An application server component processing device for an electric power IMS administrative exchange network

Abstract

The present invention relates to the field of application servers, and specifically discloses an application server component processing device for an electric power IMS administrative exchange network, comprising a conveying mechanism, a synchronization mechanism and a plug-in, wherein the synchronization mechanism is arranged on one side of the conveying mechanism, and a feeding mechanism, a stamping mechanism, a welding mechanism, a shot peening mechanism and a discharging mechanism are sequentially arranged on the periphery of the conveying mechanism along the movement direction of its internal conveyor belt; the conveying mechanism and the synchronization mechanism respectively drive the workpieces thereon to be stamped and formed, and form a support seat, an upper cover and a base, then the conveyor belt and the synchronization belt sequentially drive the support seat to contact the upper cover and the base, and under the adjustment action of the adjustment mechanism, the support seat is sequentially fitted with the upper cover and the base, then the three are sequentially welded through a welding structure to form a plug-in after welding, and finally the material is discharged by shot peening, and the stamping, welding and shot peening of the entire plug-in are continuously and integratedly performed, thereby realizing efficient and continuous automated processing of the plug-in.

Description

Technical Field

[0001] The present invention relates to the field of application servers, and more specifically, to an application server component processing device of an electric power IMS administrative switching network. Background Art

[0002] IMS was first proposed by 3GPP to provide multimedia services on mobile communication networks. It was later widely recognized by the industry and gradually expanded to a unified core control network suitable for multiple access methods such as fixed broadband and cable. It is currently the core of the next-generation network architecture of 3GPP / 3GPP2 (mobile) and TISPAN / ITU-T (fixed). As a unified architecture for the integration of mobile and fixed access, IMS is the direction for further development and evolution of future telecommunications networks. IMS is an open network architecture that further separates services from control on the basis of soft switching, and provides IP multimedia service control capabilities based on IP bearer, with SIP (Session Initiation Protocol) as the core control protocol, and is access-independent.

[0003] IMS adopts a new IP multimedia service form, supporting conversational services such as voice and video conversations, multimedia conferences, messages, status presentation, video sharing, dynamic address books, etc.; supporting some non-conversational services such as IPTV, Web and IMS converged services, etc. IMS supports a variety of fixed and mobile access methods, including mobile access: 2G\3G\LTE, etc.; fixed access: LAN, WLAN, xDSL, xPON, etc.

[0004] Among them, the server components of IMS include: Figure 2 The plug-in shown in the figure is composed of three parts, namely, an upper cover, a support seat and a base. In the current plug-in processing process, the upper cover, the support seat and the base need to be formed separately, and then the three are combined and welded into a plug-in, and finally the surface of the plug-in is pickled. This processing technology has more processes, uses more equipment, and has a relatively low efficiency, which cannot meet the current requirements of automated, continuous, efficient and intelligent processing. Summary of the invention

[0005] The present invention provides an application server component processing device for an electric power IMS administrative switching network, which solves the technical problems in the related art that the existing processing technology has many processes, uses many devices and has low efficiency.

[0006] According to one aspect of the present invention, there is provided an application server component processing device for an electric power IMS administrative exchange network, comprising a transmission mechanism, a synchronization mechanism and a plug-in, wherein the synchronization mechanism is arranged on one side of the transmission mechanism, and a feeding mechanism, a stamping mechanism, a welding mechanism, a shot peening mechanism and a discharging mechanism are sequentially arranged on the periphery of the transmission mechanism along the movement direction of the internal conveyor belt thereof, the synchronization mechanism and the transmission mechanism are symmetrically arranged along the welding mechanism, the synchronization mechanism comprises a synchronous belt, and molds are arranged on the conveyor belt and the synchronous belt, the plug-in comprises a support seat, an upper cover and a base, the support seat is arranged in the mold on the conveyor belt, and the upper cover and the base are distributed and arranged in the molds on the synchronous belts in two groups of synchronization mechanisms;

[0007] It also includes an adjusting mechanism, which is connected to the mold. The mold is connected to the conveyor belt and the synchronous belt through the adjusting mechanism. The adjusting mechanism is used to drive the mold to rotate and move horizontally when it moves to the welding mechanism. An active mechanism is arranged on the transmission belt, and the active mechanism cooperates with the adjusting component. The active mechanism is used to drive the mold to descend and reposition and clamp when the mold moves to the shot peening mechanism.

[0008] Furthermore: a connecting ear is arranged on the upper surface of the support seat, and a connecting part is arranged on the bottom, the connecting ear and the connecting part are arranged vertically, a connecting part is installed on the outer wall of the upper cover, the connecting part corresponds to the connecting ear, and a protrusion is installed on the top of the base, and the protrusion corresponds to the connecting part.

[0009] Furthermore: the adjusting mechanism includes a maintaining component, a lifting component, a rotating component and an adjusting component. The maintaining component is connected to the adjusting component. The maintaining component is used to drive the mold to maintain a horizontal state during the movement of the conveyor belt. The lifting component cooperates with the maintaining component. The lifting component is used to drive the mold to move to the shot peening mechanism and then drive the mold to descend. The adjusting component cooperates with the mold. The mold includes two sets of templates. The adjusting component is used to adjust the opening and closing of the two sets of templates. The rotating component is connected to the mold. The rotating component is used to drive the mold to move horizontally and then rotate ninety degrees.

[0010] Furthermore: the maintaining component includes a transmission shaft, a maintaining block is installed at one end of the transmission shaft, a maintaining guide rail is arranged on the conveyor belt, the maintaining guide rail is arranged in a ring shape, and notches are provided at the stamping mechanism and the shot peening mechanism, the transmission shaft is arranged horizontally, and the maintaining block is rectangular.

[0011] Further: the lifting assembly includes an electric push rod and a maintaining rod. The electric push rod is installed on the conveying mechanism, corresponds to the notch, and is arranged vertically. The maintaining rod is arranged vertically. The transmission shaft passes through the maintaining rod. A slide groove is provided on the inner wall of the maintaining rod. A slider is installed on the outer wall of the transmission shaft. The slider is arranged inside the slide groove. The groove direction of the slide groove is consistent with the length direction of the maintaining rod. The slider and the slide groove form a sliding guide. A maintaining spring is installed inside the maintaining rod. The two ends of the maintaining spring are respectively fixedly connected to the slider and the inner wall of the maintaining rod. A seat body is installed at the bottom of the maintaining rod, and the seat body is connected to the conveyor belt.

[0012] Furthermore: the rotating assembly includes a passive component and a matching component, the passive component is connected to the mold, the matching component is installed on the conveyor belt, and the passive component matches with the matching component.

[0013] Further: the passive part includes a support block and a connecting block. The support block is provided with two groups. A rotating shaft is installed between the two groups of support blocks. The rotating shaft is connected to the mold through a connecting rod. The axial direction of the rotating shaft is perpendicular to the axial direction of the transmission shaft and is arranged horizontally. The connecting block is fixedly installed on the transmission shaft. The support block is slidably connected to the connecting block. A fixed plate is installed on the transmission shaft. The fixed plate is L-shaped. The support block is slidably connected to the fixed plate through a rod at the bottom. Gears are installed inside the support block. The rotating shaft extends into both ends of the support block and is fixedly connected to the gears. Rack A and rack B are installed inside the two groups of support blocks respectively. , the length direction of both is consistent with the axial direction of the transmission shaft, rack A and rack B are meshed with the gear and are respectively located on the upper and lower sides of the gear, sliding grooves are opened inside the support block and the connecting block, rack A and rack B are arranged in the sliding grooves, and form a sliding guide with the sliding grooves, and a first spring is installed between the support block and the connecting block, and a second spring is installed between rack A, rack B and the connecting block, and the matching piece is installed on the conveyor belt, and the matching piece includes a first arc plate and a second arc plate, the first arc plate matches with rack A, and the second arc plate matches with rack B.

[0014] Furthermore: the adjusting component includes a driving member, a connecting member, a separating member and a resetting member, the driving member is installed on the transmission belt, the driving member cooperates with the connecting member, the connecting member cooperates with the adjusting member, the adjusting member is connected to the mold, and the resetting member cooperates with the adjusting member.

[0015] Further: the driving member includes a cylinder, which is installed on the transmission mechanism, the connecting member includes an inner shaft, which is installed in the transmission shaft, the axis of the inner shaft is consistent with the axis of the transmission shaft, and the end of the transmission shaft away from the maintaining block is installed with a telescopic shaft, the telescopic shaft is elastically arranged, and the axial direction of the telescopic shaft is consistent with the axial direction of the transmission shaft, the adjusting member includes a connecting rod, the rod length direction of the connecting rod is consistent with the axial direction of the inner shaft, and is located at the same horizontal height as the inner shaft, and a convex block is installed at the end of the connecting rod away from the inner shaft, and two groups of wedge blocks are installed on the outer wall of the mold, and the two groups of wedge blocks are respectively arranged on the two groups of templates, and the convex block Located between the two groups of wedge blocks and matched with the inclined surfaces of the wedge blocks, the reset member includes a limit rod, the length direction of the limit rod is perpendicular to the axial direction of the transmission shaft, the connecting rod passes through and is slidably connected to the limit rod, a limit groove is provided inside the limit rod, the groove direction of the limit groove is consistent with the length direction of the limit rod, a limit block is arranged inside the limit groove, the limit block and the limit groove form a sliding guide match, the two groups of limit blocks are respectively fixedly connected to the two groups of templates through two groups of connecting shafts, a reset spring is arranged inside the limit groove, and the two ends of the reset spring are respectively fixedly connected to the inner wall of the connecting rod and the limit block.

[0016] Furthermore: a baffle is installed on the telescopic shaft at the output end of the cylinder, the baffle is arranged vertically, and the end surface of the inner shaft extending out of the transmission shaft is hemispherical.

[0017] The beneficial effect of the present invention is that during use, the conveyor belt on the conveying mechanism and the synchronous belt on the synchronous mechanism run synchronously, respectively driving the workpieces thereon to be stamped and formed, and forming a support seat, an upper cover and a base. Subsequently, the conveyor belt and the synchronous belt drive the support seat to contact the upper cover and the base in turn, and under the adjustment action of the adjustment mechanism, the support seat is fitted with the upper cover and the base in turn, and then the three are welded in turn through the welding structure to form a plug-in after welding, and finally shot peening is performed to discharge the material. The stamping, welding and shot peening of the entire plug-in are carried out continuously and in an integrated manner, thereby realizing efficient and continuous automated processing of the plug-in. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a structural schematic diagram of an application server component processing device of an electric power IMS administrative exchange network of the present invention;

[0019] Figure 2 It is a schematic diagram of a plug-in structure of an application server component processing device of an electric power IMS administrative exchange network of the present invention;

[0020] Figure 3 It is a schematic diagram of a support base after stamping of an application server component processing device of an electric power IMS administrative exchange network of the present invention;

[0021] Figure 4 It is a schematic diagram of a support base after punching and shearing of an application server component processing device of an electric power IMS administrative exchange network according to the present invention;

[0022] Figure 5 It is a schematic diagram of a bent support base of an application server component processing device of an electric power IMS administrative exchange network according to the present invention;

[0023] Figure 6 It is a schematic diagram of a top view of the structure of an adjustment mechanism of an application server component processing device of an electric power IMS administrative exchange network of the present invention;

[0024] Figure 7 It is a top view of an adjustment mechanism of an application server component processing device of an electric power IMS administrative exchange network of the present invention located at a stamping mechanism;

[0025] Figure 8 It is a top view of an adjustment mechanism of an application server component processing device of an electric power IMS administrative exchange network of the present invention located at a welding mechanism;

[0026] Fig. 9 It is a top view of an adjustment mechanism of an application server component processing device of an electric power IMS administrative exchange network of the present invention located at a shot peening mechanism;

[0027] Fig.10 It is a side view structural diagram of an adjustment mechanism of an application server component processing device of an electric power IMS administrative exchange network of the present invention;

[0028] Fig.11 It is a schematic diagram of the front view structure of an adjustment mechanism of an application server component processing device of an electric power IMS administrative exchange network of the present invention;

[0029] Fig.12 The present invention is a schematic diagram of a limit rod structure of an application server component processing device of an electric power IMS administrative exchange network.

[0030] In the figure: 1. conveying mechanism; 11. conveyor belt; 2. synchronous mechanism; 21. synchronous belt; 3. feeding mechanism; 4. stamping mechanism; 5. welding mechanism; 6. shot peening mechanism; 7. mold; 8. adjustment mechanism; 81. maintaining assembly; 811. transmission shaft; 812. maintaining guide rail; 813. maintaining block; 82. lifting assembly; 821. electric push rod; 822. maintaining rod; 823. maintaining spring; 824. slider; 83. rotating assembly; 831. passive part; 8311. supporting block; 8312. connecting block; 8313A. A rack; 8313B. B rack; 8314. rotating shaft; 8315. gear; 8316. first spring; 83 17. second spring; 8318. connecting rod; 8319. fixing plate; 832. matching piece; 8321. first arc plate; 8322. second arc plate; 84. adjusting assembly; 841. driving piece; 8411. cylinder; 842. connecting piece; 8421. inner shaft; 8422. telescopic shaft; 843. adjusting piece; 8431. connecting rod; 8432. protrusion; 8433. wedge; 844. reset piece; 8441. limiting rod; 8442. connecting shaft; 8443. reset spring; 9. plug-in; 91. supporting seat; 911. connecting ear; 912. connecting part; 92. upper cover; 921. connecting part; 93. base; 931. protrusion. DETAILED DESCRIPTION

[0031] The subject matter described herein will now be discussed with reference to example embodiments. It should be understood that the discussion of these embodiments is only to enable those skilled in the art to better understand and implement the subject matter described herein, and is not a limitation of the scope of protection, applicability or examples set forth in the claims. The functions and arrangements of the elements discussed may be changed without departing from the scope of protection of the contents of this specification. Various examples may omit, replace or add various processes or components as needed. In addition, the features described relative to some examples may also be combined in other examples.

[0032] Embodiment 1

[0033] like Figure 1-Figure 12As shown, an application server component processing device of an electric power IMS administrative exchange network includes a conveying mechanism 1, a synchronization mechanism 2 and a plug-in 9. The synchronization mechanism 2 is arranged on one side of the conveying mechanism 1. The outer periphery of the conveying mechanism 1 is sequentially arranged with a feeding mechanism 3, a stamping mechanism 4, a welding mechanism 5, a shot peening mechanism 6 and a discharging mechanism along the movement direction of the internal conveyor belt 11. The synchronization mechanism 2 and the conveying mechanism 1 are symmetrically arranged along the welding mechanism 5. The synchronization mechanism 2 includes a synchronous belt 21. The conveyor belt 11 and the synchronous belt 21 are both provided with a mold 7. The plug-in 9 includes a support seat 91, an upper cover 92 and a base 93. The support seat 91 is arranged in the mold 7 on the conveyor belt 11. The upper cover 92 and the base 93 are distributed and arranged in the mold 7 on the synchronous belt 21 in two groups of synchronization mechanisms 2.

[0034] It also includes an adjusting mechanism 8, which is connected to the mold 7. The mold 7 is connected to the conveyor belt 11 and the synchronous belt 21 through the adjusting mechanism 8. The adjusting mechanism 8 is used to drive the mold 7 to rotate and move horizontally when it moves to the welding mechanism 5. An active mechanism is arranged on the transmission belt, and the active mechanism cooperates with the adjusting component 84. The active mechanism is used to drive the mold 7 to descend and reposition and clamp when it moves to the shot peening mechanism 6.

[0035] A connecting ear 911 is arranged on the upper surface of the support seat 91, and a connecting portion 912 is arranged on the bottom. The connecting ear 911 and the connecting portion 912 are arranged vertically. A connecting portion 921 is installed on the outer wall of the upper cover 92, and the connecting portion 921 corresponds to the connecting ear 911. A protrusion 931 is installed on the top of the base 93, and the protrusion 931 corresponds to the connecting portion 912.

[0036] The adjusting mechanism 8 includes a maintaining component 81, a lifting component 82, a rotating component 83 and an adjusting component 84. The maintaining component 81 is connected to the adjusting component 84. The maintaining component 81 is used to drive the mold 7 to maintain a horizontal state during the movement of the conveyor belt 11. The lifting component 82 cooperates with the maintaining component 81. The lifting component 82 is used to drive the mold 7 to move to the shot peening mechanism 6 and then drive the mold 7 to descend. The adjusting component 84 cooperates with the mold 7. The mold 7 includes two groups of templates. The adjusting component 84 is used to adjust the opening and closing of the two groups of templates. The rotating component 83 is connected to the mold 7. The rotating component 83 is used to drive the mold 7 to move horizontally and then rotate ninety degrees.

[0037] The maintaining assembly 81 includes a transmission shaft 811, a maintaining block 813 is installed at one end of the transmission shaft 811, a maintaining guide rail 812 is arranged on the conveyor belt 11, the maintaining guide rail 812 is arranged in a ring shape, and notches are provided at the stamping mechanism 4 and the shot peening mechanism 6, the transmission shaft 811 is arranged horizontally, and the maintaining block 813 is rectangular.

[0038] The lifting assembly 82 includes an electric push rod 821 and a maintaining rod 822. The electric push rod 821 is installed on the conveying mechanism 1, corresponding to the notch, and is arranged vertically. The maintaining rod 822 is arranged vertically. The transmission shaft 811 passes through the maintaining rod 822. A slide groove is provided on the inner wall of the maintaining rod 822. A slider 824 is installed on the outer wall of the transmission shaft 811. The slider 824 is arranged inside the slide groove. The groove direction of the slide groove is consistent with the length direction of the maintaining rod 822. The slider 824 and the slide groove form a sliding guide cooperation. A maintaining spring 823 is installed inside the maintaining rod 822. The two ends of the maintaining spring 823 are respectively fixedly connected to the slider 824 and the inner wall of the maintaining rod 822. A seat body is installed at the bottom of the maintaining rod 822, and the seat body is connected to the conveyor belt 11.

[0039] The rotating assembly 83 includes a passive component 831 and a matching component 832 . The passive component 831 is connected to the mold 7 . The matching component 832 is installed on the conveyor belt 11 . The passive component 831 matches with the matching component 832 .

[0040] The passive component 831 includes a support block 8311 and a connecting block 8312. The support block 8311 is provided with two groups. A rotating shaft 8314 is installed between the two groups of support blocks 8311. The rotating shaft 8314 is connected to the mold 7 through a connecting rod 8318. The axial direction of the rotating shaft 8314 is perpendicular to the axial direction of the transmission shaft 811 and is arranged horizontally. The connecting block 8312 is fixedly installed on the transmission shaft 811. The support block 8311 is slidably connected to the connecting block 8312. A fixing plate 8319 is installed on the transmission shaft 811. The fixing plate 8319 is an L-shaped structure. The support block 8311 is slidably connected to the fixing plate 8319 through a rod at the bottom. A gear 8315 is installed inside the support block 8311. The rotating shaft 8314 extends into both ends of the support block 8311 and is fixedly connected to the gear 8315. A rack 8313A and a rack 8313B are installed inside the two groups of support blocks 8311 respectively. , the length direction of both is consistent with the axial direction of the transmission shaft 811, the A rack 8313A and the B rack 8313B are both meshed with the gear 8315, and are respectively located on the upper and lower sides of the gear 8315, the support block 8311 and the connecting block 8312 are both provided with sliding grooves, the A rack 8313A and the B rack 8313B are arranged in the sliding grooves, and form a sliding guide with the sliding grooves, and a first spring 8316 is installed between the support block 8311 and the connecting block 8312, and a second spring 8317 is installed between the A rack 8313A, the B rack 8313B and the connecting block 8312, and the matching piece 832 is installed on the conveyor belt 11, and the matching piece 832 includes a first arc plate 8321 and a second arc plate 8322, the first arc plate 8321 matches with the A rack 8313A, and the second arc plate 8322 matches with the B rack 8313B.

[0041] The adjusting assembly 84 includes a driving member 841, a connecting member 842, a separating member and a resetting member 844. The driving member 841 is installed on the transmission belt. The driving member 841 cooperates with the connecting member 842. The connecting member 842 cooperates with the adjusting member 843. The adjusting member 843 is connected to the mold 7. The resetting member 844 cooperates with the adjusting member 843.

[0042] The driving member 841 includes a cylinder 8411, which is installed on the transmission mechanism 1. The connecting member 842 includes an inner shaft 8421, which is installed in the transmission shaft 811. The axis of the inner shaft 8421 is consistent with the axis of the transmission shaft 811. A telescopic shaft 8422 is installed at one end of the transmission shaft 811 away from the maintaining block 813. The telescopic shaft 8422 is elastically arranged, and the axial direction of the telescopic shaft 8422 is consistent with the axial direction of the transmission shaft 811. The adjusting member 843 includes a connecting rod 8431. The rod length direction of the connecting rod 8431 is consistent with the axial direction of the inner shaft 8421 and is located at the same horizontal height as the inner shaft 8421. A bump 8432 is installed at one end of the connecting rod 8431 away from the inner shaft 8421. Two sets of wedge blocks 8433 are installed on the outer wall of the mold 7. The two sets of wedge blocks 8433 are arranged on two groups of templates respectively, the protrusion 8432 is located between the two groups of wedge blocks 8433 and cooperates with the inclined surface of the wedge block 8433, the reset member 844 includes a limiting rod 8441, the rod length direction of the limiting rod 8441 is perpendicular to the axial direction of the transmission shaft 811, the connecting rod 8431 passes through and is slidably connected to the limiting rod 8441, a limiting groove is provided inside the limiting rod 8441, the groove direction of the limiting groove is consistent with the length direction of the limiting rod 8441, a limiting block is arranged inside the limiting groove, the limiting block and the limiting groove form a sliding guide cooperation, the two groups of limiting blocks are fixedly connected to the two groups of templates through two groups of connecting shafts 8442 respectively, a reset spring 8443 is arranged inside the limiting groove, and the two ends of the reset spring 8443 are respectively fixedly connected to the inner wall of the connecting rod 8431 and the limiting block.

[0043] A baffle is installed on the telescopic shaft 8422 at the output end of the cylinder 8411. The baffle is arranged vertically, and the end surface of the inner shaft 8421 extending out of the transmission shaft 811 is hemispherical.

[0044] The processing device of the present invention comprises a feeding stage, a stamping stage, a welding stage and a shot peening stage during use, wherein:

[0045] Feeding stage: the feeding mechanism 3 places the metal sheet horizontally on the cavity of the first mold 7, wherein the circular plate portion of the metal sheet is arranged in the circular cavity, and the rectangular plate portion is arranged on the rectangular cavity, and then the transmission belt drives the first mold 7 to move, and the maintaining block 813 slides inside the maintaining guide rail 812, and the maintaining slide block 824 is rectangular, and the sliding in the maintaining slide groove can maintain the level of the first mold 7;

[0046] Stamping stage: when the mold 7 enters the first group of stamping mechanisms 4 under the conveyance of the conveyor belt 11, the conveyor belt 11 pauses. At this time, the maintaining block 813 moves to the notch in the maintaining guide rail 812. The first stamping mechanism 4 includes a stamping head and a receiving seat. When in use, the stamping head descends, and after contacting the first mold 7, the descent of the stamping head squeezes the first mold 7 down, and the maintaining block 813 descends at the notch. The notch is set to ensure the descent of the maintaining block 813 and the first mold 7, and squeeze the first mold 7 on the receiving seat. The descent of the first mold 7 causes the transmission shaft 811 to descend inside the maintaining rod 822, and squeezes the maintaining spring 823 to contract. Then the stamping head continues to descend to stamp the metal sheet on the first mold 7. During the stamping process, the circular plate portion is stamped into the cavity, and the height difference between the rectangular cavity and the circular cavity is used to stamp the rectangular plate portion into a vertical shape, forming a shape as shown in the figure. Figure 3 As shown in the connecting ear 911, after punching, the punch head rises and resets, and the maintaining spring 823 starts to reset after losing the pressure of the punch head, driving the transmission shaft 811 to reset and rise, and the maintaining block 813 moves to the notch again, and then the conveyor belt 11 continues to move, and drives the maintaining block 813 to enter the maintaining guide rail 812 again;

[0047] Similarly, the semi-finished support seat 91 after stamping is continuously moved by the conveyor belt 11 and the die 7 to the stamping position of the second stamping mechanism 4. The stamping head in the second stamping mechanism 4 descends to punch and shear the bottom of the semi-finished support seat 91 and punch out the docking portion. Then, the semi-finished support seat 91 is transported to the third stamping mechanism 4 again. The connection portion 912 of the semi-finished support seat 91 is bent by the descending stamping head in the third stamping mechanism 4, and the connection portion 912 is bent from a horizontal state to a vertical state, thereby forming a finished workpiece A.

[0048] It should be noted that: the two sets of synchronous belts 21 are also provided with a feeding mechanism 3 and a punching mechanism 4 in the conveying direction, and the upper cover 92 and the base 93 are also formed by punching.

[0049] Welding stage: During the first welding, as the conveyor belt moves, the finished workpiece A is conveyed to the top of the first welding mechanism 5. Driven by the conveyor belt 11, the rack A 8313A contacts the convex block 8432 of the first arc plate 8321. Driven by the transmission belt, the rack A 8313A slides on the first arc plate 8321. At the same time, driven by the first arc plate 8321, the rack A 8313A moves horizontally and moves inside the support block 8311 and the limit block. The horizontal movement meshing gear 8315 of the rack A 8313A rotates inside the support block 8311 and drives the bearing of the connecting gear 8315 to rotate. The bearing drives the mold 7 to rotate through the connecting rod 8318, so that the mold 7 rotates downward by ninety degrees. At this time, the workpiece A rotates from a horizontal state to a vertical state, and the connecting ear 911 faces the synchronization mechanism 2.

[0050] When the horizontal movement of rack A 8313A drives gear 8315 to rotate ninety degrees, one end of rack A 8313A resists inside support block 8311. At this time, conveyor belt 11 continues to drive rack A 8313A to move along the convex block 8432 of the first arc plate 8321. The convex block 8432 continues to drive rack A 8313A to move horizontally and push support block 8311 to move synchronously, so that support block 8311 gradually separates from connecting block 8312. At the same time, the first spring 8316 between support block 8311 and connecting block 8312 and the second spring 8317 between rack A 8313A and connecting block 8312 begin to stretch. When support block 8311 moves horizontally, it drives mold 7 that has rotated ninety degrees to move horizontally.

[0051] At the same time, the synchronous belt 21 on the first group of synchronous mechanisms 2 drives the mold 7 and the upper cover 92 thereon to move to the welding mechanism 5, and in the same manner as above, the mold 7 thereon is rotated downward from the horizontal to a vertical state by 90 degrees, and the upper cover 92 in the vertical state is pushed to move toward the support seat 91. When the connecting portion 921 on the upper cover 92 contacts the connecting ear 911, the telescopic welding head in the welding mechanism 5 extends in and welds the connection between the two, thereby installing the upper cover 92 on the support seat 91 to form a semi-finished plug-in 9;

[0052] After the first welding, the conveyor belt 11 continues to drive the mold 7 to move, and causes the A rack 8313A to break away from the contact with the first arc plate 8321. After the first arc plate 8321 loses the resistance to the A rack 8313A, the second spring 8317 between the A rack 8313A and the connecting block 8312 begins to reset, and at the same time, the first spring 8316 between the connecting block 8312 and the support block 8311 begins to reset. When the first spring 8316 drives the A rack 8313A to reset, the support block 8311 first performs a horizontal reset movement. The horizontal movement of the support block 8311 drives the mold 7 on the transmission belt and the mold 7 on the synchronous belt 21 to move away from each other. Since both the workpiece A and the workpiece B are adsorbed on the magnetic block on the mold 7, the magnetic force of the mold 7 on the conveyor belt 11 is greater than the magnetic force of the magnetic block on the synchronous belt 21. Therefore, when the mold 7 on the conveyor belt 11 moves horizontally, it will pull the semi-finished product plug-in 9 to separate it from the mold 7 on the synchronous belt 21.

[0053] After the second spring 8317 is horizontally reset, the support block 8311 is fitted with the connection block 8312, and the A rack 8313A continues to perform horizontal reset movement, and the horizontal movement meshes with the gear 8315 again, so that the gear 8315 rotates 90 degrees to reset, so that the mold 7 is rotated from the vertical state to the horizontal state, and the semi-finished plug-in 9 is rotated from the vertical state to the horizontal state;

[0054] During the second welding, similarly, when the transmission belt conveys the mold 7 and the semi-finished plug-in 9 to the inside of the second welding mechanism 5, the transmission belt drives the B rack 8313B under the gear 8315 to contact the second arc plate 8322. With the driving of the conveyor belt 11, the protrusion 8432 of the second arc plate 8322 contacts the B rack 8313B. The protrusion 8432 of the second arc plate 8322 drives the B rack 8313B under the gear 8315 to move horizontally. The horizontal movement of the B rack 8313B meshes with the gear 8315 to rotate inside the support block 8311, and drives the bearing connected to the gear 8315 to rotate. The bearing drives the mold 7 to rotate through the connecting rod 8318, so that the mold 7 rotates upward by ninety degrees. At this time, the semi-finished plug-in 9 rotates from the horizontal state to the vertical state again, and the connecting portion 912 faces the synchronization mechanism 2.

[0055] When the horizontal movement of the B rack 8313B drives the gear 8315 to rotate ninety degrees, one end of the B rack 8313B resists the inside of the support block 8311. At this time, the conveyor belt 11 continues to drive the B rack 8313B to move along the protrusion 8432 part of the second arc plate 8322. The protrusion 8432 part continues to drive the B rack 8313B to move horizontally and push the support block 8311 to move synchronously, so that the support block 8311 gradually separates from the connecting block 8312. At the same time, the first spring 8316 between the support block 8311 and the connecting block 8312 and the other set of second springs 8317 between the B rack 8313B and the connecting block 8312 begin to stretch. When the support block 8311 moves horizontally, it drives the mold 7 that has rotated ninety degrees to move horizontally.

[0056] At the same time, the synchronous belt 21 on the second group of synchronous mechanisms 2 drives the mold 7 and the base 93 thereon to move to the welding mechanism 5, and in the same manner as above, the mold 7 thereon is rotated upward from the horizontal to a vertical state by 90 degrees, and the base 93 in the vertical state is pushed to move toward the semi-finished plug-in 9. When the protrusion 8432 on the base 93 contacts the connecting portion 912, the telescopic welding head in the second group of welding mechanisms 5 is extended to weld the connection between the two, thereby installing the base 93 on the semi-finished plug-in 9 to form a finished plug-in 9;

[0057] After the second welding, the conveyor belt 11 continues to drive the mold 7 to move, and causes the B rack 8313B to break away from the contact with the second arc plate 8322. After the second arc plate 8322 loses the resistance to the B rack 8313B, the second spring 8317 between the B rack 8313B and the connecting block 8312 begins to reset, and at the same time, the first spring 8316 between the connecting block 8312 and the supporting block 8311 begins to reset. When the first spring 8316 drives the B rack 8313B to reset, the supporting block 8311 first performs a horizontal reset movement. The horizontal movement of the supporting block 8311 drives the mold 7 on the transmission belt and the mold 7 seat on the synchronous belt 21 to move away from each other, and pulls the plug-in 9 to make it separate from the mold 7 on the synchronous belt 21.

[0058] After the second spring 8317 is horizontally reset, the support block 8311 fits with the connecting block 8312. At this time, the B rack 8313B continues to perform horizontal reset movement, and the horizontal movement engages the gear 8315 again, causing the gear 8315 to rotate ninety degrees for reset. The mold 7 is rotated from a vertical state to a horizontal state, and the plug-in 9 is rotated from a vertical state to a horizontal state. At this time, the mold 7 forms a clamp, clamping the plug-in 9 from the middle of the original support seat 91.

[0059] It should be noted that a slide plate is installed on the side of the connecting plate close to the support block 8311, and the slide plate is inserted into the slide groove inside the support plate. When the support plate is driven by the A rack 8313A or the B rack 8313B to move away from the connecting block 8312, the support block 8311 will slide on the slide plate. The setting of the slide plate enables the support block 8311 to smoothly synchronize with the A rack 8313A or the B rack 8313B to move horizontally.

[0060] Shot peening stage: after the plug-in 9 is formed through secondary welding, the conveyor belt 11 transports the mold 7 and the plug-in 9 to the shot peening mechanism 6, which includes a spray gun and a workbench. At this time, the conveyor belt 11 is temporarily stopped, and the maintaining block 813 moves again to the notch of the maintaining guide rail 812, and the telescopic shaft 8422 at the output end of the electric push rod 821 is stretched, and the transmission shaft 811 is pressed down from above, so that the transmission shaft 811 descends in the maintaining rod 822, and the maintaining spring 823 is squeezed again to shrink it. As the transmission shaft 811 descends, until the bottom of the plug-in 9 contacts the workbench inside the shot peening mechanism 6, the shot peening mechanism 6 then performs shot peening on the plug-in 9. During the shot peening process, the bottom of the plug-in 9 is first shot peened, and then the cylinder 8 411 pushes the vertical rod on the telescopic shaft 8422 at the output end to move, and the movement of the vertical rod pushes the inner shaft 8421 inside the transmission shaft 811 to move horizontally. Since the transmission shaft 811 is limited inside the maintaining rod 822 by the slider 824, the slider 824 is a cross-shaped structure and is stuck in the internal slide groove of the maintaining rod 822. The slider 824 limits the horizontal movement of the transmission shaft 811, so that it can only perform vertical lifting and lowering movements on the maintaining rod 822. Therefore, when the inner shaft 8421 is pushed, the inner shaft 8421 will move inside the transmission shaft 811, and the transmission shaft 811 will not move horizontally with the inner shaft 8421. When one end of the inner shaft 8421 moves to the telescopic shaft 8422 at one end of the transmission shaft 811, the inner shaft 8421 The continued movement of 421 drives the telescopic shaft 8422 to start stretching. The stretching of the telescopic shaft 8422 makes one end of it contact with the sliding rod. The movement of the sliding rod pushes the protrusion 8432 to move horizontally. When the protrusion 8432 contacts the wedge block 8433, the protrusion 8432 moves from the middle of the two groups of wedge blocks 8433 and squeezes the wedge block 8433 to move to both sides. The movement of the wedge block 8433 drives the two groups of templates that constitute the mold 7 to move away from each other, and moves inside the limit rod 8441 through the limit block. The movement of the limit block squeezes the limit spring to contract. At this time, the mold 7 is separated from the clamping of the plug-in 9 due to the movement of the template, and the plug-in 9 is placed horizontally on the workbench. Then the electric push rod 821 continues to drive the transmission shaft 811 to descend, and the inner shaft 8421 One end of the template slides on the baffle, so that the two sets of templates are lowered in a separated state. When the two sets of templates descend to the bottom of the plug-in 9, that is, the top of the original base 93, the cylinder 8411 drives the baffle to start resetting, so that it is separated from the push on the inner shaft 8421. The telescopic shaft 8422 starts to reset after the inner shaft 8421 loses the push of the baffle, and is separated from the push on the sliding rod. After the sliding rod loses the pressure applied by the telescopic shaft 8422, the limit spring starts to reset and drives the limit block to reset and slide in the limit rod 8441, driving the wedge block 8433 and the template to reset and move, and the protrusion 8432 is squeezed out of the two sets of wedge blocks 8433. At this time, the two sets of templates re-form the mold 7 to clamp the bottom of the plug-in 9. The clamping part has been shot peened.Then, the spray gun in the shot peening mechanism 6 surrounds the top of the plug-in 9 again to perform shot peening treatment on it. By changing the clamping position of the plug-in 9 by the mold 7, it is possible to avoid the lack of shot peening treatment at the contact position between the mold 7 and the plug-in 9, so that the shot peening mechanism 6 can completely perform shot peening treatment on the surface of the plug-in 9. After the shot peening treatment, the telescopic shaft 8422 of the electric push rod 821 begins to reset, and the transmission shaft 811 resets and rises under the drive of the maintenance spring 823, and at the same time, the maintenance block 813 rises again to the gap of the maintenance guide rail 812;

[0061] Discharging stage: the conveyor belt 11 is driven again, driving the shot-peened plug-in 9 to move from the shot-peening mechanism 6 to the top of the discharging mechanism, and then another set of cylinders 8411 pushes the inner shaft 8421 to move in the transmission shaft 811 again, so that the mold 7 is separated into two sets of templates again. The opening of the template can place the plug-in 9 on the conveyor belt of the discharging mechanism, and the material is sent out through the discharging mechanism.

[0062] The embodiment of the present embodiment is described above in conjunction with the accompanying drawings, but the present embodiment is not limited to the above-mentioned specific implementation methods. The above-mentioned specific implementation methods are merely illustrative and not restrictive. Under the enlightenment of the present embodiment, ordinary technicians in this field can also make many forms without departing from the purpose of the present embodiment and the scope of protection of the claims, all of which are within the protection of the present embodiment.

Claims

1. An application server component processing device for an electric power IMS administrative switching network, characterized in that: The invention comprises a conveying mechanism (1), a synchronous mechanism (2) and a plug-in unit (9), wherein the synchronous mechanism (2) is arranged on one side of the conveying mechanism (1), and a feeding mechanism (3), a punching mechanism (4), a welding mechanism (5), a shot peening mechanism (6) and a discharging mechanism are arranged in sequence on the periphery of the conveying mechanism (1) along the movement direction of the internal conveying belt (11), and the synchronous mechanism (2) and the conveying mechanism (1) are arranged symmetrically along the welding mechanism (5). The synchronous mechanism (2) comprises a synchronous belt (21), and a mold (7) is arranged on both the conveying belt (11) and the synchronous belt (21). The plug-in unit (9) comprises a support seat (91), an upper cover (92) and a base (93), and the support seat (91) is arranged in the mold (7) on the conveying belt (11), and the upper cover (92) and the base (93) are respectively arranged in the mold (7) on the synchronous belt (21) in the two sets of synchronous mechanisms (2); The device also includes an adjusting mechanism (8), the adjusting mechanism (8) being connected to the mold (7), the mold (7) being connected to the conveyor belt (11) and the synchronous belt (21) through the adjusting mechanism (8), the adjusting mechanism (8) being used to drive the mold (7) to rotate and move horizontally when it moves to the welding mechanism (5), an active mechanism being arranged on the conveyor belt, the active mechanism being matched with the adjusting component (84), and the active mechanism being used to drive the mold (7) to descend and to be repositioned and clamped when it moves to the shot peening mechanism (6); The adjusting mechanism (8) comprises a maintaining component (81), a lifting component (82), a rotating component (83) and an adjusting component (84). The maintaining component (81) is connected to the adjusting component (84). The maintaining component (81) is used to drive the mold (7) to maintain a horizontal state during the movement of the conveyor belt (11). The lifting component (82) cooperates with the maintaining component (81). The lifting component (82) is used to drive the mold (7) to move to the shot peening mechanism (6) and then drive the mold (7) to descend. The adjusting component (84) cooperates with the mold (7). The mold (7) comprises two sets of templates. The adjusting component (84) is used to adjust the opening and closing of the two sets of templates. The rotating component (83) is connected to the mold (7). The rotating component (83) is used to drive the mold (7) to move horizontally and then rotate ninety degrees.

2. The application server component processing device of the power IMS administrative switching network according to claim 1 is characterized in that: A connecting ear (911) is arranged on the upper surface of the support base (91), and a connecting portion (912) is arranged on the bottom; the connecting ear (911) and the connecting portion (912) are arranged vertically with the support base (91); a connecting portion (921) is installed on the outer wall of the upper cover (92); the connecting portion (921) corresponds to the connecting ear (911); a protrusion (931) is installed on the top of the base (93); the protrusion (931) corresponds to the connecting portion (912).

3. The application server component processing device of the power IMS administrative switching network according to claim 1, characterized in that: The maintaining assembly (81) comprises a transmission shaft (811), one end of which is mounted with a maintaining block (813), a maintaining guide rail (812) is arranged on the conveyor belt (11), the maintaining guide rail (812) is arranged in a ring shape, and notches are provided at the punching mechanism (4) and the shot peening mechanism (6), the transmission shaft (811) is arranged horizontally, and the maintaining block (813) is rectangular.

4. The application server component processing device of the electric power IMS administrative switching network according to claim 3 is characterized in that: The lifting assembly (82) comprises an electric push rod (821) and a maintaining rod (822). The electric push rod (821) is installed on the conveying mechanism (1) and corresponds to the notch and is arranged vertically. The maintaining rod (822) is arranged vertically. The transmission shaft (811) passes through the maintaining rod (822). The inner wall of the maintaining rod (822) is provided with a slide groove. The outer wall of the transmission shaft (811) is provided with a slider (824). The slider (824) is arranged inside the slide groove. The groove direction of the slide groove is consistent with the length direction of the maintaining rod (822). The slider (824) and the slide groove form a sliding guide. A maintaining spring (823) is installed inside the maintaining rod (822). The two ends of the maintaining spring (823) are respectively fixedly connected to the slider (824) and the inner wall of the maintaining rod (822). A seat body is installed at the bottom of the maintaining rod (822), and the seat body is connected to the conveyor belt (11).

5. The application server component processing device of the electric power IMS administrative switching network according to claim 4, characterized in that: The rotating assembly (83) comprises a passive component (831) and a matching component (832); the passive component (831) is connected to the mold (7); the matching component (832) is installed on the conveyor belt (11); and the passive component (831) matches the matching component (832).

6. The application server component processing device of the electric power IMS administrative switching network according to claim 5, characterized in that: The passive component (831) comprises a support block (8311) and a connecting block (8312). The support block (8311) is provided with two groups. A rotating shaft (8314) is installed between the two groups of support blocks (8311). The rotating shaft (8314) is connected to the mold (7) through a connecting rod (8318). The axial direction of the rotating shaft (8314) is perpendicular to the axial direction of the transmission shaft (811) and is arranged horizontally. The connecting block (8312) is fixedly installed on the transmission shaft (811). The support block (8311) is slidably connected to the connecting block (8314). 8312, a fixed plate (8319) is installed on the transmission shaft (811), the fixed plate (8319) is in an L-shaped structure, the support block (8311) is slidably connected to the fixed plate (8319) through a rod at the bottom, a gear (8315) is installed inside the support block (8311), the rotating shaft (8314) extends into the two ends of the support block (8311) and is fixedly connected to the gear (8315), and the two sets of support blocks (8311) are respectively installed inside with an A rack (8313A) and a B rack (8313 B), the length direction of both is consistent with the axial direction of the transmission shaft (811), the A rack (8313A) and the B rack (8313B) are both meshed with the gear (8315) and are respectively located on the upper and lower sides of the gear (8315), the support block (8311) and the connecting block (8312) are both provided with sliding grooves, the A rack (8313A) and the B rack (8313B) are arranged in the sliding grooves, and form a sliding guide with the sliding grooves, and the support block (8311) and the connecting block (8312) are respectively provided with sliding grooves. ), a first spring (8316) is installed between the A rack (8313A), the B rack (8313B) and the connecting block (8312), a second spring (8317) is installed between the A rack (8313A), the B rack (8313B) and the connecting block (8312), the matching piece (832) is installed on the conveyor belt (11), and the matching piece (832) includes a first arc plate (8321) and a second arc plate (8322), the first arc plate (8321) is matched with the A rack (8313A), and the second arc plate (8322) is matched with the B rack (8313B).

7. The application server component processing device of the electric power IMS administrative switching network according to claim 3 is characterized in that: The adjusting component (84) comprises a driving member (841), a connecting member (842), a separating member and a resetting member (844); the driving member (841) is mounted on the transmission belt; the driving member (841) cooperates with the connecting member (842); the connecting member (842) cooperates with the adjusting member (843); the adjusting member (843) is connected to the mold (7); and the resetting member (844) cooperates with the adjusting member (843).

8. The application server component processing device of the electric power IMS administrative switching network according to claim 7, characterized in that: The driving member (841) includes a cylinder (8411) which is mounted on the transmission mechanism (1). The connecting member (842) includes an inner shaft (8421) which is mounted in the transmission shaft (811). The axis of the inner shaft (8421) is consistent with the axis of the transmission shaft (811). A telescopic shaft (8422) is mounted on one end of the transmission shaft (811) away from the maintaining block (813). The telescopic shaft (8422) is elastic. The axial direction of the telescopic shaft (8422) is consistent with the axial direction of the transmission shaft (811), the adjusting member (843) includes a connecting rod (8431), the rod length direction of the connecting rod (8431) is consistent with the axial direction of the inner shaft (8421), and is located at the same horizontal height as the inner shaft (8421), and a protrusion (8432) is installed at one end of the connecting rod (8431) away from the inner shaft (8421), and two sets of wedge blocks (8432) are installed on the outer wall of the mold (7). 433, two groups of wedge blocks (8433) are arranged on two groups of templates respectively, the protrusion (8432) is located between the two groups of wedge blocks (8433) and cooperates with the inclined surface of the wedge block (8433), the reset member (844) includes a limit rod (8441), the rod length direction of the limit rod (8441) is perpendicular to the axial direction of the transmission shaft (811), the connecting rod (8431) penetrates and is slidably connected to the limit rod (8441), and the limit rod (8441) is connected to the limit rod (8441). 1) is provided with a limit groove inside, the groove direction of the limit groove is consistent with the length direction of the limit rod (8441), a limit block is arranged inside the limit groove, the limit block and the limit groove form a sliding guide, two groups of limit blocks are respectively fixedly connected to the two groups of templates through two groups of connecting shafts (8442), a return spring (8443) is arranged inside the limit groove, and the two ends of the return spring (8443) are respectively fixedly connected to the inner wall of the connecting rod (8431) and the limit block.

9. The application server component processing device of the electric power IMS administrative switching network according to claim 8, characterized in that: A baffle is installed on the telescopic shaft (8422) at the output end of the cylinder (8411), the baffle is arranged vertically, and one end surface of the inner shaft (8421) extending out of the transmission shaft (811) is hemispherical.

Images