KR102528372B1 - power generating system with smart power generating cores - Google Patents

Abstract

The present invention relates to a power generation system having a smart power generation core, comprising: a main casing having a hollow casing body and a pedestal provided on a lower surface of the casing body; Both ends of the shaft are supported by bearings on the front and rear surfaces of the casing body, and one end of the smart power generation core protrudes from the front surface of the casing body; a core holder provided between the lower inner surface of the casing body and the lower plate of the smart power generation core; an electric clutch provided on the shaft exposed to the outside of the casing body; a power converter built into the casing body to be energized with the first and second coil members of the smart power generation core; a transformer built into the casing body to be energized with the power converter; an energy storage device provided on an upper surface of the casing body to be energized with the power converter and the transformer, respectively; an AC power outlet that is energized with the transformer and the power converter and is provided on the front side of the energy storage device; The smart power generation core, the electric clutch, the power converter, the transformer, the energy storage device, and the AC power outlet are configured with a controller built into the casing body to respectively control the paired stator and rotor. Since multiple units can be configured in parallel, it is possible to construct a large-scale power generation facility, and when installed directly in an industrial site, there is an effect of realizing various tasks by directly using the built-in electric motor as well as power generation.

Description

Power generating system with smart power generating cores {power generating system with smart power generating cores}

The present invention relates to a power generation system having a smart power generation core.

Republic of Korea Patent Registration No. 1085332 (Registration date: 2011.11.14., Title of invention: Wheel having a power generation combined transmission means having a rim rotation method by a roller) is on both sides of the rim 100 of the wheel 1 on the opposite side A pair of facing annular rotation plates 110 and 110' having an annular plate shape are formed so that the magnet bodies 111 and 111' correspond radially, and the gap between the annular rotation plates 110 and 110' is formed. In the fixed plate 200, the wheel shaft 210 is protruded from both sides and the coil bodies 220 and 220' are radially arranged on both sides to correspond to the magnet bodies 111 and 111'. It is internally spaced apart from the inner circumferential surface of the rim 100, and one or more guide rollers 300 are interposed between the inner circumferential surface of the rim 100 and the circumference of the fixing plate 200, but the rim 100 is a guide roller ( 300) is rotated about the fixed plate 200 as an axis by the rolling friction and electric power is produced through the coil bodies 220 and 220' of the fixed plate 200, or the coil bodies 220 and 220' Power is applied to rotate the rim 100 through the driving force of the annular rotating plates 110 and 110 ', characterized in that the rim rotation method by rollers is interposed with a wheel having a power generation combined transmission means there is.

In this prior art, electricity is stored in a separate storage battery through the coil body of the fixed plate from the rotational drive of the rotary plate including the rim, or the stored electricity is used to drive or brake the rotary plate including the rim through a separate control box. In particular, by minimizing the contact between the rotating rim and the fixed plate, it is claimed that the effect of sufficiently rotating the rim with a small force can be obtained, while the energy acquisition method is fixed and the amount of energy generation is small. There were downsides.

An object of the present invention, created to solve the above problems, is to implement a large-scale power generation by configuring a plurality of stators and rotors in parallel, and to provide a smart power generation core that can widely utilize electric motors in industrial settings. It is to provide a power generation system.

This object of the present invention, the front plate and the first through-hole formed in the central portion; a rear plate having a second through hole formed in a central portion and spaced apart from the front plate; a first rotor having a disk-shaped first insulating plate having a first shaft fastening through hole formed at a central portion thereof, and a plurality of first magnet members spaced apart in a radial direction with the first shaft fastening through hole as a center; A stator body formed in a rectangular plate shape with an opening through-hole formed at the center thereof, and a plurality of energized wires spaced apart from one side of the stator body in a radial direction centering on the through-opening hole so as to be adjacent to the first magnet member. a stator having a first coil member and a plurality of second coil members provided on the other side surface of the stator body and spaced apart from each other in a radial direction with the opening through hole as the center, but energized; A second insulating plate having a disk-shaped second shaft fastening through hole formed at the center thereof, and a plurality of second magnet members spaced apart in a radial direction centering on the second shaft fastening through hole so as to be adjacent to the second coil member. a second rotor; One end sequentially passing through the second shaft fastening through hole, the opening through hole, and the first shaft fastening through hole protrudes outwardly by being supported by a bearing on the front plate, and the other end is a shaft supported by a bearing on the rear plate. and; a first side plate having a first slit into which one end of the stator is inserted is formed on an inner surface thereof and fixed to one end of the front plate and one end of the rear plate; a second side plate having a second slit into which the other end of the stator is inserted is formed on an inner surface thereof and fixed to the other end of the front plate and the other end of the rear plate; an upper surface plate having a third slit into which a part of the upper part of the stator is inserted is formed on a lower surface thereof and fixed to upper ends of the front plate and the rear plate; a bottom plate having a fourth slit into which a part of the lower end of the stator is inserted is formed on an upper surface thereof and fixed to lower ends of the front plate and the rear plate; It consists of a voltage sensor provided to the stator to conduct electricity to the first and second coil members, wherein the first rotor and the second rotor are fixed to the outer circumferential surface of the shaft and rotate together with the shaft. It can be achieved by power generation core.

Preferably, the present invention is characterized in that it further includes a contactless position sensor provided on one side of the stator, and further includes a magnet plate provided on the first insulating plate to be adjacent to the position sensor.

In addition, another object of the present invention is a main casing having a casing body having a hollow structure and a pedestal provided on a lower surface of the casing body; Both ends of the shaft are supported by bearings on the front and rear surfaces of the casing body, and one end of the smart power generation core protrudes from the front surface of the casing body; a core holder provided between the lower inner surface of the casing body and the lower plate of the smart power generation core; an electric clutch provided on the shaft exposed to the outside of the casing body; a power converter built into the casing body to be energized with the first and second coil members of the smart power generation core; a transformer built into the casing body to be energized with the power converter; an energy storage device provided on an upper surface of the casing body to be energized with the power converter and the transformer, respectively; an AC power outlet that is energized with the transformer and the power converter and is provided on the front side of the energy storage device; It is achieved by a power generation system having a smart power generation core composed of a controller built in the casing body to respectively control the smart power generation core, the electric clutch, the power converter, the transformer, the energy storage device and the AC power outlet. can

Preferably, a vibration sensor provided on a side surface of the core holder of the present invention further includes a brake cradle provided on an inner surface of the casing body adjacent to the shaft, and is located on the inner surface of the casing body. Further comprising a shaft brake provided to the brake cradle to press or release the outer circumferential surface of the shaft, wherein the vibration sensor or the shaft brake is respectively controlled by the controller.

Preferably, the present invention is a display provided on the front of the energy storage device; The transformer and the power converter are energized and further comprising a plurality of DC power ports provided on the front of the energy storage device, and further comprising an Internet LAN port provided on the front of the energy storage device, wherein the display, the The power port and the Internet LAN port are each controlled by the controller.

Preferably, the present invention further includes a shaft cooler built into the casing body and controlled by the controller to lower the temperature of a bearing supporting the other end of the shaft, wherein the shaft cooler includes an oil cooler and the oil cooler. It is characterized in that it consists of an oil pump communicated with, a cooling jacket provided on the outer circumferential surface of the bearing provided at the other end of the shaft and communicated with the oil pump, and a temperature sensor provided on the outer circumferential surface of the bearing provided at the other end of the shaft.

Preferably, the present invention further includes a weight means provided at each corner adjacent to the front and rear surfaces of the casing body and controlled by the controller, wherein the weight means comprises an electric cylinder, and one end of the electric cylinder is stretchable and retractable. It is characterized in that it consists of a link member interlocked as much as possible and a weight block interlocked so as to be interchangeable with the other end of the link member.

Preferably, the casing body of the present invention further includes a long groove formed on a rear surface, and is energized with the power converter and is embedded in the casing body so that the rotation shaft is exposed through the long groove of the casing body and is controlled by the controller Further comprising an electric motor, and a motor lifting means built into the casing body and controlled by the controller to elevate the electric motor, wherein the motor lifting means interlocks with a lifting guide rail and the lifting guide rail. A motor cradle, a lower stopper provided at the lower end of the elevating guide rail, an upper stopper provided at the upper end of the elevating guide rail, an elevating cylinder provided at the lower part of the motor cradle, and the elevating cylinder on the inner surface of the casing body It is characterized by consisting of a cylinder bracket fixed to.

As described above, the present invention can easily configure a plurality of stators and rotors forming a pair in parallel, so that a large-scale power generation facility can be configured, and when directly installed in an industrial site, power generation as well as a built-in electric motor can be directly It has the effect of implementing various tasks using it.

1 is a perspective view showing a smart power generation core according to the present invention.
Figure 2 is an exploded perspective view of Figure 1;
3 and 4 are exploded perspective views illustrating the stator and rotor of FIG. 1 .
5 is a front view showing a power generation system having a smart power generation core according to the present invention.
Figure 6 is a side view of Figure 5;
FIG. 7 is a cross-sectional view of main parts of FIG. 5 .
8 is a cross-sectional view illustrating an enlarged portion 'A' of FIG. 7 .
9 is a schematic diagram showing a motor lifting means.

Hereinafter, embodiments of the present invention will be described with reference to the drawings.

1 to 4, the smart power generation core 100 according to the present invention includes a front plate 11, a rear plate 12, a first side plate 13, a second side plate 14, and a top plate. (15), lower plate 16, stator 20, first bearing (BR1), second bearing (BR2), first rotor (30), second rotor (40), non-contact position sensor ( PS), a magnet member (MG), a voltage sensor (VS) and a shaft (SH).

The front plate 11 has a rectangular plate shape, and a first through hole 11a is formed at the center thereof. And, the first bearing BR1 is provided so as not to be separated from the first through hole 11a.

The back plate 12 has a rectangular plate shape, and a second through hole 12a is formed at the center thereof and is spaced apart from the front plate 11 . And, the second bearing BR2 is provided so as not to be separated from the second through hole 12a.

The first rotor 30 has a disk shape and is radially spaced from a first insulating plate 31 having a first shaft fastening through hole 31a formed therein at a central portion and the first shaft fastening through hole 31a as a center. It consists of a plurality of first magnet members 33 provided.

Here, the first magnet member 33 is shown in a bar shape, but is not limited thereto and may be manufactured in various shapes.

The stator 20 has a rectangular plate shape and is radially spaced from a stator body 21 having an opening through hole 21a formed at a central portion thereof and the opening through hole 21a on one side of the stator body 21 as a center. It consists of a plurality of first coil members 23 provided and a plurality of second coil members 25 provided radially and spaced apart on the other side of the stator body 21 with the through-hole 21a as the center. The first coil member 23 is provided adjacent to the first magnet member 33 .

Here, the position and number of the first and second coil members 23 and 25 are shown to be the same, but are not limited thereto, and the position or number may be configured differently depending on the purpose of use. In addition, the first and second coil members 23 and 25 are shown as being separated from each other, but are electrically connected to each other. also. The first and second coil members 23 and 25 are known components, and detailed descriptions or illustrations thereof will be omitted.

The second rotor 40 has a disk shape and is radially spaced from a second insulating plate 41 having a second shaft fastening through hole 41a formed therein at the center thereof and the second shaft fastening through hole 41a as the center. It consists of a plurality of second magnet members 43 provided.

Here, the second magnet member 43 is shown in a bar shape, but is not limited thereto and may be manufactured in various shapes. And the second magnet member 43 is provided adjacent to the second coil member 25 .

The shaft SH includes the second shaft fastening through hole 41a of the second rotor 40, the opening through hole 21a of the stator 20, and the first shaft fastening through hole of the first rotor 30 ( 31a), one end sequentially passing through is supported by the first bearing BR1 and protrudes out of the front plate 11, and the other end is supported by the second bearing BR2.

Here, the shaft SH has a key groove (not shown) formed in the longitudinal direction of its outer circumferential surface, and the second rotor 40 has a shaft key in the second shaft fastening through hole 41a through which the shaft SH is inserted. (not shown) is forcibly press-fitted and strongly fixed, and the first rotor 30 is strong and strong by forcibly press-fitting a shaft key (not shown) into the first shaft fastening through-hole 31a through which the shaft SH is inserted. it is fixed

In addition, since the inner diameter of the through hole 21a is larger than the outer diameter of the shaft SH, the stator 20 is not fixed to the shaft SH.

In addition, in the present invention, it is described that one set consisting of the second rotor 40, the stator 20 and the first rotor 30 is provided on the shaft SH, but this is for convenience of explanation and FIG. 1 And as shown in FIG. 2, actually, 8 sets are spaced apart from each other. Here, the first rotor 30 and the second rotor 40 at both ends relative to the stator 20 are positioned adjacent to each other.

The first side plate 13 has a plurality of first slits 13a formed on its inner surface into which one side end of the stator 20 is inserted, and is fixed to one end of the front plate 11 and one end of the rear plate 12. has been

The second side plate 14 has a plurality of second slits 14a formed on its inner surface into which the other end of the stator 20 is inserted, and is fixed to the other end of the front plate 11 and the other end of the rear plate 12. has been

The upper plate 15 has a plurality of third slits 15a formed on its lower surface into which part of the upper part of the stator 20 is inserted, and is fixed to the top of the front plate 11 and the top of the rear plate 12. .

The lower plate 16 has a plurality of fourth slits 16a formed on its upper surface into which part of the lower part of the stator 20 is inserted, and is fixed to the lower end of the front plate 11 and the lower end of the rear plate 12. .

A non-contact position sensor (PS) is provided on one side of the stator (20).

The magnet plate MG is provided on the first insulating plate 31 so as to be adjacent to the non-contact position sensor PS.

Here, the number of revolutions per minute (RPM) of the shaft SH can be measured in a configuration in which the magnetic plate MG provided on the first insulating plate 31 is rotated and sensed by the position sensor PS. In addition, while this embodiment is a two-piece configuration consisting of a non-contact position sensor (PS) and a magnet plate (MG), it is not limited to this, and it is noted that the number of revolutions per minute can be measured even by one sensor. .

The voltage sensor VS is provided on the stator 20 so that the first and second coil members 23 and 25 are energized.

The smart power generation core 100 of this embodiment has a configuration in which parts are opened by the upper plate 15 and the lower plate 16 for heat dissipation during operation.

5 to 9, the power generation system 200 having a smart charging core according to the present invention includes a main casing 110, a power generation core 100, a core holder 125, a shaft cooler 140, It consists of a weight means 150, a motor lifting means 170, an electric clutch (AC) and a controller (CTB). In addition, the power generation system 200 equipped with a smart charging core includes an energy storage system (ESS), a display (DS), a power converter (IC), a transformer (TR), an AC power outlet (CN), a power It further includes a port (PP), an internet LAN port (LP), an electric motor (M), a reducer (RD) and a shaft brake (BK).

The main casing 110 includes a hollow casing body 111 having a heat dissipation through hole 111a formed on the front side, and a support 113 provided on a lower surface of the casing body 111.

In addition, the casing body 111 further includes a nozzle 115 on one side. Here, the pedestal 113 is a caster or an anti-vibration pad.

In addition, the casing body 111 has a long groove 117 formed on the rear surface.

Since the power generation core 100 has the same configuration as that of FIGS. 1 to 4 , detailed descriptions or illustrations thereof will refer to this.

Both ends of the shaft SH are supported by bearings BR11 and BR12 on the front and rear surfaces of the casing body 111, respectively, and one end protrudes from the front surface of the casing body 111.

The core holder 125 is provided between the lower inner surface of the casing body 111 and the lower plate 16 . Here, the core holder 125 is preferably made of a metal material in order to safely support the heavy power generation core 100, and it is preferable to attach anti-vibration pads made of rubber to the upper and lower surfaces to prevent vibration.

In addition, the vibration sensor (VBS) is provided on the side of the core holder (125).

The electric clutch AC is provided on a shaft SH protruding out of the casing body 111 .

The brake cradle CR is provided on the inner surface of the casing body 111 adjacent to the shaft SH.

The shaft brake BK is provided in the brake cradle CR to press or release the outer circumferential surface of the shaft SH located on the inner surface of the casing body 111. Here, since the shaft brake (BK) is a well-known component, a detailed description or illustration thereof will be omitted.

The weight means 150 includes an electric cylinder 151 provided at each corner adjacent to the front and rear surfaces of the casing body 111, a link member 153 interlocked so that one end of the electric cylinder 151 is stretchable, and a link member ( 153) is composed of a weight block 155 interlocked with the other end. Here, since the electric cylinder 151 is only a well-known component, a detailed description or illustration thereof will be omitted.

The power converter (IC) is built into the casing body 111 so as to conduct electricity with the first and second coil members 23 and 25, and is a complex converter composed of an inverter, a converter, and a rectifier.

The transformer (TR) is built into the casing body 111 to be energized with the power converter (IC). Here, the power converter (IC) and the transformer (TR) are known components.

The energy storage device (ESS) is provided on the upper surface of the casing body 111 and is energized with the power converter (IC) and the transformer (TR), respectively. Here, since the energy storage device (ESS) is only a well-known device as a device for storing energy generated in the power generation core 100, a detailed description or illustration thereof will be omitted.

The display DS is provided on the front of the energy storage device ESS.

The AC power outlet (CN) is energized with the transformer (TR) and the power converter (IC) and is provided on the front side of the energy storage system (ESS). Here, the AC power outlet (CN) is a socket provided to use the energy charged in the energy storage device (ESS) as AC power such as 110V, 220V or 380V.

The power port (PP) is energized with the transformer (TR) and the power converter (IC), and a plurality of them are provided on the front side of the energy storage device (ESS). Here, the power port (PP) is a USE port or a C-type port and provides 5 to 9V DC power.

The Internet LAN port (LP) is provided on the front of the energy storage device (ESS).

The shaft cooler 140 is provided on the outer circumferential surface of an oil cooler 141, an oil pump 143 communicating with the oil cooler 141, and a bearing BR12 supporting the other end of the shaft SH, and the oil pump It consists of a cooling jacket 145 communicating with 143 and a temperature sensor 147 provided on the side of bearing BR12. Here, the oil cooler 141 and the temperature sensor 147 are well-known parts, and the oil cooler 141 is a small cooler that cools the oil charged by the thermoelectric element, and lowers the temperature of the bearing BR12 so that the shaft ( SH) can be prevented from overheating.

The electric motor (M) is energized with the power converter (IC) and is embedded in the casing body (111) so that the rotating shaft (Ms) is exposed through the long groove (117) of the casing body (111).

The reduction gear (RD) is interlocked with the rotating shaft (Ms) of the electric motor (M) exposed through the long groove (117). Here, the reduction ratio of the electric motor (M) and the reduction gear (RD) is 10: 1, 20: 1, 100: 1, etc., and a reduction gear with a different reduction ratio can be replaced according to the purpose of use.

The motor lifting means 170 includes a lifting guide rail 173 provided on the inner surface of the casing body 111, a motor cradle 174 linked to the lifting guide rail 173, and a lower end of the lifting guide rail 173. A casing body ( 111) consists of a cylinder bracket 172 fixed to the inner surface.

Here, the motor lifting means 170 is provided to realize a desirable height of various rotating machines engaged in the reduction gear RD. This is because, when there is no motor lifting means 170, a separate connector is required to connect the electric motor M and the reduction gear RD.

The controller (CTB) includes a power generation core 100, an electric clutch (AC), a shaft brake (BK), a shaft cooler 140, a weight means 150, an electric motor (M), an energy storage device (ESS), electric power It is built into the energy storage system (ESS) to control the converter (IC), the transformer (TR), the display (DS) and the motor lifting means 170 respectively.

The operating relationship of the power generation system 100 having a smart power generation core according to the present invention will be briefly described as follows. First, it is assumed that the shaft (SH) of the power generation system 100 having a smart power generation core is intermittently engaged with the rotating shaft (not shown) of the mechanical device by the electric clutch (AC).

When the mechanical device is operated, the shaft SH of the power generation system 100 having the smart power generation core of the present invention rotates. As the shaft SH rotates, the first and second rotors 30 and 40 of the restoration dog rotate, so that the magnet members 33 and 43 move along the coil members 23 and 25 of the stator 20. Energy is generated as it is adjacent to or separated from, and is stored in the energy storage system (ESS) through a power converter (IC) and a transformer (TR). At this time, since the number of revolutions per minute obtained from the non-contact position sensor (PS) and the magnet plate (MG) can be measured, and the rotation speed can be calculated therefrom, when the number of revolutions per minute or rotation speed exceeding the reference value occurs, the controller (CTB) By shorting the electric clutch (AC), damage or damage to the smart power generation core 100 is prevented in advance. In addition, when the temperature sensor 147 detects a temperature higher than an appropriate temperature, the controller CTB operates the shaft cooler 140 to cool the bearing BR12 to maintain an appropriate temperature.

In addition, the controller (CTB) has a built-in leveling instrument, and if the level of the main casing 110 is not maintained, the weight means 150 is operated to maintain level. In addition, the controller (CTB) controls the shaft brake (BK) so that it falls below the appropriate standard value when detecting vibration of the smart power generation core 100 or more from the vibration sensor (VBS). Here, the power generation system 200 equipped with the smart power generation core of the present invention converts the energy of the energy storage device (ESS) from the controller (CTB) into direct current instead of the shaft brake (BK), which is an electric brake, so that the rotor (30) When applied to the coil members 23 and 25 of (40), a repulsive force (reverse rotation) is generated with the magnet members 33 and 43, so that it can be used as a non-contact brake capable of realizing a smooth and quiet stop.

In addition, the controller (CTB) controls the power converter (IC) and the transformer (TR) to use the energy stored in the energy storage device (ESS) to use 220V AC power from the AC power outlet (CN) or 5 ~ 9V DC power supply can be used.

In addition, the controller CTB displays the amount of charge, current, voltage, etc. of the energy storage device ESS on the display DS. In addition, the controller (CTB) can implement remote control through the Internet LAN port (LP) or transmit real-time operation status, energy storage information, etc. to the server through bi-directional communication.

In addition, when using the electric motor (M), the energy stored in the energy storage system (ESS) is converted into alternating current or direct current of a specific voltage to apply power to the electric motor (M). Therefore, the power generation system 200 having a smart power generation core of the present invention is characterized by storing energy through power generation and driving the built-in electric motor M in addition to simply using direct current or alternating current. .

Although the present invention as described above has been described as being limited to one embodiment, it is clear that all modified embodiments based on the technical spirit of the present invention are not limited thereto and belong to the scope of the present invention.

100: smart power generation core 110: main casing
125: core holder 140: shaft cooler
150: weight means 170: motor lifting means
CTB: Controller
200: power generation system equipped with a smart charging core

Claims (8)

delete delete a main casing having a hollow casing body and a pedestal provided on a lower surface of the casing body;
Both ends of the shaft are supported by bearings on the front and rear surfaces of the casing body, and one end of the smart power generation core protrudes from the front surface of the casing body;
a core holder provided between the lower inner surface of the casing body and the lower plate of the smart power generation core;
an electric clutch provided on the shaft exposed to the outside of the casing body;
a power converter built into the casing body to be energized with the first and second coil members of the smart power generation core;
a transformer built into the casing body to be energized with the power converter;
an energy storage device provided on an upper surface of the casing body to be energized with the power converter and the transformer, respectively;
an AC power outlet that is energized with the transformer and the power converter and is provided on the front side of the energy storage device;
It consists of a controller built into the casing body to control the smart power generation core, the electric clutch, the power converter, the transformer, the energy storage device, and the AC power outlet, respectively,
Further comprising a shaft cooler built into the casing body and controlled by the controller to lower the temperature of the bearing supporting the other end of the shaft,
The shaft cooler includes an oil cooler, an oil pump communicating with the oil cooler, a cooling jacket provided on an outer circumferential surface of a bearing provided at the other end of the shaft and communicating with the oil pump, and an outer circumferential surface of a bearing provided at the other end of the shaft. A power generation system with a smart power generation core, characterized in that consisting of a temperature sensor provided in.
According to claim 3,
Further comprising a vibration sensor provided on the side of the core holder,
Further comprising a brake cradle provided on an inner surface of the casing body adjacent to the shaft,
Further comprising a shaft brake provided on the brake cradle to press or release the outer circumferential surface of the shaft located on the inner surface of the casing body,
The vibration sensor or the shaft brake is a power generation system with a smart power generation core, characterized in that each controlled by the controller.
According to claim 3,
a display provided on the front of the energy storage device;
Further comprising a power port that is energized with the transformer and the power converter and is a direct current power source provided in plurality on the front surface of the energy storage device,
Further comprising an Internet LAN port provided on the front of the energy storage device,
The power generation system with a smart power generation core, characterized in that the display, the power port and the Internet LAN port are respectively controlled by the controller.
delete According to claim 3,
Further comprising weight means provided adjacent to each corner of the front and rear surfaces of the casing body and controlled by the controller,
The power generation system with a smart power generation core, characterized in that the weight means consists of an electric cylinder, a link member interlocked so that one end of the electric cylinder is stretchable, and a weight block interlocked so as to be replaceable with the other end of the link member.
According to claim 3,
The casing body further includes a long groove formed on a rear surface,
Further comprising an electric motor that is energized with the power converter and is embedded in the casing body so that a rotating shaft is exposed through a long groove of the casing body and controlled by the controller,
Further comprising a motor elevating means built into the casing body and controlled by the controller to elevate the electric motor, wherein the motor elevating means includes an elevating guide rail, a motor cradle linked to the elevating guide rail, and the elevating guide rail. A lower stopper provided at the lower end of the guide rail, an upper stopper provided at the upper end of the lifting guide rail, a lifting cylinder provided at the lower part of the motor holder, and a cylinder bracket fixing the lifting cylinder to the inner surface of the casing body. A power generation system with a smart power generation core, characterized in that.

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