A signal call device plug-in processing device for electric power IMS administrative switching network

Abstract

The present invention relates to the field of signal call devices, and specifically discloses a signal call device plug-in processing device for an electric power IMS administrative switching network, comprising a transmission mechanism and a first synchronization mechanism, a second synchronization mechanism, a loading mechanism, a welding processing mechanism and a unloading mechanism. The transmission mechanism is arranged on one side of the synchronization mechanism, a welding mechanism is arranged between the transmission mechanism and the synchronization mechanism, and conveyor belts are arranged on the transmission mechanism and the synchronization mechanism. During use, three groups of conveyor belts respectively drive the workpieces thereon to perform stamping and forming, and form a support seat, an upper cover and a base. The conveyor belts 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 a welding structure to form a plug-in after welding, and finally pickled and discharged. The stamping, welding and pickling 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 signal call devices, and more particularly, to a signal call device plug-in processing device for 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 has since gained widespread industry recognition and has gradually expanded into a unified core control network suitable for multiple access methods, including fixed broadband and cable. Currently, it forms the core of the next-generation network architectures of 3GPP / 3GPP2 (mobile) and TISPAN / ITU-T (fixed). As a unified architecture for the convergence of mobile and fixed access, IMS is the direction for the further development and evolution of future telecommunications networks. IMS is an open network architecture that further separates services from control based on soft switching. It provides access-independent IP multimedia service control capabilities based on IP bearer and using SIP (Session Initiation Protocol) as the core control protocol.

[0003] IMS adopts a new IP multimedia service model, supporting conversational services such as voice and video conversations, multimedia conferencing, messaging, presence, video sharing, and dynamic address books; as well as some non-conversational services such as IPTV and Web-IMS convergence. IMS supports a variety of fixed and mobile access methods, including mobile access (2G, 3G, and LTE); and fixed access (LAN, WLAN, xDSL, and xPON).

[0004] Among them, the signal calling device of IMS includes: Figure 2 The plug-in shown in the figure is composed of three parts, namely the upper cover, the support seat and the 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 welded together to form a plug-in, and finally the surface of the plug-in is pickled. This processing technology has many steps, uses a lot of equipment, and is relatively inefficient, which cannot meet the requirements of current automated, continuous, efficient and intelligent processing. Summary of the Invention

[0005] The present invention provides a signal call device plug-in 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 steps, uses many devices and has low efficiency.

[0006] According to one aspect of the present invention, a signal call device plug-in processing device for an electric power IMS administrative switching network is provided, comprising a transmission mechanism and a first synchronization mechanism, a second synchronization mechanism, a loading mechanism, a welding processing mechanism and a unloading mechanism. The transmission mechanism is arranged on one side of the synchronization mechanism, a welding mechanism is arranged between the transmission mechanism and the synchronization mechanism, and conveyor belts are arranged on both the transmission mechanism and the synchronization mechanism. The loading mechanism, the stamping processing mechanism, the welding mechanism and the unloading mechanism are arranged in sequence along the conveying direction of the conveyor belt. A mold and an adjusting mechanism are arranged on the conveyor belt, and the adjusting mechanism is connected to the mold. The conveyor belt is used to drive the mold to move in a circular motion, and the adjusting mechanism is used to adjust the workpieces on the two groups of molds to fit each other at the welding station of the welding mechanism.

[0007] Furthermore: the mold includes a first mold, a second mold and a third mold, the first mold is arranged on the conveyor belt of the conveying mechanism, the second mold and the third mold are respectively arranged on the conveyor belts of the first synchronization mechanism and the second synchronization mechanism, the loading mechanism is used to place the metal sheet on the first mold, the second mold and the third mold, and the stamping processing mechanism is used to stamp the first mold, the second mold and the third mold into a support seat, an upper cover and a base, and the support seat, the upper cover and the base constitute a plug-in.

[0008] Furthermore: a cavity is opened in the first mold, the cavity includes a rectangular cavity and a circular cavity, the metal plate on the first mold has a circular plate portion and rectangular plate portions on both sides, the circular plate portion is inserted into the circular cavity, and the two rectangular plate portions are inserted into the rectangular cavity.

[0009] Furthermore: the adjustment mechanism includes a limit assembly, a first rotation adjustment assembly, a second rotation adjustment assembly, a lifting assembly and a clamping and resetting assembly. The limit assembly is installed on the transmission mechanism. The limit assembly is used to maintain the first mold in a horizontal state. The first rotation adjustment assembly is used to drive the first mold to rotate from a horizontal state to a vertical state, and maintain the vertical state for horizontal movement. The second rotation adjustment assembly is used to rotate along the bandwidth direction of the conveyor belt when the conveyor belt drives the horizontal first mold to move. The clamping and resetting assembly cooperates with the lifting assembly. The clamping and resetting assembly is used to reposition and clamp the plug-in during the process of the lifting assembly driving the first mold to descend.

[0010] Furthermore: the first rotation adjustment component includes a telescopic passive part and a telescopic matching part. The telescopic passive part is installed on the conveying mechanism. The telescopic passive part is used to drive the telescopic matching part to move horizontally during the conveying process of the conveyor belt. The telescopic matching part cooperates with the driving part. The telescopic matching part is used to drive the driving part to rotate and move horizontally during the horizontal movement process. The driving part is connected to the first mold.

[0011] Furthermore: the telescopic passive part includes a guide plate A and a guide plate B, which are installed in the transmission mechanism and are staggered with each other. The telescopic matching parts include a rack A, a rack B, a bearing, and a support block. The rack A and the rack B are respectively limited and interfered with the guide plate A and the guide plate B. The rack A and the guide plate A are at the same horizontal height, the rack B and the guide plate B are at the same horizontal height, the rack A and the rack B are arranged horizontally, the first mold is connected to the bearing, both ends of the bearing pass through and extend into the support block, and the end thereof extending into the support block is connected to the first gear, the shaft The axial direction of the bearing is perpendicular to the length direction of the rack, and a fixed block is slidably installed on one side of the support block. Rack A and rack B pass through the fixed block and extend into the interior of the support block. Slide grooves are provided inside the support block and the fixed block. Rack A and rack B are arranged inside the slide grooves and form a sliding guide with the slide grooves. A tension spring is installed in the slide groove in the fixed block. The tension spring provides elastic force in the length direction of the rod for rack A and rack B. Rack A and rack B are meshed with the first gear and are respectively located on the upper and lower sides of the first gear. An elastic member is installed between one end of the bearing extending into the support block and the fixed block;

[0012] The elastic member is used to maintain the rotation of the gear when the A rack and the B rack move horizontally in the first section. When the A rack and the B rack move horizontally in the second section, they abut the end groove wall of the slide groove in the support block, abutting the support block to synchronize the horizontal movement of the A rack and the B rack.

[0013] Furthermore: the second rotation adjustment component includes a rotating mating part and a rotating passive part. The rotating passive part is installed on the conveying mechanism. The rotating mating part cooperates with the rotating passive part. The rotating passive part is used to drive the rotating mating part to rotate during the movement of the conveyor belt. The rotating mating part is connected to the first mold.

[0014] Furthermore: the rotating matching part includes a transmission shaft and a support frame, a second gear is installed at one end of the transmission shaft, and a support frame is installed on the outer wall. The cross-section of the support frame is L-shaped, and the fixed block is fixed on the support frame through the bracket. The bracket is arranged vertically, and a sliding rod is installed at the bottom of the support block. The end of the sliding rod away from the support block is located in the transverse groove on the support frame. The groove direction of the transverse groove is consistent with the axial direction of the transmission shaft. The connecting rod and the transverse groove form a sliding guide cooperation. The rotating passive part includes a tooth plate, which is installed in the transmission mechanism. The second gear is meshed with the tooth plate, and the length direction of the tooth plate is perpendicular to the axial direction of the transmission shaft; it also includes a pickling mechanism, and the tooth plate is located at the corresponding position of the pickling mechanism.

[0015] Furthermore: the limit assembly includes a limit guide rail, which is arranged in a ring shape and has notches at the corresponding processing positions of the stamping processing mechanism and the pickling mechanism. A limit block is fixedly installed on the transmission shaft, and the limit block is arranged inside the limit guide rail. The limit block has a rectangular structure and forms a conflicting limit fit with the limit guide rail.

[0016] Furthermore: the lifting assembly includes a lifting active part and a lifting passive part. The lifting active part is installed on the conveying mechanism. The lifting passive part is adapted to the notch. The lifting passive part is used to descend when the limit block moves to the notch. The lifting active part corresponds to the pickling mechanism and cooperates with the lifting passive part. The lifting active part is used to drive the first mold to descend when it moves to the pickling mechanism.

[0017] Furthermore: the lifting active part includes an electric telescopic rod, which is vertically arranged inside the conveying mechanism and corresponds to the notch of the limit guide rail at the pickling mechanism. The lifting passive part includes a maintaining rod and a fixed seat. The fixed seat is fixedly installed at the bottom of the maintaining rod and installed on the conveyor belt. The maintaining rod is vertically arranged and has a maintaining groove inside. A slider is arranged inside the maintaining groove. The slider and the maintaining groove form a sliding guide. Bumps are arranged on both sides of the slider. The bumps are arranged in the limit groove in the maintaining groove and form a limit interference fit with the card slot. A maintaining spring is installed between the slider and the inner wall of the maintaining rod. The maintaining spring is vertically arranged and provides the slider with elastic force along the length direction of the maintaining rod.

[0018] Furthermore: the clamping and resetting assembly includes a driving member, a connecting member, a separating member and a resetting member. The driving member is installed on the conveying mechanism and corresponds to the notch of the limiting guide rail at the pickling mechanism. The driving member cooperates with the connecting member. The driving member is used to drive the connecting member to stretch when the transmission shaft moves to the notch at the pickling mechanism. When stretching, the connecting member resists the separating member and the first mold from moving away. The resetting member is connected to the first mold and is used to drive the separating member and the first mold to reset.

[0019] Furthermore: the driving member includes a cylinder, which is installed on the transmission mechanism. The cylinder is arranged horizontally and is arranged correspondingly to the limit guide rail at the notch of the pickling mechanism. The connecting member includes an inner shaft, which is arranged inside the transmission shaft and is slidably connected to the transmission shaft. The axial direction of the inner shaft is consistent with the axial direction of the transmission shaft. One end of the inner shaft extends out of the transmission shaft. An elastic telescopic shaft is installed at one end of the transmission shaft away from the second gear. The axial direction of the elastic telescopic shaft is consistent with the axial direction of the transmission shaft. The separating member includes a connecting rod, one end of the connecting rod is arranged on the bearing, and the other end is installed with a push plate. A wedge block group is installed on the side of the first mold close to the bearing. The wedge block group Adapted to the push plate, the reset part includes a connecting rod and a connecting shaft. The rod length direction of the connecting rod is perpendicular to the axial direction of the transmission shaft, and the axial direction of the connecting shaft is consistent with the axial direction of the transmission shaft. A sleeve rod is installed on the side of the connecting rod, which runs through the sleeve rod and is slidably connected to the sleeve rod. One end of the connecting shaft is fixedly connected to the first mold, and a connecting block is installed on the other end. The connecting block is arranged in the inner groove in the connecting rod and forms a sliding limit fit with the inner groove. A reset spring is arranged between the connecting block and the inner wall of the connecting rod. The reset spring provides the connecting rod with elastic force along the length direction of the connecting rod. The connecting rod is fixedly connected to the bearing through a support rod, and the support rod has a Z-shaped structure.

[0020] The beneficial effect of the present invention is that: during use, the conveyor belt on the transmission mechanism and the conveyor belt on the synchronization mechanism run synchronously, and the three groups of conveyor belts respectively drive the workpieces thereon to perform stamping and forming, and form a support seat, an upper cover and a base. Subsequently, the conveyor belts 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 pickled and discharged. The stamping, welding and pickling 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

[0021] Figure 1 This is a structural diagram of a signal call device plug-in processing device for an electric power IMS administrative switching network according to the present invention;

[0022] Figure 2 This is a schematic diagram of the plug-in structure of a signal call device plug-in processing device for an electric power IMS administrative switching network according to the present invention;

[0023] Figure 3 This is a schematic diagram of a stamped support base of a signal call device plug-in processing device for an electric power IMS administrative switching network according to the present invention;

[0024] Figure 4 This is a schematic diagram of a punched-out support base of a signal call device plug-in processing device for an electric power IMS administrative switching network according to the present invention;

[0025] Figure 5 This is a schematic diagram of a bent support base of a signal call device plug-in processing device for an electric power IMS administrative switching network according to the present invention;

[0026] Figure 6 This is a top view structural diagram of an adjustment mechanism of a signal call device plug-in processing device for an electric power IMS administrative switching network according to the present invention;

[0027] Figure 7 This is a top view of the adjustment mechanism of a signal call device plug-in processing device for an electric power IMS administrative switching network according to the present invention, located at the stamping processing mechanism;

[0028] Figure 8 This is a top view of the adjustment mechanism of a signal call device plug-in processing device for an electric power IMS administrative switching network according to the present invention, located at the welding mechanism;

[0029] Figure 9 This is a top view of an adjustment mechanism of a signal call device plug-in processing device for an electric power IMS administrative switching network according to the present invention, located at a pickling mechanism;

[0030] Figure 10This is a side structural diagram of an adjustment mechanism of a signal call device plug-in processing device for an electric power IMS administrative switching network according to the present invention;

[0031] Figure 11 This is a front view structural diagram of an adjustment mechanism of a signal call device plug-in processing device for an electric power IMS administrative switching network according to the present invention;

[0032] Figure 12 The present invention is a schematic diagram of a connecting rod structure of a signal calling device plug-in processing device for an electric power IMS administrative switching network.

[0033] In the figure: 1. Conveying mechanism; 11. Conveyor belt; 2A. Loading mechanism; 2B. Unloading mechanism; 3. Stamping mechanism; 31. Stamping assembly; 32. Punching and shearing assembly; 33. Bending assembly; 4. Welding mechanism; 5. Pickling mechanism; 6A. First synchronization mechanism; 6B. Second synchronization mechanism; 7. Die; 71A. First die; 71B. Second die; 71C. Third die; 8. Adjusting mechanism; 81. Limiting assembly; 811. Limiting guide rail; 81 2. Limit block; 82. First rotation adjustment assembly; 821. Telescopic passive component; 8211. Guide plate A; 8212. Guide plate B; 822. Telescopic matching component; 8221A. Rack A; 8221B. Rack B; 8222. Bearing; 8223. Support block; 8224. Fixed block; 8225. First gear; 8226. Slide; 8227. Elastic member; 8228. Slide rod; 83. Second rotation adjustment assembly; 831. Rotation matching component 8311, transmission shaft; 8312, support frame; 8313, second gear; 832, rotation passive component; 8321, tooth plate; 84, lifting assembly; 841, lifting active component; 8411, electric telescopic rod; 842, lifting passive component; 8421, maintaining rod; 8522, fixing seat; 8423, slider; 8424, maintaining spring; 85, clamping and resetting assembly; 851, driving component; 8511, cylinder; 852, connecting component; 8521. Inner shaft; 8522. Elastic telescopic shaft; 853. Separator; 8531. Connecting rod; 8532. Push plate; 8533. Wedge block group; 854. Reset member; 8541. Connecting shaft; 8542. Connecting rod; 8543. Sleeve rod; 8544. Reset spring; 8545. Support rod; 9. Plug-in; 91. Support seat; 911. Connecting ear; 912. Connecting part; 92. Upper cover; 921. Docking part; 93. Base; 931. Protrusion. DETAILED DESCRIPTION

[0034] 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 intended solely to enable those skilled in the art to better understand and implement the subject matter described herein, and is not intended to limit the scope, applicability, or examples set forth in the claims. The functions and arrangements of the elements discussed may be varied without departing from the scope of this specification. Various examples may omit, substitute, or add various processes or components as needed. In addition, features described in some examples may also be combined in other examples.

[0035] Example 1

[0036] like Figures 1-12 As shown, a signal call device plug-in processing device for an electric power IMS administrative switching network includes a transmission mechanism 1 and a first synchronization mechanism 6A, a second synchronization mechanism 6B, a loading mechanism 2A, a welding processing mechanism and a unloading mechanism 2B. The transmission mechanism 1 is arranged on one side of the synchronization mechanism. A welding mechanism 4 is arranged between the transmission mechanism 1 and the synchronization mechanism. A conveyor belt 11 is arranged on both the transmission mechanism 1 and the synchronization mechanism. The loading mechanism 2A, the stamping processing mechanism 3, the welding mechanism 4 and the unloading mechanism 2B are arranged in sequence along the conveying direction of the conveyor belt 11. A mold 7 and an adjusting mechanism 8 are arranged on the conveyor belt 11. The adjusting mechanism 8 is connected to the mold 7. The conveyor belt 11 is used to drive the mold 7 to move in a circular motion. The adjusting mechanism 8 is used to adjust the workpieces on the two groups of molds 7 to fit each other at the welding station of the welding mechanism 4.

[0037] It should be supplemented that the workpiece on the first mold 71A is the support seat 91 , the workpiece on the second mold 71B is the upper cover 92 , and the workpiece on the third mold 71C is the base 93 .

[0038] The mold 7 includes a first mold 71A, a second mold 71B and a third mold 71C. The first mold 71A is arranged on the conveyor belt 11 of the conveying mechanism 1, and the second mold 71B and the third mold 71C are arranged on the conveyor belt 11 of the first synchronization mechanism 6A and the second synchronization mechanism 6B respectively. The loading mechanism 2A is used to place metal sheets on the first mold 71A, the second mold 71B and the third mold 71C. The stamping processing mechanism 3 is used to stamp the first mold 71A, the second mold 71B and the third mold 71C into a support seat 91, an upper cover 92 and a base 93. The support seat 91, the upper cover 92 and the base 93 constitute the plug-in 9.

[0039] A cavity is opened in the first mold 71A, and the cavity includes a rectangular cavity and a circular cavity. The metal plate on the first mold 71A has a circular plate portion and rectangular plate portions on both sides. The circular plate portion is inserted into the circular cavity, and the two rectangular plate portions are inserted into the rectangular cavity.

[0040] The adjustment mechanism 8 includes a limit assembly 81, a first rotation adjustment assembly 82, a second rotation adjustment assembly 83, a lifting assembly 84 and a clamping and resetting assembly 85. The limit assembly 81 is installed on the transmission mechanism. The limit assembly 81 is used to maintain the first mold 71A in a horizontal state. The first rotation adjustment assembly 82 is used to drive the first mold 71A to rotate from a horizontal state to a vertical state, and maintain the vertical state for horizontal movement. The second rotation adjustment assembly 83 is used to rotate along the bandwidth direction of the conveyor belt 11 when the conveyor belt 11 drives the horizontal first mold 71A to move. The clamping and resetting assembly 85 cooperates with the lifting assembly 84. The clamping and resetting assembly 85 is used to displace and clamp the plug-in 9 during the process of the lifting assembly 84 driving the first mold 71A to descend.

[0041] The first rotation adjustment component 82 includes a telescopic passive component 821 and a telescopic matching component 822. The telescopic passive component 821 is installed on the conveying mechanism 1. The telescopic passive component 821 is used to drive the telescopic matching component 822 to move horizontally during the conveying process of the conveyor belt 11. The telescopic matching component 822 cooperates with the driving component 851. The telescopic matching component 822 is used to drive the driving component 851 to rotate and move horizontally during the horizontal movement process. The driving component 851 is connected to the first mold 71A.

[0042] The telescopic passive member 821 includes a guide plate A 8211 and a guide plate B 8212. The guide plate A 8211 and the guide plate B 8212 are installed in the transmission mechanism 1 and are staggered with each other. The telescopic matching member 822 includes a rack A 8221A, a rack B 8221B, a bearing 8222, and a support block 8223. The rack A 8221A and the rack B 8221B are respectively limited and interfered with by the guide plate A 8211 and the guide plate B 8212. , the A rack 8221A and the A guide plate 8211 are at the same level, the B rack 8221B and the B guide plate 8212 are at the same level, the A rack 8221A and the B rack 8221B are both arranged horizontally, the first mold 71A is connected to the bearing 8222, both ends of the bearing 8222 pass through and extend into the support block 8223, and the end thereof extending into the support block 8223 is connected to the first gear 8225, the bearing 822 2 is perpendicular to the length direction of the rack, a fixed block 8224 is slidably installed on one side of the support block 8223, the A rack 8221A and the B rack 8221B pass through the fixed block 8224 and extend into the support block 8223, and a sliding groove 8226 is provided inside the support block 8223 and the fixed block 8224. The A rack 8221A and the B rack 8221B are arranged inside the sliding groove 8226 and form a sliding guide with the sliding groove 8226. To mate, a tension spring is installed in the slide groove 8226 in the fixed block 8224. The tension spring provides elastic force in the length direction of the rods of racks A 8221A and B 8221B. Racks A 8221A and B 8221B mesh with the first gear 8225 and are respectively located on the upper and lower sides of the first gear 8225. An elastic member 8227 is installed between the end of the bearing 8222 that extends into the support block 8223 and the fixed block 8224.

[0043] The elastic member 8227 is used to maintain the rotation of the gear when the A rack 8221A and the B rack 8221B move horizontally in the first section. When the A rack 8221A and the B rack 8221B move horizontally in the second section, they abut the end groove wall of the sliding groove 8226 in the support block 8223, abutting the support block 8223 to synchronize the horizontal movement of the A rack 8221A and the B rack 8221B.

[0044] The second rotation adjustment assembly 83 includes a rotational mating part 831 and a rotational driven part 832. The rotational driven part 832 is installed on the conveying mechanism 1. The rotational mating part 831 cooperates with the rotational driven part 832. The rotational driven part 832 is used to drive the rotational mating part 831 to rotate during the movement of the conveyor belt 11. The rotational mating part 831 is connected to the first mold 71A.

[0045] The rotating matching part 831 includes a transmission shaft 8311 and a support frame 8312. A second gear 8313 is installed at one end of the transmission shaft 8311, and a support frame 8312 is installed on the outer wall. The cross-section of the support frame 8312 is L-shaped. The fixed block 8224 is fixedly installed on the support frame 8312 through a bracket. The bracket is arranged vertically. A sliding rod 8228 is installed at the bottom of the support block 8223. The end of the sliding rod 8228 away from the support block 8223 is located in the transverse groove on the support frame 8312. The groove direction of the transverse groove is consistent with the axial direction of the transmission shaft 8311. The connecting rod 8531 and the transverse groove form a sliding guide. The rotating passive part 832 includes a tooth plate 8321. The tooth plate 8321 is installed in the transmission mechanism 1. The second gear 8313 is meshed with the tooth plate 8321. The length direction of the tooth plate 8321 is perpendicular to the axial direction of the transmission shaft 8311; it also includes a pickling mechanism 5, and the tooth plate 8321 is located at the corresponding position of the pickling mechanism 5.

[0046] The limiting assembly 81 includes a limiting guide rail 811, which is arranged in a ring shape and has notches at the corresponding processing positions of the stamping processing mechanism 3 and the pickling mechanism 5. A limiting block 812 is fixedly installed on the transmission shaft 8311. The limiting block 812 is arranged inside the limiting guide rail 811. The limiting block 812 has a rectangular structure and forms a conflicting limiting fit with the limiting guide rail 811.

[0047] The lifting assembly 84 includes a lifting active component 841 and a lifting passive component 842. The lifting active component 841 is installed on the conveying mechanism 1, and the lifting passive component 842 is adapted to the notch. The lifting passive component 842 is used to descend when the limit block 812 moves to the notch. The lifting active component 841 corresponds to the pickling mechanism 5 and cooperates with the lifting passive component 842. The lifting active component 841 is used to drive the first mold 71A to descend when it moves to the pickling mechanism 5.

[0048] The lifting active component 841 includes an electric telescopic rod 8411, which is vertically arranged inside the conveying mechanism 1 and corresponds to the notch of the limiting guide rail 811 at the pickling mechanism 5. The lifting passive component 842 includes a maintaining rod 8421 and a fixed seat 8522. The fixed seat 8522 is fixedly installed at the bottom of the maintaining rod 8421 and installed on the conveyor belt 11. The maintaining rod 8421 is vertically arranged and has a maintaining groove inside. A slider 8423 is arranged inside the maintaining groove. The slider 8423 and the maintaining groove form a sliding guide fit. Bumps are arranged on both sides of the slider 8423. The bumps are arranged in the limiting grooves in the maintaining groove and form a limiting interference fit with the card slot. A maintaining spring 8424 is installed between the slider 8423 and the inner wall of the maintaining rod 8421. The maintaining spring 8424 is vertically arranged and provides the slider 8423 with an elastic force along the length direction of the maintaining rod 8421.

[0049] The clamping and resetting assembly 85 includes a driving member 851, a connecting member 852, a separating member 853 and a resetting member 854. The driving member 851 is installed on the conveying mechanism 1 and corresponds to the notch of the limiting guide rail 811 at the pickling mechanism 5. The driving member 851 cooperates with the connecting member 852. The driving member 851 is used to drive the connecting member 852 to stretch when the transmission shaft 8311 moves to the notch at the pickling mechanism 5. When stretched, the connecting member 852 resists the separating member 853 and the first mold 71A from moving away. The resetting member 854 is connected to the first mold 71A. The resetting member 854 is used to drive the separating member 853 and the first mold 71A to reset.

[0050] The driving member 851 includes a cylinder 8511, which is installed on the transmission mechanism 1. The cylinder 8511 is horizontally arranged and corresponding to the limiting guide rail 811 located at the notch of the pickling mechanism 5. The connecting member 852 includes an inner shaft 8521, which is arranged inside the transmission shaft 8311 and is slidably connected to the transmission shaft 8311. The axial direction of the inner shaft 8521 is consistent with the axial direction of the transmission shaft 8311. One end of the inner shaft 8521 extends out of the transmission shaft 8311. An elastic telescopic shaft 8522 is installed at the end of the transmission shaft 8311 away from the second gear 8313. The axial direction of the elastic telescopic shaft 8522 is consistent with the axial direction of the transmission shaft 8311. The separating member 853 includes a connecting rod 8531, one end of the connecting rod 8531 is arranged on the bearing 8222, and the other end is installed with a push plate 8532. A wedge block group 8533 is installed on the side of the first mold 71A close to the bearing 8222. Group 8533 is compatible with the push plate 8532, and the reset part 854 includes a connecting rod 8542 and a connecting shaft 8541. The rod length direction of the connecting rod 8542 is perpendicular to the axial direction of the transmission shaft 8311, and the axial direction of the connecting shaft 8541 is consistent with the axial direction of the transmission shaft 8311. A sleeve rod 8543 is installed on the side of the connecting rod 8542, which continuously passes through the sleeve rod 8543 and is slidably connected to the sleeve rod 8543. One end of the connecting shaft 8541 is fixedly connected to the first mold 71A, and a connecting block is installed on the other end. The connecting block is arranged in the inner groove in the connecting rod 8542 and forms a sliding limit fit with the inner groove. A reset spring 8544 is arranged between the connecting block and the inner wall of the connecting rod 8542. The reset spring 8544 provides the connecting rod 8542 with elastic force along the length direction of the connecting rod 8542. The connecting rod 8542 is fixedly connected to the bearing 8222 through the support rod 8545, and the support rod 8545 has a Z-shaped structure.

[0051] The workflow of the processing device of the present invention is as follows:

[0052] 1. Loading

[0053] The conveyor belt 11 transports the first mold 71A to the bottom of the loading mechanism 2A. The loading mechanism 2A places the metal plate member in the cavity of the first mold 71A. The metal plate member has a circular plate portion and rectangular plate portions on both sides.

[0054] The circular plate portion of the metal sheet is inserted into the circular cavity of the first mold 71A, and the two rectangular plate portions are inserted into the rectangular cavity of the first mold 71A;

[0055] Then the conveyor belt 11 drives the first mold 71A loaded with the metal sheet to move, and at the same time the limit block 812 slides in the limit guide rail 811. The limit guide rail 811 is used to limit the rotation of the limit block 812 to maintain the first mold 71A in a horizontal state.

[0056] 2. Stamping

[0057] First, the conveyor belt 11 transports the first die 71A to the stamping assembly 31, and the conveyor belt 11 rests temporarily;

[0058] It should be noted that the stamping assembly 31 includes a stamping head and a workbench, which are distributed up and down. At this time, the first mold 71A is located between the stamping head and the workbench. The stamping head is used to punch out a circular groove in the metal sheet and bend the two rectangular plates into a vertical shape. The workbench is used to support the first mold 71A to cooperate with the stamping work.

[0059] When the first die 71A moves to the inside of the stamping assembly 31 and the conveyor belt 11 pauses, the limit block 812 moves to the notch of the limit guide rail 811, and then the punch head descends and contacts the metal sheet on the first die 71A and squeezes it, driving the first die 71A to descend. Since the limit block 812 is at the notch, the limit block 812 will not hinder the first die 71A from descending. At the same time, the slider 8423 and the transmission shaft 8311 are driven to descend synchronously, compressing the maintenance spring 8424. When the first die 71A falls on the workbench, the punch head continues to descend, and the height of the first die 71A remains unchanged. The punch head punches a circular groove out of the metal sheet and simultaneously bends the two rectangular plate portions into a vertical shape to form a connecting ear 911.

[0060] Then, the punch head rises and recovers, and the first die 71A rises synchronously, maintaining the extension of the spring 8424, and the limit block 812 returns to the notch, maintaining the return of the spring 8424 to its original state, and the punch head moves upward and separates from the workpiece.

[0061] 3. Punching and shearing

[0062] Subsequently, the conveyor belt 11 starts, carrying the first die set 71A to continue moving. The first die set 71A leaves the punching assembly 31, wherein the limit block 812 slides back into the limit guide rail 811. Similarly, when the die set moves into the punching assembly 32, the conveyor belt 11 stops temporarily, and the limit block 812 is located in the gap corresponding to the punching assembly 32.

[0063] The working process of the punching and shearing assembly 32 is similar to that of the punching assembly 31, and is used to punch out two connecting parts at the bottom of the circular groove of the workpiece;

[0064] The first die 71A separated from the stamping assembly 31 is transported to the inside of the punching and shearing assembly 32 by the conveyor belt 11. Similarly, the punching head in the punching and shearing assembly 32 presses the first die 71A down to the workbench. Since the punching head in the punching and shearing assembly 32 is different from the punching head in the stamping assembly 31, when the punching head descends, it can punch out the remaining slots in the semi-finished support seat 91, and at the same time punch out the connecting part 912 at the bottom of the support seat 91. After punching and shearing, it enters the interior of the bending assembly 33 driven by the conveyor belt 11.

[0065] 4. Bending

[0066] Similarly, the punching head in the bending assembly 33 is different from the punching head of the punching assembly 31 and the punching and shearing assembly 32. When the punching head descends, it can bend the connecting part 912 at the bottom of the support seat 91 into a vertical shape. After this stamping, the conveyor belt 11 drives the first mold 71A to separate from the inside of the bending assembly 33, and the limit block 812 continues to move in the limit guide rail 811.

[0067] It should be noted that the first synchronization mechanism 6A and the second synchronization mechanism 6B are also provided with a feeding mechanism 2A and a stamping mechanism 3 , and the upper cover 92 and the base 93 on the second mold 71B and the third mold 71C are also formed by feeding and stamping.

[0068] 5. One-time welding

[0069] When the conveyor belt 11 transports the first mold 71A to the first group of welding mechanisms 4, the rack A 8221A above the first gear 8225 first contacts the inclined section on the guide plate A 8211, and driven by the conveyor belt 11, one end of the rack A 8221A slides on the inclined section, and the sliding of the inclined section causes the rack A 8221A to retract into the support block 8223, and the tension spring between the rack A and the fixed block 8224 is stretched and continuously extends into the support block 8223. The horizontal movement of the rack A 8221A engages the rotation of the first gear 8225, and drives the first mold 71A to rotate downward ninety degrees through the bearing 8222 and the bracket, so that the first mold 71A and the support seat 91 thereon rotate from a horizontal state to a vertical state.

[0070] It should be noted that magnetic blocks are provided on the first mold 71A, the second mold 71B and the third mold 71C. The magnetic blocks can adsorb the support seat 91, the upper cover 92 and the base 93 on the first mold 71A, the second mold 71B and the third mold 71C to prevent the support seat 91, the upper cover 92 and the base 93 from falling off during the rotation of the first mold 71A, the second mold 71B and the third mold 71C.

[0071] When the first gear 8225, the bearing 8222 and the first mold 71A rotate ninety degrees, one end of the A rack 8221A in the support block 8223 contacts the inner wall of the support block 8223, and at this time the A rack 8221A continues to follow the conveyor belt 11 to move on the inclined section, and the inclined section continues to drive the A rack 8221A to move horizontally. As the A rack 8221A continues to move, it pushes the support block 8223 to move, and the support block 8223 gradually moves away from the fixed block 8224 and slides in the horizontal groove of the support frame 8312 through the sliding rod 8228. The fixed block 8224 is fixed to the support frame 8312 through a rod. When the support block 8223 moves, it generates relative motion with the fixed block 8224, driving the elastic member 8227 between the bearing 8222 and the fixed block 8224 to start stretching. The movement of the support block 8223 drives the gear, the bearing 8222 and the first mold 71A to move horizontally.

[0072] At the same time, the first synchronization mechanism 6A drives the second mold 71B to move to the welding mechanism 4 in the same manner as described above. During the movement to this position, the second mold 71B rotates and moves horizontally. The upper cover 92 in the second mold 71B is also in a vertical state, and the docking portion 921 corresponds to the connecting ear 911 of the support seat 91 in the first mold 71A.

[0073] It should be noted that the first synchronization mechanism 6A and the second synchronization mechanism 6B are also provided with an adjustment mechanism 8. When the second mold 71B and the third mold 71C are moved to the welding processing position, the adjustment mechanism 8 will also drive the second mold 71B and the third mold 71C to rotate and move horizontally, and the passive adjustment method is the same as that of the first mold 71A.

[0074] Then, the first mold 71A and the second mold 71B move toward each other on the welding mechanism 4, driving the connecting ear 911 on the support base 91 to contact the docking portion 921 of the upper cover 92, and the A rack 8221A moves from the inclined section of the A guide plate 8211 to the horizontal holding section, and moves on the horizontal holding section to keep the support base 91 and the upper cover 92 in a mutually fitting manner and enter the welding position of the welding structure. Then, the conveyor belt 11 and the first synchronization mechanism 6A pause, and the welding mechanism 4 welds the connection between the connecting ear 911 and the docking portion 921, and the semi-finished plug-in 9 is formed after welding.

[0075] 6. After welding is completed;

[0076] After welding, the conveyor belt 11 continues to drive the first mold 71A to move, so that the A rack 8221A moves from the horizontal holding section to another set of inclined sections. At this time, after the A rack 8221A loses the resistance of the horizontal holding section, it and the tension spring of the fixed block 8224 begin to reset, and drive the A rack 8221A to reset. The reset of the A rack 8221A drives the elastic member 8227 between the bearing 8222 and the fixed block 8224 to start resetting and contracting, so that the first mold 71A, the support block 8223 and the bearing 8222 are reset horizontally, and the sliding rod 8228 at the bottom of the support block 8223 is reset in the horizontal groove of the support frame 8312. Under the action of the elastic member 8227, the first gear 822 can be prevented from being reset during the rack reset process. 5 is rotated and reset first, ensuring that the rotational reset of the first gear 8225 occurs after the reset of the elastic member 8227, so that one end of the rack of the elastic member 8227 can always abut against the inner wall of the support block 8223 during the reset. When the elastic member 8227 completes the elastic reset, the retraction and reset of the first mold 71A is completed, and the support block 8223 is reset and abuts against the surface of the fixed block 8224. During the horizontal reset of the first mold 71A, the first mold 71A pulls the semi-finished insert 9. Since the magnetism of the magnetic block in the first mold 71A on the conveyor belt 11 is greater than that of the magnetic block in the second mold 71B, the semi-finished insert 9 is pulled away from the second mold 71B and moves along with the horizontal reset movement of the first mold 71A.

[0077] Subsequently, the A rack 8221A continues to move on the inclined section until it moves out of the inclined section and disengages from the A guide plate 8211. During the disengagement process, the A rack 8221A continues its horizontal reset movement to drive the first gear 8225 to reset and rotate in the support block 8223, and drives the first mold 71A to reset and rotate ninety degrees, so that the first mold 71A and the semi-finished plug-in 9 carried thereon are rotated and reset from a vertical state to a horizontal state.

[0078] It should be added that the elastic member 8227 can be an elastic connection structure such as a spring or an elastic rope;

[0079] 7. Secondary welding

[0080] After the semi-finished insert 9 is formed, the first mold 71A continues to carry the semi-finished insert 9 to the second welding mechanism 4. The limit block 812 slides synchronously in the limit guide rail 811. At this time, the B rack 8221B below the first gear 8225 contacts the B guide plate 8212. Since the A rack 8221A and the A guide plate 8211, and the B rack 8221B and the B guide plate 8212 are not located at the same level, there is no mutual obstruction during the movement.

[0081] The B rack 8221B moves horizontally and engages with the first gear 8225 to rotate in the opposite direction, driving the bearing 8222 and the first mold 71A to rotate upward by ninety degrees, so that the first mold 71A and the semi-finished insert 9 are rotated upward from the horizontal state to the vertical state again;

[0082] After the first gear 8225, the bearing 8222 and the first mold 71A rotate ninety degrees, one end of the B rack 8221B in the support block 8223 contacts the inner wall of the support block 8223, and at this time, the B rack 8221B continues to follow the conveyor belt 11 to move on the inclined section, and the inclined section continues to drive the B rack 8221B to move horizontally. As the B rack 8221B continues to move, it pushes the support block 8223 to move, and the support block 8223 gradually moves away from the fixed block 8224, and the elastic member 8227 between the bearing 8222 and the fixed block 8224 begins to stretch. The movement of the support block 8223 drives the gear, the bearing 8222 and the first mold 71A to move horizontally, so that the first mold 71A moves horizontally in a vertical state. At the same time, the second synchronization mechanism 6B drives the third The mold 71C moves to the second welding mechanism 4 in the same manner as described above, and rotates and moves horizontally during the movement there. At this time, the first mold 71A and the third mold 71C move closer to each other on the welding mechanism 4, driving the connecting portion 912 on the semi-finished plate plug-in 9 (that is, the connecting portion 912 at the bottom of the support seat 91) to contact the protrusion 931 on the base 93, and the B rack 8221B moves from the inclined section of the B guide plate 8212 to the horizontal holding section, and moves on the horizontal holding section to keep the semi-finished plate plug-in 9 and the base 93 in a mutually fitting manner and enter the welding position of the second welding structure. The telescopic welding head in the second welding mechanism 4 extends to weld the connection between the connecting portion 912 and the protrusion 931, and the finished plug-in 9 is formed after welding.

[0083] Similarly, as the conveyor belt 11 continues to move, the B rack 8221B moves from the horizontal holding section of the B guide plate 8212 to another set of inclined sections, and finally breaks away from the contact with the B guide plate 8212 from the inclined sections. During the separation process, the first mold 71A first performs a reset movement and then performs a reset rotation, so that the first mold 71A and the insert 9 carried thereon rotate from a vertical state to a horizontal state.

[0084] 8. One pickling

[0085] After the first mold 71A returns to a horizontally distributed state, the conveyor belt 11 continues to drive the first mold 71A to move and moves it from the second group of welding mechanisms 4 to the pickling mechanism 5. At this time, the limit block 812 moves from the limit guide rail 811 to another notch, and then the electric telescopic rod 8411 presses the transmission shaft 8311 downward, the maintenance spring 8424 contracts, and presses the bottom of the plug-in 9 into the pickling tank of the pickling mechanism 5, while the first mold 71A is exposed above the pickling solution. At this time, the lower half of the plug-in 9 is immersed in the solution of the pickling tank, and the plug-in 9 is pickled by immersion. After pickling, the telescopic end of the electric telescopic rod 8411 resets and contracts, and the maintenance spring 8424 resets and stretches, driving the transmission shaft 8311 to reset and rise, and pulling the plug-in 9 out of the pickling solution;

[0086] 9. Transposition clamping

[0087] The transmission belt continues to drive the first mold 71A to continue moving. When the first mold 71A moves to the supporting plate in the pickling tank, another set of electric telescopic rods 8411 presses down the transmission shaft 8311 again. The descent of the transmission shaft 8311 places the plug-in 9 on the first mold 71A on the supporting plate. At the same time, the stretching resistance inner shaft 8521 of the telescopic end of the cylinder 8511 moves along its axial direction in the transmission shaft 8311 and pushes the elastic telescopic shaft 8522 to stretch. After the elastic telescopic shaft 8522 is stretched, it contacts the connecting rod 8531 and pushes the push rod 8531 to push ...21 to push the push rod 8531 to push the push rod 8531 to push the push rod 8531 to push the push rod 8531 to push the push rod 8531 to push the push rod 8531 to push the push rod 8521 to push the push rod 8531 to push the push rod 8531 to The plate 8532 moves. Since the push plate 8532 cooperates with the V-shaped inclined surface of the wedge block group 8533, the pushing of the push plate 8532 will drive the wedge block group 8533 to separate into two groups of wedge blocks, and the two groups of wedge blocks move away from each other. The separation of the wedge block group 8533 separates the first mold 71A from the middle and separates the two groups to move away from each other, driving the two groups of connecting shafts 8541 to move away from each other in the connecting rod 8542. At this time, the reset spring 8544 contracts, and the finished product plug-in 9 is released from the clamping through the separation of the first mold 71A. At this time, the plug-in 9 is placed on the carrier plate, and the carrier plate The plate is located on the liquid surface of the pickling solution in the pickling tank, and then the first mold 71A continues to descend under the drive of the electric telescopic rod 8411. When the first mold 71A descends to the bottom of the original base 93, the telescopic end of the cylinder 8511 begins to contract and breaks away from the resistance to the inner shaft 8521. The elastic telescopic shaft 8522 begins to reset after losing the pressure applied by the cylinder 8511 to the inner shaft 8521. The reset of the elastic telescopic shaft 8522 first breaks away from the contact with the connecting rod 8531. After the connecting rod 8531 loses its thrust, the reset spring 8531 in the connecting rod 8542 is engaged. 44 begins to reset and stretch, and drives the connecting shaft 8541 to reset and move in the connecting rod 8542, so that the two groups of wedge blocks fit together to form the wedge block group 8533. When the wedge block group 8533 is formed, the extrusion push plate 8532 is reset, driving the connecting rod 8531 to reset and move in the sleeve rod 8543. The first mold 71A is also reset and clamps the bottom of the original base 93, thereby clamping the entire insert 9. At this time, the clamping position of the first mold 71A and the insert 9 changes, and the original clamping position is exposed, making it convenient for subsequent pickling treatment;

[0088] Subsequently, the electric telescopic rod 8411 is reset, and the maintenance spring 8424 is reset and stretched, driving the first mold 71A to rise and separate from the supporting surface of the supporting plate. The conveyor belt 11 continues to drive the first mold 71A to move and causes the limit block 812 to move in the gap.

[0089] 10. Secondary pickling

[0090] When the conveyor belt 11 carries the second gear 8313 to the position of the tooth plate 8321, as the second gear 8313 moves on the arc-shaped tooth plate 8321, the second gear 8313 engages the tooth plate 8321 to rotate, and drives the first mold 71A and the plug-in 9 to rotate 180 degrees through the transmission shaft 8311. This rotation drives the unpickled portion of the finished plug-in 9 downward. Then, the electric telescopic rod 8411 presses the transmission shaft 8311 downward again, driving the first mold 71A and the plug-in 9 to descend and re-enter the solution. At this time, the change of the clamping position can achieve full pickling of the plug-in 9.

[0091] 11. Discharging

[0092] After the entire insert 9 has been pickled, the electric telescopic rod 8411 is reset again and the finished insert 9 is taken out of the pickling tank. After pickling, the conveyor belt 11 transports the mold and the pickled finished insert 9 to the discharge mechanism. At the same time, the limit block 812 enters the limit guide rail 811 from the notch again, maintaining the first mold 71A in a horizontal position and entering the discharge mechanism.

[0093] Finally, the first mold 71A and the plug-in 9 enter the discharging mechanism and are in a horizontal state at the discharging position. At this time, the conveyor belt 11 is suspended, and another cylinder 8511 drives the inner shaft 8521 to move in the transmission shaft 8311 again, so that the first mold 71A is divided into two groups again and breaks away from the clamping of the plug-in 9. After losing the clamping of the first mold 71A, the plug-in 9 falls on the conveyor belt of the discharging mechanism, and the plug-in 9 is sent out through the conveyor belt. Subsequently, the cylinder 8511 resets and drives the first mold 71A to reset. The conveyor belt 11 starts and transports the first mold 71A to the loading mechanism 2A for loading, and repeats in sequence.

[0094] 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 guidance of this embodiment, ordinary technicians in this field can also make many forms without departing from the purpose of this embodiment and the scope of protection of the claims, all of which are protected by this embodiment.

Claims

1. A signal call device plug-in processing device for an electric power IMS administrative switching network, characterized in that: The invention comprises a conveying mechanism (1), a first synchronous mechanism (6A), a second synchronous mechanism (6B), a feeding mechanism (2A), a welding processing mechanism and a blanking mechanism (2B); the conveying mechanism (1) is arranged on one side of the synchronous mechanism; a welding mechanism (4) is arranged between the conveying mechanism (1) and the synchronous mechanism; a conveyor belt (11) is arranged on both the conveying mechanism (1) and the synchronous mechanism; the feeding mechanism (2A), the stamping processing mechanism (3), the welding mechanism (4) and the blanking mechanism (2B) are arranged in sequence along the conveying direction of the conveyor belt (11); a mold (7) and an adjusting mechanism (8) are arranged on the conveyor belt (11); the adjusting mechanism (8) is connected to the mold (7); the conveyor belt (11) is used to drive the mold (7) to move in a circular motion; the adjusting mechanism (8) is used to adjust the workpieces on the two groups of molds (7) to fit each other at the welding station of the welding mechanism (4); The mold (7) includes a first mold (71A), a second mold (71B) and a third mold (71C); the first mold (71A) is arranged on a conveyor belt (11) of a conveying mechanism (1); the second mold (71B) and the third mold (71C) are arranged on the conveyor belts (11) of a first synchronization mechanism (6A) and a second synchronization mechanism (6B), respectively; a loading mechanism (2A) is used to place a metal plate on the first mold (71A), the second mold (71B) and the third mold (71C); a stamping processing mechanism (3) is used to stamp the first mold (71A), the second mold (71B) and the third mold (71C) into a support seat (91), an upper cover (92) and a base (93); the support seat (91), the upper cover (92) and the base (93) constitute the plug-in (9); A cavity is provided in the first mold (71A), the cavity including a rectangular cavity and a circular cavity. The metal plate on the first mold (71A) has a circular plate portion and rectangular plate portions on both sides. The circular plate portion is inserted into the circular cavity, and the two rectangular plate portions are inserted into the rectangular cavity. The regulating mechanism (8) comprises a limiting assembly (81), a first rotation regulating assembly (82), a second rotation regulating assembly (83), a lifting assembly (84) and a clamping and resetting assembly (85). The limiting assembly (81) is mounted on the transmission mechanism. The limiting assembly (81) is used to maintain the first mold (71A) in a horizontal state. The first rotation regulating assembly (82) is used to drive the first mold (71A) to rotate from a horizontal state to a vertical state and to maintain the vertical state for horizontal movement. The second rotation regulating assembly (83) is used to rotate along the width direction of the conveyor belt (11) when the conveyor belt (11) drives the first mold (71A) in a horizontal state to move. The clamping and resetting assembly (85) cooperates with the lifting assembly (84). The clamping and resetting assembly (85) is used to perform position change clamping on the plug-in (9) when the lifting assembly (84) drives the first mold (71A) to descend.

2. A signal call device plug-in processing device for an electric power IMS administrative switching network according to claim 1, characterized in that: The first rotation adjustment assembly (82) includes a telescopic passive component (821) and a telescopic matching component (822). The telescopic passive component (821) is installed on the conveying mechanism (1). The telescopic passive component (821) is used to drive the telescopic matching component (822) to move horizontally during the conveying process of the conveyor belt (11). The telescopic matching component (822) cooperates with the driving component (851). The telescopic matching component (822) is used to drive the driving component (851) to rotate and move horizontally during the horizontal movement process. The driving component (851) is connected to the first mold (71A).

3. A signal call device plug-in processing device for an electric power IMS administrative switching network according to claim 2, characterized in that: The telescopic passive component (821) includes an A guide plate (8211) and a B guide plate (8212). The A guide plate (8211) and the B guide plate (8212) are installed in the transmission mechanism (1) and are arranged in an interlaced manner. The telescopic matching component (822) includes an A rack (8221A), a B rack (8221B), a bearing (8222), and a support block (8223). The A rack (8221A) and the B rack (8221B) are respectively limited and stopped by the A guide plate (8211) and the B guide plate (8212). The A rack (8221A) and the A guide plate (8211) are located at the same level, the B rack (8221B) and the B guide plate (8212) are located at the same level, the A rack (8221A) and the B rack (8221B) are both arranged horizontally, the first mold (71A) is connected to the bearing (8222), both ends of the bearing (8222) pass through and extend into the support block (8223), and the end thereof extending into the support block (8223) is connected to the first gear (8225), and the bearing (8222) is connected to the first gear (8225). The axial direction of the rack (8222) is perpendicular to the length direction of the rack, a fixed block (8224) is slidably installed on one side of the support block (8223), the rack A (8221A) and the rack B (8221B) pass through the fixed block (8224) and extend into the support block (8223), and a sliding groove (8226) is provided inside the support block (8223) and the fixed block (8224), and the rack A (8221A) and the rack B (8221B) are arranged inside the sliding groove (8226) and form a sliding groove with the sliding groove (8226). The movable guide is matched, and a tension spring is installed in the slide groove (8226) in the fixed block (8224). The tension spring provides elastic force in the length direction of the rod for the A rack (8221A) and the B rack (8221B). The A rack (8221A) and the B rack (8221B) are engaged with the first gear (8225) and are respectively located on the upper and lower sides of the first gear (8225). An elastic member (8227) is installed between one end of the bearing (8222) extending into the support block (8223) and the fixed block (8224); The elastic member (8227) is used to maintain the rotation of the gears when the A rack (8221A) and the B rack (8221B) move horizontally in the first section. When the A rack (8221A) and the B rack (8221B) move horizontally in the second section, the A rack (8221A) and the B rack (8221B) abut against the end groove wall of the inner groove (8226) of the support block (8223), thereby abutting against the support block (8223) to synchronize the horizontal movement of the A rack (8221A) and the B rack (8221B).

4. A signal call device plug-in processing device for an electric power IMS administrative switching network according to claim 3, characterized in that: The second rotation adjustment assembly (83) includes a rotational matching component (831) and a rotational driven component (832). The rotational driven component (832) is mounted on the conveying mechanism (1). The rotational matching component (831) matches the rotational driven component (832). The rotational driven component (832) is used to drive the rotational matching component (831) to rotate during the movement of the conveyor belt (11). The rotational matching component (831) is connected to the first mold (71A).

5. A signal call device plug-in processing device for an electric power IMS administrative switching network according to claim 4, characterized in that: The rotating fitting (831) includes a transmission shaft (8311) and a support frame (8312). A second gear (8313) is installed at one end of the transmission shaft (8311). The support frame (8312) is installed on the outer wall. The cross section of the support frame (8312) is L-shaped. The fixed block (8224) is fixedly installed on the support frame (8312) through a bracket. The bracket is arranged vertically. A sliding rod (8228) is installed at the bottom of the support block (8223). The end of the sliding rod (8228) away from the support block (8223) is located on the support frame ( The transmission mechanism (1) comprises a transverse groove on the transmission mechanism (8312), the groove direction of the transverse groove is consistent with the axial direction of the transmission shaft (8311), the connecting rod (8531) and the transverse groove form a sliding guide, the rotating passive component (832) includes a tooth plate (8321), the tooth plate (8321) is installed in the transmission mechanism (1), the second gear (8313) is engaged with the tooth plate (8321), the length direction of the tooth plate (8321) is perpendicular to the axial direction of the transmission shaft (8311); and the pickling mechanism (5) is also included, and the tooth plate (8321) is located at a corresponding position of the pickling mechanism (5).

6. A signal call device plug-in processing device for an electric power IMS administrative switching network according to claim 5, characterized in that: The limiting assembly (81) includes a limiting guide rail (811), which is arranged in a ring shape and is provided with notches at corresponding processing positions of the stamping processing mechanism (3) and the pickling mechanism (5). A limiting block (812) is fixedly installed on the transmission shaft (8311), and the limiting block (812) is arranged inside the limiting guide rail (811). The limiting block (812) has a rectangular structure and forms a conflicting limiting fit with the limiting guide rail (811).

7. A signal call device plug-in processing device for an electric power IMS administrative switching network according to claim 6, characterized in that: The lifting assembly (84) includes a lifting active component (841) and a lifting passive component (842). The lifting active component (841) is installed on the conveying mechanism (1). The lifting passive component (842) is adapted to the notch. The lifting passive component (842) is used to descend when the limit block (812) moves to the notch. The lifting active component (841) corresponds to the pickling mechanism (5) and cooperates with the lifting passive component (842). The lifting active component (841) is used to drive the first mold (71A) to descend when it moves to the pickling mechanism (5).

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