Automatic gum dipping equipment

Abstract

The embodiment of the utility model relates to the technical field of glue coating, and provides automatic glue dipping equipment. The automatic impregnation equipment comprises an impregnation tank, a support assembly, a lifting assembly mounted on the support assembly, a bearing assembly mounted on the lifting assembly and used for bearing workpieces, and a first blowing assembly mounted on the lifting assembly and located above the bearing assembly. The lifting assembly is used for driving the bearing assembly to immerse into or leave from the impregnation tank, the bearing assembly is provided with a staying position above the impregnation tank after leaving from the impregnation tank, and the first blowing assembly is used for providing airflow for the bearing assembly attached with glue and located at the staying position and the workpiece. The automatic glue dipping equipment is favorable for reducing the glue consumption and the production cost.

Description

Technical Field

[0001] The present application relates to the technical field of glue coating, and in particular to an automatic glue dipping device. Background Art

[0002] In the process of manufacturing certain components of electronic devices, it is necessary to immerse these components in a glue dipping tank for glue coating, and take these components out of the glue dipping tank for the next process. However, in the existing glue coating process, a large amount of glue will be retained in the components that have been glued and the supporting components (such as mother baskets) used to support these components, resulting in a large consumption of glue and high production costs. Utility Model Content

[0003] In view of the above, it is necessary to propose an automatic glue dipping device that is beneficial to reducing glue consumption and reducing production costs.

[0004] The embodiment of the present application provides an automatic glue dipping device. The automatic glue dipping device comprises:

[0005] Glue dipping tank;

[0006] Bracket assembly;

[0007] A lifting assembly, mounted on the bracket assembly;

[0008] A bearing assembly, mounted on the lifting assembly and used to bear a workpiece; and

[0009] A first blowing assembly, which is installed on the lifting assembly and located above the bearing assembly;

[0010] Among them, the lifting component is used to drive the supporting component to immerse in or leave the glue dipping tank. After the supporting component leaves the glue dipping tank, it has a rest position above the glue dipping tank. The first blowing component is used to provide airflow to the supporting component and the workpiece with glue attached thereto located at the rest position.

[0011] The automatic glue dipping equipment of the embodiment of the present application provides airflow to the bearing component with glue attached and the workpiece with glue attached during the stay stage above the glue dipping tank when the lifting component drives the bearing component carrying the workpiece to rise. This helps to increase the speed at which the glue attached to the workpiece and the bearing component falls into the glue dipping tank, thereby reducing the amount of glue used and reducing production costs.

[0012] In some embodiments, the automatic dipping device further comprises:

[0013] The second blowing assembly and the third blowing assembly are respectively installed on the opposite sides of the bracket assembly and can reciprocate in the direction of approaching or moving away from the bearing assembly. The second blowing assembly and the third blowing assembly are used to provide airflow to the bearing assembly and the workpiece located in the stop position.

[0014] In some embodiments, the first blowing assembly, the second blowing assembly and the third blowing assembly each include a plurality of nozzles and a plurality of nozzles correspondingly connected to the nozzles, each of the nozzles is gourd-shaped, and the blowing end of each of the nozzles is flat.

[0015] In some embodiments, the bracket assembly includes:

[0016] a first frame; and

[0017] A second frame body connected to the first frame body, the second frame body comprising a first mounting portion and a second mounting portion respectively located on two opposite sides of the first frame body;

[0018] Wherein, the lifting assembly is installed on the first frame, the second blowing assembly is installed on the first mounting portion, and the third blowing assembly is installed on the second mounting portion.

[0019] In some embodiments, the lifting assembly includes:

[0020] A cross bar is mounted on the first frame, and the cross bar can reciprocate relative to the first frame in a direction close to or away from the dipping tank;

[0021] a frame connected to the crossbar; and

[0022] Two hanging parts are respectively connected to opposite sides of the frame;

[0023] Wherein, the bearing assembly is hung on the two hanging parts.

[0024] In some embodiments, the first blowing assembly comprises:

[0025] A top plate connected to the frame;

[0026] A middle plate, spaced apart from the top plate;

[0027] A plurality of support columns are spaced and distributed between the top plate and the middle plate, and opposite ends of each support column are respectively connected to the top plate and the middle plate;

[0028] A plurality of first nozzle fixing members, each connected to a side of the middle plate away from the top plate, each of the first nozzle fixing members comprising a first vent hole penetrating the first nozzle fixing member;

[0029] a first air pump connected to the first air hole of each of the first nozzle fixing members;

[0030] A plurality of the nozzles are disposed at intervals on the first nozzle fixing member, and each of the nozzles is communicated with the first vent hole; and

[0031] There are a plurality of nozzles, each of which is connected to a corresponding nozzle pipe and communicated with the first vent hole.

[0032] In some embodiments, the second blowing assembly comprises:

[0033] A first bracket connected to the first mounting portion;

[0034] Two first driving assemblies, respectively mounted on the first brackets;

[0035] Two connecting blocks, connected to the two first driving components in a one-to-one correspondence;

[0036] Two first connecting plates are connected to the two connecting blocks in a one-to-one correspondence;

[0037] A plurality of second nozzle fixing members, respectively mounted on the two first connecting plates, each of the second nozzle fixing members can reciprocate in a direction approaching or moving away from the bearing assembly under the drive of the two first driving assemblies, and each of the second nozzle fixing members includes a second vent hole penetrating therethrough;

[0038] a second air pump connected to the second air vent of each of the second nozzle fixing members;

[0039] a plurality of the nozzles are disposed at intervals on the second nozzle fixing member, and each of the nozzles is communicated with the second vent hole; and

[0040] There are a plurality of nozzles, each of which is connected to a corresponding nozzle pipe and communicated with the second vent hole.

[0041] In some embodiments, the third blowing assembly includes:

[0042] A second bracket connected to the second mounting portion;

[0043] Two second driving assemblies, respectively mounted on the second brackets;

[0044] Two second connecting plates, connected to the two second driving components in a one-to-one correspondence;

[0045] A plurality of third nozzle fixing members, respectively mounted on the two second connecting plates, each of the third nozzle fixing members can reciprocate in a direction approaching or moving away from the bearing assembly under the drive of the two second driving assemblies, and each of the third nozzle fixing members includes a third vent hole penetrating therethrough;

[0046] a third air pump connected to the third air vent of each of the third nozzle fixing members;

[0047] a plurality of nozzles, which are arranged at intervals on the third nozzle fixing member, and each of the nozzles is communicated with the third vent hole; and

[0048] A plurality of nozzles, each of which is connected to a corresponding nozzle pipe and communicated with the third vent hole.

[0049] In some embodiments, the automatic glue dipping device further includes a vibration component, which is installed on the lifting component and is used to drive the bearing component to vibrate when the bearing component leaves the glue dipping tank.

[0050] In some embodiments, the bearing assembly, the vibration assembly and the first blowing assembly can synchronously reciprocate in a direction approaching or moving away from the glue dipping tank driven by the lifting assembly. BRIEF DESCRIPTION OF THE DRAWINGS

[0051] Figure 1 This is a schematic structural diagram of an automatic glue dipping device according to an embodiment of the present application.

[0052] Figure 2 for Figure 1 The schematic diagram of the structure of the support assembly, lifting assembly, bearing assembly and first blowing assembly of the automatic glue dipping equipment is shown.

[0053] Figure 3 for Figure 1 The schematic diagram of the structure of the second blowing assembly of the automatic dipping equipment is shown.

[0054] Figure 4 for Figure 1 The schematic diagram of the structure of the third blowing component of the automatic dipping equipment is shown.

[0055] Description of main component symbols:

[0056] Automatic dipping equipment 100

[0057] Bracket assembly 10

[0058] First frame 11

[0059] Chute S

[0060] The second frame 12

[0061] The first mounting portion 121

[0062] The second mounting portion 122

[0063] Lifting assembly 20

[0064] Crossbar 21

[0065] Frame 22

[0066] Hanging part 23

[0067] Carrying assembly 30

[0068] The first blowing assembly 40

[0069] Top Plate 41

[0070] Medium plate 42

[0071] Support column 43

[0072] First fixing block 44

[0073] First nozzle fixing member 45

[0074] First vent hole H1

[0075] First nozzle 46

[0076] The first nozzle 47

[0077] Second blowing assembly 50

[0078] The first bracket 51

[0079] First drive assembly 52

[0080] Connection block 531

[0081] First connecting plate 532

[0082] Second nozzle fixing member 54

[0083] Second vent hole H2

[0084] Second nozzle 55

[0085] Second nozzle 56

[0086] The second fixing block 571

[0087] The third fixing block 572

[0088] First fastener 573

[0089] Fourth fixing block 574

[0090] The third blowing assembly 60

[0091] Second bracket 61

[0092] Cross part 611

[0093] First vertical section 612

[0094] Second vertical section 613

[0095] Second drive assembly 62

[0096] Second connecting plate 63

[0097] The third nozzle fixing member 64

[0098] The third vent hole H3

[0099] The third nozzle 65

[0100] The third nozzle 66

[0101] Fifth fixing block 671

[0102] Sixth fixing block 672

[0103] Second fastener 673

[0104] Dipping Tank T

[0105] First direction D1

[0106] Second direction D2

[0107] Third direction D3 DETAILED DESCRIPTION

[0108] The technical solutions in the embodiments of the present application will be clearly and completely described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all of the embodiments.

[0109] like Figure 1 As shown, the automatic glue dipping equipment 100 includes a glue dipping tank T, a support assembly 10, a lifting assembly 20 installed on the support assembly 10, a bearing assembly 30 installed on the lifting assembly 20 and used to bear a workpiece (not shown), and a first blowing assembly 40 installed on the support assembly 10 and located above the bearing assembly 30. Among them, the lifting assembly 20 is used to drive the bearing assembly 30 to immerse in or leave the glue dipping tank T. After leaving the glue dipping tank T, the bearing assembly 30 has a stop position above the glue dipping tank T, and the first blowing assembly 40 is used to provide airflow to the bearing assembly 30 and the workpiece attached with glue located at the stop position.

[0110] In the related art, after the workpiece and the supporting component (such as the mother basket) carrying the workpiece are taken out from the glue dipping tank, a large amount of glue will remain on the workpiece or the mother basket, resulting in a large consumption of glue in this process and high production costs. In the embodiment of the present application, when the workpiece and the supporting component 30 are taken out from the glue dipping tank T to the stop position, the first blowing component 40 provides airflow to the workpiece with glue attached and the supporting component 30 with glue attached, which is conducive to increasing the speed at which the glue attached to the workpiece and the supporting component 30 falls into the glue dipping tank T, thereby reducing the amount of glue used and reducing costs.

[0111] Please continue reading Figure 1 The automatic dipping device 100 further includes a second blowing assembly 50 and a third blowing assembly 60 respectively mounted on opposite sides of the support assembly 10. The second blowing assembly 50 and the third blowing assembly 60 can reciprocate in a direction close to or away from the bearing assembly 30, and the second blowing assembly 50 and the third blowing assembly 60 are used to provide airflow to the bearing assembly 30 and the workpiece located at the stop position.

[0112] For the convenience of description, the following defines the up and down direction as the first direction D1, the left and right direction as the second direction D2, and the front and back direction as the third direction D3, and the first direction D1, the second direction D2 and the third direction D3 are perpendicular to each other. In this embodiment, the first blowing assembly 40 is used to provide a negative upward airflow in the first direction D1 to the bearing assembly 30 and the workpiece attached with glue located in the stop position. The second blowing assembly 50 is used to provide a positive upward airflow along the second direction D2. The third blowing assembly 60 is used to provide a negative upward airflow along the second direction D2. During operation, the support assembly 10 of the automatic dipping equipment 100 can be installed on a crane (not shown) and moved to the positive direction of the first direction D1 of the dipping tank T by the crane. Driven by the lifting assembly 20, the bearing assembly 30 containing the workpiece descends and is immersed in the dipping tank T. When glue is attached to the bearing assembly 30 and the workpiece, the bearing assembly 30 and the workpiece are lifted up by the lifting assembly 20 to remove the bearing assembly 30 and the workpiece from the glue dipping tank T.

[0113] The support assembly 10 includes a first frame 11 and a second frame 12 mounted on the first frame 11. The lifting assembly 20 is mounted on the first frame 11. The second frame 12 includes a first mounting portion 121 extending in a negative direction of the second direction D2 relative to the first frame 11 and a second mounting portion 122 extending in a positive direction of the second direction D2 relative to the first frame 11. The second blowing assembly 50 is mounted on the first mounting portion 121, and the third blowing assembly 60 is mounted on the second mounting portion 122. In other embodiments, the second blowing assembly 50 and the third blowing assembly 60 may also be omitted to simplify the structure of the automatic dipping device 100.

[0114] like Figure 2As shown, the lifting assembly 20 includes a crossbar 21 installed on the first frame 11, a frame 22 connected to the crossbar 21 in the negative direction of the first direction D1, and two hanging parts 23 respectively connected to the frame 22 on opposite sides of the third direction D3. The ends of the two hanging parts 23 are in an inverted hook shape, and the bearing assembly 30 is hung on the two hanging parts 23. Specifically, the first frame 11 includes two slide grooves S extending along the first direction D1. The two ends of the crossbar 21 along the third direction D3 are respectively located in the two slide grooves S. During operation, the crossbar 21 can drive the frame 22, the hanging part 23, the bearing assembly 30 and the first blowing assembly 40 below to reciprocate as a whole along the first direction D1.

[0115] In some embodiments, the automatic glue dipping equipment 100 also includes a vibration component (not shown) installed on the lifting component 20 and used to drive the bearing component 30 to vibrate when the bearing component 30 leaves the glue dipping tank T. Wherein, the bearing component 30, the first blowing component 40 and the vibration component can synchronously reciprocate in the direction close to or away from the glue dipping tank T driven by the lifting component 20. Specifically, the vibration component includes, for example, a vibration motor installed on the side of the frame 22 away from the bearing component 30. The lifting component 20 can drive the vibration motor to rise or fall relative to the glue dipping tank T. Wherein, the vibration motor can drive the bearing component 30 to vibrate by vibrating the frame 22 and the hanging part 23 when the bearing component 30 leaves the glue dipping tank T, thereby increasing the speed at which the glue attached to the bearing component 30 and the workpiece falls into the glue dipping tank T.

[0116] The first blowing assembly 40 includes a top plate 41 connected to the bottom of the frame 22, a middle plate 42 spaced apart from the top plate 41 in the first direction D1, a plurality of support columns 43 spaced apart between the top plate 41 and the middle plate, and a plurality of first fixing blocks 44 connecting the top plate 41 and the middle plate 42.

[0117] Specifically, the top plate 41 and the middle plate 42 are both in the shape of rectangular flat plates, and the four support columns 43 are roughly evenly distributed at the four corners of the top plate 41 and / or the middle plate 42. The opposite ends of each support column 43 are fixedly connected to the top plate 41 and the middle plate (such as connected by fasteners). The four first fixed blocks 44 are respectively distributed on the opposite sides of the top plate 41 and / or the middle plate 42 in the second direction D2. Each first fixed block 44 is U-shaped and includes two side walls opposite to each other in the first direction D1. The top plate 41 and the middle plate 42 are located between the two side walls of each first fixed block 41, and are fixedly connected to the two side walls of each first fixed block 41 (such as connected by fasteners). In other embodiments, the shape of the top plate 41, the shape of the middle plate 42, the number of support columns 43 and the number of first fixed blocks 44 are not limited to the above.

[0118] The first blowing assembly 40 further includes a plurality of first nozzle fixing members 45, a plurality of first nozzle pipes 46, and a plurality of first nozzles 47 connected to a side of the middle plate 42 away from the top plate 41. Specifically, a plurality of first nozzle pipes 46 are evenly distributed below each first nozzle fixing member 45, and one end of each first nozzle pipe 46 is connected to a corresponding first nozzle fixing member 45 and the other end is connected to a corresponding first nozzle 47 at two opposite ends along the first direction D1.

[0119] The first blowing assembly 40 further includes a first air pump (not shown). Each first nozzle fixing member 45 includes a first vent hole H1 running through it. The plurality of first nozzle pipes 46 and the plurality of first nozzles 47 on each first nozzle fixing member 45 are all in communication with the first vent hole H1. The first air pump is in communication with the first vent hole H1 of each first nozzle fixing member 45 to provide air flow to each first nozzle fixing member 45 and the first nozzle pipes 46 and the first nozzles 47 connected thereto.

[0120] Each first nozzle 46 has a gourd-shaped shape. Specifically, the gourd-shaped shape of the first nozzle 46 helps to optimize the fluidity of the airflow to reduce the turbulence and instability of the airflow. Moreover, the gourd-shaped shape of the first nozzle 46 increases the flow rate of the airflow in the narrow part, which is conducive to increasing the influence range of the blowing of the first nozzle 46. In addition, the gourd-shaped shape of the first nozzle 46 is also conducive to reducing the noise of the airflow when passing through.

[0121] The blowing end of each first nozzle 47 is flat. In other words, each first nozzle 47 is a duckbill nozzle. Specifically, the blowing end of each first nozzle 47 is flat, which is conducive to providing more uniform gas injection, and is conducive to increasing the blowing area, thereby improving the efficiency of the injection. In other embodiments, the shape of the first nozzle 46 and the shape of the first nozzle 47 are not limited to the above.

[0122] like Figure 3 As shown, the second blowing assembly 50 includes a first bracket 51, two first driving assemblies 52 respectively connected to the opposite sides of the first bracket 51 along the third direction D3, two connecting blocks 531 connected to the two first driving assemblies 52 in a one-to-one correspondence, two first connecting plates 532 connected to the two connecting blocks 531 in a one-to-one correspondence, a plurality of second nozzle fixing members 54 connected to the two first connecting plates 532, a plurality of second nozzle pipes 55 connected to each second nozzle fixing member 54 at intervals, and a plurality of second nozzles 56 connecting the plurality of second nozzle pipes 55.

[0123] Specifically, the first bracket 51 is roughly in the shape of a hollow rectangular frame. The two first drive assemblies 52 can be welded and fixed on the inner sides of the opposite sides of the rectangular frame. Each first drive assembly 52 includes a telescopic cylinder to have a large stroke in the first direction D1. The connecting block 531 is roughly L-shaped, also known as a right-angle connector, and is fixedly connected to the first drive assembly 52 and the first connecting plate 532 in the first direction D1 and the third direction D3 (such as fixed by fasteners). The two first connecting plates 532 are spaced apart in the third direction D3. The two second nozzle fixing members 54 are spaced apart in the first direction D1. Each connecting block 531 is connected to the middle position of a corresponding first connecting plate 532, and each second nozzle fixing member 54 is connected to the two first connecting plates 532, and the connecting block 531 and the two second nozzle fixing members 54 are respectively on the opposite sides of the second direction D2 of the two first connecting plates 532. In this way, each second nozzle fixing member 54 can reciprocate along the first direction D1 driven by the two first driving assemblies 52 through the first connecting plate 532 and the connecting block 531 .

[0124] The second blowing assembly 50 also includes a second air pump (not shown). Each second nozzle fixing member 54 includes a second vent hole H2 running through it. Each second nozzle fixing member 54 is connected to a plurality of second nozzles 55 spaced apart along the third direction D3, and one end of each second nozzle 55 is connected to a corresponding second nozzle 56. The plurality of second nozzles 55 and the plurality of nozzles 56 on each second nozzle fixing member 54 are all connected to the second vent hole H2. The second air pump is connected to the second vent hole H2 of each second nozzle fixing member 54 to provide airflow to each second nozzle fixing member 54 and the second nozzles 55 and the second nozzles 56 connected thereto.

[0125] Each second nozzle 56 is gourd-shaped to optimize the fluidity of the airflow, increase the impact range of the blowing, and reduce the noise of the airflow when passing through. The blowing end of each second nozzle 57 is flat to improve the uniformity of the airflow injection and increase the blowing area. In other embodiments, the shape of the second nozzle 56 and the shape of the second nozzle 57 are not limited to the above.

[0126] The second blowing assembly 50 further includes two second fixing blocks 571, two third fixing blocks 572, a plurality of first fasteners 573 and a fourth fixing block 574. Specifically, each second fixing block 571 is U-shaped, and its opening faces the negative direction of the first direction D1.

[0127] Please refer to Figure 1 and Figure 3, the two second fixing blocks 571 are arranged at intervals along the third direction D3, and the first mounting portion 121 of the first bracket 51 and the second frame 12 is located in the opening of each second fixing block 171. Each third fixing block 572 is fixedly connected to the lower end of a corresponding second fixing block 571 by a plurality of first fasteners 573. The fourth fixing block 574 is U-shaped, and its opening faces the positive direction of the second direction D2. Along the third direction D3, the fourth fixing block 574 is located between the two second fixing blocks 571. The first mounting portion 121 of the first bracket 51 and the second frame 12 is located in the opening of the fourth fixing block 574, and is respectively connected to the two side walls of the fourth fixing block 574 (such as connected by fasteners, or welded, etc.).

[0128] like Figure 4 As shown, the third blowing assembly 60 includes a second bracket 61, two second driving assemblies 62 respectively connected to the second bracket 61 on opposite sides along the third direction D3, two second connecting plates 63 connected to the two second driving assemblies 62 in a one-to-one correspondence, a plurality of third nozzle fixing members 64 connected to the two second connecting plates 63, a plurality of third nozzle pipes 65 connected to each third nozzle fixing member 64 at intervals, and a plurality of third nozzles 66 connecting the plurality of third nozzle pipes 65.

[0129] Specifically, the second bracket 61 includes two transverse portions 611 extending along the third direction D3 and spaced apart in the first direction D1, two first longitudinal portions 612 connecting the two transverse portions 611 and spaced apart in the third direction D3, and two second longitudinal portions 613 connecting the two transverse portions 611 and spaced apart in the third direction D3. The two first longitudinal portions 612 extend beyond the two transverse portions 611 in the first direction D1, and the two ends of the two second longitudinal portions 613 in the first direction D1 are respectively connected to the two transverse portions 611, and the two longitudinal portions 613 can be integrally formed with the two transverse portions 611.

[0130] The two second drive assemblies 62 can be fixedly connected to the two first longitudinal portions 612 by welding or fastener connection. Each second connecting plate 63 is connected to a side of a corresponding second drive assembly 62 away from the second bracket 61. Two third nozzle fixing members 64 are arranged at intervals in the first direction D1. Each third nozzle fixing member 64 is connected to a side of the two second connecting plates 63 away from the second bracket 61. In this way, each third nozzle fixing member 64 can reciprocate along the first direction D1 driven by the two second drive assemblies 62 through the second connecting plates 63.

[0131] The third blowing assembly 60 also includes a third air pump (not shown). Each third nozzle fixture 64 includes a third vent H3 running through it. Each third nozzle fixture 64 is connected to a plurality of third nozzles 66 spaced apart along the third direction D3, and one end of each third nozzle 65 is connected to a corresponding third nozzle 66. The plurality of third nozzles 65 and the plurality of nozzles 66 on each third nozzle fixture 64 are all connected to the third vent H3. The third air pump is connected to the third vent H3 of each third nozzle fixture 64 to provide airflow to each third nozzle fixture 64 and the third nozzles 65 and the third nozzles 66 connected thereto.

[0132] Each third nozzle 66 has a gourd-shaped shape to optimize the fluidity of the airflow, increase the impact range of the blowing, and reduce the noise of the airflow when passing through. The blowing end of each third nozzle 67 is flat to improve the uniformity of the airflow injection and increase the blowing area. In other embodiments, the shape of the third nozzle 66 and the shape of the third nozzle 67 are not limited to the above.

[0133] The third blowing assembly 60 also includes two fifth fixing blocks 671, two sixth fixing blocks 672 and a plurality of second fasteners 673. Specifically, each fifth fixing block 671 is U-shaped, and its opening faces the positive direction of the third direction D3. The two second longitudinal portions 613 of the second bracket 61 and the two transverse portions 611 are staggered to form two U-shaped openings whose openings face the positive direction and the negative direction of the third direction D3, respectively. The two fifth fixing blocks 671 are respectively located in a corresponding U-shaped opening, and the opening of each fifth fixing block 671 is consistent with the opening direction of the two U-shaped openings of the second bracket 61.

[0134] Please refer to Figure 1 and Figure 4 , the second mounting portion 122 of the second frame body 12 passes through the opening of the fifth fixing block 671. Each fifth fixing block 672 is fixedly connected to a corresponding sixth fixing block 672 through a plurality of second fasteners 673. In other embodiments, the connection method between the second bracket 61 and the second mounting portion 122 is not limited to connection through a fixing block.

[0135] It should be noted that, in some embodiments, the nozzles in the first blowing assembly 40 (i.e., the first nozzle 46), the nozzles in the second blowing assembly 50 (i.e., the second nozzle 55), and the nozzles in the third blowing assembly 60 (i.e., the third nozzle 65) may be the same in shape and size, but are not limited thereto. In some embodiments, the nozzles in the first blowing assembly 40 (i.e., the first nozzle 47), the nozzles in the second blowing assembly 50 (i.e., the second nozzle 56), and the nozzles in the third blowing assembly 60 (i.e., the third nozzle 66) may be the same in shape and size, but are not limited thereto.

[0136] In summary, the automatic glue dipping equipment of the embodiment of the present application provides airflow to the carrying component with glue attached and the workpiece with glue attached through the first blowing component when the lifting component drives the carrying component carrying the workpiece to rise. This helps to increase the speed at which the glue attached to the workpiece and the carrying component falls into the glue dipping tank, thereby reducing the amount of glue used and reducing production costs.

[0137] The above implementation modes are only used to illustrate the technical solutions of the present application and are not intended to limit the present application. Although the present application has been described in detail with reference to the above preferred implementation modes, a person skilled in the art should understand that the technical solutions of the present application may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present application.

Claims

1. An automatic dipping device, characterized in that: include: Glue dipping tank; Bracket assembly; A lifting assembly, mounted on the bracket assembly; A bearing assembly, mounted on the lifting assembly and used to bear a workpiece; as well as A first blowing assembly, which is installed on the lifting assembly and located above the bearing assembly; Among them, the lifting component is used to drive the supporting component to immerse in or leave the glue dipping tank. After the supporting component leaves the glue dipping tank, it has a rest position above the glue dipping tank. The first blowing component is used to provide airflow to the supporting component and the workpiece with glue attached thereto located at the rest position.

2. The automatic dipping device according to claim 1, characterized in that: The automatic dipping device also includes: The second blowing assembly and the third blowing assembly are respectively installed on the opposite sides of the bracket assembly and can reciprocate in the direction of approaching or moving away from the bearing assembly. The second blowing assembly and the third blowing assembly are used to provide airflow to the bearing assembly and the workpiece located in the stop position.

3. The automatic dipping device according to claim 2, characterized in that: The first blowing assembly, the second blowing assembly and the third blowing assembly each include a plurality of nozzles and a plurality of nozzles correspondingly connected to the nozzles. The shape of each nozzle is gourd-shaped, and the blowing end of each nozzle is flat.

4. The automatic dipping device according to claim 3, characterized in that: The bracket assembly comprises: a first frame; and A second frame body connected to the first frame body, the second frame body comprising a first mounting portion and a second mounting portion respectively located on two opposite sides of the first frame body; Wherein, the lifting assembly is installed on the first frame, the second blowing assembly is installed on the first mounting portion, and the third blowing assembly is installed on the second mounting portion.

5. The automatic dipping device according to claim 4, characterized in that: The lifting assembly comprises: A cross bar is mounted on the first frame, and the cross bar can reciprocate relative to the first frame in a direction close to or away from the dipping tank; a frame connected to the crossbar; and Two hanging parts are respectively connected to opposite sides of the frame; Wherein, the bearing assembly is hung on the two hanging parts.

6. The automatic dipping device according to claim 5, characterized in that: The first blowing assembly comprises: A top plate connected to the frame; A middle plate, spaced apart from the top plate; A plurality of support columns are spaced and distributed between the top plate and the middle plate, and opposite ends of each support column are respectively connected to the top plate and the middle plate; A plurality of first nozzle fixing members, each connected to a side of the middle plate away from the top plate, each of the first nozzle fixing members comprising a first vent hole penetrating the first nozzle fixing member; a first air pump connected to the first air hole of each of the first nozzle fixing members; A plurality of the nozzles are disposed at intervals on the first nozzle fixing member, and each of the nozzles is communicated with the first vent hole; and There are a plurality of nozzles, each of which is connected to a corresponding nozzle pipe and communicated with the first vent hole.

7. The automatic dipping device according to claim 4, characterized in that: The second blowing assembly comprises: A first bracket connected to the first mounting portion; Two first driving assemblies, respectively mounted on the first brackets; Two connecting blocks, connected to the two first driving components in a one-to-one correspondence; Two first connecting plates are connected to the two connecting blocks in a one-to-one correspondence; A plurality of second nozzle fixing members, respectively mounted on the two first connecting plates, each of the second nozzle fixing members can reciprocate in a direction approaching or moving away from the bearing assembly under the drive of the two first driving assemblies, and each of the second nozzle fixing members includes a second vent hole penetrating therethrough; a second air pump connected to the second air vent of each of the second nozzle fixing members; a plurality of the nozzles are disposed at intervals on the second nozzle fixing member, and each of the nozzles is communicated with the second vent hole; and There are a plurality of nozzles, each of which is connected to a corresponding nozzle pipe and communicated with the second vent hole.

8. The automatic dipping device according to claim 4, characterized in that: The third blowing assembly comprises: A second bracket connected to the second mounting portion; Two second driving assemblies, respectively mounted on the second brackets; Two second connecting plates, connected to the two second driving components in a one-to-one correspondence; A plurality of third nozzle fixing members, respectively mounted on the two second connecting plates, each of the third nozzle fixing members can reciprocate in a direction approaching or moving away from the bearing assembly under the drive of the two second driving assemblies, and each of the third nozzle fixing members includes a third vent hole penetrating therethrough; a third air pump connected to the third air vent of each of the third nozzle fixing members; A plurality of the nozzles are disposed at intervals on the third nozzle fixing member, and each of the nozzles is communicated with the third vent hole; and There are a plurality of nozzles, each of which is connected to a corresponding nozzle pipe and communicated with the third vent hole.

9. The automatic dipping device according to any one of claims 1 to 8, characterized in that: The automatic glue dipping device further comprises a vibration component, which is installed on the lifting component and is used to drive the bearing component to vibrate when the bearing component leaves the glue dipping tank.

10. The automatic dipping device according to claim 9, characterized in that: The bearing assembly, the vibration assembly and the first blowing assembly can synchronously reciprocate in a direction approaching or moving away from the glue dipping tank under the drive of the lifting assembly.

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