5G communication module assembly tool and method of use thereof

Abstract

The application discloses a 5G communication module assembly tool and a use method thereof. The 5G communication module assembly tool comprises a bearing chassis, pull handles are connected to the two sides of the bearing chassis, a first loading disc, a second loading disc and a third loading disc are sequentially arranged above the bearing chassis, the first loading disc, the second loading disc and the third loading disc are respectively assembled to be used for loading 5G communication chips, parts and assembly tools, the sizes of the first loading disc, the second loading disc, the third loading disc and the bearing chassis gradually increase, and the first loading disc, the second loading disc, the third loading disc and the bearing chassis are sequentially matched. The application adopts a multi-level loading disc structure, can quickly and neatly store and deploy 5G communication chips, parts and assembly tools, and is convenient and fast to use.

Description

Technical Field

[0001] This invention relates to the field of 5G communication technology, specifically to a 5G communication module assembly fixture and its usage method. Background Technology

[0002] A 5G communication module is a modular device used to support 5G network communication. It typically consists of integrated circuits, radio frequency transmission units, antennas, and related connectors. 5G communication modules can be embedded in various devices, such as smartphones, IoT devices, and industrial automation equipment, to achieve high-speed, low-latency, and high-capacity wireless communication functions.

[0003] The main function of a 5G communication module is to communicate with 5G networks and provide services such as data transmission, voice calls, and multimedia transmission. It supports 5G technical features such as multi-band, multi-carrier aggregation, and wideband channels to meet the demands for fast and reliable wireless communication. Through a 5G communication module, users can access the internet, stream videos, and play online games at higher speeds and with lower latency.

[0004] Existing assembly fixtures cannot quickly store and deploy the parts and tools required for assembly, making them inconvenient to use. They also cannot be flexibly adjusted and are not suitable for assembling 5G communication modules of different models and specifications. Subsequent packing and unpacking are also inconvenient.

[0005] To address the problems existing in the current technology, a flexible and convenient manual assembly fixture for 5G communication modules is proposed to improve assembly efficiency and quality. Summary of the Invention

[0006] The purpose of this invention is to provide a 5G communication module assembly fixture and its usage method to solve the problems mentioned in the background art.

[0007] To solve the above-mentioned technical problems, the present invention provides the following technical solution: a 5G communication module assembly fixture, including a support chassis, wherein lifting handles are connected to both sides of the support chassis.

[0008] A first loading tray, a second loading tray, and a third loading tray are sequentially arranged on top of the supporting chassis. The first loading tray, the second loading tray, and the third loading tray are respectively assembled for loading 5G communication chips, components, and assembly tools.

[0009] The diameters of the first loading plate, the second loading plate, the third loading plate, and the supporting chassis increase sequentially, and the first loading plate, the second loading plate, the third loading plate, and the supporting chassis cooperate in sequence.

[0010] A lateral adjustment assembly is provided on both sides of the first loading tray, the second loading tray and the third loading tray. An elastic element is connected to one side of the lateral adjustment assembly. The elastic element located on one side of the first loading tray, the second loading tray and the third loading tray is connected to the lifting handle through the first positioning cylinder, the second positioning cylinder and the third positioning cylinder respectively.

[0011] Both sides of the lifting handle are provided with longitudinal adjustment components for adjusting the height of the first loading tray, the second loading tray, and the third loading tray.

[0012] Preferably, the lateral adjustment component includes a slider, the slider having a slide rail internally connected to it, and a through hole on one side of the slider having a positioning button internally connected to it.

[0013] The upper part of the slide rail has multiple sets of positioning holes. The positioning holes cooperate with the positioning buttons so that the positioning buttons are connected to the positioning holes through the through holes to fix the slider on one side of the slide rail, thereby completing the adjustment of the lateral position of the first loading plate, the second loading plate, and the third loading plate.

[0014] The slide rail is provided with baffles on both sides to limit the stroke of the slider.

[0015] Preferably, the elastic element includes a connecting plate disposed on one side of the slider and connected to the slide rail, the connecting plate having an elastic inner cavity, and a hexagonal rod disposed inside the elastic inner cavity.

[0016] Preferably, a spring is provided inside the elastic cavity and on the outer periphery of the hexagonal rod, and the spring is located on the side of the slide away from the positioning cylinder.

[0017] Preferably, the first positioning cylinder, the second positioning cylinder, and the third positioning cylinder are all disposed on the outer periphery of the hexagonal rod, and a sliding plate is connected to one side of each of the first positioning cylinder, the second positioning cylinder, and the third positioning cylinder, and the sliding plate is connected to a spring.

[0018] Preferably, the first positioning cylinder, the second positioning cylinder, and the third positioning cylinder are all hexagonal prisms, and the sizes of the first positioning cylinder, the second positioning cylinder, and the third positioning cylinder increase sequentially.

[0019] Preferably, the longitudinal adjustment component includes a guide groove formed inside the lifting handle. The guide groove is provided with multiple sets of positioning grooves. Each set of positioning grooves is connected to a protruding button. One side of the protruding button is provided with a slot that cooperates with the positioning groove so that the protruding button can be inserted into the positioning groove.

[0020] Preferably, the positioning groove includes a first hexagonal groove, a second hexagonal groove, and a third hexagonal groove, and the radii of the first hexagonal groove, the second hexagonal groove, and the third hexagonal groove increase sequentially, so that the first hexagonal groove, the second hexagonal groove, and the third hexagonal groove cooperate with the first positioning cylinder, the second positioning cylinder, and the third positioning cylinder, respectively.

[0021] Preferably, the second loading plate, the third loading plate, and the supporting chassis all have grooves on both sides for placing the elastic element.

[0022] A method for using a 5G communication module assembly fixture includes the following steps:

[0023] Step A: Pull the first loading tray out from the second loading tray, and rotate the first loading tray so that the first positioning cylinder deflects by 10°.

[0024] Maintaining the deflection angle of the first loading disc, pull it up to the top of the lifting handle, then rotate the first loading disc in the opposite direction to return the first positioning cylinder to its upright position.

[0025] Continue pulling to move the first positioning cylinder to the positioning groove side of the upper part of the lifting handle. At this time, the spring force is weakened and elastic elongation occurs. The sliding plate squeezes the first positioning cylinder, causing it to move and insert into the first hexagonal groove, thus completing the setting of the longitudinal height of the first loading plate.

[0026] Step B: Move the positioning buttons on both sides of the first loading plate out of the positioning holes and into the through holes. Move the position of the first loading plate laterally until it reaches the edge. Then, insert the positioning buttons into the positioning holes to complete the adjustment of the lateral position of the first loading plate.

[0027] Step C: Repeat step A to adjust the longitudinal position of the second loading disk;

[0028] Step D: Move the positioning buttons on both sides of the second loading plate out of the positioning holes and into the through holes. Move the position of the second loading plate laterally until the first loading plate covers half of the second loading plate when viewed from above. At this time, insert the positioning buttons into the positioning holes to complete the adjustment of the lateral position of the second loading plate.

[0029] Step E: Repeat step A to adjust the longitudinal position of the third loading disk;

[0030] Step F: Move the positioning buttons on both sides of the third loading plate out of the positioning holes and into the through holes. Move the position of the third loading plate laterally until the third loading plate covers the part of the chassis when viewed from above. At this time, insert the positioning buttons into the positioning holes to complete the adjustment of the lateral position of the third loading plate.

[0031] Step G: When the use is finished, reset the lateral positions of the first loading tray, the second loading tray, and the third loading tray;

[0032] Step H: Press the protruding buttons on both sides of the third loading plate so that the slots of the protruding buttons squeeze the third positioning cylinder through the third hexagonal groove. The third positioning cylinder squeezes the spring in the elastic inner cavity through the sliding plate, so that the third positioning cylinder moves and is stored in the elastic inner cavity. Rotate the third loading plate again so that the third positioning cylinder deflects 10° and moves the third loading plate downward so that it is placed in the bearing base through the groove.

[0033] Step I: Repeat step H to reset the longitudinal positions of the first loading plate, the second loading plate, and the third loading plate.

[0034] Compared with the prior art, the beneficial effects of the present invention are:

[0035] This invention employs a multi-level loading tray structure, which enables the quick and neat storage and deployment of 5G communication chips, components, and assembly tools, making it convenient and fast to use.

[0036] The inclusion of horizontal and vertical adjustment components allows for flexible adjustment of the loading tray position, accommodating the assembly of 5G communication modules of different specifications and models, thus expanding its applicability. The storage and repositioning design enables quick and easy organization and restoration of the tooling, making post-use maintenance highly convenient.

[0037] The horizontal and vertical adjustment components are simple and efficient, reducing structural complexity and helping to lower production and usage costs. They also offer good versatility, allowing for flexible customization of the number of loading trays to meet diverse assembly needs.

[0038] It is easy to operate, reduces the burden of operation, reduces user fatigue, and improves work efficiency.

[0039] The longitudinal and lateral adjustment components can quickly set the position of the loading tray, making positioning and fixing quick and convenient, improving operational efficiency, and enhancing the overall efficiency and quality of 5G communication module assembly while reducing production costs. Attached Figure Description

[0040] Figure 1 This is a schematic diagram of the overall structure of an embodiment of the present invention;

[0041] Figure 2 This is a top view of the structure according to an embodiment of the present invention;

[0042] Figure 3 This is a partial cross-sectional structural diagram of an embodiment of the present invention;

[0043] Figure 4 This is an enlarged schematic diagram of the structure at point A in an embodiment of the present invention;

[0044] Figure 5 This is a schematic diagram of the longitudinal adjustment component structure according to an embodiment of the present invention;

[0045] Figure 6 This is a schematic diagram of the third loading disk structure according to an embodiment of the present invention;

[0046] Figure 7 This is a schematic diagram of the lateral adjustment component structure according to an embodiment of the present invention.

[0047] In the diagram: 1. Support chassis; 2. Lifting handle; 3. First loading plate; 4. Second loading plate; 5. Third loading plate; 6. Lateral adjustment assembly; 601. Slider; 602. Slide rail; 603. Through hole; 604. Positioning button; 605. Positioning hole; 606. Baffle; 7. Elastic element; 701. Connecting plate; 702. Elastic inner cavity; 703. Hexagonal rod; 704. Spring; 8. First positioning cylinder; 9. Second positioning cylinder; 10. Third positioning cylinder; 11. Slide plate; 12. Longitudinal adjustment assembly; 1201. Guide groove; 1202. Positioning groove; 12021. First hexagonal groove; 12022. Second hexagonal groove; 12022. Third hexagonal groove; 1203. Protruding button; 1204. Slot; 13. Groove. Detailed Implementation

[0048] To address the problems of existing assembly fixtures being unable to quickly store and deploy the necessary components and tools, lacking ease of use, and unable to flexibly adjust, making them unsuitable for assembling different models and specifications of 5G communication modules, and causing inconvenience in subsequent packing, this invention provides a 5G communication module assembly fixture and its usage method. The technical solution of this invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described invention is only a part of this invention, not all of it. Based on the invention described herein, all other inventions obtained by those skilled in the art without inventive effort are within the scope of protection of this invention.

[0049] Please see Figure 1-7 This invention provides a 5G communication module assembly fixture, including a support chassis 1, with lifting handles 2 connected to both sides of the support chassis 1.

[0050] A first loading tray 3, a second loading tray 4, and a third loading tray 5 are sequentially arranged on top of the supporting chassis 1. The first loading tray 3, the second loading tray 4, and the third loading tray 5 are respectively assembled for loading 5G communication chips, components, and assembly tools.

[0051] The diameters of the first loading plate 3, the second loading plate 4, the third loading plate 5 and the supporting chassis 1 increase sequentially, and the first loading plate 3, the second loading plate 4, the third loading plate 5 and the supporting chassis 1 cooperate with each other in turn;

[0052] A lateral adjustment component 6 is provided on both sides of the first loading plate 3, the second loading plate 4 and the third loading plate 5. An elastic element 7 is connected to one side of the lateral adjustment component 6. The elastic element 7 located on one side of the first loading plate 3, the second loading plate 4 and the third loading plate 5 is connected to the lifting handle 2 of 10 through the first positioning cylinder 8, the second positioning cylinder 9 and the third positioning cylinder respectively.

[0053] Both sides of the lifting handle 2 are provided with longitudinal adjustment components 12 for adjusting the height of the first loading tray 3, the second loading tray 4 and the third loading tray 5.

[0054] The further lateral adjustment component 6 includes a slider 601, with a slide rail 602 connected inside the slider 601. A through hole 603 is provided on one side of the slider 601, and a positioning button 604 is connected inside the through hole 603.

[0055] The upper part of the slide rail 602 has multiple sets of positioning holes 605. The positioning holes 605 cooperate with the positioning button 604 so that the positioning button 604 is connected to the positioning hole 605 through the through hole 603 to fix the slider 601 on one side of the slide rail 602, thereby completing the adjustment of the lateral position of the first loading plate 3, the second loading plate 4, and the third loading plate 5.

[0056] The slide rail 602 has baffles 606 on both sides to limit the stroke of the slider 601.

[0057] The further elastic element 7 includes a connecting plate 701 disposed on one side of the slider 601 and connected to the slide rail 602. The connecting plate 701 has an elastic inner cavity 702 inside, and a hexagonal rod 703 is disposed inside the elastic inner cavity 702.

[0058] A spring 704 is provided inside the further elastic inner cavity 702 and on the outer periphery of the hexagonal rod 703. The spring 704 is located on the side of the slide plate 11 away from the positioning cylinder.

[0059] Furthermore, the first positioning cylinder 8, the second positioning cylinder 9, and the third positioning cylinder 10 are all disposed on the outer periphery of the hexagonal rod 703, and a sliding plate 11 is connected to one side of each of the first positioning cylinder 8, the second positioning cylinder 9, and the third positioning cylinder 10. The sliding plate 11 is connected to the spring 704.

[0060] Furthermore, the first positioning cylinder 8, the second positioning cylinder 9, and the third positioning cylinder 10 are all hexagonal prisms, and their sizes increase sequentially.

[0061] The further longitudinal adjustment component 12 includes a guide groove 1201 formed inside the lifting handle 2. The guide groove 1201 is provided with multiple sets of positioning grooves 1202. Each set of positioning grooves 1202 is connected to a protruding button 1203. One side of the protruding button 1203 is provided with a slot 1204 that cooperates with the positioning groove 1202 so that the protruding button 1203 can be inserted into the positioning groove 1202.

[0062] The further positioning groove 1202 includes a first hexagonal groove 12021, a second hexagonal groove 12022 and a third hexagonal groove 12022, and the radii of the first hexagonal groove 12021, the second hexagonal groove 12022 and the third hexagonal groove 12022 increase sequentially, so that the first hexagonal groove 12021, the second hexagonal groove 12022 and the third hexagonal groove 12022 cooperate with the first positioning cylinder 8, the second positioning cylinder 9 and the third positioning cylinder 10 respectively.

[0063] Furthermore, the second loading plate 4, the third loading plate 5, and the supporting chassis 1 all have grooves 13 on both sides for placing the elastic element 7.

[0064] A method for using a 5G communication module assembly fixture includes the following steps:

[0065] Step A: Pull the first loading tray 3 out from the second loading tray 4, and rotate the first loading tray 3 so that the first positioning cylinder 8 deflects by 10°.

[0066] Maintaining the deflection angle of the first loading disc 3, pull it up to the upper part of the lifting handle 2, and rotate the first loading disc 3 in the opposite direction to return the first positioning cylinder 8 to the center.

[0067] Continue to pull, so that the first positioning cylinder 8 moves to the side of the positioning groove 1202 on the upper part of the lifting handle 2. At this time, the spring 704 is weakened and elastically elongated. The first positioning cylinder 8 is squeezed by the slide plate 11, so that it moves and inserts into the first hexagonal groove 12021, thus completing the setting of the longitudinal height of the first loading plate 3.

[0068] Step B: Move the positioning buttons 604 on both sides of the first loading plate 3 out of the positioning holes 605 and into the through holes 603. Move the position of the first loading plate 3 laterally until the edge. At this time, insert the positioning buttons 604 into the positioning holes 605 to complete the adjustment of the lateral position of the first loading plate 3.

[0069] Step C: Repeat step A to adjust the longitudinal position of the second loading disk 4;

[0070] Step D: Move the positioning buttons 604 on both sides of the second loading plate 4 from the positioning holes 605 into the through holes 603, and move the position of the second loading plate 4 laterally until the first loading plate 3 covers half of the second loading plate 4 from above. At this time, insert the positioning buttons 604 into the positioning holes 605 to complete the adjustment of the lateral position of the second loading plate 4.

[0071] Step E: Repeat step A to adjust the longitudinal position of the third loading disk 5;

[0072] Step F: Move the positioning buttons 604 on both sides of the third loading plate 5 from the positioning holes 605 into the through holes 603, and move the position of the third loading plate 5 laterally until the third loading plate 5 covers part of the supporting chassis 1 from above. At this time, insert the positioning buttons 604 into the positioning holes 605 to complete the adjustment of the lateral position of the third loading plate 5.

[0073] Step G: When the use is finished, reset the horizontal position of the first loading tray 3, the second loading tray 4, and the third loading tray 5.

[0074] Step H: Press the protruding buttons 1203 on both sides of the third loading plate 5 so that the slots 1204 of the protruding buttons 1203 squeeze the third positioning cylinder 10 through the third hexagonal groove 12022. The third positioning cylinder 10 squeezes the spring 704 in the elastic inner cavity 702 through the sliding plate 11, so that the third positioning cylinder 10 moves and is stored in the elastic inner cavity 702. Rotate the third loading plate 5 again so that the third positioning cylinder 10 deflects by 10° and moves the third loading plate 5 downward so that it is placed in the bearing base plate 1 through the groove 13.

[0075] Step I: Repeat step H to reset the longitudinal positions of the first loading disk 3, the second loading disk 4, and the third loading disk 5.

[0076] The 5G communication module assembly fixture and its usage method of the present invention have the following advantages:

[0077] This invention employs a multi-level loading tray structure, which enables the quick and neat storage and deployment of 5G communication chips, components, and assembly tools, making it convenient and fast to use.

[0078] The inclusion of horizontal and vertical adjustment components 12 enables flexible adjustment of the loading tray position, accommodating the assembly of 5G communication modules of different specifications and models, thus expanding its applicability. The storage and repositioning design allows for quick and easy organization and restoration of the tooling, making post-use maintenance highly convenient.

[0079] The lateral and longitudinal adjustment components (12) are simple and efficient, reducing structural complexity and helping to lower production and usage costs. They also offer good versatility, allowing for flexible customization of the number of loading trays to meet diverse assembly requirements.

[0080] It is easy to operate, reduces the burden of operation, reduces user fatigue, and improves work efficiency.

[0081] The longitudinal and lateral adjustment components 6 can quickly set the position of the loading tray, making positioning and fixing quick and convenient, improving operational efficiency, and enhancing the overall efficiency and quality of 5G communication module assembly while reducing production costs.

[0082] Although the invention has been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these inventions without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A method for using a 5G communication module assembly fixture, characterized in that: The steps include: Step (A), lifting the first loading tray (3) out from the second loading tray (4), and rotating the first loading tray (3) so that the first positioning cylinder (8) deflects by 10°. Maintaining the deflection angle of the first loading disc (3), pull it up to the upper part of the lifting handle (2), and rotate the first loading disc (3) in the opposite direction to return the first positioning cylinder (8) to the center. Continue to pull, so that the first positioning cylinder (8) moves to the side of the positioning groove (1202) on the upper part of the lifting handle (2). At this time, the spring (704) is weakened and elastically elongated. The first positioning cylinder (8) is squeezed by the sliding plate (11) and moved into the first hexagonal groove (12021) to complete the setting of the longitudinal height of the first loading plate (3). Step (B): Move the positioning buttons (604) on both sides of the first loading plate (3) out of the positioning holes (605) and into the through holes (603), and move the position of the first loading plate (3) laterally until the edge. At this time, insert the positioning buttons (604) into the positioning holes (605) to complete the adjustment of the lateral position of the first loading plate (3). Step (C), repeat step (A) to adjust the longitudinal position of the second loading disk (4); Step (D): Move the positioning buttons (604) on both sides of the second loading plate (4) out of the positioning holes (605) and into the through holes (603). Move the position of the second loading plate (4) laterally until the first loading plate (3) covers half of the second loading plate (4) from above. At this time, insert the positioning buttons (604) into the positioning holes (605) to complete the adjustment of the lateral position of the second loading plate (4). Step (E), repeat step (A) to adjust the longitudinal position of the third loading disk (5); Step (F): Move the positioning buttons (604) on both sides of the third loading plate (5) out of the positioning holes (605) and into the through holes (603). Move the position of the third loading plate (5) laterally until the third loading plate (5) obstructs the load-bearing chassis (1) when viewed from above. At this time, insert the positioning buttons (604) into the positioning holes (605) to complete the adjustment of the lateral position of the third loading plate (5). Step (G): When the use is finished, reset the lateral positions of the first loading disk (3), the second loading disk (4), and the third loading disk (5); Step (H): Press the protruding buttons (1203) on both sides of the third loading plate (5) so that the slots (1204) of the protruding buttons (1203) squeeze the third positioning (10) cylinder through the third hexagonal groove (12023). The third positioning (10) cylinder squeezes the spring (704) in the elastic inner cavity (702) through the sliding plate (11), so that the third positioning (10) cylinder moves and is stored in the elastic inner cavity (702). Rotate the third loading plate (5) again so that the third positioning (10) cylinder deflects by 10° and moves the third loading plate (5) downward so that it is placed in the bearing base (1) through the groove (13). Step (I) Repeat step (H) to reset the longitudinal positions of the first loading plate (3), the second loading plate (4), and the third loading plate (5); The 5G communication module assembly fixture includes a support chassis (1), and lifting handles (2) are connected to both sides of the support chassis (1). A first loading plate (3), a second loading plate (4), and a third loading plate (5) are sequentially arranged above the supporting chassis (1). The first loading plate (3), the second loading plate (4), and the third loading plate (5) are respectively assembled for loading 5G communication chips, components, and assembly tools. The diameters of the first loading plate (3), the second loading plate (4), the third loading plate (5) and the supporting chassis (1) increase sequentially, and the first loading plate (3), the second loading plate (4), the third loading plate (5) and the supporting chassis (1) cooperate in sequence; The first loading tray (3), the second loading tray (4) and the third loading tray (5) are provided with lateral adjustment components (6) on both sides. The lateral adjustment components (6) include a slider (601), and a slide rail (602) is connected inside the slider (601). A through hole (603) is opened on one side of the slider (601), and a positioning button (604) is connected inside the through hole (603). The upper part of the slide rail (602) has multiple sets of positioning holes (605). The positioning holes (605) cooperate with the positioning button (604) so ​​that the positioning button (604) is connected to the positioning hole (605) through the through hole (603) to fix the slider (601) on one side of the slide rail (602) and complete the adjustment of the lateral position of the first loading plate (3), the second loading plate (4), and the third loading plate (5). One side of the lateral adjustment component (6) is connected to an elastic element (7). The elastic element (7) includes a connecting plate (701) disposed on one side of the slider (601) and connected to the slide rail (602). An elastic inner cavity (702) is opened inside the connecting plate (701), and a hexagonal rod (703) is disposed inside the elastic inner cavity (702). A spring (704) is provided inside the elastic inner cavity (702) and on the outer periphery of the hexagonal rod (703). The spring (704) is located on the side of the slide plate (11) away from the positioning cylinder. The elastic element (7) located on the side of the first loading plate (3), the second loading plate (4) and the third loading plate (5) is connected to the lifting handle (2) through the first positioning cylinder (8), the second positioning cylinder (9) and the third positioning cylinder (10) respectively. The second loading plate (4), the third loading plate (5) and the supporting base (1) are provided with grooves (13) for placing the elastic element (7) on both sides. The first positioning cylinder (8), the second positioning cylinder (9) and the third positioning cylinder (10) are all connected to a sliding plate (11) on one side, and the sliding plate (11) is connected to a spring (704); The first positioning cylinder (8), the second positioning cylinder (9) and the third positioning cylinder (10) are all hexagonal prisms, and the size of the first positioning cylinder (8), the second positioning cylinder (9) and the third positioning cylinder (10) increases sequentially. Both sides of the lifting handle (2) are provided with longitudinal adjustment components (12) for adjusting the height of the first loading tray (3), the second loading tray (4) and the third loading tray (5); the longitudinal adjustment component (12) includes a guide groove (1201) opened inside the lifting handle (2), the guide groove (1201) is provided with multiple sets of positioning grooves (1202), and each set of positioning grooves (1202) is connected to a protruding button (1203). One side of the protruding button (1203) is provided with a slot (1204) that cooperates with the positioning groove (1202) so that the protruding button (1203) can be inserted into the positioning groove (1202); The positioning groove (1202) includes a first hexagonal groove (12021), a second hexagonal groove (12022), and a third hexagonal groove (12023), and the radii of the first hexagonal groove (12021), the second hexagonal groove (12022), and the third hexagonal groove (12023) increase sequentially, so that the first hexagonal groove (12021), the second hexagonal groove (12022), and the third hexagonal groove (12023) cooperate with the first positioning cylinder (8), the second positioning cylinder (9), and the third positioning cylinder (10), respectively.

2. The method of using a 5G communication module assembly fixture according to claim 1, characterized in that: The slide rail (602) has baffles (606) on both sides for limiting the stroke of the slider (601).

3. The method of using a 5G communication module assembly fixture according to claim 2, characterized in that: The first positioning cylinder (8), the second positioning cylinder (9) and the third positioning cylinder (10) are all located on the outer periphery of the hexagonal rod (703).

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