A structured packing welding device

By designing the welding device of the filler, the flip module is used to achieve the automatic stacking and clamping of the ripple plate, combined with the multi -station design of the positioning tower and welding warehouse, solving the low -stacking efficiency and welding of the ripple plate in the existing technology. The problem of not solid has achieved efficient and safe welding processes.

CN119115162BActive Publication Date: 2025-01-28ZIBO MINGGUANG PETROCHEMICAL ENG CO LTD
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Patent Information

Application Number
CN202411614825.2
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2024-11-13
Publication Date
2025-01-28
Estimated Expiration
2044-11-13

AI Technical Summary

Technical Problem

In the existing corrugated plate regular filler production process, artificial stacking corrugated plates are inefficient, labor intensity is high, and the welding station is single, so specific positioning welding cannot be achieved, resulting in insufficient local desoldering and welding firm strength.

Method used

Design a regular filler welding device, including the conversion table, welding warehouse, positioning tower and flip module. The flip module realizes the automatic positive and reflective stacking and clamping of the ripple plate through lift, rotation, and clamping components; the positioning welding tower and welding warehouse provide multiple welding stations to achieve the specific location of the ripple plate.

Benefits of technology

Improve the stacking efficiency of the ripple plate, reduce the intensity of labor labor, ensure the firm welding strength of the regular fillers, and avoid local litter welding.

✦ Generated by Eureka AI based on patent content.

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Abstract

The present invention relates to a structured packing welding device, belonging to the technical field of structured packing welding equipment, comprising: a welding bin is provided on a transfer table, the welding bin can rotate with the transfer table, a positioning welding tower is provided on the transfer table, the movable part of the positioning welding tower can be inserted into the welding bin to weld the workpiece, and a flip module for transferring the packing is provided on the side of the positioning welding tower, and the flip module is placed above the welding bin. The transfer table and the welding bin provide multiple welding stations for the structured packing, and multiple welding assemblies arranged on the positioning welding tower perform local welding on the structured packing in the welding bin at different stations to ensure the firmness of the packing welding points; the flip module can replace manual clamping and flipping of multiple corrugated plates at one time, which improves the operating efficiency of stacking the corrugated plates in both directions on the one hand, and reduces the labor intensity of manual labor on the other hand, and improves the operating safety.
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Description

Technical Field

[0001] The invention relates to a structured packing welding device, belonging to the technical field of structured packing welding equipment. Background Art

[0002] Structured packing is a highly efficient gas-liquid contact element, widely used in distillation towers, absorption towers, reaction towers and other equipment in the chemical, petroleum, environmental protection and other industries. Corrugated plate structured packing is a commonly used type in industrial production. This type of packing is made of multiple layers of stainless steel corrugated plates stacked and welded, with a regular channel structure, which can significantly increase the gas-liquid contact area and mass transfer efficiency.

[0003] At present, the main process flow of corrugated plate structured packing is as follows: the stainless steel strip is stamped to form a corrugated strip, and then the corrugated strip is cut to form the corrugated plate required for the production of structured packing. Finally, multiple corrugated plates are manually stacked up front and back and sent to a resistance welding machine for welding.

[0004] The above-mentioned corrugated plate structured packing production process has the following disadvantages:

[0005] 1. Before welding, the corrugated plates need to be stacked manually one by one, with the positive and negative sides interlaced. The stacking efficiency is low, the labor intensity is high, and the edges of the corrugated plates are sharp, which can easily cause harm to the operators.

[0006] 2. When welding the corrugated plate, the existing welding machine has a single welding station. After the single set of electrodes of the welding machine is pressed down, it can only randomly weld several contact points of the entire corrugated plate in a large area at one time, and cannot involve specific positioned welding points, which can easily cause local desoldering of the structured filler, and the overall welding strength of the structured filler cannot be guaranteed. Summary of the invention

[0007] The technical problem to be solved by the present invention is: to overcome the shortcomings of the prior art and provide a structured packing welding device, which on the one hand improves the efficiency of the positive and negative staggered stacking of corrugated plates and reduces the labor intensity of manual labor; on the other hand, the specific positions of the corrugated plates are welded separately to ensure the overall welding strength of the structured packing.

[0008] The present invention provides a structured filler welding device, comprising: a welding silo is provided on an indexing table, the welding silo can rotate with the indexing table, a positioning welding tower is provided on the indexing table, the movable part of the positioning welding tower can be inserted into the welding silo to weld the workpiece, and a flip module for transferring fillers is provided on the side of the positioning welding tower, and the flip module is placed above the welding silo.

[0009] The flip module comprises: a lifting box connected to the side of the positioning welding tower, the lifting box is connected to the flip box through a lifting component; the flip box is connected to the flip slide plate through a rotating component.

[0010] A telescopic motor is arranged on the side of the flip slide, and the telescopic motor is coaxially connected with a transverse screw. The transverse screw drives the clamping box to move on the flip slide through the transverse slider; a plurality of clamping strips and pressing blocks are arranged inside the clamping box, and the pressing blocks elastically press the clamping strips, and one side of the clamping strip passes through a box plate on one side of the clamping box; a step push rod is rotatably arranged inside the clamping box, and the working surface of the step push rod abuts against one side of the clamping strip. The step push rod can be rotatably driven to drive the clamping strip to move in sequence, and the step push rod is coaxially connected with a clamping motor arranged on the clamping box.

[0011] Furthermore, the lifting assembly includes: a lifting motor arranged inside the lifting box, the lifting motor is coaxially connected with a lifting screw, the lifting screw is provided with a lifting slider matching therewith, and one end of the lifting slider is connected to the side of the flip box.

[0012] The rotating assembly includes: a flip motor arranged inside the flip box, the flip motor is coaxially connected with a rotating shaft, a bearing is sleeved on the rotating shaft, the bearing is clamped on the flip box cover, one end of the rotating shaft is connected to a transfer seat; the transfer seat is fixedly connected to the side of the flip slide.

[0013] A clamping box cover is arranged on one side of the clamping box; a pressing seat is arranged on the inner wall of the clamping box; a movable groove is opened on one side of the box plate of the clamping box; and a clamping strip is passed through the movable groove.

[0014] The pressing block comprises: a pressing plate, on which a seat cover and a fixing block are respectively arranged, and the fixing block is matched and arranged in the pressing seat; a pressing spring is arranged in the seat cover.

[0015] The clamping strip includes: a support plate, a baffle plate is arranged on the side of the support plate, a clamping pile is arranged on the side of the baffle plate, one end of the clamping pile is in contact with the clamping spring; an open ring is protruded on the baffle plate; and a step surface is arranged on the side of the support plate away from the baffle plate.

[0016] A plurality of top blocks are arranged on the step top rod, and the side surfaces of the top blocks abut against the side surfaces of the open ring.

[0017] Furthermore, the transfer table includes: a base, a first conductive ring is clamped on the base, a cover plate is arranged on the base, a driving gear and a gear ring seat that cooperate with each other are rotatably connected on the cover plate, a rotating support frame is clamped on the gear ring seat, a rotating bearing is arranged between the cover plate and the gear ring seat, and a protective cover for shielding the driving gear and the gear ring seat is also arranged on the cover plate; a turntable is arranged on the base, a slide rail is arranged on the turntable, a slider is matched on the slide rail, and a number of expansion grooves are evenly arranged on the turntable; a rotary motor is arranged inside the base, and the driving gear is coaxially connected to the rotary motor; the rotary support frame and the slider are respectively connected to the welding material bin.

[0018] Furthermore, a accommodating chamber is provided inside the base, and a supporting frame is provided inside the accommodating chamber, and the supporting frame provides support for the rotary motor; a first ring groove is provided on the base, and the first conductive ring is clamped in the first ring groove; a boss is provided on the base, and the turntable is placed on the base in conjunction with the boss, and fixed feet are provided around the base.

[0019] An opening is arranged at the rotation center of the cover plate, a clamping groove is arranged on the outer ring of the cover plate along the opening, and the rotary bearing and the gear ring seat are rotatably connected in the clamping groove; a transfer groove is arranged on the gear ring seat.

[0020] The rotary support frame comprises: a rotary cylinder, a clamping block and an extension arm are arranged on the side of the rotary cylinder, an adapter plate is arranged on the extension arm, the adapter plate is connected to the welding silo, and the clamping block is matched and arranged in the adapter groove.

[0021] Furthermore, the welding silo includes: an outer frame, the outer frame is hinged to the back plate through a spring rod, the back plate is arranged in pairs inside the outer frame, and a clamping cylinder is hinged on the outer frame, and the clamping cylinder is connected to the spring rod to drive the back plate to move.

[0022] A positioning motor is arranged at the bottom of the outer frame, and a positioning screw is coaxially connected to the positioning motor, and a positioning nut seat is arranged on the positioning screw; a guide rail is also arranged inside the outer frame, and a guide slider is arranged on the guide rail.

[0023] A lifting platform is arranged inside the outer frame between the support plates, and the side surface of the lifting platform is connected to the positioning nut seat and the guide slider; a welding pillow plate is embedded on the lifting platform; a roller row is arranged on the top of the lifting platform, and the roller row is arranged on both sides of the welding pillow plate, and the bottom surface of the welding pillow plate is slidably connected with a power-leading slider, and a power-leading pile is arranged at the bottom of the outer frame, and the power-leading slider is electrically connected to the power-leading pile through a conductive beam.

[0024] A return pile is arranged on the back of the outer frame, and the clamping cylinder and the positioning motor are electrically connected to the return pile through a line.

[0025] The return pile and the lead-in pile are connected to the return brush and the lead-in brush respectively.

[0026] Furthermore, a discharge port is provided on the outer frame, a back plate is provided on a side of the outer frame away from the discharge port, and a discharge roller module is provided on the bottom of the outer frame near the discharge port.

[0027] The back plate is connected to the adapter plate; the guide slider is connected to the bottom of the outer frame; and the guide brush is slidably connected to the inside of the first conductive ring.

[0028] The discharge roller module comprises a support seat arranged on the outer frame, a transfer block is slidably arranged inside the support seat, a connecting spring is arranged between the support seat and the transfer block, and a discharge roller is rotatably connected to the transfer block.

[0029] The bottoms of the lifting platform and the welding pillow plate are respectively provided with a clearance slide groove and a power-drawing groove; the power-drawing sliding block is slidably connected to the power-drawing groove, and the power-drawing sliding block is inserted into the clearance slide groove.

[0030] A supporting spring is arranged between the bottom of the roller row and the lifting platform.

[0031] Furthermore, the positioning welding tower includes: a support rod connected to the base, a structural frame is arranged on the top of the support rod, a long swing arm and a telescopic cylinder are hinged on the side of the structural frame, a mounting arm and a reinforcement arm are hinged on the long swing arm, the structural frame, the mounting arm and the long swing arm together form a four-bar mechanism, and one end of the telescopic cylinder is hinged to the long swing arm.

[0032] The end of the mounting arm is connected with a pad frame, a pad is arranged under the pad frame, and an expansion slider and a welding contact are arranged on the pad.

[0033] A support seat ring and a pushing platform are arranged at the lower part of the support rod, a second conductive ring is embedded in the support seat ring, and a pushing telescopic cylinder is arranged on the pushing platform; a return brush is slidably connected in the second conductive ring; and the lifting box is fixedly connected to one side of the structural frame.

[0034] Furthermore, the pad rack includes: a bridge plate, a horizontal plate is provided below the bridge plate, an insulating block is provided above the bridge plate, and the insulating block is connected to the lower edge of the mounting arm; a clamping piston is provided below the horizontal plate; and a buffer spring is abutted against the clamping piston.

[0035] Furthermore, the welding pad includes: a plate, a piston seat is provided on the top of the plate, a longitudinal expansion groove and a transverse expansion groove are provided on the bottom of the plate, and an expansion slider is arranged in the longitudinal expansion groove and the transverse expansion groove; a plurality of jacks are evenly arranged on the bottom of the plate.

[0036] The pressing piston and the buffer spring are arranged inside the piston seat.

[0037] One end of the solder contact is connected to the socket.

[0038] Furthermore, the welding contact comprises: a handle, one end of which is connected to the socket, and a rolling body is arranged at the end of the handle; and an elastic pad is arranged on the output end of the push-material telescopic cylinder.

[0039] Compared with the prior art, the present invention has the following beneficial effects:

[0040] The transfer table and welding silo provide multiple welding stations for structured filler. Multiple welding assemblies arranged on the positioning welding tower perform local welding on the structured filler in the welding silo at different stations to ensure the firmness of the filler welds. The flip module can replace manual clamping and flipping of multiple corrugated plates at one time. On the one hand, it improves the operational efficiency of stacking corrugated plates in reverse and forward directions, and on the other hand, it reduces manual labor intensity and improves operational safety. BRIEF DESCRIPTION OF THE DRAWINGS

[0041] Figure 1 It is a schematic diagram of the overall structure of a structured packing welding device of the present invention;

[0042] Figure 2 It is a schematic diagram of the disassembled structure of a structured packing welding device of the present invention;

[0043] Figure 3 It is a schematic diagram of the split structure of a transfer table of a structured packing welding device of the present invention;

[0044] Figure 4 yes Figure 3 A schematic diagram of the local enlarged structure at point A in the middle;

[0045] Figure 5 yes Figure 3 A schematic diagram of the local enlarged structure at B in the middle;

[0046] Figure 6 It is a schematic diagram of the split structure of a welding silo of a structured packing welding device of the present invention;

[0047] Figure 7 It is a schematic diagram of the structure of a welding silo of a structured packing welding device of the present invention;

[0048] Figure 8 yes Figure 6 A schematic diagram of the local enlarged structure at C in the middle;

[0049] Fig. 9 yes Figure 6 A schematic diagram of the local enlarged structure at D in the middle;

[0050] Fig.10 It is a schematic diagram of the sub-structure of a flip module of a structured packing welding device of the present invention;

[0051] Fig.11 It is a schematic diagram of the structure of a flip module part of a structured packing welding device of the present invention;

[0052] Fig.12 It is a schematic diagram of the structure of a clamping strip of a structured packing welding device of the present invention;

[0053] Fig.13 It is a schematic diagram of the longitudinal cross-sectional structure of a flip module of a structured packing welding device of the present invention;

[0054] Fig.14 It is a schematic diagram of the structure of a positioning welding tower of a structured packing welding device of the present invention;

[0055] Fig.15 yes Fig.14 A schematic diagram of the local enlarged structure at E in the middle;

[0056] Fig.16 yes Fig.14 A schematic diagram of the local enlarged structure at F in the middle;

[0057] Fig.17 The present invention is a schematic diagram of a pad structure of a structured filler welding device.

[0058] In the figure:

[0059] 1. indexing platform; 101. base; 1011. storage compartment; 1012. support frame; 1013. first annular groove; 1014. boss; 1015. fixed foot;

[0060] 102, first conductive ring; 103, cover plate; 1031, slot; 1032, opening;

[0061] 104, slewing bearing; 105, driving gear;

[0062] 106, gear ring seat; 1061, adapter groove;

[0063] 107, rotary support frame; 1071, rotary drum; 1072, clamping block; 1073, extension arm; 1074, adapter plate;

[0064] 108, protective cover; 109, turntable; 110, slide rail; 111, slider; 112, expansion slot; 113, rotary motor;

[0065] 2. Welding silo; 201. External frame; 2011. Discharge port; 2012. Back plate

[0066] 202, support plate; 203, spring rod; 204, clamping cylinder; 205, positioning screw; 206, positioning nut seat; 207, positioning motor; 208, return pile; 209, lead pile; 210, conductive beam; 211, guide slider; 212, guide rail;

[0067] 213, discharge roller module; 2131, discharge roller; 2132, support seat; 2133, connecting spring; 2134, adapter block;

[0068] 214, lifting platform; 2141, yield chute;

[0069] 215, welding pillow plate; 2151, lead-in slot;

[0070] 216, roller row; 2161, support spring;

[0071] 217, return brush; 218, lead brush; 219, lead slider;

[0072] 3. Flip module; 301. Lifting box; 302. Lifting slider; 303. Lifting screw; 304. Lifting motor; 305. Flip box; 306. Flip motor; 307. Rotating shaft; 308. Bearing; 309. Flip box cover; 310. Adapter; 311. Telescopic motor; 312. Transverse screw; 313. Flip slide; 314. Clamping motor;

[0073] 315, clamping box; 3151, movable groove; 3152, pressing seat;

[0074] 316, pressing block; 3161, seat cover; 3162, fixing block; 3163, pressing plate; 3164, pressing spring;

[0075] 317, clamping strip; 3171, support plate; 3172, open ring; 3173, baffle; 3174, clamping pile; 3175, step surface;

[0076] 318, step top rod; 3181, top block

[0077] 319, clamping the box cover; 320, traverse the slider;

[0078] 4. Positioning welding tower; 401. Support rod; 402. Structural frame; 403. Mounting arm; 404. Strengthening arm; 405. Long swing arm; 406. Telescopic cylinder;

[0079] 407, welding plate frame; 4071, horizontal plate; 4072, bridge plate; 4073, insulating block; 4074, pressing piston; 4075, buffer spring;

[0080] 408, welding pad; 4081, plate; 4082, piston seat; 4083, longitudinal expansion groove; 4084, transverse expansion groove; 4085, jack;

[0081] 409. Expand slider;

[0082] 410, welding contact; 4101, handle; 4102, rolling element;

[0083] 411, support seat ring; 412, second conductive ring; 413, material pushing platform; 414, material pushing telescopic cylinder; 415, elastic pad;

[0084] 5. Structured packing; 501. Corrugated plate. DETAILED DESCRIPTION

[0085] like Figure 1-Figure 17As shown, this embodiment is implemented through the following technical solutions: a welding silo 2 is provided on the indexing table 1, and the welding silo 2 can rotate with the indexing table 1, a positioning welding tower 4 is provided on the indexing table 1, and the movable part of the positioning welding tower 4 can be inserted into the welding silo 2 to weld the filler, and a flip module 3 for transferring the filler is provided on the side of the positioning welding tower 4, and the flip module 3 is placed above the welding silo 2.

[0086] The flip module 3 includes: a lifting box 301 connected to the side of the positioning welding tower 4, the lifting box 301 is connected to the flip box 305 through a lifting component; the flip box 305 is connected to the flip slide 313 through a rotating component.

[0087] A telescopic motor 311 is arranged on the side of the flip slide 313, and the telescopic motor 311 is coaxially connected with a transverse screw 312. The transverse screw 312 drives the clamping box 315 to move on the flip slide 313 through the transverse slider 320; a plurality of clamping strips 317 and a clamping block 316 are arranged inside the clamping box 315, and the clamping block 316 elastically clamps the clamping strip 317. One side of the clamping strip 317 passes through a box plate on one side of the clamping box 315. A stepped push rod 318 is rotatably arranged inside the clamping box 315, and the working surface of the stepped push rod 318 abuts against one side of the clamping strip 317. The stepped push rod 318 can rotate to drive the clamping strip 317 to move in sequence, and the stepped push rod 318 is coaxially connected with a clamping motor 314 arranged on the clamping box 315.

[0088] In this embodiment, the number of transverse screws 312 is two, and the threads of the two transverse screws 312 have opposite rotation directions. The telescopic motor 311 is a double-axis stepping motor. The telescopic motor 311 drives the two transverse screws 312 to rotate, thereby driving the two clamping boxes 315 to shrink inward or expand outward at the same time, that is, the distance between the two clamping boxes 315 is reduced or increased at the same time; the distance between the clamping boxes 315 is adjusted according to the width size of the corrugated plate of different specifications; after the distance between the clamping boxes 315 is determined, the corrugated plate 501 is clamped by the stepped top rod 318, the clamping strip 317 and its associated components.

[0089] Specifically, the lifting assembly includes: a lifting motor 304 arranged inside the lifting box 301, the lifting motor 304 is coaxially connected with a lifting screw 303, the lifting screw 303 is provided with a lifting slider 302 matching therewith, and one end of the lifting slider 302 is connected to the side of the flip box 305.

[0090] The rotating assembly includes: a flip motor 306 arranged inside the flip box 305, the flip motor 306 is coaxially connected with a rotating shaft 307, a bearing 308 is sleeved on the rotating shaft 307, the bearing 308 is clamped on the flip box cover 309, one end of the rotating shaft 307 is connected to a adapter 310; the adapter 310 is fixedly connected to the side of the flip slide 313.

[0091] A clamping box cover 319 is provided on one side of the clamping box 315 ; a pressing seat 3152 is provided on the inner wall of the clamping box 315 ; a movable groove 3151 is opened on one side of the box plate of the clamping box 315 ; and a clamping strip 317 is inserted into the movable groove 3151 .

[0092] The pressing block 316 includes: a pressing plate 3163 , on which a seat cover 3161 and a fixing block 3162 are respectively provided, and the fixing block 3162 is matched and arranged in the pressing seat 3152 ; a pressing spring 3164 is arranged in the seat cover 3161 .

[0093] The clamping strip 317 includes: a support plate 3171, a baffle plate 3173 is provided on the side of the support plate 3171, a clamping pile 3174 is provided on the side of the baffle plate 3173, one end of the clamping pile 3174 is in contact with the clamping spring 3164; an open ring 3172 is protruding from the baffle plate 3173; and a step surface 3175 is provided on the side of the support plate 3171 away from the baffle plate 3173.

[0094] A plurality of top blocks 3181 are provided on the stepped top rod 318 , and the side surfaces of the top blocks 3181 abut against the side surfaces of the open ring 3172 .

[0095] In this embodiment, four top blocks 3181 are arranged on the step top rod 318, and the number of corresponding clamping strips 317 and movable grooves 3151 is also four. Fig.11 As shown; the top block 3181 is in the shape of a flat block with an irregular outer ring shape, the outer ring surface of the top block 3181 is smooth and continuous, the top block 3181 is staggered on the stepped top rod 318, and the radius from the outer ring surface of the top block 3181 to the rotation center of the stepped top rod 318 changes continuously.

[0096] When the stepped push rod 318 rotates, the outer side surface of the push block 3181 presses against the inner side of the open ring 3172, and the rotation of the push block 3181 drives the clamping strip 317 to move in the movable groove 3151. When the maximum radius of the push block 3181 presses against the open ring 3172, the step surface 3175 of the clamping strip 317 is completely retracted into the movable groove 3151.

[0097] When the abutment between the top block 3181 and the open ring 3172 transitions from the maximum radius of the top block 3181 to the minimum radius, the step surface 3175 of the clamping strip 317 gradually protrudes to the outer side of the movable groove 3151. In this process, there is a state in which only the bottom plane of the step surface 3175 protrudes out of the movable groove 3151. In this state, the step surfaces 3175 at the same horizontal position on the clamping boxes 315 on both sides form cross arms correspondingly, and the corrugated plate 501 is placed on the cross arms of the two step surfaces 3175. At this time, the corrugated plate 501 is placed on the flip module 3. Further, the top block 3181 continues to rotate, and the clamping strip 317 continues to protrude from the movable groove 3151 under the action of the compression spring 3164. The corrugated plate 501 is clamped by the side surfaces of the step surfaces 3175 on both sides. At this time, the corrugated plate 501 is clamped on the flip module 3.

[0098] When the top block 3181 at the minimum radius abuts against the open ring 3172 , the clamping strip 317 reaches the maximum distance protruding from the movable groove 3151 , and at this time, the step surface 3175 completely protrudes from the movable groove 3151 .

[0099] The top blocks 3181 are arranged in an offset manner on the step top rod 318. When the flip module 3 is loaded with the corrugated plate 501, the step top rod 318 rotates forward by a certain angle, and different top blocks 3181 drive the clamping strips 317 at the corresponding positions to shrink into the movable groove 3151 from top to bottom in turn, thereby making room for the corrugated plate 501 placed on the lower layer. The first corrugated plate 501 is placed on the step surface 3175 of the first layer at the bottom, and then the step top rod 318 continues to rotate forward by a certain angle, completing the placement and clamping of the upper corrugated plate 501 in turn; the step top rod 318 stops after rotating at a fixed angle, and the rotating assembly drives the clamping box 315 to flip 180°; at this time, the flip module 3 completes the flipping of the corrugated plate 501.

[0100] After the corrugated plate 501 is turned over, the lifting assembly drives the clamping box 315 downward to approach the welding material bin 2, and then the step top rod 318 rotates in the opposite direction by a certain angle, and the clamping strip 317 on the first layer above before turning over first shrinks into the movable groove 3151, and the corresponding corrugated plate 501 on the first layer above before turning over first falls into the welding material bin 2, and the corrugated plates 501 arranged subsequently fall in turn, and the indexing table 1 drives different welding material bins 2 to rotate to the bottom of the turning module 3, and the turned corrugated plates 501 fall into the corresponding welding material bin 2 in turn. After the corrugated plate 501 is unloaded, the lifting assembly drives the clamping box 315 to move upward, and then the turning module 3 performs the next working cycle.

[0101] In this embodiment, a mechanical arm is used to place the corrugated plate 501 to be turned over onto the turning module 3 .

[0102] Specifically, the indexing table 1 includes: a base 101, a first conductive ring 102 is clamped on the base 101, a cover plate 103 is arranged on the base 101, a driving gear 105 and a gear ring seat 106 that cooperate with each other are rotatably connected on the cover plate 103, a slewing support frame 107 is clamped on the gear ring seat 106, a slewing bearing 104 is arranged between the cover plate 103 and the gear ring seat 106, and a protective cover 108 for shielding the driving gear 105 and the gear ring seat 106 is also arranged on the cover plate 103; a turntable 109 is arranged on the base 101, a slide rail 110 is arranged on the turntable 109, a slider 111 is matched on the slide rail 110, and a plurality of expansion grooves 112 are evenly arranged on the turntable 109; a slewing motor 113 is arranged inside the base 101, and the driving gear 105 is coaxially connected to the slewing motor 113; the slewing support frame 107 and the slider 111 are respectively connected to the welding material bin 2.

[0103] In this embodiment, the expansion slot 112 is used to install necessary detection components, such as a position sensor for positioning the welding silo 2; the rotary motor 113 drives the driving gear 105 and the ring gear seat 106 to rotate, and the ring gear seat 106 drives the rotary support frame 107 to rotate; the rotary support frame 107 drives the welding silo 2 to rotate on the turntable 109.

[0104] Specifically, a accommodating chamber 1011 is provided inside the base 101, and a supporting frame 1012 is provided inside the accommodating chamber 1011, and the supporting frame 1012 provides support for the rotary motor 113; a first annular groove 1013 is provided on the base 101, and the first conductive ring 102 is clamped in the first annular groove 1013; a boss 1014 is provided on the base 101, and the turntable 109 is clamped on the base 101 with the boss 1014, and fixed feet 1015 are provided around the base 101.

[0105] An opening 1032 is provided at the rotation center of the cover plate 103 , and a slot 1031 is provided on the cover plate 103 along the outer ring of the opening 1032 . The slewing bearing 104 and the gear ring seat 106 are rotatably connected to the slot 1031 ; the gear ring seat 106 is provided with a transfer slot 1061 .

[0106] The rotating support frame 107 includes: a rotating cylinder 1071, a clamping block 1072 and an extension arm 1073 are arranged on the side of the rotating cylinder 1071, an adapter plate 1074 is arranged on the extension arm 1073, the adapter plate 1074 is connected to the welding material bin 2, and the clamping block 1072 is arranged in the adapter groove 1061.

[0107] Specifically, the welding silo 2 includes: an outer frame 201, the outer frame 201 is hinged to the support plate 202 through a spring rod 203, the support plate 202 is arranged in pairs inside the outer frame 201, and a clamping cylinder 204 is also hinged on the outer frame 201, and the clamping cylinder 204 is connected to the spring rod 203 to drive the support plate 202 to move.

[0108] A positioning motor 207 is provided at the bottom of the outer frame 201, and the positioning motor 207 is coaxially connected with a positioning screw 205, and a positioning nut seat 206 is provided on the positioning screw 205; a guide rail 212 is also provided inside the outer frame 201, and a guide slider 211 is provided on the guide rail 212.

[0109] A lifting platform 214 is provided inside the outer frame 201 between the support plates 202, and the side of the lifting platform 214 is connected to the positioning nut seat 206 and the guide slider 211; a welding pillow plate 215 is embedded on the lifting platform 214; a roller row 216 is provided on the top of the lifting platform 214, and the roller row 216 is provided on both sides of the welding pillow plate 215, and the bottom surface of the welding pillow plate 215 is slidably connected with a power-leading slider 219, and a power-leading pile 209 is provided at the bottom of the outer frame 201, and the power-leading slider 219 is electrically connected to the power-leading pile 209 through a conductive beam 210.

[0110] A return pole 208 is provided at the back of the outer frame 201 , and the clamping cylinder 204 and the positioning motor 207 are electrically connected to the return pole 208 through a line.

[0111] The return pole 208 and the lead pole 209 are connected to the return brush 217 and the lead brush 218 respectively.

[0112] In this embodiment, the upper edge of the support plate 202 expands outward, and the upper edges of the support plates 202 on both sides together form a bell mouth that expands outward, such as Figure 6 As shown. The spring rod 203 provides elastic support when the back plate 202 is attached to the side of the structured packing 5, so as to prevent the back plate 202 from rigidly squeezing the structured packing 5; further, a parallelogram mechanism is formed between the back plate 202, the spring rod 203 and the outer frame 201; the clamping cylinder 204 is an electric cylinder, and when the back plate 202 clamps the structured packing 5, the clamping cylinder 204 drives the back plate 202 to move from top to bottom, and the back plate 202 clamps the side of the structured packing 5 and also applies a downward pressure to it, so as to ensure that the bottom of the structured packing 5 is attached to the welding pillow plate 215.

[0113] When the welding silo 2 rotates, the backing plate 202 clamps the structured packing 5 to prevent the structured packing 5 from moving in the welding silo 2 due to the centrifugal force. When the welding silo 2 enters the welding station, the backing plate 202 retracts. A pressure sensor for detecting the clamping force is also provided on the side of the backing plate 202. When the clamping force reaches its trigger value, the clamping cylinder 204 stops extending.

[0114] Specifically, a discharge port 2011 is provided on the outer frame 201 , a back plate 2012 is provided on a side of the outer frame 201 away from the discharge port 2011 , and a discharge roller module 213 is provided on the bottom of the outer frame 201 close to the discharge port 2011 .

[0115] The back plate 2012 is connected to the adapter plate 1074 ; the guide slider 211 is connected to the bottom of the outer frame 201 ; and the guide brush 218 is slidably connected to the inside of the first conductive ring 102 .

[0116] The discharge roller module 213 includes a support seat 2132 arranged on the outer frame 201, an adapter block 2134 is slidably arranged inside the support seat 2132, a connecting spring 2133 is arranged between the support seat 2132 and the adapter block 2134, and a discharge roller 2131 is rotatably connected to the adapter block 2134.

[0117] A clearance groove 2141 and a power-drawing groove 2151 are respectively provided at the bottom of the lifting platform 214 and the welding pillow plate 215 ; the power-drawing slider 219 is slidably connected to the power-drawing groove 2151 , and the power-drawing slider 219 is inserted into the clearance groove 2141 .

[0118] A supporting spring 2161 is provided between the bottom of the roller row 216 and the lifting platform 214 .

[0119] In this embodiment, the roller row 216 is elastically supported at the bottom of the structured packing 5 under the action of the support spring 2161. When the structured packing 5 needs to be unloaded from the welding silo, the structured packing 5 slides off the roller row 216 and escapes from the outer frame 201. Similarly, the unloading roller module 213 provides elastic rolling support for the bottom of the structured packing 5 to be unloaded at the unloading port 2011. When unloading, the structured packing 5 slides off the outer frame 201 in contact with the unloading roller 2131.

[0120] In this embodiment, the first conductive ring 102 supplies power to the welding silo 2 through the power brush 218, the power pile 209 supplies power to the welding pillow plate 215 through the conductive beam 210 and the power slider 219, and supplies power to the clamping cylinder 204 and the positioning motor 207 through the cable. When the welding pillow plate 215 contacts the welding pad 408, a welding current path is formed, and the welding pillow plate 215 and the welding pad 408 form the two poles of the welding; the clamping cylinder 204 and the positioning motor 207 form a current loop through the return pile 208, the return brush 217 and the second conductive ring 412.

[0121] Specifically, the positioning welding tower 4 includes: a support rod 401 connected to the base 101, a structural frame 402 is arranged on the support rod 401, a long swing arm 405 and a telescopic cylinder 406 are hinged on the side of the structural frame 402, a mounting arm 403 and a reinforcement arm 404 are hinged on the long swing arm 405, the structural frame 402, the mounting arm 403 and the long swing arm 405 together form a four-bar mechanism, and one end of the telescopic cylinder 406 is hinged to the long swing arm 405.

[0122] In this embodiment, the structural frame 402, the mounting arm 403 and the long swing arm 405 form a parallelogram mechanism. Fig.14As shown. The movable part of the positioning welding tower 4 is composed of a mounting arm 403, a reinforcing arm 404, a long swing arm 405, a welding pad frame 407 and a welding pad 408. In this embodiment, three groups of movable parts are provided, each group of movable parts corresponds to a different position of the welding structured filler 5, and multiple groups of movable parts cooperate to complete the welding combination of the corrugated plate 501. The welding contacts 410 on different welding pads 408 correspond to different welding point positions; a single welding pad 408 corresponds to a local welding point on the welding corrugated plate 501, so as to avoid the virtual welding caused by large-area welding and ensure the reliability of welding. The welding pads 408 on different workstations connect the corrugated plate 501 into a structured filler 5 through multiple groups of local welding points; during welding, the telescopic cylinder 406 drives the long swing arm 405 and the mounting arm 403 to move downward.

[0123] A soldering pad frame 407 is disposed at the end of the mounting arm 403 , a soldering pad 408 is disposed below the soldering pad frame 407 , and an expansion slider 409 and a soldering contact 410 are disposed on the soldering pad 408 .

[0124] A support seat ring 411 and a pushing platform 413 are provided at the lower part of the support rod 401. A second conductive ring 412 is embedded in the support seat ring 411, and a pushing telescopic cylinder 414 is provided on the pushing platform 413. A return brush 217 is slidably connected in the second conductive ring 412. The lifting box 301 is fixedly connected to one side of the structural frame 402.

[0125] The second conductive ring 412 is electrically connected to an external circuit to form a current loop of the clamping cylinder 204 and the positioning motor 207 .

[0126] Specifically, the pad rack 407 includes: a bridge plate 4072, a horizontal plate 4071 is provided below the bridge plate 4072, an insulating block 4073 is provided above the bridge plate 4072, and the insulating block 4073 is connected to the lower edge of the mounting arm 403; a clamping piston 4074 is provided below the horizontal plate 4071; and a buffer spring 4075 is abutted against the clamping piston 4074.

[0127] Specifically, the pad 408 includes: a plate 4081, a piston seat 4082 is provided on the top of the plate 4081, a longitudinal expansion groove 4083 and a transverse expansion groove 4084 are provided on the bottom of the plate 4081, and an expansion slider 409 is arranged in the longitudinal expansion groove 4083 and the transverse expansion groove 4084; a plurality of jacks 4085 are evenly arranged on the bottom of the plate 4081. A pressing piston 4074 and a buffer spring 4075 are arranged inside the piston seat 4082. One end of the welding contact 410 is connected to the jack 4085.

[0128] Specifically, the welding contact 410 includes: a handle 4101, one end of the handle 4101 is connected to the socket 4085, and a rolling body 4102 is provided at the end of the handle 4101; the rolling body 4102 prevents the welding contact 410 from scratching the structured filler 5 when the welding contact 410 moves; an elastic pad 415 is provided on the output end of the pushing telescopic cylinder 414.

[0129] In this embodiment, the pad rack 407 and the pad 408 are insulated and connected through the insulating block 4073, and the pad 408 and the first conductive ring 102 are electrically connected to the mainframe of the welding machine; the first conductive ring 102 and the pad 408 correspond to different electrodes of the mainframe of the welding machine, respectively. Preferably, the material type of the pad 408, the expansion slider 409 and the welding contact 410 is red copper. The expansion slider 409 can be fixed on the pad 408 by screws, and other pads 408 can be plugged and fixed on the expansion slider 409. Multiple groups of pads 408 are spliced ​​by the expansion slider 409 to meet the requirements of different welding coverage ranges. The type of the push telescopic cylinder 414 is a cylinder. When unloading, the output end of the push telescopic cylinder 414 probes into the outer frame 201 from the back, and the output end of the push telescopic cylinder 414 drives the elastic pad 415 to directly push the structured filler 5 out of the welding silo 2.

[0130] The specific use principle of the present invention is as follows:

[0131] During welding, the welding silo 2 rotates on the transfer table 1 in sequence. After rotating to the loading station, the positive corrugated plate 501 is first sent into the welding silo 2 by a mechanical arm or other transfer mechanism. After a round of corrugated plates 501 are placed, the welding silo 2 stops rotating, and then the mechanical arm adds the positive corrugated plate 501 to the flip module 3. The positive corrugated plate 501 is processed by the flip module 3 to become the reverse corrugated plate 501. Further, the reverse corrugated plate 501 The corrugated plates 501 are placed into the welding bin 2 by the flip module 3, and the positive and reverse corrugated plates 501 are stacked in the welding bin 2; after the stacking is completed, the welding pads 408 of different stations of the positioning welding tower 4 respectively press down multiple points of the welding corrugated plates 501, so that the corrugated plates 501 are welded to form a structured packing 5, and the welded structured packing 5 is removed from the welding bin 2 under the push of the pushing telescopic cylinder 414 and the rolling assistance of the unloading roller module 213 and the roller row 216.

[0132] Of course, the above contents are only preferred embodiments of the present invention and cannot be considered to limit the scope of the embodiments of the present invention. The present invention is not limited to the above examples, and equal changes and improvements made by ordinary technicians in the technical field within the essential scope of the present invention should all fall within the scope of the patent coverage of the present invention.

Claims

1. A structured packing welding device, characterized in that: The invention comprises a transfer table (1), wherein a welding material bin (2) is provided on the transfer table (1), and the welding material bin (2) can rotate with the transfer table (1); a positioning welding tower (4) is provided on the transfer table (1), and the movable part of the positioning welding tower (4) can be inserted into the welding material bin (2) to weld the workpiece; a flip module (3) for transferring filler is provided on the side of the positioning welding tower (4), and the flip module (3) is placed above the welding material bin (2); The turning module (3) comprises: a lifting box (301) connected to the side of the positioning welding tower (4); the lifting box (301) is connected to the turning box (305) via a lifting component; the turning box (305) is connected to the turning slide plate (313) via a rotating component; A telescopic motor (311) is arranged on the side of the flip slide (313), and the telescopic motor (311) is coaxially connected to a transverse screw (312). The transverse screw (312) drives the clamping box (315) to move on the flip slide (313) through a transverse slider (320); a plurality of clamping strips (317) and a pressing block (316) are arranged inside the clamping box (315), and the pressing block (316) elastically presses the clamping strip (317). 7), one side of the clamping strip (317) passes through a box plate on one side of the clamping box (315), and a step push rod (318) is rotatably arranged inside the clamping box (315), and the working surface of the step push rod (318) abuts against one side of the clamping strip (317), and the step push rod (318) can rotate to drive the clamping strip (317) to move in sequence, and the step push rod (318) is coaxially connected to a clamping motor (314) arranged on the clamping box (315).

2. A structured packing welding device according to claim 1, characterized in that: The lifting assembly comprises: a lifting motor (304) arranged inside the lifting box (301); the lifting motor (304) is coaxially connected to a lifting screw (303); a lifting slider (302) matching the lifting screw (303) is provided on the lifting screw (303); one end of the lifting slider (302) is connected to the side of the turning box (305); The rotating assembly comprises: a turning motor (306) arranged inside the turning box (305); the turning motor (306) is coaxially connected to a rotating shaft (307); a bearing (308) is sleeved on the rotating shaft (307); the bearing (308) is clamped on the turning box cover (309); one end of the rotating shaft (307) is connected to an adapter (310); the adapter (310) is fixedly connected to the side of the turning slide plate (313); A clamping box cover (319) is provided on one side of the clamping box (315); a pressing seat (3152) is provided on the inner wall of the clamping box (315); a movable groove (3151) is provided on a box plate on one side of the clamping box (315); and a clamping strip (317) is inserted into the movable groove (3151).

3. A structured packing welding device according to claim 1, characterized in that: The indexing table (1) comprises: a base (101), a first conductive ring (102) being clamped on the base (101), a cover plate (103) being arranged on the base (101), a driving gear (105) and a gear ring seat (106) being rotatably connected to the cover plate (103), a slewing support frame (107) being clamped on the gear ring seat (106), a slewing bearing (104) being arranged between the cover plate (103) and the gear ring seat (106), and a cover plate (103) being arranged on the cover plate (103) for shielding the driving gear (105) and the gear ring seat. (106); a turntable (109) is arranged on the base (101), a slide rail (110) is arranged on the turntable (109), a slider (111) is arranged on the slider (110), and a plurality of expansion grooves (112) are evenly arranged on the turntable (109); a rotary motor (113) is arranged inside the base (101), and a driving gear (105) is coaxially connected to the rotary motor (113); and the rotary support frame (107) and the slider (111) are respectively connected to the welding material bin (2).

4. A structured packing welding device according to claim 3, characterized in that: A receiving chamber (1011) is provided inside the base (101), a support frame (1012) is provided inside the receiving chamber (1011), and the support frame (1012) provides support for the rotary motor (113); a first ring groove (1013) is provided on the base (101), and the first conductive ring (102) is clamped in the first ring groove (1013); a boss (1014) is provided on the base (101), and the rotating disk (109) is clamped on the base (101) in cooperation with the boss (1014), and fixed feet (1015) are provided around the base (101); An opening (1032) is provided at the rotation center of the cover plate (103); a clamping groove (1031) is provided on the outer ring of the cover plate (103) along the opening (1032); and the slewing bearing (104) and the gear ring seat (106) are rotatably connected to the clamping groove (1031); A transfer groove (1061) is provided on the gear ring seat (106); The rotary support frame (107) comprises a rotary cylinder (1071), a clamping block (1072) and an extension arm (1073) are arranged on the side of the rotary cylinder (1071), an adapter plate (1074) is arranged on the extension arm (1073), the adapter plate (1074) is connected to the welding material bin (2), and the clamping block (1072) is arranged in a matching manner in the adapter groove (1061).

5. A structured packing welding device according to claim 4, characterized in that: The welding silo (2) comprises: an outer frame (201), the outer frame (201) is hinged to a backing plate (202) via a spring rod (203), the backing plates (202) are arranged in pairs inside the outer frame (201), and a clamping cylinder (204) is also hinged to the outer frame (201), and the clamping cylinder (204) is connected to the spring rod (203) to drive the backing plate (202) to move; A positioning motor (207) is provided at the bottom of the outer frame (201), the positioning motor (207) is coaxially connected to a positioning screw (205), and a positioning nut seat (206) is provided on the positioning screw (205); a guide rail (212) is also provided inside the outer frame (201), and a guide slider (211) is provided on the guide rail (212); A lifting platform (214) is provided inside the outer frame (201) and is located between the backing plate (202). The side of the lifting platform (214) is connected to the positioning nut seat (206) and the guide slider (211). A welding pillow plate (215) is embedded on the lifting platform (214). A roller row (216) is provided on the upper surface of the lifting platform (214). The roller row (216) is provided on both sides of the welding pillow plate (215). The bottom surface of the welding pillow plate (215) is slidably connected to a power-inducing slider (219). A power-inducing pile (209) is provided at the bottom of the outer frame (201). The power-inducing slider (219) is electrically connected to the power-inducing pile (209) through a conductive beam (210). A return pole (208) is provided on the back of the outer frame (201), and the clamping cylinder (204) and the positioning motor (207) are electrically connected to the return pole (208) via a line; The return pile (208) and the lead-in pile (209) are connected to the return brush (217) and the lead-in brush (218) respectively.

6. A structured packing welding device according to claim 4, characterized in that: A discharge port (2011) is provided on the outer frame (201), a back plate (212) is provided on a side of the outer frame (201) away from the discharge port (2011), and a discharge roller module (213) is provided on the bottom of the outer frame (201) close to the discharge port (2011); The back plate (2012) is connected to the adapter plate (1074); the guide slider (211) is connected to the bottom of the outer frame (201); the guide brush (218) is slidably connected to the inside of the first conductive ring (102); The discharge roller module (213) comprises a support seat (2132) arranged on the outer frame (201); a transfer block (2134) is slidably arranged inside the support seat (2132); a connecting spring (2133) is arranged between the support seat (2132) and the transfer block (2134); and a discharge roller (2131) is rotatably connected to the transfer block (2134); The bottoms of the lifting platform (214) and the welding pillow plate (215) are respectively provided with a clearance slide groove (2141) and a power guide groove (2151); the power guide slider (219) is slidably connected to the power guide groove (2151), and the power guide slider (219) is inserted into the clearance slide groove (2141); A supporting spring (2161) is provided between the bottom of the roller row (216) and the lifting platform (214).

7. A structured packing welding device according to claim 5, characterized in that: The positioning welding tower (4) comprises: a support rod (401) connected to a base (101); a structural frame (402) is arranged on the support rod (401); a long swing arm (405) and a telescopic cylinder (406) are hingedly connected to the side of the structural frame (402); a mounting arm (403) and a reinforcing arm (404) are hingedly connected to the long swing arm (405); the structural frame (402), the mounting arm (403) and the long swing arm (405) together form a four-bar mechanism; one end of the telescopic cylinder (406) is hingedly connected to the long swing arm (405); The end of the mounting arm (403) is connected to a pad frame (407), a pad (408) is provided below the pad frame (407), and an expansion slider (409) and a welding contact (410) are provided on the pad (408); A support seat ring (411) and a material pushing platform (413) are provided at the lower part of the support rod (401); a second conductive ring (412) is embedded in the support seat ring (411); a material pushing telescopic cylinder (414) is provided on the material pushing platform (413); a return brush (217) is slidably connected in the second conductive ring (412); and the lifting box (301) is fixedly connected to one side of the structural frame (402).

8. A structured packing welding device according to claim 7, characterized in that: The welding plate frame (407) comprises: a bridge plate (4072), a horizontal plate (4071) is arranged below the bridge plate (4072), an insulating block (4073) is arranged above the bridge plate (4072), and the insulating block (4073) is connected to the lower edge of the mounting arm (403); a clamping piston (4074) is arranged below the horizontal plate (4071); and a buffer spring (4075) is abutted below the clamping piston (4074).

9. A structured packing welding device according to claim 8, characterized in that: The welding contact (410) comprises: a handle (4101), one end of which is connected to a welding pad (408), a rolling body (4102) being arranged at the end of the handle (4101); and an elastic pad (415) being arranged at the output end of a material pushing telescopic cylinder (414).

Citation Information

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