Assembly apparatus for filters

By designing automated filter assembly equipment, which utilizes conveyor lines and various assembly devices to automate the assembly of filter components, the problem of low assembly efficiency in existing equipment is solved, and assembly efficiency is improved.

CN116728068BActive Publication Date: 2025-11-07KINGTRONICS SMART IND (XIAMEN) CO LTD
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Patent Information

Application Number
CN202310479739.4
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2023-04-28
Publication Date
2025-11-07
Estimated Expiration
2043-04-28

AI Technical Summary

Technical Problem

Existing filter assembly equipment cannot effectively connect the various workstations, resulting in low assembly efficiency.

Method used

An automated assembly device is designed, comprising a first conveyor line, an inner and outer shell assembly device, a filter element body assembly device, an outer cover and filter element assembly device, a testing device, and a coating device. The device transfers the components between workstations via the conveyor line and achieves automated assembly using a robotic arm, assembly components, and tightening components.

Benefits of technology

The automated assembly of the filter components has been achieved, improving assembly efficiency.

✦ Generated by Eureka AI based on patent content.

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Patent Text Reader

Abstract

The application discloses an assembling device for filters, which comprises a first conveying line, an inner and outer shell assembling device, a filter core body assembling device, a filter core assembling device, an outer cover and filter core assembling device and a first mechanical arm arranged along the conveying direction of the first conveying line in sequence, a testing device and a film coating device; the inner and outer shell assembling device assembles an inner shell and an outer shell into a first to-be-assembled part, the filter core body assembling device assembles a skeleton, a scale inhibitor and the first to-be-assembled part into a second to-be-assembled part, the filter core assembling device assembles the second to-be-assembled part and a filter core cover into a third to-be-assembled part, and the outer cover and filter core assembling device assembles the third to-be-assembled part and an outer cover into a filter. The application can automatically assemble each component of the filter together, thereby improving the assembling efficiency of the filter.
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Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of filter assembly, in particular to an assembly device of filter. BACKGROUND

[0002] In order to make water meet the use requirements, many water flow pipelines are provided with filters to filter impurities in water. Figure 1 The filter 1 shown in the figure includes an inner shell 11, an outer shell 12, a framework 13, a scale inhibitor, a filter core cover 14, an outer cover 15, a sealing ring 16 and other components. When assembling, the inner shell 11, the outer shell 12, the framework 13 and the scale inhibitor are assembled into a filter core body, the filter core body is welded with the filter core cover 14 to form a filter core, and the outer shell of the filter core is screwed with the outer cover 15 to form the filter 1, and the filter 1 is subjected to air tightness test, film packaging and then boxing.

[0003] The filter assembly device in the related art cannot well connect the stations, so that the assembly efficiency of the filter is limited. SUMMARY

[0004] The present application aims to at least solve one of the above technical problems in the technical field. To this end, one object of the present application is to provide an assembly device of filter, which can automatically assemble the components of the filter together to improve the assembly efficiency of the filter.

[0005] To achieve the above-mentioned object, an embodiment of the present application provides an assembly device of filter, which comprises: a first conveying line, an inner and outer shell assembly device, a filter core body assembly device, a filter core assembly device, an outer cover and filter core assembly device and a first mechanical hand arranged in sequence along the conveying direction of the first conveying line, a testing device and a film coating device;

[0006] A tool is arranged on the first conveying line to transfer the parts to be assembled between the devices;

[0007] The inner and outer shell assembly device comprises an inner shell feeding assembly and an outer shell feeding assembly, the outer shell feeding assembly is adapted to adjust the outer shell to the required angle and then feed it to the tool, and the inner shell feeding assembly is adapted to feed the inner shell to the tool after the first sealing ring is sleeved on the inner shell to form the first part to be assembled;

[0008] The filter core body assembling device comprises a first assembling component, a feeding component and a second assembling component. The first assembling component has a skeleton feeding part, a transfer channel, a moving fork and a scale inhibitor feeding part. The transfer channel is open at the top and its feeding port is connected to the skeleton feeding part to receive the skeleton. The scale inhibitor feeding part is arranged at the side of the transfer channel to supply the scale inhibitor to the transfer channel. The moving fork is adapted to move back and forth along the transfer direction of the transfer channel to transfer the skeleton from the feeding port to the position where the scale inhibitor feeding part is arranged to receive the scale inhibitor. The feeding component is adapted to clamp the skeleton with the scale inhibitor and turn the skeleton by 180° to feed into the first component to be assembled. The second assembling component is adapted to press the skeleton on the first component to be assembled to form the second component to be assembled.

[0009] The filter core assembling device comprises a filter core cover feeding component, a feeding and discharging component, a welding machine and an outer sealing ring assembling component. The filter core cover feeding component is adapted to adjust the filter core cover to the required angle and arrange the second sealing ring in the filter core cover. The feeding and discharging component has a filter core cover feeding claw and a first feeding and discharging claw. The filter core cover feeding claw is adapted to feed the filter core cover with the second sealing ring to the welding machine. The first feeding and discharging claw is adapted to feed the second component to be assembled to the welding machine or discharge the third component to be assembled after welding to the tooling. The welding machine is adapted to weld the filter core cover and the second component to be assembled to form the third component to be assembled. The outer sealing ring assembling component is adapted to arrange the third sealing ring on the filter core cover of the third component to be assembled.

[0010] The outer cover and filter core assembling device comprises an outer cover feeding component and a tightening component. The outer cover feeding component is adapted to rotate the outer cover to the required angle and transfer the outer cover to the third component to be assembled on the tooling. The tightening component is adapted to tighten the outer cover and the third component to be assembled on the first conveying line to form the filter.

[0011] The first mechanical hand is adapted to grab the filter from the first conveying line and transfer the filter to the testing device or transfer the filter to the film wrapping device.

[0012] The testing device is adapted to perform the air tightness test on the filter.

[0013] The film wrapping device is adapted to perform the film wrapping on the filter.

[0014] The assembling device of the filter according to the embodiment of the present application can move the to-be-assembled parts on the tooling between the stations through the first conveying line, place the inner shell with the sealing ring in the outer shell to form a first to-be-assembled part through the inner and outer shell assembling device, move the first to-be-assembled part to the filter core body assembling device through the first conveying line, place the scale inhibitor in the framework through the filter core body assembling device, then assemble the framework on the first to-be-assembled part to form a second to-be-assembled part, move the second to-be-assembled part to the filter core assembling device through the first conveying line, weld the inner sealing ring of the filter core cover to the second to-be-assembled part to form a third to-be-assembled part through the filter core assembling device, then assemble the outer sealing ring on the filter core cover of the third to-be-assembled part, move the third to-be-assembled part to the outer cover and filter core assembling device through the first conveying line, assemble the outer cover on the third to-be-assembled part to form the filter through the outer cover and filter core assembling device, then move the filter to the testing device through the first mechanical hand to perform the air tightness test, and then move the filter to the film covering device to perform the film covering packaging, so that the parts of the filter can be assembled together automatically to improve the assembling efficiency of the filter.

[0015] In addition, the assembling device of the filter according to the above embodiment of the present application can also have the following additional technical features:

[0016] Optionally, the outer shell feeding assembly has a plurality of storage frames, a second mechanical hand, a first visual module, a first rotating platform and an outer shell feeding claw, each of the storage frames is internally provided with an outer shell, the first visual module is arranged above the plurality of storage frames to identify the positions of the outer shells in the storage frames, the second mechanical hand is adapted to move the to-be-assembled outer shell from the storage frame to the first rotating platform, the first rotating platform is adapted to rotate the outer shell to a required angle, and the outer shell feeding claw is arranged above the first rotating platform to feed the outer shell into the tooling on the first conveying line.

[0017] The inner shell feeding assembly has an inner shell discharging channel, an inner shell feeding claw, a first sealing ring discharging channel, a first sealing ring clamping claw and a positioning frame, the inner shell discharging channel is adapted to discharge the inner shell to the discharging port thereof, the positioning frame is provided with a positioning hole, the inner shell feeding claw is adapted to clamp the inner shell from the inner shell discharging channel and move the inner shell to the positioning hole or move the inner shell into the outer shell on the tooling, and the first sealing ring discharging channel is adapted to discharge the first sealing ring to the discharging port thereof, and the first sealing ring clamping claw is adapted to clamp the first sealing ring from the first sealing ring discharging channel and sleeve the first sealing ring on the inner shell in the positioning hole.

[0018] Optionally, the feeding assembly has a framework feeding claw and a rotating claw, the rotating claw is adapted to turn the framework with the scale inhibitor by 180°, and the framework feeding claw is adapted to clamp the turned framework from the rotating claw and feed the framework into the first to-be-assembled part.

[0019] The second assembly component comprises a positioning claw and a pressing mechanism arranged at the side of the first conveying line, the positioning claw is suitable for positioning the skeleton on the first to-be-assembled part in the center of the inner shell, and the pressing mechanism is suitable for pressing against the skeleton to press the skeleton on the first to-be-assembled part to form the second to-be-assembled part.

[0020] Optionally, the filter cover feeding assembly has a filter cover discharge channel, a second sealing ring discharge channel, a turnover clamp, a second rotary platform, a second sealing ring clamp and a second vision module, the filter cover discharge channel is suitable for discharging filter covers to its discharge port, the second rotary platform is arranged adjacent to the discharge port of the filter cover discharge channel to receive filter covers and rotate the filter covers to a required angle, the turnover clamp clamps the filter covers from the first rotary platform, the second sealing ring discharge channel is suitable for discharging second sealing rings to its discharge port, the second sealing ring clamp is suitable for sleeving second sealing rings from the second sealing ring discharge channel and sleeving the second sealing rings on the filter covers, the second vision module is suitable for detecting the assembly of the second sealing rings on the filter covers, and the turnover clamp is suitable for clamping the filter covers from the second rotary platform and turning over the filter covers between a first position and a second position, in the first position, the turnover clamp clamps the filter covers to assemble the second sealing rings with the second sealing ring clamp, and in the second position, the filter covers are detected by the second vision module.

[0021] The outer sealing ring assembly component has a third sealing ring discharge channel, a third sealing ring clamp and a detection module, the third sealing ring discharge channel discharges third sealing rings to its discharge port, the third sealing ring clamp is suitable for sleeving third sealing rings from the third sealing ring discharge channel and sleeving the third sealing rings on the filter cover of the third to-be-assembled part, and the detection module is suitable for detecting the assembly of the third sealing rings on the third to-be-assembled part.

[0022] Optionally, the feeding and discharging assembly further comprises a second feeding and discharging claw and a buffer platform, the second feeding and discharging claw is arranged at the side of the first conveying line, the second feeding and discharging claw is suitable for clamping the second to-be-assembled part from the tooling and moving the second to-be-assembled part to the buffer platform or moving the third to-be-assembled part on the buffer platform to the tooling on the second conveying line, and the first feeding claw is suitable for clamping the second to-be-assembled part from the buffer platform and feeding the second to-be-assembled part to the welding machine or discharging the welded third to-be-assembled part to the buffer platform.

[0023] Optionally, the outer cover feeding assembly comprises a second conveying line, a third rotating platform and an outer cover feeding jaw, the second conveying line is adapted to convey the outer cover, the third rotating platform is connected to the discharge port of the second conveying line to receive the outer cover, and the third rotating platform is adapted to rotate the outer cover to a required angle; the outer cover feeding jaw is arranged above the third rotating platform to transfer the outer cover to the third component to be assembled on the tooling.

[0024] The tightening assembly comprises a positioning mechanism, a tightening driving mechanism and a clamping member, the positioning mechanism is arranged at the side of the first conveying line to position the third component to be assembled on the tooling, the clamping member is arranged above the first conveying line to clamp the outer cover on the third component to be assembled after the third component to be assembled is positioned, and the tightening driving mechanism is connected to the clamping member to drive the clamping member to rotate so as to tighten the outer cover on the third component to be assembled.

[0025] Optionally, the gasket assembling device comprises a gasket discharge channel, a pressing column and a pressing column driving mechanism, the gasket discharge channel is adapted to discharge the gasket to the discharge port thereof, the pressing column is provided with suction holes, and the pressing column driving mechanism is connected to the pressing column to drive the pressing column to suction the gasket and transfer the gasket to be pressed into the nut on the filter of the tooling.

[0026] Optionally, the testing device comprises a plurality of air tightness testing toolings and a third conveying line, each of the air tightness testing toolings is adapted to perform air tightness test on one of the filters, and the discharge port of the third conveying line is connected to the encapsulating device to feed the filter to the encapsulating device, and the first mechanical arm is adapted to transfer the filter on the air tightness testing tooling to the third conveying line.

[0027] Further, each of the first sealing ring clamping jaw, the second sealing ring clamping jaw and the third sealing ring clamping jaw comprises a plurality of clamping fingers, a pushing ring and a pushing ring driving mechanism, the plurality of clamping fingers are adapted to sleeve the sealing ring, the pushing ring is annularly arranged at the periphery of the plurality of clamping fingers, the pushing ring is adapted to sleeve the sealing ring on the plurality of clamping fingers on the inner shell or the filter cover, and the pushing ring driving mechanism is connected to the pushing ring to drive the pushing ring to move up and down to push the sealing ring on the plurality of clamping fingers.

[0028] Optionally, the outer sealing ring assembling assembly is arranged in two along the conveying direction of the first conveying line. BRIEF DESCRIPTION OF DRAWINGS

[0029] Figure 1 It is a structural schematic view of the filter according to the embodiment of the present application.

[0030] Figure 2 It is an exploded schematic view of the filter according to the embodiment of the present application.

[0031] Figure 3 A top view of the assembling device for the filter according to the embodiment of the present application;

[0032] Figure 4 A structural schematic view of the inner and outer shell assembling device according to the embodiment of the present application;

[0033] Figure 5 A schematic view of the outer shell feeding claw and the first rotating platform according to the embodiment of the present application;

[0034] Figure 6 A schematic view of the inner shell feeding assembly according to the embodiment of the present application;

[0035] Figure 7 A structural schematic view of the sealing ring clamping claw according to the embodiment of the present application;

[0036] Figure 8 A schematic view of the filter core body assembling device according to the embodiment of the present application;

[0037] Figure 9 A schematic view of the filter core body assembling device according to the embodiment of the present application from another perspective;

[0038] Figure 10 A schematic view of the partial components of the filter core body assembling device according to the embodiment of the present application;

[0039] Figure 11 A structural schematic view of the filter core assembling device according to the embodiment of the present application;

[0040] Figure 12 A structural schematic view of the filter core assembling device according to the embodiment of the present application from another perspective;

[0041] Figure 13 A structural schematic view of the outer sealing ring assembling assembly and the angle calibration assembly according to the embodiment of the present application;

[0042] Figure 14 A structural schematic view of the assembling device for the outer cover and the filter core according to the embodiment of the present application;

[0043] Figure 15 A structural schematic view of the assembling device for the outer cover and the filter core according to the embodiment of the present application from another perspective;

[0044] Figure 16 A structural schematic view of the gasket assembling device according to the embodiment of the present application;

[0045] Figure 17 A structural schematic view of the testing device and the film coating device according to the embodiment of the present application;

[0046] Figure 18 is a local enlarged view of Figure 17

[0047] Label explanation

[0048] Filter 1, inner shell 11, outer shell 12, skeleton 13, filter core cover 14, outer cover 15, sealing ring 16, nut 17;

[0049] First conveying line 10, tooling 101;

[0050] Inner and outer shell assembly device 20, inner shell feeding assembly 201, inner shell discharging channel 2011, inner shell feeding claw 2012, first sealing ring discharging channel 2013, first sealing ring clamping jaw 2014, clamping finger 20141, push ring 20142, positioning frame 2015, outer shell feeding assembly 202, storage frame 2021, second mechanical hand 2022, first visual module 2023, first rotating platform 2024, placement plate 20241, rotating drive mechanism 20242, outer shell feeding claw 2025, second visual module 2026;

[0051] Filter core body assembly device 30, first assembly component 301, skeleton feeding part 3011, moving channel 3012, moving fork 3013, scale inhibitor feeding part 3014, feeding assembly 302, skeleton feeding claw 3021, rotating claw 3022, second assembly component 303, positioning claw 3031, pressing mechanism 3032;

[0052] Filter core assembly device 40, filter core cover feeding assembly 401, filter core cover discharging channel 4011, first sealing ring discharging channel 4012, overturning clamping jaw 4013, second sealing ring clamping jaw 4014, third visual module 4015, second rotating platform 4016, feeding and discharging assembly 402, filter core cover feeding claw 4021, first feeding and discharging claw 4022, second feeding and discharging claw 4023, buffer platform 4024, welding machine 403, outer sealing ring assembly component 404, angle calibration assembly 405;

[0053] Outer cover and filter core assembly device 50, outer cover feeding assembly 501, second conveying line 5011, third rotating platform 5012, outer cover feeding claw 5013, tightening assembly 502, positioning mechanism 5021, tightening drive mechanism 5022, clamping piece 5023;

[0054] First mechanical hand 60;

[0055] Testing device 70, air tightness testing tooling 701, third conveying line 702;

[0056] Film coating device 80, film coating assembly 801, heat shrinkage assembly 802;

[0057] ​Gasket assembly device 90, gasket discharge channel 901, pressure column 902, pressure column drive mechanism 903. Detailed Implementation

[0058] Embodiments of the present invention are described in detail below, examples of which are illustrated in the accompanying drawings, wherein the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the accompanying drawings are exemplary and intended to explain the present invention, and should not be construed as limiting the present invention.

[0059] To better understand the above technical solutions, exemplary embodiments of the present invention will be described in more detail below with reference to the accompanying drawings. Although exemplary embodiments of the present invention are shown in the drawings, it should be understood that the present invention can be implemented in various forms and should not be limited to the embodiments set forth herein. Rather, these embodiments are provided to enable a more thorough understanding of the present invention and to fully convey the scope of the invention to those skilled in the art.

[0060] To better understand the above technical solutions, the following will provide a detailed explanation of the technical solutions in conjunction with the accompanying drawings and specific implementation methods.

[0061] like Figures 1 to 18 As shown, an embodiment of the filter assembly equipment of the present invention can automatically assemble... Figure 1 and Figure 2 The inner shell 11, outer shell 12, skeleton 13 and scale inhibitor are assembled into the filter element body. The filter element body is welded to the filter element cover 14 to form the filter element. The outer shell of the filter element is then tightened to the outer cover 15 to form the filter 1. The filter 1 is then boxed after air tightness test and film packaging.

[0062] Combination Figure 3 The filter assembly equipment includes: a first conveyor line 10, an inner and outer shell assembly device 20 arranged sequentially along the conveying direction of the first conveyor line 10, a filter element body assembly device 30, a filter element assembly device 40, an outer cover and filter element assembly device 50, a first robotic arm 60, a testing device 70, and a coating device 80.

[0063] Specifically, the first conveying line 10 is provided with a tool 101 for transferring the to-be-assembled parts between devices; the inner and outer shell assembling device 20 comprises an inner shell feeding assembly 201 and an outer shell feeding assembly 202, the outer shell feeding assembly 202 is adapted to feed the outer shell 12 to the tool 101 after adjusting the outer shell 12 to a required angle, and the inner shell feeding assembly 201 is adapted to form a first to-be-assembled part by feeding the inner shell 11 into the outer shell 12 of the tool 101 after sleeving the first sealing ring 16 on the inner shell 11; the filter core body assembling device 30 comprises a first assembling assembly 301, a feeding assembly 302 and a second assembling assembly 303, the first assembling assembly 301 has a skeleton feeding part 3011, a transfer channel 3012, a moving fork 3013 and a scale inhibitor feeding part 3014, the top of the transfer channel 3012 is open, and the feeding inlet thereof is connected with the skeleton feeding part 3011 to receive the skeleton 13, the scale inhibitor feeding part 3014 is arranged at the side of the transfer channel 3012 to supply the scale inhibitor to the transfer channel 3012, and the moving fork 3013 is adapted to reciprocate along the conveying direction of the transfer channel 3012 to transfer the skeleton 13 from the feeding inlet to the position where the scale inhibitor feeding part 3014 is located to receive the scale inhibitor, the feeding assembly 302 is adapted to clamp the skeleton with the scale inhibitor and feed the skeleton into the first to-be-assembled part after turning the skeleton by 180°, and the second assembling assembly 303 is adapted to press the skeleton on the first to-be-assembled part to form a second to-be-assembled part; the filter core assembling device 40 comprises a filter core cover feeding assembly 401, a feeding and discharging assembly 402, a welding machine 403 and an outer sealing ring assembling assembly 404, the filter core cover feeding assembly 401 is adapted to arrange the filter core cover 14 to a required angle and arrange the second sealing ring 16 in the filter core cover 14; the feeding and discharging assembly 402 has a filter core cover feeding claw 4021 and a first feeding and discharging claw 4022, the filter core cover feeding claw 4021 is adapted to feed the filter core cover 14 with the second sealing ring 16 to the welding machine 403, and the first feeding and discharging claw 4022 is adapted to feed the second to-be-assembled part to the welding machine 403 or to discharge the welded third to-be-assembled part to the tool 101, the welding machine 403 is adapted to weld the filter core cover 14 and the second to-be-assembled part into a third to-be-assembled part, and the outer sealing ring assembling assembly 404 is adapted to sleeve the third sealing ring 16 on the filter core cover 14 of the third to-be-assembled part; the outer cover and filter core assembling device 50 comprises an outer cover feeding assembly 501 and a tightening assembly 502, the outer cover feeding assembly 501 is adapted to rotate the outer cover 15 to a required angle and transfer the outer cover 15 to the third to-be-assembled part on the tool 101, and the tightening assembly 502 is adapted to tighten the outer cover 15 and the third to-be-assembled part on the first conveying line 10 to form the filter 1; the first mechanical hand 60 grabs the filter 1 from the first conveying line 10 and transfers the filter 1 to the testing device 70 or transfers the filter 1 to the film coating device 80; the testing device 70 is adapted to perform air tightness test on the filter 1; and the film coating device 80 is adapted to perform film coating packaging on the filter 1.

[0064] Thus, the filter assembling device can move the to-be-assembled parts on the tooling 101 between the stations through the first conveying line 10, place the inner shell 11 with the sealing ring 16 in the outer shell 12 to form a first to-be-assembled part through the inner and outer shell assembling device 20, move the first to-be-assembled part to the filter core body assembling device 30 through the first conveying line 10, place the scale inhibitor in the framework 13 through the filter core body assembling device 30, then assemble the framework 13 on the first to-be-assembled part to form a second to-be-assembled part, move the second to-be-assembled part to the filter core assembling device 40 through the first conveying line 10, weld the inner sealing ring 16 of the filter core cover 14 to the second to-be-assembled part to form a third to-be-assembled part through the filter core assembling device 40, then assemble the outer sealing ring 16 on the filter core cover 14 of the third to-be-assembled part, move the third to-be-assembled part to the outer cover and filter core assembling device 50 through the first conveying line 10, assemble the outer cover 15 on the third to-be-assembled part through the outer cover and filter core assembling device 50 to form the filter 1, then move the filter 1 to the testing device 70 through the first mechanical arm 60 to perform the air tightness test, and move the filter 1 to the film coating device 80 to perform the film coating packaging, so that the parts of the filter 1 can be assembled together automatically to improve the filter assembling efficiency.

[0065] In combination Figures 4-7 For the inner and outer shell assembling device 20, the outer shell feeding assembly 202 has a plurality of storage frames 2021, a second mechanical arm 2022, a first vision module 2023, a first rotating platform 2024, and an outer shell feeding claw 2025, each storage frame 2021 is provided with the outer shell 12, the first vision module 2023 is arranged above the plurality of storage frames 2021 to identify the position of the outer shell in each storage frame 2021, the second mechanical arm 2022 is suitable for moving the to-be-assembled outer shell 12 from the storage frame 2021 to the first rotating platform 2024, the first rotating platform 2024 is suitable for rotating the outer shell 12 to the required angle, and the outer shell feeding claw 2025 is arranged above the first rotating platform 2024 to feed the outer shell 12 to the tooling 101; the inner shell feeding assembly 201 has an inner shell discharging channel 2011 and an inner shell feeding claw 2012, the inner shell discharging channel 2011 is suitable for discharging the inner shell 11 to the discharging port thereof, and the inner shell feeding claw 2012 is suitable for moving the inner shell 11 to the outer shell on the tooling 101.

[0066] That is, the conveying line 10 is provided with a tool 101 to move the shell 12, and the shell 12 placed on the tool 101 can be positioned and conveyed between stations to facilitate the assembly of the inner shell; the shell feeding assembly 202 has a plurality of storage frames 2021 for assembling a plurality of same or different shells, and through the cooperation of the second mechanical hand 2022 and the first vision module 2023, the shells on the storage frame 2021 can be accurately grabbed and moved to the first rotating platform 2024, the first rotating platform 2024 rotates the shell to the correct posture, and then the shell feeding jaw 2025 grabs and moves the shell to the tool 101 on the conveying line 10 for positioning; the inner shell feeding jaw 2012 of the inner shell feeding assembly 201 can grab the inner shell on the inner shell discharge channel 2011 and move it to the shell on the tool 101.

[0067] Therefore, the tool 101 on the conveying line 10 can move the shell to each station; the second mechanical hand 2022 on the shell feeding assembly 202 cooperates with the first vision module 2023 to accurately grab the shell on the storage frame 2021 and place it on the first rotating platform 2024; the first rotating platform 2024 rotates the shell to the correct posture and then the shell feeding jaw 2025 grabs and places the shell on the tool 101 on the conveying line 10; the inner shell feeding jaw 2012 on the inner shell feeding assembly 201 can grab the inner shell on the inner shell discharge channel 2011 and move it to the shell on the tool 101, thereby completing the assembly of the inner and outer shells; the inner and outer shell assembly device of the filter has a simple structure, is easy to assemble, and is suitable for the assembly of various inner and outer shells, and has strong versatility.

[0068] More specifically, the inner shell feeding assembly 201 also has a first sealing ring discharge channel 2013, a first sealing ring clamping jaw 2014, and a positioning frame 2015; the positioning frame 2015 is provided with a positioning hole, the inner shell feeding jaw 2012 is adapted to clamp and move the inner shell on the inner shell discharge channel 2011 to the positioning hole, the first sealing ring discharge channel 2013 is adapted to discharge the sealing ring to its discharge port, and the first sealing ring clamping jaw 2014 is adapted to take the sealing ring from the first sealing ring discharge channel 2013 and fit it on the inner shell in the positioning hole.

[0069] As can be understood, the inner shell feeding jaw 2012 grabs and places the inner shell on the inner shell discharge channel 2011 in the positioning hole, and then the first sealing ring discharge channel 2013 can discharge the sealing ring to the discharge port, and the first sealing ring clamping jaw 2014 can take the sealing ring from the discharge port and move it to fit on the inner shell in the positioning hole, thereby completing the installation of the sealing ring and the inner shell.

[0070] Wherein for the feeding mode of the sealing ring, a vibration feeding cooperating with a limiting block structure can be adopted, the limiting block can be arc-shaped matching the profile of the sealing ring, and the sealing ring is vibrated and transferred to the limiting block by vibration feeding, so as to be grabbed by the loading claw 2012 on the inner shell.

[0071] For the first sealing ring clamp jaw 2014, the first sealing ring clamp jaw 2014 comprises a plurality of clamp fingers 20141 adapted to sleeve the sealing ring, a push ring 20142 annularly arranged on the periphery of the plurality of clamp fingers 20141 and adapted to sleeve the sealing ring on the inner shell on the positioning hole, and a lifting driving mechanism connected to the push ring 20142 to drive the push ring 20142 to move up and down to push the sealing ring on the plurality of clamp fingers 20141.

[0072] Understandably, the plurality of clamp fingers 20141 of the first sealing ring clamp jaw 2014 can sleeve the sealing ring on the first sealing ring outfeed channel 2013, and the push ring 20142 is driven to move up and down by the lifting driving mechanism, so as to facilitate the push of the sealing ring on the clamp fingers 20141 into the sleeve sealing ring position on the inner shell.

[0073] For the push ring 20142, the push ring 20142 is provided with a give-way slot for the opening of the plurality of clamp fingers 20141.

[0074] Understandably, in order to facilitate the sleeve of the sealing ring into the periphery of the inner shell, the clamp fingers 20141 need to sleeve the sealing ring and stretch it outward so that the diameter of the annular ring of the sealing ring is greater than the diameter of the circular body of the inner shell. The give-way slot provided on the push ring 20142 allows the clamp fingers 20141 to move in the give-way slot, so as to facilitate the sleeve of the sealing ring by the clamp fingers 20141 after stretching and the push of the sealing ring from the clamp fingers 20141 to the sleeve sealing ring position on the inner shell by the push ring 20142; wherein the number of give-way slots can be consistent with the number of clamp fingers 20141.

[0075] For the clamp fingers 20141, the clamp fingers 20141 can be driven to open and close by a gas cylinder, the distal end of the clamp fingers 20141 can be provided with an inclined surface to facilitate the smooth sliding of the sealing ring to the sleeve sealing ring position on the inner shell during the push of the sealing ring by the push ring 20142, and the number of the clamp fingers 20141 can be four.

[0076] For the lifting driving mechanism, the lifting driving mechanism can be a gas cylinder driving slide rod structure, and the push ring 20142 is driven to move up and down by the lifting driving mechanism, so as to facilitate the push of the sealing ring on the clamp fingers 20141 to the sleeve sealing ring position on the inner shell.

[0077] In addition, the first sealing ring clamp jaw 2014 is arranged at the moving end of the lifting driving mechanism, and the lifting driving mechanism is arranged at the moving end of the moving driving mechanism.

[0078] For the lifting driving mechanism, the lifting driving mechanism can be a cylinder driving moving pair structure, through which the first sealing ring clamp jaw 2014 can be driven to approach or move away from the positioning hole or the limiting block of the first sealing ring discharge channel 2013, so as to facilitate the sealing ring to be sleeved into the sleeve sealing ring position of the inner shell on the positioning hole after being grabbed from the limiting block.

[0079] For the moving driving mechanism, the moving driving mechanism can be a cylinder driving moving pair structure, through which the first sealing ring clamp jaw 2014 can be driven to move between the discharge port of the first sealing ring discharge channel 2013 and the positioning hole, so as to facilitate the sealing ring to be sleeved into the sleeve sealing ring position of the inner shell on the positioning hole after being grabbed from the limiting block.

[0080] For the positional relationship of the inner shell discharge channel 2011, the first sealing ring discharge channel 2013 and the positioning frame 2015, the inner shell discharge channel 2011 and the first sealing ring discharge channel 2013 are perpendicular to each other, and the positioning frame 2015 is arranged at the vertical angle of the inner shell discharge channel 2011 and the first sealing ring discharge channel 2013.

[0081] It can be understood that, by arranging the positioning frame 2015 at the vertical angle of the inner shell discharge channel 2011 and the first sealing ring discharge channel 2013, the distance between the positioning frame 2015 and the discharge ports of the inner shell discharge channel 2011 and the first sealing ring discharge channel 2013 is greatly shortened, so as to improve the installation efficiency of the sealing ring.

[0082] For the feeding mode of the inner shell, the inner shell feeding can be a lifting machine cooperating with a conveying straight vibration, through which the inner shell can be moved to the inner shell discharge channel 2011, and the inner shell can be moved to the discharge port through the vibration of the inner shell discharge channel 2011, so as to be grabbed by the inner shell feeding jaw 2012.

[0083] For the first rotating platform 2024, the first rotating platform 2024 has a placement plate 20241 and a rotating driving mechanism 20242 connected to the placement plate 20241 to drive the placement plate 20241 to rotate an angle.

[0084] For the placement plate 20241, the placement plate 20241 can be arranged as a circular plate with a diameter greater than the diameter of the outer shell, through which the outer shell on the placement plate 20241 can be rotated to the correct angle in cooperation with the rotating driving mechanism 20242, so as to be placed into the tooling 101 in the correct posture after being grabbed by the outer shell feeding jaw 2025.

[0085] For the rotating driving mechanism 20242, the rotating driving mechanism 20242 can be a motor-driven synchronous belt transmission structure. The rotating driving mechanism 20242 can drive the placing plate 20241 to rotate, so as to rotate the shell on the placing plate 20241 to the correct angle, and facilitate the shell to be placed into the tooling 101 in the correct posture after being grabbed by the shell feeding claw 2025.

[0086] The first rotating platform 2024 is provided with a second vision module 2026 above the first rotating platform 2024. The second vision module 2026 is adapted to identify the angle of the shell on the first rotating platform 2024.

[0087] It can be understood that the angle of the shell on the first rotating platform 2024 can be detected by the second vision module 2026, and the rotating driving mechanism 20242 is controlled to drive the placing plate 20241 to rotate to the correct angle, so as to facilitate the shell to be placed into the tooling 101 in the correct posture after being grabbed by the shell feeding claw 2025.

[0088] The first vision module 2023 and the second vision module 2026 can be cameras, and the cameras work with the PLC on the equipment.

[0089] For the shell feeding claw 2025 and the inner shell feeding claw 2012, the shell feeding claw 2025 and the inner shell feeding claw 2012 each include an air clamp, a lifting driving mechanism, a moving driving mechanism, and a lifting driving piece.

[0090] Specifically, the air clamp is arranged on the moving end of the lifting driving mechanism, the lifting driving mechanism is arranged on the moving end of the moving driving mechanism, and the moving driving mechanism is arranged on the moving end of the lifting driving piece.

[0091] The shell feeding claw 2025 and the inner shell feeding claw 2012 have the same structure and working principle. The shell feeding claw 2025 is described below:

[0092] For the air clamp, the air clamp is matched with the lifting driving mechanism, the moving driving mechanism and the lifting driving member of the loading claw 2025 on the shell to grab the shell on the placing plate 20241 and then move it to the tool 101; wherein the air clamp can be a clamp jaw air cylinder matched with a clamp jaw structure, and the clamp jaw can be arranged in an arc shape to match the shell contour, so as to firmly grab the shell. For the lifting driving mechanism, the lifting driving mechanism can be a cylinder structure, which can drive the air clamp to move up and down, and cooperate with the moving driving mechanism and the lifting driving member to move the shell on the placing plate 20241 to the tool 101. For the moving driving mechanism, the moving driving mechanism can be a cylinder structure, which can drive the lifting driving mechanism and the air clamp to move up and down, and cooperate with the lifting driving member to move the shell on the placing plate 20241 to the tool 101. For the lifting driving member, the lifting driving member can be a motor-driven sliding module structure, which drives the air clamp to move up and down, the lifting driving mechanism and the moving driving mechanism to move up and down as a whole, so as to move the shell on the placing plate 20241 to the tool 101 after grabbing.

[0093] In the conveying line 10, for the tool 101, the tool 101 is arranged at intervals on the conveying belt of the conveying line 10, and the tool 101 can be arranged in a circular ring structure with a positioning groove, so that the shell can be fixed and the posture of the shell can be limited by the tool 101, so as to facilitate the subsequent placement of the inner shell.

[0094] In combination Figures 8-10 For the filter element body assembly device 30, the loading assembly 302 has a skeleton loading claw 3021 and a rotating claw 3022, the rotating claw 3022 is suitable for turning the skeleton loaded with scale inhibitor by 180°, and the skeleton loading claw 3021 is suitable for clamping the turned skeleton from the rotating claw 3022 and loading the skeleton into the inner shell of the first to-be-assembled part on the tool 101; the second assembly component 303 includes a positioning claw 3031 and a pressing mechanism 3032 arranged on the side of the first conveying line 10, the positioning claw 3031 is suitable for positioning the skeleton on the inner shell at the center of the inner shell, and the pressing mechanism 3032 is suitable for pressing against the skeleton to press the skeleton tightly on the first to-be-assembled part to form the second to-be-assembled part.

[0095] That is, the first conveying line 10 can convey the first to-be-assembled part of the outer shell and the inner shell on the tooling 101 to each assembly station; the skeleton feeding part 3011 of the first assembly component 301 can send the skeleton to the transfer channel 3012, and cooperate with the reciprocating movement of the moving fork 3013 to transfer the skeleton in the transfer channel 3012 to the position where the scale inhibitor feeding part 3014 is located, so as to facilitate the reception of the scale inhibitor; the rotating claw 3022 of the feeding assembly 302 can turn the skeleton containing the scale inhibitor by 180° and feed the turned skeleton to the inner shell of the first to-be-assembled part on the tooling 101 through the skeleton feeding claw 3021; the positioning claw 3031 of the second assembly component 303 positions the skeleton on the inner shell at the center of the inner shell and cooperates with the pressing mechanism 3032 to press the skeleton on the first to-be-assembled part.

[0096] Therefore, the first to-be-assembled part with the installed inner shell and outer shell is conveyed between each station on the first conveying line 10; the skeleton is transferred to the transfer channel 3012 by the skeleton feeding part 3011 in the first assembly component 301, and the skeleton on the transfer channel 3012 is transferred to the position where the scale inhibitor feeding part 3014 is located by the moving fork 3013; the skeleton containing the scale inhibitor is turned by 180° and installed in the inner shell of the first to-be-assembled part on the tooling 101 by the cooperation of the skeleton feeding claw 3021 and the rotating claw 3022 of the feeding assembly 302; the skeleton on the inner shell is positioned at the center of the inner shell and pressed on the first to-be-assembled part by the cooperation of the positioning claw 3031 and the pressing mechanism 3032 of the second assembly component 303; thereby the skeleton, the scale inhibitor, the outer shell and the inner shell of the filter are automatically assembled into the filter core body, the assembly efficiency of the filter is improved, and the quality of the product is ensured.

[0097] For the positional relationship of the pressing mechanism 3032, the positioning claw 3031 and the first conveying line 10, the pressing mechanism 3032 and the positioning claw 3031 are symmetrically arranged on both sides of the first conveying line 10. It can be understood that the pressing mechanism 3032 and the positioning claw 3031 are symmetrically arranged on both sides of the first conveying line 10, so that the pressing mechanism 3032 and the positioning claw 3031 can act separately to improve the action rhythm of the pressing mechanism 3032 and the positioning claw 3031, thereby improving the efficiency.

[0098] For the pressing mechanism 3032, the pressing mechanism comprises a pressing rod and a lifting driving mechanism. Specifically, the lifting driving mechanism is connected to the pressing rod to drive the pressing rod to lift and press the framework against the first component to be assembled. For the lifting driving mechanism, the lifting driving mechanism can be a cylinder structure, through which the pressing rod can be driven to lift and press the framework against the first component to be assembled. For the pressing rod, the pressing rod can be provided in a cylindrical shape, through which the framework can be pressed against the first component to be assembled to complete the installation of the framework and the scale inhibitor in the shell. For the framework feeding part 3011, the framework feeding part 3011 comprises a vibrating conveying mechanism and a material taking claw. Specifically, the material taking claw is arranged at the discharge port of the vibrating conveying mechanism to grab and transfer the framework to the transfer channel 3012. For the vibrating conveying mechanism, the vibrating conveying mechanism can be a lifting machine, a vibrating disc and a limiting block structure, through which the framework in the vibrating disc can be automatically supplemented and sent to the limiting block, so as to reduce the frequency of manual feeding and improve the continuous working capacity of the equipment.

[0099] For the scale inhibitor feeding part 3014, the scale inhibitor feeding part 3014 comprises a vibrating conveying mechanism and a material taking claw. Specifically, the material taking claw is arranged at the discharge port of the vibrating conveying mechanism to grab and transfer the scale inhibitor into the framework on the moving fork 3013 or grab and transfer the framework with the scale inhibitor to the rotating claw 3022.

[0100] It can be understood that the scale inhibitor on the discharge port of the vibrating conveying mechanism can be grabbed and transferred into the framework on the moving fork 3013 by the material taking claw, and then the framework with the scale inhibitor installed can be grabbed and transferred to the rotating claw 3022 by the material taking claw.

[0101] Wherein, the structure and working principle of the material taking claw are consistent with those of the material taking claw described above, and will not be described in detail here; the vibrating conveying mechanism can adopt the existing vibrating disc combined with a direct vibrating conveying channel structure.

[0102] For the position of the rotating claw 3022, the rotating claw 3022 is arranged between the material taking claw and the framework feeding claw 3021, and the clamping opening of the rotating claw 3022 is adapted to align with the framework on the material taking claw.

[0103] It can be understood that by arranging the rotating claw 3022 between the material taking claw and the framework feeding claw 3021, the framework with the scale inhibitor installed on the material taking claw can be rotated by 180° and quickly transferred to the framework feeding claw 3021, so that the framework with the scale inhibitor installed can be installed in the inner shell of the first component to be assembled on the tooling 101 in the correct posture.

[0104] For the rotating claw 3022, the rotating claw 3022 can be a rotating cylinder cooperation clamping claw structure. For the skeleton loading claw 3021, the structure and working principle of the skeleton loading claw 3021 are consistent with those of the taking claw, and will not be described in detail here.

[0105] For the moving fork 3013, the moving fork 3013 can be composed of a fork plate and two moving drive mechanisms; the fork plate has a plurality of spaced and arranged notches, each notch being adapted to clamp the skeleton.

[0106] It can be understood that the plurality of spaced and arranged notches can clamp the skeleton on the moving channel 3012 and then move it to the position where the scale inhibitor supply part 3014 is located, so as to facilitate the installation of the scale inhibitor; wherein the notches can be arranged to match the shape of the outer contour of the skeleton, and the number of notches can be three. It can be understood that, by cooperating the fork plate with the moving drive mechanism, the fork plate can be close to or away from the skeleton on the moving channel 3012, so as to realize the conversion between the clamping position and the avoiding position; by cooperating the fork plate with the moving drive mechanism, the fork plate can move between the inlet and the outlet of the moving channel 3012, so as to gradually move the skeleton to the position where the scale inhibitor supply part 3014 is located, so as to facilitate the installation of the scale inhibitor; wherein the moving drive mechanism and the moving drive mechanism can be a cylinder driven moving pair structure, and the moving stroke of the moving drive mechanism can match the pitch of the notches, so as to ensure that the skeleton can be accurately clamped when repeating the action.

[0107] In combination Figures 11-13 For the filter core assembly device 40, the filter core cover supply assembly 401 has a filter core cover discharge channel 4011, a first sealing ring discharge channel 4012, a turnover clamp jaw 4013, a second sealing ring clamp jaw 4014, and a third visual module 4015, the filter core cover discharge channel 4011 is adapted to discharge the filter core cover to its discharge outlet, the first sealing ring discharge channel 4012 is adapted to discharge the first sealing ring (inner sealing ring) to its discharge outlet, the second sealing ring clamp jaw 4014 is adapted to take the inner sealing ring from the first sealing ring discharge channel 4012 and wrap the inner sealing ring on the filter core cover, the second visual module 4015 is adapted to detect the assembly of the inner sealing ring on the filter core cover, the turnover clamp jaw 4013 is adapted to clamp the filter core cover and make the filter core cover turn over between a first position and a second position, in the first position, the turnover clamp jaw 4013 clamps the filter core cover to assemble the inner sealing ring with the second sealing ring clamp jaw 4014, in the second position, the filter core cover is detected by the second visual module 4015.

[0108] Further, a second rotating platform 4016 is also included, which is arranged near the discharge outlet of the filter core cover discharge channel 4011 to receive the filter core cover and rotate the filter core cover to the required angle, and the turnover clamp jaw 4013 clamps the filter core cover from the second rotating platform 4016.

[0109] The upper and lower feeding assembly 402 further comprises a filter cover taking gripper which takes the filter cover from the turnover gripper 4013 and delivers the filter cover to the filter cover feeding gripper 4021. It can be understood that the filter cover on the turnover gripper 4013 is turned over by the filter cover taking gripper and delivered to the filter cover feeding gripper 4021, facilitating subsequent welding.

[0110] For the filter cover taking gripper, the structure of the filter cover taking gripper is the same as the above, and will not be described in detail here.

[0111] In addition, the upper and lower feeding assembly 402 further comprises a second upper and lower feeding gripper 4023 and a buffer platform 4024.

[0112] Specifically, the second upper and lower feeding gripper 4023 is arranged at the side of the first conveying line 10, and is adapted to take the filter core body from the tooling 101 on the first conveying line 10 and deliver the filter core body to the buffer platform 4024 or deliver the filter core on the buffer platform 4024 to the tooling 101 on the first conveying line 10. The first upper and lower feeding gripper 4022 is adapted to take the filter core body from the buffer platform 4024 and feed the filter core body to the welding machine 403 or deliver the welded filter core to the buffer platform 4024.

[0113] It can be understood that the filter core body on the tooling 101 on the first conveying line 10 is taken by the second upper and lower feeding gripper 4023 and delivered to the buffer platform 4024, facilitating the first upper and lower feeding gripper 4022 to take the filter core body from the buffer platform 4024 and feed the filter core body to the welding machine 403 for welding, and then the first upper and lower feeding gripper 4022 to take the welded filter core and place it back on the buffer platform 4024, and finally the second upper and lower feeding gripper 4023 to take the welded filter core on the buffer platform 4024 and place it on the tooling 101.

[0114] For the second upper and lower feeding gripper 4023, the structure and working principle of the second upper and lower feeding gripper 4023 are the same as those of the filter cover taking gripper, and will not be described in detail here.

[0115] For the filter cover feeding gripper 4021, the filter cover feeding gripper 4021 comprises a first long plate, a rotary driving mechanism, a taking member and a lifting driving mechanism. Specifically, the taking member is arranged at one end of the first long plate, the rotary driving mechanism is connected to the other end of the first long plate to drive the taking member to rotate between the taking position and the welding machine 403, and the rotary driving mechanism is arranged at the moving end of the lifting driving mechanism.

[0116] The taking member can be provided as a cylinder with a guide, and the rotary driving mechanism and the lifting driving mechanism can be a gas cylinder structure.

[0117] For the first upper and lower feeding claw 4022, the first upper and lower feeding claw 4022 comprises a second long plate, a rotary driving mechanism and a material taking part. Specifically, the material taking part is arranged at both ends of the second long plate, and the rotary driving mechanism is connected to the middle position of the second long plate to drive the material taking part to rotate between the material taking position and the welding machine 403.

[0118] Wherein, the welding machine 403 can adopt the ultrasonic welding machine of the prior art, which will not be described in detail here.

[0119] In addition, the filter assembly device 40 further comprises an angle calibration assembly 405 arranged at the side of the first conveying line 10.

[0120] Specifically, the angle calibration assembly 405 comprises a material taking claw and a rotary platform, the material taking claw is suitable for moving the filter on the tooling 101 of the first conveying line 10 to the rotary platform, and the rotary platform is suitable for rotating the filter to the required angle.

[0121] It can be understood that in order to meet the subsequent assembly requirements, it is necessary to adjust the filter to the correct angle, so that the filter on the tooling 101 of the first conveying line 10 can be moved to the rotary platform by the cooperation of the material taking claw and the rotary platform, and the filter can be adjusted to the correct angle by the rotary platform, and then the filter is grabbed by the material taking claw and placed on the tooling 101 of the first conveying line 10.

[0122] For the material taking claw, the structure and working principle of the material taking claw are the same as those of the material taking claw, which will not be described in detail here.

[0123] For the rotary platform, its structure is the same as that of the above-mentioned rotary platform, which will not be described in detail here.

[0124] The two outer sealing ring assembly assemblies 404 are arranged in sequence along the conveying direction of the first conveying line 10. It can be understood that the two outer sealing ring assembly assemblies 404 can be used to install outer sealing rings of different specifications on the filter cover of the filter on the tooling 101 in sequence.

[0125] The structure and working principle of the second sealing ring clamp 4014 and the third sealing ring clamp 4042 are the same as those of the first sealing ring clamp, which will not be described in detail here.

[0126] In combination with Figure 14 And Figure 15For the outer cover and filter assembly device 50, the outer cover feeding assembly 501 includes a second conveying line 5011, a third rotating platform 5012 and an outer cover feeding jaw 5013, the second conveying line 5011 is suitable for conveying the outer cover, the third rotating platform 5012 is connected to the discharge port of the second conveying line 5011 to receive the outer cover, and the third rotating platform 5012 is suitable for rotating the outer cover to the required angle; the outer cover feeding jaw 5013 is arranged above the third rotating platform 5012 to transfer the outer cover to the third assembly part on the tooling 101; the tightening assembly 502 has a positioning mechanism 5021, a tightening driving mechanism 5022 and a clamping part 5023, the positioning mechanism 5022 is arranged on the side of the first conveying line 10 to position the third assembly part on the tooling 101, the clamping part 5023 is arranged above the first conveying line 10 to clamp the outer cover on the third assembly part after the third assembly part is positioned, and the tightening driving mechanism 5022 is connected to the clamping part 5023 to drive the clamping part 5023 to rotate and tighten the outer cover on the third assembly part.

[0127] That is, the filter cartridge (the third assembly part) on the tooling 101 on the first conveying line 10 can be conveyed to each assembly station; the third rotating platform 5012 can receive the outer cover on the second conveying line 5011 and rotate it to the correct angle; the outer cover feeding jaw 5013 can grasp the outer cover on the third rotating platform 5012 and transfer it to the filter cartridge on the tooling 101; the positioning mechanism 5021 in the tightening assembly 502 can position the filter cartridge on the tooling 101, the clamping part 5023 can clamp the outer cover on the filter cartridge, and the tightening driving mechanism 5022 can tighten the outer cover on the filter cartridge.

[0128] Therefore, the outer cover can be fed on the second conveying line 5011, the second conveying line 5011 can buffer the outer cover, the third rotating platform 5012 can correct the angle of the outer cover, the outer cover feeding jaw 5013 can place the outer cover on the shell of the filter cartridge, the first rotating mechanism of the tightening assembly 502 and the clamping part 5023 can tighten the outer cover on the filter cartridge, and thus the outer cover and the shell of the filter cartridge can be automatically assembled into a filter on the main line to improve the assembly efficiency of the filter.

[0129] For the third rotating platform 5012, the third rotating platform 5012 has a placement plate and a rotating driving mechanism. Specifically, the placement plate is connected to the discharge port of the second conveying line 5011, and the rotating driving mechanism is connected to the placement plate to drive the placement plate to rotate by an angle.

[0130] Understandably, the placement plate can receive the outer cover on the second conveying line 5011 to the placement plate by connecting to the discharge port of the second conveying line 5011, and the rotating driving mechanism can drive the placement plate to rotate, so that the outer cover is adjusted to the correct angle, facilitating the subsequent installation and tightening of the outer cover.

[0131] The placing plate can be a circular block, and the rotating driving mechanism can be a motor.

[0132] The third visual module 503 is arranged above the third rotating platform 5012 and is adapted to identify the angle of the outer cover on the third rotating platform 5012.

[0133] It can be understood that the angle of the outer cover on the third rotating platform 5012 can be detected by the third visual module 503, so as to control the rotating driving mechanism to drive the outer cover on the placing plate to rotate to the correct angle, facilitating the subsequent installation and tightening of the outer cover.

[0134] The discharge port of the second conveying line 5011 is provided with a movable baffle to limit the discharge of the outer cover.

[0135] It can be understood that the movable baffle can block the outer cover conveyed on the second conveying line 5011 at the discharge port, facilitating the grasping and transferring of the outer cover to the third rotating platform 5012.

[0136] The movable baffle can be a cylinder and block structure, and the number of movable baffles can be two, facilitating the separation of the outer cover one by one, so as to facilitate the transfer of the single outer cover to the third rotating platform 5012.

[0137] As shown in Figure 2 For the outer cover loading claw 5013, the structure of the outer cover loading claw 5013 is consistent with the above-mentioned loading claw, and will not be described in detail here.

[0138] For the positioning mechanism 5021, the positioning mechanism 5021 includes a first moving plate and a second moving plate arranged one-to-one on both sides of the first conveying line 10, and the first moving plate and the second moving plate are oppositely arranged and movable between positions close to or away from each other. The positioning mechanism 5021 can be a cylinder and positioning claw structure.

[0139] For the clamping piece 5023, the clamping piece 5023 includes a cylinder and two symmetrically arranged clamping plates, and the two clamping plates are connected to the cylinder to drive the two clamping plates to open and close through the cylinder. The cylinder is connected to the tightening driving mechanism 5022.

[0140] It can be understood that the outer cover can be clamped by the clamping plates on the clamping piece 5023, and the outer cover clamped by the clamping piece 5023 can be driven to rotate by cooperating with the tightening driving mechanism 5022, facilitating the rotation and tightening of the outer cover.

[0141] The clamping plates can be arranged in a shape matching the outer contour of the outer cover, facilitating firm clamping of the outer cover.

[0142] For the tightening assembly 502, the tightening assembly 502 further comprises a lifting driving mechanism, and the tightening driving mechanism 5022 is arranged on the moving end of the lifting driving mechanism to make the clamping piece 5023 arranged in a lifting manner. The lifting driving mechanism can be a motor-driven sliding module structure.

[0143] In addition, the tightening assembly 502 further comprises a fourth vision module 504, and the fourth vision module 504 is adapted to detect whether the outer cover and the filter element are tightened in place. It can be understood that whether the outer cover and the filter element are tightened in place can be detected by the fourth vision module 504, so as to ensure the reliability of the cooperation between the outer cover and the filter element.

[0144] Further, the gasket assembling device 90 is further included, and the gasket assembling device 90 comprises a gasket discharging channel 901, a pressing column 902 and a pressing column driving mechanism 903. The gasket discharging channel 901 is adapted to discharge the gasket to the discharging port thereof. The pressing column 902 is provided with a suction hole, and the pressing column driving mechanism 903 is connected with the pressing column 902 to drive the pressing column 902 to suck and move the gasket and press the gasket into the nut 17 on the filter 1 of the tooling. Thus, the sealing property of the filter 1 can be ensured. The pressing column driving mechanism 903 can be a moving pair structure driven by a lifting cylinder, a moving cylinder or the like. The gasket discharging channel 901 can be a structure of a vibrating disc cooperating with a positioning table.

[0145] Further, the testing device 70 comprises a plurality of air tightness testing toolings 701 and a third conveying line 702. Each air tightness testing tooling 701 is adapted to perform air tightness testing on one filter 1. The discharging port of the third conveying line 702 is connected to the film coating device 80 to feed the filter 1 to the film coating device 80. The first mechanical arm 60 is adapted to move the filter 1 on the air tightness testing tooling 701 to the third conveying line 702. The air tightness testing tooling 701 is adapted to detect the air tightness in the nut 17 of the filter 1.

[0146] For the film coating device 80, the film coating device 80 can comprise a film covering assembly 801 and a heat shrinkage assembly 802, and the film coating device 80 is used to coat the film on the surface of the filter 1. The film coating device 80 adopts the structure of the prior art, which will not be described in detail here.

[0147] In addition, a third mechanical arm can be arranged at the outlet of the film coating device 80. The third mechanical arm packs the filter after film coating into a box and sends out.

[0148] In order to better understand the present embodiment, the working process of the present embodiment is further described:

[0149] In the inner and outer shell assembling device 20: ① the second mechanical hand 2022 cooperates with the first vision module 2023 to place the outer shell in the material frame on the first rotating platform 2024 after grabbing; ② the first rotating platform 2024 cooperates with the second vision module 2026 to rotate the outer shell on the placement plate 20241 to the correct angle; ③ the outer shell feeding claw 2025 moves the outer shell on the placement plate 20241 to the work tool 101 on the conveying line 10 after grabbing and transports the shell to the next station; ④ the inner shell feeding claw 2012 places the inner shell on the positioning hole after grabbing the inner shell on the inner shell discharge channel 2011; ⑤ the first sealing ring clamp jaw 2014 expands and sleeves into the inner shell on the positioning hole after sleeving the sealing ring on the limiting block, and the lifting driving mechanism drives the push ring 20142 to push the sealing ring to fall on the sleeve sealing ring position of the inner shell; ⑥ the inner shell feeding claw 2012 places the inner shell with the sleeved sealing ring into the outer shell on the work tool 101.

[0150] In the filter element body assembling device 30: ① the material taking claw cooperates with the lifting driving mechanism and the moving driving mechanism to grab the skeleton on the limiting block and move it to the moving channel 3012; ② the moving fork 3013 cooperates with the moving driving mechanism to move the skeleton on the moving channel 3012 to the position where the scale inhibitor feeding part 3014 is located; ③ the material taking claw grabs the scale inhibitor on the discharge port of the vibrating conveying mechanism and places it in the skeleton on the moving fork 3013; ④ the material taking claw moves the skeleton with the installed scale inhibitor to the rotating claw 3022 after grabbing; ⑤ the rotating claw 3022 moves the skeleton with the installed scale inhibitor to the skeleton feeding claw 3021 after rotating it by 180°; ⑥ the skeleton feeding claw 3021 moves the skeleton with the installed scale inhibitor to the inner shell of the first to-be-assembled part on the work tool 101 after grabbing; ⑦ the positioning claw 3031 positions the skeleton on the inner shell at the center of the inner shell, and the pressing mechanism 3032 presses the skeleton to be tightly pressed on the first to-be-assembled part.

[0151] In the filter core assembling device 40: ① the first conveying line 10 places the filter core body on the tool 101 to the filter core cover feeding assembly 401 position; ② the transplanting assembly places the filter core cover on the second rotating platform 4016 after grabbing and adjusts the angle, and then moves the filter core cover to the turnover clamp jaw 4013 through the transplanting assembly; ④ the second sealing ring clamp jaw 4014 takes the inner sealing ring from the second sealing ring discharge channel 4012 and wraps the inner sealing ring on the filter core cover clamped by the turnover clamp jaw 4013, and then turns the filter core cover with the assembled inner sealing ring to the second visual module 4015 work station for detection through the turnover clamp jaw 4013; ⑤ the second feeding and discharging jaw 4023 places the filter core body on the buffer platform 4024 after clamping the filter core body on the first conveying line 10; ⑥ the filter core cover feeding jaw 4021 and the first feeding and discharging jaw 4022 can respectively feed the filter core cover with the inner sealing ring on the turnover clamp jaw 4013 and the filter core body on the buffer platform 4024 to the welding machine 403, and weld the filter core cover and the filter core body through the welding machine 403; ⑦ the first feeding and discharging jaw 4022 moves the welded filter core from the welding station to the buffer platform 4024, and the second feeding and discharging jaw 4023 places the welded filter core on the tool 101 on the first conveying line 10; ⑧ the feeding jaw places the filter core on the tool 101 after grabbing, places it on the rotating platform after adjusting the angle, and then places it on the tool 101; ⑨ the outer sealing ring assembling assembly 404 installs the sealing ring on the filter core cover of the filter core on the tool 101, and detects through the detection module.

[0152] In the outer cover and filter core assembling device 50: ① the outer cover is placed on the second conveying line 5011 by manual or mechanical hand and conveyed to the position where the movable baffle is located, and the movable baffle blocks and limits the outer cover on the second conveying line 5011; ② the outer cover feeding jaw 5013 moves the blocked outer cover on the second conveying line 5011 to the third rotating platform 5012 after grabbing, and adjusts the outer cover to the correct angle in cooperation with the visual module; ③ the outer cover feeding jaw 5013 places the outer cover with the adjusted angle on the third rotating platform 5012 on the filter core on the tool 101 of the first conveying line 10; ④ the first conveying line 10 conveys the filter core with the outer cover to the tightening assembly 502 work station; ⑤ the positioning mechanism 5021 fixes the filter core on the tool 101, the lifting driving mechanism drives the clamp 5023 to clamp the outer cover on the filter core, and cooperates with the tightening driving mechanism 5022 to tighten the outer cover to form the filter 1.

[0153] Then, the filter 1 is assembled with a gasket through the gasket assembling device 90, tested through the testing device 70, and then enters the film wrapping device 80 for film wrapping and discharging.

[0154] In the description of the present application, it is to be understood that the orientations or positional relationships indicated by the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "upper", "lower", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", and the like are based on the orientations or positional relationships shown in the drawings, and are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the devices or elements indicated thereby must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as limiting the present application.

[0155] In addition, the terms "first", "second", "third", etc. are only used for descriptive purposes and cannot be understood as indicating or implying relative importance or implicitly indicating the number of technical features indicated thereby. Therefore, the features defined with "first", "second", etc. can explicitly or implicitly include one or more of the features. In the description of the present application, the meaning of "a plurality of" is two or more, unless otherwise explicitly specified and limited.

[0156] In the present application, unless otherwise explicitly specified and limited, the terms "mounting", "connecting", "connecting", "fixing" and the like should be understood broadly, for example, it can be fixedly connected, or it can be detachably connected, or it can be integrated; it can be mechanically connected, or it can be electrically connected; it can be directly connected, or it can be indirectly connected through an intermediate medium; it can be the internal communication of two elements or the interaction relationship between two elements. 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.

[0157] In the present application, unless otherwise explicitly specified and limited, the first feature "above" or "below" the second feature can include that the first and second features are in direct contact, or that the first and second features are not in direct contact but are in contact through another feature between them. Moreover, the first feature "above", "above" and "above" the second feature includes that the first feature is directly above and obliquely above the second feature, or only indicates that the horizontal height of the first feature is higher than that of the second feature. The first feature "below", "below" and "below" the second feature includes that the first feature is directly below and obliquely below the second feature, or only indicates that the horizontal height of the first feature is less than that of the second feature.

[0158] In the description of the specification, the description of the terms "one embodiment", "some embodiments", "an example", "a specific example", or "some examples" etc. means that the specific features, structures, materials or characteristics described in connection with the embodiment or example are included in at least one embodiment or example of the present application. In the specification, the illustrative description of the above terms should not be understood as necessarily referring to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any suitable manner in one or more embodiments or examples. In addition, those skilled in the art can combine and integrate different embodiments or examples described in the specification.

[0159] Although the embodiments of the present application have been shown and described above, it is understood that the above-described embodiments are exemplary, and should not be construed as limiting the present application, and those skilled in the art can make changes, modifications, replacements and variations to the above-described embodiments within the scope of the present application.

Claims

1. An apparatus for assembling a filter, characterized in that, The application relates to a filter production line. The filter production line comprises a first conveying line, an inner-outer shell assembling device, a filter core body assembling device, a filter core assembling device, an outer cover and filter core assembling device, a first mechanical arm, a testing device and a film covering device arranged along the conveying direction of the first conveying line in sequence. A tool is arranged on the first conveying line to transfer the to-be-assembled parts between the devices. The inner-outer shell assembling device comprises an inner shell feeding assembly and an outer shell feeding assembly. The outer shell feeding assembly is adapted to feed the outer shell to the tool after adjusting the outer shell to a required angle. The inner shell feeding assembly is adapted to feed the inner shell to the outer shell of the tool to form a first to-be-assembled part after sleeving a first sealing ring on the inner shell. The filter core body assembling device comprises a first assembling assembly, a feeding assembly and a second assembling assembly. The first assembling assembly has a skeleton feeding part, a transfer channel, a moving fork and a scale inhibitor feeding part. The transfer channel is open at the top and the feeding port thereof is connected to the skeleton feeding part to receive the skeleton. The scale inhibitor feeding part is arranged at the side of the transfer channel to supply the scale inhibitor to the transfer channel. The moving fork is adapted to reciprocally move along the conveying direction of the transfer channel to transfer the skeleton from the feeding port to the position where the scale inhibitor feeding part is located to receive the scale inhibitor. The feeding assembly is adapted to clamp the skeleton with the scale inhibitor and feed the skeleton to the first to-be-assembled part after turning the skeleton by 180 degrees. The second assembling assembly is adapted to press the skeleton on the first to-be-assembled part to form a second to-be-assembled part. The filter core assembling device comprises a filter core cover feeding assembly, a feeding and discharging assembly, a welding machine and an outer sealing ring assembling assembly. The filter core cover feeding assembly is adapted to adjust the filter core cover to a required angle and arrange a second sealing ring in the filter core cover. The feeding and discharging assembly has a filter core cover feeding claw and a first feeding and discharging claw. The filter core cover feeding claw is adapted to feed the filter core cover with the second sealing ring to the welding machine. The first feeding and discharging claw is adapted to feed the second to-be-assembled part to the welding machine or to discharge the welded third to-be-assembled part to the tool. The welding machine is adapted to weld the filter core cover and the second to-be-assembled part to form a third to-be-assembled part. The outer sealing ring assembling assembly is adapted to sleeve a third sealing ring on the filter core cover of the third to-be-assembled part. The outer cover and filter core assembling device comprises an outer cover feeding assembly and a tightening assembly. The outer cover feeding assembly is adapted to rotate the outer cover to a required angle and transfer the outer cover to the third to-be-assembled part on the tool. The tightening assembly is adapted to tighten the outer cover and the third to-be-assembled part on the first conveying line to form a filter. The first mechanical arm is adapted to grab the filter from the first conveying line and transfer the filter to the testing device or to the film covering device. The testing device is adapted to perform air tightness test on the filter. The film covering device is adapted to perform film covering and packaging on the filter. The application further discloses a filter production method. The filter production method comprises the following steps. The inner-outer shell assembling device is used to assemble the inner shell and the outer shell to form a first to-be-assembled part. The filter core body assembling device is used to assemble the skeleton and the scale inhibitor to form a second to-be-assembled part. The filter core assembling device is used to assemble the filter core cover and the second to-be-assembled part to form a third to-be-assembled part. The outer cover and filter core assembling device is used to tighten the outer cover and the third to-be-assembled part to form a filter. The first mechanical arm is used to grab the filter from the first conveying line and transfer the filter to the testing device or to the film covering device. The testing device is used to perform air tightness test on the filter. The film covering device is used to perform film covering and packaging on the filter. The filter production method has the advantages that the filter production line is capable of automatically assembling the filter core, the filter core cover and the outer cover to form the filter. The filter production method is capable of automatically performing air tightness test on the filter. The filter production method is capable of automatically performing film covering and packaging on the filter. The filter production method is capable of improving the production efficiency and reducing the labor intensity.

2. The filter assembly apparatus of claim 1, wherein, The shell feeding assembly has a plurality of storage frames, a second mechanical hand, a first vision module, a first rotating platform and a shell feeding jaw. Each of the storage frames is internally provided with a shell. The first vision module is arranged above the storage frames to identify the position of the shells in the storage frames. The second mechanical hand is adapted to transfer the shells to be assembled from the storage frames to the first rotating platform. The first rotating platform is adapted to rotate the shells to a desired angle. The shell feeding jaw is arranged above the first rotating platform to feed the shells into the tool on the first conveying line. The inner shell feeding assembly has an inner shell discharging channel, an inner shell feeding jaw, a first sealing ring discharging channel, a first sealing ring clamping jaw and a positioning frame. The inner shell discharging channel is adapted to discharge the inner shells to its discharge port. The positioning frame is provided with a positioning hole. The inner shell feeding jaw is adapted to clamp the inner shells from the inner shell discharging channel and transfer the inner shells to the positioning hole or transfer the inner shells into the shells on the tool. The first sealing ring discharging channel is adapted to discharge the first sealing rings to its discharge port. The first sealing ring clamping jaw is adapted to clamp the first sealing rings from the first sealing ring discharging channel and clamp the first sealing rings on the inner shells in the positioning hole.

3. The filter assembly apparatus of claim 1, wherein, The feeding assembly has a skeleton feeding jaw and a rotating jaw. The rotating jaw is adapted to turn the skeleton loaded with the scale inhibitor by 180°. The skeleton feeding jaw is adapted to clamp the turned skeleton from the rotating jaw and feed the skeleton into the first assembly part. The second assembly part includes a positioning jaw and a pressing mechanism arranged at the side of the first conveying line. The positioning jaw is adapted to position the skeleton on the first assembly part at the center of the inner shell. The pressing mechanism is adapted to press against the skeleton to tightly press the skeleton on the first assembly part to form the second assembly part.

4. The filter assembly apparatus of claim 2, wherein, The filter cover feeding assembly has a filter cover discharging channel, a second sealing ring discharging channel, a turning clamping jaw, a second rotating platform, a second sealing ring clamping jaw and a second vision module. The filter cover discharging channel is adapted to discharge the filter covers to its discharge port. The second rotating platform is arranged adjacent to the discharge port of the filter cover discharging channel to receive the filter covers and rotate the filter covers to a desired angle. The turning clamping jaw clamps the filter covers from the first rotating platform. The second sealing ring discharging channel is adapted to discharge the second sealing rings to its discharge port. The second sealing ring clamping jaw is adapted to clamp the second sealing rings from the second sealing ring discharging channel and clamp the second sealing rings on the filter covers. The second vision module is adapted to detect the assembly of the second sealing rings on the filter covers. The turning clamping jaw is adapted to clamp the filter covers from the second rotating platform and turn the filter covers between a first position and a second position. In the first position, the turning clamping jaw clamps the filter covers to assemble the second sealing rings with the second sealing ring clamping jaw. In the second position, the filter covers are detected by the second vision module. The outer sealing ring assembly has a third sealing ring discharging channel, a third sealing ring clamping jaw and a detection module. The third sealing ring discharging channel discharges the third sealing ring to its discharge port. The third sealing ring clamping jaw is adapted to take the third sealing ring from the third sealing ring discharging channel and clamp the third sealing ring on the filter core cover of the third assembly part. The detection module is adapted to detect the assembly of the third sealing ring on the third assembly part.

5. The filter assembly apparatus of claim 1, wherein, The outer cover feeding assembly includes a second conveying line, a third rotating platform and an outer cover feeding jaw. The second conveying line is adapted to convey the outer cover. The discharge port of the second conveying line is connected to the third rotating platform to receive the outer cover. The third rotating platform is adapted to rotate the outer cover to a required angle. The outer cover feeding jaw is arranged above the third rotating platform to move the outer cover to the third assembly part on the tool. The feeding and discharging assembly further includes a second feeding and discharging jaw and a buffer platform. The second feeding and discharging jaw is arranged beside the first conveying line. The second feeding and discharging jaw is adapted to clamp the second assembly part from the tool and move the second assembly part to the buffer platform or move the third assembly part on the buffer platform to the tool on the second conveying line. The first feeding and discharging jaw is adapted to clamp the second assembly part from the buffer platform and feed the second assembly part to the welding machine or discharge the welded third assembly part to the buffer platform.

6. The filter assembly apparatus of claim 1, wherein, The tightening assembly has a positioning mechanism, a tightening driving mechanism and a clamping member. The positioning mechanism is arranged beside the first conveying line to position the third assembly part on the tool. The clamping member is arranged above the first conveying line to clamp the outer cover on the third assembly part after the third assembly part is positioned. The tightening driving mechanism is connected to the clamping member to drive the clamping member to rotate and tighten the outer cover on the third assembly part.

7. The filter assembly apparatus of claim 1, wherein, The gasket assembly device includes a gasket discharging channel, a pressing column and a pressing column driving mechanism. The gasket discharging channel is adapted to discharge the gasket to its discharge port. The pressing column is provided with a suction hole. The pressing column driving mechanism is connected to the pressing column to drive the pressing column to suction the gasket and move the gasket to press into the nut on the filter of the tool.

8. The filter assembly apparatus of claim 1, wherein, The testing device includes a plurality of air tightness testing tools and a third conveying line. Each of the air tightness testing tools is adapted to perform air tightness test on one of the filters. The discharge port of the third conveying line is connected to the coating device to feed the filter to the coating device. The first mechanical arm is adapted to move the filter on the air tightness testing tool to the third conveying line.

9. The filter assembly apparatus of claim 4, wherein, The first sealing ring clamping jaw, the second sealing ring clamping jaw and the third sealing ring clamping jaw each comprise a plurality of clamping fingers, a push ring and a push ring driving mechanism, the plurality of clamping fingers are adapted to take out the sealing ring, the push ring is annularly arranged at the periphery of the plurality of clamping fingers, the push ring is adapted to take out the sealing ring on the plurality of clamping fingers and arrange the sealing ring on the inner shell or the filter core cover, and the push ring driving mechanism is connected with the push ring to drive the push ring to move up and down and push the sealing ring on the plurality of clamping fingers.

10. The filter assembly apparatus of claim 1, wherein, The outer sealing ring assembly is sequentially arranged with two in the conveying direction of the first conveying line.

Citation Information

Patent Citations

  • Filter element assembly machine

    CN214868591U

  • Multipoint product assembling system

    JP1994277967A