Automatic assembly production device for high-pressure cleaning machine

Abstract

The invention relates to the technical field of high-pressure cleaning machine assembly production, in particular to a high-pressure cleaning machine automatic assembly production device which comprises an assembly production structure, an automatic conduction structure, a material guiding structure and a material discharging control structure. A material guiding structure is installed on the side, away from the assembly production structure, of the automatic conduction structure, and a material discharging control structure is fixedly installed on the side, close to the material guiding structure, of the automatic conduction structure. The assembly production structure is arranged to carry out assembly work, the automatic conduction structure is used for conduction control work, the material guiding structure is used for guiding products, and the discharging control structure is used for guiding and discharging finished products, so that automatic assembly production treatment work is carried out through the overall structure arrangement, and production of the high-pressure cleaning machine is facilitated.

Description

Technical Field

[0001] This invention relates to the field of high-pressure washer assembly and production technology, specifically to an automatic assembly and production device for high-pressure washers. Background Technology

[0002] High-pressure washers are devices used for sterilization, dust removal, stain removal, oil removal, and odor removal. These devices utilize high-temperature, high-pressure steam to clean floors, doors and windows, clothing, range hoods, air conditioners, microwave ovens, and sanitary ware, sterilizing surfaces, removing micro-dust and bacteria. They are environmentally friendly and hygienic, preventing allergies, and eliminating stubborn stains and grease. No chemical reagents are required, and there is virtually no damage to the items being cleaned. People enjoy a scientifically hygienic environment without causing secondary pollution.

[0003] Currently, high-pressure cleaners require assembly during production. Although assembly lines are used, a large amount of manual labor is still needed, making it difficult to automate the assembly process. In particular, the installation of the internal water pump cannot be carried out in a continuous manner, thus hindering the alignment and assembly fixation work. Summary of the Invention

[0004] To address the problems in the prior art, the present invention provides an automatic assembly production device for high-pressure cleaners.

[0005] The technical solution adopted by the present invention to solve its technical problem is: an automatic assembly production device for a high-pressure cleaner, comprising an assembly production structure, an automatic transmission structure, a material guiding structure and a material discharge control structure. The assembly production structure is installed on one side of the automatic transmission structure, the material guiding structure is installed on the side of the automatic transmission structure away from the assembly production structure, and the material discharge control structure is fixedly installed on the side of the automatic transmission structure close to the material guiding structure.

[0006] The assembly production structure is used for the transmission and pressing of the water pump. The water pump is transmitted on the adapter guide seat and guided to the bottom support shell through the guide groove. The second electric telescopic rod performs the following pressing operation.

[0007] An automatic transmission structure is used for rotary transmission to support the assembly of the water pump and the base shell. The contact wheel rod and movable frame drive the water pump and the base shell to move up and down through compression, thereby cooperating with the assembly production structure for assembly.

[0008] The material guiding structure is used for the transmission of the bottom support shell, guiding the bottom support shell into the automatic transmission structure;

[0009] The discharge control structure is used for the discharge treatment of water pumps and bottom support shell assemblies.

[0010] Specifically, the assembly production structure includes a fixed base frame, on which a support platform is fixedly mounted. A first electrically controlled telescopic rod is fixedly mounted on the support platform via a support plate. An electromagnetic limit push rod is fixedly mounted on one side of the support platform, and a conveyor belt is also fixedly mounted on the support platform. Two position sensors are provided at the side end of the conveyor belt, and a third electrically controlled telescopic rod is provided between the two position sensors. The third electrically controlled telescopic rod is fixed to the support platform. The side end of the support plate is fixed to an adapter guide seat. The adapter guide seat has a guide groove for guiding the water pump. A second track frame is fixedly connected to the upper end of the adapter guide seat. A first track frame is fixedly mounted on the second track frame. The first track frame and the second track frame support the second electrically controlled telescopic rod. An electromagnetic lock seat is installed on the second electrically controlled telescopic rod, and the electromagnetic lock seat is engaged with the water pump.

[0011] Specifically, the positioning sensor senses the water pump, and the third electrically controlled telescopic rod controls the water pump to move upward, so that the water pump reaches the side end of the adapter guide seat. The first electrically controlled telescopic rod pushes the water pump into the adapter guide seat, and the top of the water pump is connected to the second electrically controlled telescopic rod through an electromagnetic lock seat. The first electrically controlled telescopic rod drives the second electrically controlled telescopic rod, the electromagnetic lock seat, and the water pump to move.

[0012] The guide groove is used for guiding the water pump. When the water pump reaches the position of the guide groove, the second electrically controlled telescopic rod controls the electromagnetic lock seat and the water pump to descend, and performs the pressing and assembly of the water pump and the bottom support shell.

[0013] Specifically, the automatic transmission structure includes a transmission production component and a matching extrusion component, with the transmission production component fixedly mounted on the matching extrusion component;

[0014] The conductive production component includes an adjustment mechanism and a drive mechanism. The drive mechanism is rotatably equipped with an adjustment mechanism, which includes a first rotating disk. A second rotating disk is fixedly connected to the lower end of the first rotating disk. A movable frame is telescopically connected to the second rotating disk. A contact wheel rod is fixedly connected to the lower end of the movable frame. The upper end of the movable frame is fixed to an electromagnetic push-guide seat. An electromagnetic push-guide seat is fixedly installed on the electromagnetic push-guide seat. The electromagnetic push-guide seat controls the telescopic connection of the extrusion rod through a telescopic shaft. The extrusion rod is slidably connected to the side end of the electromagnetic push-guide seat through a spring rod. The extrusion rod is used for positioning the bottom support shell. The water pump is snapped and fixed to the bottom support shell.

[0015] Specifically, the drive mechanism includes a tray, a guide rail frame is fixedly connected to the tray via a fixing block, a stepper motor is fixedly installed at the center of the tray, and a drive rod is connected to the stepper motor via a gearbox.

[0016] The drive rod is fixedly connected to the first rotating disk and the second rotating disk. The rotation of the drive rod drives the first rotating disk and the second rotating disk to rotate. The guide rail frame is rotatably connected to the contact wheel rod. The stepper motor adopts an inclined ring structure design. When the contact wheel rod moves on the stepper motor, it is extended and retracted to change the height position of the electromagnetic push base.

[0017] Specifically, the mating extrusion component includes a base plate, on which a fixing ring block is fixedly connected, and a hydraulic control seat is fixedly connected to the fixing ring block via a telescopic guide rod;

[0018] The telescopic guide rod is adjusted in length and width under the control of the hydraulic control seat, thereby allowing the extrusion push block to adjust in length and width on the fixed ring block. The hydraulic control seat is connected to the connecting guide seat, which is connected to the cylinder. The lower end of the cylinder is connected to a touch switch via a spring connecting rod. The touch switch contacts and presses against the electromagnetic push guide seat at the top position, thereby controlling the operation of the cylinder. The cylinder is connected to the hydraulic control seat via the connecting guide seat, thereby controlling the extension and retraction adjustment of the extrusion push block.

[0019] Specifically, the material guiding structure includes a material guiding platform, the front end of which is connected to a connecting guide platform. A limiting platform is connected to the connecting guide platform, and a first telescopic guide frame is also installed on the limiting platform. The lower ends of the connecting guide platform and the limiting platform are supported by a first fixed bearing seat. A fourth electrically controlled telescopic rod is also fixedly installed on the first fixed bearing seat. The lower end of the material guiding platform is supported by a support column seat. The fourth electrically controlled telescopic rod moves the bottom support shell by telescoping, so that the bottom support shell is guided into the electromagnetic push-guide seat through the connecting guide platform and the limiting platform. The first telescopic guide frame adopts an extendable design and is aligned with the electromagnetic push-guide seat.

[0020] Specifically, the material discharge control structure includes a second fixed support seat, a second conveyor belt on the second fixed support seat, a first conveyor belt connected to the side end of the second conveyor belt, and a second telescopic guide frame fixedly connected to the second fixed support seat, and the second telescopic guide frame is fixed to the second fixed support seat.

[0021] Specifically, the second telescopic guide frame can be aligned with the electromagnetic guide seat to guide the water pump and the bottom support shell. The electromagnetic guide seat pushes the water pump and the bottom support shell so that the water pump and the bottom support shell reach the second telescopic guide frame, and then are guided through the first conveyor belt and the second conveyor belt.

[0022] Specifically, the first telescopic guide frame adopts a telescopic design to prevent contact with the rotating electromagnetic push seat. The upper end of the base plate is fixed to the tray. A groove is opened at the arc position of the first rotating disk, and the groove is adapted to the electromagnetic limit push rod. The electromagnetic limit push rod can be inserted into the groove to lock the first rotating disk. At the same time, the stepper motor locks. A control switch is provided in the groove to provide guide and processing time.

[0023] The beneficial effects of this invention are:

[0024] I. This invention utilizes an assembly production structure for assembly work. A water pump is introduced through the assembly production structure and guided by a conveyor belt to a third electrically controlled telescopic rod. The third electrically controlled telescopic rod then raises the water pump, at which point an electromagnetic lock locks the water pump. Under the pushing of the first electrically controlled telescopic rod, the second electrically controlled telescopic rod, the electromagnetic lock, and the water pump move. When they reach the guide groove position, the second electrically controlled telescopic rod lowers the electromagnetic lock and the water pump, pressing them against the base shell. The electromagnetic lock is also equipped with a vision sensor to align with the installation position on the base shell. Thus, through the structural design of the assembly production structure, automated assembly production is achieved.

[0025] II. This invention achieves continuous processing through the automatic transmission structure, coordinating with the assembly production structure for assembly production. A stepper motor drives a drive rod to rotate via a gearbox, causing the first and second rotating disks to rotate. The contact wheel rod rotates on the guide rail frame, allowing it to extend and retract with the guide rail frame, thereby changing the height of the electromagnetic push seat for assembly production. Simultaneously, when the electromagnetic push seat is in the assembly position, a touch switch is pressed to control the extrusion push block, causing it to descend and facilitating subsequent extrusion of the water pump and base shell for reinforced assembly. The material guiding structure guides the base shell in, with the first telescopic guide frame aligned with the electromagnetic push seat on this side for easy insertion. The material discharge control structure guides the water pump and base shell assembly, with the second telescopic guide frame extending and aligning with the electromagnetic push seat on this side, causing the water pump and base shell to exit the automatic transmission structure, thus achieving automated assembly processing. Attached Figure Description

[0026] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0027] Figure 1 This is a three-dimensional structural diagram of the main body from a frontal perspective in this invention;

[0028] Figure 2 This is a frontal perspective three-dimensional structural diagram of the assembly and production structure in this invention;

[0029] Figure 3 This is a rear-view three-dimensional structural diagram of the assembly and production structure in this invention;

[0030] Figure 4 This is a perspective view of the automatic transmission structure in this invention;

[0031] Figure 5This is a frontal perspective three-dimensional structural diagram of the conductive production component in this invention;

[0032] Figure 6 This is a perspective view of the adjustment mechanism in this invention;

[0033] Figure 7 This is an exploded view of the adjustment mechanism in this invention;

[0034] Figure 8 This is a perspective view of the driving mechanism in this invention;

[0035] Figure 9 This is a three-dimensional structural diagram of the extrusion component from a frontal perspective in this invention;

[0036] Figure 10 This is a side view three-dimensional structural diagram of the extrusion component in this invention;

[0037] Figure 11 This is a perspective view of the material guiding structure in this invention;

[0038] Figure 12 This is a perspective view of the material discharge control structure in this invention.

[0039] In the diagram: 1-Assembly production structure, 2-Automatic transmission structure, 3-Material guiding structure, 4-Discharge control structure, 5-First electrically controlled telescopic rod, 6-Support plate, 7-Support platform, 8-Fixed base frame, 9-Electromagnetic limit push rod, 10-First track frame, 11-Second track frame, 12-Second electrically controlled telescopic rod, 13-Guide groove, 14-Electromagnetic lock seat, 15-Adaptive guide seat, 16-Position sensor, 17-Third electrically controlled telescopic rod, 18-Conveyor belt, 19-Transmission production component, 20-Matching extrusion component, 21-Adjusting mechanism, 22-Drive mechanism, 23-First rotating disk, 24-Water pump, 25-Base shell, 26-Electromagnetic push seat, 27-Spring rod, 28-Extrusion rod, 29-Telescopic shaft, 30-Electro- Magnetic push base, 31-Second rotating disk, 32-Modible frame, 33-Contact wheel rod, 34-Stepper motor, 35-Pattern, 36-Fixing block, 37-Guide rail frame, 38-Gearbox, 39-Drive rod, 40-Hydraulic control base, 41-Telescopic guide rod, 42-Fixing ring block, 43-Base plate, 44-Connecting guide base, 45-Cylinder, 46-Extrusion push block, 47-Spring connecting rod, 48-Touch switch, 49-Guide platform, 50-Fourth electrically controlled telescopic rod, 51-First telescopic connecting frame, 52-Limiting platform, 53-Connecting guide platform, 54-First fixed bearing base, 55-Support column base, 56-Second telescopic connecting frame, 57-First transmission belt, 58-Second transmission belt, 59-Second fixed bearing base. Detailed Implementation

[0040] To enable those skilled in the art to better understand the present application, the technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present application, and not all embodiments. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art without creative effort should fall within the scope of protection of the present application.

[0041] The invention will be further described below with reference to the accompanying drawings.

[0042] Example

[0043] like Figures 1-12 As shown, an automatic assembly production device for a high-pressure cleaner according to the present invention includes an assembly production structure 1, an automatic transmission structure 2, a material guiding structure 3, and a material discharge control structure 4. The assembly production structure 1 is installed on one side of the automatic transmission structure 2, the material guiding structure 3 is installed on the side of the automatic transmission structure 2 away from the assembly production structure 1, and the material discharge control structure 4 is fixedly installed on the side of the automatic transmission structure 2 close to the material guiding structure 3.

[0044] Assembly production structure 1 is used for the transmission and pressing of water pump 24. Water pump 24 is transmitted on the adapter guide seat 15 and guided to the bottom support shell 25 through the guide groove 13. The second electric telescopic rod 12 performs follow-up pressing operation.

[0045] Automatic transmission structure 2 is used for rotary transmission to support the assembly of water pump 24 and base shell 25. Contact wheel rod 33 and movable frame 32 drive water pump 24 and base shell 25 to move up and down through compression, thereby cooperating with assembly production structure 1 for assembly. Through the setting of assembly production structure 1, the assembly work is carried out. Water pump 24 is introduced through assembly production structure 1. At this time, water pump 24 is guided to the third electric control telescopic rod 17 by conveyor belt 18. Then, the third electric control telescopic rod 17 controls water pump 24 to rise. At this time, electromagnetic lock seat 14 locks with water pump 24. Under the push of the first electric control telescopic rod 5, the second electric control telescopic rod 12, electromagnetic lock seat 14 and water pump 24 move. When they reach the guide groove 13, the second electric control telescopic rod 12 controls electromagnetic lock seat 14 and water pump 24 to descend, cooperating with base shell 25 for compression. The electromagnetic lock seat 14 is also equipped with a vision sensor to align with the installation position on base shell 25. Thus, through the structural setting of assembly production structure 1, automated assembly production is carried out.

[0046] The material guiding structure 3 is used for the transmission of the bottom support shell 25, and guides the bottom support shell 25 into the automatic transmission structure 2;

[0047] The discharge control structure 4 is used for the discharge treatment of the water pump 24 and the bottom support shell 25 assembly.

[0048] The assembly production structure 1 includes a fixed base frame 8, on which a support platform 7 is fixedly mounted. A first electrically controlled telescopic rod 5 is fixedly mounted on the support platform 7 via a support plate 6. An electromagnetic limit push rod 9 is fixedly mounted on one side of the support platform 7. A conveyor belt 18 is also fixedly mounted on the support platform 7. Two position sensors 16 are provided on the side end of the conveyor belt 18. A third electrically controlled telescopic rod 17 is provided between the two position sensors 16. The third electrically controlled telescopic rod 17 is fixed on the support platform 7. The side end of the support plate 6 is connected to... The adapter guide seat 15 is fixed, and the adapter guide seat 15 is provided with a guide groove 13 for guiding the water pump 24. The upper end of the adapter guide seat 15 is also fixedly connected to a second track frame 11, and a first track frame 10 is fixedly mounted on the second track frame 11. The first track frame 10 and the second track frame 11 are used to support the second electrically controlled telescopic rod 12. An electromagnetic lock seat 14 is installed on the second electrically controlled telescopic rod 12. The electromagnetic lock seat 14 is snapped into the water pump 24. When the bottom support shell 25 reaches the position of the assembly production structure 1, the electromagnetic limit push at this time... Rod 9 locks with the first rotating disk 23. At this time, the water pump 24 is guided and transported by the conveyor belt 18 until it contacts the positioning sensor 16. The positioning sensor 16 blocks the water pump 24 and simultaneously detects the positioning of the water pump 24. Then, the third electrically controlled telescopic rod 17 controls the water pump 24 to move upward until the water pump 24 reaches the side end of the adapter guide seat 15. At the same time, the second electrically controlled telescopic rod 12 works, driving the electromagnetic lock seat 14 to move downward, so that the electromagnetic lock seat 14 contacts the water pump 24 and locks it at the same time. After that, the first The electrically controlled telescopic rod 5 operates, pushing the water pump 24 to move. At the same time, it drives the second electrically controlled telescopic rod 12 to slide on the first track frame 10 and the second track frame 11 until it reaches the guide groove 13. At this time, the second electrically controlled telescopic rod 12 controls the water pump 24 to descend, so that the water pump 24 contacts the bottom support shell 25. At the same time, the second electrically controlled telescopic rod 12 continues to squeeze, so that the water pump 24 and the bottom support shell 25 are assembled and fixed. After that, the electromagnetic lock seat 14 is released from the limit, and the second electrically controlled telescopic rod 12 is reset, completing the assembly work.

[0049] The position sensor 16 senses the water pump 24, and the third electric telescopic rod 17 controls the water pump 24 to move upward, so that the water pump 24 reaches the side end of the adapter guide seat 15. The first electric telescopic rod 5 pushes the water pump 24 into the adapter guide seat 15, and the top of the water pump 24 is connected to the second electric telescopic rod 12 through the electromagnetic lock seat 14. The first electric telescopic rod 5 drives the second electric telescopic rod 12, the electromagnetic lock seat 14, and the water pump 24 to move.

[0050] The guide groove 13 is used to guide the water pump 24. When the water pump 24 reaches the position of the guide groove 13, the second electric telescopic rod 12 controls the electromagnetic lock seat 14 and the water pump 24 to descend, and performs the pressing assembly process of the water pump 24 and the bottom support shell 25.

[0051] The automatic transmission structure 2 includes a transmission production component 19 and a matching extrusion component 20, with the transmission production component 19 fixedly mounted on the matching extrusion component 20.

[0052] The transmission production component 19 includes an adjustment mechanism 21 and a drive mechanism 22. The adjustment mechanism 21 is rotatably mounted on the drive mechanism 22. The adjustment mechanism 21 includes a first rotating disk 23. A second rotating disk 31 is fixedly connected to the lower end of the first rotating disk 23. A movable frame 32 is telescopically connected to the second rotating disk 31. A contact wheel rod 33 is fixedly connected to the lower end of the movable frame 32. The upper end of the movable frame 32 is fixed to the electromagnetic push base 26. An electromagnetic push base 30 is fixedly mounted on the electromagnetic push base 26. The electromagnetic push base 30 controls the telescopic connection of the extrusion rod 28 via a telescopic shaft 29. The extrusion rod 28 is connected to the electromagnetic push base 26 via a spring rod 27. The 6th side end is slidably connected. The extrusion rod 28 is used for positioning the bottom support shell 25. The water pump 24 is snapped and fixed to the bottom support shell 25. The material guiding structure 3 is working. At this time, the material guiding platform 49 is used to guide the bottom support shell 25, which then reaches the connecting guide platform 53. At this time, the fourth electrically controlled telescopic rod 50 pushes the bottom support shell 25, so that the bottom support shell 25 moves along the limiting platform 52 and the first telescopic guide frame 51. At the same time, the first telescopic guide frame 51 extends and aligns with the electromagnetic push seat 26. At this time, the electromagnetic limiting push rod 9 is limited by the first rotating disk 23, and the automatic transmission structure 2 is in a stopped state. The bottom support shell 25 then reaches the electromagnetic push seat 26.

[0053] The drive mechanism 22 includes a tray 35, to which a guide rail frame 37 is fixedly connected via a fixing block 36. A stepper motor 34 is fixedly mounted at the center of the tray 35. A drive rod 39 is driven and connected to the stepper motor 34 via a gearbox 38. When the electromagnetic push seat 30 operates, it drives the telescopic shaft 29 to extend, allowing the telescopic shaft 29 to slide and adjust on the spring rod 27. The telescopic shaft 29 drives the extrusion rod 28 to move together, causing the extrusion rod 28 to extrude and limit the bottom support shell 25. After a fixed time, the stepper motor... The motor 34 operates, and the stepper motor 34 drives the drive rod 39 to rotate through the gearbox 38. The drive rod 39 drives the first rotating disk 23 and the second rotating disk 31 to rotate together. The movable frame 32 is set to slide longitudinally at the upper limit of the second rotating disk 31. The lower end of the movable frame 32 is fixed to the contact wheel rod 33. The contact wheel rod 33 rotates in contact with the guide rail frame 37, and the guide rail frame 37 is set at an inclination. It can reciprocate to control the longitudinal extension and retraction of the electromagnetic push seat 26, and the electromagnetic push seat 26 also rotates with the second rotating disk 31.

[0054] The drive rod 39 is fixedly connected to the first rotating disk 23 and the second rotating disk 31. The rotation of the drive rod 39 drives the first rotating disk 23 and the second rotating disk 31 to rotate. The guide rail frame 37 is rotatably connected to the contact wheel rod 33. The stepper motor 34 adopts an inclined ring structure design. When the contact wheel rod 33 moves on the stepper motor 34, it is extended and retracted to change the height position of the electromagnetic push base 26.

[0055] The extrusion component 20 includes a base plate 43, a fixed ring block 42 is fixedly connected to the base plate 43, and a hydraulic control seat 40 is fixedly connected to the fixed ring block 42 via a telescopic guide rod 41.

[0056] The telescopic guide rod 41 is telescopically adjusted under the control of the hydraulic control seat 40, thereby causing the extrusion pusher 46 to telescopically adjust on the fixed ring block 42. The hydraulic control seat 40 is connected to the connecting guide seat 44, which is connected to the cylinder 45. The lower end of the cylinder 45 is connected to a touch switch 48 via a spring connecting rod 47. The touch switch 48 contacts and presses the electromagnetic pusher seat 26 at the top position, thereby controlling the operation of the cylinder 45. The cylinder 45 is connected to the hydraulic control seat 40 via the connecting guide seat 44, thereby controlling the telescopic adjustment of the extrusion pusher 46. Through the setting of the automatic transmission structure 2, continuous processing is achieved, and assembly production is carried out in conjunction with the assembly production structure 1. The stepper motor 34 drives the drive rod 39 to rotate through the gearbox 38, thereby causing the first rotating disk 23 and the second rotating disk 31 to rotate, and the contact wheel rod 33 to rotate on the guide rail frame 37. The system can extend and retract with the guide rail frame 37 to change the height of the electromagnetic push base 26, thereby facilitating assembly production. When the electromagnetic push base 26 is in the assembly position, the touch switch 48 is pressed to control the extrusion push block 46 to work. The extrusion push block 46 then descends, facilitating subsequent extrusion of the water pump 24 and the bottom support shell 25 for reinforcement assembly. The material guide structure 3 guides the bottom support shell 25 in. At this time, the first telescopic guide frame 51 aligns with the electromagnetic push base 26 on this side to facilitate the introduction of the bottom support shell 25. The material discharge control structure 4 guides the assembly of the water pump 24 and the bottom support shell 25. At this time, the second telescopic guide frame 56 extends and aligns with the electromagnetic push base 26 on this side, causing the water pump 24 and the bottom support shell 25 to leave the automatic transmission structure 2, realizing automated assembly processing.

[0057] The material guiding structure 3 includes a material guiding platform 49, the front end of which is connected to a connecting guide platform 53. A limiting platform 52 is connected to the connecting guide platform 53, and a first telescopic guide frame 51 is also installed on the limiting platform 52. The lower ends of the connecting guide platform 53 and the limiting platform 52 are supported by a first fixed bearing seat 54. A fourth electrically controlled telescopic rod 50 is also fixedly installed on the first fixed bearing seat 54. The lower end of the material guiding platform 49 is supported by a support column seat 55. The fourth electrically controlled telescopic rod 50 moves the bottom support shell 25 by extending and retracting, so that the bottom support shell 25 is guided into the electromagnetic pusher seat 26 through the connecting guide platform 53 and the limiting platform 52. The first telescopic guide frame 51 adopts an extendable design. The first telescopic guide frame 51 is aligned with the electromagnetic pusher seat 26. When the electromagnetic pusher seat 26 reaches the lower end of the touch switch 48, the touch switch 48 is squeezed, causing the touch switch 48 to move through the spring connecting rod 47, thereby controlling the cylinder 45 to work. The cylinder 45 is connected to the hydraulic control seat 40 through the connecting guide seat 44, so that it can move through the inner rod of the telescopic guide rod 41, causing the extrusion push block 46 to move up and down on the fixed ring block 42. Then the limit of the first rotating disk 23 is released, and the stepper motor 34 also works. At this time, the extrusion push block 46 can contact the moving water pump 24 and the top of the bottom support shell 25 for secondary extrusion and fixation.

[0058] The discharge control structure 4 includes a second fixed support 59, on which a second conveyor belt 58 is provided. The side end of the second conveyor belt 58 is connected to a first conveyor belt 57. A second telescopic guide frame 56 is also fixedly connected to the second fixed support 59 and is fixed to the second fixed support 59. When the water pump 24 and the bottom support shell 25 reach the position of the discharge control structure 4, the second telescopic guide frame 56 extends and aligns with the electromagnetic push seat 26. The electromagnetic push seat 26 controls the water pump 24 and the bottom support shell 25 to move, so that the water pump 24 and the bottom support shell 25 reach the first conveyor belt 57 through the second telescopic guide frame 56, and then are guided and transported through the second conveyor belt 58.

[0059] The second telescopic guide frame 56 can be aligned with the electromagnetic guide seat 26 to guide the water pump 24 and the bottom support shell 25. The electromagnetic guide seat 26 pushes the water pump 24 and the bottom support shell 25 so that the water pump 24 and the bottom support shell 25 reach the second telescopic guide frame 56, and then are guided through the first conveyor belt 57 and the second conveyor belt 58.

[0060] The first telescopic guide frame 51 adopts a telescopic design to prevent contact with the rotating electromagnetic push seat 26. The upper end of the base plate 43 is fixed to the tray 35. A groove is opened at the arc position of the first rotating disk 23, and the groove is adapted to the electromagnetic limit push rod 9. The electromagnetic limit push rod 9 can be inserted into the groove to lock the first rotating disk 23. At the same time, the stepper motor 34 is locked. A control switch is provided in the groove to provide guide and processing time.

[0061] Working principle: When in use, the material guiding structure 3 works first. At this time, the material guiding platform 49 is used to guide the bottom support shell 25, which then reaches the connecting guide platform 53. At this time, the fourth electrically controlled telescopic rod 50 pushes the bottom support shell 25, so that the bottom support shell 25 moves along the limiting platform 52 and the first telescopic guide frame 51. At the same time, the first telescopic guide frame 51 extends and aligns with the electromagnetic push seat 26. At this time, the electromagnetic limiting push rod 9 is limited by the first rotating disk 23, and the automatic transmission structure 2 is in a stopped state. The bottom support shell 25 then reaches the electromagnetic push seat 26.

[0062] At this time, the electromagnetic push base 30 works, driving the telescopic shaft 29 to extend, so that the telescopic shaft 29 slides and adjusts on the spring rod 27. The telescopic shaft 29 drives the extrusion rod 28 to move together, so that the extrusion rod 28 extrudes and limits the bottom support shell 25. After a fixed time, the stepper motor 34 works. The stepper motor 34 drives the drive rod 39 to rotate through the gearbox 38. The drive rod 39 drives the first rotating disk 23 and the second rotating disk 31 to rotate together. The movable frame 32 is set to slide longitudinally at the upper limit of the second rotating disk 31. The lower end of the movable frame 32 is fixed to the contact wheel rod 33. The contact wheel rod 33 rotates in contact with the guide rail frame 37. The guide rail frame 37 is tilted, which can reciprocate to control the longitudinal extension and retraction of the electromagnetic push base 26. The electromagnetic push base 26 also rotates with the second rotating disk 31.

[0063] When the base shell 25 reaches the assembly production structure 1, the electromagnetic limit push rod 9 locks with the first rotating disk 23. The water pump 24 is then guided and transported by the conveyor belt 18 until it contacts the positioning sensor 16. The positioning sensor 16 blocks the water pump 24 and simultaneously detects its arrival. Then, the third electrically controlled telescopic rod 17 controls the water pump 24 to move upwards until it reaches the side of the adapter guide 15. Simultaneously, the second electrically controlled telescopic rod 12 operates, causing the electromagnetic lock seat 14 to move downwards, bringing it into contact with the water pump 24. At the same time, the locking operation is performed. Then, the first electrically controlled telescopic rod 5 operates, pushing the water pump 24 to move. Simultaneously, it drives the second electrically controlled telescopic rod 12 to slide on the first track frame 10 and the second track frame 11 until it reaches the guide groove 13. At this time, the second electrically controlled telescopic rod 12 controls the water pump 24 to descend, so that the water pump 24 contacts the bottom support shell 25. At the same time, the second electrically controlled telescopic rod 12 continues to squeeze, so that the water pump 24 and the bottom support shell 25 are assembled and fixed. Then, the electromagnetic lock seat 14 is released from the limit, and the second electrically controlled telescopic rod 12 is reset, completing the assembly work.

[0064] At the same time, when the electromagnetic push seat 26 reaches the lower end of the touch switch 48, it squeezes the touch switch 48, causing the touch switch 48 to move through the spring connecting rod 47, thereby controlling the cylinder 45 to work. The cylinder 45 is connected to the hydraulic control seat 40 through the connecting guide seat 44, so that it can move through the inner rod of the telescopic guide rod 41, causing the squeezing push block 46 to move up and down on the fixed ring block 42. Then the limit of the first rotating disk 23 is released, and the stepper motor 34 also works. At this time, the squeezing push block 46 can contact the moving water pump 24 and the top of the bottom support shell 25 for secondary squeezing and fixing.

[0065] Finally, the water pump 24 and the bottom support shell 25 reach the position of the discharge control structure 4. At this time, the second telescopic guide frame 56 extends and aligns with the electromagnetic guide seat 26. The electromagnetic guide seat 26 then controls the water pump 24 and the bottom support shell 25 to move, so that the water pump 24 and the bottom support shell 25 reach the first conveyor belt 57 through the second telescopic guide frame 56, and then are guided and transported through the second conveyor belt 58 to complete the work.

[0066] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An automatic assembly production device for a high-pressure washer, characterized in that: It includes an assembly production structure (1), an automatic transmission structure (2), a material guiding structure (3), and a material discharge control structure (4). The assembly production structure (1) is installed on one side of the automatic transmission structure (2). The material guiding structure (3) is installed on the side of the automatic transmission structure (2) away from the assembly production structure (1). The material discharge control structure (4) is fixedly installed on the side of the automatic transmission structure (2) close to the material guiding structure (3). The assembly production structure (1) is used for the transmission and pressing of the water pump (24). The water pump (24) is transmitted on the adapter guide seat (15) and guided to the bottom support shell (25) through the guide groove (13). The second electric telescopic rod (12) performs the following pressing operation. Automatic transmission structure (2) is used for rotary transmission to support the assembly of water pump (24) and bottom support shell (25). The contact wheel rod (33) and movable frame (32) drive water pump (24) and bottom support shell (25) to move up and down by squeezing, so as to cooperate with the assembly production structure (1) for assembly. The material guiding structure (3) is used for the conduction of the bottom support shell (25) and guides the bottom support shell (25) into the automatic conduction structure (2); The discharge control structure (4) is used for the discharge treatment of the water pump (24) and the bottom support shell (25) assembly.

2. The automatic assembly production device for a high-pressure cleaner according to claim 1, characterized in that: The assembly production structure (1) includes a fixed base frame (8), on which a support platform (7) is fixedly mounted. A first electrically controlled telescopic rod (5) is fixedly mounted on the support platform (7) via a support plate (6). An electromagnetic limit push rod (9) is fixedly mounted on one side of the support platform (7), and a conveyor belt (18) is also fixedly mounted on the support platform (7). A position sensor (16) is provided at the side end of the conveyor belt (18). There are two position sensors (16), and a third electrically controlled telescopic rod (17) is provided between the two position sensors (16). The third electrically controlled telescopic rod (17) is fixedly mounted on the support platform (7). The support plate (6) is fixed on the support platform (7). The side end of the support plate (6) is fixed to the adapter guide (15). The adapter guide (15) is provided with a guide groove (13) for the adapter guide of the water pump (24). The upper end of the adapter guide (15) is also fixedly connected to a second track frame (11). The second track frame (11) is fixedly provided with a first track frame (10). The first track frame (10) and the second track frame (11) are used to support the second electric telescopic rod (12). The second electric telescopic rod (12) is equipped with an electromagnetic lock seat (14). The electromagnetic lock seat (14) is snapped into the water pump (24).

3. The automatic assembly production device for a high-pressure cleaner according to claim 2, characterized in that: The position sensor (16) senses the water pump (24), and the third electric telescopic rod (17) controls the water pump (24) to move upward, so that the water pump (24) reaches the side end of the adapter guide seat (15). The first electric telescopic rod (5) pushes the water pump (24) into the adapter guide seat (15), and the top of the water pump (24) is connected to the second electric telescopic rod (12) through the electromagnetic lock seat (14). The first electric telescopic rod (5) drives the second electric telescopic rod (12), the electromagnetic lock seat (14), and the water pump (24) to move. The guide groove (13) is used for guiding the water pump (24). When the water pump (24) reaches the position of the guide groove (13), the second electric telescopic rod (12) controls the electromagnetic lock seat (14) and the water pump (24) to descend, and performs the pressing assembly process of the water pump (24) and the bottom support shell (25).

4. The automatic assembly production device for a high-pressure washer according to claim 3, characterized in that: The automatic transmission structure (2) includes a transmission production component (19) and a matching extrusion component (20), with the transmission production component (19) fixedly installed on the matching extrusion component (20). The transmission production component (19) includes an adjustment mechanism (21) and a drive mechanism (22). The drive mechanism (22) is rotatably equipped with the adjustment mechanism (21). The adjustment mechanism (21) includes a first rotating disk (23). The lower end of the first rotating disk (23) is fixedly connected to a second rotating disk (31). The second rotating disk (31) is telescopically connected to a movable frame (32). The lower end of the movable frame (32) is fixedly connected to a contact wheel rod (33). The upper end of the movable frame (32) is fixed to an electromagnetic push seat (26). An electromagnetic push seat (30) is fixedly installed on the electromagnetic push seat (26). The electromagnetic push seat (30) controls the extrusion rod (28) to telescopically connect via a telescopic shaft (29). The extrusion rod (28) is slidably connected to the side end of the electromagnetic push seat (26) via a spring rod (27). The extrusion rod (28) is used for positioning the bottom support shell (25). The water pump (24) is snapped and fixed to the bottom support shell (25).

5. The automatic assembly production device for a high-pressure cleaner according to claim 4, characterized in that: The drive mechanism (22) includes a tray (35), a guide rail frame (37) is fixedly connected to the tray (35) via a fixing block (36), a stepper motor (34) is fixedly installed at the center of the tray (35), and a drive rod (39) is driven and connected to the stepper motor (34) via a gearbox (38). The drive rod (39) is fixedly connected to the first rotating disk (23) and the second rotating disk (31). The rotation of the drive rod (39) drives the first rotating disk (23) and the second rotating disk (31) to rotate. The guide rail frame (37) is rotatably connected to the contact wheel rod (33). The stepper motor (34) adopts an inclined ring structure design. When the contact wheel rod (33) moves on the stepper motor (34), it is extended and retracted to change the height position of the electromagnetic push seat (26).

6. The automatic assembly production device for a high-pressure cleaner according to claim 5, characterized in that: The mating extrusion component (20) includes a base plate (43), a fixed ring block (42) is fixedly connected to the base plate (43), and a hydraulic control seat (40) is fixedly connected to the fixed ring block (42) via a telescopic guide rod (41). The telescopic guide rod (41) is telescopically adjusted under the control of the hydraulic control seat (40), thereby causing the extrusion pusher (46) to telescopically adjust on the fixed ring block (42). The hydraulic control seat (40) is connected to the connecting guide seat (44), and the connecting guide seat (44) is connected to the cylinder (45). The lower end of the cylinder (45) is connected to the touch switch (48) through the spring connecting rod (47). The touch switch (48) contacts and extrudes the electromagnetic pusher seat (26) at the top position, thereby controlling the operation of the cylinder (45). The cylinder (45) is connected to the hydraulic control seat (40) through the connecting guide seat (44), thereby controlling the telescopic adjustment of the extrusion pusher (46).

7. The automatic assembly production device for a high-pressure cleaner according to claim 6, characterized in that: The material guiding structure (3) includes a material guiding platform (49), the front end of which is connected to a connecting guide platform (53). A limiting platform (52) is connected to the connecting guide platform (53), and a first telescopic guide frame (51) is also installed on the limiting platform (52). The lower ends of the connecting guide platform (53) and the limiting platform (52) are supported by a first fixed bearing seat (54). A fourth electrically controlled telescopic rod (50) is also fixedly installed on the first fixed bearing seat (54). The lower end of the material guiding platform (49) is supported by a support column seat (55). The fourth electrically controlled telescopic rod (50) moves the bottom support shell (25) by telescopic movement, so that the bottom support shell (25) is guided into the electromagnetic push seat (26) through the connecting guide platform (53) and the limiting platform (52). The first telescopic guide frame (51) adopts an extendable design and is aligned with the electromagnetic push seat (26).

8. The automatic assembly production device for a high-pressure washer according to claim 7, characterized in that: The discharge control structure (4) includes a second fixed support seat (59), a second conveyor belt (58) is provided on the second fixed support seat (59), a first conveyor belt (57) is connected to the side end of the second conveyor belt (58), and a second telescopic guide frame (56) is also fixedly connected on the second fixed support seat (59), and the second telescopic guide frame (56) is fixed to the second fixed support seat (59).

9. The automatic assembly production device for a high-pressure cleaner according to claim 8, characterized in that: The second telescopic guide frame (56) can be aligned with the electromagnetic pusher seat (26) to guide the water pump (24) and the bottom support shell (25). The electromagnetic pusher seat (26) pushes the water pump (24) and the bottom support shell (25) so that the water pump (24) and the bottom support shell (25) reach the second telescopic guide frame (56) and then are guided through the first conveyor belt (57) and the second conveyor belt (58).

10. The automatic assembly production device for a high-pressure cleaner according to claim 9, characterized in that: The first telescopic guide frame (51) adopts a telescopic design to prevent contact with the rotating electromagnetic push seat (26). The upper end of the base plate (43) is fixed to the tray (35). A groove is provided at the arc position of the first rotating disk (23), and the groove is adapted to the electromagnetic limit push rod (9). The electromagnetic limit push rod (9) can be inserted into the groove to lock the first rotating disk (23). At the same time, the stepper motor (34) is locked. A control switch is provided in the groove to provide guide and processing time.

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