Radio frequency coaxial connector jack forming device

Abstract

The utility model relates to a radio frequency coaxial connector jack forming device which comprises a conveying assembly for continuously and directionally conveying shaft workpieces to be processed and a box body for limiting jack processing space, the conveying assembly transversely penetrates through the box body so as to continuously drive the shaft workpieces to intermittently penetrate through the box body, and the jack processing space is defined by the box body. An inserting hole forming assembly capable of periodically conducting hole forming on the shaft workpieces moving to a hole forming station in the box body is arranged in the box body, and a circulating assembly capable of recycling and filtering cooling waste liquid generated when the inserting hole forming assembly works is further arranged at the bottom of the box body. The circulating assembly is provided with a coarse filtering mechanism and a fine filtering mechanism in a filtering shell in a manner of constructing a graded filtering structure and performing double filtering on the collected cooling waste liquid. According to the utility model, the shaft workpieces can be continuously transferred through the conveying structure so as to realize continuous processing without shutdown, and meanwhile, the cooling waste liquid is effectively purified by constructing a double filtering structure.

Description

Technical Field

[0001] The utility model relates to the technical field of radio frequency coaxial connector punching equipment, in particular to a radio frequency coaxial connector jack forming device. Background Art

[0002] An RF coaxial connector is a component installed on a cable or an instrument. As a component for transmitting electrical connections or separations, the connector is used in communications and electronic equipment and similar electronic equipment to connect RF coaxial cables, coaxial lines, microstrips, and waveguides. Since it can be applied to multiple fields, especially widely used in the field of communications, the demand for RF coaxial connectors has also risen sharply with the large-scale construction of communication facilities. The connection between two RF coaxial connectors requires a pipe joint. In the prior art, the work of drilling mounting holes on the pipe joint often needs to be completed on a drilling machine. The RF connector pipe joint is formed by injection molding and demolding of the mold. Generally, the two ends of the RF connector pipe joint after demolding have threads for connection. After the injection molding and demolding of the RF connector pipe joint are completed, a punching device is needed to perform secondary punching processing on the RF connector pipe joint to facilitate later fixation and connection.

[0003] At present, when drilling the ends and pipe joints of RF connectors, the existing drilling equipment can only complete the drilling of a single workpiece at a time. After completing the drilling of a single workpiece, it is necessary to stop the machine to disassemble and assemble the workpiece before drilling another workpiece to be processed again. The degree of automation is low, and the extra time consumed by stopping and disassembling is long, which seriously affects the processing efficiency and reduces the production speed. In addition, during the drilling process, the equipment will generate a lot of heat in the process of cutting the metal substrate. For example, the patent document with publication number CN105817667A discloses a drilling device for the inner conductor in a dual RF coaxial connector. Although it can improve the production efficiency to a certain extent, the device does not consider the problem of continuous processing causing the temperature of the drill to rise and affect the processing quality, resulting in an increase in the frequency of high-temperature damage to the drill, which affects the continuous processing efficiency. In addition, the tube-shaped workpiece formed after the jack is formed has a limited wall thickness, which is very easy to deform in a high temperature environment, resulting in a decrease in the drilling quality. Finally, although the conventional cooling method of coolant can transfer the heat during processing, the cooling waste liquid after absorbing heat cannot be directly recycled and reused due to the presence of a large number of metal impurities with a large particle size range, resulting in high processing consumption and high production costs. Utility Model Content

[0004] The utility model aims to provide a radio frequency coaxial connector socket forming device which can continuously transfer shaft workpieces through a transmission structure with quick-insert positioning to achieve continuous processing without stopping the machine, and at the same time effectively purify the cooling waste liquid by constructing a double filtering structure so that the cooling liquid can be recycled, so as to solve the problem that the punching equipment used in the existing radio frequency coaxial connector is a conventional traditional drilling machine, and its processing process requires a lot of time to stop and disassemble the workpiece, which increases the processing time and reduces the processing efficiency; and the existing radio frequency coaxial connector continuous processing equipment cannot effectively cool down, resulting in the drill tool being unable to stably and continuously perform punching processing and lacking a cooling system that can effectively filter the coolant.

[0005] The technical solution adopted by the utility model is: a radio frequency coaxial connector socket forming device, including a transmission component capable of continuously and directionally transmitting an axial workpiece to be processed and a box body capable of defining a socket processing space, wherein the transmission component passes through the box body horizontally to continuously drive the axial workpiece to intermittently pass through the box body, wherein a socket forming component capable of periodically performing hole processing on the axial workpiece moved to a hole-making station in the box body is arranged in the box body, and a circulation component capable of recovering and filtering cooling waste liquid generated when the socket forming component is working is also arranged at the bottom of the box body, wherein the circulation component arranges a coarse filtering mechanism and a fine filtering mechanism in the filter housing in a manner of constructing a graded filtering structure and performing double filtering on the cooling waste liquid collected by the circulating component.

[0006] According to a preferred embodiment, the filter housing includes an upper shell cavity and a lower shell cavity in which the coarse filter mechanism and the fine filter mechanism are respectively installed, wherein the axial upper end opening of the upper shell cavity is connected to the inner cavity of the box body, and the axial lower end opening of the upper shell cavity is connected to the lower shell cavity.

[0007] According to a preferred embodiment, the coarse filtering mechanism includes a filter grid, a bent support rod and a partition column. The filter grid is horizontally placed in the upper shell cavity to intercept large-sized metal scraps in the cooling waste liquid flowing through the upper shell cavity. The upper surface of the filter grid is supported by the bent support rod connected to its grid line to support the partition column above the mesh of the filter grid, and cross bars are arranged at intervals on the column body of the partition column.

[0008] According to a preferred embodiment, the fine filtering mechanism includes an inclined filter screen, a confluence inclined plate, a separation buffer plate and an overflow pipe, wherein the inclined filter screen is obliquely arranged in the lower section shell cavity, and the confluence inclined plate is arranged below the inclined filter screen; the separation buffer plate is also arranged in the lower section shell cavity, and the overflow pipe is passed through the side wall of the liquid collecting chamber defined by the lower section shell cavity away from the confluence inclined plate.

[0009] According to a preferred embodiment, the hydraulic telescopic rod of the jack forming assembly is supported on the inner top surface of the box body, and a hole-making motor is provided at the axial lower end of the hydraulic telescopic rod, the output end of the hole-making motor is detachably connected to a hole-making cutter head, and a coolant output pipe parallel to the hole-making cutter head is also provided on the side of the hole-making motor.

[0010] According to a preferred embodiment, the axial upper end of the coolant output pipe is connected to a liquid storage tank placed on the box body in a manner of penetrating the box body, a liquid replenishment opening is provided on the top surface of the liquid storage tank, and the liquid storage tank is connected to the output end of the overflow pipe through a pump inlet pipe.

[0011] According to a preferred embodiment, the conveying assembly includes a support shaft, a transmission wheel, a conveyor belt and a clamping head, wherein the support shaft supports the transmission wheel on both sides of the box body, and the conveyor belt is sleeved on the transmission wheel to rotate with the transmission wheel; the clamping heads capable of clamping and limiting the shaft workpiece are also arranged at intervals on the conveyor belt.

[0012] According to a preferred embodiment, a plurality of internal pressure ladder blocks are circumferentially spaced apart in the inner cavity of the tube shell of the clamping head, and a magnetic positioning ring sleeved on the outside of the internal pressure ladder blocks is also movably inserted in the inner cavity of the tube shell, and the top of the magnetic positioning ring is connected to the surface of the tube shell through a spring.

[0013] According to a preferred embodiment, the box body is further provided with a magnetic belt capable of running in parallel with a portion of the conveyor belt, and the magnetic belt comprises a flat magnetic belt body and an annular magnetic belt body wound on the transmission wheel.

[0014] According to a preferred embodiment, a liquid collection tank is further provided on the outer side of the box body; the liquid collection tank is connected to the upper shell cavity through an external conduit.

[0015] The beneficial effects of the utility model are:

[0016] The transmission component provided in the present application can continuously drive the shaft workpiece to transfer in a step-by-step manner, so that the shaft workpiece can pass through the box in an orderly manner at time intervals, and the transmission component can stop the shaft workpieces that pass through the box in sequence at the punching station in the box for the time required to complete the punching process, so that the device can continuously complete the punching process of the shaft workpiece. The transmission component provided in the present application can clamp the shaft workpiece it transmits in a fixed area by means of partitioned magnetic suction positioning, so as to ensure the stability of the clamping while realizing the automatic removal of the shaft workpiece, thereby improving the processing efficiency. The intermittent transmission constructed by the transmission component can conveniently and continuously install the shaft workpiece on the interval station defined by it to realize the continuous processing of the shaft workpiece, avoiding the defects of the existing equipment that needs to be stopped for disassembly and assembly, and can only complete the processing of a single shaft workpiece at a time, greatly improving the processing efficiency and speed. In addition, the present application is also provided with a circulation component connected to the cooling mechanism of the socket forming component, so that the box, the socket forming component and the circulation component can construct a circulation pipeline of the coolant, so as to circulate the coolant to improve its use efficiency and reduce production costs, and also ensure the cooling effect of the circulating coolant on the processing position. The circulation component provided in the present application constructs a double filtering structure and uses two different filtering methods to effectively filter a variety of metal slags with different particle sizes in the cooling waste liquid, thereby ensuring the purity and lubrication effect of the recycled coolant. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 This is a structural schematic diagram of a preferred radio frequency coaxial connector jack forming device proposed by the utility model;

[0018] Figure 2 It is a structural schematic diagram of a clamping head of a preferred radio frequency coaxial connector jack forming device proposed by the utility model;

[0019] Figure 3 The utility model is a schematic structural diagram of a preferred radio frequency coaxial connector jack forming device in which a clamping head limits a shaft workpiece.

[0020] Reference numerals list

[0021] 1: conveying assembly; 2: box; 3: jack forming assembly; 4: circulation assembly; 11: support shaft; 12: transmission wheel; 13: conveyor belt; 14: clamping head; 15: magnetic belt; 31: hydraulic telescopic rod; 32: hole opening motor; 33: hole opening cutter head; 34: coolant output pipe; 35: liquid storage tank; 36: pumping inlet pipe; 41: filter housing; 42: coarse filtering mechanism; 43: fine filtering mechanism; 44: accumulated liquid collection tank; 45 : External conduit; 141: Tube shell; 142: Internal pressure ladder block; 143: Magnetic positioning ring; 151: Flat magnetic belt body; 152: Annular magnetic belt body; 351: Fluid infusion opening; 411: Upper shell cavity; 412: Lower shell cavity; 421: Filter grid; 422: Bent support rod; 423: Dividing column; 424: Crossbar; 431: Inclined filter screen; 432: Converging inclined plate; 433: Dividing buffer plate; 434: Overflow pipe. DETAILED DESCRIPTION

[0022] In order to more clearly illustrate the embodiments of the utility model or the technical solutions in the prior art, the utility model will be briefly introduced below in combination with the drawings and the descriptions of the embodiments or the prior art. Obviously, the following descriptions of the structures of the drawings are only some embodiments of the utility model. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0023] The technical solution provided by the present invention will be described in detail below by way of embodiments with reference to the accompanying drawings. It should be noted that the description of these embodiments is used to help understand the present invention, but does not constitute a limitation of the present invention. In some examples, some implementation methods are not described or are not described in detail because they belong to existing or conventional technologies.

[0024] In addition, the technical features recorded in this article, or the steps in all methods or processes disclosed, except for mutually exclusive features and / or steps, can also be combined in any suitable manner in one or more embodiments. For those skilled in the art, it is easy to understand that the steps or operation sequence of the methods related to the embodiments provided herein can also be changed. Any order in the drawings and embodiments is only for illustrative purposes and does not imply a requirement to follow a certain order unless it is explicitly stated that a certain order is required.

[0025] The serial numbers assigned to the components herein, such as "first", "second", etc., are only used to distinguish the objects described and do not have any order or technical meaning. The "connection" and "coupling" mentioned in this application, under reasonable circumstances (not constituting a self-contradiction), include direct and indirect connections (couplings).

[0026] The following is a detailed description with reference to the accompanying drawings.

[0027] Example 1

[0028] The present application provides a radio frequency coaxial connector jack forming device, which includes a transmission component 1, a box body 2, a jack forming component 3 and a circulation component 4.

[0029] according to Figure 1-3A specific embodiment is shown, in which the transmission component 1 is capable of continuously and directionally transmitting the shaft workpiece to be processed. The box body 2 can define a socket processing space. The transmission component 1 passes through the box body 2 horizontally to continuously drive the shaft workpiece to intermittently pass through the box body 2, thereby completing the socket opening processing of the shaft workpiece. A socket forming component 3 is provided in the box body 2, which can periodically perform hole opening processing on the shaft workpiece that moves to the hole opening station in the box body 2. A circulation component 4 is also provided at the bottom of the box body 2, which can recover and filter the cooling waste liquid generated when the socket forming component 3 is working. The circulation component 4 completes the filtration and recovery of the cooling waste liquid by constructing a graded filtration structure and performing double filtration on the collected cooling waste liquid, and the circulation component 4 cooperates with each other through different filtration methods to improve the filtration effect, thereby ensuring its effectiveness in filtering the cooling waste liquid. The transmission component 1 provided in the present application can continuously drive the shaft workpiece to perform step-by-step transfer, so that the shaft workpiece can pass through the box body 2 in an orderly manner at intervals, and the transmission component 1 can stop the shaft workpieces that pass through the box body 2 in sequence at the punching station in the box body 2 for the time required to complete the punching process, so that the device can continuously complete the punching process of the shaft workpiece. The transmission component 1 provided in the present application can clamp the shaft workpiece it transmits in a fixed area by means of partitioned magnetic positioning, so as to ensure the stability of the clamping while realizing the automatic removal of the shaft workpiece, thereby improving the processing efficiency. The intermittent transmission constructed by the transmission component 1 can conveniently and continuously install the shaft workpiece on the interval station defined by it to realize the continuous processing of the shaft workpiece, avoiding the defects of the existing equipment that needs to be stopped for disassembly and assembly, and can only complete the processing of a single shaft workpiece at a time, greatly improving the processing efficiency and speed. In addition, the present application is also provided with a circulation component 4 connected to the cooling mechanism of the socket forming component 3, so that the box 2, the socket forming component 3 and the circulation component 4 can construct a circulation pipeline of the coolant, so as to circulate the coolant to improve its use efficiency and reduce production costs, and can also ensure the cooling effect of the circulating coolant on the processing position. The circulation component 4 provided in the present application constructs a double filtering structure and uses two different filtering methods to effectively filter a variety of metal slags with different particle sizes in the cooling waste liquid, thereby ensuring the purity and lubrication effect of the recycled coolant. The socket forming component 3 provided in the present application can cool and dissipate heat for the drill and the punching position, thereby ensuring the processing temperature, so as to avoid excessive processing temperature affecting the processing quality and the life of the drill, and the coolant is circulated through the circulation component 4, which reduces the production cost while ensuring the continuous processing effect.

[0030] Preferably, the conveying assembly 1 comprises a support shaft 11, a transmission wheel 12, a conveyor belt 13, a clamping head 14 and a magnetic belt 15. Preferably, the support shaft 11 supports the transmission wheel 12 on both sides of the box body 2. Further preferably, the conveyor belt 13 is sleeved on the transmission wheel 12 to rotate with the transmission wheel 12. Preferably, the transmission wheel 12 on the discharge side is also connected to the rotary drive motor, so that it rotates under the drive of the rotary drive motor and drives the conveyor belt 13 to translate and rotate. Further preferably, the rotary drive motor is a stepping rotary motor, so that the conveyor belt 13 can drive the clamping head 14 to perform intermittent stepping motion on a certain loop line, so that the clamping head 14 arranged at intervals on the conveyor belt 13 can drive the shaft workpiece to move to the processing space defined by the box body 2 in sequence, and the shaft workpiece clamped by the clamping head 14 is positioned on the punching station with a stagnation period, and then the jack forming assembly 3 performs punching processing on the shaft workpiece below it by falling. Preferably, a clamping head 14 capable of clamping and limiting the position of shaft-type workpieces is also arranged at intervals on the conveyor belt 13. Specifically, a plurality of internal pressure ladder blocks 142 are arranged circumferentially at intervals in the inner cavity of the tube shell 141 of the clamping head 14. Preferably, a magnetic attraction positioning ring 143 sleeved on the outer side of the internal pressure ladder block 142 is also movably inserted in the inner cavity of the tube shell 141, and further preferably, the top of the magnetic attraction positioning ring 143 is connected to the surface of the tube shell 141 through a spring. Preferably, the box body 2 is also provided with a magnetic attraction belt 15 that can be parallel to a part of the conveyor belt 13. Further preferably, the magnetic belt 15 includes a straight magnetic belt body 151 and an annular magnetic belt body 152 wound on the transmission wheel 12, so that when the conveyor belt 13 drives the clamping head 14 to approach the magnetic belt 15, the magnetic belt 15 can drive the magnetic positioning ring 143 to move downward by magnetic traction, forcing the internal pressure ladder block 142 to contract radially inward and clamp the shaft workpiece surrounded by multiple internal pressure ladder blocks 142. Preferably, two straight magnetic belt bodies 15 are arranged in parallel, so that the shaft workpiece that has been processed is automatically blanked after it moves out of the magnetic area defined by the straight magnetic belt body 15, thereby realizing automatic removal of materials, reducing the time required for workpiece removal, thereby reducing manpower consumption or the installation cost of additional removal devices. Preferably, the straight magnetic belt body 151 can also provide support for the conveyor belt 13 to prevent it from bending and deforming when subjected to the downward pressure of punching, thereby affecting the punching accuracy and punching depth calculation. Preferably, the internal pressure ladder block 142 is installed on the inner wall surface of the tube shell 141 through a rotating shaft rotatably connected to the upper end edge of the internal pressure ladder block 142, so that the internal pressure ladder block 142 can rotate around the connection position between the internal pressure ladder block 142 and the tube shell 141. Further preferably, the surface of the internal pressure ladder block 142 away from the tube shell 141 is provided with an anti-slip layer to ensure that when the surface abuts against the side of the shaft workpiece, it can effectively locate the position of the shaft workpiece and prevent the shaft workpiece from rotating synchronously during the drilling process, thereby affecting the drilling efficiency and drilling quality.

[0031] Preferably, the jack forming assembly 3 comprises a hydraulic telescopic rod 31, a hole opening motor 32, a hole opening cutter head 33, a coolant output pipe 34, a liquid storage tank 35 and a pumping inlet pipe 36. Preferably, the hydraulic telescopic rod 31 of the jack forming assembly 3 is supported on the inner top surface of the box body 2. Preferably, the axial lower end of the hydraulic telescopic rod 31 is provided with a hole opening motor 32. Preferably, the output end of the hole opening motor 32 is detachably connected to the hole opening cutter head 33. Preferably, the side of the hole opening motor 32 is also provided with a coolant output pipe 34 parallel to the hole opening cutter head 33, so that the coolant output pipe 34 can continuously deliver coolant to the contact position between the hole opening cutter head 33 and the shaft workpiece to reduce the temperature of the hole opening process. Further preferably, the axial upper end of the coolant output pipe 34 is connected to the liquid storage tank 35 placed on the box body 2 in a manner of penetrating the box body 2, and the top surface of the liquid storage tank 35 is provided with a liquid replenishment opening 351. Preferably, the liquid storage tank 35 is connected to the output end of the overflow pipe 434 through the pumping inlet pipe 36. Preferably, the pumping inlet pipe 36 includes a liquid infusion pipe body and a driving liquid pump disposed on the liquid infusion pipe body, so that the driving liquid pump can drive the filtered coolant to flow in a directional manner in the liquid infusion pipe body and flow back from the overflow pipe 434 to the liquid storage tank 35, thereby realizing the circulation of the coolant. Further preferably, a refrigeration heat exchange unit and / or heat dissipation fins are also disposed on the liquid infusion pipe body, so as to cool down the reflux coolant transported therethrough, so as to ensure the cooling effect of the coolant.

[0032] Preferably, the circulation component 4 includes a filter housing 41, a coarse filter mechanism 42, a fine filter mechanism 43, a liquid collection tank 44 and an external conduit 45. Preferably, the circulation component 4 sets a coarse filter mechanism 42 and a fine filter mechanism 43 in the filter housing 41 in a manner of constructing a graded filter structure and performing double filtration on the collected cooling waste liquid. Preferably, a liquid collection tank 44 is also provided on the outer side of the box body 2. Specifically, the liquid collection tank 44 can collect the cooling waste liquid that is dumped when the shaft workpiece that has completed the punching process is turned over when following the conveyor belt 13. Preferably, the liquid collection tank 44 is connected to the upper shell cavity 411 through an external conduit 45 to recycle and filter the collected cooling waste liquid. The present application performs double graded filtration on the impurities in the cooling waste liquid through the coarse filter mechanism 42 and the fine filter mechanism 43 to ensure the filtration efficiency and effect of metal impurities, to ensure the purity of the circulating cooling liquid, to ensure the effect of its secondary cooling, and to avoid the adverse effects of impurities on the punching process such as crushing.

[0033] Preferably, the filter housing 41 includes an upper shell cavity 411 and a lower shell cavity 412, in which the coarse filtering mechanism 42 and the fine filtering mechanism 43 are respectively installed. Preferably, the axial upper end opening of the upper shell cavity 411 is connected to the inner cavity of the housing 2, and the axial lower end opening of the upper shell cavity 411 is connected to the lower shell cavity 412. Preferably, the housing 2, the upper shell cavity 411, and the lower shell cavity 411 are threadedly connected in sequence, so as to facilitate disassembly, maintenance, and filter residue cleaning as required.

[0034] Preferably, the coarse filtering mechanism 42 includes a filtering grid 421, a bent support rod 422 and a partition column 423. Preferably, the filtering grid 421 is horizontally placed in the upper shell cavity 411 to intercept large-sized metal waste in the cooling waste liquid flowing through the upper shell cavity 411. Preferably, the upper surface of the filtering grid 421 is supported by a bent support rod 422 connected to its grid line to support a partition column 423 located above the mesh of the filtering grid 421. Further preferably, a cross bar 424 is arranged at intervals on the column body of the partition column 423 to intercept the filamentary metal waste generated by the hole opening process to effectively filter large-sized metal waste. Specifically, the bent support rod 422 and the partition column 423 can be effectively suspended and shielded above the mesh of the filtering grid 421 to prevent the metal waste from clogging the mesh while effectively allowing the cooling waste liquid to pass, thereby ensuring the filtering effect while ensuring the filtering efficiency. The coarse filtering mechanism 42 can effectively filter large-sized metal impurities while ensuring that the cooling waste liquid can be efficiently transferred to the lower shell cavity 412, so as to achieve effective filtration of particulate impurities of different sizes in a graded manner while ensuring the filtration efficiency.

[0035] Preferably, the fine filtering mechanism 43 includes an inclined filter screen 431, a converging inclined plate 432, a partitioning buffer plate 433 and an overflow pipe 434. Preferably, the inclined filter screen 431 is arranged obliquely in the lower shell cavity 412, and a converging inclined plate 432 is arranged below the inclined filter screen 431, which can guide the filtered cooling waste liquid to be collected in the liquid collection chamber defined by the lower shell cavity 412 in a splash-free manner. Preferably, a partitioning buffer plate 433 is also arranged in the lower shell cavity 412, which can separate the liquid collection chamber defined by it and buffer the impact force of the buffer flow. Preferably, an overflow pipe 434 is penetrated on the side wall of the liquid collection chamber defined by the lower shell cavity 412 away from the converging inclined plate 432. Specifically, the cooling waste liquid that slides obliquely from the converging inclined plate 432 into the liquid collecting chamber can complete sedimentation in the left chamber space separated by the partition buffer plate 433 in the liquid collecting chamber to separate metal impurities with smaller particle size, and the cooling liquid that has completed sedimentation filtration can flow into the right chamber space under the action of air pressure to achieve the level of the chamber spaces on both sides, and the cooling liquid that rises to the height of the overflow pipe 434 can be discharged through the overflow pipe 434. The fine filtering mechanism 43 provided in the present application effectively filters small particle impurities through two different types of filtering methods, namely, screen screening and static sedimentation, to ensure that the purity of the filtered cooling liquid meets the standard for secondary reuse.

[0036] The present utility model is not limited to the above optional implementation modes. Anyone can derive other various forms of products under the inspiration of the present utility model. However, no matter what changes are made in the shape or structure, all technical solutions that fall within the scope of the claims of the present utility model fall within the protection scope of the present utility model. Those skilled in the art should understand that the present utility model specification and its drawings are illustrative and do not constitute limitations on the claims. The protection scope of the present utility model is defined by the claims and their equivalents. Throughout the text, the features guided by "preferably" are only an optional method and should not be understood as having to be set. Therefore, the applicant reserves the right to abandon or delete the relevant preferred features at any time.

Claims

1. A radio frequency coaxial connector jack forming device, comprising a transmission component (1) capable of continuously and directionally transmitting a shaft workpiece to be processed and a box (2) capable of defining a jack processing space, characterized in that: The conveying assembly (1) passes through the box (2) transversely to continuously drive the shaft workpiece to intermittently pass through the box (2). A socket forming assembly (3) is arranged in the box (2) and is capable of periodically performing hole drilling processing on a shaft workpiece that moves to a hole drilling station in the box (2). A circulation component (4) capable of recovering and filtering the waste cooling liquid generated when the socket forming component (3) is in operation is also provided at the bottom of the box body (2), wherein the circulation component (4) is provided with a coarse filtering mechanism (42) and a fine filtering mechanism (43) in a filtering housing (41) in a manner of constructing a graded filtering structure and performing double filtering on the collected waste cooling liquid.

2. The RF coaxial connector jack forming device according to claim 1, characterized in that: The filter housing (41) comprises an upper housing chamber (411) and a lower housing chamber (412) for installing the coarse filtering mechanism (42) and the fine filtering mechanism (43) respectively, wherein: The axial upper end opening of the upper shell cavity (411) is in communication with the inner cavity of the casing (2), and the axial lower end opening of the upper shell cavity (411) is in communication with the lower shell cavity (412).

3. The RF coaxial connector jack forming device according to claim 2, characterized in that: The coarse filtering mechanism (42) comprises a filtering grid (421), a bent support rod (422) and a partition column (423). The filter grid (421) is horizontally placed in the upper shell cavity (411) to intercept large-sized metal waste in the cooling waste liquid flowing through the upper shell cavity (411). The upper surface of the filtering grid (421) supports the partition column (423) located above the mesh of the filtering grid (421) through the bent support rod (422) connected to its grid line, and the crossbar (424) is arranged at intervals on the column body of the partition column (423).

4. The RF coaxial connector jack forming device according to claim 3, characterized in that: The fine filtering mechanism (43) comprises an inclined filter screen (431), a converging inclined plate (432), a partitioning buffer plate (433) and an overflow pipe (434), wherein: The inclined filter screen (431) is arranged obliquely in the lower shell cavity (412), and the converging inclined plate (432) is arranged below the inclined filter screen (431); The partition buffer plate (433) is also provided in the lower shell cavity (412), and the overflow pipe (434) is passed through the side wall of the liquid collecting chamber defined by the lower shell cavity (412) away from the converging inclined plate (432).

5. The radio frequency coaxial connector jack forming device according to claim 4, characterized in that: The hydraulic telescopic rod (31) of the jack forming assembly (3) is supported on the inner top surface of the box body (2), and a hole-making motor (32) is provided at the axial lower end of the hydraulic telescopic rod (31), and the output end of the hole-making motor (32) is detachably connected to a hole-making cutter head (33). A cooling liquid output pipe (34) parallel to the hole-making cutter head (33) is also provided on the side of the hole-making motor (32).

6. The radio frequency coaxial connector jack forming device according to claim 5, characterized in that: The axial upper end of the coolant output pipe (34) is connected to a liquid storage tank (35) placed on the box body (2) in a manner of penetrating the box body (2); a liquid replenishment opening (351) is provided on the top surface of the liquid storage tank (35), and the liquid storage tank (35) is connected to the output end of the overflow pipe (434) through a pump inlet pipe (36).

7. The radio frequency coaxial connector jack forming device according to claim 6, characterized in that: The conveying assembly (1) comprises a supporting shaft (11), a transmission wheel (12), a conveying belt (13) and a clamping head (14), wherein: The support shaft (11) supports the transmission wheel (12) on both sides of the box body (2), and the conveyor belt (13) is sleeved on the transmission wheel (12) to rotate along with the transmission wheel (12); The clamping heads (14) capable of clamping and limiting the position of shaft-type workpieces are also arranged at intervals on the conveyor belt (13).

8. The radio frequency coaxial connector jack forming device according to claim 7, characterized in that: A plurality of internal pressure ladder blocks (142) are arranged at intervals in an annular direction in the inner cavity of the tube shell (141) of the clamping head (14), and a magnetic positioning ring (143) sleeved on the outside of the internal pressure ladder blocks (142) is also movably inserted in the inner cavity of the tube shell (141), and the top of the magnetic positioning ring (143) is connected to the surface of the tube shell (141) through a spring.

9. The radio frequency coaxial connector jack forming device according to claim 8, characterized in that: The box body (2) is also provided with a magnetic belt (15) capable of running in parallel with part of the conveyor belt (13), and the magnetic belt (15) comprises a straight magnetic belt body (151) and an annular magnetic belt body (152) wound on the transmission wheel (12).

10. The radio frequency coaxial connector jack forming device according to claim 9, characterized in that: The outer side of the box body (2) is also provided with a liquid collection tank (44); The effusion collection tank (44) is connected to the upper shell cavity (411) via an external conduit (45).

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