Insulation type gas pipeline connecting piece manufacturing and machining equipment and connecting piece of insulation type gas pipeline connecting piece manufacturing and machining equipment

Abstract

The invention discloses insulation type gas pipeline connecting piece manufacturing and processing equipment and a connecting piece thereof, and relates to the technical field of gas pipeline insulation. Electricity inlet and outlet sliding rails are installed on one side of the top end of an integration supporting frame at equal intervals, and the top ends of the two electricity inlet and outlet sliding rails are connected with an inlet and outlet integration frame through sliding rail bases; a belt transmission box is clamped in the middle of the top end of the in-out integration frame, a transmission motor is installed at the position, corresponding to the input shaft, of the top end of the belt transmission box through a motor base, and the side end of the in-out integration frame is rotationally sleeved with a combined transposition frame. The situation that the thickness of the attached insulating part is not uniform is avoided, and the situation that the cooling speed is insufficient and the cooling uniformity is not uniform due to single-face cooling is avoided, so that the overall uniformity of the insulating part on the surface of a product is guaranteed, the quality of the product is improved, and the forming speed of the product is increased.

Description

Technical Field

[0001] The present invention relates to the technical field of gas pipeline insulation, and in particular to an insulating gas pipeline connector manufacturing and processing equipment and a connector thereof. Background Art

[0002] Gas pipeline connectors are installation parts used to connect, divert, distribute or terminate the fluid in the gas pipeline. Now the pipeline connectors are union series and pipe connection series. Its structure has two parts. In order to prevent the gas pipeline from being affected by leakage or lightning strike, the connection contact points will be insulated and attached.

[0003] The patent with application number 202021798796.7 mentions "an injection molding device for plastic parts molding processing". The patent effectively prevents the molten plastic from cooling in the injection channel by heating the spiral tube.

[0004] However, when the insulating injection molding is performed on the surface of the connector, the product and the mold may be offset and detached when they are fitted, resulting in the insulation attachment position being offset and uneven thickness. In addition, during the cooling process, only external cooling is used, resulting in unequal cooling speeds inside and outside, uneven thermal expansion and contraction effects, and cracks or detachment of the insulation layer, which affects product quality and the insulation effect of the product. Summary of the invention

[0005] The present invention provides an insulating gas pipeline connector manufacturing and processing equipment and connector, which can effectively solve the problem raised in the above background technology that when the insulating injection molding and attachment sleeve are performed on the surface of the connector, the product and the mold will be offset and detached when they are fitted, resulting in the insulation part attachment position being offset and uneven thickness. In addition, during the cooling process, only external cooling is performed, resulting in unequal cooling speeds inside and outside, uneven thermal expansion and contraction effects, and cracks or detachment of the insulation layer, which affects product quality and the insulation effect of the product.

[0006] To achieve the above-mentioned object, the present invention provides the following technical solutions: an insulating gas pipeline connector manufacturing and processing equipment, comprising an integrated support frame, wherein a distribution joint assembly is arranged inside the integrated support frame;

[0007] The distribution joint assembly includes an inlet and outlet electric slide rail;

[0008] An in-and-out electric slide rail is installed at an equal distance on one side of the top of the integrated support frame, and the tops of the two in-and-out electric slide rails are connected to the in-and-out integrated frame through the slide rail seat, and a belt transmission box is clamped in the middle of the top of the in-and-out integrated frame, and a transmission motor is installed at the top of the belt transmission box corresponding to the input shaft position through the motor seat, and the side end of the in-and-out integrated frame is rotatably sleeved with a combined transposition frame;

[0009] A fixed air pump is installed at the bottom inner side of the combined transposition frame through the motor seat, a battery is fixed inside the combined transposition frame, a plurality of hollow inner T-shaped tubes are welded at equal distances at the bottom of the side end of the combined transposition frame, an outer row electric push rod is sleeved inside the inner side of the hollow T-shaped tube, and a lower groove outer push plate is clamped at one end of the outer row electric push rod;

[0010] The bottom ends of the multiple inner hollow T-shaped tubes are rotatably connected to a collecting fixed barrel, a switching motor is installed at the top inner side of the integrated support frame through a motor seat, a switching integrated frame is clamped at the bottom end of the switching motor output shaft, and a plurality of positioning hydraulic cylinders are symmetrically installed at the side ends of the switching integrated frame, one end of two positioning hydraulic cylinders is fixedly connected to a molding half-mold, a cooling cavity is opened on the inside of the molding half-mold, the molding half-mold and the side ends of the switching integrated frame are penetrated by injection cooling pipes, a booster pump is installed at the inner end of the switching integrated frame at the position of the injection cooling pipe corresponding to the injection cooling pipe through the motor seat, the top of the molding half-mold is penetrated by a circulating fixed pipe, and one end of the molding half-mold is penetrated by an injection molding pipe rack.

[0011] According to the above technical solution, a fixed airbag is embedded and installed at one end of the inner side of the hollow T-shaped tube, an air intake pipe rack is penetrated and connected to the top end of the fixed airbag, an outer row fixed pipe is penetrated and connected to the bottom end of the fixed airbag, an isolation treatment cylinder is fixedly connected to the inner side of the injection molding pipe rack, an isolation electric push rod is sleeved on the inner side of the isolation treatment cylinder, and an isolation extrapolation block is fixed to one end of the isolation electric push rod.

[0012] According to the above technical solution, the output shaft of the belt transmission box is engaged with the side end of the combined transposition frame, the outer push plate of the lower groove is slidably sleeved on the inner side of the hollow T-shaped tube, and the collecting fixed barrel is fixedly installed on the inner bottom end of the inlet and outlet integration frame.

[0013] According to the above technical solution, an injection cooling pipe is sleeved between the two forming half molds, the bottom end of the injection cooling pipe passes through and is sleeved on the inner side of the cooling inlet and outlet barrel, and one end of the injection cooling pipe is connected to one end of the booster pump through an adapter.

[0014] According to the above technical solution, a cooling inlet and outlet barrel is installed at the bottom inner end of the integrated support frame corresponding to the position of the switching integrated frame, cleaning electric push rods are clamped at both ends of the integrated support frame, an integrated fixing sleeve is fixed at one end of the cleaning electric push rod, a cleaning motor is installed on the inner side of the integrated fixing sleeve through a motor seat, a reciprocating porous frame is clamped at one end of the output shaft of the cleaning motor, a number of cleaning soft brushes are equidistantly fixed at the side end of the reciprocating porous frame, a slag discharge fixed pipe is symmetrically connected to the side end of the reciprocating porous frame through an adapter, a vacuum cleaner is installed at the side end of the integrated support frame corresponding to the position of the slag discharge fixed pipe, matching valves are embedded and installed at one end of the air intake pipe rack and the external exhaust fixed pipe, and control valves are embedded and installed at one end of the injection cooling pipe and the injection molding pipe rack.

[0015] According to the above technical solution, one end of the circulation fixed pipe is connected with one end of the cooling inlet and outlet barrel, the integrated fixed sleeve is rotatably sleeved with the reciprocating porous frame, and one end of the vacuum cleaner is connected with one end of the slag discharge fixed pipe through an adapter;

[0016] The input ends of the in-and-out electric slide rail, the transmission motor, the switching motor, the alignment hydraulic cylinder, the booster pump, the isolation electric push rod, the cleaning electric push rod, the cleaning motor, the vacuum cleaner and the control valve are all electrically connected to the output end of the external controller;

[0017] The input ends of the fixed air pump, the external electric push rod and the matching valve are all electrically connected to the output end of the battery, and the input end of the battery is wirelessly connected to the output end of the external controller;

[0018] The input end of the external controller is electrically connected to the output end of the external power supply.

[0019] According to the above technical solution, an inlet and outlet combination assembly is provided at the top of the integrated support frame;

[0020] The in-and-out combination assembly includes a storage fixed barrel;

[0021] A storage fixed barrel is fixed on the top of the integrated support frame, a constant temperature electric heater is sleeved on the inner side of the storage fixed barrel, a quantitative motor is installed on the top of the storage fixed barrel through a motor seat, a segmented pushing rack is clamped on the bottom end of the output shaft of the quantitative motor, a plurality of pressed electric push rods are equidistantly installed on the top of the storage fixed barrel, and arc-shaped pressed plates are clamped on the bottom ends of the pressed electric push rods, a vacuum air pump is installed on one side of the top of the storage fixed barrel through the motor seat, and an exhaust fixed pipe is connected through one side of the top of the storage fixed barrel corresponding to the position of the vacuum air pump;

[0022] The side ends of the in-and-out integrated frame are symmetrically connected with a plurality of direct-blowing fixed pipes, a guide fan is embedded and installed inside the direct-blowing fixed pipe, a brushing electric push rod is fixed at one end of the in-and-out integrated frame, a brushing motor is installed at one end of the brushing electric push rod through a motor seat, an embedded brushing frame is clamped at one end of the brushing motor output shaft, extrusion electric push rods are symmetrically installed at both ends of the inner side of the in-and-out integrated frame, and an extrusion arc plate is fixed at one end of the two extrusion electric push rods;

[0023] The top end of the inner side of the entry and exit integration frame is equidistantly installed with fitting electric slide rails, the bottom end of the fitting electric slide rails is connected to the fitting processing frame through a slide rail seat, the inner side of the fitting processing frame is symmetrically installed with lifting electric slide rails, one end of the lifting electric slide rail is installed with an electromagnetic clamping sleeve through the slide rail seat, a collecting linkage frame is magnetically connected between the two electromagnetic clamping sleeves, a lifting spring is installed at one end of the inner side of the collecting linkage frame, and the bottom end of the lifting spring is clamped with a positioning lifting plate.

[0024] According to the above technical solution, the segmented pushing rack is rotatably installed on the inner side of the storage fixed barrel, the side end of the arc-shaped pressing plate is slidably fitted with the inner end of the storage fixed barrel, and the embedded brush rack and the extruded arc plate are both placed on the inner side of the entry and exit integration rack.

[0025] According to the above technical solution, the bottom end of the collection linkage frame is slidably fitted with the bottom end of the inner side of the in-and-out integration frame, and the alignment lifting plate is slidably installed on the inner side of the collection linkage frame;

[0026] The input ends of the constant temperature electric heater, quantitative motor, pressing electric push rod, vacuum air pump, guide fan, brushing electric push rod, brushing motor, extrusion electric push rod, fitting electric slide rail, lifting electric slide rail and electromagnetic locking sleeve are all electrically connected to the output end of the external controller.

[0027] According to the above technical solution, an insulating gas pipeline connector includes a pipeline connector, and an insulating closed sleeve is sleeved on one outer end of the pipeline connector.

[0028] Compared with the prior art, the present invention has the following beneficial effects:

[0029] 1. A distribution joint assembly is provided. The in-and-out electric slide rail drives the in-and-out integration frame to move and switch. The belt drive box and the transmission motor drive the combined transposition frame and the inner hollow T-shaped tube to rotate. The in-and-out electric slide rail drives the in-and-out integration frame to move. The outer row electric push rod drives the lower groove outer push plate to push and extrude the connecting piece. The alignment hydraulic cylinder drives the forming half mold to fit and connect the connecting piece. The lower groove outer push plate and the forming half mold limit and extrude the connecting piece. The switching motor drives the switching integration frame and the forming half mold to rotate, adjust the mold position, and use the extrusion limit and rotation alignment to accurately place the connecting piece inside the mold, and accurately and stably extrude the connecting piece to the side end of the mold, thereby avoiding the occurrence of displacement and separation between the product and the mold, and improving product quality.

[0030] By switching the motor to change the position of the forming half mold, the cleaning electric push rod and the cleaning motor drive the back and forth porous frame and the cleaning soft brush to clean the mold, and the vacuum cleaner and the slag removal fixed pipe are used to cool the mold for slag removal. The combined position change frame drives the inner empty T-shaped tube to replace the product. By using multiple groups of coordination, the switching process is carried out synchronously to increase the speed of material replacement. The coolant is drawn into the cooling cavity by the injection cooling pipe and the booster pump, and the circulation fixed pipe is used for circulation cooling to cool the outside of the product. At the same time, the injection cooling pipe, the booster pump, the inner empty T-shaped tube and the collection fixed barrel are used to circulate and cool the inside of the connector to achieve internal cooling of the product. By operating the internal and external cooling at the same time, the internal and external cooling speeds are uniform, the cooling speed is increased, and at the same time, different thermal expansion cooling caused by uneven cooling is avoided, which leads to cracking and deformation, thereby improving the overall cooling speed and ensuring the quality of the product.

[0031] By switching between two groups of rotations, the position of the mold and the position of the product are changed, and by extrusion alignment, a fixed combination of the product and the mold is achieved. In combination with internal and external double cooling cycles, the cooling speed is improved, the uniformity of internal and external cooling is ensured, and the deformation and cracking of the product caused by uneven cooling is reduced. This effectively solves the problem in the prior art that the product and the mold are unstable, resulting in the position of the connecting parts being offset and the thickness of the insulating parts being uneven. It also avoids the problem of insufficient cooling speed and uneven cooling uniformity caused by external cooling, thereby ensuring the overall uniformity of the insulating parts on the surface of the product and improving the product quality and the speed of forming.

[0032] 2. An in-and-out combination assembly is provided, and the guide fan and the direct-blowing fixed pipe are used to directly blow the surface of the insulating part. The brushing electric push rod drives the brushing motor to insert the embedded brushing frame into the inner side of the connecting part, cleans the insulating part and the connecting part, and cools them, so as to realize rapid molding and finalization of the product, ensure product quality and processing efficiency, and use magnetic suction to connect the electromagnetic clamping sleeve and the collecting linkage frame. The bonding processing frame is driven to move by the bonding electric slide rail, and the lifting electric slide rail drives the collecting linkage frame to move. The outer row electric push rod drives the lower slot outer push plate to push the connecting part into the inner side of the collecting linkage frame, and gravity and lifting springs are used to position and support the lifting plate, so that the position of the in-and-out material can be ensured to be at the same height during the loading and unloading processing, and through multiple sets of guide in-and-out material limiters, the speed of in-and-out material alignment is improved, the waiting time for material collection is reduced, the processing speed and the accuracy of the material collection position are improved, and the situation of different thickness of the insulating sleeve due to position offset is avoided;

[0033] The storage fixed barrel is heated at a constant temperature by a constant temperature electric heater to ensure the fluidity of the injection molding material. The vacuum air pump and the exhaust fixed pipe are used to reduce the air and generate a large number of bubbles in the injection molding material, which leads to the subsequent loose extrusion. The quantitative motor drives the segmented pushing rack to push the injection molding material to flow and extrude it, and then cooperates with the pressing electric push rod to drive the arc pressing plate to push the injection molding material into the mold. Exhaust is used to reduce bubbles, and two sets of extrusion equipment are used to extrude and flow to ensure the compactness of the feed, thereby improving the compactness of the product and avoiding the situation where bubbles affect the product quality.

[0034] In summary, by coordinating the moving joint components and the in-and-out combined components, utilizing feed extrusion, mold alignment, and steady extrusion of the mold and the product, it is possible to achieve uniform production fit of the insulating layer attached to the surface of the connector, and by coordinating multiple groups of cooling components and product switching components, the production speed of the product is increased, the required waiting time is reduced, and the production efficiency and product quality of the product are improved through the cooperation of multiple components. BRIEF DESCRIPTION OF THE DRAWINGS

[0035] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0036] Figure 1 It is a three-dimensional structural schematic diagram of the present invention;

[0037] Figure 2 It is a structural schematic diagram of the distribution and movement joint assembly of the present invention;

[0038] Figure 3 It is a schematic diagram of the installation structure of the inlet and outlet integrated rack of the present invention;

[0039] Figure 4 It is a schematic diagram of the installation structure of the combined transposition frame of the present invention;

[0040] Figure 5 It is a schematic diagram of the installation structure of the forming half mold of the present invention;

[0041] Figure 6 It is a schematic diagram of the installation structure of the cooling cavity of the present invention;

[0042] Figure 7 It is a schematic diagram of the installation structure of the isolation and extrapolation block of the present invention;

[0043] Figure 8 It is a schematic diagram of the installation structure of the slag discharge fixed pipe of the present invention;

[0044] Fig. 9 It is a structural schematic diagram of the inlet and outlet combination assembly of the present invention;

[0045] Fig.10 It is a schematic diagram of the installation structure of the arc-shaped pressed plate of the present invention;

[0046] Fig.11 It is a schematic diagram of the installation structure of the bonding electric slide rail of the present invention;

[0047] Fig.12 It is a schematic diagram of the installation structure of the pipe connector of the present invention;

[0048] Numbers in the figure: 1. Integrated support frame;

[0049] 2. Distribution and joint assembly; 201. In-and-out electric slide rail; 202. In-and-out integrated frame; 203. Belt drive box; 204. Drive motor; 205. Combined transposition frame; 206. Fixed air pump; 207. Storage battery; 208. Inner hollow T-shaped pipe; 209. External electric push rod; 210. Lower tank external push plate; 211. Fixed air bag; 212. Inlet pipe frame; 213. External fixed pipe; 214. Collecting fixed barrel; 215. Switching motor; 216. Switching integrated frame; 217. Alignment hydraulic cylinder; 21 8. Molding half mold; 219. Cooling cavity; 220. Injection cooling pipe; 221. Booster pump; 222. Circulation fixed pipe; 223. Injection pipe rack; 224. Isolation treatment barrel; 225. Isolation electric push rod; 226. Isolation push block; 227. Cooling in and out barrel; 228. Cleaning electric push rod; 229. Integrated fixed sleeve; 230. Cleaning motor; 231. Back and forth porous rack; 232. Cleaning soft brush; 233. Slag removal fixed pipe; 234. Vacuum cleaner; 235. Matching valve; 236. Control valve;

[0050] 3. In-and-out assembly; 301. Storage fixed barrel; 302. Constant temperature electric heater; 303. Dosing motor; 304. Segmented pushing rack; 305. Pressing electric push rod; 306. Arc pressing plate; 307. Vacuum air pump; 308. Exhaust fixed pipe; 309. Direct blowing fixed pipe; 310. Guide fan; 311. Scrubbing electric push rod; 312. Scrubbing motor; 313. Embedded scrubbing rack; 314. Extrusion electric push rod; 315. Extrusion arc plate; 316. Laminating electric slide rail; 317. Laminating processing rack; 318. Lifting electric slide rail; 319. Electromagnetic clamping sleeve; 320. Collection linkage rack; 321. Lifting spring; 322. Alignment lifting plate;

[0051] 4. Pipeline connector; 5. Insulation closure. DETAILED DESCRIPTION

[0052] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0053] Example: Figure 1-11 As shown, the present invention provides a technical solution, an insulating gas pipeline connector manufacturing and processing equipment, including an integrated support frame 1, and a distribution joint component 2 is arranged inside the integrated support frame 1;

[0054] The distribution joint assembly 2 includes an in-and-out electric slide rail 201, an in-and-out integration frame 202, a belt drive box 203, a transmission motor 204, a combined transposition frame 205, a fixed air pump 206, a battery 207, an inner hollow T-shaped pipe 208, an outer discharge electric push rod 209, a lower tank outer push plate 210, a fixed air bag 211, an air intake pipe frame 212, an outer discharge fixed pipe 213, a collection fixed barrel 214, a switching motor 215, a switching integration frame 216, a positioning hydraulic cylinder 217, and a complete set of components. The mold half 218, cooling cavity 219, injection cooling pipe 220, booster pump 221, circulation fixed pipe 222, injection pipe rack 223, isolation treatment barrel 224, isolation electric push rod 225, isolation push block 226, cooling in and out barrel 227, cleaning electric push rod 228, integrated fixed sleeve 229, cleaning motor 230, back and forth porous rack 231, cleaning soft brush 232, slag discharge fixed pipe 233, vacuum cleaner 234, matching valve 235 and control valve 236;

[0055] An in-and-out electric slide rail 201 is installed equidistantly on one side of the top of the integrated support frame 1. The tops of the two in-and-out electric slide rails 201 are connected to an in-and-out integrated frame 202 through a slide rail seat. A belt transmission box 203 is clamped in the middle of the top of the in-and-out integrated frame 202. A transmission motor 204 is installed at the top of the belt transmission box 203 at the position corresponding to the input shaft through a motor seat. A combined transposition frame 205 is rotatably sleeved on the side end of the in-and-out integrated frame 202. The output shaft of the belt transmission box 203 is clamped and connected with the side end of the combined transposition frame 205 to achieve a steady transmission connection and ensure steady rotation and transposition operation.

[0056] A fixed air pump 206 is installed at the bottom inner side of the combined transposition frame 205 through the motor seat, a battery 207 is fixed at the inner side of the combined transposition frame 205, and a plurality of inner hollow T-shaped tubes 208 are welded at equal distances at the bottom of the side end of the combined transposition frame 205, an outer row electric push rod 209 is sleeved on the inner side of the inner hollow T-shaped tube 208, and a lower groove outer push plate 210 is clamped on one end of the outer row electric push rod 209, and the lower groove outer push plate 210 is slidably sleeved on the inner side of the inner hollow T-shaped tube 208 to achieve steady pushing of the material in and out and ensure steady material discharge, and a fixed air bag 211 is embedded and installed at one end of the inner side of the inner hollow T-shaped tube 208, and an air inlet pipe frame 212 is penetrated and connected to the top of the fixed air bag 211, and an outer row fixed pipe 213 is penetrated and connected to the bottom end of the fixed air bag 211;

[0057] The bottom ends of the multiple hollow T-shaped tubes 208 are rotatably connected with a collecting fixed barrel 214, which is fixedly installed at the bottom end of the inner side of the in-and-out integration frame 202 to achieve steady recovery processing. A switching motor 215 is installed at the top of the inner side of the integration support frame 1 through a motor seat, and a switching integration frame 216 is clamped at the bottom end of the output shaft of the switching motor 215. A plurality of aligning hydraulic cylinders 217 are symmetrically installed at the side end of the switching integration frame 216. One end of the two aligning hydraulic cylinders 217 is fixedly connected to a forming half mold 218, and a cooling cavity 219 is opened inside the forming half mold 218. The side ends of the molding half mold 218 and the switching integrated frame 216 are penetrated and connected with an injection cooling pipe 220. A booster pump 221 is installed at the position of the injection cooling pipe 220 at one end of the inner side of the switching integrated frame 216 through a motor seat. A circulation fixed pipe 222 is penetrated and connected to the top of the molding half mold 218. An injection molding pipe rack 223 is penetrated and connected to one end of the molding half mold 218. An isolation treatment cylinder 224 is fixedly connected to the inner side of the injection molding pipe rack 223. An isolation electric push rod 225 is sleeved on the inner side of the isolation treatment cylinder 224. An isolation push rod 226 is fixed to one end of the isolation electric push rod 225.

[0058] A cooling inlet and outlet barrel 227 is installed at the inner bottom end of the integrated support frame 1 corresponding to the position of the switching integrated frame 216. An injection cooling pipe 220 is sleeved between the two molding half-molds 218. The bottom end of the injection cooling pipe 220 penetrates and is sleeved on the inner side of the cooling inlet and outlet barrel 227. One end of the injection cooling pipe 220 is connected to one end of the booster pump 221 through an adapter, and one end of the circulation fixed pipe 222 is penetrated and connected to one end of the cooling inlet and outlet barrel 227, so that simultaneous cooling of multiple positions inside and outside can be achieved during the cooling process, thereby improving the cooling speed and efficiency. Cleaning electric push rods 228 are clamped at both ends of the integrated support frame 1, and an integrated fixing sleeve 229 is fixed at one end of the cleaning electric push rod 228. A cleaning motor 230 is installed on the inner side of the integrated fixing sleeve 229 through a motor seat. One end of the output shaft 30 is clamped with a reciprocating porous frame 231, and the integrated fixed sleeve 229 is rotatably fitted with the reciprocating porous frame 231 to achieve linkage support and ensure the steady operation of the clamping combination. A number of cleaning soft brushes 232 are equidistantly fixed on the side end of the reciprocating porous frame 231, and the side end of the reciprocating porous frame 231 is symmetrically connected with a slag discharge fixed pipe 233 through an adapter. A dust collector 234 is installed at the side end of the integrated support frame 1 at the position corresponding to the slag discharge fixed pipe 233, and one end of the dust collector 234 is connected to one end of the slag discharge fixed pipe 233 through an adapter to achieve steady slag discharge processing. The air intake pipe frame 212 and one end of the external fixed pipe 213 are both embedded with a matching valve 235, and one end of the injection cooling pipe 220 and the injection molding pipe frame 223 are both embedded with a control valve 236.

[0059] For stable operation of the equipment, the input ends of the in-and-out electric slide rail 201, the transmission motor 204, the switching motor 215, the alignment hydraulic cylinder 217, the booster pump 221, the isolation electric push rod 225, the cleaning electric push rod 228, the cleaning motor 230, the dust collector 234 and the control valve 236 are all electrically connected to the output end of the external controller;

[0060] The input ends of the fixed air pump 206, the external electric push rod 209 and the matching valve 235 are all electrically connected to the output end of the battery 207, and the input end of the battery 207 is wirelessly connected to the output end of the external controller;

[0061] The input end of the external controller is electrically connected to the output end of the external power supply.

[0062] An inlet and outlet assembly 3 is provided at the top of the integrated support frame 1;

[0063] The in-and-out combination assembly 3 includes a storage fixed barrel 301, a constant temperature electric heater 302, a quantitative motor 303, a segmented pushing rack 304, a pressing electric push rod 305, an arc pressing plate 306, a vacuum air pump 307, an exhaust fixed pipe 308, a direct blowing fixed pipe 309, a guide fan 310, a brushing electric push rod 311, a brushing motor 312, an embedded brushing rack 313, an extrusion electric push rod 314, an extrusion arc plate 315, a laminating electric slide rail 316, a laminating processing rack 317, a lifting electric slide rail 318, an electromagnetic clamping sleeve 319, a collection linkage rack 320, a lifting spring 321 and a positioning lifting plate 322;

[0064] A storage fixed barrel 301 is fixed on the top of the integrated support frame 1, and a constant temperature electric heater 302 is sleeved on the inner side of the storage fixed barrel 301. A quantitative motor 303 is installed on the top of the storage fixed barrel 301 through a motor seat, and a segmented pushing rack 304 is clamped on the bottom end of the output shaft of the quantitative motor 303. A number of pressed electric push rods 305 are equidistantly installed on the top of the storage fixed barrel 301, and an arc-shaped pressed plate 306 is clamped on the bottom end of the several pressed electric push rods 305. The segmented pushing rack 304 is rotatably installed on the inner side of the storage fixed barrel 301, and the side end of the arc-shaped pressed plate 306 is slidably fitted with the inner side end of the storage fixed barrel 301, so that steady operation is achieved during the pushing process and the discharging alignment. A vacuum air pump 307 is installed on one side of the top of the storage fixed barrel 301 through a motor seat, and an exhaust fixed pipe 308 is connected through the position of the vacuum air pump 307 on one side of the top of the storage fixed barrel 301;

[0065] A plurality of straight-blowing fixed pipes 309 are symmetrically connected to the side ends of the in-and-out integrated frame 202, and a guide fan 310 is embedded and installed inside the straight-blowing fixed pipe 309. A brushing electric push rod 311 is fixed to one end of the in-and-out integrated frame 202, and a brushing motor 312 is installed on one end of the brushing electric push rod 311 through a motor seat. An embedded brushing frame 313 is clamped on one end of the output shaft of the brushing motor 312. Extrusion electric push rods 314 are symmetrically installed at both ends of the inner side of the in-and-out integrated frame 202, and an extrusion arc plate 315 is fixed to one end of the two extrusion electric push rods 314. The embedded brushing frame 313 and the extrusion arc plate 315 are both placed on the inner side of the in-and-out integrated frame 202, and the bottom end of the collecting linkage frame 320 slides and fits with the inner bottom end of the in-and-out integrated frame 202 to achieve steady operation of counter-position support and transposition support.

[0066] A bonding electric slide rail 316 is equidistantly installed at the top of the inner side of the in-and-out integration frame 202, and a bonding processing frame 317 is connected to the bottom end of the bonding electric slide rail 316 through a slide rail seat. A lifting electric slide rail 318 is symmetrically installed on the inner side of the bonding processing frame 317, and an electromagnetic clamping sleeve 319 is installed at one end of the lifting electric slide rail 318 through the slide rail seat. A collection linkage frame 320 is magnetically connected between the two electromagnetic clamping sleeves 319, and a lifting spring 321 is installed at one end of the inner side of the collection linkage frame 320. The bottom end of the lifting spring 321 is clamped with a positioning lifting plate 322, and the positioning lifting plate 322 is slidably installed on the inner side of the collection linkage frame 320, so that the sliding exchange and positioning processing can be steadily coordinated.

[0067] The input ends of the constant temperature electric heater 302, the quantitative motor 303, the pressing electric push rod 305, the vacuum air pump 307, the guide fan 310, the brushing electric push rod 311, the brushing motor 312, the extrusion electric push rod 314, the fitting electric slide rail 316, the lifting electric slide rail 318 and the electromagnetic locking sleeve 319 are all electrically connected to the output end of the external controller.

[0068] like Fig.12 As shown, a connector produced by an insulating gas pipeline connector manufacturing and processing equipment includes a pipeline connector 4, and an insulating closed sleeve 5 is sleeved on one end of the outer side of the pipeline connector 4.

[0069] The working principle and use process of the present invention are as follows: an insulating closed sleeve 5 is produced and sleeved on the surface of the pipe connector 4, an external power supply is used to power the external controller, the external controller powers the equipment, the battery 207 is wirelessly powered, and the battery 207 powers some equipment. The staff places the pipe connectors 4 one by one on the inner side of the collecting linkage frame 320, and uses gravity to push the alignment lifting plate 322 to move downward along the collecting linkage frame 320. At this time, the lifting spring 321 is stretched, and the collecting linkage frame 320 storing the pipe connector 4 is sleeved on the side end of the electromagnetic clamping sleeve 319, and the electromagnetic clamping sleeve 319 is magnetically combined with the collecting linkage frame 320 by magnetic attraction, and the pipe connector 4 is placed on the combined transposition frame 205 and the side end of the inner empty T-shaped tube 208, and the empty collecting linkage frame 320 can be placed at the discharge position to achieve steady feeding operation;

[0070] The laminating electric slide 316 drives the laminating processing frame 317 to move along the in-and-out integration frame 202 to the side end of the inner hollow T-shaped tube 208, and the lifting electric slide 318 drives the electromagnetic clamping sleeve 319 and the collecting linkage frame 320 to rise, and the pipeline connector 4 is fitted to one end of the inner hollow T-shaped tube 208, and the laminating electric slide 316 drives the laminating processing frame 317 to insert the pipeline connector 4 into the inner side of the inner hollow T-shaped tube 208, and the air inlet pipe frame 212 is opened by the matching valve 235, and the fixed air pump 206 and the air inlet pipe frame 212 supply air to the fixed air bag 211, and the fixed air bag 211 is used to clamp and fit the pipeline connector 4 to achieve steady feeding processing, and the lifting spring 321 drives the alignment lifting plate 322 to push the pipeline connector 4 upward along the collecting linkage frame 320 to achieve continuous feeding and discharging processing and ensure the stability of feeding and discharging;

[0071] After the loading is completed, the transmission motor 204 and the belt transmission box 203 drive the combined transposition frame 205 to rotate along the in-and-out integration frame 202. During the rotation of the combined transposition frame 205, the combined transposition frame 205 drives the inner hollow T-shaped pipe 208 to rotate, and the pipe connector 4 is placed in the position for loading injection molding. At the same time, the switching motor 215 drives the switching integration frame 216 to move along the position of the integration support frame 1. At this time, the positioning hydraulic cylinder 217 drives the molding half mold 218 to move in opposite directions, separate the two molding half molds 218, and rotate the molding half mold 218. Turn and unfold to the position of the pipe connector 4, cooperate with the in-and-out electric slide rail 201 to drive the in-and-out integration frame 202 to move along the integration support frame 1, so that the pipe connector 4 is completely inserted between the two forming half molds 218, and the forming half molds 218 are driven to move relative to each other by multiple alignment hydraulic cylinders 217, so that the pipe connector 4 and the forming half molds 218 are sleeved and connected, and the mold and the connector are combined and sleeved, and then the outer row electric push rod 209 drives the lower groove outer push plate 210 to push the pipe connector 4 to accurately fit the side end of the forming half mold 218, so as to achieve accurate material alignment;

[0072] After the assembly is completed, the hot melt injection plastic is squeezed into the inner side of the storage fixed barrel 301 by an external extruder, and the injection plastic in the storage fixed barrel 301 is heated by a constant temperature electric heater 302 to ensure the fluidity of the injection plastic. During the feeding process, the air in the storage fixed barrel 301 is extracted by a vacuum air pump 307 and an exhaust fixed pipe 308 to reduce the impact of air on the injection plastic and avoid a large number of bubbles in the injection plastic, which affects the stability of subsequent feeding. The quantitative motor 303 drives the segmented pushing of the material. The rack 304 rotates along the storage fixed barrel 301, pushing the injection plastic to flow to the position of the injection molding tube rack 223, and the injection molding tube rack 223 is opened by the control valve 236. The pressing electric push rod 305 drives the arc pressing plate 306 along the segmented pushing rack 304 to push the injection plastic along the injection molding tube rack 223 into the position of the molding half mold 218, and the injection plastic is fitted to the side end of the pipe connector 4 along the molding half mold 218, and the side end of the pipe connector 4 is attached and fitted, so as to realize the steady fitting production of the insulating closed sleeve 5;

[0073] After the production of the insulating sleeve is completed, the coolant in the cooling inlet and outlet barrel 227 is extracted by the booster pump 221 and the injection cooling pipe 220, and the coolant enters the inner side of the cooling cavity 219 along the injection cooling pipe 220, and finally flows back to the inner side of the cooling inlet and outlet barrel 227 along the circulation fixed pipe 222. At the same time, the injection cooling pipe 220 located at the position of the two cooling cavities 219 injects coolant into the position of the pipeline connector 4, and the coolant enters the inner side of the collecting fixed barrel 214 along the injection cooling pipe 220, the pipeline connector 4 and the inner hollow T-shaped pipe 208, so as to realize the recovery of coolant, and realize the simultaneous cooling and molding at multiple points to improve the speed of cooling treatment, ensure the simultaneous molding of inside and outside, improve the speed of cooling molding, and avoid the single cooling causing the molding to separate or the stability of the bonding connection with the mold. After the molding is completed, the positioning hydraulic cylinder 217 opens the molding half mold 218, and the isolation electric push rod 225 drives the isolation push block 226 to push the insulating closing sleeve 5 out of the inner side of the molding half mold 218 along the isolation treatment cylinder 224, so as to realize steady exit;

[0074] After the discharge is completed, the switching integrated frame 216 is driven by the switching motor 215 to rotate and change the molding half mold 218. After the molding half mold 218 is replaced, the cleaning electric push rod 228 drives the integrated fixed sleeve 229 to move, so that the reciprocating porous frame 231 and the cleaning soft brush 232 are inserted into the side end of the molding half mold 218. The cleaning motor 230 drives the reciprocating porous frame 231 and the cleaning soft brush 232 to rotate along the molding half mold 218 to push the impurities adhered to the inner side of the molding half mold 218. The cleaning soft brush 232 is used to remove the impurities. The dust collector 234 and the slag discharge fixed pipe 233 cooperate with the reciprocating porous frame 231 to extract the cleaning soft brush 232 to scrape off the detached impurities. The impurities are sucked into the inner side of the dust collector 234 to collect the impurities, and the molding half mold 218 is cooled, so that the slag removal and injection molding can be processed simultaneously during injection molding, thereby improving the efficiency of the operation.

[0075] When the formed pipe connector 4 and the insulating closed sleeve 5 rotate to the position of the direct blowing fixed pipe 309, the guide fan 310 and the direct blowing fixed pipe 309 perform direct blowing treatment on the surface of the insulating closed sleeve 5, and perform secondary circulation cooling treatment on the insulating closed sleeve 5. The brushing electric push rod 311 drives the brushing motor 312 to move, and the embedded brushing frame 313 is inserted into the inner side of the pipe connector 4. The brushing motor 312 drives the embedded brushing frame 313 to rotate to brush and dry the inner side of the pipe connector 4, and brush and separate the excess injection plastic at the corners. After the brushing is completed, the brushing electric push rod 311 is used to drive the embedded brushing frame 313 to move and separate from the pipe connector 4, and the extrusion electric push rod 314 drives the extrusion arc plate 315 to dehydrate and remove slag from the embedded brushing frame 313, so as to achieve steady operation and ensure the steady operation of continuous slag removal and dehydration, and cooperate with the guide fan 310 and the direct blowing fixed pipe 309 for cooling treatment to ensure the speed and quality of product cooling;

[0076] After cooling and brushing, the connector is rotated to the discharge position, and the bonding processing frame 317 is driven to move by the bonding electric slide rail 316, and the lifting electric slide rail 318 drives the electromagnetic clamping sleeve 319 and the collection linkage frame 320 to lift and move, so that the collection linkage frame 320 is fitted with the inner hollow T-shaped tube 208. At this time, the matching valve 235 opens the outer fixed tube 213, and the air in the fixed airbag 211 is discharged to release the pipe connector 4. The lower groove outer push plate 210 is driven by the outer electric push rod 209 to push the pipe connector 4 into the inner side of the collection linkage frame 320, and the gravity of the pipe connector 4 is used to push the alignment lifting plate 322 to move downward along the collection linkage frame 320. At this time, the lifting spring 321 is stretched to achieve steady product collection operation, thereby achieving continuous production, and improving the processing speed through injection molding intermittent multi-stage cooperation operation;

[0077] When the pipe connectors 4 are combined and connected, the insulating closure sleeve 5 is sleeved onto the side ends thereof, and multiple groups of pipe connectors are combined and connected to each other using threads, so that the insulating closure sleeve 5 can be used for insulation during connection, and the pipe fittings and unions at the pipeline connection are injection-molded for insulation, so that they have a high withstand voltage insulation effect.

[0078] Finally, it should be noted that the above description is only a preferred example of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein by equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. An insulating gas pipeline connector manufacturing and processing equipment, comprising an integrated support frame (1), characterized in that: A movable joint component (2) is arranged inside the integrated support frame (1); The distribution joint assembly (2) comprises an inlet and outlet electric slide rail (201); An in-and-out electric slide rail (201) is equidistantly installed on one side of the top of the integrated support frame (1); the tops of the two in-and-out electric slide rails (201) are connected to an in-and-out integrated frame (202) through a slide rail seat; a belt transmission box (203) is clamped in the middle of the top of the in-and-out integrated frame (202); a transmission motor (204) is installed at the top of the belt transmission box (203) at a position corresponding to the input shaft through a motor seat; and a combined transposition frame (205) is rotatably sleeved on the side end of the in-and-out integrated frame (202); A fixed air pump (206) is installed at the bottom inner side of the combined transposition frame (205) through a motor seat, a storage battery (207) is fixed inside the combined transposition frame (205), a plurality of hollow inner T-shaped tubes (208) are welded at equal intervals at the bottom of the side end of the combined transposition frame (205), an outer row electric push rod (209) is sleeved inside the inner hollow T-shaped tube (208), and a lower groove outer push plate (210) is clamped at one end of the outer row electric push rod (209); The bottom ends of the plurality of hollow T-shaped tubes (208) are rotatably connected to a collecting fixed barrel (214); a switching motor (215) is installed at the top inner side of the integrated support frame (1) through a motor seat; the bottom end of the output shaft of the switching motor (215) is clamped with a switching integrated frame (216); a plurality of aligning hydraulic cylinders (217) are symmetrically installed at the side ends of the switching integrated frame (216); one end of two of the aligning hydraulic cylinders (217) is fixedly connected to a forming half mold (218); the forming half mold A cooling cavity (219) is provided on the inner side of the molding half mold (218), and the side ends of the molding half mold (218) and the switching integrated frame (216) are both penetrated and connected with an injection cooling pipe (220), and a booster pump (221) is installed at the position of the injection cooling pipe (220) at one end of the inner side of the switching integrated frame (216) through a motor seat, and a circulation fixed pipe (222) is penetrated and connected at the top end of the molding half mold (218), and an injection molding pipe rack (223) is penetrated and connected at one end of the molding half mold (218).

2. The insulating gas pipeline connector manufacturing and processing equipment according to claim 1 is characterized in that: A fixed air bag (211) is embedded and installed at one end of the inner side of the inner hollow T-shaped tube (208); an air intake pipe frame (212) is connected through the top of the fixed air bag (211); an outer row fixed pipe (213) is connected through the bottom of the fixed air bag (211); an isolation treatment tube (224) is fixedly connected to the inner side of the injection molding tube frame (223); an isolation electric push rod (225) is sleeved on the inner side of the isolation treatment tube (224); an isolation external push block (226) is fixed to one end of the isolation electric push rod (225).

3. The insulating gas pipeline connector manufacturing and processing equipment according to claim 1 is characterized in that: The output shaft of the belt transmission box (203) is snap-connected with the side end of the combined transposition frame (205), the lower groove outer push plate (210) is slidably sleeved on the inner side of the hollow T-shaped tube (208), and the collecting fixed barrel (214) is fixedly installed on the inner bottom end of the inlet and outlet integration frame (202).

4. The insulating gas pipeline connector manufacturing and processing equipment according to claim 1 is characterized in that: An injection cooling pipe (220) is sleeved between the two molding half molds (218), and the bottom end of the injection cooling pipe (220) passes through and is sleeved on the inner side of the cooling inlet and outlet barrel (227), and one end of the injection cooling pipe (220) is connected to one end of the booster pump (221) via an adapter.

5. The insulating gas pipeline connector manufacturing and processing equipment according to claim 1 is characterized in that: A cooling inlet and outlet barrel (227) is installed at the inner bottom end of the integrated support frame (1) corresponding to the position of the switching integrated frame (216), and cleaning electric push rods (228) are clamped at both ends of the integrated support frame (1), and an integrated fixing sleeve (229) is fixed at one end of the cleaning electric push rod (228), and a cleaning motor (230) is installed on the inner side of the integrated fixing sleeve (229) through a motor seat, and a reciprocating porous frame (231) is clamped at one end of the output shaft of the cleaning motor (230), and the reciprocating porous frame (231) A plurality of cleaning soft brushes (232) are fixed at equal intervals on the side ends; the side ends of the reciprocating porous frame (231) are symmetrically connected to a slag discharge fixed pipe (233) through an adapter; a dust collector (234) is installed at the position of the slag discharge fixed pipe (233) on the side end of the integrated support frame (1); a matching valve (235) is embedded and installed at one end of the air intake pipe frame (212) and the external discharge fixed pipe (213); and a control valve (236) is embedded and installed at one end of the injection cooling pipe (220) and the injection molding pipe frame (223).

6. The insulating gas pipeline connector manufacturing and processing equipment according to claim 5, characterized in that: One end of the circulation fixed pipe (222) is connected to one end of the cooling inlet and outlet barrel (227), the integrated fixed sleeve (229) is rotatably sleeved with the reciprocating porous frame (231), and one end of the dust collector (234) is connected to one end of the slag discharge fixed pipe (233) through an adapter; The input ends of the in-and-out electric slide rail (201), the transmission motor (204), the switching motor (215), the alignment hydraulic cylinder (217), the booster pump (221), the isolation electric push rod (225), the cleaning electric push rod (228), the cleaning motor (230), the dust collector (234) and the control valve (236) are all electrically connected to the output end of the external controller; The input ends of the fixed air pump (206), the external electric push rod (209) and the matching valve (235) are all electrically connected to the output end of the storage battery (207), and the input end of the storage battery (207) is wirelessly connected to the output end of the external controller; The input end of the external controller is electrically connected to the output end of the external power supply.

7. The insulating gas pipeline connector manufacturing and processing equipment according to claim 6 is characterized in that: The top end of the integrated support frame (1) is provided with an entry and exit combination component (3); The in-and-out combination assembly (3) comprises a storage fixed barrel (301); A storage fixed barrel (301) is fixed on the top of the integrated support frame (1), a constant temperature electric heater (302) is sleeved on the inner side of the storage fixed barrel (301), a quantitative motor (303) is installed on the top of the storage fixed barrel (301) through a motor seat, a segmented material pusher (304) is clamped on the bottom end of the output shaft of the quantitative motor (303), a plurality of pressed electric push rods (305) are equidistantly installed on the top of the storage fixed barrel (301), and a plurality of the pressed electric push rods (305) are clamped on the bottom ends of the arc-shaped pressed plates (306), a vacuum air pump (307) is installed on one side of the top of the storage fixed barrel (301) through the motor seat, and an exhaust fixed pipe (308) is connected through the top of the storage fixed barrel (301) at a position corresponding to the vacuum air pump (307); A plurality of direct-blowing fixed pipes (309) are symmetrically connected and penetrated at the side ends of the in-and-out integrated frame (202), a guide fan (310) is embedded and installed inside the direct-blowing fixed pipe (309), a brushing electric push rod (311) is fixed to one end of the in-and-out integrated frame (202), a brushing motor (312) is installed at one end of the brushing electric push rod (311) through a motor seat, an embedded brushing frame (313) is clamped at one end of the output shaft of the brushing motor (312), extrusion electric push rods (314) are symmetrically installed at both ends of the inner side of the in-and-out integrated frame (202), and an extrusion arc plate (315) is fixed to one end of the two extrusion electric push rods (314); The top of the inner side of the entry and exit integration frame (202) is equidistantly installed with a bonding electric slide rail (316), and the bottom end of the bonding electric slide rail (316) is connected to a bonding processing frame (317) through a slide rail seat. The inner side of the bonding processing frame (317) is symmetrically installed with a lifting electric slide rail (318), and one end of the lifting electric slide rail (318) is installed with an electromagnetic locking sleeve (319) through a slide rail seat. A collecting linkage frame (320) is magnetically connected between the two electromagnetic locking sleeves (319), and a lifting spring (321) is installed at one end of the inner side of the collecting linkage frame (320), and the bottom end of the lifting spring (321) is clamped with a positioning lifting plate (322).

8. The insulating gas pipeline connector manufacturing and processing equipment according to claim 7 is characterized in that: The segmented pushing rack (304) is rotatably mounted on the inner side of the storage fixed barrel (301), the side end of the arc-shaped pressing plate (306) is slidably fitted with the inner side end of the storage fixed barrel (301), and the embedded brushing rack (313) and the extruded arc-shaped plate (315) are both placed on the inner side of the entry and exit integration rack (202).

9. The insulating gas pipeline connector manufacturing and processing equipment according to claim 7, characterized in that: The bottom end of the receiving linkage frame (320) is slidably fitted with the bottom end of the inner side of the in-and-out integration frame (202), and the alignment lifting plate (322) is slidably installed on the inner side of the receiving linkage frame (320); The input ends of the constant temperature electric heater (302), the quantitative motor (303), the pressing electric push rod (305), the vacuum air pump (307), the guide fan (310), the brushing electric push rod (311), the brushing motor (312), the extrusion electric push rod (314), the fitting electric slide rail (316), the lifting electric slide rail (318) and the electromagnetic locking sleeve (319) are all electrically connected to the output end of the external controller.

10. An insulating gas pipeline connector, a connector produced by the insulating gas pipeline connector manufacturing and processing equipment according to claim 9, characterized in that: It comprises a pipe connector (4), one outer end of which is sleeved with an insulating closed sleeve (5).

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