination, and transmits the power.

Since the power generated is linked to the power of surplus energy from electrical equipment, if the amount of power generated or the required voltage is not met, the power generated by a generator linked to multiple electrical equipment can be connected in series or as shown in Figure 1. Parallel connection is performed to convert the power into sufficient amount of power and required voltage, and inverter control or converter control is performed to generate DC power or AC power and transmit the power.

As shown in the flowchart of FIG. 3, it is characterized by using up the kinetic energy generated from the electricity from the normal power grid.

For factories, facilities, or homes, if the electricity is generated through intermittent operation and is linked to surplus energy from motors, water supply/drainage pumps, blowers, air conditioning airflow, etc. that cannot be stopped 24 hours a day, weather conditions, time of day, etc. available power regardless of Furthermore, since power generation is linked to surplus energy power from existing electrical equipment, it is possible to stably generate electricity from the electrical equipment that cannot be stopped for 24 hours, thereby making up for the drawbacks of naturally renewable energy. In addition, the amount of power secured through power generation linked to the power of surplus energy in the current factory, facility, or home environment will directly lead to a reduction in the amount of electricity used. Reducing the amount of electricity is directly linked to reducing greenhouse gases because it reduces the amount of purchased electricity.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a diagram illustrating a system embodiment from power generation to current increase, power transformation, and power transmission according to the present invention. This is a reference diagram of efficient power generation using a rotary generator. FIG. 2 is a kinetic energy consumption flow diagram of FIG. 1. FIG. 2 is a diagram showing the total kinetic energy possessed by the electrical equipment shown in 1 of FIG. 1. FIG. It is a flow diagram of the surplus kinetic energy transmission power system alone.

FIG. 4 is a diagram showing the ratio of required capacity and surplus energy within the total kinetic energy of electrical equipment operating in the normal power system shown in FIG. 1-1.

Attach a pulley to each motor shaft to the three motors of the AC200V5kW existing electric power system electric equipment pump in Figure 1-1, and use the transmission device in Figure 1-2 to rotate the motor within the excess energy in Figure 2-16 in Figure 1-1. The energy is transmitted to the generators in Figure 1-3, and the power generation amount in Figure 1-4 with each of the three generators in Figure 1-3 is DC24V200A in Figure 1-5. In Figure 1-5, the current value for three units is merged into DC 24V 600A in Figure 1-6, transformed in Figure 1-7, and transformed to AC 200V 72A in Figure 1-8. It is a reference diagram for operating electrical equipment.

In FIG. 1, the electric loss correction value in the substation transformer is not shown.

Figure 1 shows an estimated 10-30% reduction in substation transformation numerical loss correction. Figure 1-9 Electrical equipment outside the normal power system is operated using the generated electricity.

FIG. 3 is a total kinetic energy consumption flow diagram of FIG.

In FIG. 3, E indicates electric power, M indicates kinetic energy, and R indicates consumption of kinetic energy.

The kinetic energy consumption flow diagram in Figure 3 shows that the total kinetic energy of each electrical device in a normal power system is 100%, the required capacity kinetic energy required for each electrical device is 75%, and the surplus kinetic energy is 25%. Figure 3-7 shows that after power transformation, the operation of off-grid electrical equipment is synchronized with the normal grid electrical equipment capacity value.

As shown in Figure 3-23, all kinetic energy consumption from the normal power system is shown.

FIG. 2 is a diagram showing a reduction change table of the resistance value (hereinafter, the resistance value is referred to as torque) that changes depending on the operating rotation speed of a rotary generator, etc., and a diagram showing changes in the generated voltage and current amount depending on the rotation speed.

As shown in Figure 2-13, in a certain high rotation range, torque decreases and power generation increases, so the installation is performed as shown in Figure 2-13 for the rotation speed setting range for surplus kinetic energy generation.

The surplus capacity range of Figure 1-1 is shown in Figure 2-16, and Figure 1-3 is operated within the torque range of Figure 2-17 within the surplus capacity, and Figure 2-13 is the generated power in the rotation range.

Direct current electricity, alternating current electricity (hereinafter, alternating current electricity is referred to as AC, and direct current electricity is referred to as DC) and AC/DC electricity that is required for the Figure 1-8 transmission destination of the electricity generated from the surplus energy power distribution system in Figure 1-5. Then transform the voltage using the control shown in Figures 1-6 and 1-7.

When using multiple surplus kinetic energy power transmission systems, Figure 1-3: Unify power generation to AC or DC, Figure 1-6: Improve the current amount value by connecting in series or parallel, Figure 1-9: Required power to the destination Transmission is performed by transforming AC, DC or AC/DC as shown in Figures 1-6 and 7.

Figure 1-3 Generators generally use alternators, dynamos, permanent magnets, brushless generators, etc. When multiple generators are used, power generation is unified to either AC or DC, and the generated power is are connected in series or parallel to increase the power consumption value.

The power improved by AC or DC connection control is controlled by various controls such as inverters or converters, AC or DC transformation necessary for power transmission is performed, and the amount of power/wattage is transmitted to AC, DC, or AC/DC that can be transmitted. do.

As a method of converting the surplus kinetic energy of existing electrical equipment into rotational kinetic energy and transmitting it to the generator, if there is surplus kinetic energy of a motor etc., attach a pulley etc. to the rotating shaft of the motor and transfer it to the generator with a belt etc. to communicate.

If there is surplus kinetic energy of water flow water pressure or wind velocity wind pressure, rotational motion is extracted inside and outside of piping and duct pipes through rotary blades such as screws, windmills, or water turbines, and this rotational motion is transmitted to a generator.

Since the drive is linked to electrical equipment, the generator performs drive speed control to determine the best power generation range for the operating torque reduction value of the generator within the surplus motion capacity of the existing power system electrical equipment, within the range shown in Figure 2-17. -13 installation settings reduce the load on electrical equipment in the regular power system (Figure 1-1) and reduce the generator load, achieving the best power generation capacity.

By reducing the torque and improving power generation efficiency as described above, surplus kinetic energy can be generated from three 5kW electrical equipment motors without falling below the minimum capacity required for the four rated 5kW electrical equipment as shown in the diagram shown in Figure 1. By generating 5kw of electricity for one vehicle and operating it outside the normal power grid, it is possible to save 5kw of electricity.

After the power generated by converting the surplus kinetic energy described above into rotational energy is transformed and controlled, the generated power is used for operating other electrical equipment, storing power, or selling power.

In factories and facilities, there are many cases in which various electrical devices and a large number of the same type of electrical devices are operated simultaneously.

For example, in wastewater treatment facilities, aeration tanks, etc., there are various pumps, motors, etc. that must be operated continuously for 24 hours.
We have verified that these pumps and motors have sufficient surplus kinetic energy, so by generating a certain amount of power from each existing electrical device in operation, we can use the generated electricity to reduce purchased electricity and reduce greenhouse gas emissions. reduction is possible.

For example, when installing a rotary generator, a pulley or the like can be attached to the motor shaft, and the generator can be connected to the generator in the area shown in FIG. 2-13 using a belt, gear, magnet, or the like.

For pumps, there is a head value as a guideline for transfer when selecting a pump, but in order to select a pump whose head value is always greater than the transfer distance, surplus energy can be absorbed by installing a screw or water wheel in the water pipe or installing a pulley in the pump motor part. The excess kinetic energy is converted into rotational energy and connected to a generator.

As a result, by switching some of the electrical devices that normally use power grid electricity from normal power grid electricity to surplus kinetic energy transmission system power, the amount of electricity used and peak power consumption can be reduced significantly. Normally, the amount of electricity purchased can be reduced, resulting in a direct reduction in greenhouse gas emissions.

Practical example 2

Additionally, there are many cases in which air conditioning is running 24 hours a day in facilities. By utilizing the kinetic energy generated by the wind speed and pressure in the air conditioning duct and installing a surplus kinetic energy power distribution system, it is possible to generate stable electricity 24 hours a day in the same way as described above, and by transmitting the electricity, it is also possible to operate other electrical equipment. be.

As with the water pump described above, it is also possible to generate new electricity in the same manner as described above using the kinetic energy of the water pressure and water velocity in the water pipe and the kinetic energy of the motor shaft of the water pump.

In compost factories and the like that have forced ventilation equipment, multiple blowers of the same type are used 24 hours a day or intermittently in order to promote compost fermentation. The embodiment is as described in FIG.

As shown in the examples, it is determined that there is sufficient possibility of use in factories, facilities, or homes that have existing electrical equipment.

Since it is possible to incorporate a power generation device into the electrical equipment itself, it is assumed that the industrial applicability is wide and the fixing speed is fast under the current environment.

Figure 1
1 Electrical equipment used in normal power systems.
2 A transmission device that converts surplus kinetic energy of electrical equipment used in normal power systems into rotational motion.
3 Generator.
4 Power generated by a single generator.
5 Power figures for a single generator.
6 Power fusion transformer.
7 Transformer Inverter or converter.
8 Power consumption after regeneration.
9 Electrical equipment that runs on recycled power.
Figure 2
10 Generator load value. (torque)
11 Torque curve. (Resistance value)
12 Indicates power generation proportional to rotation speed.
13 Ideal generator resistance value and power generation setting value.
14 Rotation speed of rotary generator.
15 Power generation based on rotational speed.
16 Surplus energy possessed by electrical equipment in the normal power system.
17 Power generation area within surplus energy.
Figure 3
1 Shows electrical equipment that uses the existing power system in 1 of Figure 1.
2 A transmission device that converts the surplus kinetic energy of electrical equipment used in the normal power system shown in 2 in Figure 1 into rotational motion.
3 Shows the generator 3 in Figure 1.
5 Shows the electric power value of the generator 5 in Figure 1 alone.
6 shows the power fusion transformer 6 of FIG.
7 Shows the transformer 7 in Figure 1.
9 shows the electric equipment operated by the recycled power of 9 in FIG. 1.
23 Total energy consumption figure 4
20 Indicates the total kinetic energy of electrical equipment operating in the existing power system.
21 Indicates the surplus kinetic energy of electrical equipment operating in the existing power system.
22 Indicates the required kinetic energy required for electrical equipment.
23 Kinetic energy consumption remaining figure 1-A
1 Electrical equipment used in normal power systems.
2 A transmission device that converts surplus kinetic energy of electrical equipment used in normal power systems into rotational motion.
3 Generator.
4 Power generated by a single generator.
5 Power figures for a single generator.
6 Power fusion transformer.
7 Transformer Inverter or converter.
8 Power consumption after regeneration.
9 Electrical equipment that runs on recycled power.

Detailed description of the invention

The present invention converts surplus kinetic energy among various types of kinetic energy generated by electrical equipment normally operated by power grid electricity into rotational kinetic energy, uses the converted rotational energy as power to operate a generator to generate electricity, and transmits power. surplus kinetic energy transmission system.

Currently, renewable energy includes fields such as solar power generation, wind power generation, and hydroelectric power generation. However, the power generated is not constant due to various weather conditions and time of day. Furthermore, even in electrical equipment that consumes power in factories, facilities, homes, etc., the amount of power required is not constant due to 24-hour operation, intermittent operation, partial operation, etc.

In the field of energy conservation, in the field of renewable energy utilization and power saving, some electric appliances are controlled by inverters etc. to control the operation of electric appliances, but power consumption with a small margin is controlled. It does not have such power control. In addition, when operating electrical equipment under power control, there are cases where it is not possible to perform electrically controlled operation with a small margin in consideration of safety, so there is a lot of surplus energy. The present invention aims to save, increase, store, or sell electricity by reconverting surplus kinetic energy in the kinetic energy generated by the electrical energy of a normal power system into electricity and transmitting the electricity.

In the field of natural renewable energy such as solar power generation and wind power generation, it is not possible to secure stable power for factories, for example, so the renewable generated power is stored or sold, that is, transmitted to the electricity supply company, to generate the electricity necessary for operation. is consumed more than the electricity supply company.

For this reason, there is a large amount of electricity loss, and there is also the cost of equipment such as main lines and meters for electricity sales.

Furthermore, in addition to the amount of power consumed as a matter of course when electrical equipment is in operation, there is also an increase in electricity consumption due to contracts resulting from peak power usage charges due to sudden electricity when starting up electrical equipment, etc.

Although some electric appliances control power consumption with a small margin by controlling inverters and the like, all electric appliances do not have such power control. In addition, when operating electrical equipment under power control, there are cases where it is not possible to perform electrically controlled operation with a small margin due to safety concerns.

In the field of natural renewable energy, unstable power generation factors such as weather and time of day are significant, and its effectiveness as stable power in industry is not great.

An object of the present invention is to be able to use all the energy of electrical equipment that operates using existing electric power.

In order to solve the above problems, the main feature of the present invention is to convert surplus kinetic energy in the kinetic energy generated by electrical energy into rotational energy, operate a generator, perform substation and voltage transformation control, and transmit power. shall be.

In order to solve the above-mentioned problems, the present invention provides a generator for a transmission device that converts excess kinetic energy exceeding the necessary capacity of kinetic energy generated by electrical energy of electrical equipment normally operated by power grid electricity into rotational kinetic energy. The main feature is that it connects the power supply, performs substation and voltage transformation control, converts the power to the power required by the destination, and transmits the power.

Since the power generated is linked to the power of surplus energy from electrical equipment, if the amount of power generated or the required voltage is not met, the power generated by a generator linked to multiple electrical equipment can be connected in series or as shown in Figure 1. Parallel connection is performed to convert the power into sufficient amount of power and required voltage, and inverter control or converter control is performed to generate DC power or AC power and transmit the power.

As shown in the flowchart of FIG. 3, it is characterized by using up the kinetic energy generated from the electricity from the normal power grid.

For factories, facilities, or homes, if the electricity is generated through intermittent operation and is linked to surplus energy from motors, water supply/drainage pumps, blowers, air conditioning airflow, etc. that cannot be stopped 24 hours a day, weather conditions, time of day, etc. available power regardless of Furthermore, since power generation is linked to surplus energy power from existing electrical equipment, it is possible to stably generate electricity from the electrical equipment that cannot be stopped for 24 hours, thereby making up for the drawbacks of naturally renewable energy. In addition, the amount of power secured through power generation linked to the power of surplus energy in the current factory, facility, or home environment will directly lead to a reduction in the amount of electricity used. Reducing the amount of electricity is directly linked to reducing greenhouse gases because it reduces the amount of purchased electricity.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a diagram illustrating a system embodiment from power generation to current increase, power transformation, and power transmission according to the present invention. This is a reference diagram of efficient power generation using a rotary generator. FIG. 2 is a kinetic energy consumption flow diagram of FIG. 1. FIG. 2 is a diagram showing the total kinetic energy possessed by the electrical equipment shown in 1 of FIG. 1. FIG. It is a flow diagram of the surplus kinetic energy transmission power system alone. It is a flowchart of an example of surplus kinetic energy power transmission.

FIG. 4 is a diagram showing the ratio of required capacity and surplus energy within the total kinetic energy of electrical equipment operating in the normal power system shown in FIG. 1-1.

Attach a pulley to each motor shaft to the three motors of the AC200V5kW existing electric power system electric equipment pump in Figure 1-1, and use the transmission device in Figure 1-2 to rotate the motor within the excess energy in Figure 2-16 in Figure 1-1. The energy is transmitted to the generators in Figure 1-3, and the power generation amount in Figure 1-4 with each of the three generators in Figure 1-3 is DC24V200A in Figure 1-5. In Figure 1-5, the current value for three units is merged into DC 24V 600A in Figure 1-6, transformed in Figure 1-7, and transformed to AC 200V 72A in Figure 1-8. It is a reference diagram for operating electrical equipment.

In FIG. 1, the electric loss correction value in the substation transformer is not shown.

Figure 1 shows an estimated 10-30% reduction in substation transformation numerical loss correction. Figure 1-9 Electrical equipment outside the normal power system is operated using the generated electricity.

FIG. 3 is a total kinetic energy consumption flow diagram of FIG.

In FIG. 3, E indicates electric power, M indicates kinetic energy, and R indicates consumption of kinetic energy.

The kinetic energy consumption flow diagram in Figure 3 shows that the total kinetic energy of each electrical device in a normal power system is 100%, the required capacity kinetic energy required for each electrical device is 75%, and the surplus kinetic energy is 25%. Figure 3-7 shows that after power transformation, the operation of off-grid electrical equipment is synchronized with the normal grid electrical equipment capacity value.

As shown in Figure 3-23, all kinetic energy consumption from the normal power system is shown.

FIG. 2 is a diagram showing a reduction change table of the resistance value (hereinafter, the resistance value is referred to as torque) that changes depending on the operating rotation speed of a rotary generator, etc., and a diagram showing changes in the generated voltage and current amount depending on the rotation speed.

As shown in Figure 2-13, in a certain high rotation range, torque decreases and power generation increases, so the installation is performed as shown in Figure 2-13 for the rotation speed setting range for surplus kinetic energy generation.

The surplus capacity range of Figure 1-1 is shown in Figure 2-16, and Figure 1-3 is operated within the torque range of Figure 2-17 within the surplus capacity, and Figure 2-13 is the generated power in the rotation range.

Direct current electricity, alternating current electricity (hereinafter, alternating current electricity is referred to as AC, and direct current electricity is referred to as DC) and AC/DC electricity that is required for the Figure 1-8 transmission destination of the electricity generated from the surplus energy power distribution system in Figure 1-5. Then transform the voltage using the control shown in Figures 1-6 and 1-7.

When using multiple surplus kinetic energy power transmission systems, Figure 1-3: Unify power generation to AC or DC, Figure 1-6: Improve the current amount value by connecting in series or parallel, Figure 1-9: Required power to the destination Transmission is performed by transforming AC, DC or AC/DC as shown in Figures 1-6 and 7.

Figure 1-3 Generators generally use alternators, dynamos, permanent magnets, brushless generators, etc. When multiple generators are used, power generation is unified to either AC or DC, and the generated power is are connected in series or parallel to increase the power consumption value.

The power improved by AC or DC connection control is controlled by various controls such as inverters or converters, AC or DC transformation necessary for power transmission is performed, and the amount of power/wattage is transmitted to AC, DC, or AC/DC that can be transmitted. do.

As a method of converting the surplus kinetic energy of existing electrical equipment into rotational kinetic energy and transmitting it to the generator, if there is surplus kinetic energy of a motor etc., attach a pulley etc. to the rotating shaft of the motor and transfer it to the generator with a belt etc. to communicate.

If there is surplus kinetic energy of water flow water pressure or wind velocity wind pressure, rotational motion is extracted inside and outside of piping and duct pipes through rotary blades such as screws, windmills, or water turbines, and this rotational motion is transmitted to a generator.

Since the drive is linked to electrical equipment, the generator performs drive speed control to determine the best power generation range for the operating torque reduction value of the generator within the surplus motion capacity of the existing power system electrical equipment, within the range shown in Figure 2-17. -13 installation settings reduce the load on electrical equipment in the regular power system (Figure 1-1) and reduce the generator load, achieving the best power generation capacity.

By reducing the torque and improving power generation efficiency as described above, surplus kinetic energy can be generated from three 5kW electrical equipment motors without falling below the minimum capacity required for the four rated 5kW electrical equipment as shown in the diagram shown in Figure 1. By generating 5kw of electricity for one vehicle and operating it outside the normal power grid, it is possible to save 5kw of electricity.

After the power generated by converting the surplus kinetic energy described above into rotational energy is transformed and controlled, the generated power is used for operating other electrical equipment, storing power, or selling power.

In factories and facilities, there are many cases in which various electrical devices and a large number of the same type of electrical devices are operated simultaneously.

For example, in wastewater treatment facilities, aeration tanks, etc., there are various pumps, motors, etc. that must be operated continuously for 24 hours.
We have verified that these pumps and motors have sufficient surplus kinetic energy, so by generating a certain amount of power from each existing electrical device in operation, we can use the generated electricity to reduce purchased electricity and reduce greenhouse gas emissions. reduction is possible.

For example, when installing a rotary generator, a pulley or the like can be attached to the motor shaft, and the generator can be connected to the generator in the area shown in FIG. 2-13 using a belt, gear, magnet, or the like.

For pumps, there is a head value as a guideline for transfer when selecting a pump, but in order to select a pump whose head value is always greater than the transfer distance, surplus energy can be absorbed by installing a screw or water wheel in the water pipe or installing a pulley in the pump motor part. The excess kinetic energy is converted into rotational energy and connected to a generator.

As a result, by switching some of the electrical equipment that normally uses power from the power grid to surplus kinetic energy transmission system power, the amount of electricity used and peak power can be reduced significantly. Normally, the amount of electricity purchased can be reduced, resulting in a direct reduction in greenhouse gas emissions.

Practical example 2

Additionally, there are many cases in which air conditioning is running 24 hours a day in facilities. By utilizing the kinetic energy generated by the wind speed and pressure in the air conditioning duct and installing a surplus kinetic energy power distribution system, it is possible to generate stable electricity 24 hours a day in the same way as described above, and by transmitting the electricity, it is also possible to operate other electrical equipment. be.

As with the water pump described above, it is also possible to generate new electricity in the same manner as described above using the kinetic energy of the water pressure and water velocity in the water pipe and the kinetic energy of the motor shaft of the water pump.

In compost factories and the like that have forced ventilation equipment, multiple blowers of the same type are used 24 hours a day or intermittently in order to promote compost fermentation. The embodiment is as described in FIG.

300m ³ /min3.6Kpa・30Kw1640rpm blower is connected to a generator, and the generated power is transmitted over 1000m. ³ /min・7.5kw 1740rpm volute pump, 0.75kw 1740rpm anlet pump, 2.2kw motor 1740rpm and 14 220V 100W incandescent lamps are turned on, and as shown in [Figure 5], from the grid power generation load energy increase of 3.117W By transmitting a total power consumption of 4.508W by the connected devices and maintaining the power source 30Kw blower at 1640 rpm, the power transmission destination increases by 3.117W in grid power within the surplus kinetic energy range within the blower capacity. This is an example in which it is possible to transmit power with a power consumption of 4.735W for each device.

As shown in the examples, it is determined that there is sufficient possibility of use in factories, facilities, or homes that have existing electrical equipment.

Since it is possible to incorporate a power generation device into the electrical equipment itself, it is assumed that the industrial applicability is wide and the fixing speed is fast under the current environment.

Figure 1
1 Electrical equipment used in normal power systems.
2. A transmission device that converts surplus kinetic energy of electrical equipment used in normal power systems into rotational motion.
3 Generator.
4 Power generated by a single generator.
5 Power figures for a single generator.
6 Power fusion transformer.
7 Transformer Inverter or converter.
8 Power consumption after regeneration.
9 Electrical equipment that runs on recycled power.
Figure 2
10 Generator load value. (torque)
11 Torque curve. (Resistance value)
12 Indicates power generation proportional to rotation speed.
13 Ideal generator resistance value and power generation setting value.
14 Rotation speed of rotary generator.
15 Power generation based on rotational speed.
16 Surplus energy possessed by electrical equipment in the normal power system.
17 Power generation area within surplus energy.
Figure 3
1 Shows electrical equipment that uses the existing power system in 1 of Figure 1.
2 A transmission device that converts the surplus kinetic energy of electrical equipment used in the normal power system shown in 2 in Fig. 1 into rotational motion.
3 Shows the generator 3 in Figure 1.
5 Shows the electric power value of the generator 5 in Figure 1 alone.
6 shows the power fusion transformer 6 of FIG.
7 Shows the transformer 7 in Figure 1.
9 shows the electric equipment operated by the recycled power of 9 in FIG. 1.
23 Total energy consumption figure 4
20 Indicates the total kinetic energy of electrical equipment operating in the existing power system.
21 Indicates the surplus kinetic energy of electrical equipment operating in the existing power system.
22 Indicates the required kinetic energy required for electrical equipment.
23 Kinetic energy consumption remaining figure 1-A
1 Electrical equipment used in normal power systems.
2. A transmission device that converts surplus kinetic energy of electrical equipment used in normal power systems into rotational motion.
3 Generator.
4 Power generated by a single generator.
5 Power figures for a single generator.
6 Power fusion transformer.
7 Transformer Inverter or converter.
8 Power consumption after regeneration.
9 Electrical equipment that runs on recycled power.
Figure 5
1 Power consumption and blower capacity flow diagram during normal operation of 30kw blower
2. A flow diagram in which a generator is connected to a 30kw blower, and the power consumption and exercise capacity of each electrical device are measured by transmitting power from the generator while maintaining the power consumption and exercise capacity of the 30kW blower.

Claims (3)

a transmission device that converts surplus kinetic energy in excess of the required capacity of the electrical equipment into rotational kinetic energy;
generator and
transformer and
Equipped with an inverter that converts DC electricity to AC electricity or a converter controller that converts AC electricity to DC electricity,
A surplus kinetic energy power transmission system that transmits power obtained from a generator to operate other electrical equipment, store power, or transmit power. Since the power is generated in conjunction with the power of surplus energy from other electrical equipment, if the amount of power generated or the required voltage is not sufficient, the power generated by multiple generators may be combined in series or parallel to generate sufficient power. 2. The surplus kinetic energy transmission system according to claim 1, wherein the surplus kinetic energy is converted into a required amount and voltage, and is subjected to inverter control or converter control to generate DC power or AC power and transmit the power. 3. The surplus energy transmission power system according to claim 1, further comprising a resistor that places the least load on both devices in order to reduce the load on both devices, which are required for the power generation source electric device and the generator.

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