An oil sump assembly automated assembly apparatus

Abstract

The application provides an oil tank assembly automatic assembling device, which comprises a device main body and a feeding tray, the feeding tray is provided with oil cup mounting positions and atomization mounting positions on the left and right sides, the device main body is provided with a feeding material conveying assembly, a material rotating conveying assembly, a first material moving assembly, a second material moving assembly and an assembling clamping positioning mechanism, the feeding tray is placed on the feeding material conveying assembly, the feeding material conveying assembly is provided with a feeding end and an assembling end at two ends respectively, the material rotating conveying assembly is provided with a first material rotating end and a second material rotating end at two ends respectively, the material rotating conveying assembly is provided with a material rotating tray, the material rotating tray is provided with an oil cup assembling position, the oil cup assembling position is provided with an auxiliary assembling bullet barrel, the first material moving assembly is arranged above the feeding end, the second material moving assembly is arranged above the assembling end, the second material moving assembly is provided with a clamping assembly and a pulling-off assembly, and the assembling clamping positioning mechanism is arranged at the assembling end. The beneficial effect is that the assembling standard is unified, and the assembling efficiency is improved.

Description

Technical Field

[0001] This invention relates to the field of electronic cigarette assembly equipment technology, and more specifically to an automated assembly equipment for oil tank components. Background Technology

[0002] An electronic cigarette is an electronic product that mimics the properties of a traditional cigarette. It vaporizes a nicotine-containing liquid using an atomizing component for inhalation. Electronic cigarettes typically contain a liquid reservoir assembly, which includes a liquid cup and an atomizer coil assembly. The liquid cup contains a reservoir of e-liquid, and the atomizer coil assembly consists of the coil itself and a silicone sealing base. The reservoir has a mounting channel that mates with the coil. To install the e-cigarette assembly, the reservoir is placed inside the liquid cup, the coil is then installed on the silicone sealing base, and finally, the coil is inserted into the mounting channel. The silicone sealing base then seals the bottom of the liquid cup, completing the installation of the e-cigarette assembly.

[0003] The assembly of existing oil tank components is mostly done manually, which is inefficient and can easily lead to inconsistent product quality as the workload increases, failing to meet the needs of high-efficiency production. Summary of the Invention

[0004] To address the problems in the prior art, this invention provides an automated assembly equipment for oil tank components, which solves the problems of low assembly efficiency and inconsistent product assembly quality caused by manual assembly in the prior art.

[0005] This invention discloses an automated assembly device for oil tank components, comprising a main body and a feeding tray. The feeding tray has oil cup mounting positions and atomizer mounting positions arranged on its left and right sides. The main body is equipped with a feeding and conveying component, a transfer and conveying component, a first material transfer assembly mechanism, a second material transfer assembly mechanism, and an assembly clamping and positioning mechanism. The feeding tray is placed on the feeding and conveying component, which is arranged parallel to it. The feeding and conveying component has a feeding end and an assembly end at its two ends, respectively, and can move the feeding tray from the feeding end to the assembly end. The transfer and conveying component has a first transfer end and a second transfer end at its two ends, respectively, and a transfer tray is mounted on it. The transfer and conveying component can move the transfer tray from the first transfer end to the second transfer end. The tray is equipped with an oil cup assembly position, which contains an auxiliary assembly cartridge. A first material transfer assembly mechanism is located above the feeding end, capable of mounting the material from the oil cup assembly position onto the auxiliary assembly cartridge. A second material transfer assembly mechanism is located above the assembly end, equipped with a clamping component and a extraction component. The second material transfer assembly mechanism, in conjunction with the clamping component, mounts the material from the oil cup assembly position onto the material in the auxiliary atomization assembly position, and in conjunction with the extraction component, extracts the material from the auxiliary assembly cartridge. An assembly clamping and positioning mechanism is located at the assembly end, capable of clamping and positioning the material in the atomization assembly position during the assembly process in conjunction with the second material transfer assembly mechanism.

[0006] The present invention is further improved by assembling a clamping and positioning mechanism comprising a left clamping assembly and a right clamping assembly. The left clamping assembly includes a left clamping frame, a left fixing assembly for the atomizing core, and a left fixing assembly for the fiberglass tube. The left fixing assembly for the atomizing core includes a left fixing row for the atomizing core and a left-side driving device for fixing the atomizing core. The moving end of the left-side driving device for fixing the atomizing core is fixedly connected to the left fixing row for the atomizing core. The left fixing row for the atomizing core has a left clamping part for the atomizing core on the side facing the right clamping assembly. The left fixing assembly for the fiberglass tube includes a left fixing row for the fiberglass tube and a left-side driving device for fixing the fiberglass tube. The moving end of the left-side driving device for fixing the fiberglass tube is fixedly connected to the left fixing row for fixing the fiberglass tube. The left fixing row for fixing the fiberglass tube faces the right clamping assembly. One side of the component is provided with a left clamping part for the fiberglass tube. The right clamping assembly includes a right clamping frame, a right fixing assembly for the atomizing core, and a right fixing assembly for the fiberglass tube. The right fixing assembly for the atomizing core includes a right fixing row for the atomizing core and a right driving device for atomizing core fixing. The moving end of the right driving device for atomizing core fixing is fixedly connected to the right fixing row for the atomizing core. The right fixing row for the atomizing core is provided with a right clamping part for the atomizing core that cooperates with the left clamping part for the atomizing core. The right fixing assembly for the fiberglass tube includes a right fixing row for the fiberglass tube and a right driving device for fixing the fiberglass tube. The moving end of the right driving device for fixing the fiberglass tube is fixedly connected to the right fixing row for the fiberglass tube. The right fixing row for the fiberglass tube is provided with a right clamping part for the fiberglass tube that cooperates with the left clamping part for the fiberglass tube.

[0007] The invention is further improved in that the left clamping part of the atomizing core consists of two left fixing plates of the atomizing core set on the left fixing row of the atomizing core, and the left fixing plates of the atomizing core are provided with multiple left fixing positions of the atomizing core. The right clamping part of the atomizing core consists of a right fixing plate of the atomizing core set on the right fixing row of the atomizing core, and the right fixing plate of the atomizing core is provided with multiple right fixing positions of the atomizing core. The two left fixing plates of the atomizing core are respectively set on the upper and lower sides of the right fixing plate of the atomizing core. The left clamping part of the fiberglass tube consists of two left fixing plates of the fiberglass tube set on the left fixing row of the fiberglass tube, and the left fixing plates of the fiberglass tube are provided with multiple left fixing positions of the fiberglass tube. The right clamping part of the fiberglass tube consists of a right fixing plate of the fiberglass tube set on the right fixing row of the fiberglass tube, and the right fixing plate of the fiberglass tube is provided with multiple right fixing positions of the fiberglass tube. The two left fixing plates of the fiberglass tube are respectively set on the upper and lower sides of the right fixing plate of the fiberglass tube.

[0008] The invention is further improved in that the left fixing row of the fiberglass tube is provided with a left fixing groove for the fiberglass end above the left clamping part of the fiberglass tube, and the right fixing row of the fiberglass tube is provided with a right fixing groove for the fiberglass end that cooperates with the left fixing groove for the fiberglass end. The left fixing groove and the right fixing groove for the fiberglass end together form a fiberglass end fixing groove. A limiting step is provided in the fiberglass end fixing groove to cooperate with the auxiliary assembly of the bullet tube.

[0009] The present invention is further improved in that the left fixing position of the atomizing core, the right fixing position of the atomizing core, the left fixing position of the fiberglass tube, and the right fixing position of the fiberglass tube are V-shaped.

[0010] The present invention is further improved in that the first material transfer assembly mechanism includes a material picking mounting frame and a material picking moving platform. The material picking mounting frame is provided with a platform moving device. One end of the material picking moving platform is fixedly connected to the moving end of the platform moving device. The platform moving device can drive the material picking moving platform to move linearly. The material picking moving platform is provided with a material tapping positioning component, a lifting drive component, and a gripper row component. The material tapping positioning component includes a material tapping lifting drive device and a material tapping row. The moving end of the material tapping lifting drive device is fixedly connected to the material tapping row. The material tapping lifting drive device can cooperate with the material tapping row to press and position the product. The moving end of the lifting drive component is fixedly connected to the gripper row component. The gripper row component includes a gripper drive component, a left gripper row, and a right gripper row. The moving end of the gripper drive component is connected to the left gripper row and the right gripper row respectively. Both the left gripper row and the right gripper row are provided with an oil-cotton pressing strip. The oil-cotton pressing strip can press and position the material while the gripper row component is clamping the material.

[0011] The present invention is further improved in that the material feeding and conveying assembly includes two material feeding and conveying belt assemblies, which are arranged at intervals and support the two sides of the material feeding tray respectively.

[0012] The invention is further improved by including an auxiliary material-feeding lifting mechanism, which is fixedly installed below the material supply conveyor belt assembly. The auxiliary material-feeding lifting mechanism includes an auxiliary material-feeding lifting cylinder and a lifting plate. A lifting column is provided on the lifting plate. The moving end of the auxiliary material-feeding lifting cylinder is fixedly connected to the lifting plate. The material supply tray is provided with a lifting hole that cooperates with the lifting column. The auxiliary material-feeding lifting cylinder can drive the lifting plate to lift the material supply tray between the two material supply conveyor belt assemblies to cooperate with the material-feeding positioning assembly for material position adjustment.

[0013] The invention is further improved by including an auxiliary rod lifting mechanism, which is located at the assembly end and below the material supply conveyor belt assembly. Multiple atomizing mounting slots are arranged side-by-side in the atomizing mounting position, each containing an auxiliary rod mounting hole. An auxiliary rod is installed in each of the auxiliary rod mounting holes. The auxiliary rod lifting mechanism includes a lifting cylinder and a lifting plate. The moving end of the auxiliary material lifting cylinder is fixedly connected to the lifting plate. The auxiliary material lifting cylinder can drive the lifting plate to simultaneously load multiple auxiliary rods into the material.

[0014] The invention is further improved by including a material detection component, which includes multiple through-beam fiber optic sensors. Multiple oil cup mounting slots are arranged side by side in the oil cup mounting position. The multiple through-beam fiber optic sensors are matched with the multiple oil cup mounting slots one by one. The through-beam fiber optic sensors include fiber optic receivers and fiber optic transmitters. The fiber optic receivers and fiber optic transmitters are respectively set on two feeding conveyor belt assemblies. The matching direction between the fiber optic receivers and fiber optic transmitters is not perpendicular to the feeding tray. The beam emitted by the fiber optic transmitter can avoid the product in the atomization mounting slot and the product in the oil cup mounting slot matches the fiber optic receiver.

[0015] The present invention is further improved in that the second material transfer assembly mechanism further includes a material transfer assembly frame and a material transfer assembly platform. The material transfer assembly frame is provided with a material transfer assembly drive device, the moving end of which is fixedly connected to the material transfer assembly platform. A material transfer assembly lifting cylinder is fixedly provided on the material transfer assembly platform. A material transfer assembly lifting frame is provided on the moving end of the material transfer assembly lifting cylinder. A extraction component is provided on the material transfer assembly lifting frame. The extraction component includes an extraction lifting cylinder, the moving end of which is provided with an extraction lifting frame. A left extraction clamping component and a right extraction clamping component are provided on the extraction lifting frame. The left extraction clamping component can cooperate with the right extraction clamping component to clamp the auxiliary assembled bullet cylinder. The clamping component is provided on the lower end face of the material transfer assembly lifting frame. The material transfer assembly lifting frame is provided with clamping windows that cooperate with the left and right extraction clamping components. The left and right extraction clamping components are located directly above the clamping components.

[0016] Compared with the prior art, the beneficial effects of the present invention are as follows: The present invention provides an automated assembly equipment for oil tank components. Its structure can effectively solve the problems of low assembly efficiency and inconsistent product assembly quality caused by manual assembly in the prior art. Through the cooperation of the first material transfer assembly mechanism 6 and the material transfer and conveying component 5, the auxiliary assembly bullet 50 can be loaded into the oil cup before loading the atomizing core component, thereby improving the success rate of loading the atomizing core component into the oil cup. Through the cooperation of the second material transfer assembly mechanism and the assembly clamping and positioning mechanism 8, the oil cup containing the auxiliary assembly bullet 50 can be accurately assembled with the atomizing core component, effectively achieving the uniformity of product assembly standards, improving the production efficiency of assembly, and meeting the needs of high-efficiency production. Attached Figure Description

[0017] To more clearly illustrate the solutions in this invention or the prior art, the accompanying drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this invention. For those skilled in the art, other drawings can be obtained from these drawings without creative effort.

[0018] Figure 1 This is a schematic diagram of the overall structure of the automated assembly equipment for the oil tank components; Figure 2 for Figure 1 Another perspective structural diagram; Figure 3 This is a schematic diagram of the material detection component structure; Figure 4 This is a schematic diagram of the first material transfer assembly mechanism; Figure 5 for Figure 4 Another perspective structural diagram; Figure 6 for Figure 4 Another perspective structural diagram; Figure 7 A schematic diagram of the assembly clamping and positioning mechanism; Figure 8 This is a schematic diagram of the auxiliary rod lifting mechanism. Detailed Implementation

[0019] Unless otherwise defined, all technical and scientific terms used in this invention have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains; the terminology used in this specification is for the purpose of describing particular embodiments only and is not intended to limit the invention; the terms "comprising" and "having," and any variations thereof, in the specification, claims, and foregoing drawings are intended to cover non-exclusive inclusion. The terms "first," "second," etc., in the specification, claims, or foregoing drawings are used to distinguish different objects, not to describe a particular order.

[0020] In this invention, the reference to "embodiment" means that a specific feature, structure, or characteristic described in connection with an embodiment may be included in at least one embodiment of the invention. The appearance of this phrase in various places in the specification does not necessarily refer to the same embodiment, nor is it a mutually exclusive, independent, or alternative embodiment to other embodiments. It will be explicitly and implicitly understood by those skilled in the art that the embodiments described in this invention can be combined with other embodiments.

[0021] To enable those skilled in the art to better understand the present invention, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings.

[0022] like Figures 1-8As shown, the present invention discloses an automated assembly equipment for oil tank components, comprising a main body and a feeding tray 1. The feeding tray 1 has oil cup mounting positions and atomizer mounting positions arranged on its left and right sides. The main body is equipped with a feeding and conveying component 4, a transfer and conveying component 5, a first material transfer assembly mechanism 6, a second material transfer assembly mechanism, and an assembly clamping and positioning mechanism 8. The feeding tray 1 is placed on the feeding and conveying component 4. The transfer and conveying component 5 is arranged parallel to the feeding and conveying component 4. The two ends of the feeding and conveying component 4 are a feeding end 41 and an assembly end 42, respectively. The feeding and conveying component 4 can move the feeding tray 1 from the feeding end 41 to the assembly end 42. The two ends of the transfer and conveying component 5 are a first transfer end 51 and a second transfer end 52, respectively. A transfer tray 53 is provided on the transfer and conveying component 5. The transfer and conveying component 5 can move the transfer tray 53 from the first transfer end 51 to the assembly end 42. The second transfer end 52 and the transfer tray 53 are provided with an oil cup assembly position, in which an auxiliary assembly bullet tube 50 is provided. The first material transfer assembly mechanism 6 is provided above the feeding end 41. The first material transfer assembly mechanism 6 can install the material in the oil cup installation position onto the auxiliary assembly bullet tube 50. The second material transfer assembly mechanism is provided above the assembly end 42. The second material transfer assembly mechanism is provided with a clamping component and a extraction component. The second material transfer assembly mechanism can cooperate with the clamping component to install the material in the oil cup assembly position onto the material in the auxiliary atomization installation position. The second material transfer assembly mechanism can also cooperate with the extraction component to extract the material from the auxiliary assembly bullet tube 50. The assembly clamping and positioning mechanism 8 is provided at the assembly end 42. The assembly clamping and positioning mechanism 8 can cooperate with the second material transfer assembly mechanism to clamp and position the material in the atomization installation position during the assembly process.

[0023] With the cooperation of the first material transfer assembly mechanism 6 and the material transfer and conveying component 5, the auxiliary assembly cartridge 50 can be installed into the oil cup before the atomizing core component is installed, which improves the success rate of installing the atomizing core component into the oil cup. With the cooperation of the second material transfer assembly mechanism and the assembly clamping and positioning mechanism 8, the oil cup containing the auxiliary assembly cartridge 50 can be accurately assembled with the atomizing core component, effectively realizing the uniformity of product assembly standards, improving the production efficiency of assembly, and meeting the needs of high-efficiency production.

[0024] The present invention is further improved by assembling a clamping and positioning mechanism 8, which includes a left clamping component and a right clamping component. The left clamping component includes a left clamping frame 81, a left fixing component for the atomizing core, and a left fixing component for the fiberglass tube. The left fixing component for the atomizing core includes a left fixing row 82 for the atomizing core and a left fixing drive device 83 for the atomizing core. The moving end of the left fixing drive device 83 for the atomizing core is fixedly connected to the left fixing row 82 for the atomizing core. The left fixing row 82 for the atomizing core has a left clamping part 821 for the atomizing core on the side facing the right clamping component. The left fixing component for the fiberglass tube includes a left fixing row 84 for the fiberglass tube and a left fixing drive device 85 for the fiberglass tube. The moving end of the left fixing drive device 85 for the fiberglass tube is fixedly connected to the left fixing row 84 for the fiberglass tube. The left fixing row 84 for the fiberglass tube is fixedly connected to the right clamping component. The device includes a left fiberglass tube clamping part 841 and a right clamping assembly including a right clamping frame 86, a right atomizing core fixing assembly, and a right fiberglass tube fixing assembly. The right atomizing core fixing assembly includes a right atomizing core fixing row 87 and a right atomizing core fixing drive device 88. The moving end of the right atomizing core fixing drive device 88 is fixedly connected to the right atomizing core fixing row 87. The right atomizing core fixing row 87 is provided with a right atomizing core clamping part 871 that cooperates with the left atomizing core clamping part 821. The right fiberglass tube fixing assembly includes a right fiberglass tube fixing row 89 and a right fiberglass tube fixing drive device 90. The moving end of the right fiberglass tube fixing drive device 90 is fixedly connected to the right fiberglass tube fixing row 89. The right fiberglass tube fixing row 89 is provided with a right fiberglass tube clamping part 891 that cooperates with the left fiberglass tube clamping part 841.

[0025] By setting up the left and right clamping components, the atomizer core assembly can be accurately positioned before assembly, ensuring that the concentricity of the oil cup and the atomizer core assembly is consistent, which facilitates subsequent assembly.

[0026] The present invention is further improved in that the left clamping part 821 of the atomizing core consists of two left fixing plates of the atomizing core on the left fixing row 82 of the atomizing core, and the left fixing plates of the atomizing core are provided with a plurality of left fixing positions of the atomizing core. The right clamping part 871 of the atomizing core consists of a right fixing plate of the atomizing core on the right fixing row 87 of the atomizing core, and the right fixing plate of the atomizing core is provided with a plurality of right fixing positions of the atomizing core. The two left fixing plates of the atomizing core are respectively provided on the upper and lower sides of the right fixing plate of the atomizing core. The left clamping part 841 of the fiberglass tube consists of two left fixing plates of the fiberglass tube on the left fixing row 84 of the fiberglass tube, and the left fixing plates of the fiberglass tube are provided with a plurality of left fixing positions of the fiberglass tube. The right clamping part 891 of the fiberglass tube consists of a right fixing plate of the fiberglass tube on the right fixing row 89 of the fiberglass tube, and the right fixing plate of the fiberglass tube is provided with a plurality of right fixing positions of the fiberglass tube. The two left fixing plates of the fiberglass tube are respectively provided on the upper and lower sides of the right fixing plate of the fiberglass tube.

[0027] By setting two atomizer core left fixing plates on the upper and lower sides of the atomizer core right fixing plate respectively, the fitting accuracy between the atomizer core left clamping part 821 and the atomizer core right clamping part 871 can be improved, and the position of the atomizer core body can be accurately positioned.

[0028] By setting two fiberglass tube left fixing plates on the upper and lower sides of the fiberglass tube right fixing plate respectively, the fitting accuracy between the fiberglass tube left clamping part 841 and the fiberglass tube right clamping part 891 can be improved, and the main body position of the fiberglass tube can be accurately positioned.

[0029] A fiberglass tube left fixing row 84 is provided with a fiberglass tube left limiting screw 842, and a left limiting head is provided on the fiberglass tube left limiting screw 842. A right limiting baffle that cooperates with the left limiting head is provided on the left clamping frame 81. A fiberglass tube right fixing row 89 is provided with a fiberglass tube right limiting screw 892, and a right limiting head is provided on the fiberglass tube right limiting screw 892. A right limiting baffle that cooperates with the right limiting head is provided on the right clamping frame 86.

[0030] The present invention is further improved in that the left fixing row 84 of the fiberglass tube is provided with a left fixing groove 843 of the fiberglass end above the left clamping part 841 of the fiberglass tube, and the right fixing row 89 of the fiberglass tube is provided with a right fixing groove 893 of the fiberglass end that cooperates with the left fixing groove 843 of the fiberglass end. The left fixing groove 843 of the fiberglass end and the right fixing groove 893 of the fiberglass end form a fiberglass end fixing groove. A limiting step 890 that cooperates with the auxiliary assembly bullet tube 50 is provided in the fiberglass end fixing groove.

[0031] By setting the fiberglass end fixing groove, the end of the fiberglass tube can be positioned, achieving simultaneous positioning of the atomizing core body, the fiberglass tube body, and the end of the fiberglass tube, thus improving the accuracy of installation. By setting the limiting step 890, before inserting the oil cup containing the auxiliary assembly bullet tube 50 into the atomizing core assembly, the lower end of the auxiliary assembly bullet tube 50 can be initially fitted onto the end of the fiberglass tube of the atomizing core assembly to avoid subsequent assembly failure. After the initial fitting, the subsequent assembly process can be carried out.

[0032] The present invention is further improved in that the left fixing position of the atomizing core, the right fixing position of the atomizing core, the left fixing position of the fiberglass tube, and the right fixing position of the fiberglass tube are V-shaped.

[0033] The V-shaped design allows for precise positioning of the atomizer core and fiberglass tube, providing a foundation for accurate installation.

[0034] The present invention is further improved in that the first material transfer assembly mechanism 6 includes a material picking mounting frame 61 and a material picking moving platform 62. A platform moving device 611 is provided on the material picking mounting frame 61. One end of the material picking moving platform 62 is fixedly connected to the moving end of the platform moving device 611. The platform moving device 611 can drive the material picking moving platform 62 to move linearly. The material picking moving platform 62 is provided with a material tapping positioning component, a lifting drive component, and a gripper assembly. The material tapping positioning component includes a material tapping lifting drive device 631 and a material tapping rack 632. The material tapping lifting drive device 631... The moving end is fixedly connected to the material feeding rack 632. The material feeding lifting drive device 631 can cooperate with the material feeding rack 632 to press and position the product. The moving end of the lifting drive component is fixedly connected to the gripper rack assembly. The gripper rack assembly includes a gripper drive component, a left gripper rack 651 and a right gripper rack 652. The moving end of the gripper drive component is connected to the left gripper rack 651 and the right gripper rack 652 respectively. Both the left gripper rack 651 and the right gripper rack 652 are provided with oil cotton pressing racks 653. The oil cotton pressing racks 653 can press and position the material while the gripper rack assembly is clamping the material.

[0035] By setting up the material positioning component and the oil cotton pressing plate 653, the structure and position of the atomizing component and oil cup can be repositioned before material transfer, avoiding affecting the subsequent assembly accuracy. The adjustment function is integrated into the handling mechanism, which improves the integration level of the mechanism, compresses the production line structure, and improves processing efficiency, thus meeting the needs of high-efficiency production.

[0036] During processing and assembly, the oil cup containing the oil storage cotton and the atomizing core assembly are first loaded onto the feeding tray 1 through the front-end equipment.

[0037] The platform moving device 611 drives the material picking moving platform 62 to move, so that the material picking and positioning component moves above the atomizing core component. The material picking lifting drive device 631 drives the material picking row 632 to descend and press and position the atomizing core component. After the position adjustment is completed, the material picking lifting drive device 631 drives the material picking row 632 to rise and return to its original position.

[0038] The platform moving device 611 drives the material picking moving platform 62 to move, so that the left clamping bar 651 and the right clamping bar 652 move above the oil cup. The lifting drive component drives the left clamping bar 651 and the right clamping bar 652 to descend. At the same time as descending, the oil cotton pressing bar 653 presses and positions the oil cotton stored in the oil cup. After descending to the designated position, the gripper drive component controls the left clamping bar 651 and the right clamping bar 652 to clamp. The lifting drive component drives the left clamping bar 651 and the right clamping bar 652 to rise. The platform moving device 611 then drives the material picking moving platform 62 to move, so that the left clamping bar 651 and the right clamping bar 652 move to the designated position. Then, in conjunction with the lifting drive component and the gripper drive component, the left clamping bar 651 and the right clamping bar 652 are controlled to place the material in the designated position.

[0039] The material tapping plate 632 is provided with multiple material tapping heads 633, and the lower end of the material tapping head 633 is provided with a material tapping groove 6331. The side of the material tapping groove 6331 is provided with a pressing protrusion 6332.

[0040] The feeding head 633 can be used to press and position the atomizer core body on the silicone sealing base again, ensuring the accuracy of the assembly position of the atomizer core body and the silicone sealing base. At the same time, the pressing protrusion 6332 can be used to press and position the silicone sealing base of the atomizer core on the feeding tray 1 again, ensuring the accuracy of the subsequent assembly process.

[0041] The material feeding slot 6331 is shaped like a frustum. This frustum shape makes it easier for the atomizing core to move to the center of the material feeding slot 6331, thus improving the tolerance for material feeding errors.

[0042] Both the left clamping bar 651 and the right clamping bar 652 are provided with installation steps that cooperate with the oil cotton pressing bar 653. Multiple positioning grooves 6511 are provided below the installation steps. One side of the oil cotton pressing bar 653 is set on the installation steps, and multiple pressing blocks 6531 are provided on the other side of the oil cotton pressing bar 653 extending downward. The multiple pressing blocks 6531 cooperate with the multiple positioning grooves 6511 one by one.

[0043] While the lifting drive component drives the gripper assembly to descend, the pressing block 6531 can press the oil storage cotton in the oil cup and reposition the position of the oil storage cotton to avoid the oil storage cotton not being installed in place, which would affect the subsequent assembly process. This improves the integration of the mechanism and allows for direct repositioning of the product components during the clamping process.

[0044] The positioning groove 6511 is V-shaped. The V-shape makes it easier for the oil cup to be inserted into the middle of the positioning groove 6511 during clamping, thus improving the accuracy of clamping.

[0045] The gripper drive assembly includes a gripping drive motor 661, a first drive belt 662, and a linkage assembly. The moving end of the gripping drive motor 661 is provided with a drive wheel 663. The linkage assembly includes a linkage rod 664 and two linkage pulley assemblies. The linkage pulley assembly includes a linkage wheel 665, a driven wheel 666, and a linkage belt 667. The two linkage wheels 665 are respectively fixedly installed at both ends of the linkage rod 664. The linkage belt 667 is sleeved on the linkage wheel 665 and the driven wheel 666. The first drive belt 662 is sleeved on the drive wheel 663 and one of the linkage wheels 665. Both ends of the left gripping bar 651 and the right gripping bar 652 are provided with belt clamping members 668. The left gripping bar 651 and the right gripping bar 652 are respectively connected to the linkage belt 667 through the belt clamping members 668. The gripping drive motor 661 can drive the left gripping bar 651 and the right gripping bar 652 to move closer or further apart.

[0046] The moving end of the clamping drive motor 661 drives the drive wheel 663 to rotate. Under the action of the first drive belt 662, the linkage wheel 665 rotates. The rotation of the linkage wheel 665 drives the linkage rod 664 to rotate, which in turn drives the two linkage belt pulley assemblies to move, thereby causing the linkage belt 667 to rotate. The two ends of the left clamping pile 651 and the right clamping pile 652 are respectively clamped by the belt clamping member 668, causing the linkage belt 667 to rotate and drive the left clamping pile 651 and the right clamping pile 652 to move away from or closer to each other.

[0047] The lifting drive assembly includes a lifting cylinder 641 and multiple lifting guide columns 642. The lifting cylinder 641 is fixedly mounted on the material handling moving platform 62. The gripper assembly also includes a clamping mounting frame 654. The gripper drive assembly, the left clamping column 651, and the right clamping column 652 are all mounted on the clamping mounting frame 654. The lower end of the lifting guide column 642 is fixedly connected to the clamping mounting frame 654. The material handling moving platform 62 is provided with a lifting guide hole that cooperates with the lifting guide column 642. The upper end of the lifting guide column 642 passes through the lifting guide hole. The moving end of the lifting cylinder 641 is fixedly connected to the clamping mounting frame 654.

[0048] The cooperation between the lifting guide column 642 and the lifting guide hole can improve the stability of the lifting cylinder 641 driving the clamping mounting frame 654 during the lifting process.

[0049] The lower end face of the clamping mounting bracket 654 is also provided with a guide slide rail 6542. The left clamping row 651 and the right clamping row 652 are provided with guide sliders 6512 that cooperate with the guide slide rail 6542. The left clamping row 651 and the right clamping row 652 are slidably connected to the guide slide rail 6542.

[0050] The material handling mounting frame 61 is equipped with a movable slide rail 610, and the other end of the material handling moving platform 62 is equipped with a movable slider that cooperates with the movable slide rail 610. The material handling moving platform 62 is slidably connected to the movable slide rail 610.

[0051] The coordination of the movable slide rail 610 and the movable slider can effectively improve the stability of the platform moving device 611 driving the material picking moving platform 62 to move.

[0052] The present invention is further improved in that the material feeding and conveying component 4 includes two material feeding and conveying belt components, which are arranged at intervals and support the two sides of the material feeding tray 1 respectively, so as to stably drive the material feeding tray 1 from the material feeding end 41 to the assembly end 42.

[0053] The present invention is further improved by including an auxiliary material feeding and lifting mechanism 9. The auxiliary material feeding and lifting mechanism 9 is fixedly installed below the material feeding conveyor belt assembly. The auxiliary material feeding and lifting mechanism 9 includes an auxiliary material feeding and lifting cylinder and a lifting plate. A lifting column is provided on the lifting plate. The moving end of the auxiliary material feeding and lifting cylinder is fixedly connected to the lifting plate. The material feeding tray 1 is provided with a positioning hole 13 that cooperates with the lifting column.

[0054] The auxiliary material-feeding lifting cylinder can drive the lifting plate to lift the material tray 1 between the two material-feeding conveyor belt assemblies, and work with the material-feeding positioning assembly to adjust the material position, so as to prevent the material tray 1 from shaking when the material-feeding positioning assembly presses the atomizing core assembly.

[0055] The invention is further improved by including an auxiliary rod lifting mechanism, which is located at the assembly end 42 and below the material supply conveyor belt assembly. Multiple atomizing mounting slots are arranged side-by-side in the atomizing mounting position, each containing an auxiliary rod mounting hole. An auxiliary rod is installed in each of the auxiliary rod mounting holes. The auxiliary rod lifting mechanism includes a lifting cylinder 100 and a lifting plate 101. The moving end of the auxiliary material lifting cylinder is fixedly connected to the lifting plate 101. The auxiliary material lifting cylinder can drive the lifting plate 101 to simultaneously load multiple auxiliary rods into the material.

[0056] By inserting the auxiliary rod into the atomizing core assembly, a foundation can be provided for subsequent assembly processes. Inserting the auxiliary rod is set as the final assembly process for the equipment in this solution.

[0057] The invention is further improved by including a material detection component 3. Multiple oil cup mounting slots 11 are arranged side-by-side in the oil cup mounting position, and multiple atomizing mounting slots 12 are arranged side-by-side in the atomizing mounting position. The material detection component 3 includes multiple through-beam fiber optic sensors, each cooperating with one of the multiple oil cup mounting slots 11. Each through-beam fiber optic sensor includes a fiber optic receiver 31 and a fiber optic transmitter 32, which are respectively located on the sides of the oil cup mounting position and the atomizing mounting position. The cooperation direction between the fiber optic receiver 31 and the fiber optic transmitter 32 is not perpendicular to the feeding tray 1, and the beam emitted by the fiber optic transmitter 32 can avoid the product in the atomizing mounting slot 12 and the product passing through the oil cup mounting slot 11 cooperates with the fiber optic receiver 31.

[0058] By setting up oil cup mounting positions and atomizing mounting positions, two types of materials can be loaded simultaneously, effectively avoiding the need to set up multiple feeding lines to increase the size of the equipment and reducing the equipment's footprint. At the same time, in conjunction with the fiber optic receiver 31 and fiber optic transmitter 32, the presence or absence of oil cotton in the oil cup 10 within the oil cup mounting slot 11 can be detected by oblique misalignment, providing a foundation for accurate subsequent assembly and effectively improving the equipment's high-efficiency production requirements.

[0059] When assembling the equipment, the atomizing core assembly 11 and the transparent oil cup 10 are first placed on the feeding tray 1 by the front-end device. The transparent oil cup 10 is equipped with white oil storage cotton. After it is installed, the fiber optic transmitter 32 emits a light beam to the fiber optic receiver 31. When there is white oil storage cotton in the transparent oil cup 10, it blocks the light. If there is no white oil storage cotton in the transparent oil cup 10, the fiber optic receiver 31 receives the light, and the through-beam fiber optic sensor detects that no oil storage cotton is installed and triggers an alarm.

[0060] The material detection assembly 3 also includes a transmitter mounting frame 33 and a receiver mounting frame 34. Multiple fiber optic transmitters 32 are fixedly mounted on the transmitter mounting frame 33, and multiple fiber optic receivers 31 are fixedly mounted on the receiver mounting frame 34. Both the transmitter mounting frame 33 and the receiver mounting frame 34 are provided with lifting adjustment holes 35, which allow the installation height of the fiber optic transmitters 32 and the fiber optic receivers 31 to be changed.

[0061] During installation, the fiber optic receiver 31 and fiber optic transmitter 32 are fixed to the assembly equipment 1 used for assembling oil tank components by means of the lifting adjustment hole 35 and screws. At the same time, the lifting adjustment hole 35 can effectively adjust the installation height of the fiber optic receiver 31 and fiber optic transmitter 32, improving the flexibility of use.

[0062] The lifting adjustment hole 35 is a long rectangular shape.

[0063] Multiple oil cup mounting slots 11 are equally spaced in the oil cup mounting position, multiple atomizing mounting slots 12 are equally spaced in the atomizing mounting position, multiple fiber optic receivers 31 are equally spaced on the receiver mounting frame 34, and multiple fiber optic transmitters 32 are equally spaced on the transmitter mounting frame 33.

[0064] Equal spacing ensures uniformity in product installation locations, facilitating subsequent product handling and transportation.

[0065] The atomizing mounting slot 12 has a pin positioning notch 121 on its side, and the pin positioning notch 121 is connected to the atomizing mounting slot 12.

[0066] By setting the pin positioning notch 121, the power connection pins of the atomizer core body can be positioned and guided when the atomizer core assembly 11 is installed, so that after the atomizer core assembly 11 is installed, the power connection pins are set in the pin positioning notch 121, thus avoiding interference with the installation.

[0067] The feeding tray 1 is provided with positioning holes 13. By setting the positioning holes 13, the position of the feeding tray 1 can be fixed by inserting the external positioning pin into the positioning holes 13 during the product placement process, so as to avoid shaking.

[0068] Both the upper outer surface of the oil cup mounting slot 11 and the atomizing mounting slot 12 are provided with a ring of guide slope 14. By setting the guide slope 14, when the product is inserted from top to top, the guide slope 14 can play a guiding role in the installation, improving the accuracy of product insertion.

[0069] In a further improvement, the second material transfer assembly mechanism further includes a material transfer assembly frame 71 and a material transfer assembly platform 72. A material transfer assembly drive device 73 is mounted on the material transfer assembly frame 71, and the moving end of the drive device 73 is fixedly connected to the platform 72. A material transfer assembly lifting cylinder 74 is fixedly mounted on the platform 72, and a material transfer assembly lifting frame 75 is mounted on the moving end of the cylinder 74. A removal component is mounted on the lifting frame 75, and the removal component includes a removal lifting cylinder 76. The moving end of cylinder 76 is provided with a pull-out lifting frame 77. The pull-out lifting frame 77 is provided with a left pull-out clamping component 78 and a right pull-out clamping component 79. The left pull-out clamping component 78 can cooperate with the right pull-out clamping component 79 to clamp the auxiliary assembly bullet cylinder 50. The clamping components are located on the lower end face of the material transfer assembly lifting frame 75. The material transfer assembly lifting frame 75 is provided with clamping windows that cooperate with the left pull-out clamping component 78 and the right pull-out clamping component 79. The left pull-out clamping component 78 and the right pull-out clamping component 79 are located directly above the clamping components.

[0070] There are two material transfer and conveying components 5, and the two material transfer and conveying components 5 alternately transport materials.

[0071] The transfer tray 53 is provided with two oil cup assembly positions, and multiple oil cup assembly slots 531 are arranged side by side in the oil cup assembly positions. Each oil cup assembly slot 531 in one of the oil cup assembly positions is provided with an auxiliary assembly bullet tube 50. The other oil cup assembly position is empty, providing a position for subsequent transfer.

[0072] This solution provides an automated assembly equipment for oil tank components. The specific assembly process is as follows: First, the atomizing core assembly and the oil cup containing the oil storage cotton are placed in the atomizing installation slot and the oil cup installation slot of the feeding tray, respectively, through the front-end device.

[0073] The feeding conveyor belt assembly moves the feeding tray above the auxiliary feeding lifting mechanism 9. The auxiliary feeding lifting cylinder lifts the feeding tray, and the feeding lifting drive device controls the feeding tray to descend, pressing and positioning the atomizing core assembly in the atomizing installation slot to ensure the accuracy of the atomizing core assembly's position in the atomizing installation slot.

[0074] After the material is fed, the oil cup containing the oil storage cotton is moved to the transfer tray 53 by the gripper assembly. In the initial state, the oil cup assembly slot 531 in one of the oil cup assembly positions is equipped with an auxiliary assembly bullet tube 50.

[0075] The gripper assembly places the oil cup containing the oil storage cotton onto the auxiliary assembly bullet tube 50.

[0076] After the installation is completed, the auxiliary material lifting mechanism 9 is reset, the material supply conveyor belt assembly moves the material supply tray to the assembly end 42, and at the same time the material transfer and conveying assembly 5 moves the material transfer tray 53 to the second material transfer end 52.

[0077] The assembly clamping and positioning mechanism 8 positions the atomizing core assembly in the atomizing core mounting slot. The material transfer assembly lifting cylinder 74 descends, causing the clamping component and the extraction component to clamp the oil cup and the auxiliary assembly bullet tube 50 respectively. The material transfer assembly lifting cylinder 74 resets, and at the same time, the extraction lifting cylinder 76 extracts the auxiliary assembly bullet tube 50 from the oil cup a specified distance.

[0078] The material transfer assembly drive device 73 controls the clamping component to move above the atomizing core component, and the material transfer assembly lifting cylinder 74 descends, so that the lower end of the auxiliary assembly bullet tube 50 is placed in the fiberglass end fixing groove, and at the same time, the lower end of the auxiliary assembly bullet tube 50 is sleeved on the upper end of the fiberglass tube.

[0079] The fiberglass tube fixing right drive device 90 and the fiberglass tube fixing left drive device 85 respectively drive the fiberglass tube right fixing row 89 and the fiberglass tube left fixing row 84 to separate.

[0080] After separation, the material transfer assembly lifting cylinder 74 continues to descend, so that the auxiliary assembly bullet tube 50 is then placed around the entire fiberglass tube.

[0081] The atomizing fixing left drive device 83 and the atomizing fixing right drive device 88 respectively drive the atomizing core left fixing row 82 and the atomizing core left fixing row 82 to separate.

[0082] After separation, the material transfer assembly lifting cylinder 74 continues to descend, while the extraction lifting cylinder 76 extracts the auxiliary assembly bullet tube 50 from the oil cup.

[0083] After the material transfer assembly lifting cylinder 74 descends to the designated distance, the assembly is completed. The material transfer assembly lifting cylinder 74 is then reset. At the same time, the auxiliary assembly bullet cylinder 50 of the extraction component is placed into one of the oil cup assembly positions of the transfer tray 53 of the second transfer end 52 to facilitate the subsequent assembly of the oil cup.

[0084] As can be seen from the above, the beneficial effects of the present invention are as follows: by adopting its structure, it can effectively solve the problems of low assembly efficiency and inconsistent product assembly quality caused by manual assembly in the prior art. Through the cooperation of the first material transfer assembly mechanism 6 and the material transfer and conveying component 5, the auxiliary assembly bullet tube 50 can be installed into the oil cup before the atomizing core component is installed, thereby improving the success rate of subsequent installation of the atomizing core component into the oil cup. Through the cooperation of the second material transfer assembly mechanism and the assembly clamping and positioning mechanism 8, the oil cup containing the auxiliary assembly bullet tube 50 can be accurately assembled with the atomizing core component, effectively realizing the uniformity of product assembly standards, improving the production efficiency of assembly, and meeting the needs of high-efficiency production.

[0085] The specific embodiments described above are preferred embodiments of the present invention and are not intended to limit the specific scope of the present invention. The scope of the present invention includes, but is not limited to, these specific embodiments. All equivalent changes made in accordance with the present invention are within the protection scope of the present invention.

Claims

1. An automated assembly equipment for oil tank components, characterized in that: The device includes a main body and a feeding tray. The feeding tray has oil cup mounting positions and atomizer mounting positions on its left and right sides. The main body is equipped with a feeding and conveying component, a transfer and conveying component, a first material transfer assembly mechanism, a second material transfer assembly mechanism, and an assembly clamping and positioning mechanism. The feeding tray is placed on the feeding and conveying component. The transfer and conveying component is arranged parallel to the feeding and conveying component. The feeding and conveying component has a feeding end and an assembly end at its two ends, respectively. The feeding and conveying component can move the feeding tray from the feeding end to the assembly end. The transfer and conveying component has a first transfer end and a second transfer end at its two ends, respectively. The transfer and conveying component has a transfer tray on its side. The transfer and conveying component can move the transfer tray from the first transfer end to the second transfer end. The transfer tray has oil cup assembly positions. An auxiliary assembly cartridge is provided in the oil cup assembly position. The first material transfer assembly mechanism is located above the feeding end. The first material transfer assembly mechanism can install the material in the oil cup assembly position onto the auxiliary assembly cartridge. The second material transfer assembly mechanism is located above the assembly end. The second material transfer assembly mechanism is provided with a clamping component and a extraction component. The second material transfer assembly mechanism can cooperate with the clamping component to install the material in the oil cup assembly position onto the material in the auxiliary atomizing assembly position. The second material transfer assembly mechanism can cooperate with the extraction component to extract the material from the auxiliary assembly cartridge. The assembly clamping and positioning mechanism is located at the assembly end. The assembly clamping and positioning mechanism can cooperate with the second material transfer assembly mechanism to clamp and position the material in the atomizing assembly position during the assembly process.

2. The automated assembly equipment for oil tank components according to claim 1, characterized in that: The assembly clamping and positioning mechanism includes a left clamping assembly and a right clamping assembly. The left clamping assembly includes a left clamping frame, a left atomizing core fixing assembly, and a left fiberglass tube fixing assembly. The left atomizing core fixing assembly includes a left atomizing core fixing row and a left atomizing core fixing drive device. The moving end of the left atomizing core fixing drive device is fixedly connected to the left atomizing core fixing row. The left atomizing core fixing row has a left atomizing core clamping part on the side facing the right clamping assembly. The left fiberglass tube fixing assembly includes a left fiberglass tube fixing row and a left fiberglass tube fixing drive device. The moving end of the left fiberglass tube fixing drive device is fixedly connected to the left fiberglass tube fixing row. The left fiberglass tube fixing row has a left atomizing core clamping part on the side facing the right clamping assembly. The device includes a left clamping part for the fiberglass tube. The right clamping assembly comprises a right clamping frame, a right fixing assembly for the atomizing core, and a right fixing assembly for the fiberglass tube. The right fixing assembly for the atomizing core includes a right fixing row for the atomizing core and a right driving device for fixing the atomizing core. The moving end of the right driving device for fixing the atomizing core is fixedly connected to the right fixing row for the atomizing core. The right fixing row for the atomizing core is provided with a right clamping part for the atomizing core that cooperates with the left clamping part for the atomizing core. The right fixing assembly for the fiberglass tube includes a right fixing row for the fiberglass tube and a right driving device for fixing the fiberglass tube. The moving end of the right driving device for fixing the fiberglass tube is fixedly connected to the right fixing row for the fiberglass tube. The right fixing row for the fiberglass tube is provided with a right clamping part for the fiberglass tube that cooperates with the left clamping part for the fiberglass tube.

3. The automated assembly equipment for oil tank components according to claim 2, characterized in that: The left clamping part of the atomizing core consists of two left fixing plates on the left fixing row of the atomizing core, each with multiple left fixing positions. The right clamping part of the atomizing core consists of a right fixing plate on the right fixing row of the atomizing core, each with multiple right fixing positions. The two left fixing plates are respectively located on the upper and lower sides of the right fixing plate. The left clamping part of the fiberglass tube consists of two left fixing plates on the left fixing row of the fiberglass tube, each with multiple left fixing positions. The right clamping part of the fiberglass tube consists of a right fixing plate on the right fixing row of the fiberglass tube, each with multiple right fixing positions. The two left fixing plates are respectively located on the upper and lower sides of the right fixing plate.

4. The automated assembly equipment for oil tank components according to claim 2, characterized in that: The left fixing row of the fiberglass tube is provided with a left fixing groove for the fiberglass end above the left clamping part of the fiberglass tube, and the right fixing row of the fiberglass tube is provided with a right fixing groove for the fiberglass end that cooperates with the left fixing groove for the fiberglass end. The left fixing groove for the fiberglass end and the right fixing groove for the fiberglass end together form a fiberglass end fixing groove. A limiting step that cooperates with the auxiliary assembly bullet tube is provided in the fiberglass end fixing groove.

5. The automated assembly equipment for oil tank components according to claim 3, characterized in that: The left and right fixing positions of the atomizing core, the left and right fixing positions of the fiberglass tube are V-shaped.

6. The automated assembly equipment for oil tank components according to claim 1, characterized in that: The first material transfer assembly mechanism includes a material picking mounting frame and a material picking moving platform. The material picking mounting frame is equipped with a platform moving device. One end of the material picking moving platform is fixedly connected to the moving end of the platform moving device. The platform moving device can drive the material picking moving platform to move linearly. The material picking moving platform is equipped with a material tapping positioning component, a lifting drive component, and a gripper row component. The material tapping positioning component includes a material tapping lifting drive device and a material tapping row. The moving end of the material tapping lifting drive device is fixedly connected to the material tapping row. The material tapping lifting drive device can cooperate with the material tapping row to press and position the product. The moving end of the lifting drive component is fixedly connected to the gripper row component. The gripper row component includes a gripper drive component, a left gripper row, and a right gripper row. The moving end of the gripper drive component is connected to the left gripper row and the right gripper row, respectively. Both the left gripper row and the right gripper row are equipped with an oil-cotton pressing strip. The oil-cotton pressing strip can press and position the material while the gripper row component clamps the material.

7. The automated assembly equipment for oil tank components according to claim 6, characterized in that: The material supply and conveying assembly includes two material supply and conveying belt assemblies, which are spaced apart and support both sides of the material supply tray respectively.

8. The automated assembly equipment for oil tank components according to claim 7, characterized in that: It also includes an auxiliary material-feeding lifting mechanism, which is fixedly installed below the material supply conveyor belt assembly. The auxiliary material-feeding lifting mechanism includes an auxiliary material-feeding lifting cylinder and a lifting plate. A lifting column is provided on the lifting plate. The moving end of the auxiliary material-feeding lifting cylinder is fixedly connected to the lifting plate. The material supply tray is provided with a lifting hole that cooperates with the lifting column. The auxiliary material-feeding lifting cylinder can drive the lifting plate to lift the material supply tray from between the two material supply conveyor belt assemblies to cooperate with the material-feeding positioning assembly for material position adjustment.

9. The automated assembly equipment for oil tank components according to claim 7, characterized in that: It also includes an auxiliary rod lifting mechanism, which is located at the assembly end and below the material supply conveyor belt assembly. Multiple atomizing mounting slots are arranged side-by-side in the atomizing mounting position, each atomizing mounting slot has an auxiliary rod mounting hole, and an auxiliary rod is installed in each auxiliary rod mounting hole. The auxiliary rod lifting mechanism includes a lifting cylinder and a lifting plate. The moving end of the auxiliary material lifting cylinder is fixedly connected to the lifting plate. The auxiliary material lifting cylinder can drive the lifting plate to simultaneously load multiple auxiliary rods into the material.

10. The automated assembly equipment for oil tank components according to claim 8, characterized in that: It also includes a material detection component, which includes multiple through-beam fiber optic sensors. Multiple oil cup mounting slots are arranged side by side in the oil cup mounting position. The multiple through-beam fiber optic sensors are matched with the multiple oil cup mounting slots one by one. The through-beam fiber optic sensors include fiber optic receivers and fiber optic transmitters. The fiber optic receivers and fiber optic transmitters are respectively mounted on two feeding conveyor belt assemblies. The matching direction between the fiber optic receivers and fiber optic transmitters is not perpendicular to the feeding tray. The beam emitted by the fiber optic transmitter can avoid the product in the atomizing mounting slot. The product passing through the oil cup mounting slot matches the fiber optic receiver.

11. The automated assembly equipment for oil tank components according to any one of claims 1-10, characterized in that: The second material transfer assembly mechanism further includes a material transfer assembly frame and a material transfer assembly platform. A material transfer assembly drive device is mounted on the material transfer assembly frame, and the moving end of the material transfer assembly drive device is fixedly connected to the material transfer assembly platform. A material transfer assembly lifting cylinder is fixedly mounted on the material transfer assembly platform, and a material transfer assembly lifting frame is mounted on the moving end of the material transfer assembly lifting cylinder. The extraction component is mounted on the material transfer assembly lifting frame, and the extraction component includes an extraction lifting cylinder, with an extraction lifting frame mounted on the moving end of the extraction lifting cylinder. A left extraction clamping component and a right extraction clamping component are mounted on the extraction lifting frame. The left extraction clamping component can cooperate with the right extraction clamping component to clamp the auxiliary assembled bullet cylinder. The clamping component is mounted on the lower end face of the material transfer assembly lifting frame, and the material transfer assembly lifting frame has clamping windows that cooperate with the left and right extraction clamping components. The left and right extraction clamping components are positioned directly above the clamping components.

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