A 5G antenna feeding and assembly equipment

Abstract

This invention discloses a 5G antenna feeding and assembly equipment, comprising: a first assembly turntable device including a plurality of first assembly stations; a first feeding device for feeding fiber optic connector bases to the first assembly stations; a second feeding device for feeding fiber optic ferrules to the first assembly stations; a third feeding device for feeding fiber optic terminals to the first assembly stations; a pre-insertion device for assembling fiber optic ferrules and fiber optic terminals; a terminal pressing device for pressing fiber optic ferrules and fiber optic terminals into fiber optic connector bases to obtain fiber optic connectors; a second assembly turntable device including a plurality of second assembly stations; a material transfer device; a fourth feeding device for feeding a substrate with feeder circuitry to the second assembly stations; a fifth feeding device for feeding radio frequency chips to the second assembly stations; a connector pressing device for pressing fiber optic connectors onto the substrate; and a chip mounting device for mounting radio frequency chips onto the substrate to obtain a 5G antenna.

Description

Technical Field

[0001] This invention relates to the field of antenna assembly equipment technology, and more specifically to a 5G antenna feeding and assembly equipment. Background Technology

[0002] The existing 5G antenna assembly equipment suffers from poor operational continuity between its various processes, requiring separate production lines for fiber optic connector assembly, fiber optic connector press-fitting, and RF chip mounting. The overall equipment occupies a significant amount of operating space. Furthermore, the orderly arrangement of components during loading can lead to material shortages, disrupting subsequent operations and impacting overall assembly efficiency. Moreover, ensuring the perpendicularity of fiber optic ferrules during fiber optic connector assembly is challenging, as is ensuring the precision and alignment of assembly positions and angles. Additionally, the press-fitting of fiber optic connectors and the mounting of RF chips are limited, failing to meet the high-precision assembly requirements. Summary of the Invention

[0003] To overcome the above-mentioned technical problems, the present invention discloses a 5G antenna feeding and assembly device.

[0004] The technical solution adopted by the present invention to achieve the above objectives is as follows:

[0005] A 5G antenna feeding and assembly equipment, comprising:

[0006] The first assembly turntable device includes several first assembly stations;

[0007] The first feeding device is used to feed the optical fiber connector base to the first assembly station;

[0008] The second feeding device is used to feed optical fiber ferrules to the first assembly station.

[0009] The third feeding device is used to feed optical fiber terminals to the first assembly station.

[0010] A pre-insertion device is provided corresponding to the first assembly station and is used to assemble the fiber optic ferrule and fiber optic terminal.

[0011] A terminal pressing device is provided corresponding to the first assembly station and is used to press the fiber optic ferrule and fiber optic terminal into the fiber optic connector base to obtain a fiber optic connector.

[0012] The second assembly turntable device includes several second assembly stations;

[0013] A material transfer device is used to clamp the optical fiber connector and transfer it from the first assembly turntable device to the second assembly turntable device;

[0014] The fourth feeding device is used to feed the substrate with the feeder circuit to the second assembly station;

[0015] The fifth feeding device is used to feed radio frequency chips to the second assembly station;

[0016] A connector pressing device is provided corresponding to the second assembly station and is used to press the optical fiber connector onto the substrate.

[0017] A chip mounting device is provided corresponding to the second assembly station and is used to mount the radio frequency chip onto the substrate to obtain a 5G antenna.

[0018] The aforementioned 5G antenna feeding and assembly equipment, wherein the terminal pre-insertion device includes a pre-insertion mechanism;

[0019] The pre-insertion mechanism includes a pre-pressing pin assembly and an insertion pin guide assembly correspondingly disposed above and below the first assembly station;

[0020] The pre-pressed needle assembly includes a first position identification mechanism, a pressure head, a first longitudinal movement drive assembly for driving the pressure head to move longitudinally, and a first rotation drive assembly for driving the pressure head to rotate. The central axis of the pressure head coincides with the central axis of the needle guide cavity. The first position identification mechanism is set corresponding to the first assembly station and is electrically connected to the first rotation drive assembly.

[0021] The aforementioned 5G antenna feeding and assembly equipment includes a first limiting seat, a second limiting seat, and a first lateral movement driving component for driving the second limiting seat closer to or further away from the first limiting seat. A guide groove and a limiting groove are provided longitudinally through the first limiting seat, and a guide protrusion is provided on the second limiting seat so that when the second limiting seat is movably disposed in the limiting groove, a pin guide cavity corresponding to the pre-pressed pin assembly is formed between the guide groove and the guide protrusion.

[0022] The aforementioned 5G antenna feeding and assembly equipment, wherein the terminal pre-pin device further includes a pin correction mechanism disposed at the feeding end of the second feeding device;

[0023] The pin correction mechanism includes a first correction component, a second correction component, and a first opening and closing drive assembly for driving the two components to open and close. The first correction component and the second correction component are respectively provided with a first pin correction groove and a second pin correction groove. A pin correction cavity for correcting the perpendicularity of the fiber optic pin is formed between the first pin correction groove and the second pin correction groove.

[0024] The aforementioned 5G antenna feeding and assembly equipment, wherein the terminal pre-insertion device further includes a terminal fixing mechanism corresponding to the first assembly station;

[0025] The terminal fixing mechanism includes a fixing jaw, a second lateral movement drive assembly for driving the fixing jaw to move laterally, and a second opening and closing drive assembly for driving the fixing jaw to open and close. The fixing jaw is provided with a positioning arc groove for fixing the optical fiber terminal.

[0026] The aforementioned 5G antenna feeding and assembly equipment includes a terminal pressing device comprising a second position identification mechanism, a pressing terminal head, and a second longitudinal movement driving component for driving the pressing terminal head to move longitudinally. The pressing terminal head is set corresponding to the first assembly station, and the second position identification mechanism is set corresponding to the first assembly station and is electrically connected to the second longitudinal movement driving component.

[0027] The aforementioned 5G antenna feeding and assembly equipment, wherein the terminal pressing device further includes a detection mechanism corresponding to the first assembly station;

[0028] The detection mechanism includes a first visual detection component, a fiber breakage detection component, and a insertion loss analysis component, wherein the insertion loss analysis component is electrically connected to the visual detection component and the fiber breakage detection component.

[0029] The aforementioned 5G antenna feeding and assembly equipment, wherein the connector pressing device includes a pressing mechanism, the pressing mechanism includes a pressing base, a pressing component, and a third longitudinal movement driving component for driving the pressing base to move longitudinally, a spring is provided between the pressing component and the pressing base, the pressing component is provided with a pressing positioning groove for positioning the optical fiber connector, and the pressing positioning groove is provided corresponding to the second assembly station.

[0030] The aforementioned 5G antenna feeding and assembly equipment, wherein the connector pressing device further includes an assembly mechanism, the assembly mechanism including an assembly base and a third lateral movement drive assembly for driving the assembly base to move laterally, the assembly base being provided with a first assembly part, a second assembly part and a third opening and closing drive assembly for driving the two to open and close, a guide pressing cavity for guiding the pressing of the fiber optic connector is formed between the first assembly part, the second assembly part and the pressing positioning groove.

[0031] The aforementioned 5G antenna feeding and assembly equipment, wherein the chip mounting device includes an electrically connected chip mounting mechanism and a third position identification mechanism, wherein the third position identification mechanism is set corresponding to the second assembly station;

[0032] The placement mechanism includes a placement base and a fourth lateral movement drive assembly for driving the placement base to move laterally. The placement base is provided with a placement nozzle and a second rotation drive assembly for driving the placement nozzle to rotate. The placement nozzle is provided corresponding to the second assembly station.

[0033] The beneficial effects of the present invention are as follows: Based on the first assembly turntable device and the second assembly turntable device, the present invention connects each feeding device through a rotary conveying method to realize feeding, and cooperates with the transfer device to realize the transfer of the assembled fiber optic connector. The first assembly turntable device flows through the pre-insertion device and the terminal pressing device in sequence to realize the assembly of the fiber optic connector. The second assembly turntable device flows through the connector pressing device and the chip mounting device in sequence to realize the pressing of the fiber optic connector and the mounting of the RF chip. This improves the continuity of operation of each process and greatly reduces the space occupied by the equipment. Attached Figure Description

[0034] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0035] Figure 1 This is a top view of the structure of the present invention. Detailed Implementation

[0036] The present invention will be further described below through specific embodiments, so as to make the technical solution of the present invention easier to understand and master, rather than to limit the present invention.

[0037] Example: See Figure 1 This embodiment provides a 5G antenna feeding and assembly device, which includes:

[0038] The first assembly turntable device 11 includes several first assembly stations;

[0039] The first feeding device 21 is used to feed the optical fiber connector base to the first assembly station;

[0040] The second feeding device 22 is used to feed optical fiber ferrules to the first assembly station.

[0041] The third feeding device 23 is used to feed optical fiber terminals to the first assembly station.

[0042] The pre-insertion device 3 is set corresponding to the first assembly station and is used to assemble the fiber optic ferrule and fiber optic terminal.

[0043] Terminal pressing device 4 is set corresponding to the first assembly station and is used to press the fiber optic ferrule and fiber optic terminal into the fiber optic connector base to obtain a fiber optic connector.

[0044] The second assembly turntable device 12 includes several second assembly stations;

[0045] The material transfer device 5 is used to clamp the optical fiber connector and transfer it from the first assembly turntable device 11 to the second assembly turntable device 12;

[0046] The fourth feeding device 24 is used to feed the substrate with the feeder circuit to the second assembly station;

[0047] The fifth feeding device 25 is used to feed radio frequency chips to the second assembly station;

[0048] The connector pressing device 6 is set corresponding to the second assembly station and is used to press the optical fiber connector onto the substrate.

[0049] The chip mounting device 7 is set up corresponding to the second assembly station and is used to mount the radio frequency chip onto the substrate to obtain a 5G antenna.

[0050] Specifically, based on the first assembly turntable device 11 and the second assembly turntable device 12, each feeding device is connected by a rotary conveyor to realize feeding, and the assembled fiber optic connector is transferred in conjunction with the transfer device 5. The first assembly turntable device 11 flows through the pre-insertion device 3 and the terminal pressing device 4 in sequence to realize the assembly of the fiber optic connector, and the second assembly turntable device 12 flows through the connector pressing device 6 and the chip mounting device 7 in sequence to realize the pressing of the fiber optic connector and the mounting of the RF chip, thereby improving the continuity of operation of each process and greatly reducing the space occupied by the equipment.

[0051] Preferably, the terminal pre-insertion device 3 includes a pre-insertion mechanism;

[0052] The pre-insertion mechanism includes a pre-pressing pin assembly and an insertion pin guide assembly correspondingly disposed above and below the first assembly station;

[0053] The pre-pressing pin assembly includes a first position identification mechanism, a pressing head, a first longitudinal movement drive assembly for driving the pressing head longitudinally, and a first rotation drive assembly for driving the pressing head to rotate. The central axis of the pressing head coincides with the central axis of the pin guide cavity. The first position identification mechanism is set corresponding to the first assembly station and is electrically connected to the first rotation drive assembly. Specifically, the second position identification mechanism is used to identify the position of the fiber optic ferrule and fiber optic terminal to be assembled. The first longitudinal movement drive assembly is preferably driven by a cylinder, motor, lead screw, or other similar components. The first rotation drive assembly is preferably driven by a rotary cylinder, motor, or other similar components. Under the assistance of the pin guide assembly in guiding the fiber optic ferrule insertion, the first position identification mechanism identifies the position of the fiber optic ferrule and fiber optic terminal respectively. The first rotation drive assembly drives the pressing head to rotate and adjust the pressing angle so that the central axis of the pressing head coincides with the central axis of the pin guide cavity. Then, the first longitudinal movement drive assembly drives the pressing head to press down and assemble the fiber optic ferrule and fiber optic terminal, greatly optimizing the assembly verticality and effect of the fiber optic ferrule.

[0054] Furthermore, the pin guide assembly includes a first limiting seat, a second limiting seat, and a first lateral movement drive assembly for driving the second limiting seat closer to or away from the first limiting seat. A guide groove and a limiting groove are provided longitudinally through the first limiting seat, and a guide protrusion is provided on the second limiting seat so that when the second limiting seat is movably disposed in the limiting groove, a pin guide cavity corresponding to the pre-pressing pin assembly is formed between the guide groove and the guide protrusion. Specifically, the first lateral movement drive assembly is preferably a component driven by a cylinder, motor, lead screw, etc. When the second feeding device 22 feeds the optical fiber pin, the end of the optical fiber pin to be inserted enters the pin guide cavity. When the pre-pressing pin assembly assembles the optical fiber pin and the optical fiber terminal, the pin guide cavity ensures that the optical fiber pin does not deviate, improving the assembly verticality.

[0055] Furthermore, the terminal pre-insertion device 3 also includes an insertion correction mechanism disposed at the feeding end of the second feeding device 22;

[0056] The ferrule straightening mechanism includes a first straightening component, a second straightening component, and a first opening and closing drive assembly for driving the two components to open and close. The first straightening component and the second straightening component are respectively provided with a first ferrule straightening groove and a second ferrule straightening groove. A ferrule straightening cavity for straightening the perpendicularity of the fiber optic ferrule is formed between the first ferrule straightening groove and the second ferrule straightening groove. Specifically, the first opening and closing drive assembly is preferably a component driven by a cylinder or the like. When the second feeding device 22 feeds the fiber optic ferrule, the first opening and closing drive assembly drives the first straightening component and the second straightening component to wrap around the insertion end of the fiber optic ferrule to straighten the fiber optic ferrule and maintain a high degree of perpendicularity.

[0057] Furthermore, the terminal pre-insertion device 3 also includes a terminal fixing mechanism corresponding to the first assembly station;

[0058] The terminal fixing mechanism includes a fixing jaw, a second lateral movement drive assembly for driving the fixing jaw to move laterally, and a second opening and closing drive assembly for driving the fixing jaw to open and close. The fixing jaw is provided with a positioning arc groove for fixing the optical fiber terminal. Specifically, the second opening and closing drive assembly is preferably a cylinder or other driven assembly. When the end of the optical fiber ferrule to be inserted enters the ferrule guide cavity and the third feeding device 23 feeds the optical fiber terminal, the second lateral movement drive assembly drives the fixing jaw to approach the optical fiber terminal to be assembled, and the second opening and closing drive assembly drives the fixing jaw to fix the optical fiber terminal to wait for the subsequent assembly operation of the pre-pressed pin assembly.

[0059] Preferably, the terminal pressing device 4 includes a second position identification mechanism, a terminal pressing head, and a second longitudinal movement drive assembly for driving the terminal pressing head longitudinally. The terminal pressing head is set corresponding to the first assembly station, and the second position identification mechanism is set corresponding to the first assembly station and electrically connected to the second longitudinal movement drive assembly. Specifically, the second position identification mechanism is used to identify the positions of the fiber optic ferrule, fiber optic terminal, and fiber optic connector base. When the first feeding device 21 feeds the fiber optic connector base to be assembled, the second longitudinal movement drive assembly drives the terminal pressing head to press down, so as to press the fiber optic ferrule and fiber optic terminal into the fiber optic connector base.

[0060] Furthermore, the terminal pressing device 4 also includes a detection mechanism corresponding to the first assembly station;

[0061] The detection mechanism includes a first visual detection component, a fiber breakage detection component, and an insertion loss analysis component. The insertion loss analysis component is electrically connected to the visual detection component and the fiber breakage detection component. Specifically, the first visual detection component detects the assembly position and angle of the fiber optic connector, the fiber breakage detection component detects whether there is a fiber breakage fault after the fiber optic connector is assembled, and the insertion loss analysis component detects whether there is an insertion loss after the fiber optic connector is assembled.

[0062] Preferably, the connector pressing device 6 includes a pressing mechanism, which includes a pressing base, a pressing member, and a third longitudinal movement driving assembly for driving the pressing base to move longitudinally. A spring is provided between the pressing member and the pressing base. The pressing member is provided with a pressing positioning groove for positioning the optical fiber connector. The pressing positioning groove is provided corresponding to the second assembly station.

[0063] The connector pressing device 6 further includes an assembly mechanism, which includes an assembly base and a third lateral movement drive assembly for driving the assembly base to move laterally. The assembly base is provided with a first assembly part, a second assembly part, and a third opening / closing drive assembly for driving them to open and close. A guide pressing cavity for guiding the pressing of the fiber optic connector is formed between the first assembly part, the second assembly part, and the pressing positioning groove. Specifically, the first longitudinal movement drive assembly is preferably driven by a cylinder, motor, lead screw, or similar components; the third lateral movement drive assembly is preferably driven by a cylinder, motor, lead screw, or similar components; and the third opening / closing drive assembly is preferably driven by a cylinder or similar components. When the transfer device 5 moves the fiber optic connector to the substrate placed in the second assembly turntable device 12, the third longitudinal movement drive assembly drives the pressing member to press down on the fiber optic connector. At this time, the first and second assembly parts assist the fiber optic connector in being smoothly inserted and assembled onto the substrate, effectively improving the assembly accuracy of the fiber optic connector.

[0064] Preferably, the chip mounting apparatus 7 includes an electrically connected chip mounting mechanism and a third position identification mechanism, the third position identification mechanism being configured corresponding to the second assembly station; the third position identification mechanism is used to identify the positions of the chip and the substrate to be mounted.

[0065] The placement mechanism includes a placement base and a fourth lateral movement drive assembly for driving the placement base to move laterally. The placement base is provided with a placement nozzle and a second rotation drive assembly for driving the placement nozzle to rotate. The placement nozzle is set corresponding to the second assembly station. The fourth lateral movement drive assembly drives the placement nozzle to pick up the RF chip to be placed at the fifth feeding device 25 and move it to the substrate. At this time, the second rotation drive assembly drives the placement nozzle to rotate and adjust the placement angle to optimize the placement accuracy of the RF chip.

[0066] Specifically, both the first assembly turntable device 11 and the second assembly turntable device 12 include a turntable driven by a motor to rotate. The turntable is correspondingly provided with several sets of the first assembly station or the second assembly station at intervals, so that the first assembly station and the second assembly station can be rotated to each device to perform corresponding operations.

[0067] Specifically, the first feeding device 21, the second feeding device 22, the third feeding device 23, the fourth feeding device 24, and the fifth feeding device 25 are preferably feeding devices such as vibrating feeders and conveyor belts.

[0068] The 5G antenna feeding and assembly equipment of the present invention includes the following steps during operation:

[0069] (1) The first feeding device 21, the second feeding device 22, and the third feeding device 23 respectively feed the optical fiber connector base, the optical fiber ferrule, and the optical fiber terminal into the first assembly turntable device 11.

[0070] (2) The ferrule straightening mechanism pre-corrects the fiber optic ferrule, the ferrule guiding assembly ensures that the fiber optic ferrule is placed in the ferrule guiding cavity, the first position identification mechanism identifies the positions of the fiber optic ferrule and the fiber optic terminal respectively, the terminal fixing mechanism fixes the fiber optic terminal, and the pre-pressing pin assembly presses down to assemble the fiber optic ferrule and the fiber optic terminal.

[0071] (3) The second position identification mechanism identifies the position of the fiber optic ferrule, fiber optic terminal and fiber optic connector base, and the crimping terminal head is pressed down to press the fiber optic ferrule and fiber optic terminal into the fiber optic connector base to obtain a fiber optic connector.

[0072] (4) The testing mechanism detects whether the fiber optic connector has an assembly position and angle offset, fiber breakage, or insertion loss. Good fiber optic connectors are transferred from the material transfer device 5 to the second assembly turntable device 12, and defective fiber optic connectors are discharged.

[0073] (5) The fourth feeding device 24 and the fifth feeding device 25 respectively feed the substrate and the radio frequency chip into the second assembly turntable device 12;

[0074] (6) The assembly mechanism assists the fiber optic connector in aligning with the assembly area of ​​the substrate, and the pressing mechanism presses down on the fiber optic connector so that the fiber optic connector is inserted and assembled on the substrate;

[0075] (7) The third position identification mechanism identifies the position of the chip and the substrate, and the patching mechanism picks up the radio frequency chip to be patched and moves it to the substrate for patching to obtain the 5G antenna.

[0076] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention in any way. Any person skilled in the art can make many possible variations and modifications to the technical solution of the present invention, or modify it into equivalent embodiments, without departing from the scope of the present invention, using the disclosed technical means and content. Therefore, all equivalent changes made based on the shape, structure, and principle of the present invention without departing from the scope of the present invention should be covered within the protection scope of the present invention.

Claims

1. A 5G antenna feeding and assembly equipment, characterized in that, It includes: The first assembly turntable device includes several first assembly stations; The first feeding device is used to feed the optical fiber connector base to the first assembly station; The second feeding device is used to feed optical fiber ferrules to the first assembly station. The third feeding device is used to feed optical fiber terminals to the first assembly station. A pre-insertion device is provided corresponding to the first assembly station and is used to assemble the fiber optic ferrule and fiber optic terminal. A terminal pressing device is provided corresponding to the first assembly station and is used to press the fiber optic ferrule and fiber optic terminal into the fiber optic connector base to obtain a fiber optic connector. The second assembly turntable device includes several second assembly stations; A material transfer device is used to clamp the optical fiber connector and transfer it from the first assembly turntable device to the second assembly turntable device; The fourth feeding device is used to feed the substrate with the feeder circuit to the second assembly station; The fifth feeding device is used to feed radio frequency chips to the second assembly station; A connector pressing device is provided corresponding to the second assembly station and is used to press the optical fiber connector onto the substrate. A chip mounting device is provided corresponding to the second assembly station and is used to mount the radio frequency chip onto the substrate to obtain a 5G antenna. The terminal pre-insertion device includes a pre-insertion mechanism; The pre-insertion mechanism includes a pre-pressing pin assembly and an insertion pin guide assembly correspondingly disposed above and below the first assembly station; The pre-pressed needle assembly includes a first position identification mechanism, a pressure head, a first longitudinal movement drive assembly for driving the pressure head to move longitudinally, and a first rotation drive assembly for driving the pressure head to rotate. The central axis of the pressure head coincides with the central axis of the needle guide cavity. The first position identification mechanism is set corresponding to the first assembly station and is electrically connected to the first rotation drive assembly. The pin guide assembly includes a first limiting seat, a second limiting seat, and a first lateral movement drive assembly for driving the second limiting seat closer to or away from the first limiting seat. A guide groove and a limiting groove are provided longitudinally through the first limiting seat, and a guide protrusion is provided on the second limiting seat so that when the second limiting seat is movably disposed in the limiting groove, a pin guide cavity corresponding to the pre-pressed pin assembly is formed between the guide groove and the guide protrusion.

2. The 5G antenna feeding and assembly equipment according to claim 1, characterized in that, The terminal pre-insertion device also includes an insertion correction mechanism disposed at the feeding end of the second feeding device; The pin correction mechanism includes a first correction component, a second correction component, and a first opening and closing drive assembly for driving the two components to open and close. The first correction component and the second correction component are respectively provided with a first pin correction groove and a second pin correction groove. A pin correction cavity for correcting the perpendicularity of the fiber optic pin is formed between the first pin correction groove and the second pin correction groove.

3. The 5G antenna feeding and assembly equipment according to claim 2, characterized in that, The terminal pre-insertion device also includes a terminal fixing mechanism corresponding to the first assembly station; The terminal fixing mechanism includes a fixing jaw, a second lateral movement drive assembly for driving the fixing jaw to move laterally, and a second opening and closing drive assembly for driving the fixing jaw to open and close. The fixing jaw is provided with a positioning arc groove for fixing the optical fiber terminal.

4. The 5G antenna feeding and assembly equipment according to claim 1, characterized in that, The terminal pressing device includes a second position identification mechanism, a terminal pressing head, and a second longitudinal movement drive assembly for driving the terminal pressing head to move longitudinally. The terminal pressing head is set corresponding to the first assembly station, and the second position identification mechanism is set corresponding to the first assembly station and is electrically connected to the second longitudinal movement drive assembly assembly.

5. The 5G antenna feeding and assembly equipment according to claim 4, characterized in that, The terminal pressing device also includes a detection mechanism corresponding to the first assembly station; The detection mechanism includes a first visual detection component, a fiber breakage detection component, and a insertion loss analysis component, wherein the insertion loss analysis component is electrically connected to the visual detection component and the fiber breakage detection component.

6. The 5G antenna feeding and assembly equipment according to claim 1, characterized in that, The connector pressing device includes a pressing mechanism, which includes a pressing base, a pressing component, and a third longitudinal movement drive assembly for driving the pressing base to move longitudinally. A spring is provided between the pressing component and the pressing base. The pressing component is provided with a pressing positioning groove for positioning the optical fiber connector. The pressing positioning groove is provided corresponding to the second assembly station.

7. The 5G antenna feeding and assembly equipment according to claim 6, characterized in that, The connector press-fit device further includes an assembly mechanism, which includes an assembly base and a third lateral movement drive assembly for driving the assembly base to move laterally. The assembly base is provided with a first assembly part, a second assembly part, and a third opening and closing drive assembly for driving the two to open and close. A guide press-fit cavity for guiding the press-fit of the fiber optic connector is formed between the first assembly part, the second assembly part, and the pressing positioning groove.

8. The 5G antenna feeding and assembly equipment according to claim 1, characterized in that, The chip mounting apparatus includes an electrically connected chip mounting mechanism and a third position identification mechanism, wherein the third position identification mechanism is set corresponding to the second assembly station; The placement mechanism includes a placement base and a fourth lateral movement drive assembly for driving the placement base to move laterally. The placement base is provided with a placement nozzle and a second rotation drive assembly for driving the placement nozzle to rotate. The placement nozzle is provided corresponding to the second assembly station.

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