CN214568921U - Pipe penetrating machine for heat exchanger - Google Patents

Abstract

The utility model relates to the technical field of heat exchanger production, in particular to a heat exchanger tube penetrating machine, which comprises a limiting mechanism, a tube penetrating device, a first transfer mechanism and a second transfer mechanism, wherein the limiting mechanism is provided with a first limiting plane which is used for limiting a fin at a material level on the fin; the pipe penetrating device comprises a pipe pushing mechanism and a pipe penetrating platform; the first transfer mechanism is provided with a limiting clamping groove for clamping the pipe fitting and is used for moving the pipe fitting positioned at the pipe fitting loading position to the pipe pushing mechanism; the second moves and carries the mechanism and is used for moving the assembly body of poling platform to unloading position. The utility model provides a heat exchanger poling machine adopts stop gear to realize the automatic positioning material loading of fin, and first move the automatic positioning material loading that moves the mechanism and realize the pipe fitting, and the second moves the mechanism and realizes automatic unloading to improve the automation level of poling operation, solved the technical problem that current heat exchanger poling machine needs manual material loading and manual unloading.

Description

Pipe penetrating machine for heat exchanger

Technical Field

The utility model belongs to the technical field of the heat exchanger production technique and specifically relates to a heat exchanger poling machine is related to.

Background

The heat exchanger is one of the main devices for transferring heat between two or more fluids with different temperatures, and transferring the heat from the higher fluid to the lower fluid to make the temperature of the fluid reach the index specified by the process so as to meet the requirements of process conditions and improve the energy utilization rate. The method can be mainly applied to the fields of petroleum, chemical industry, metallurgy, electric power, ships, central heating, refrigeration and air conditioning, machinery, food, pharmacy and the like.

The finned heat exchanger is one heat exchange apparatus widely used in gas and liquid heat exchangers, and has fins installed onto U-shaped tubes to strengthen heat transfer.

The existing heat exchanger tube penetrating machine is low in automation degree, workers are required to manually position the U tube and the fins at two ends of the heat exchanger tube penetrating machine respectively, one end of the heat exchanger tube penetrating machine penetrates through the fins to be connected with the U tube through the guide mechanism, one end of the heat exchanger tube penetrating machine drives the U tube to move towards the fins through the driving mechanism, therefore, the U tube is arranged on the fins in a penetrating mode under the matching of the guide mechanism and the driving mechanism, and the tube penetrating operation of the heat exchanger tube penetrating machine is completed. And then, manually blanking by workers, firstly taking the assembled U-shaped tubes and fins out of the tube penetrating machine of the heat exchanger, and then manually feeding the U-shaped tubes and fins of the next batch respectively to perform the next tube penetrating operation.

SUMMERY OF THE UTILITY MODEL

An object of the utility model is to provide a heat exchanger poling machine aims at solving the technical problem that current heat exchanger poling machine needs manual material loading and manual unloading.

In order to achieve the above object, the utility model adopts the following technical scheme: a heat exchanger tube-threading machine comprising:

the rack is provided with a fin feeding position, a pipe fitting feeding position and a pipe fitting discharging position;

the limiting mechanism is arranged beside the material loading position of the fin and is provided with a first limiting plane, and the first limiting plane is used for limiting the fin positioned at the material loading position on the fin;

the pipe penetrating device comprises a pipe pushing mechanism and a pipe penetrating platform which are both arranged on the rack;

the first transfer mechanism is arranged on the rack and is provided with a limiting clamping groove for clamping a pipe fitting, and the first transfer mechanism is used for moving the pipe fitting positioned at the pipe fitting feeding position to the pipe pushing mechanism; and

the second moves and carries the mechanism, install in the frame, be used for with being located the fin of fin material loading level removes extremely the poling platform, and be used for with being located the assembly body of poling platform removes extremely the material level of unloading.

In one embodiment, the limiting mechanism comprises a material blocking part mounted on the rack, the material blocking part is located at the end of the incoming material direction of the fin, and the material blocking part is provided with the first limiting plane.

In one embodiment, the limiting mechanism further comprises a material blocking driving part installed on the rack, and the material blocking driving part is connected with the material blocking part and used for driving the material blocking part to translate along the material feeding direction of the fins.

In one embodiment, the limiting mechanism further comprises a pushing component and a pushing driving component mounted on the rack, the pushing component is provided with a second limiting plane, and the pushing driving component is connected with the pushing component and used for driving the pushing component to move horizontally in a direction perpendicular to the incoming material direction.

In one embodiment, the rack is provided with a material pushing guide groove, the material pushing driving piece is located below the material loading position of the fin, one end of the material pushing piece is connected with the material pushing driving piece, the other end of the material pushing piece extends out of the material pushing guide groove, and the material pushing driving piece drives the material pushing piece to move horizontally along the material pushing guide groove.

In one embodiment, the pipe pushing mechanism comprises a pipe pushing clamp and a pipe pushing driving part, the pipe pushing clamp is provided with a clamping groove used for clamping the end part of the pipe, the pipe pushing driving part is mounted on the rack, and the pipe pushing driving part is connected with the pipe pushing clamp and used for driving the pipe pushing clamp to clamp the pipe and pushing the pipe pushing clamp to move towards the pipe penetrating platform.

In one embodiment, the pipe pushing mechanism further comprises an anti-warping assembly located between the pipe pushing clamp and the pipe penetrating platform, the anti-warping assembly comprises a pipe pressing support, a pipe pressing driving piece and a pipe pressing piece, the pipe pressing support is mounted on the rack, the pipe pressing driving piece is mounted on the pipe pressing support, and the pipe pressing driving piece is connected with the pipe pressing piece and used for driving the pipe pressing piece to lift;

and/or the push pipe mechanism further comprises a push pipe mounting seat, a first connecting rod, a first spring and a reciprocating motion driving assembly, the push pipe mounting seat is connected with the push pipe driving piece, the reciprocating motion driving assembly is mounted on the push pipe mounting seat, one end of the first connecting rod is connected with the reciprocating motion driving assembly, the other end of the first connecting rod is movably sleeved with the push pipe clamp, and the first spring is sleeved on the first connecting rod.

In one embodiment, the pipe penetrating device further comprises a traction mechanism located on one side of the pipe penetrating platform, which is far away from the pipe pushing mechanism, the traction mechanism comprises a traction rod and a traction driving piece, the traction rod can be inserted into the pipe orifice of the pipe fitting, the traction driving piece is installed on the rack, and the traction driving piece is connected with the traction rod and used for driving the traction rod to penetrate through the pipe penetrating platform and then be inserted into the pipe fitting located in the pipe pushing mechanism.

In one embodiment, the traction mechanism further includes a second connecting rod and a second spring, one end of the second connecting rod is connected with the traction driving member, the other end of the second connecting rod is movably sleeved with the traction rod, and the second spring is sleeved on the second connecting rod.

In one embodiment, the heat exchanger tube threading machine further comprises at least one of the following:

the pipe penetrating platform is arranged on the rack in a lifting manner;

the first transfer mechanism comprises a first transfer support, a first lifting driving piece, a first installation seat, a clamping driving assembly and a clamping piece, the first lifting driving piece is installed on the first transfer support, the first lifting driving piece is connected with the first installation seat and used for driving the first installation seat to lift, the bottom of the first installation seat is provided with limiting clamping grooves, the clamping piece and the limiting clamping grooves are in one-to-one correspondence, the clamping piece is movably installed in the limiting clamping grooves, the clamping driving assembly is installed on the first installation seat and connected with the clamping piece so as to drive the clamping piece to move to clamp the pipe fitting fixedly located in the limiting clamping grooves; and

the second moves and carries the mechanism and include that the second moves and carries support, second lift driving piece, second mount pad, first splint, second splint and splint driving piece, second lift driving piece install in the second moves and carries the support, second lift driving piece with the second mount pad is connected, is used for ordering about the second mount pad goes up and down, the splint driving piece install in the second mount pad, the splint driving piece respectively with first splint with the second splint is connected, is used for ordering about first splint with the common centre gripping of second splint or loosen the fin.

The utility model has the advantages that: the utility model provides a heat exchanger poling machine adopts stop gear to realize the automatic positioning material loading of fin, and first move the automatic positioning material loading that moves the mechanism and realize the pipe fitting, and the second moves the mechanism and realizes automatic unloading to improve the automation level of poling operation, solved the technical problem that current heat exchanger poling machine needs manual material loading and manual unloading.

Drawings

In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings required for the embodiments or the prior art descriptions will be briefly introduced below, and it is obvious that the drawings in the following description are only some embodiments of the present invention, and it is obvious for those skilled in the art to obtain other drawings without inventive labor.

Fig. 1 is a schematic layout view of a heat exchanger tube threading machine according to an embodiment of the present invention;

fig. 2 is a top view of a heat exchanger tube threading machine according to an embodiment of the present invention;

fig. 3 is a perspective view of a heat exchanger tube threading machine according to an embodiment of the present invention;

FIG. 4 is an enlarged view taken at A in FIG. 3;

FIG. 5 is an enlarged view of FIG. 3 at B;

FIG. 6 is an enlarged view at C of FIG. 3;

FIG. 7 is an enlarged view taken at D in FIG. 3;

FIG. 8 is an enlarged view at E in FIG. 3;

FIG. 9 is an enlarged view at F in FIG. 3;

FIG. 10 is an enlarged view at G of FIG. 3;

fig. 11 is an installation schematic diagram of a first transfer mechanism in the heat exchanger tube threading machine;

fig. 12 is a front view of a tube threading machine for a heat exchanger according to an embodiment of the present invention;

fig. 13 is a schematic view of the first transfer mechanism with the grippers in an unclamped state;

fig. 14 is a schematic view of the first transfer mechanism with the grippers in a gripping state.

Wherein, in the figures, the respective reference numerals:

10-a fin;

20-a pipe fitting;

30-assembly body;

100-a rack, 110-a fin feeding position, 111-a first station, 112-a second station, 120-a pipe feeding position, 130-a blanking position, 131-a third station, 132-a fourth station, 140-a material pushing guide groove, 150-a first guide rail, 160-a second guide rail and 170-a fence;

200-a limiting mechanism, 210-a material blocking piece, 211-a first limiting plane, 212-an avoidance hole, 220-a material blocking driving piece, 230-a material pushing piece, 231-a second limiting plane and 240-a material pushing driving piece;

310-pipe pushing mechanism, 311-pipe pushing clamp, 312-pipe pushing driving piece, 313-anti-warping component, 3131-pipe pressing bracket, 3132-pipe pushing driving piece, 3133-pipe pressing piece, 3134-lower supporting piece, 314-pipe pushing mounting seat, 315-first connecting rod, 316-first spring, 317-reciprocating driving component, 3171-power source, 3172-rotating shaft, 3173-eccentric wheel, 3174-transmission connecting rod, 320-pipe penetrating platform, 330-pipe penetrating guide rail, 340-guiding mechanism, 341-guiding die, 342-guiding driving piece, 350-clamping mechanism, 351-clamping die, 352-clamping driving piece, 360-traction mechanism, 361-traction rod, 362-traction driving piece, 363-second connecting rod, 364-second spring;

400-a first transfer mechanism, 410-a first transfer bracket, 420-a first mounting seat, 421-a limiting clamp groove, 430-a clamping driving component, 440-a clamping piece, 450-a first lifting driving piece and 460-a bracket driving piece;

500-a second transfer mechanism, 510-a second transfer support, 520-a second lifting driving member, 530-a second mounting seat, 540-a first clamping plate, 550-a second clamping plate, 560-a clamping plate driving member and 570-a fin pressing member;

600-skip car.

Detailed Description

Reference will now be made in detail to embodiments of the present invention, examples of which are illustrated in the accompanying drawings, wherein like reference numerals refer to the same or similar elements or elements having the same or similar function throughout. The embodiments described below with reference to the drawings are exemplary and intended to be used for explaining the present invention, and should not be construed as limiting the present invention.

In the description of the present invention, it is to be understood that the terms "length", "width", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", and the like indicate orientations or positional relationships based on those shown in the drawings, and are merely for convenience of description and simplicity of description, and do not indicate or imply that the device or element being referred to must have a particular orientation, be constructed and operated in a particular orientation, and thus, should not be construed as limiting the present invention.

Furthermore, the terms "first", "second" and "first" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of the present invention, "a plurality" means two or more unless specifically limited otherwise.

In the present invention, unless otherwise expressly stated or limited, the terms "mounted," "connected," and "fixed" are to be construed broadly and may, for example, be fixedly connected, detachably connected, or integrally formed; can be mechanically or electrically connected; either directly or indirectly through intervening media, either internally or in any other relationship. The specific meaning of the above terms in the present invention can be understood according to specific situations by those skilled in the art.

Referring to fig. 1 to fig. 3, a tube threading machine for a heat exchanger includes a frame 100, a limiting mechanism 200, a tube threading device, a first transferring mechanism 400, and a second transferring mechanism 500.

Wherein the frame 100 has a fin loading level 110, a tube loading level 120, and a blanking level 130. The limiting mechanism 200 is installed beside the fin loading position 110 and has a first limiting plane 211, and the first limiting plane 211 is used for limiting the fin 10 located at the fin loading position 110. Therefore, when the worker places the fin 10 at the fin loading position 110, the first limiting plane 211 abuts against the fin 10, so as to limit one side of the fin 10, and the fin 10 is accurately positioned at the fin loading position 110. The tube threading device comprises a tube pushing mechanism 310 and a tube threading platform 320 which are both mounted on the frame 100. The first transfer mechanism 400 is attached to the rack 100 and has a position-restricting clamp groove 421 for clamping the tubular 20. The first transfer mechanism 400 grips the pipe 20 through the position-limiting clamp groove 421, and simultaneously limits the pipe 20 in the position-limiting clamp groove 421, so as to accurately position the position of the pipe 20. The first transfer mechanism 400 is used for moving the pipe 20 located at the pipe loading position 120 to the pipe pushing mechanism 310, so as to automatically load the pipe 20. The second transfer mechanism 500 is mounted on the rack 100, and is configured to move the fin 10 located at the fin loading position 110 to the tube penetrating platform 320, so as to achieve automatic loading of the fin 10. After receiving the pipe 20, the pipe threading mechanism pushes the pipe 20 to move towards the pipe threading platform 320, so that the pipe 20 is threaded on the fin 10 located on the pipe threading platform 320, an assembly body 30 is formed, and the pipe threading operation is automatically completed. The second transfer mechanism 500 is further configured to move the assembly 30 on the pipe penetrating platform 320 to the blanking position 130, so as to achieve automatic blanking.

The utility model provides a pair of heat exchanger poling machine adopts stop gear 200's first spacing plane 211 to realize fin 10's automatic positioning material loading, adopts the first spacing clamp groove 421 that moves mechanism 400 to realize the automatic positioning material loading of pipe fitting 20, adopts the second to move and carries mechanism 500 and realize automatic unloading to improve the automation level of poling operation, solved the technical problem that current heat exchanger poling machine needs manual material loading and manual unloading.

Traditional heat exchanger poling machine, staff are direct to place the material on the poling device to location installation and completion unloading operation on the poling device, thereby at manual material loading, material location and manual unloading in-process, the poling device must stop the operation, leads to work efficiency low. And the utility model provides a heat exchanger poling machine moves mechanism 400 and second through first year and moves and move mechanism 500, realizes automatic feeding, automatic unloading, and the poling device need not to shut down, guarantees that the poling device can be in succession the poling operation.

In some embodiments, referring to fig. 2 and 4, the limiting mechanism 200 includes a material blocking member 210 installed on the frame 100, the material blocking member 210 is located at the end of the incoming direction of the fin 10, and the material blocking member 210 has a first limiting plane 211. The X direction in fig. 2 is the incoming direction of the fin 10. The fin 10 can be manually placed on the fin loading position 110, and the fin 10 is pushed to abut against the first limiting plane 211, so that positioning is realized.

Optionally, the dam 210 is a dam plate or a dam bar.

Wherein, the fin 10 has a fitting hole for the pipe 20 to pass through, before the pipe threading operation, in order to avoid the fin 10 to be scattered, 1 to 3 different pipe fittings 20 are threaded in the fin 10 in advance. When the tube 20 is fed, the tube 20 at the corresponding position is previously lacking, so that in the subsequent tube penetration, interference with the tube 20 previously penetrated in the fin 10 does not occur.

Specifically, referring to fig. 4, the first limiting plane 211 of the material blocking member 210 has an avoiding hole 212, and the avoiding hole 212 can accommodate the pipe 20, so that when the fin 10 is positioned on the fin loading position 110, a small amount of pipe 20 which is pre-penetrated can enter the avoiding hole 212, and it is ensured that the first limiting plane 211 can directly abut against the fin 10 to limit the fin 10, rather than the first limiting plane 211 abutting against the small amount of pipe 20 which is pre-penetrated and protrudes out of the fin 10.

Specifically, referring to fig. 4, the limiting mechanism 200 further includes a material blocking driving member 220 installed on the frame 100, the material blocking driving member 220 is connected to the material blocking member 210, and is used for driving the material blocking member 210 to translate along the material feeding direction of the fins 10, so as to adjust the specific position of the first limiting plane 211, so as to position the fins 10 at different positions, and further meet the processing and positioning requirements of the fins 10 of different specifications.

Specifically, referring to fig. 4, the limiting mechanism 200 further includes a material blocking guide rod, which is slidably mounted on the frame 100 and connected to the material blocking member 210, for guiding the material blocking member 210 to move horizontally along the material feeding direction of the fin 10.

In some embodiments, referring to fig. 5, the limiting mechanism 200 further includes a pushing element 230 and a pushing driving element 240 mounted on the rack 100, the pushing element 230 has a second limiting plane 231, and the pushing driving element 240 is connected to the pushing element 230 for driving the pushing element 230 to translate along a direction perpendicular to the incoming material direction. The second limiting plane 231 of the pushing member 230 abuts against the other side of the fin 10, and in the process of pushing the fin 10 to move, the second limiting plane simultaneously performs a limiting and sorting function on the fin 10.

The fin feeding position 110 comprises a first station 111 and a second station 112, and the first station 111, the second station 112, the tube penetrating platform 320 and the blanking position 130 are sequentially distributed along the processing direction. The Y direction shown in fig. 2 is the machine direction. The pushing member 230 pushes the fin 10 to move from the first station 111 to the second station 112, and the fin 10 is grabbed and placed on the tube penetrating platform 320 by the second transferring mechanism 500 at the second station 112.

Specifically, referring to fig. 5, the rack 100 has a material pushing guide slot 140, the material pushing driving member 240 is located below the fin loading position 110, one end of the material pushing member 230 is connected to the material pushing driving member 240, the other end of the material pushing member 230 extends out of the material pushing guide slot 140, and the material pushing driving member 240 drives the material pushing member 230 to move horizontally along the material pushing guide slot 140. The pusher guide 140 guides the translation of the pusher 230.

Specifically, the pushing member 230 is slidably mounted on the frame 100 by means of a slide rail.

Optionally, pusher 230 is a pusher plate, a pusher bar, or a pusher sheet.

In some embodiments, referring to fig. 2, 3 and 6, the tube pushing mechanism 310 includes a tube pushing clamp 311 and a tube pushing driving member 312, the tube pushing clamp 311 has a clamping slot for clamping an end of the tube 20, the tube pushing driving member 312 is mounted on the frame 100, and the tube pushing driving member 312 is connected to the tube pushing clamp 311 for driving the tube pushing clamp 311 to clamp the tube 20 and for pushing the tube pushing clamp 311 to move toward the tube penetrating platform 320. Thus, the tube pushing fixture 311 clamps and drives the tube 20 to move toward the tube penetrating platform 320, so that the tube 20 penetrates the fin 10 on the tube penetrating platform 320, and the tube penetrating operation is completed.

Specifically, the tube penetrating device further comprises a tube penetrating guide rail 330 mounted on the frame 100, and the tube pushing clamp 311 is slidably mounted on the tube penetrating guide rail 330.

Specifically, referring to fig. 6, the tube pushing mechanism 310 further includes a tube pushing mounting seat 314, a first connecting rod 315, a first spring 316 and a reciprocating driving assembly 317, wherein the tube pushing mounting seat 314 is connected to the tube pushing driving member 312. Specifically, the push tube mount 314 is also slidably mounted to the tube penetrating rail 330. The reciprocating driving component 317 is installed on the push tube installation seat 314, one end of the first connecting rod 315 is connected with the reciprocating driving component 317, the other end of the first connecting rod 315 is movably sleeved with the push tube clamp 311, and the first spring 316 is sleeved on the first connecting rod 315.

The tube pushing driving member 312 drives the tube pushing mounting base 314 and the tube pushing fixture 311 to move horizontally towards the tube penetrating platform 320, and meanwhile, the reciprocating driving assembly 317 drives the tube pushing fixture 311 to reciprocate synchronously through the first connecting rod 315, so that the tube 20 clamped by the tube pushing fixture 311 moves forward in a reciprocating pulse manner when penetrating through the assembly hole of the fin 10. The pulsating type penetration fin 10 can greatly reduce the penetration resistance, disperse the instantaneous load of the push pipe driving piece 312, improve the pipe penetration efficiency by multiple times compared with the manual pipe penetration efficiency, and cannot damage materials.

In addition, the first connecting rod 315 is movably sleeved with the tube pushing clamp 311, and the first spring 316 is sleeved on the first connecting rod 315, so that the tube pushing clamp 311 is elastically connected with the reciprocating motion driving assembly 317, if the tube 20 clamped by the tube pushing clamp 311 is misaligned with the assembling hole of the fin 10 when the tube 20 passes through the tube, the tube 20 collides with the fin 10, the first spring 316 elastically contracts, hard collision between the tube 20 and the fin 10 is avoided, material damage is avoided, and the reject ratio of tube passing operation is reduced. Moreover, the pipe fitting 20 advances in a pulse mode, and the direction can be adjusted in time so as to accurately penetrate into the assembling holes of the fins 10, or a field worker can adjust materials for enough time, and the reject ratio of pipe penetrating operation is reduced.

Specifically, reciprocating drive assembly 317 includes a power source 3171, a rotating shaft 3172, an eccentric 3173, and a drive link 3174. A plurality of eccentric wheels 3173, a plurality of transmission connecting rods 3174, a plurality of pipe pushing clamps 311 and a plurality of pipe fittings 20 are in one-to-one correspondence. The power source 3171 is connected to the rotation shaft 3172 for driving the rotation shaft 3172 to rotate. A plurality of eccentric wheels 3173 are fixedly sleeved on the rotating shaft 3172, one end of the transmission connecting rod 3174 is connected with the eccentric wheels 3173, and the other end of the transmission connecting rod 3174 is connected with the first connecting rod 315.

Optionally, a bearing is provided between the eccentric 3173 and the drive link 3174 to facilitate reducing frictional resistance.

Specifically, at least two eccentric wheels 3173 are disposed in a staggered manner along the circumferential direction of the rotating shaft 3172, so that the reciprocating motions of at least two push rod clamps are not synchronized, and the load of the power source 3171 is reduced.

Specifically, referring to fig. 7, tube pushing mechanism 310 further includes an anti-warping assembly 313 located between tube pushing fixture 311 and tube penetrating platform 320, where anti-warping assembly 313 includes a pressure tube support 3131, a pressure tube driving element 3132, and a pressure tube 3133, pressure tube support 3131 is mounted on frame 100, pressure tube driving element 3132 is mounted on pressure tube support 3131, and pressure tube driving element 3132 is connected to pressure tube 3133 for driving pressure tube 3133 to move up and down.

After the pipe 20 is moved from the pipe loading position 120 to the pipe pushing mechanism 310 by the first transferring mechanism 400, the pipe pressing driving element 3132 drives the pipe pressing element 3133 to descend, so as to press the pipe 20 located between the pipe pushing clamp 311 and the pipe penetrating platform 320, so that the pipe pushing clamp 311 accurately clamps and fixes the end of the pipe 20.

Further, referring to fig. 7, the anti-warping assembly 313 further includes a lower supporting member 3134 corresponding to the pressing member 3133. Lower support 3134 is mounted to frame 100, and is located below pressure fitting 3133.

Specifically, referring to fig. 7, the warping prevention assembly 313 further includes a warping prevention guide rod installed on the frame 100, the pressing pipe 3133 is slidably installed on the warping prevention guide rod, and the warping prevention guide rod guides the lifting movement of the pressing pipe 3133.

In some embodiments, referring to fig. 8, the tube penetrating device further comprises a guiding mechanism 340 located between the tube penetrating platform 320 and the tube pushing mechanism 310, wherein the guiding mechanism 340 comprises a guiding mold 341 and a guiding driving member 342 mounted on the frame 100. The guide die 341 includes a lower guide plate installed to the frame 100 and an upper guide plate installed to the guide driving member 342, the upper guide plate having a guide groove facing the lower guide plate, the guide groove allowing the pipe 20 to pass therethrough. The guide actuator 342 drives the upper guide plate downward, thereby closing the upper guide plate. The tube pushing mechanism 310 pushes the tube 20 through the guide slot to more accurately align with the fitting hole of the fin 10 on the tube passing platform 320.

In some embodiments, referring to fig. 9, the pipe penetrating device further includes a traction mechanism 360 located on a side of the pipe penetrating platform 320 away from the pipe pushing mechanism 310, the traction mechanism 360 includes a traction rod 361 and a traction driving member 362, the traction rod 361 is insertable into the pipe opening of the pipe 20, the traction driving member 362 is mounted on the frame 100, and the traction driving member 362 is connected to the traction rod 361 for driving the traction rod 361 to penetrate through the pipe penetrating platform 320 and then to be inserted into the pipe 20 located in the pipe pushing mechanism 310.

The draw bar 361 has a smaller diameter than the pipe of the pipe 20, and can freely enter or exit the fitting hole of the fin 10 and the pipe of the pipe 20. After the traction driving member 362 drives the traction rod 361 to pass through the fin 10 of the pipe penetrating platform 320, the front end of the traction rod 361 is inserted and fixed in the pipe orifice of the pipe 20, then the traction driving member 362 drives the traction rod 361 to retreat, the pipe pushing mechanism 310 drives the pipe 20 to advance, and the traction rod 361 pulls the pipe 20 to penetrate through the assembly hole of the fin 10. After the pipe 20 is completely inserted into the fitting hole of the fin 10, the traction driving member 362 drives the traction rod 361 to move backward, so that the front end of the traction rod 361 pulls out the pipe opening of the pipe 20, and the traction rod 362 is separated from the pipe 20.

Specifically, referring to fig. 9, the traction mechanism 360 further includes a second link 363 and a second spring 364, one end of the second link 363 is connected to the traction driving member 362, the other end of the second link 363 is movably sleeved to the traction rod 361, and the second spring 364 is sleeved to the second link 363. Therefore, the traction driving part 362 is elastically connected with the traction rod 361, if the traction rod 361 collides with the fin 10 when the traction rod 361 is misaligned with the assembling hole of the fin 10, the second spring 364 elastically contracts, so that hard collision between the traction rod 361 and the fin 10 is avoided, material damage is avoided, and the defective rate of pipe penetrating operation is reduced.

Specifically, referring to fig. 8, the tube penetrating device further comprises a clamping mechanism 350 located between the tube penetrating platform 320 and the guiding mechanism 340, wherein the clamping mechanism 350 comprises a clamping die 351 and a clamping driving member 352 mounted on the frame 100. Clamp drive 352 is coupled to clamp die 351 for actuating clamp die 351 to clamp or unclamp tubular 20. Thus, before the pulling rod 361 is inserted into and fixed to the pipe 20, the clamping driving element 352 drives the clamping die 351 to clamp the pipe 20, so as to prevent the pulling rod 361 from shaking when being inserted into and fixed to the pipe 20. After the pulling rod 361 is inserted and fixed to the pipe orifice of the pipe 20, the clamping driving element 352 drives the clamping die 351 to release the pipe 20, so that the pipe 20 can be driven by the pipe pushing mechanism 310 and pulled by the pulling rod 361 to penetrate the fin 10 on the pipe penetrating platform 320.

Specifically, the clamping die 351 includes an upper die and a lower die, the bottom wall of the upper die has a first half clamping hole, the top wall of the lower die has a second half clamping hole corresponding to the first half clamping hole, the upper die and the lower die are closed, the first half clamping hole and the second half clamping hole together form a clamping hole, and the clamping hole can clamp the pipe 20, so that the traction rod 361 can be stably inserted into the pipe orifice of the pipe 20.

In some embodiments, the pipelaying platform 320 is elevationally mounted to the holster 100. When the fin 10 needs to assemble two rows or even multiple rows of tubes 20, after the first layer of tubes 20 of the fin 10 is assembled, the tube penetrating platform 320 is lifted, and then the fin 10 can continue to assemble the second layer of tubes 20 on the tube penetrating platform 320, and so on. Therefore, the tube penetrating platform 320 can be arranged in a lifting manner, so that the assembly requirements of different fins 10 can be met conveniently.

In some embodiments, referring to fig. 11, the first transfer mechanism 400 includes a first transfer support 410, a first lifting driving member 450, a first installation seat 420, a clamping driving assembly 430 and a clamping member 440, wherein the first lifting driving member 450 is installed on the first transfer support 410, the first lifting driving member 450 is connected to the first installation seat 420 for driving the first installation seat 420 to lift, a bottom position-limiting clamping groove 421 of the first installation seat 420, the clamping member 440 corresponds to the position-limiting clamping groove 421 one by one, the clamping member 440 is movably installed in the position-limiting clamping groove 421, the clamping driving assembly 430 is installed on the first installation seat 420, and the clamping driving assembly 430 is connected to the clamping member 440 for driving the clamping member 440 to clamp and fix the pipe 20 located in the position-limiting clamping groove 421.

Specifically, referring to fig. 11, the first transferring mechanism 400 further includes a rack driving member 460, and the rack driving member 460 is used for driving the first transferring rack 410 to move. For example, the first transfer rack 410 is slidably mounted on the first rail 150, and the rack driving member 460 is used to drive the first transfer rack 410 to slide on the first rail 150.

First, the first lifting driving member drives the first mounting seat 420 to descend, so that the position-limiting clamp groove 421 at the bottom of the first mounting seat 420 is installed in the pipe 20. Secondly, centre gripping drive assembly 430 orders about holder 440 at spacing double-layered inslot 421 activity to holder 440 can move about to contradicting and the fixed pipe fitting that is located spacing double-layered inslot 421 of centre gripping, realizes the centre gripping of pipe fitting. Third, the first lifting driving member drives the first mounting seat 420 to ascend, so as to transport the pipe 20. Fourthly, the first transfer mechanism 400 reaches the pipe pushing mechanism 310, the first mounting seat 420 descends, the clamping member 440 moves to release the pipe 20, and the release of the pipe 20 is completed.

In this embodiment, referring to fig. 13 and 14, the clamping member 440 rotatably penetrates the first mounting seat 420, and during the rotation of the clamping member 440, the distance between the clamping member 440 and the groove wall of the position-limiting groove 421 changes. When the distance between the clamping member 440 and the groove wall of the spacing clamp groove 421 is gradually reduced, the clamping of the pipe 20 can be realized. When the distance between the clamping member 440 and the groove wall of the spacing clamp groove 421 is gradually increased, the pipe 20 can be released.

Referring to fig. 12, the first transfer rack 100 is movably mounted on the rack 100. Specifically, the rack 100 has a first rail 150, and the first transfer rack 100 is slidably mounted on the first rail 150.

In some embodiments, referring to fig. 10, the second transfer mechanism 500 includes a second transfer support 510, a second lifting/lowering driving member 520, a second mounting seat 530, a first clamping plate 540, a second clamping plate 550, and a clamping plate driving member 560, the second lifting/lowering driving member 520 is mounted on the second transfer support 510, the second lifting/lowering driving member 520 is connected to the second mounting seat 530 for driving the second mounting seat 530 to move up and down, the clamping plate driving member 560 is mounted on the second mounting seat 530, and the clamping plate driving member 560 is respectively connected to the first clamping plate 540 and the second clamping plate 550 for driving the first clamping plate 540 and the second clamping plate 550 to clamp or unclamp the fin 10 together.

The specific process of the second transfer platform moving the fins 10 from the fin loading position 110 to the tube penetrating platform 320 is as follows:

first, the second lifting/lowering driving unit 520 drives the second mounting seat 530 to descend, and the clamp driving unit 560 drives the first clamp 540 and the second clamp 550 to close, thereby clamping the fin 10 together. Second, the second transfer carriage 510 moves to the tube penetrating platform 320, such that the first clamping plate 540 and the second clamping plate 550 push the fin 10 to the tube penetrating platform 320. Third, the clamp plate drive 560 urges the first clamp plate 540 and the second clamp plate 550 apart, thereby placing the fin 10 onto the tube threading platform 320. Fourth, the second lifting/lowering driving member 520 drives the second mounting base 530 to ascend, and the second transfer rack 510 is reset.

The process of moving the assembly 30 from the tube passing platform 320 to the blanking position 130 by the second transfer mechanism 500 is the same as the process of moving the fins 10 from the fin feeding position 110 to the tube passing platform 320 by the second transfer mechanism 500, and therefore it is not described in detail.

Alternatively, the two second transferring mechanisms 500 are connected by a linkage rod, so that when one of the second transferring mechanisms 500 pushes the fin 10 from the fin loading position 110 to the tube penetrating platform 320, the other second transferring mechanism 500 simultaneously moves the assembly 30 from the tube penetrating platform 320 to the blanking position 130.

The heat exchanger tube penetrating machine further comprises a material pushing mechanism arranged at the blanking position 130. The pusher mechanism is constructed the same as pusher 230. The blanking level 130 includes a third station 131 and a fourth station 132. The second transfer mechanism 500 moves the assembly 30 from the pipe insertion platform 320 to the third station 131. The pushing mechanism pushes the assembly 30 from the third station 131 to the fourth station 132, thereby completing the blanking operation.

Specifically, referring to fig. 10, the second transfer platform further includes a fin pressing member 570 mounted on the second mounting seat 530, and the fin pressing member 570 is configured to press the fin 10 located on the tube penetrating platform 320 to perform top limitation on the fin 10.

Referring to fig. 12, the second transfer rack 100 is movably mounted on the rack 100. Specifically, the rack 100 has a second rail 160, and the second transfer rack 100 is slidably mounted on the second rail 160.

In some embodiments, referring to fig. 2, 3 and 12, the rack 100 further has a rail 170, the rail 170 having an interior forming the tube loading level 120, the rail 170 being open on one side. The skip 600 with tubulars 20 loaded can enter the tubular loading level 120 through the opening. Fence 170 plays limiting role to skip 600 is accurately located at pipe loading level 120, and then first move and carry mechanism 400 can accurately snatch pipe 20.

The power source and the driving structure (driving part or driving assembly) related to the embodiment can be selected from an air cylinder, an oil cylinder or a motor.

The utility model provides a heat exchanger poling machine can be used for accomplishing the automatic poling of domestic air conditioner single row or double pipe fitting 20 and fin, workable multiple specification product. The following combines the utility model provides a specific structure of heat exchanger poling machine further explains heat exchanger poling machine's work flow: the specific working process is as follows:

first, the skip 600 is manually pushed into the fence 170, the skip 600 reaches the pipe loading position 120, and then the first transfer mechanism 400 directly takes the material from the pipe loading position 120 and puts the material into the pipe pushing mechanism 310, so as to realize automatic loading. Then, the tube pushing clamp 311 clamps and fixes the tube 20, and the pressing member 3133 of the anti-tilting assembly 313 presses down the middle portion of the material 3133 to position the tube 20, and the clamping die 351 clamps the front end of the tube 20 to prevent the tube pushing clamp 311 from shaking when contacting the tube 20. After the pipe pushing clamp 311 is completely engaged with the pipe 20, the clamping die 351 and the anti-warp assembly 313 release the pipe 20.

Secondly, the fin 10 is placed at the fin loading position 110 by a manual or mechanical hand, the fin is positioned by the first limiting plane 211 of the material blocking part 210, then the condenser is pushed from the first station 111 to the second station 112 by the material pushing part 230, the fin 10 is pushed from the second station 112 to the tube penetrating platform 320 by the second transfer mechanism 500, and the tube penetrating platform 320 is lifted and lowered to align the fin 10, the tube 20 located at the tube pushing mechanism 310 and the traction rod 361 located at the traction mechanism 360.

Thirdly, the traction driving member 362 drives the traction rod 361 to pass through the fin 10 and then to be fixed in the pipe opening of the pipe 20, and then the pipe 20 passes through the assembly hole of the fin 10 under the guidance of the guide die 341 and the pushing of the pipe pushing clamp 311, thereby completing the automatic pipe penetration. The traction mechanism 360 and the pipe penetrating mechanism are respectively provided with a servo motor, and the two servo motors are simultaneously operated in the pipe penetrating process. The tube pushing mechanism 310 employs a pulse type tube pushing mechanism, so that the tube 20 is uniformly and elastically fitted into the fitting hole of the fin 10.

Fourthly, the second transfer mechanism 500 moves the assembly 30 on the pipe penetrating platform 320 to the third station 131, and then the pushing mechanism pushes the assembly 30 from the third station 131 to the fourth station 132, thereby completing the automatic blanking.

The above description is only exemplary of the present invention and should not be taken as limiting the scope of the present invention, as any modifications, equivalents, improvements and the like made within the spirit and principles of the present invention are intended to be included within the scope of the present invention.

Claims (10)

1. A heat exchanger poling machine which is characterized in that: the method comprises the following steps:

the rack is provided with a fin feeding position, a pipe fitting feeding position and a pipe fitting discharging position;

the limiting mechanism is arranged beside the material loading position of the fin and is provided with a first limiting plane, and the first limiting plane is used for limiting the fin positioned at the material loading position on the fin;

the pipe penetrating device comprises a pipe pushing mechanism and a pipe penetrating platform which are both arranged on the rack;

the first transfer mechanism is arranged on the rack and is provided with a limiting clamping groove for clamping a pipe fitting, and the first transfer mechanism is used for moving the pipe fitting positioned at the pipe fitting feeding position to the pipe pushing mechanism; and

the second moves and carries the mechanism, install in the frame, be used for with being located the fin of fin material loading level removes extremely the poling platform, and be used for with being located the assembly body of poling platform removes extremely the material level of unloading.

2. The heat exchanger tube threading machine of claim 1, wherein: the limiting mechanism comprises a material blocking part arranged on the rack, the material blocking part is located at the end of the incoming material direction of the fin, and the material blocking part is provided with the first limiting plane.

3. The heat exchanger tube threading machine of claim 2, wherein: stop gear still including install in the fender material driving piece of frame, keep off the material driving piece with keep off the material piece and connect for order about keep off the material piece and follow the supplied materials direction translation of fin.

4. The heat exchanger tube threading machine of claim 2, wherein: the limiting mechanism further comprises a pushing piece and a pushing driving piece arranged on the rack, the pushing piece is provided with a second limiting plane, and the pushing driving piece is connected with the pushing piece and used for driving the pushing piece to move horizontally in the direction perpendicular to the incoming material direction.

5. The heat exchanger tube threading machine of claim 4, wherein: the frame has and pushes away the material guide slot, it is located to push away the material driving piece the below of material level on the fin, push away the one end of material piece with it connects to push away the material driving piece, push away the other end of material piece stretch out in push away the material guide slot, it orders about to push away the material driving piece and follow it pushes away the translation of material guide slot.

6. The heat exchanger tube threading machine of claim 1, wherein: the pipe pushing mechanism comprises a pipe pushing clamp and a pipe pushing driving piece, the pipe pushing clamp is provided with a clamping groove used for clamping the end part of the pipe fitting, the pipe pushing driving piece is installed on the rack, and the pipe pushing driving piece is connected with the pipe pushing clamp and used for driving the pipe pushing clamp to clamp the pipe fitting and pushing the pipe pushing clamp to move towards the pipe penetrating platform.

7. The heat exchanger tube threading machine of claim 6, wherein: the pipe pushing mechanism further comprises an anti-warping assembly located between the pipe pushing clamp and the pipe penetrating platform, the anti-warping assembly comprises a pipe pressing support, a pipe pressing driving piece and a pipe pressing piece, the pipe pressing support is mounted on the rack, the pipe pressing driving piece is mounted on the pipe pressing support, and the pipe pressing driving piece is connected with the pipe pressing piece and used for driving the pipe pressing piece to lift;

and/or the push pipe mechanism further comprises a push pipe mounting seat, a first connecting rod, a first spring and a reciprocating motion driving assembly, the push pipe mounting seat is connected with the push pipe driving piece, the reciprocating motion driving assembly is mounted on the push pipe mounting seat, one end of the first connecting rod is connected with the reciprocating motion driving assembly, the other end of the first connecting rod is movably sleeved with the push pipe clamp, and the first spring is sleeved on the first connecting rod.

8. The heat exchanger tube threading machine of claim 1, wherein: the pipe penetrating device further comprises a traction mechanism located on one side, far away from the pipe pushing mechanism, of the pipe penetrating platform, the traction mechanism comprises a traction rod and a traction driving piece, the traction rod can be inserted into a pipe orifice of the pipe fitting, the traction driving piece is installed on the rack, and the traction driving piece is connected with the traction rod and used for driving the traction rod to penetrate through the pipe penetrating platform and then be inserted into the pipe fitting located on the pipe pushing mechanism.

9. The heat exchanger tube threading machine of claim 8, wherein: the traction mechanism further comprises a second connecting rod and a second spring, one end of the second connecting rod is connected with the traction driving piece, the other end of the second connecting rod is movably sleeved with the traction rod, and the second spring is sleeved on the second connecting rod.

10. The heat exchanger tube threading machine according to any one of claims 1 to 9, characterized in that: the heat exchanger tube penetrating machine further comprises at least one of the following conditions:

the pipe penetrating platform is arranged on the rack in a lifting manner;

the first transfer mechanism comprises a first transfer support, a first lifting driving piece, a first installation seat, a clamping driving assembly and a clamping piece, the first lifting driving piece is installed on the first transfer support, the first lifting driving piece is connected with the first installation seat and used for driving the first installation seat to lift, the bottom of the first installation seat is provided with limiting clamping grooves, the clamping piece and the limiting clamping grooves are in one-to-one correspondence, the clamping piece is movably installed in the limiting clamping grooves, the clamping driving assembly is installed on the first installation seat and connected with the clamping piece so as to drive the clamping piece to move to clamp the pipe fitting fixedly located in the limiting clamping grooves; and

the second moves and carries the mechanism and include that the second moves and carries support, second lift driving piece, second mount pad, first splint, second splint and splint driving piece, second lift driving piece install in the second moves and carries the support, second lift driving piece with the second mount pad is connected, is used for ordering about the second mount pad goes up and down, the splint driving piece install in the second mount pad, the splint driving piece respectively with first splint with the second splint is connected, is used for ordering about first splint with the common centre gripping of second splint or loosen the fin.

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