Display system for simulating mechanical transmission

Abstract

The utility model belongs to the technical field of teaching models, and particularly relates to a display system for simulating mechanical transmission, which comprises an exhibition stand, a storage pool is arranged on the exhibition stand, and a plurality of conveying pieces are arranged in the storage pool; the conveying device can convey a conveying piece, the conveying device comprises a collecting groove, the collecting groove can collect the conveying piece, the demonstration device is used for demonstrating a conveying mode, the demonstration device comprises an interstellar cannon simulation assembly, and the interstellar cannon simulation assembly comprises a base, a first fan, a direction adjusting mechanism, an interstellar cannon simulation piece, a first operation piece and a target ring. The base is arranged on the storage pool, the interstellar cannon simulation piece is connected with the base through the direction adjusting mechanism, the first fan is arranged in the interstellar cannon simulation piece and is in telecommunication connection with the first operating piece, the first operating piece is arranged on the base, and the target ring is arranged at a notch of the collecting groove. On one hand, the manipulative ability of the user is improved, and on the other hand, the user experience is improved while the teaching quality is improved.

Description

Technical Field

[0001] The utility model belongs to the technical field of teaching models, and in particular relates to a display system for simulating mechanical transmission. Background Art

[0002] Mechanical transmission is a way of achieving energy transfer by using power conversion between mechanical elements. The power conversion of mechanical elements can be achieved through gears, chains, belt drives, couplings, reducers, etc. Mechanical transmission can transfer a certain power and speed from one device to another, and achieve the correct connection and power transmission between different mechanical parts. It is an indispensable technology in the field of modern mechanical engineering.

[0003] When learning the theoretical knowledge of mechanical transmission, in order to further deepen students' understanding and knowledge of mechanical transmission, teachers will use a more intuitive teaching method of demonstration teaching aids, which often plays a good role in enlightenment and inspiration in the actual teaching process.

[0004] However, for children who have been interested in mechanical transmission since childhood, if the existing mechanical transmission demonstration teaching aids are used for teaching, it is obvious that most of the teaching aids are more suitable for high school students or college students due to their complex principles. For students aged 9 to 12 who want to learn mechanical transmission, the existing teaching aids have a complex structure and low hands-on operation, which leads to a decrease in students' interest in learning, low learning efficiency and poor student experience. Summary of the invention

[0005] In view of this, the utility model provides a display system for simulating mechanical transmission to solve the technical problems in the prior art that mechanical transmission demonstration teaching aids have complex structures and low hands-on operability, resulting in reduced students' learning interest, low learning efficiency and poor student experience.

[0006] To achieve the above objectives, this application adopts the following scheme:

[0007] A display system for simulating mechanical transmission, characterized in that it includes an exhibition stand, a conveying device and a demonstration device, wherein a storage tank is arranged on the exhibition stand, and a plurality of conveying members are placed in the storage tank; the conveying device includes a collecting tank, a support frame and a spiral conveying mechanism, one end of the support frame is connected to the storage tank, and the other end of the support frame is connected to the collecting tank, the inlet end of the spiral conveying mechanism is connected to the inner bottom of the storage tank, and the outlet end of the spiral conveying mechanism is connected to the notch of the collecting tank; the demonstration device includes an interstellar cannon simulation component, and the interstellar cannon simulation component includes a base, a first fan, a direction adjustment mechanism, an interstellar cannon simulation part, a first operating part and a target ring, the base is arranged on the storage tank, the interstellar cannon simulation part is connected to the base through the direction adjustment mechanism, the first fan is arranged in the interstellar cannon simulation part, the first fan is electrically connected to the first operating part, the first operating part is arranged on the base, and the target ring is arranged at the notch of the collecting tank.

[0008] Preferably, the bottom of the collecting tank is an opening and closing mechanism.

[0009] Preferably, a sensing device is provided at a specified height in the collecting tank, and the sensing device is electrically connected to the opening and closing mechanism.

[0010] Preferably, the demonstration device also includes an air cannon simulation component, which includes an air cannon simulation part, a rotating mechanism, a silicone pad and an effect demonstration part, the rotating mechanism is arranged on the storage tank, the air cannon simulation part is connected to the rotating mechanism, the silicone pad is arranged at one end of the air cannon simulation part, the air cannon simulation part is a cylindrical structure, and the effect demonstration part is hung on the storage tank.

[0011] Preferably, the demonstration device also includes a spiral scale simulation component, which includes a modeling booth, a first transparent pipe, a second fan, a second operating member, a first spiral track, a second spiral track, a sound effect lamp and a sound effect sensing device. The modeling booth is arranged on the storage pool, the interior of the modeling booth is a hollow structure, an inlet is provided on the modeling booth, and the inlet is connected to the hollow structure; the bottom end of the first transparent pipe is connected to the hollow structure, the second fan is arranged in the modeling booth and is located at the bottom end of the first transparent pipe; the tops of the first spiral track and the second spiral track are arranged at the top of the first transparent pipe, the bottoms of the first spiral track and the second spiral track are arranged on both sides of the modeling booth, and the second operating member is electrically connected to the second fan; the sound effect lamp is arranged at the top of the first transparent pipe, and sound effect sensing devices are provided in the first spiral track and the second spiral track, and the sound effect sensing device is electrically connected to the sound effect lamp.

[0012] Preferably, it also includes a simulated conveying device, which is arranged on the booth, and includes a first conveying component, which includes a second transparent pipe, a third fan, a sliding transfer member and a spiral conveying member, the third fan is arranged at the inlet end of the second transparent pipe, the sliding transfer member is located below the outlet end of the second transparent pipe, and the inlet of the spiral conveying member is connected to one end of the sliding transfer member.

[0013] Preferably, it also includes a second conveying component, which includes a probability simulation component, a lifting component, a third transparent pipe and a fourth fan, the inlet of the probability simulation component is connected to the outlet of the spiral conveying component, the bottom of the probability simulation component is provided with an outlet, the lifting component is located below the outlet, the first end of the third transparent pipe is provided on one side of the lifting component, and the fourth fan is located below the first end.

[0014] Preferably, it also includes a third conveying component, which includes a step lifting member, a waterwheel simulation member, a fifth fan and a fourth transparent pipe, the bottom end of the step lifting member is connected to the second end of the third transparent pipe, the step lifting member is connected to the waterwheel simulation member, and the step lifting member is provided with a plurality of lifting steps; the waterwheel simulation member is provided with a rotating turntable, the fifth fan is arranged on the side of the waterwheel simulation member facing the step lifting member, and the side of the waterwheel simulation member facing away from the step lifting member is connected to the entrance of the fourth transparent pipe.

[0015] Preferably, it also includes a return component, which includes a fifth transparent pipe and a sixth fan, one end of the fifth transparent pipe is connected to the third conveying component, and the other end of the fifth transparent pipe is connected to the collecting trough, and the sixth fan is located below one end of the fifth transparent pipe.

[0016] The technical solution adopted in this application can achieve the following beneficial effects:

[0017] The present application provides a display system for simulating mechanical transmission, including an exhibition stand, a storage tank is arranged on the exhibition stand, and a plurality of transmission parts are placed in the storage tank; the conveying device can convey the transmission parts, the conveying device includes a collecting tank, and the collecting tank can collect the transmission parts, the demonstration device is used to demonstrate the transmission method, the demonstration device includes an interstellar cannon simulation component, the interstellar cannon simulation component includes a base, a first fan, a direction adjustment mechanism, an interstellar cannon simulation part, a first operating part and a target ring, the base is arranged on the storage tank, the interstellar cannon simulation part is connected to the base through the direction adjustment mechanism, the first fan is arranged in the interstellar cannon simulation part, the first fan is electrically connected to the first operating part, the first operating part is arranged on the base, and the target ring is arranged at the notch of the collecting tank. When in use, the user first triggers the switch of the spiral conveyor mechanism, and the bottom end of the spiral conveyor mechanism conveys the conveyor in the storage pool to the top end of the spiral conveyor mechanism, and the conveyor enters the collection tank, which can not only improve the user's hands-on ability but also deepen the user's understanding of the Archimedean spiral conveyor mechanism; next, the user inserts the conveyor into the interstellar cannon ball inlet; then, the user turns the direction adjustment mechanism to aim at the target ring; and triggers the first operating member to start the first fan, and the conveyor will be shot toward the target ring, and the conveyor can be shot into the collection tank. The conveying device provided in this solution combined with the demonstration device can improve the user's hands-on ability and participation, improve the user experience, increase interest, and also improve the quality of teaching. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic diagram of the overall structure of the utility model.

[0019] Figure 2 It is a structural schematic diagram of the interstellar cannon simulation component in the utility model.

[0020] Figure 3 It is a structural schematic diagram of the air cannon simulation component of the utility model.

[0021] Figure 4 It is a structural schematic diagram of the spiral scale simulation component in the utility model.

[0022] Figure 5 It is a top view of the spiral scale simulation component in the utility model.

[0023] Figure 6 It is a schematic diagram of the structure of the first transmission component to the third transmission component in the present invention.

[0024] In the figure, the exhibition stand 100, the storage tank 200, the transmission member 210, the conveying device 300, the collection tank 310, the support frame 320, the spiral transmission mechanism 330, the sensing device 311, the demonstration device 400, the interstellar cannon simulation component 410, the base 411, the first fan 412, the direction adjustment mechanism 413, the interstellar cannon simulation component 414, the first operating component 415, the target ring 416, the air cannon simulation component 420, the air cannon simulation component 421, the rotating mechanism 422, the silicone pad 423, the effect demonstration component 424, the spiral scale simulation component 430, the modeling exhibition stand 431, the first transparent pipe 432, the second fan 433, the second operating component 434 , the first spiral track 435, the second spiral track 436, the sound effect light 437, the sound effect sensing device 438, the feed port 439, the simulated conveying device 500, the first conveying component 510, the second transparent pipe 511, the third fan 512, the sliding transfer component 513, the spiral conveying component 514, the second conveying component 520, the probability simulation component 521, the lifting component 522, the third transparent pipe 523, the fourth fan 524, the third conveying component 530, the step lifting component 531, the water wheel simulation component 532, the fifth fan 533, the fourth transparent pipe 534, the rotating turntable 535, the return component 600, the fifth transparent pipe 610, and the sixth fan 620. DETAILED DESCRIPTION

[0025] In order to facilitate the understanding of the present application, the present application will be described more comprehensively below in conjunction with the accompanying drawings. And the preferred implementation of the present application is given. However, the present application can be implemented in many different forms and is not limited to the implementation described herein. On the contrary, the purpose of providing these implementations is to make the disclosure of the present application more thoroughly and comprehensively understood.

[0026] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as those commonly understood by those skilled in the art to which this application belongs. The terms used herein in the specification of this application are only for the purpose of describing specific embodiments and are not intended to limit this application. The term "and / or" used herein includes any and all combinations of one or more of the related listed items.

[0027] Please see Figures 1 to 6 The present application describes a display system for simulating mechanical transmission through the following embodiments, including a booth 100, a conveying device 300 and a demonstration device 400, wherein:

[0028] The exhibition stand 100 is provided with a storage tank 200, and a plurality of conveying members 210 are placed in the storage tank 200; the conveying device 300 includes a collecting tank 310, a support frame 320 and a spiral conveying mechanism 330, one end of the support frame 320 is connected to the storage tank 200, and the other end of the support frame 320 is connected to the collecting tank 310, the inlet end of the spiral conveying mechanism 330 is connected to the inner bottom of the storage tank 200, and the outlet end of the spiral conveying mechanism 330 is connected to the notch of the collecting tank 310; the demonstration device 400 includes an interstellar cannon simulation component 410, and the interstellar cannon simulation component 410 is connected to the interstellar cannon simulation component 410. The simulated component 410 includes a base 411, a first fan 412, a direction adjustment mechanism 413, an interstellar cannon simulation component 414, a first operating component 415 and a target ring 416, the base 411 is arranged on the storage tank 200, the interstellar cannon simulation component 414 is connected to the base 411 through the direction adjustment mechanism 413, the first fan 412 is arranged in the interstellar cannon simulation component 414, the first fan 412 is telecommunication-connected to the first operating component 415, the first operating component 415 is arranged on the base 411, and the target ring 416 is arranged at the notch of the collection tank 310.

[0029] The sizes of the exhibition stand 100 and the storage tank 200 can be specifically designed according to the actual production batch or formulation requirements; the cross-section of the collection tank 310 can be of any shape. In this embodiment, it is preferably a rectangle. A plurality of conveying members 210 are placed in the storage tank 200. The conveying members 210 are preferably conveying balls. In this embodiment, the storage tank 200 protrudes from the exhibition stand 100 on all sides. When too many conveying members 210 in the collection tank 310 fall down, they will be concentrated in the storage tank 200 for easy collection. The collection tank 310 is fixed to the storage tank 200 by the support frame 320. The height of the support frame 320 can be formulated according to actual needs. Preferably, the support frame 320 is set as a retractable structure. The demonstration device 400 is used to demonstrate different modes of transmission. A plurality of interstellar cannon simulation components 410 can be provided. A plurality of target rings 416 can also be provided. The diameters of the target rings 416 can be unequal. The interstellar cannon simulation part 414 is preferably in the shape of a barrel, and the interstellar cannon simulation part 414 has a ball entrance.

[0030] When in use, students, teaching staff or other users trigger the switch of the spiral conveying mechanism 330 , and the bottom end of the spiral conveying mechanism 330 conveys the conveying member 210 in the storage tank 200 to the top end of the spiral conveying mechanism 330 , and the conveying member 210 enters the collection tank 310 .

[0031] Next, the user inserts the conveying member 210 into the ball entrance of the interstellar cannon; then, the user turns the direction adjustment mechanism 413 and aims at the target ring 416; then, the user triggers the first operating member 415 and starts the first fan 412, and the conveying member 210 will be shot toward the target ring 416. If the conveying member 210 passes through the target ring 416, the conveying member 210 falls into the collection tank 310.

[0032] The user starts the switch of the spiral transmission mechanism 330 by himself, and observes the process of the transmission member 210 being transmitted from the storage tank 200 to the collection tank 310, which can not only improve the user's hands-on ability but also deepen the user's understanding of the Archimedean screw transmission mechanism; and the user operates the interstellar cannon simulation component 410 to transmit the transmission member 210 to the collection tank 310, and the user can deepen the understanding of aerodynamic transmission while experiencing mechanical transmission; the conveying device 300 provided in this solution combined with the demonstration device 400 can improve the user's hands-on ability and participation, improve the user experience, increase interest, and also improve the quality of teaching.

[0033] When there are too many conveying members 210 in the collection tank 310, the staff or user needs to take them out for use, which is time-consuming and laborious. In some preferred embodiments, the bottom of the collection tank 310 is an opening and closing mechanism. Specifically, the opening and closing mechanism includes a rotating drive unit and an opening and closing plate. The rotating drive unit is arranged at the bottom end side of the collection tank 310. The opening and closing plate is connected to the power output shaft of the rotating drive unit. The rotating drive unit drives the opening and closing plate to rotate. When the height of the conveying members 210 in the collection tank 310 is close to the position of the notch of the collection tank 310, the opening and closing plate avoids the bottom end of the collection tank 310; when the height of the conveying members 210 in the collection tank 310 is far from the position of the notch of the collection tank 310, the opening and closing plate covers and seals the bottom end of the collection tank 310.

[0034] When in use, when there are too many conveying members 210 in the collecting tank 310, the opening and closing mechanism can be controlled by operating the button to open, and the conveying members 210 in the collecting tank 310 fall into the storage pool 200. The opening and closing mechanism is arranged at the bottom of the collecting tank 310, which is more convenient and saves time and effort.

[0035] In order to automatically clean the conveying members 210 in the collecting tank 310 when a certain number of them are reached, in some specific embodiments, a sensing device 311 is provided at a specified height in the collecting tank 310, and the sensing device 311 is electrically connected to the opening and closing mechanism. In this embodiment, a sensing device 311 is provided 5 cm away from the notch of the collecting tank 310. When too many conveying members 210 in the collecting tank 310 touch the sensing device 311, the opening and closing mechanism opens to make the conveying members 210 in the collecting tank 310 fall. When the conveying members 210 in the collecting tank 310 fall, the opening and closing mechanism closes.

[0036] The advantage of such a configuration is that the conveying member 210 in the collecting tank 310 can be automatically cleaned and the workload of personnel can be reduced.

[0037] Furthermore, in some preferred embodiments, the demonstration device 400 also includes an air cannon simulation component 420, and the air cannon simulation component 420 includes an air cannon simulation part 421, a rotating mechanism 422, a silicone pad 423 and an effect demonstration part 424, the rotating mechanism 422 is arranged on the storage tank 200, the air cannon simulation part 421 is connected to the rotating mechanism 422, the silicone pad 423 is arranged at one end of the air cannon simulation part 421, the air cannon simulation part 421 is a cylindrical structure, and the effect demonstration part 424 is hung on the storage tank 200.

[0038] The air cannon simulation piece 421 is in the shape of a cannon barrel. When in use, the user adjusts the angle of the air cannon simulation piece 421 up and down to align it with the effect demonstration piece 424, and then taps the silicone pad 423 to generate a stream of flowing wind. The flowing wind can blow the effect demonstration piece 424 suspended on the storage tank 200, allowing the user to intuitively see the changes in the airflow, thereby increasing the user's hands-on ability and improving the user experience. The effect demonstration piece 424 can be a silk scarf or sequins.

[0039] Furthermore, the demonstration device 400 also includes a spiral scale simulation component 430, which includes a modeling stand 431, a first transparent pipe 432, a second fan 433, a second operating member 434, a first spiral track 435, a second spiral track 436, a sound effect light 437 and a sound effect sensing device 438. The modeling stand 431 is set on the storage tank 200, and the interior of the modeling stand 431 is a hollow structure. The modeling stand 431 is provided with an inlet 439, and the inlet 439 is connected to the hollow structure; the bottom end of the first transparent pipe 432 is connected to the hollow structure, and the second fan 433 is provided with a first transparent pipe 432. The second fan 433 is provided with a second transparent pipe 432. The second fan 433 is provided with a second transparent pipe 432. The first spiral track 435 and the second spiral track 436 are arranged at the top of the first transparent tube 432, and the bottoms of the first spiral track 435 and the second spiral track 436 are arranged on both sides of the modeling booth 431. The second operating member 434 is electrically connected to the second fan 433. The sound effect lamp 437 is arranged at the top of the first transparent tube 432, and the first spiral track 435 and the second spiral track 436 are both provided with a sound effect sensing device 438, and the sound effect sensing device 438 is electrically connected to the sound effect lamp 437. The modeling booth 431 can be of any shape, and the sound effect lamp 437 can also be of any shape. In the present embodiment, the sound effect lamp 437 is preferably in the shape of a star, and the shape of the hollow structure is preferably as follows. Figure 4 The conical hollow structure shown.

[0040] When in use, the user puts the conveying member 210 into the material inlet 439, and the conveying member 210 enters the hollow structure inside the modeling booth, triggering the second operating member 434, starting the second fan 433, and the conveying member 210 is blown up, and enters from the bottom end of the first transparent pipe 432 and is transported to the top end of the first transparent pipe 432. Then, the conveying member 210 falls along the first spiral track 435 or the second spiral track. Since the first spiral track 435 and the second spiral track 436 are provided with a sound effect sensing device 438, when the conveying member 210 passes through the first spiral track 435 and the second spiral track 436, the sound effect sensing device 438 is triggered, and the sound effect light 437 emits music and lights up.

[0041] Through the conveying method provided in this embodiment, the user can convey the conveying member 210 from the bottom of the first transparent pipe 432 to the top by himself, and the conveying member 210 falls along the first spiral track 435 or the second spiral track, which further improves the user experience and increases fun.

[0042] In order to enable users to further understand the principles of different mechanical transmissions, some optional embodiments also include a simulated transmission device 500, which includes a first transmission component 510, and the first transmission component 510 includes a second transparent pipe 511, a third fan 512, a sliding transfer component 513 and a spiral transmission component 514. The third fan 512 is arranged at the inlet end of the second transparent pipe 511, the sliding transfer component 513 is located below the outlet end of the second transparent pipe 511, and the inlet of the spiral transmission component 514 is connected to one end of the sliding transfer component 513.

[0043] In this embodiment, the booth is provided with a third operating member, and the third operating member is connected to the third fan 512. A ball hole is provided above the inlet end of the second transparent pipe 511. When in use, the user triggers the third operating member and puts the conveying member 210 into the ball hole. The conveying member 210 is conveyed to the outlet end of the second transparent pipe 511 and falls from the outlet end; next, the user operates the sliding pick-up member 513 to connect the conveying member 210 to the sliding pick-up member 513. The user manually operates the sliding pick-up member 513 to convey the conveying member 210 to the inlet of the spiral conveying member 514. The conveying member 210 is conveyed to the outlet through the inlet of the spiral conveying member 514.

[0044] This embodiment mainly simulates the process of conveying the conveying member 210 through the spiral lifting mechanism to the user, and the user operates the sliding transfer member 513 by himself, thereby improving the user experience and increasing the user's hands-on operation ability and participation.

[0045] Furthermore, it also includes a second conveying component 520, which includes a probability simulation component 521, a lifting component 522, a third transparent pipe 523 and a fourth fan 524, the inlet of the probability simulation component 521 is connected to the outlet of the spiral conveying component 514, the bottom of the probability simulation component 521 is provided with an outlet, the lifting component 522 is located below the probability simulation component 521, the first end of the third transparent pipe 523 is provided on one side of the lifting component 522, and the fourth fan 524 is located below the first end of the third transparent pipe 523.

[0046] A fourth operating component is provided on the booth, and the fourth operating component is electrically connected to the fourth fan. An entrance is provided on the probability simulation component 521, and the conveying component 210 enters the probability simulation component 521 from the entrance by virtue of inertial rolling. Several rows of obstacle columns are provided in the probability simulation component 521, and the obstacle columns of two adjacent rows are staggered. The conveying component 210 passes through the obstacle columns and the exit of the probability simulation component 521. The user triggers the fourth operating component to start the fourth fan 524, and the conveying component 210 is blown into the third transparent pipe 523 and enters the next interactive workstation.

[0047] Furthermore, the probability simulation member 521 is tilted downward from the entrance of the probability simulation member 521 to the exit of the probability simulation member 521, and a plurality of branch exits are provided on the probability simulation member 521. When in use, the conveying member 210 enters the entrance of the probability simulation member 521, rolls out from any branch exit according to probability, and falls into the probability simulation member 521.

[0048] In the process of simulating transmission in this embodiment, when the transmission member 210 passes through the probability simulation member 521, the user observes the process of the transmission member 210 entering the probability simulation member 521 and the transmission member 210 rolling out according to probability, which can deepen the user's understanding of probability and further improve the teaching quality.

[0049] Furthermore, it also includes a third transmission component 530, which includes a step lifting member 531, a waterwheel simulation member 532, a fifth fan 533 and a fourth transparent pipe 534. The bottom end of the step lifting member 531 is connected to the second end of the third transparent pipe 523, and the step lifting member 531 is connected to the waterwheel simulation member 532; a rotating turntable 535 is provided in the waterwheel simulation member 532, and the fifth fan 533 is provided on the side of the waterwheel simulation member 532 facing the step lifting member 531, and the side of the waterwheel simulation member 532 facing away from the step lifting member 531 is connected to the entrance of the fourth transparent pipe 534.

[0050] The booth is provided with a fifth operating member, which is connected to the fifth fan 533. The user waits for the conveyor 210 to fall from the third transparent pipe 523 into the step-lifting member 531. At this time, the steps on the step-lifting member 531 rise and fall in sequence, and finally the conveyor 210 is sent into the waterwheel simulation member 532. The conveyor 210 moves on the rotating turntable 535 as the rotating turntable 535 rotates. When the conveyor 210 moves to the entrance of the fourth transparent pipe 534, the fifth operating member is triggered, the fifth fan 533 is started, and the conveyor 210 is blown into the fourth transparent pipe 534. This embodiment mainly conveys the conveyor 210 by the step-lifting conveying method, which enables users to experience different conveying methods.

[0051] Among them, it also includes a return component 600, which includes a fifth transparent pipe 610 and a sixth fan 620. One end of the fifth transparent pipe 610 is connected to the third transmission component 530, and the other end of the fifth transparent pipe 610 is connected to the collection tank 310. The sixth fan 620 is located below one end of the fifth transparent pipe 610.

[0052] The booth is provided with a sixth operating member, which is connected to the sixth fan 620. Specifically, the sixth fan 620 is provided below the fourth transparent pipe 534, and the fourth transparent pipe 534 is connected to the fifth transparent pipe 610. When the conveying member 210 is blown into the fourth transparent pipe 534 by the fifth fan 533, the user triggers the sixth operating member, and the sixth operating member starts the sixth fan 620; the conveying member 210 in the fourth transparent pipe 534 is blown into the fifth transparent pipe 610, and the conveying member 210 is conveyed into the collection tank 310, thereby improving the user experience and increasing the fun.

[0053] The above description is only a specific implementation mode of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can easily think of various equivalent modifications or substitutions within the technical scope disclosed by the present invention, and these modifications or substitutions should be included in the protection scope of the present invention.

Claims

1. A display system for simulating mechanical transmission, characterized in that: It includes a booth, on which a storage pool is arranged, and in which a plurality of conveying parts are placed; A conveying device, the conveying device comprises a collecting tank, a support frame and a spiral conveying mechanism, one end of the support frame is connected to the storage tank, the other end of the support frame is connected to the collecting tank, the inlet end of the spiral conveying mechanism is connected to the inner bottom of the storage tank, and the outlet end of the spiral conveying mechanism is connected to the notch of the collecting tank; A demonstration device, the demonstration device includes an interstellar cannon simulation component, the interstellar cannon simulation component includes a base, a first fan, a direction adjustment mechanism, an interstellar cannon simulation component, a first operating component and a target ring, the base is arranged on the storage tank, the interstellar cannon simulation component is connected to the base through the direction adjustment mechanism, the first fan is arranged in the interstellar cannon simulation component, the first fan is electrically connected to the first operating component, the first operating component is arranged on the base, and the target ring is arranged at the notch of the collection tank.

2. The display system for simulating mechanical transmission according to claim 1, characterized in that: The bottom of the collecting tank is an opening and closing mechanism.

3. The display system for simulating mechanical transmission according to claim 2, characterized in that: A sensing device is provided at a specified height in the collecting tank, and the sensing device is electrically connected to the opening and closing mechanism.

4. The display system for simulating mechanical transmission according to claim 1, characterized in that: The demonstration device also includes an air cannon simulation component, which includes an air cannon simulation part, a rotating mechanism, a silicone pad and an effect demonstration part. The rotating mechanism is arranged on the storage pool, the air cannon simulation part is connected to the rotating mechanism, the silicone pad is arranged at one end of the air cannon simulation part, the air cannon simulation part is a cylindrical structure, and the effect demonstration part is hung on the storage pool.

5. The display system for simulating mechanical transmission according to claim 1, characterized in that: The demonstration device also includes a spiral scale simulation component, which includes a modeling booth, a first transparent pipe, a second fan, a second operating member, a first spiral track, a second spiral track, a sound effect lamp and a sound effect sensing device. The modeling booth is arranged on the storage pool, and the interior of the modeling booth is a hollow structure. An inlet is provided on the modeling booth, and the inlet is connected to the hollow structure; the bottom end of the first transparent pipe is connected to the hollow structure, and the second fan is arranged in the modeling booth and is located at the bottom end of the first transparent pipe; the tops of the first spiral track and the second spiral track are arranged at the top of the first transparent pipe, and the bottoms of the first spiral track and the second spiral track are arranged on both sides of the modeling booth, and the second operating member is electrically connected to the second fan; the sound effect lamp is arranged at the top of the first transparent pipe, and sound effect sensing devices are arranged in the first spiral track and the second spiral track, and the sound effect sensing device is electrically connected to the sound effect lamp.

6. The display system for simulating mechanical transmission according to claim 1, characterized in that: It also includes a simulated conveying device, which is arranged on the exhibition stand. The simulated conveying device includes a first conveying component, which includes a second transparent pipe, a third fan, a sliding transfer member and a spiral conveying member. The third fan is arranged at the inlet end of the second transparent pipe, the sliding transfer member is located below the outlet end of the second transparent pipe, and the inlet of the spiral conveying member is connected to one end of the sliding transfer member.

7. The display system for simulating mechanical transmission according to claim 6, characterized in that: It also includes a second conveying component, which includes a probability simulation component, a lifting component, a third transparent pipe and a fourth fan. The inlet of the probability simulation component is connected to the outlet of the spiral conveying component. The bottom of the probability simulation component is provided with an outlet. The lifting component is located below the outlet. The first end of the third transparent pipe is provided on one side of the lifting component, and the fourth fan is located below the first end.

8. The display system for simulating mechanical transmission according to claim 7, characterized in that: It also includes a third conveying component, which includes a step lifting member, a waterwheel simulation member, a fifth fan and a fourth transparent pipe. The bottom end of the step lifting member is connected to the second end of the third transparent pipe, and the step lifting member is connected to the waterwheel simulation member. The step lifting member is provided with a plurality of lifting steps. The waterwheel simulation member is provided with a rotating turntable. The fifth fan is provided on the side of the waterwheel simulation member facing the step lifting member, and the side of the waterwheel simulation member facing away from the step lifting member is connected to the entrance of the fourth transparent pipe.

9. The display system for simulating mechanical transmission according to claim 8, characterized in that: It also includes a return component, which includes a fifth transparent pipe and a sixth fan. One end of the fifth transparent pipe is connected to the third transmission component, and the other end of the fifth transparent pipe is connected to the collection tank. The sixth fan is located below one end of the fifth transparent pipe.

Images