CN213458520U - Real device of instructing of wind turbine generator system equipment - Google Patents
Real device of instructing of wind turbine generator system equipment Download PDFInfo
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- CN213458520U CN213458520U CN202021018525.5U CN202021018525U CN213458520U CN 213458520 U CN213458520 U CN 213458520U CN 202021018525 U CN202021018525 U CN 202021018525U CN 213458520 U CN213458520 U CN 213458520U
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Abstract
The utility model provides a real device of instructing of wind turbine equipment, the maintainer of solving the student of wind-powered electricity generation specialty, enterprise is instructing the equipment of platform to wind turbine equipment and its inner structure and is carrying out the manual experiment in fact. The system comprises a simulation workbench, a wind turbine generator model arranged on the simulation workbench, a simulation wind device arranged on one side of the simulation workbench, an electrical control system arranged on the other side of the simulation workbench and a human-computer interaction device arranged at the upper end of the simulation workbench; and the electric appliance control system is electrically connected with the wind turbine generator model. The utility model discloses set up simulation wind device and make the teaching equipment more complete, the implementation of beneficial whole teaching. And the teaching courseware comprises training contents such as an operation video, a fault analysis training courseware and the like, so that trained personnel can carry out manual operation practice while understanding theories. The utility model discloses consider, set up the instrument platform and the part platform that can control respectively, make things convenient for the student to operate.
Description
Technical Field
The utility model relates to a real device of instructing of wind turbine generator system equipment.
Background
Wind power generation is the most mature renewable energy power generation except for hydroelectric power generation, and the installed capacity of the wind power generation accounts for the vast majority of the total installed capacity of the whole renewable energy power generation. The wind generating set is a large-scale device, and the installation environment of the wind generating set is generally in the air above a tower body with larger wind power, so that the wind generating set is difficult, laborious and troublesome to install or maintain.
Due to the vigorous development of wind power industry and the increase of installed capacity of a wind driven generator, the demand of assembling and maintaining personnel of a wind turbine generator is correspondingly increased, but due to the limitation of field operation, no matter students in the wind power industry or maintaining personnel of enterprises exist on the theoretical knowledge level of all parts of the whole wind turbine generator, the current assembly training platform only has the function of assembly and debugging, and the current wind turbine generator is not assembled from parts, assembled from parts and debugged to a complete machine debugging training platform.
According to the wind power plant, the most common faults of the wind turbine generator are deformation of a brake disc and mechanical or oil leakage faults of a gear box, and no relevant training is provided for fault analysis and maintenance on the current practical training platform. The trained personnel can not thoroughly understand the standard assembling method required by the assembly of the parts from the aspect of maintenance, and the assembly standard operation is not popularized to each assembling step, so the training of beginners for the lack of fault repair knowledge can only be on the acceptable level but not applied.
Disclosure of Invention
Utility model purpose: the utility model provides a real device of instructing of wind turbine generator system equipment, the maintainer of student, the enterprise that its purpose solved the wind-powered electricity generation specialty carries out the manual experiment at real standard platform to wind turbine generator system's equipment and its inner structure to through training with the important function and the maintenance of each part carry out skilled operation.
The utility model discloses a realize through following technical scheme: the practical training device for the wind turbine equipment further comprises: the system comprises a simulation workbench, a wind turbine generator model arranged on the simulation workbench, a simulation wind device arranged on one side of the simulation workbench and a human-computer interaction device arranged on the simulation workbench;
the wind turbine generator model is electrically connected with the human-computer interaction device.
Further:
the simulation workbench comprises an assembly workbench, a transmission device fixedly connected to the assembly workbench and a lifting workbench in transmission connection with the transmission device;
the assembling working platform is provided with a through hole;
the lifting workbench moves up and down through a through hole of the assembling workbench;
the number of the lifting working tables is at least one.
Further:
the transmission device comprises a double-output motor fixedly connected to the assembling working platform, a left bevel gear fixedly connected to an output shaft at one end of the double-output motor, a left bevel gear meshed with the left bevel gear, a left screw fixedly connected to the left bevel gear, a left nut meshed with the left screw and a left U-shaped frame fixedly connected to the left nut;
the lifting workbench further comprises a right first bevel gear fixedly connected to an output shaft at the other end of the double-output motor, a right second bevel gear 208 meshed and connected to the right first bevel gear, a right screw fixedly connected to the right second bevel gear, a right nut meshed and connected to the right screw, and a right U-shaped frame fixedly connected to the right nut;
the left U-shaped frame and the right U-shaped frame are fixedly connected to the lower end of the lifting workbench;
and the left U-shaped frame and the right U-shaped frame push the lifting workbench to penetrate through the through hole in the assembling working platform.
Further:
the lifting workbench comprises a main workbench, a cylinder support fixedly connected to the main workbench, a bidirectional cylinder fixedly connected to the cylinder support, a first telescopic mechanism fixedly connected to a first piston rod of the bidirectional cylinder, a second telescopic mechanism fixedly connected to a second piston rod of the bidirectional cylinder, and a part table fixedly connected to a tool table on the first telescopic mechanism and a part table on the second telescopic mechanism.
Further:
the wind turbine generator model comprises a wind wheel, a gear box, a main shaft, a generator, a yawing mechanism, a base and a wind turbine generator shield;
the wind wheel is fixedly connected to the base, and a yaw mechanism is connected below the base;
the wind wheel is connected to the input shaft end of the gear box through a main shaft;
the output shaft of the gear box is connected with the input shaft of the generator;
the wind turbine generator set shield is wrapped on the wind wheel, the gear box, the main shaft and the periphery of the motor;
the wind wheel is provided with a variable pitch device;
the wind turbine generator system shield is a split shield.
Further:
the wind simulation device comprises a supporting table, an arc supporting plate arranged on the supporting table, a blower fixedly connected to the arc supporting plate, and a wind pipe fixedly connected to a wind outlet of the blower; the wind pipe and the front face of the wind wheel are arranged oppositely.
Further:
the wind simulation device also comprises an elliptic gear which is meshed and connected with the arc supporting plate, a transmission shaft which is fixedly connected with the elliptic gear, a second motor of which the output shaft is fixedly connected with the transmission shaft, and a plane bearing which is arranged between the upper end surface of the supporting table and the lower end surface of the arc supporting plate;
the arc supporting plate is provided with teeth meshed with the elliptic gear,
the arc supporting plate and the elliptic gear are provided with connecting rods on the axle center; one end of the connecting rod is rotatably connected to the arc supporting plate, and the other end of the connecting rod is rotatably connected with the axis of the gear;
the second motor is fixedly connected to the supporting platform.
Further:
the wind simulation device also comprises a spherical sleeve fixedly connected with the wind pipe air outlet and a shaft sleeve support fixedly connected to the support platform; the upper end of the shaft sleeve support is provided with a spherical hole matched with the spherical sleeve, and the outer circumference of the shaft sleeve support is connected with the spherical sleeve in a sliding manner.
Further:
the first telescopic mechanism comprises a left connecting rod which is rotationally connected to the first piston rod, a left second connecting rod which is rotationally connected to the first piston rod, a left three connecting rod which is rotationally connected to the other end of the left first connecting rod, a left four connecting rod which is rotationally connected to the left two connecting rod, a left five connecting rod which is rotationally connected to the left three connecting rod and a left six connecting rod which is rotationally connected to the left four connecting rod;
the left two connecting rods are hinged to the lower surface of the left one connecting rod, the left four connecting rods are hinged to the lower surface of the left three connecting rods, and the left five connecting rods are hinged to the lower surface of the left six connecting rods;
first telescopic machanism still includes fixed connection left optical axis, fixed connection on the cylinder support are in five connecting rods on a left side with the first axle sleeve and the fixed connection of the six connecting rod pin joints on a left side are in the second axle sleeve of a left side on four connecting rods on a left side and the three connecting rod pin joints on a left side, first axle sleeve of a left side and second axle sleeve with the same axle center of left optical axis.
Further:
the human-computer interaction device comprises a media display screen, an audio device, a host and a control button which are arranged on the assembly working platform; the host computer controls the media display screen and the audio device.
The beneficial effects of the utility model
The utility model provides a real device of instructing of wind turbine generator system equipment, this platform can regard as the teaching auxiliary assembly of wind power generation specialty universities and colleges, also can regard as the practice operation platform that maintenance personal maintained. This platform provides multiple functions:
the simulation workbench can simulate the assembly and debugging of each part; the main workbench which is provided with the lifting workbench and goes up and down is arranged on the simulation workbench, the main workbench is provided with the telescopic tool table for placing tools and the part table for placing the dismounting parts, and unnecessary actions of finding tools and placing parts during working are avoided, so that the teaching equipment is more complete, and the whole teaching is beneficial.
The utility model adds the simulation wind device to debug and simulate the yawing mechanism arranged in the wind wheel; general teaching platform only explains to the dismantlement and the structure of part, and the utility model discloses increased simulation wind device, after the assembly is accomplished, can carry out the simulation to the work of each part of whole wind turbine generator system, made the student have fully wholly know to the application of this equipment, more abundant to understanding on its manual operation to form impression deeply, improve the learning effect.
The utility model discloses not only set up the prototype is reduced to the machinery of main equipment among the wind turbine generator system, still included man-machine interaction system, the media display screen combines together the teaching courseware in mechanical manual operation study and the media display screen, including simulation equipment video on the spot, dismantle equipment model part video, circuit wiring and debugging video, hydraulic system pipeline arrangement video and training content such as failure analysis training courseware in the teaching courseware. The method has the advantages that the trainees can learn the system from mechanical parts to the whole wind turbine generator set, the video is explained from the parts assembly to the manual operation of the trainees, the parts structure and the principle are mastered by the manual assembly, the important fault parts are known from the fault analysis report, the installation mode needing to be noticed during assembly is understood from consciousness and the principle, the assembly error is avoided, the maintenance knowledge is trained, and the trainees can practice the manual operation while understanding the theory.
The utility model discloses can separately train each part of wind turbine generator system model when considering the experiment, set up the elevating platform that can control respectively to set up instrument platform and part platform on the elevating platform device, make things convenient for the student to operate.
Drawings
FIG. 1 is a perspective view of a simulation workbench of the present invention;
FIG. 2 is a schematic structural view of the lifting table of the present invention;
FIG. 3 is a schematic front view of the lifting platform of the present invention in an extended state;
fig. 4 is a schematic top view of the lifting table according to the present invention in an extended state;
fig. 5 is a schematic structural view of the telescopic mechanism of the present invention;
fig. 6 is a schematic front view of the wind simulation device of the present invention;
fig. 7 is a schematic top view of the wind simulation apparatus of the present invention;
fig. 8 is a perspective view of the lifting table of the present invention.
In the figure, 1 a worktable frame; 11 assembling a working platform; 20 a transmission device; 30 lifting the workbench; 201 double output motor, 202 left bevel gear; 203 a left second bevel gear; 204 left screw rod; 205 left nut; 206 left U-shaped frame; 207 right bevel gear; 208 right double bevel gear; 209 right screw; 210 a right nut; 211 right U-shaped frame; 301 a main table; 302 a cylinder support; 303 a bidirectional cylinder; 304 a first piston rod; 3051 a left connecting rod; 3052 a left two-bar linkage; 3053 a left three-bar linkage; 3054 a left four bar linkage; 3055 a left five-bar linkage; 3056 a left six-bar linkage; 3057 a first pin; 3058 a second pin; 3059 a third pin; 3060 a first sleeve; 3061 second shaft sleeve; 3062 left optic axis; 307 a second piston rod; 308 a tool table; 309 a part table; 401 supporting a table; 402 arc support plates; 403 a blower; 404 an air duct; 405 a spherical sleeve; 406 a gear; 407 a propeller shaft; 408 a second motor; 409 plane shaft sleeves; 410 a connecting rod; 411 shaft sleeve bracket.
Detailed Description
As shown in fig. 1, the utility model provides a wind turbine equipment practical training device, which comprises a simulation workbench, a wind turbine model arranged on the simulation workbench, a simulation wind device arranged on one side of the simulation workbench, an electrical control system arranged on the other side of the simulation workbench, and a human-computer interaction device arranged on the upper end of the simulation workbench; and the electric appliance control system is electrically connected with the wind turbine generator model.
The simulation workbench fixes a wind turbine model to be assembled, firstly, an assembly video of main components in the wind turbine model is explained through the human-computer interaction device, after the explanation is finished, a student carries out manual operation according to training contents, the wind turbine model is assembled according to a training video method, after the assembly is finished, a debugging experiment is carried out, and the simulation wind device can display a variable pitch device of a wind wheel.
As shown in fig. 2, the simulation workbench includes a workbench frame 1, an assembly workbench 11, a transmission device 20, and a lifting workbench 30;
the assembling working platform 11 is fixedly connected to the working platform frame 1, a groove through hole is formed in the assembling working platform, and the number of the lifting working platforms 30 is the same as that of the parts of the wind turbine generator model; the assembly working platform is an operation platform during the integral assembly of the wind turbine generator, and the whole test platform is on the same horizontal plane. After the student accomplished wind turbine generator system assembly training, dismantle the separation to the wind turbine generator system model, transmission 20 fixes on workstation frame 1, is connected with the transmission of elevating platform 30, when transmission 20 main power starts, the wind turbine generator system model upwards moves along with elevating platform 30, combine human-computer interaction system can dismantle respectively the training of equipment to the wind turbine generator system model, this utility model discloses it carries out the training respectively of different models to lie in holding many students, make real standard platform can more high-efficient performance.
The transmission device 20 comprises a double-output motor 201 fixedly connected to the assembling work platform 11, a left first bevel gear 202, a left second bevel gear 203, a left screw 204, a left nut 205 and a left U-shaped frame 206; the lifting workbench 30 further comprises a right first bevel gear 207, a right second bevel gear 208, a right screw 209, a right nut 210, a right U-shaped frame 211 and a part workbench which are fixedly connected to the output shaft of the other end of the double-output motor. The specific working process of the transmission device 20 is as follows: the double-output motor 201 is fixedly connected to the lower plane of the worktable frame, after the double-output motor 201 is started, output shafts at two ends of the double-output motor rotate simultaneously and are respectively a first output shaft and a second output shaft, the first output shaft is in key connection with a left bevel gear 202, the second output shaft is in key connection with a right bevel gear 207, the left bevel gear 202 is in meshing transmission with the left bevel gear 203, the right bevel gear 208 is in meshing transmission with the right bevel gear 207, the left bevel gear 202 is in key connection with a left screw 204, the right bevel gear 207 is in key connection with a right screw 209, the left screw 204 and the right screw 209 are driven to rotate simultaneously, the left nut 205 is in transmission connection with the left screw 204, and the left nut 205 is in bolt connection with the left U-shaped frame 206; the right nut 210 is connected to the right screw 209 in a transmission mode, the right nut 209 is connected with the right U-shaped frame 211 through a bolt, the left U-shaped frame 206 and the right U-shaped frame 211 are connected with the part workbench through bolts, and the left U-shaped frame 206 and the right U-shaped frame 211 drive the part workbench to move upwards through transmission of the screws and the nuts. The double-screw transmission is adopted, so that the component workbench is stable when lifted, and the change of the levelness of the component workbench is small. The number of the transmission devices 20 is the same as that of the wind turbine generator models, each transmission device 20 can independently control the lifting workbench 30 to control lifting action respectively, the transmission devices 20 can be controlled by an electric control system to be started or closed simultaneously, and the lifted lifting workbench 30 can accommodate training courses for different wind turbine generators by multiple persons; when the whole system teaching training is carried out on a single person or a single batch of students, the lifting workbench 30 can be controlled to rise and fall one by one according to the teaching sequence, and the requirements of different teaching and learning cases are met.
As shown in fig. 3, 4, and 5, the component table (i.e., corresponding to the lifting table 30) includes a cylinder holder 302 fixedly connected to the main table 301, a bidirectional cylinder 303 fixedly connected to the cylinder holder 302, a first telescopic mechanism fixedly connected to a first piston rod 304 of the bidirectional cylinder 303, a second telescopic mechanism fixedly connected to a second piston rod 307 of the bidirectional cylinder, a tool table 308 fixedly connected to the first telescopic mechanism, and a component table 309 fixedly connected to the second telescopic mechanism.
For more specific explanation, the component direction is defined as the left-right direction of fig. 4. The first telescopic mechanism comprises a left first connecting rod 3051, a left second connecting rod 3052, a left third connecting rod 3053, a left four connecting rod 3054, a left five connecting rod 3055, a left six connecting rod 3056, a left first shaft sleeve 3060, a left second shaft sleeve 3061 and a left optical axis 3062; the first telescopic mechanism further comprises a left first pin 3057, a left second pin 3058 and a left third pin 3059.
One end of the left connecting rod 2051 is rotatably connected with the left piston rod 304, and the other end of the left connecting rod 3051 is rotatably connected with the left three connecting rod 3053; one end of the left second connecting rod 3052 is rotatably connected to the left first piston rod 304, and the other end of the left second connecting rod 3052 is rotatably connected to the left four connecting rod 3054; the central part of the left three-bar linkage 3053 is rotatably connected with the central part of the left four-bar linkage 3054; the left five-link 3055 is rotatably connected to the left three-link 3053 and is far away from the left one-link 3051, and the left six-link is rotatably connected to the left four-link 3054 and is far away from the left two-link 3052. The left pin 3057 is rotatably connected to the hinged joints of the left connecting rod 3051, the left connecting rod 3052 and the left piston rod 304. The left second hinge pin 3061 is rotatably connected with a hinged part of the left three-bar 3053 and the left four-bar 3054, and the left third hinge pin 3059 is rotatably connected with a hinged part of the left five-bar 3055 and the left six-bar 3056. The left second pin 3058 is in bolted connection with a left first shaft sleeve 3060, and the left third pin 3059 is in bolted connection with a left second shaft sleeve 3061. The cylinder support 302 is fixedly connected with a left optical axis 3062, the left first shaft sleeve 3060 and the left second shaft sleeve 3061 are linear shaft sleeves, inner holes of the linear shaft sleeves slide on the optical axis 3062, and the tool table 309 is connected to the left second shaft sleeve 3061 through bolts. The second telescopic mechanism has the same structure as the first telescopic mechanism.
The second telescopic mechanism comprises a right first connecting rod, a right second connecting rod, a right third connecting rod, a right four connecting rod, a right five connecting rod, a right six connecting rod, a right first pin shaft, a right second pin shaft, a right third pin shaft, a right first shaft sleeve, a right second shaft sleeve and a right optical axis;
one end of the right connecting rod is rotatably connected with the second piston rod 307, and the other end of the right connecting rod is rotatably connected with the right three-connecting rod; one end of the right two connecting rods is rotatably connected with the right piston rod, and the other end of the right two connecting rods is rotatably connected with the right four connecting rods; the center part of the right three-connecting rod is rotationally connected with the center part of the right four-connecting rod; the right five-connecting rod is rotatably connected to the right three-connecting rod and is far away from the right connecting rod, and the right six-connecting rod is rotatably connected to the right four-connecting rod and is far away from the right two-connecting rod. The right pin is used for rotatably connecting the hinged parts of the right connecting rod, the right connecting rod and the second piston rod 307. The right two hinge pins are rotatably connected with the hinged position of the right three-connecting rod and the right four-connecting rod, and the right three hinge pins are rotatably connected with the hinged position of the right five-connecting rod and the right six-connecting rod. The right two-pin bolt is connected with a right first shaft sleeve, and the right three-pin bolt is connected with a right second shaft sleeve. The right optical axis is fixedly connected to the support, the right first shaft sleeve and the right second shaft sleeve are linear shaft sleeves, inner holes of the linear shaft sleeves slide on the right optical axis, and the part table 308 is connected to the right second shaft sleeve through bolts.
After the lifting workbench 30 is lifted, the dual-output motor 201 stops, the first piston rod 304 and the second piston rod 307 of the bidirectional cylinder 303 extend out at the same time, the left connecting rod 3051, the left connecting rod 3052, the left connecting rod 3053, the left four connecting rod 3054, the left five connecting rod 3055 and the left six connecting rod 3056 are in a cross connection structure, and the first pin 3057, the second pin 3058 and the third pin 3059 are pushed out in the direction away from the cylinder at the same time and drive the part table 309 fixedly connected to the second sleeve 3061 to be pushed out in the direction away from the cylinder. At the same time, the second telescoping mechanism pushes the tool table 308 away from the cylinder by the same distance. At the moment, the trainees can train and learn corresponding models, disassemble single parts, combine training courseware of the human-computer interaction device, enable the trainees to combine theory and reality with the internal structure and maintenance knowledge of the models, and can place the disassembled parts on the extended part table 309, so that the models are not easy to lose or lose; on the tool table 308, tools needed by the model are placed, so that the tools do not need to be found in the learning process, and the learning efficiency is improved. The telescopic mechanism is adopted because the telescopic mechanism arranged under the lifting working table 30 is not suitable for using the cylinder with too large stroke, and the telescopic mechanism adopts the connecting rod transmission of a cross structure, so that the cylinder with shorter stroke can be used, and the stroke output is larger.
As shown in fig. 1 and 6, the wind turbine model includes a wind wheel, a gear box, a main shaft, a generator, a base, a yaw mechanism and a wind turbine shroud. The wind wheel is fixedly connected to the base, and a yaw mechanism is connected to the lower portion of the base. The wind wheel is connected to the input shaft end of the gear box through a main shaft; the output shaft of the gear box is connected with the output shaft of the generator; the wind turbine generator set shield is arranged at the periphery of the wind wheel, the gear box, the main shaft and the motor; the yawing mechanism is fixedly connected to the lower end of the wind turbine generator set shield; the wind wheel, the gear box and the generator are all provided with a cutting shield with the same shape as the object,
the model is a reduced model of a real object, the internal structure of the model is the same as that of the existing real object, and the wind wheel model is provided with a variable pitch device; the gearbox model adopts a planet and parallel shaft hybrid transmission structure, the wind driven generator model adopts a brush double-fed generator, and the shield is cut open so as to see the internal structure of the model.
As shown in fig. 7 and 8, the wind simulation device of the wind turbine generator further includes a support base 401, an arc support plate 402 rolling-connected to the support base 401, a blower 403 fixedly connected to the arc support plate 402, an air duct 404 fixedly connected to an air outlet of the blower 403, and a spherical sleeve 405 fixedly connected to an air outlet of the air duct 404; the wind simulating device is arranged opposite to the wind wheel. The wind turbine generator wind simulation device further comprises an elliptic gear 406 which is connected to the arc support plate 402 in a meshed mode, a transmission shaft 407 which is fixedly connected to the elliptic gear 406, a second motor 408 of which the output shaft is fixedly connected with the transmission shaft 407, and a plane bearing 409 which is arranged between the upper end face of the support platform 401 and the lower end face of the arc support plate 402; the second motor 408 is fixedly connected to the support base 401.
The radius of the elliptic gear 406 changes with the rotation, the radius of the circular arc tooth of the circular arc support plate 402 changes with the change of the radius of the elliptic gear 406, and the distance between the operation axis of the circular arc support plate 402 and the axis of the elliptic gear 406 is constant in the operation process.
The specific working process is that the second motor 408 rotates, a transmission shaft 407 which is connected with the second motor 408 in a key way rotates, an elliptic gear 406 which is fixedly connected with the transmission shaft 407 rotates, the elliptic gear 406 is in transmission connection with the arc support plate 402, so that a blower 403 which is fixedly connected with the arc support plate 402 through bolts slides on the upper surface of the support platform 401, in order to reduce friction, a plane bearing 409 is added between the arc support plate 402 and the support platform 401, a spherical sleeve 405 is arranged at an air outlet of the air pipe 404, an inner hole of the spherical sleeve 405 is fixedly connected with the air pipe 404, the blower 403 has a frequency conversion function and can control the size of air outlet, after the second motor 408 is started, the elliptic gear 406 rotates to drive the arc support plate 402 which is meshed with the second motor to rotate around the opposite wind wheel, and a shaft sleeve bracket 411 which is connected with the, set up ball type recess on the axle sleeve support 411, because the export of tuber pipe 404 is provided with spherical cover 405, spherical cover 405 excircle is spherical, with the hole of axle sleeve support frame 411 produces relative slip. In order to reduce the weight of the air pipe 404, the air pipe 404 is a 0.1 mm aluminum foil hose, air with different speeds can be output by the blower 403, when the air speed is switched, the spherical sleeve 405 swings in the shaft sleeve bracket 411, the larger the difference of the air speed is, the larger the swing is, and at the moment, the air direction of the air outlet of the air pipe 404 is changed along with the spherical sleeve 405, so that the natural wind is simulated approximately. The second motor 408 is switched between positive and negative rotation during operation. The switching time of the second motor 408 is controlled according to the stroke of the circular arc support plate 402. The arrangement of the wind simulating device is used for training and explaining the movement of the variable pitch device in the running process of the wind wheel, so that the training of the variable pitch device is closer to the actual work.
The human-computer interaction device comprises a media display screen fixedly connected to the upper end of the assembly working platform 11, an audio device fixedly connected to the upper end of the assembly working platform 11, a host computer communicated with the media display screen and the audio device, and a button fixedly connected to the lower end of the test platform; the buttons control the dual output motor 201, the bi-directional cylinder 303, and the second motor 408. The media display screen is communicated with the host computer.
The utility model can also be arranged on the hydraulic system of the simulation workbench; the hydraulic system comprises a hydraulic station, a control system and an actuating mechanism.
The utility model discloses simulate on the spot and assemble video, dismantle equipment model part video, circuit wiring and debug video, hydraulic system pipeline and arrange training content such as video and failure analysis training courseware and the real platform of instructing of teaching that artifical manual operation combined together, have stronger more audio-visual training effect to the study of wind power generation trade and maintainer.
Additionally, the utility model discloses a simulation wind device needs the modified detail in addition, because this device is not test platform, and simulation wind device only can go deep into the improvement again in other test platform for the training of becoming the oar device.
Claims (10)
1. The utility model provides a real device of instructing of wind turbine generator system equipment which characterized in that: the system comprises a simulation workbench (1), a wind turbine generator model (2) arranged on the simulation workbench (1), a simulation wind device (4) arranged on one side of the simulation workbench (1) and a human-computer interaction device arranged on the simulation workbench (1);
the wind turbine generator model is electrically connected with the human-computer interaction device.
2. The wind turbine generator equipment training device according to claim 1, characterized in that:
the simulation workbench comprises an assembly workbench (11), a transmission device (20) fixedly connected to the assembly workbench (11) and a lifting workbench (30) in transmission connection with the transmission device (20);
the assembling working platform (11) is provided with a through hole;
the lifting workbench (30) moves up and down through a through hole of the assembling workbench (11);
the number of the lifting working platforms (30) is at least one.
3. The wind turbine generator equipment training device according to claim 2, characterized in that:
the transmission device (20) comprises a double-output motor (201) fixedly connected to the assembling work platform (11), a left bevel gear (202) fixedly connected to an output shaft at one end of the double-output motor (201), a left bevel gear (203) in meshed connection with the left bevel gear (202), a left screw (204) fixedly connected to the left bevel gear (203), a left nut (205) in meshed connection with the left screw (204), and a left U-shaped frame (206) fixedly connected to the left nut;
the lifting workbench (30) further comprises a right first bevel gear (207) fixedly connected to an output shaft at the other end of the double-output motor (201), a right second bevel gear (208) in meshed connection with the right first bevel gear (207), a right screw (209) fixedly connected to the right second bevel gear (208), a right nut (210) in meshed connection with the right screw (209), and a right U-shaped frame (211) fixedly connected to the right nut (210);
the left U-shaped frame (206) and the right U-shaped frame (211) are fixedly connected to the lower end of the lifting workbench (30);
the left U-shaped frame (206) and the right U-shaped frame (211) push the lifting workbench (30) to penetrate through the through hole in the assembling workbench (11).
4. The wind turbine generator equipment training device according to claim 3, characterized in that:
elevating platform (30) include main workstation (301), fixed connection cylinder support (302), fixed connection on main workstation (301) are in two-way cylinder (303), fixed connection on cylinder support (302) are in first telescopic machanism, fixed connection on two-way cylinder (303) first piston rod (304) are in second telescopic machanism, fixed connection on two-way cylinder second piston rod (307) are in instrument platform (308) and fixed connection on the second telescopic machanism are in spare part platform (309) on the first telescopic machanism.
5. The wind turbine generator equipment training device according to claim 4, characterized in that:
the wind turbine generator model comprises a wind wheel, a gear box, a main shaft, a generator, a yawing mechanism, a base and a wind turbine generator shield;
the wind wheel is fixedly connected to the base, and a yaw mechanism is connected below the base;
the wind wheel is connected to the input shaft end of the gear box through a main shaft;
the output shaft of the gear box is connected with the input shaft of the generator;
the wind turbine generator set shield is wrapped on the wind wheel, the gear box, the main shaft and the periphery of the motor;
the wind wheel is provided with a variable pitch device;
the wind turbine generator system shield is a split shield.
6. The wind turbine generator equipment training device according to claim 5, characterized in that:
the simulated wind device comprises a support platform (401), an arc support plate (402) arranged on the support platform (401), a blower (403) fixedly connected to the arc support plate (402), and a wind pipe (404) fixedly connected to an air outlet of the blower (403); the air duct (404) is arranged opposite to the front face of the wind wheel.
7. The wind turbine generator equipment training device according to claim 6, characterized in that:
the wind simulation device further comprises an elliptic gear (406) which is connected to the arc supporting plate in a meshed mode, a transmission shaft (407) which is fixedly connected to the elliptic gear (406), a second motor (408) of which an output shaft is fixedly connected with the transmission shaft (407), and a plane bearing (409) which is arranged between the upper end face of the supporting table (401) and the lower end face of the arc supporting plate (402);
the arc supporting plate (402) is provided with teeth meshed with the elliptic gear (406),
the arc support plate (402) and the elliptic gear (406) are provided with connecting rods (410) on the axes; one end of the connecting rod (410) is rotatably connected to the arc supporting plate (402), and the other end of the connecting rod (410) is rotatably connected with the axis of the elliptic gear (406);
the second motor (408) is fixedly connected to the support platform (401).
8. The wind turbine generator equipment training device according to claim 6, characterized in that:
the wind simulation device also comprises a spherical sleeve (405) fixedly connected with the air outlet of the air pipe (404) and a shaft sleeve support (411) fixedly connected to the support platform (401); the upper end of the shaft sleeve support (411) is provided with a spherical hole matched with the spherical sleeve (405), and the shaft sleeve support (411) is connected with the spherical sleeve (405) in a sliding manner.
9. The wind turbine generator equipment training device according to claim 4, characterized in that:
the first telescopic mechanism comprises a left connecting rod (3051) with one end rotatably connected to the first piston rod, a left second connecting rod (3052) rotatably connected to the first piston rod, a left three connecting rod (3053) rotatably connected to the other end of the left connecting rod (3051), a left four connecting rod (3054) rotatably connected to the left second connecting rod (3052), a left six connecting rod (3056) rotatably connected to the left three connecting rod (3053) and a left five connecting rod (3055) rotatably connected to the left four connecting rod (3054);
the left two connecting rods (3052) are hinged to the lower surface of the left one connecting rod (3051), the left four connecting rods (3054) are hinged to the lower surface of the left three connecting rod (3053), and the left five connecting rod (3055) is hinged to the lower surface of the left six connecting rod (3056);
the first telescopic mechanism further comprises a left optical axis (3062) fixedly connected to the cylinder support (302), a left first shaft sleeve (3060) fixedly connected to a hinge point of the left five connecting rod (3055) and the left six connecting rod (3056), and a left second shaft sleeve (3061) fixedly connected to a hinge point of the left four connecting rod (3054) and the left three connecting rod (3053), and the left first shaft sleeve (3060) and the left second shaft sleeve (3061) are coaxial with the left optical axis (3062).
10. The wind turbine generator equipment training device according to claim 9, characterized in that: the human-computer interaction device comprises a media display screen, an audio device, a host and a control button which are arranged on the assembly working platform (11); the host computer controls the media display screen and the audio device.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202021018525.5U CN213458520U (en) | 2020-06-05 | 2020-06-05 | Real device of instructing of wind turbine generator system equipment |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202021018525.5U CN213458520U (en) | 2020-06-05 | 2020-06-05 | Real device of instructing of wind turbine generator system equipment |
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| Publication Number | Publication Date |
|---|---|
| CN213458520U true CN213458520U (en) | 2021-06-15 |
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Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202021018525.5U Active CN213458520U (en) | 2020-06-05 | 2020-06-05 | Real device of instructing of wind turbine generator system equipment |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN213458520U (en) |
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