Floating plate conveying system
By designing equipment such as elevators and aerial transfer machines in the floating plate conveying system, efficient stacking, unstacking, and transfer of floating plates have been achieved, solving the problem of large space occupation in existing systems and improving space utilization and conveying efficiency.
Patent Information
- Application Number
- CN202423109118.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-16
- Publication Date
- 2025-12-26
- Estimated Expiration
- 2034-12-16
AI Technical Summary
Existing floating conveyor systems occupy a large amount of space, especially when laid flat during storage, which affects the space utilization efficiency of greenhouses or sheds. Furthermore, the near-ground placement of the conveyor lines is not conducive to the rational planning of space.
A floating pallet conveying system was designed, including a first elevator, an aerial transfer machine, a stacker, a second elevator, and a destacking machine. Through stacking, destacking, and aerial transfer, combined with the use of transition trolleys and elevators, the system achieves efficient storage and transportation of floating pallet stacks and makes reasonable use of space.
It improves the efficiency of floating plate conveying, reduces space occupation, enhances space utilization, and allows multiple machines to operate simultaneously, thus improving the system's operating efficiency.
Smart Images

Figure CN223721915U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to conveying equipment technical field more specifically, relate to a kind of floating plate conveying system. BACKGROUND
[0002] With the development of agricultural mechanization in our country, seedling is more adopted to use automated production line, to improve seedling quality. The existing seedling is mostly adopted to use floating plate, so it needs to transport and convey floating plate, and the floating plate conveying system used plays a vital role. The system is not only related to the healthy growth of seedling, but also directly affects the efficiency and cost of the whole planting process. However, the existing floating plate conveying system has some technical challenges, especially in space occupation and conveying line planning.
[0003] Traditional floating plate conveying system occupies larger space, especially when floating plate is stored, it is stored in a flat manner, which increases the construction cost of greenhouse or greenhouse. Moreover, the conveying line of some conveying systems is set near the ground, which does not utilize the space in the greenhouse or greenhouse, reducing the space utilization efficiency. SUMMARY
[0004] The utility model provides a kind of floating plate conveying system, by reasonably setting and arranging conveying system, improve floating plate conveying efficiency, improve the space utilization of conveying system at the same time.
[0005] To achieve the above purpose, the technical scheme provided by the utility model is as follows:
[0006] A kind of floating plate conveying system, including first elevator, air transfer machine, stacker, second elevator, unstacker and floating plate stack storage area;
[0007] The stacker stacks floating plate into floating plate stack and conveys the floating plate stack to the floating plate stack storage area;The floating plate stack storage area is located below the air transfer machine, and the air transfer machine is used to transfer the floating plate stack to different positions in the floating plate stack storage area;The outlet of the floating plate stack storage area is connected with the unstacker, and the unstacker unstacks the floating plate stack and conveys each floating plate to the first elevator, and the first elevator lifts and conveys the floating plate to the first conveying platform, and the floating plate is conveyed to the second elevator after the first conveying platform, and the second elevator lowers and conveys the floating plate to the second conveying platform, and the second conveying platform outputs the floating plate.
[0008] As a further improvement, a first transition trolley, a second transition trolley and a plurality of storage trolleys are provided in the floating plate stack storage area;The inlet of the first transition trolley is connected with the outlet of the stacker, and the outlet of the second transition trolley is connected with the inlet of the unstacker.
[0009] As a further improvement, the stacking machine comprises a stacking lifting cylinder and a stacking clamping cylinder located on both sides of the stacking machine; a lifting rod is connected to the stacking lifting cylinder; a clamping plate is connected to the stacking clamping cylinder;
[0010] When a floating plate enters the stacking machine, the stacking lifting cylinder lifts the floating plate through the lifting rod, and the stacking clamping cylinder clamps the floating plate through the clamping plate, and so on to stack the floating plates to form a floating plate stack.
[0011] As a further improvement, the unstacking machine comprises an unstacking conveyor belt and an unstacking clamping cylinder located on both sides of the unstacking machine; an unstacking clamping plate is connected to the unstacking clamping cylinder; an unstacking belt push plate is protrudingly installed on the unstacking conveyor belt;
[0012] When the floating plate stack enters the unstacking machine and is located on the unstacking conveyor belt, the unstacking clamping cylinder clamps the floating plate stack except the bottom floating plate through the unstacking clamping plate, and the unstacking conveyor belt rotates and pushes the bottom floating plate out to the first elevator through the unstacking belt push plate.
[0013] As a further improvement, the aerial transfer machine comprises a transfer support and a transfer clamping cylinder connected to both ends of the transfer support; the transfer clamping cylinder can drive the transfer support to carry the floating plate stack; the aerial transfer machine is arranged on a transverse support and can move along the transverse support; both ends of the transverse support are arranged on a track support, and the transverse support can move along the track support.
[0014] As a further improvement, the second elevator and the first elevator have the same structure;
[0015] The first elevator comprises a frame, a plurality of conveying guide assemblies, and a plurality of carriers;
[0016] The frame is provided with a track in the shape of a ring, and the track has a plurality of different side walls;
[0017] The conveying guide assembly comprises a conveying block moving along the track, a guide assembly located at the rear side of the conveying block, and a rotating shaft penetrating the conveying block; the carrier is located at the front side of the conveying block, and one end of the rotating shaft is fixedly connected to the guide assembly and the other end is fixedly connected to the carrier;
[0018] The guide assembly comprises a horizontal guide wheel and a vertical guide wheel, and the horizontal guide wheel and the vertical guide wheel move along the different side walls of the track, so that when the conveying guide assembly drives the carrier to move, the carrier remains in a horizontal state relative to the frame.
[0019] As a further improvement, the track comprises two oppositely arranged vertical segments and two oppositely arranged arc-shaped segments, the vertical segments are provided with first track side walls along which the vertical guide wheels move when the conveying guide assembly moves vertically; the arc-shaped segments are provided with second tracks along which the horizontal guide wheels move when the conveying guide assembly moves along the arc-shaped segments, the second track side walls are arc-shaped and match the walking track of the horizontal guide wheels.
[0020] As a further improvement, the guide assembly further comprises a horizontally arranged horizontal frame and a vertically arranged vertical frame; the horizontal guide wheels comprise a first horizontal guide wheel and a second horizontal guide wheel, the first horizontal guide wheel and the second horizontal guide wheel are respectively connected to two ends of the horizontal frame; the vertical guide wheels comprise a first vertical guide wheel and a second vertical guide wheel, the first vertical guide wheel and the second vertical guide wheel are respectively connected to two ends of the vertical frame.
[0021] As a further improvement, an even number of moving wheels are connected to the conveying block, and third guide rails are further arranged on both sides of the track; when the conveying block moves along the track, the moving wheels move on both sides of the third guide rails respectively.
[0022] The first elevator further comprises a driving assembly, the driving assembly comprises two chain wheels and a chain, the chain wheels are respectively arranged at the arc-shaped segments of the track, and the chain is arranged in a closed loop around the chain wheels; the chain is connected to the conveying block.
[0023] As a further improvement, when the conveying block moves along the vertical segments of the track, the relative positions of the third guide rails and the first track side walls are arranged to enable the vertical guide wheels to move along the first track side walls.
[0024] When the conveying block moves along the arc-shaped segments of the track, the relative positions of the third guide rails and the second track side walls are arranged to enable the horizontal guide wheels to move along the second track side walls.
[0025] Compared with the prior art, the technical scheme has the beneficial effects that: the floating plate is stored in the form of stacking in the floating plate stacking area, and the floating plate stacking area is arranged below the air moving machine, so that the space is reasonably utilized; the first elevator and the second elevator are arranged, the floating plate is lifted and conveyed to the first conveying platform by the first elevator, and the floating plate is lowered and conveyed to the second conveying platform by the second elevator, the first conveying platform has a certain height from the ground, and the second conveying platform is arranged close to the ground; the ground space between the first elevator and the second elevator is left empty, and the space can be utilized according to the needs; and in the scheme, other machines can still operate simultaneously during the operation or transfer of a machine, so that the operation efficiency of the floating plate conveying system is improved.
[0026] Other technical problems solved by the floating plate conveying system, other technical features contained in the technical scheme and advantages brought by the technical features will be further described in detail with reference to the drawings. BRIEF DESCRIPTION OF DRAWINGS
[0027] Figure 1 It is a whole structure schematic diagram of the floating plate conveying system;
[0028] Figure 2 It is a structure schematic diagram of the air moving machine;
[0029] Figure 3 It is a structure schematic diagram of the stacking machine and the first transition trolley;
[0030] Figure 4 It is a structure schematic diagram of the unstacking machine and the second transition trolley;
[0031] Figure 5 It is a structure schematic diagram of the elevator;
[0032] Figure 6 It is a structure schematic diagram of the frame;
[0033] Figure 7 It is a structure schematic diagram of the bracket and the conveying guide assembly;
[0034] Figure 8 It is another angle structure schematic diagram of the bracket and the conveying guide assembly;
[0035] Figure 9 It is an internal structure schematic diagram of the track;
[0036] Figure 10 It is a partial structure schematic diagram of the track.
[0037] Label explanation:
[0038] 100, first elevator; 101, first conveying platform; 102, second conveying platform;
[0039] 1, frame; 11, track; 12, chain; 13, first track side wall; 14, second track side wall; 15, third guide rail; 2, conveying guide assembly; 20, rotating shaft; 21, conveying block; 22, moving wheel; 23, horizontal frame; 231, first horizontal guide wheel; 232, second horizontal guide wheel; 24, vertical frame; 241, first vertical guide wheel; 242, second vertical guide wheel; 3, bracket; 31, support frame; 32, positioning column; 33, connecting frame; 4, floating plate;
[0040] 500, air transfer machine; 51, transverse moving frame; 52, track frame; 53, transfer support; 54, transfer clamping cylinder; 55, gear and rack assembly;
[0041] 600, stacking machine; 61, stacking jacking cylinder; 62, stacking clamping cylinder;
[0042] 700, second elevator;
[0043] 800, unstacking machine; 81, unstacking clamping cylinder; 82, unstacking belt push plate;
[0044] 900, floating plate storage area; 91, first transition trolley; 92, lifting frame; 93, second transition trolley. DETAILED DESCRIPTION
[0045] In order to further understand the content of the present application, the present application will be described in detail in conjunction with the drawings and examples.
[0046] The structure, proportion, size, etc. shown in the drawings of the present specification are only used to cooperate with the content disclosed in the specification, for understanding and reading by those skilled in the art, and are not used to limit the implementation conditions of the present application, so they do not have technical substantive significance. Any modification of structure, change of proportion relationship or adjustment of size, without affecting the effects and purposes that can be achieved by the present application, should still fall within the scope of the technical content disclosed by the present application.
[0047] Meanwhile, terms such as "upper", "lower", "left", "right", "front", "back", "top", "bottom", "inner", "outer", "middle", "vertical", "horizontal", "lateral", "longitudinal" and the like as used in this specification are only intended to ease the description of the present application and are not intended to limit the scope of the present application, and changes or adjustments in the relative relationship thereof, without substantial changes in the technical content, are also deemed to be within the scope of the present application. Moreover, in addition to being used to indicate orientation or positional relationships, the aforementioned terms can also be used to indicate other meanings, for example, the term "upper" can also be used to indicate a certain attachment relationship or connection relationship in some cases. Those of ordinary skill in the art can understand the specific meanings of these terms in this application according to the specific circumstances.
[0048] It should be noted that the terms "first", "second", etc. in the specification and claims of the present application and the above-described drawings are used to distinguish similar objects and do not necessarily indicate a specific order or sequence. It should be understood that the data thus used can be interchanged under appropriate circumstances, so that the embodiments of the present application described herein.
[0049] As shown in Figure 1 The present embodiment provides a floating plate conveying system, which comprises a first elevator 100, an aerial transfer machine 500, a stacking machine 600, a second elevator 700, a destacking machine 800 and a floating plate stack storage area 900. Specifically, the stacking machine 600 stacks the floating plates 4 into floating plate stacks and conveys the floating plate stacks to the floating plate stack storage area 900. The floating plate stack storage area 900 is located below the aerial transfer machine 500, which is used to transfer the floating plate stacks to different positions within the floating plate stack storage area 900. The outlet of the floating plate stack storage area 900 is connected to the destacking machine 800, which destacks the floating plate stacks and conveys each floating plate to the first elevator 100, which lifts and conveys the floating plates 4 to the first conveying platform 101. After being conveyed by the first conveying platform 101, the floating plates 4 are conveyed to the second elevator 700, which lowers and conveys the floating plates 4 to the second conveying platform 102, which outputs the floating plates.
[0050] The scheme sets the floating plate stacking area 900 to store the floating plates 4 in the form of stacks, and the floating plate stacking area 900 is arranged below the air transfer machine 500 to reasonably utilize the space. The first elevator 100 and the second elevator 700 are arranged, the first elevator 100 lifts and conveys the floating plates 4 to the first conveying platform 101, and the second elevator 700 lowers and conveys the floating plates 4 to the second conveying platform 102. The first conveying platform 101 has a certain height from the ground, and the second conveying platform 102 is arranged close to the ground. The ground space between the first elevator 100 and the second elevator 700 is left empty, and the space can be utilized as needed. At the same time, in the scheme, other machines can still operate simultaneously during the operation or transfer of a certain machine, thereby improving the operation efficiency of the floating plate conveying system.
[0051] As a further improvement, the first transition trolley 91, the second transition trolley 93 and a plurality of storage trolleys are arranged in the floating plate stacking area 900. The inlet of the first transition trolley 91 is connected with the outlet of the stacking machine 600, and the outlet of the second transition trolley 93 is connected with the inlet of the unstacking machine 800.
[0052] Specifically, as shown in Figure 3 The stacking machine 600 includes a stacking jacking cylinder 61 and a stacking clamping cylinder 62 arranged on both sides of the stacking machine 600. The jacking rod is connected to the stacking jacking cylinder 61, and the stacking clamping plate is connected to the stacking clamping cylinder 62. When a floating plate enters the stacking machine 600, the stacking jacking cylinder 61 lifts the floating plate 4 through the jacking rod, and the stacking clamping cylinder 62 clamps the floating plate through the clamping plate. In detail, the stacking machine 600 has a conveying surface, rollers are arranged on the conveying surface, and the stacking jacking cylinder 61 is located below the rollers. The floating plate 4 enters the rollers on the conveying surface, the jacking rod passes through the interval between adjacent rollers to lift the floating plate 4, the stacking clamping cylinder 62 pushes the stacking clamping plate to clamp, the stacking jacking cylinder 61 lowers the jacking rod, and the next floating plate 4 starts to enter, and so on to stack the floating plates to form a floating plate stack. The rollers on the conveying surface can be driven by a motor and are called power rollers. The floating plate stack after stacking is conveyed to the first transition trolley 91.
[0053] In an embodiment, since the conveying surface of the stacking machine 600 has a certain height, the first transition trolley 91 is provided with a lifting frame 92 and a cylinder connected with the lifting frame 92. The cylinder lifts the lifting frame 92 to the same height as the conveying surface of the stacking machine 600, so that the floating plate stack can be conveyed to the first transition trolley 91.
[0054] In combination with Figure 4As shown, the unstacking machine 800 includes an unstacking conveyor belt and unstacking clamping cylinders 81 located on both sides of the unstacking machine 800, the unstacking clamping cylinders 81 are connected with unstacking clamping plates, and the unstacking conveyor belt is provided with unstacking belt push plates 82. When the floating plate stack enters the unstacking machine 800 and is located on the unstacking conveyor belt, the unstacking clamping cylinders 81 clamp the floating plate stack except the bottom floating plate through the unstacking clamping plates, the unstacking conveyor belt rotates and pushes the bottom floating plate out to the first elevator 100 through the unstacking belt push plates 82. Specifically, the air transfer machine 500 transfers the floating plate stack to the second transfer trolley 93, and the floating plate stack on the second transfer trolley 93 is conveyed to the unstacking conveyor belt of the unstacking machine 800. The floating plate stack on the second transfer trolley 93 can enter the unstacking machine 800 by manual pushing and pulling or other ways. The unstacking clamping cylinders 81 push the unstacking clamping plates to clamp the floating plate stack except the bottom floating plate, the unstacking conveyor belt rotates and pushes the bottom floating plate out to the first elevator 100 through the unstacking belt push plates 82, then the unstacking conveyor belt reverses to the original position, the unstacking clamping cylinders 81 release the unstacking clamping plates, and the floating plate stack falls onto the unstacking conveyor belt again, and so on to unstack the floating plates. The unstacking conveyor belt can be driven by a motor, and the forward and reverse rotation of the unstacking conveyor belt can be controlled by the motor. The unstacking belt push plates 82 push the bottom floating plate out to the bracket 3 of the first elevator 100, and the first elevator 100 transfers the floating plate to the first conveying platform 101 after one rotation.
[0055] In combination Figure 2 As shown, the air transfer machine 500 includes a transfer bracket 53 and transfer clamping cylinders 54 connected with the transfer bracket 53 at both ends, and the transfer clamping cylinders 54 can drive the transfer bracket 53 to carry the floating plate stack. The air transfer machine 500 is arranged on the transverse moving frame 51 and can move along the transverse moving frame 51; the two ends of the transverse moving frame 51 are arranged on the track frame 52, and the transverse moving frame 51 can move along the track frame 52. A first rack is arranged on the track frame 52, the two ends of the transverse moving frame 51 are provided with first gears matched with the rack, and a first motor is further arranged, which drives the first gear to rotate, so that the transverse moving frame 51 moves along the track frame 52. A second rack is arranged on the transverse moving frame 51, and a second gear and a second motor are arranged on the air transfer machine 500, the second motor drives the second gear to rotate, so that the air transfer machine 500 moves along the transverse moving frame 51. The air transfer machine 500 further includes a gear and rack assembly 55, which includes a third rack and a third gear, the third gear is fixedly arranged relative to the air transfer machine 500, and the third rack is connected with the transfer bracket 53 at one side. When the third gear is driven, the third rack moves up and down, so that the transfer bracket 53 moves up and down. The rotation of the third gear can be realized by arranging a third motor.
[0056] The aerial transfer machine 500 further comprises a support guide rail for guiding the transfer supports 53, and the lower ends of the transfer supports 53 are further connected to transfer supporting feet. For a certain pile of floating plates, the third gear drives the third rack to move downward, so that the lower ends of the transfer supports 53 move to the lower side of the pile of floating plates, the transfer clamping cylinders 54 are retracted, so that the two transfer supports 53 are close to each other to clamp the pile of floating plates, the pile of floating plates is supported on the transfer supporting feet at the same time, the third gear drives the third rack to move upward, the transfer supports 53 drive the pile of floating plates to move upward, and then the aerial transfer machine 500 moves along the transverse moving frame 51, the transverse moving frame 51 moves along the rail frame 52, and the pile of floating plates is transferred to different positions.
[0057] In combination Figures 5-10 As shown, the second elevator 700 and the first elevator 100 are consistent in structure, and the only difference is that the transfer directions of the floating plates 4 are different. Specifically, the first elevator 100 lifts and conveys the floating plates 4 to the first conveying platform 101, and the floating plates 4 are conveyed to the second elevator 700 through the first conveying platform 101, and the second elevator 700 lowers and conveys the floating plates to the second conveying platform 102.
[0058] In this embodiment, the structure of the first elevator 100 is described. The first elevator 100 comprises a frame 1, four conveying guide assemblies 2 and four brackets 3, and the number of the conveying guide assemblies 2 corresponds to the number of the brackets 3. In other embodiments, other numbers of the conveying guide assemblies 2 and the brackets 3 can be set according to the transfer efficiency needs.
[0059] The frame 1 is provided with a ring-shaped rail 11, and the rail 11 has a plurality of different side walls. The conveying guide assembly 2 comprises a conveying block 21 moving along the rail 11, a guide assembly located at the rear side of the conveying block 21, and a rotating shaft 20 penetrating the conveying block 21. The bracket 3 is located at the front side of the conveying block 21, one end of the rotating shaft 20 is fixedly connected to the guide assembly, and the other end is fixedly connected to the bracket 3. The guide assembly comprises a horizontal guide wheel and a vertical guide wheel, and the horizontal guide wheel and the vertical guide wheel move along the different side walls of the rail 11, so that when the conveying guide assembly 2 drives the bracket 3 to move, the bracket 3 remains in a horizontal state relative to the frame 1.
[0060] In the scheme, four conveying guide assemblies 2 and carriers 3 are arranged, the driving assembly drives the conveying guide assemblies 2 to operate and drives the carriers 3 to move, and each carrier 3 can support a floating plate. The driving assembly can transfer four floating plates in each operation cycle, greatly improving the conveying efficiency of the elevator. In addition, the guide assemblies and the carriers 3 are arranged on the front and rear sides of the conveying block 21 respectively, and are connected through the rotating shaft 20 penetrating the conveying block 21, so that the balance of the rotating shaft 20 is better. Since the floating plate is a foam plate formed of foam material, the weight of a single floating plate is usually about 200g, which is relatively light. In the scheme, the guide assemblies and the carriers 3 are arranged on the front and rear sides of the conveying block 21, so that the conveying guide assemblies 2 and the carriers 3 can operate more stably, effectively avoiding the floating plate from falling during conveying.
[0061] In Figure 5 and Figure 6 , the front side of the conveying block 21 is the side close to the carrier 3 and the floating plate, and the rear side is the side opposite to the front side.
[0062] In combination with Figure 8 and Figure 9 , regarding the track 11 and the guide assembly, the guide assembly includes a horizontal frame 23 and a vertical frame 24 arranged in cross vertical direction, and one end of the rotating shaft 20 is connected to the intersection of the horizontal frame 23 and the vertical frame 24. The carrier 3 always keeps the same direction with the horizontal frame 23 and keeps vertical arrangement with the vertical frame 24. The track 11 includes two oppositely arranged vertical segments and two oppositely arranged arc-shaped segments, the vertical segment has a first track side wall 13, and the vertical guide wheel moves along the first track side wall 13 when the conveying guide assembly 2 moves vertically. The arc-shaped segment is provided with a second track, and the horizontal guide wheel moves along the second track side wall 14 of the second track when the conveying guide assembly 2 moves on the arc-shaped segment.
[0063] In detail, when the conveying guide assembly 2 moves vertically, the vertical guide wheel moves along the first track side wall 13, and under the interaction of the first track side wall 13 and the vertical guide wheel, the vertical frame 24 always keeps vertical state, and the horizontal frame 23 always keeps horizontal state, so that the carrier 3 keeps horizontal. See Figure 5During the transition of the conveying guide assembly 2 from the vertical section of track 11 to the arc section, the horizontal guide wheel begins to contact the second track sidewall 14. The second track sidewall 14 is arc-shaped, matching the trajectory of the horizontal guide wheel. Under the action of the second track sidewall 14 and the horizontal guide wheel, the vertical frame 24 remains vertical and the horizontal frame 23 remains horizontal at the arc section, thus keeping the bracket 3 horizontal. To avoid interference, when the vertical frame 24 and the vertical guide wheel pass through the arc section of track 11, the space in track 11 at the point where the vertical frame 24 and the vertical guide wheel pass needs to be increased to allow them to pass smoothly. Similarly, when the horizontal frame 23 and the horizontal guide wheel pass through the vertical section of track 11, the space in track 11 at the point where the horizontal frame 23 and the horizontal guide wheel pass needs to be increased to allow them to pass smoothly.
[0064] Combination Figure 7 and Figure 8 As shown, an even number of moving wheels 22 are connected to the conveying block 21, preferably eight. More preferably, two moving wheels 22 can be used; even more preferably, four moving wheels 22 can be used. In this embodiment, eight moving wheels 22 are used for illustration. Specifically, third guide rails 15 are respectively provided on both sides of the track 11; when the conveying block 21 moves along the track 11, every two moving wheels 22 move on both sides of the third guide rail 15. With eight moving wheels 22, every two moving wheels 22 are located at a right-angle corner of the conveying block 21, so that the moving wheels 22 limit and guide the conveying block 21 in four directions, so that the conveying block 21 moves smoothly, reduces the amount of swaying of the conveying block 21, and thus the floating plate is conveyed smoothly.
[0065] See details Figure 9 As shown, the conveyor block 21 moves along the third guide rail 15 under the guidance of the third guide rail 15. To ensure that the relative position of the third guide rail 15 and the first track sidewall 13 is satisfied when the conveyor block 21 moves along the vertical section of the track 11, the vertical guide wheel can move along the first track sidewall 13. Similarly, when the conveyor block 21 moves along the arc section of the track 11, the relative position of the third guide rail 15 and the second track sidewall 14 is satisfied, allowing the horizontal guide wheel to move along the second track sidewall 14.
[0066] More specifically, the first elevator 100 further comprises a driving assembly, which comprises two sprockets and a chain 12, the sprockets are respectively located at the arc-shaped sections of the tracks 11, and the chain 12 is arranged in a closed loop around the sprockets. The chain 12 is connected with the conveying block 21. Moreover, the third guide rail 15 is arranged in the same direction as the chain 12. In one case, one of the two sprockets is a driving sprocket, and the other is a driven sprocket. A motor is used to drive the driving sprocket to rotate, so that the chain 12 rotates. The chain 12 drives the conveying block 21 to move, and the conveying block 21 appears a 180-degree turning once every time passing through an arc-shaped section of the track 11. The rotating shaft 20 is arranged relative to the conveying block 21, and the two ends of the rotating shaft 20 are fixedly connected with the guide assembly and the bracket 3. Under the joint action of the guide assembly and the different side walls of the track 11, the bracket 3 can be kept horizontal.
[0067] Generally, in order to ventilate during the breeding and seedling raising process, a through hole is formed on the floating plate. In this scheme, the bracket 3 comprises a connecting frame 33 and a plurality of support frames 31 connected with the connecting frame 33, and the support frames 31 are connected with positioning columns 32. The positions of the positioning columns 32 correspond to the positions of the through holes on the floating plate. When the floating plate is supported on the bracket 3, the positioning columns 32 are located in the through holes, further avoiding the floating plate from falling. In addition, the rotating shaft 20 is connected with the connecting frame 33 at the middle position, further maintaining the stability of the floating plate.
[0068] As a preferred embodiment, in combination with the drawings shown in Figure 8 and Figure 9 , the horizontal guide wheels comprise a first horizontal guide wheel 231 and a second horizontal guide wheel 232, which are respectively connected at the two ends of the horizontal frame 23; the vertical guide wheels comprise a first vertical guide wheel 241 and a second vertical guide wheel 242, which are respectively connected at the two ends of the vertical frame 24. Two horizontal guide wheels and two vertical guide wheels are respectively arranged, so that the guide assembly can better maintain balance.
[0069] As another preferred embodiment, the first horizontal guide wheel 231 and the second horizontal guide wheel 232 are respectively arranged towards the front and rear sides; the first vertical guide wheel 241 and the second vertical guide wheel 242 are respectively arranged towards the front and rear sides. The first horizontal guide wheel 231 and the second horizontal guide wheel 232, and the first vertical guide wheel 241 and the second vertical guide wheel 242 are arranged towards different directions. If there is a deviation during the walking process of the horizontal guide wheels and the vertical guide wheels, the guide wheels arranged towards different directions can automatically correct the deviation.
[0070] The terms "mounting", "arrangement", "provided with", "connected" should be interpreted broadly. For example, it can be fixed connection, detachable connection, or integral structure; it can be mechanical connection, or electrical connection; it can be direct connection, or indirect connection through intermediate medium, or internal communication between two devices, elements or components. For those skilled in the art, the specific meaning of the above terms in the present application can be understood according to the specific circumstances.
[0071] The above describes the present application and its embodiments in a schematic manner, which is not restrictive, and the embodiments shown in the drawings are only one of the embodiments of the present application, and the actual structure is not limited thereto. Therefore, if a person skilled in the art is inspired by this, without departing from the creative purpose of the present application, similar structural modes and embodiments can be designed without creativity, which should belong to the protection scope of the present application.
Claims
1. A float conveyor system, characterized by: The first elevator (100), the air transfer machine (500), the stacking machine (600), the second elevator (700), the unstacking machine (800) and the floating plate stack storage area (900) are included. The stacking machine (600) stacks floating plates into floating plate stacks and transports the floating plate stacks to the floating plate stack storage area (900); the floating plate stack storage area (900) is located below the air transfer machine (500), the air transfer machine (500) is used to transfer floating plate stacks to different positions in the floating plate stack storage area (900); the outlet of the floating plate stack storage area (900) is connected with the unstacking machine (800), the unstacking machine (800) unstacks the floating plate stacks and transports each floating plate to the first elevator (100), the first elevator (100) lifts and transports the floating plate to the first conveying platform (101), the floating plate is conveyed to the second elevator (700) through the first conveying platform (101), the second elevator (700) lowers and transports the floating plate to the second conveying platform (102), and the second conveying platform (102) outputs the floating plate.
2. The float conveyor system of claim 1, wherein: The floating plate stack storage area (900) is provided with a first transition trolley (91), a second transition trolley (93) and a plurality of storage trolleys; the inlet of the first transition trolley (91) is connected with the outlet of the stacking machine (600), and the outlet of the second transition trolley (93) is connected with the inlet of the unstacking machine (800).
3. The float conveyor system of claim 2, wherein: The stacking machine (600) includes a stacking jacking cylinder (61) and a stacking clamping cylinder (62) located on both sides of the stacking machine (600); the stacking jacking cylinder (61) is connected with a jacking rod, and the stacking clamping cylinder (62) is connected with a stacking clamping plate. When a floating plate enters the stacking machine (600), the stacking jacking cylinder (61) jacks up the floating plate through the jacking rod, and the stacking clamping cylinder (62) clamps the floating plate through the clamping plate, and so on to stack the floating plates to form a floating plate stack.
4. The float conveyor system of claim 2, wherein: The unstacking machine (800) includes an unstacking conveying belt and an unstacking clamping cylinder (81) located on both sides of the unstacking machine (800), the unstacking clamping cylinder (81) is connected with an unstacking clamping plate, and the unstacking conveying belt is provided with an unstacking belt push plate (82); When the floating plate stack enters the unstacking machine (800) and is located on the unstacking conveying belt, the unstacking clamping cylinder (81) clamps the floating plate stack except the bottom floating plate through the unstacking clamping plate, the unstacking conveying belt rotates and pushes the bottom floating plate out to the first elevator (100) through the unstacking belt push plate (82).
5. The float conveyor system of claim 2, wherein: The aerial transfer machine (500) comprises a transfer support (53) and a transfer clamping cylinder (54) connected with the transfer support (53), and the transfer clamping cylinder (54) can drive the transfer support (53) to carry the floating plate stack; the aerial transfer machine (500) is arranged on a transverse moving frame (51) and can move along the transverse moving frame (51); the two ends of the transverse moving frame (51) are arranged on a track frame (52), and the transverse moving frame (51) can move along the track frame (52).
6. A float conveyor system according to any one of claims 1-5, characterized in that: The second elevator (700) and the first elevator (100) are identical in structure; The first elevator (100) comprises a frame (1), a plurality of conveying guide assemblies (2) and a plurality of carriers (3); The frame (1) is provided with a track (11) in the form of a ring, and the track (11) has a plurality of different side walls; The conveying guide assembly (2) comprises a conveying block (21) moving along the track (11), a guide assembly located at the back side of the conveying block (21) and a rotating shaft (20) penetrating the conveying block (21); the carrier (3) is located at the front side of the conveying block (21), one end of the rotating shaft (20) is fixedly connected with the guide assembly, and the other end is fixedly connected with the carrier (3); The guide assembly comprises a horizontal guide wheel and a vertical guide wheel, and the horizontal guide wheel and the vertical guide wheel move along the different side walls of the track (11), so that the carrier (3) remains in a horizontal state relative to the frame (1) when the conveying guide assembly (2) drives the carrier (3) to move.
7. The float conveyor system of claim 6, wherein: The track (11) comprises two oppositely arranged vertical segments and two oppositely arranged arc-shaped segments, the vertical segments have first track side walls (13), and the vertical guide wheel moves along the first track side walls (13) when the conveying guide assembly (2) moves vertically; the arc-shaped segments are provided with second tracks, and the horizontal guide wheel moves along the second track side walls (14) of the second tracks when the conveying guide assembly (2) moves along the arc-shaped segments, and the second track side walls (14) are in the form of arcs matching the walking track of the horizontal guide wheel.
8. The float conveyor system of claim 6, wherein: The guide assembly further comprises a horizontal frame (23) and a vertical frame (24) arranged in a cross vertical manner; the horizontal guide wheel comprises a first horizontal guide wheel (231) and a second horizontal guide wheel (232), and the first horizontal guide wheel (231) and the second horizontal guide wheel (232) are respectively connected to the two ends of the horizontal frame (23); the vertical guide wheel comprises a first vertical guide wheel (241) and a second vertical guide wheel (242), and the first vertical guide wheel (241) and the second vertical guide wheel (242) are respectively connected to the two ends of the vertical frame (24).
9. The float conveyor system of claim 7, wherein: An even number of moving wheels (22) are connected to the conveying block (21), and third guide rails (15) are further arranged on the two sides of the track (11); when the conveying block (21) moves along the track (11), the moving wheels (22) move on the two sides of the third guide rails (15) respectively; The first elevator (100) further comprises a driving assembly, the driving assembly comprising two chain wheels and a chain (12), the chain wheels being respectively located at the arc-shaped sections of the track (11), and the chain (12) being arranged in a closed loop around the chain wheels; the chain (12) is connected with the conveying block (21).
10. The float conveyor system of claim 8, wherein: When the conveying block (21) moves along the vertical section of the track (11), the relative position of the third guide rail (15) and the first track side wall (13) is arranged to enable the vertical guide wheel to move along the first track side wall (13). When the conveying block (21) moves along the arc-shaped section of the track (11), the relative position of the third guide rail (15) and the second track side wall (14) is arranged to enable the horizontal guide wheel to move along the second track side wall (14).