Binding device

Abstract

The utility model discloses binding equipment, which is provided with a heating station, a heat preservation station and a cooling station, and comprises a conveying mechanism, a heating mechanism, a heat preservation mechanism, a cooling mechanism and a plurality of bearing plates. The conveying mechanism is connected with the multiple bearing plates so as to drive each bearing plate to flow along the heating station, the heat preservation station and the cooling station. The heating mechanism is used for heating the to-be-bound piece passing through the heating station; the heat preservation mechanism is used for preserving heat of the to-be-bound part passing through the heat preservation station; and the cooling mechanism is used for cooling the to-be-bound piece passing through the cooling station. Due to the fact that the heating mechanism, the heat preservation mechanism and the cooling mechanism in the equipment are provided with different stations respectively and conduct different treatments on the to-be-bound part, frequent heating and cooling are not needed, the stability of a temperature field of each mechanism can be guaranteed, and therefore the binding quality is improved. In addition, through the arrangement of the bearing plates, the binding equipment can be continuously bound, and the binding efficiency is improved.

Description

Technical Field

[0001] The utility model belongs to the technical field of target material processing, and in particular relates to a binding device. Background Art

[0002] ITO (Indium Tin Oxide) targets can be used in liquid crystal displays, touch screens, OLED screens, thin-film solar cells, functional glass, infrared reflective glass, etc. At present, in the production process of ITO rotating targets, the assembled targets are usually bound in a binding device.

[0003] The existing binding equipment for ITO rotating targets is an independent device. During each binding process, the binding equipment needs to heat the target first, keep it warm after heating to a preset temperature, and finally cool it down. The binding equipment needs to heat up and cool down frequently, which makes the equipment prone to temperature instability and affects the binding quality. Utility Model Content

[0004] The technical problem to be solved by the utility model is that the existing binding device is prone to unstable temperature field, which affects the binding quality. In order to solve the above technical problem, a binding device with a stable temperature field is provided.

[0005] The technical solution proposed by the utility model is:

[0006] A binding device, the binding device having a heating station, a heat preservation station and a cooling station, the binding device comprising:

[0007] A plurality of bearing plates, each of which can bear the parts to be bound;

[0008] A conveying mechanism connected to the plurality of the carrying plates to drive each of the carrying plates to flow along the heating station, the heat preservation station and the cooling station;

[0009] A heating mechanism, arranged at the heating station, for heating the to-be-bound parts passing through the heating station;

[0010] A heat preservation mechanism, arranged at the heat preservation station, for keeping the to-be-bound parts passing through the heat preservation station warm;

[0011] A cooling mechanism is arranged at the cooling station and is used to cool the parts to be bound passing through the cooling station.

[0012] Furthermore, the binding device further has a preheating station, and the conveying mechanism drives the carrying plate to circulate along the preheating station, the heating station, the heat preservation station and the cooling station;

[0013] The binding device further comprises a preheating mechanism, which is disposed at the preheating station and is used for preheating the to-be-bound parts passing through the preheating station.

[0014] Furthermore, the preheating mechanism includes a first preheating component and a second preheating component, and the first preheating component and the second preheating component are arranged at intervals in the preheating station to form a preheating channel for the carrier plate to pass through, and the first preheating component and the second preheating component are used to preheat the parts to be bound passing through the preheating channel.

[0015] Furthermore, the preheating mechanism also includes a preheating cover plate, which is movably connected to the first preheating component and / or the second preheating component, and the preheating cover plate can open and close the opening at the top of the preheating channel during movement.

[0016] Furthermore, the binding device also includes a feeding mechanism, which is arranged corresponding to the preheating station, and the feeding mechanism can add binding material to the parts to be bound passing through the preheating channel through an opening at the top of the preheating channel.

[0017] Furthermore, the first preheating component and the second preheating component each include a shell and a hot air module;

[0018] The two shells are arranged at intervals in the preheating station to form a preheating channel for the carrier plate to pass through. Each of the shells is provided with a circulation space and a plurality of blowing holes connected to the circulation space, and the blowing holes are located on a side surface of the shell facing the preheating channel, and the hot air module is connected to the circulation space.

[0019] Furthermore, the temperature increasing mechanism comprises a first temperature increasing component, a second temperature increasing component and a temperature increasing cover plate;

[0020] The first heating component and the second heating component are arranged at intervals in the heating station, and the heating cover plate is connected to the top of the first heating component and the second heating component to enclose the first heating component and the second heating component to form a heating channel for the supporting plate to pass through, and the first heating component and the second heating component are used to heat the parts to be bound passing through the heating channel.

[0021] Furthermore, the heat preservation mechanism includes a first heat preservation component, a second heat preservation component and a heat preservation cover plate;

[0022] The first insulation component and the second insulation component are arranged at intervals in the insulation station, and the insulation cover plate is connected to the top of the first insulation component and the second insulation component to enclose the first insulation component and the second insulation component to form an insulation channel for the carrier plate to pass through, and the first insulation component and the second insulation component are used to insulate the parts to be bound passing through the insulation channel.

[0023] Furthermore, the cooling mechanism includes a first cooling component and a second cooling component;

[0024] The first cooling component and the second cooling component are arranged at intervals in the cooling station to form a cooling channel for the carrier plate to pass through, and the first cooling component and the second cooling component are used to cool the to-be-bound parts passing through the cooling channel.

[0025] Furthermore, the cooling mechanism also includes a cooling cover plate, which is movably connected to the first cooling component and / or the second cooling component, and the cooling cover plate can open and close the opening at the top of the cooling channel during movement.

[0026] When using the above-mentioned binding device, the parts to be bound are first placed on a carrier plate. The conveying mechanism drives the carrier plate to drive the parts to be bound to pass through the heating station, the insulation station and the cooling station in sequence. The heating mechanism first heats the parts to be bound, and then the insulation mechanism keeps the parts to be bound warm, so that the parts to be bound are kept at a preset temperature. After the insulation is completed, the cooling mechanism cools the parts to be bound. Since the heating mechanism, the insulation mechanism and the cooling mechanism in the device are respectively arranged at different stations and perform different treatments on the parts to be bound, there is no need for frequent heating and cooling, and the stability of the temperature field of each mechanism can be guaranteed, thereby improving the binding quality, and there will be no cold and hot fatigue of the mechanism, which extends the working life of the binding device. In addition, the provision of multiple carrier plates enables the binding device to bind continuously, thereby improving the binding efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. They are used together with the embodiments of the present invention to explain the present invention and do not constitute a limitation to the present invention.

[0028] Figure 1 A schematic diagram of the structure of a binding device provided in one embodiment of the utility model;

[0029] Figure 2 for Figure 1 The schematic diagram of the top view of the binding device after removing the cover is shown.

[0030] Description of labels:

[0031] 10. Binding device; 20. Parts to be bound; 11. Heating station; 12. Insulating station; 13. Cooling station; 14. Loading station; 15. Unloading station; 16. Preheating station; 100. Conveying mechanism; 200. Carrying plate; 300. Heating mechanism; 400. Insulating mechanism; 500. Cooling mechanism; 110. Conveying track; 120. Driving member; 600. Preheating mechanism; 610. First preheating assembly; 620. Second preheating assembly Components; 630, preheating channel; 640, preheating cover; 650, outer shell; 660, inner shell; 310, first heating component; 320, second heating component; 330, heating cover; 340, heating channel; 410, first insulation component; 420, second insulation component; 430, insulation cover; 440, insulation channel; 510, first cooling component; 520, second cooling component; 530, cooling channel; 540, cooling cover. DETAILED DESCRIPTION

[0032] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0033] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise" and the like indicate orientations or positional relationships based on the orientations or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the referred device or element must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be understood as a limitation on the present invention.

[0034] An embodiment of the utility model provides a binding device for binding a part to be bound, wherein the part to be bound is a target material, and preferably, the part to be bound is a rotating target material.

[0035] like Figure 1 and Figure 2 As shown, in one embodiment, the binding device 10 has a temperature increasing station 11, a temperature keeping station 12 and a temperature decreasing station 13. The binding device 10 includes a conveying mechanism 100 and a plurality of carrying plates 200.

[0036] Each carrier plate 200 can carry the to-be-bound parts 20 , and the conveying mechanism 100 is connected to the plurality of carrier plates 200 to drive each carrier plate 200 to flow along the heating station 11 , the heat preservation station 12 and the cooling station 13 .

[0037] Furthermore, the binding device 10 also includes a heating mechanism 300, a heat preservation mechanism 400 and a cooling mechanism 500. The heating mechanism 300 is arranged at the heating station 11, and is used to heat the to-be-bound parts 20 passing through the heating station 11. The heat preservation mechanism 400 is arranged at the heat preservation station 12, and is used to keep the to-be-bound parts 20 passing through the heat preservation station 12 warm. The cooling mechanism 500 is arranged at the cooling station 13, and is used to cool the to-be-bound parts 20 passing through the cooling station 13.

[0038] Using the above-mentioned binding device 10, the part to be bound 20 is first placed on the carrier plate 200, and the conveying mechanism 100 drives the carrier plate 200 to drive the part to be bound 20 to pass through the heating station 11, the heat preservation station 12 and the cooling station 13 in sequence. The heating mechanism 300 first heats the part to be bound 20, and then the heat preservation mechanism 400 keeps the part to be bound 20 warm, so that the part to be bound 20 is kept at a preset temperature. After the heat preservation is completed, the part to be bound 20 is cooled by the cooling mechanism 500. Since the heating mechanism 300, the heat preservation mechanism 400 and the cooling mechanism 500 in the device are respectively set at different stations and perform different treatments on the part to be bound 20, there is no need for frequent heating and cooling, and the stability of the temperature field of each mechanism can be guaranteed, thereby improving the binding quality, and there will be no cold and hot fatigue of the mechanism, which extends the working life of the binding device 10. In addition, the provision of multiple carrier plates 200 enables the binding device 10 to bind continuously, thereby improving the binding efficiency.

[0039] It should be explained that the heating mechanism 300, the heat preservation mechanism 400 and the cooling mechanism 500 heat up, keep warm and cool down the binding parts 20 at different stations, that is, the heating mechanism 300, the heat preservation mechanism 400 and the cooling mechanism 500 can respectively keep stable to achieve heating, keeping warm and cooling down the binding parts 20. Specifically, for multiple binding parts 20, the time for each binding part 20 to pass through the heating station 11, the heat preservation station 12 and the cooling station 13 is fixed (the specific passing time can be determined according to the actual situation, and can be controlled by the moving speed of the carrier plate 200 driven by the conveying mechanism 100). Since the temperature of each binding part 20 is the same before entering the heating station 11, and the temperature requirements of each binding part 20 when passing through the heating station 11, the heat preservation station 12 and the cooling station 13 are the same, the heating mechanism 300, the heat preservation mechanism 400 and the cooling mechanism 500 can be kept in a state where the binding parts 20 can be adjusted to the corresponding temperature. In this way, the temperature fields of the heating station 11, the heat preservation station 12 and the cooling station 13 can be kept stable.

[0040] In one embodiment, the binding device 10 further has a loading station 14 and an unloading station 15, and the loading station 14 and the unloading station 15 are respectively arranged corresponding to the loading end and the unloading end of the conveying mechanism 100, that is, the heating station 11, the heat preservation station 12 and the cooling station 13 are located between the loading station 14 and the unloading station 15, and the carrier plate 200 can pass through the loading station 14 and the unloading station 15. The carrier plate 200 passing through the loading station 14 can obtain the workpiece 20 to be bound, and the carrier plate 200 passing through the unloading station 15 can unload the workpiece that has been bound. It should be noted that the carrier plate 200 can also be loaded and unloaded at the loading station 14 and the unloading station 15, respectively, and the loading and unloading of the carrier plate 200 and the workpiece 20 to be bound can be achieved manually.

[0041] In one embodiment, the conveying mechanism 100 includes a conveying track 110 and a driving member 120. The conveying track 110 is arranged longitudinally along the arrangement direction of the loading station 14, the heating station 11, the insulation station 12, the cooling station 13 and the unloading station 15. The driving member 120 is arranged at one end of the conveying track 110 close to the loading station 14, and the driving end of the driving member 120 can reciprocate along the length direction of the conveying track 110. During the reciprocating movement of the driving end of the driving member 120, it can abut and push the carrying plate 200 to move toward the unloading station 15.

[0042] In the case of multiple carrier plates 200, the multiple carrier plates 200 on the conveying track 110 are arranged continuously, and the driving end of the driving member 120 pushes the rear carrier plate 200 to move forward, and the rear carrier plate 200 pushes the front carrier plate 200 to move. It can be seen that the movement of the carrier plate 200 on the conveying track 110 is intermittent, and each moving distance is controlled by the moving distance of the driving end of the driving member 120. In this embodiment, the driving member 120 is a servo electric cylinder.

[0043] In one embodiment, the binding device 10 further comprises a preheating station 16, which is located upstream of the heating station 11, and the conveying mechanism 100 drives the carrier plate 200 to circulate along the preheating station 16, the heating station 11, the heat preservation station 12 and the cooling station 13. In combination with the above embodiment, it can be known that the preheating station 16 is located between the heating station 11 and the loading station 14.

[0044] The binding device 10 further includes a preheating mechanism 600, which is disposed at the preheating station 16 and is used to preheat the to-be-bound part 20 passing through the preheating station 16, so as to facilitate the subsequent heating mechanism 300 to heat the to-be-bound part 20. In addition, it should be noted that if the to-be-bound part 20 needs to be heated to a certain temperature before adding a binding material, such as a binding solution, the binding material can be added at the preheating mechanism 600, and then enter the heating station 11 for further heating.

[0045] In one embodiment, the preheating mechanism 600 includes a first preheating component 610 and a second preheating component 620. The first preheating component 610 and the second preheating component 620 are arranged at intervals in the preheating station 16 and are located on both sides of the width direction of the conveying mechanism 100 to form a preheating channel 630 for the carrier plate 200 to pass through. The first preheating component 610 and / or the second preheating component 620 are used to preheat the to-be-bound parts 20 passing through the preheating channel 630.

[0046] It should be noted that when only one of the first preheating component 610 and the second preheating component 620 heats the part to be bound 20, the part to be bound 20 may be heated unevenly, that is, the part to be bound 20 facing the preheating component generating heat is heated more, and the other side is heated less. Therefore, in this embodiment, it is preferred that both the first preheating component 610 and the second preheating component 620 can be used to preheat the part to be bound 20 passing through the preheating channel 630.

[0047] In addition, it can be determined that the first preheating assembly 610 and the second preheating assembly 620 are spaced apart to form a preheating channel 630, and the top of the preheating channel 630 is open. As described above, when the preheating station 16 needs to add binding material to the binding part 20, it can be added through the opening at the top of the preheating channel 630.

[0048] Furthermore, the preheating mechanism 600 further includes a preheating cover plate 640, which is movably connected to the first preheating assembly 610 and / or the second preheating assembly 620, and the preheating cover plate 640 can open and close the opening at the top of the preheating channel 630 during its movement. In this way, the opening at the top of the preheating channel 630 can be opened when the binding material needs to be added; and the opening at the top of the preheating channel 630 can be closed when the preheating effect needs to be ensured, thereby preventing heat from being lost from the opening at the top.

[0049] Of course, if the heat generated by the first preheating component 610 and the second preheating component 620 is sufficient to ensure the preheating effect, the preheating cover plate 640 may not be provided, and the opening at the top of the preheating channel 630 may be maintained to facilitate the filling of the binding material. Conversely, if it is not necessary to fill the binding material at the preheating station 16, the preheating cover plate 640 may be fixedly connected to the first preheating component 610 and the second preheating component 620 to close the opening at the top of the preheating channel 630 to improve the preheating effect.

[0050] Understandably, Figure 1In the illustrated embodiment, the preheating cover plate 640 is movably connected to the first preheating assembly 610 and the second preheating assembly 620, and the preheating cover plate 640 is rotatably arranged around an axis perpendicular to the length direction of the conveying track 110. In other embodiments, the preheating cover plate 640 may also be rotatably connected to one of the first preheating assembly 610 and the second preheating assembly 620, and the preheating cover plate 640 may be rotatably arranged around an axis parallel to the length direction of the conveying track 110.

[0051] In one embodiment, the first preheating component 610 and the second preheating component 620 both include a shell and a hot air module. The two shells are arranged at intervals in the preheating station 16 to form a preheating channel 630 for the carrier plate 200 to pass through. Each shell is provided with a circulation space and a plurality of blowing holes connected to the circulation space, and the blowing holes are located on the side surface of the shell facing the preheating channel 630. The hot air module is connected to the circulation space to blow hot air into the circulation space, thereby blowing hot air toward the preheating channel 630 through the blowing holes, thereby achieving uniform heating of the parts to be bound 20 in the preheating channel 630.

[0052] Furthermore, a heat preservation structure is provided in the circulation space to insulate the preheating channel 630 and reduce the hot air consumption of the hot air module. Optionally, the heat preservation structure is heat preservation cotton.

[0053] In one embodiment, the housing includes an outer shell 650 and an inner shell 660 connected to each other, the outer shell 650 and the inner shell 660 enclose a circulation space, the inner shell 660 faces the preheating channel 630, and the inner shell 660 is penetrated by a plurality of blowing holes connected to the circulation space. Optionally, the inner shell 660 is a fish scale plate.

[0054] In one embodiment, the hot air module includes a fan and a heating element. The fan is connected to the circulation space and is used to blow air into the circulation space. The heating element is arranged on the airflow path generated by the fan to heat the airflow to form hot air. It can be determined that the heating element can be arranged at the fan outlet or in the communication space, as long as it can achieve heating of the airflow to generate hot air, and there is no limitation here.

[0055] Furthermore, there are multiple heating elements, and the multiple heating elements are arranged at intervals in the vertical direction. It can be understood that the parts to be bound 20 on the carrier plate 200 are arranged in the vertical direction, and the multiple heating elements arranged in the vertical direction can further improve the uniformity of temperature distribution. Optionally, the heating element includes a heating wire and a thermocouple to ensure heating accuracy.

[0056] In one embodiment, the heating mechanism 300 includes a first heating component 310, a second heating component 320 and a heating cover plate 330. The first heating component 310 and the second heating component 320 are arranged at intervals in the heating station 11 and are located on both sides of the conveying mechanism 100. The heating cover plate 330 is connected to the top of the first heating component 310 and the second heating component 320 to enclose the first heating component 310 and the second heating component 320 to form a heating channel 340 for the carrier plate 200 to pass through. The first heating component 310 and / or the second heating component 320 are used to heat the to-be-bound component 20 passing through the heating channel 340.

[0057] Similarly, in the preferred embodiment, the first heating component 310 and the second heating component 320 can both heat the to-be-bound component 20 passing through the heating channel 340. In addition, it should be noted that the structure and arrangement of the first heating component 310 and the second heating component 320 are respectively the same as those of the first preheating component 610 and the second preheating component 620, except that the heating temperatures are different, which will not be described in detail here.

[0058] In one embodiment, the insulation mechanism 400 includes a first insulation component 410, a second insulation component 420 and an insulation cover 430. The first insulation component 410 and the second insulation component 420 are arranged at intervals in the insulation station 12 and are located on both sides of the conveying mechanism 100. The insulation cover 430 is connected to the top of the first insulation component 410 and the second insulation component 420 to enclose the first insulation component 410 and the second insulation component 420 to form an insulation channel 440 for the carrier plate 200 to pass through. The first insulation component 410 and / or the second insulation component 420 are used to insulate the to-be-bound parts 20 passing through the insulation channel 440.

[0059] Similarly, in the preferred embodiment, the first heat preservation component 410 and the second heat preservation component 420 can both keep the to-be-bound component 20 warm passing through the heat preservation channel 440. In addition, the structure and arrangement of the first heat preservation component 410 and the second heat preservation component 420 are respectively the same as those of the first preheating component 610 and the second preheating component 620, except that the heating temperature is different, which will not be described in detail here.

[0060] In one embodiment, the cooling mechanism 500 includes a first cooling component 510 and a second cooling component 520. The first cooling component 510 and the second cooling component 520 are arranged at intervals in the cooling station 13 and are located on both sides of the conveying mechanism 100 to form a cooling channel 530 for the carrier plate 200 to pass through. The first cooling component 510 and / or the second cooling component 520 are used to cool the to-be-bound component 20 passing through the cooling channel 530.

[0061] Similarly, in order to ensure uniform heat dissipation, it is preferred that both the first cooling component 510 and the second cooling component 520 can cool the to-be-bound component 20 passing through the cooling channel 530. In addition, in this embodiment, the structure and arrangement of the first cooling component 510 and the second cooling component 520 are respectively the same as those of the first preheating component 610 and the second preheating component 620, except that the heating temperatures are different, which will not be described in detail here.

[0062] It should be explained that in this embodiment, the rotating target material is usually not cooled down to room temperature quickly after the insulation is completed. Therefore, the temperature of the rotating target material is reduced to the target temperature by setting the cooling mechanism 500 with a temperature field temperature lower than that of the insulation mechanism 400.

[0063] Furthermore, the cooling mechanism 500 further includes a cooling cover plate 540, which is movably connected to the first cooling assembly 510 and / or the second cooling assembly 520, and can open and close the opening at the top of the cooling channel 530 during the movement of the cooling cover plate 540. It can be understood that the structure and arrangement of the cooling cover plate 540 are the same as those of the preheating cover plate 640, and are not described in detail here.

[0064] When the cooling speed needs to be increased, the cooling cover 540 can be opened; when the cooling speed needs to be avoided from being too fast, the opening at the top of the cooling channel 530 can be closed by the cooling cover 540. Of course, in other embodiments, if rapid cooling is required, the heating element can be omitted in the cooling mechanism 500, and the rest is the same as the preheating mechanism 600.

[0065] In one embodiment, the preheating mechanism 600, the heating mechanism 300, the heat preservation mechanism 400 and the cooling mechanism 500 are connected in sequence, and the preheating channel 630, the heating channel 340, the heat preservation channel 440 and the cooling channel 530 are connected in sequence to ensure the continuity of the temperature field and ensure that the part to be bound 20 is affected by the outside world. For example, if there is a gap between the heating mechanism 300 and the heat preservation mechanism 400, the part to be bound 20 will pass through the outside world during the process of being transported from the heating mechanism 300 to the heat preservation mechanism 400, and the temperature will drop. At this time, in order to avoid the temperature being lower than the preset temperature, it is necessary to heat the temperature of the part to be bound 20 to above the preset temperature at the heating mechanism 300, so that the energy consumption of the heating mechanism 300 increases; at the same time, the temperature change of the outside world will also affect the temperature of the part to be bound 20, thereby affecting the action of the heating mechanism 300 and the heat preservation mechanism 400.

[0066] It can be determined from the above embodiments that the preheating mechanism 600 and the cooling mechanism 500 have the same structure, and the heating mechanism 300 and the heat preservation mechanism 400 have the same structure, but the heating temperatures are different.

[0067] In order to facilitate the understanding of the technical solution of the utility model, Figure 1 and Figure 2 The binding process of the binding device 10 in the above embodiment is described as follows:

[0068] The carrier plate 200 is placed at the right end of the conveying track 110, and the rotating target material is installed on the carrier plate 200 at the right end of the conveying track 110. The driving end of the driving member 120 abuts against and pushes the carrier plate 200 to move to the left by a preset distance and then retracts. After the new carrier plate 200 is loaded to the right end of the conveying track 110, the driving end of the driving member 120 continues to extend and abut against the carrier plate 200 at the right end, and pushes all the carrier plates 200 on the conveying track 110 to continue to move to the left by a preset distance, and so on and so forth to drive the carrier plate 200 to be transported from right to left.

[0069] The carrier plate 200 transported from right to left first enters the preheating channel 630, and the preheating mechanism 600 preheats the rotating target in the preheating channel 630. During the preheating process, the preheating cover 640 is opened, and the binding solution is added to the rotating target through the opening at the top of the preheating channel 630. Next, the carrier plate 200 drives the rotating target to enter the heating channel 340, and the heating mechanism 300 heats the rotating target in the heating channel 340 to the preheating temperature. Then, the carrier plate 200 drives the rotating target to enter the insulation channel 440. After the insulation is completed, the rotating target enters the cooling channel 530 for cooling. After the cooling is completed, the carrier plate 200 drives the rotating target to be transported to the unloading station 15 to unload the rotating target and the carrier plate 200.

[0070] It should be noted that, in order to achieve accurate filling of the binding solution, a feeding mechanism can be provided, the feeding mechanism is arranged corresponding to the preheating station 16, and the feeding mechanism can fill the binding material to the to-be-bound part 20 passing through the preheating channel 630 through the opening at the top of the preheating channel 630. In addition, the action of the driving member 120 can be determined according to the temperature requirement of the rotating target material and the temperature field of the preheating mechanism 600, the heating mechanism 300, the heat preservation mechanism 400 and the cooling mechanism 500, so that the rotating target material is transported at the target speed.

[0071] It needs to be further explained that Figure 2 The parts to be bound 20 are installed on the middle carrying plates 200 on the middle conveying track 110. In other embodiments, a part to be bound 20 may be placed every one or more carrying plates 200.

[0072] Compared with the existing independent binding device 10, the binding device 10 provided by the present invention has at least the following advantages:

[0073] 1. It can continuously bind rotating targets with higher binding efficiency;

[0074] 2. The preheating mechanism 600, the heating mechanism 300, the heat preservation mechanism 400 and the cooling mechanism 500 respectively ensure that the temperature fields in the preheating channel 630, the heating channel 340, the heat preservation channel 440 and the cooling channel 530 are stable at corresponding temperatures, and there is no need to frequently heat up and cool down. The temperature field is stable, which effectively improves the binding quality, and there will be no mechanism cold and hot fatigue, thereby extending the working life of the binding device 10;

[0075] 3. Since the rotating target can be continuously bound, and the binding solution is added to the rotating target at the preheating station 16, only one set of feeding mechanism is required during automatic filling, thereby reducing equipment costs.

Claims

1. A binding device, characterized in that: The binding device has a heating station, a heat preservation station and a cooling station, and the binding device includes: A plurality of bearing plates, each of which can bear the parts to be bound; A conveying mechanism connected to the plurality of the carrying plates to drive each of the carrying plates to flow along the heating station, the heat preservation station and the cooling station; A heating mechanism, arranged at the heating station, for heating the to-be-bound parts passing through the heating station; A heat preservation mechanism, arranged at the heat preservation station, for keeping the to-be-bound parts passing through the heat preservation station warm; A cooling mechanism is arranged at the cooling station and is used to cool the parts to be bound passing through the cooling station.

2. The binding device according to claim 1, characterized in that: The binding device further has a preheating station, and the conveying mechanism drives the carrying plate to circulate along the preheating station, the heating station, the heat preservation station and the cooling station; The binding device further comprises a preheating mechanism, which is disposed at the preheating station and is used for preheating the to-be-bound parts passing through the preheating station.

3. The binding device according to claim 2, characterized in that: The preheating mechanism includes a first preheating component and a second preheating component. The first preheating component and the second preheating component are arranged at intervals in the preheating station to form a preheating channel for the carrier plate to pass through. The first preheating component and the second preheating component are used to preheat the parts to be bound passing through the preheating channel.

4. The binding device according to claim 3, characterized in that: The preheating mechanism further comprises a preheating cover plate, which is movably connected to the first preheating component and / or the second preheating component, and the preheating cover plate can open and close the opening at the top of the preheating channel during movement.

5. The binding device according to claim 4, characterized in that: The binding device further comprises a feeding mechanism, which is arranged corresponding to the preheating station and can add binding material to the to-be-bound parts passing through the preheating channel through an opening at the top of the preheating channel.

6. The binding device according to claim 3, characterized in that: The first preheating component and the second preheating component both include a shell and a hot air module; The two shells are arranged at intervals in the preheating station to form a preheating channel for the carrier plate to pass through. Each of the shells is provided with a circulation space and a plurality of blowing holes connected to the circulation space, and the blowing holes are located on a side surface of the shell facing the preheating channel, and the hot air module is connected to the circulation space.

7. The binding device according to claim 1, characterized in that: The temperature raising mechanism comprises a first temperature raising component, a second temperature raising component and a temperature raising cover plate; The first heating component and the second heating component are arranged at intervals in the heating station, and the heating cover plate is connected to the top of the first heating component and the second heating component to enclose the first heating component and the second heating component to form a heating channel for the supporting plate to pass through, and the first heating component and the second heating component are used to heat the parts to be bound passing through the heating channel.

8. The binding device according to claim 1, characterized in that: The heat preservation mechanism comprises a first heat preservation component, a second heat preservation component and a heat preservation cover plate; The first insulation component and the second insulation component are arranged at intervals in the insulation station, and the insulation cover plate is connected to the top of the first insulation component and the second insulation component to enclose the first insulation component and the second insulation component to form an insulation channel for the carrier plate to pass through, and the first insulation component and the second insulation component are used to insulate the parts to be bound passing through the insulation channel.

9. The binding device according to claim 1, characterized in that: The cooling mechanism includes a first cooling component and a second cooling component; The first cooling component and the second cooling component are arranged at intervals in the cooling station to form a cooling channel for the carrier plate to pass through, and the first cooling component and the second cooling component are used to cool the to-be-bound parts passing through the cooling channel.

10. The binding device according to claim 9, characterized in that: The cooling mechanism further comprises a cooling cover plate, which is movably connected to the first cooling component and / or the second cooling component, and the cooling cover plate can open and close the opening at the top of the cooling channel during movement.

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