Heating and material guiding assembly beneficial to concentric arrangement

Abstract

The utility model discloses a heating and material guiding assembly beneficial to concentric arrangement, which belongs to the technical field of pipeline material guiding and comprises a constant-temperature heating mechanism, a heat preservation sleeve and a concentric material guiding mechanism. A heat preservation sleeve with a built-in heat preservation electric heating wire is fixedly installed on the left side of the constant-temperature heating mechanism. A concentric material guide mechanism for assisting the conveying pipeline is mounted in the constant-temperature heating mechanism and the heat preservation sleeve; the concentric material guiding mechanism comprises a copper pipe, a micro-vibration concentric material guiding module and an auxiliary clamping assembly; the copper pipe is fixedly mounted in the heat preservation sleeve and the heating bin; a micro-vibration concentric material guiding module used for assisting pipeline transferring is installed in the copper pipe, and an auxiliary clamping assembly used for clamping a pipeline is installed at the left end of the heat preservation sleeve. In this way, after the pipeline smiles in the constant-temperature heating mechanism and is heated and leaves the constant-temperature heating mechanism, the temperature is kept through the heat preservation sleeve, and follow-up pipe bending is facilitated; meanwhile, the outer diameter of the lining ring sleeve is consistent with the inner diameter of the copper pipe, so that the center of the guide spring is consistent with that of the copper pipe all the time.

Description

TECHNICAL FIELD

[0001] The utility model relates to pipeline material guiding technical field, concretely relates to a heating material guiding assembly beneficial to concentric arrangement. BACKGROUND

[0002] In the process of bending the pipeline, the pipeline needs to be heated at a constant temperature according to the set temperature to soften the pipeline; during the heating process of the pipeline, a material guiding structure needs to be arranged to avoid scratching the pipeline while keeping the pipeline moving.

[0003] Currently, when multiple devices heat the pipeline, a support bushing is usually arranged in the heating bin, and the pipeline moves through the support bushing.

[0004] However, the pipeline surface is prone to dust and sundries, which are easy to fall into the support bushing and are difficult to clean, and scratch the moving pipeline; at the same time, for different sizes of the pipeline, it is difficult to ensure that the center of the pipeline is consistent with the center of the bushing when passing through the support bushing, which is not conducive to concentric arrangement.

[0005] Therefore, the utility model designs a heating material guiding assembly beneficial to concentric arrangement to solve the above problems. CONTENT OF THE UTILITY MODEL

[0006] In view of the above shortcomings of the prior art, the utility model provides a heating material guiding assembly beneficial to concentric arrangement.

[0007] To achieve the above purpose, the utility model realizes the following technical scheme:

[0008] A heating material guiding assembly beneficial to concentric arrangement, comprising a constant temperature heating mechanism, a heat preservation sleeve and a concentric material guiding mechanism;

[0009] The left side of the constant temperature heating mechanism is fixedly installed with a heat preservation sleeve with built-in heat preservation electric heating wire; the constant temperature heating mechanism and the heat preservation sleeve are installed with a concentric material guiding mechanism for auxiliary conveying of the pipeline;

[0010] The concentric material guiding mechanism comprises a copper pipe, a micro-vibration concentric material guiding module and an auxiliary clamping assembly, the copper pipe is fixedly installed inside the heat preservation sleeve and the heating bin; the copper pipe is installed with a micro-vibration concentric material guiding module for auxiliary conveying of the pipeline, and the left end of the heat preservation sleeve is installed with an auxiliary clamping assembly for clamping the pipeline.

[0011] Further, the copper pipe is composed of a heating section and a heat preservation section, the heating section is located in the heating bin, and the heat preservation section is located in the heat preservation sleeve.

[0012] Further, the copper pipe is located at the heating section and is uniformly provided with a plurality of heating round holes at equal intervals.

[0013] Further, the microseismic concentric material guiding module comprises a first material guiding sleeve and a material guiding spring, the first material guiding sleeve is fixedly installed at the middle part of the right side of the heating bin, and the first material guiding sleeve is aligned with the end of the copper pipe; the material guiding spring is located in the copper pipe; and the pipeline sequentially passes through the first material guiding sleeve and the middle part of the material guiding spring.

[0014] Further, the microseismic concentric material guiding module further comprises an inner lining ring, and the outer side of the material guiding spring is uniformly and equidistantly fixedly installed with the inner lining ring; and the inner lining ring is located in the copper pipe.

[0015] Further, the outer diameter of the inner lining ring is the same as the inner diameter of the copper pipe.

[0016] Further, the auxiliary clamping assembly comprises a fixed plate, a lower guide sleeve and a clamping module, the fixed plate is fixedly installed at the left end of the heat preservation sleeve, the middle part of the fixed plate is provided with a fixed guide hole, the fixed guide hole is aligned with the material guiding spring, the lower guide sleeve is fixedly installed at the lower side of the fixed plate, and the clamping module is installed on the fixed plate.

[0017] Further, the clamping module comprises an auxiliary clamping air cylinder and an upper guide sleeve, the auxiliary clamping air cylinder is fixedly installed at the upper side of the fixed plate, the output end of the auxiliary clamping air cylinder is fixedly installed with the upper guide sleeve, and the upper guide sleeve and the lower guide sleeve cooperate to clamp the pipeline.

[0018] Compared with the prior art, the utility model has the advantages that: 1. In the constant temperature heating mechanism, hot air passes through the copper pipe to heat the pipeline in the microseismic concentric material guiding module; after the pipeline is heated and leaves the constant temperature heating mechanism, the temperature is maintained through the heat preservation sleeve, which is convenient for subsequent pipe bending;

[0019] 2. The outer diameter of the inner lining ring is the same as the inner diameter of the copper pipe, by replacing the material guiding spring or changing the extension amount of the material guiding spring, the inner diameter of the material guiding spring is changed, so that the inner diameter of the material guiding spring is adapted to pipelines of different sizes; at the same time, the inner lining ring on the outer side of the material guiding spring makes the center of the material guiding spring always consistent with the center of the copper pipe; thus, through the cooperation of the material guiding spring and the inner lining ring, the pipeline is conveniently kept concentric with the copper pipe; and in the process of moving to the left, the pipeline drives the material guiding spring to produce slight vibration, so that the dust on the outer side of the pipeline is cleaned; the dust moves to the outside of the copper pipe through the material guiding spring, the inner lining ring and the heating round hole, and accumulation of dust in the copper pipe is avoided. BRIEF DESCRIPTION OF DRAWINGS

[0020] In order to more clearly illustrate the technical scheme in the embodiments of the present application or the prior art, the drawings needed to be used in the following embodiment or prior art description will be briefly introduced. Obviously, the drawings in the following description are only some embodiments of the present application, and other drawings can be obtained by those skilled in the art without creative labor.

[0021] Figure 1A perspective view of the magnetic levitation pipe bending machine with good pipe bending effect according to the present application Figure 1 ;

[0022] Figure 2 A front view of the magnetic levitation pipe bending machine with good pipe bending effect according to the present application

[0023] Figure 3 A perspective view of the magnetic levitation pipe bending machine with good pipe bending effect according to the present application Figure 2 ;

[0024] Figure 4 A front view of the magnetic levitation pipe bending machine with good pipe bending effect according to the present application

[0025] Figure 5 A schematic view of a feeding mounting plate and its connecting structure

[0026] Figure 6 A schematic view of a mounting rack and its connecting structure

[0027] Figure 7 A schematic view of a rotating disc and its connecting structure

[0028] Figure 8 A schematic view of a fixing plate and its connecting structure

[0029] Figure 9 A schematic view of a mold mounting plate and its connecting structure

[0030] Figure 10 A schematic view of a copper pipe structure

[0031] Figure 11 A schematic view of an inner lining ring and its connecting structure

[0032] Figure 12 A schematic view of a box body and its connecting structure Figure 4

[0033] A schematic view of a box body and its connecting structure Figure 13

[0034] A schematic view of a box body structure Figure 14 The reference signs in the drawings represent respectively

[0035]

[0036] ​1, Pipe feeding assembly; 11, feeding module; 111, feeding mounting plate; 112, rotating plate; 113, pressure wheel; 114, laser sensor; 12, feeding module; 121, mounting frame; 122, adjusting servo motor; 123, bidirectional threaded rod; 125, moving table; 126, first guide rail; 127, synchronous belt; 128, pressure roller; 13, moving module; 131, mounting table; 132, second guide rail; 133, first sliding table; 134, reset air cylinder; 135, pressure sleeve; 14, magnetic suspension material guiding support module; 141, magnetic suspension sleeve; 142, core rod; 143, connecting steel bar; 144, supporting spring; 2, constant temperature heating mechanism; 21, heating bin; 22, heat sending module; 221, driving motor; 222, eddy current impeller; 223, heating wire; 23, flow guide box; 231, flow guide bin; 232, backflow bin; 233, backflow channel; 234, hollow groove; 235, top plate; 236, box body; 24, circulating flow guide module; 241, lower flow guide plate; 242, upper flow guide box; 243, flow guide hole; 244, backflow hole; 245, backflow baffle; 25, temperature sensor; 3, heat preservation sleeve; 4, concentric material guiding mechanism; 41, copper pipe; 411, heating section; 412, heat preservation section; 42, micro-vibration concentric material guiding module; 421, first feeding guide sleeve; 422, material guiding spring; 423, inner lining ring; 43, auxiliary clamping assembly; 431, fixed plate; 433, lower guide sleeve; 434, auxiliary clamping air cylinder; 435, upper guide sleeve; 5, adjustable bending mechanism; 51, rotating module; 511, fixed frame; 512, rotating motor; 513, first gear; 514, second gear; 515, rotating disc; 516, fixed support frame; 52, translation module; 521, second sliding table; 522, third guide rail; 523, moving support frame; 524, electric push cylinder; 53, bending die module; 531, release air cylinder; 532, fourth guide rail; 533, moving plate; 534, upper die; 535, lower die; 536, bending groove; 537, die mounting plate; 54, bending module; 541, linear sliding table; 542, L-shaped mounting plate; 543, bending motor; 544, speed reducer; 545, connecting plate; 546, bending rod; 6, slitting module; 61, cutting air cylinder; 62, cutter; 63, cutting groove; 7, cooling module; 71, cooling pipe; 72, cooling nozzle; 73, eddy current pipe. DETAILED DESCRIPTION

[0037] In order to make the purposes, technical solutions and advantages of the embodiments of the present application clearer, the technical solutions in the embodiments of the present application will be described clearly and completely below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are some but not all of the embodiments of the present application. Based on the embodiments in the present application, all other embodiments obtained by a person of ordinary skill in the art without creative work fall within the protection scope of the present application.

[0038] In the following description, "left", "right", "front", "back", "up", "down" are oriented in the perspective direction of the front view.

[0039] Embodiment one: in some embodiments, referring to the drawings of the specification Figures 1-5 A magnetic suspension pipe bending machine with good pipe bending effect, comprising a pipe feeding assembly 1, a constant temperature heating mechanism 2, a heat preservation sleeve 3, a concentric material guiding mechanism 4, an adjustable bending mechanism 5, a slitting module 6 and a cooling module 7.

[0040] The pipe feeding assembly 1, the constant temperature heating mechanism 2 and the adjustable bending mechanism 5 are sequentially arranged from right to left; the pipe feeding assembly 1 comprises a feeding module 11, a feeding module 12 and a moving module 13, the feeding module 11, the moving module 13 and the feeding module 12 are sequentially arranged from right to left, the moving module 13 is installed on the feeding module 11, and the moving end of the moving module 13 is installed with a magnetic suspension material guiding support module 14 for supporting the bent part of the pipe;

[0041] The heat preservation sleeve 3 with built-in heat preservation electric heating wire is fixedly installed between the left side of the constant temperature heating mechanism 2 and the adjustable bending mechanism 5; the concentric material guiding mechanism 4 for assisting the conveying of the pipe is installed in the constant temperature heating mechanism 2 and the heat preservation sleeve 3; the slitting module 6 for cutting the pipe is installed on the adjustable bending mechanism 5, and the cooling module 7 for accelerating the cooling of the bent pipe is installed on the adjustable bending mechanism 5.

[0042] In this embodiment, when the magnetic levitation pipe bending machine with good bending effect is working normally, the pipe to be processed passes through the feeding module 11, the feeding module 12, and the magnetic levitation guiding support module 14 in sequence, and then passes through the concentric guiding mechanism 4 inside the constant temperature heating mechanism 2 and the insulation sleeve 3, so that the end of the pipe to be processed is located at the adjustable bending mechanism 5. During the bending process, the pipe moves to the left through the cooperation of the feeding module 12 and the adjustable bending mechanism 5. The constant temperature heating mechanism 2 heats the pipe at a constant temperature to facilitate subsequent bending. After the pipe is heated, it passes through the insulation sleeve 3 to reach the bending part. During this process, the concentric guiding mechanism 4 inside the constant temperature heating mechanism 2 and the insulation sleeve 3 assists in the pipe transfer, realizing the guiding of the pipe and avoiding scratches on the pipe during heating and transfer. At the same time, the concentric guiding mechanism 4 cleans the dust on the outside of the pipe. After the pipe passes through the concentric guiding mechanism 4, the adjustable bending mechanism 5 bends the pipe. After bending, the cooling module 7 accelerates the cooling of the pipe, allowing it to quickly set and ensuring bending quality while improving efficiency. Simultaneously, during bending, the magnetic levitation material guide support module 14 on the moving module 13 supports the section of the pipe to be bent, ensuring the pipe remains circular during the bending process and preventing deformation. This guarantees bending quality. After bending, the moving module 13 moves the magnetic levitation material guide support module 14 to the right, detaching it from the bent pipe. The cutting module 6 then cuts the pipe. After cutting, the adjustable bending mechanism 5 and the feeding module 12 continue to transport the pipe to the left. Simultaneously, the moving module 13 resets the magnetic levitation material guide support module 14, allowing it to move back to the bending position with the pipe, maintaining support for the bent section. This enables continuous bending and cutting of the pipe.

[0043] Example 2: In some embodiments, such as Figures 1-7 and Figure 12 As shown, in a preferred embodiment of the present invention, the feeding module 11 includes a feeding mounting plate 111, a guiding assembly, and a laser sensor 114. A set of guiding assemblies is installed on the right side and the middle part of the feeding mounting plate 111, and the guiding assembly includes a rotating plate 112 and a pressure roller 113. The rotating plate 112 is fixedly installed on the feeding mounting plate 111 and is inclined. Pressure rollers 113 are rotatably installed at both ends of the rotating plate 112. A laser sensor 114 for determining the presence of a pipe is fixedly installed on the feeding mounting plate 111 between the two rotating plates 112.

[0044] The feeding module 12 comprises a mounting frame 121, an adjusting servo motor 122, a bidirectional threaded rod 123, a threaded sleeve, a moving table 125, a first guide rail 126, a synchronous belt 127 and a compression roller 128; the adjusting servo motor 122 is fixedly installed on the mounting frame 121, the output end of the adjusting servo motor 122 is fixedly connected with one end of the bidirectional threaded rod 123, and the other end of the bidirectional threaded rod 123 is rotatably installed on the mounting frame 121; the first guide rails 126 are fixedly installed on the mounting frame 121 in a symmetrical manner; the moving table 125 is limitingly and slidably connected with the two first guide rails 126, and two moving tables 125 are arranged; the middle part of the moving table 125 is fixedly installed with the threaded sleeve, and the threaded sleeve is threadedly connected with the two sides of the bidirectional threaded rod 123 respectively; the synchronous belt 127 driven by a motor and a synchronous pulley is installed on the moving table 125; a plurality of compression rollers 128 are rotatably installed on the moving table 125; the compression rollers 128 are drivingly connected with the synchronous belt 127 on the inner side of the synchronous belt 127; a pipeline passes through between the synchronous belts 127 on the two moving tables 125;

[0045] The moving module 13 comprises a mounting table 131, a second guide rail 132, a first sliding table 133, a reset air cylinder 134 and a compression sleeve 135, and the mounting table 131 is fixedly installed on the left side of the feeding mounting plate 111; the second guide rail 132 is fixedly installed on the mounting table 131, the first sliding table 133 is limitingly and slidably installed on the second guide rail 132, the reset air cylinder 134 is fixedly installed on the mounting table 131, and the output end of the reset air cylinder 134 is fixedly connected with the first sliding table 133; the compression sleeve 135 is fixedly installed on the upper side of the first sliding table 133 through screws;

[0046] The magnetic suspension material guiding support module 14 comprises a magnetic suspension sleeve 141, a core rod 142, a connecting steel bar 143 and a supporting spring 144, the magnetic suspension sleeve 141 is fixedly installed on the upper side of the first sliding table 133 through the compression sleeve 135, a pipeline passes through the middle part of the magnetic suspension sleeve 141, the core rod 142 is arranged in the pipeline in the magnetic suspension sleeve 141 and magnetically coupled with the magnetic suspension sleeve 141, the right end of the connecting steel bar 143 is fixedly connected with the core rod 142, and the left end of the connecting steel bar 143 is fixedly installed with the supporting spring 144; the supporting spring 144 is arranged in the pipeline at the adjusting type bending mechanism 5;

[0047] The constant temperature heating mechanism 2 comprises a heating bin 21 and constant temperature heating modules, a plurality of groups of constant temperature heating modules are uniformly and equidistantly arranged in the heating bin 21, the constant temperature heating modules comprise a heat supply module 22, a flow guide box 23, a circulating flow guide module 24 and a temperature sensor 25; the heat supply module 22 for heating is arranged on the lower side of the heating bin 21, the flow guide box 23 is fixedly arranged in the heating bin 21, the circulating flow guide module 24 for guiding the hot air is arranged in the flow guide box 23; the temperature sensor 25 for monitoring the temperature in the heating bin 21 is fixedly arranged on the lower side of the heating bin 21; the right end of the heat preservation sleeve 3 is fixedly connected with the left end of the heating bin 21;

[0048] The concentric material guiding mechanism 4 comprises a copper pipe 41, a micro-vibration concentric material guiding module 42 and an auxiliary clamping assembly 43, the copper pipe 41 is fixedly arranged in the heat preservation sleeve 3 and the heating bin 21; the micro-vibration concentric material guiding module 42 for assisting the pipe conveying is arranged in the copper pipe 41, the auxiliary clamping assembly 43 for clamping the pipe is arranged on the left end of the heat preservation sleeve 3;

[0049] The adjustable bending mechanism 5 comprises a rotating module 51, a translation module 52, a bending die module 53 and a bending module 54, the translation module 52 is arranged on the moving end of the rotating module 51, the bending die module 53 is arranged on the upper side of the moving end of the translation module 52; the bending module 54 for bending the pipe is arranged on the lower side of the moving end of the translation module 52;

[0050] The slitting module 6 comprises a cutting cylinder 61 and a cutting knife 62, the cutting cylinder 61 is fixedly arranged on the upper side of the moving end of the translation module 52, the cutting knife 62 for cutting the pipe is fixedly arranged on the output end of the cutting cylinder 61; the cutting groove 63 is arranged between the bending die module 53 and the translation module 52; the cutting knife 62 is limitedly slid in the cutting groove 63;

[0051] The cooling module 7 comprises a cooling pipe 71, a cooling nozzle 72 and an eddy current pipe 73, the cooling pipe 71 is fixedly arranged on the bending die module 53, the eddy current pipe 73 is fixedly arranged on the rotating module 51, one end of the cooling pipe 71 and the eddy current pipe 73 are communicated through a connecting pipe; the cooling nozzle 72 is fixedly arranged on the other end of the cooling pipe 71; the eddy current pipe 73 is communicated with the cooling pump for conveying the cold air outside through a connecting pipe.

[0052] In the embodiment, the pipe to be processed passes through the magnetic suspension sleeve 141 after passing the pressure roller 113 on the two rotating plates 112 in turn; the pipe is sleeved outside the core rod 142 in the magnetic suspension sleeve 141; the magnetic suspension sleeve 141 and the core rod 142 are coupled by magnetic force; and the end of the magnetic suspension sleeve 141 has a reverse resistance to avoid the core rod 142 from moving out of the magnetic suspension sleeve 141; so that the core rod 142 is kept inside the pipe to be processed and moves with the magnetic suspension sleeve 141; the supporting spring 144 is fixed with the core rod 142 through the connecting steel bar 143, and the supporting spring 144 is located at the end of the pipe to be processed and passes through the micro-vibration concentric material guiding module 42 in the copper pipe 41 and the auxiliary clamping assembly 43 at the left end of the heat preservation sleeve 3 in turn after the pipe to be processed passes through between the two synchronous belts 127;

[0053] The servo motor 122 drives the bidirectional threaded rod 123 to rotate, so as to drive the two moving tables 125 to move through the two threaded sleeves, and the two moving tables 125 move close to or away from each other under the limiting action of the first guide rail 126, so as to drive the two synchronous belts 127 to move close to or away from each other, so that the device is suitable for pipes of various sizes; when conveying the pipe, the synchronous belt 127 drives the pipe to move through friction; after the pipe is clamped by the auxiliary clamping assembly 43, the translation module 52 and the synchronous belt 127 are started at the same time; the pipe is conveyed to the left through the synchronous belt 127, and the pipe is pulled to move through the translation module 52, and then the translation module 52 is reset, so that the pipe area to be bent is located at the bending die module 53; at this time, the supporting spring 144 is located in the pipe at the bending die module 53, so as to support the inner pipe and avoid deformation of the pipe during bending; in the heating bin 21, the temperature in the heating bin 21 is monitored by the temperature sensor 25, the heat supply module 22 is started to make the hot air uniformly dispersed in the heating bin 21 through the cooperation of the flow guide box 23 and the circulating flow guide module 24, so as to heat the pipe in the copper pipe 41 and the micro-vibration concentric material guiding module 42 through the heated air and the copper pipe 41; after the pipe is heated and leaves the heating bin 21, the temperature is kept through the heat preservation sleeve 3, so as to facilitate subsequent pipe bending;

[0054] During pipe bending, the auxiliary clamping component 43 keeps the pipe clamped, preventing it from rotating with the rotating module 51 and ensuring bending accuracy. Then, the rotating module 51 drives the translation module 52 to rotate, which in turn drives the bending die module 53 and bending module 54 on the translation module 52 to rotate, moving them to the required bending angle. Then, the bending module 54 is activated to work with the bending die module 53 to bend the pipe. After the entire bending process, cold air is sprayed onto the bent pipe through the cooling pipe 71, vortex pipe 73, and cooling nozzle 72 to accelerate cooling and shaping. After one bending cycle, the reset cylinder... 134 drives the first slide 133 to move to the right under the limiting action of the second guide rail 132, thereby driving the magnetic levitation sleeve 141 to move to the right through the first slide 133 and the pressure sleeve 135. The magnetic levitation sleeve 141 drives the mandrel 142 to move to the right, thereby driving the support spring 144 to move to the right through the connecting steel bar 143, so that the support spring 144 located at the bending position moves to the right to the bending position. Then this operation is repeated until the bending is completed, so that the support spring 144 moves to the bending position, and the pipe to be bent is clamped by the auxiliary clamping assembly 43. The cutting cylinder 61 is started to drive the cutter 62 to cut the bent pipe.

[0055] Example 3: In some embodiments, such as Figures 1-14 As shown, in a preferred embodiment of the present invention, the heat delivery module 22 includes a drive motor 221, a vortex impeller 222, and a heating wire 223. The drive motor 221 is fixedly installed on the lower side of the heating chamber 21, and the output end of the drive motor 221 passes through the bottom of the heating chamber 21 and is fixedly connected to the vortex impeller 222 inside the heating chamber 21. The heating wire 223 is fixedly installed inside the heating chamber 21.

[0056] The flow guide box 23 includes a top plate 235 and a box body 236. The box body 236 is fixedly installed inside the heating chamber 21. A flow guide chamber 231 is provided at the bottom of the box body 236, and a top plate 235 is fixedly installed at the top of the box body 236. A return chamber 232 is formed between the top of the box body 236 and the top plate 235. Circulation channels 233 for connecting the flow guide chamber 231 and the return chamber 232 are symmetrically arranged on both sides of the box body 236. The return channels 233 are designed to be narrower at the top and wider at the bottom. A hollow groove 234 for accommodating the heating wire 223 is provided in the middle of the box body 236. A vortex impeller 222 is located inside the flow guide chamber 231. The middle of the vortex impeller 222 is aligned with the heating wire 223 located in the hollow groove 234.

[0057] The circulating flow guide module 24 comprises a lower flow guide plate 241, an upper flow guide box 242 and a backflow baffle 245, the lower flow guide plate 241 is symmetrically and fixedly installed in the box body 236; a plurality of upper flow guide boxes 242 are fixedly and uniformly installed in the backflow bin 232 at equal intervals; the lower flow guide plate 241 is arranged in a Z shape, and the upper flow guide box 242 is arranged in a diamond shape; the lower flow guide plate 241 is located on both sides of the vortex impeller 222, and the upper end opening of the upper flow guide box 242 is aligned with the heating wire 223; a plurality of flow guide holes 243 are uniformly and equally arranged on the top plate 235 at equal intervals; the upper end opening of the upper flow guide box 242 is aligned with the flow guide hole 243; a plurality of backflow holes 244 are uniformly and equally arranged on the top plate 235 at equal intervals; the backflow hole 244 is aligned with the backflow bin 232; the backflow baffle 245 is symmetrically and fixedly installed in the backflow bin 232;

[0058] The copper pipe 41 is composed of a heating section 411 and a heat preservation section 412, the heating section 411 is located in the heating bin 21, and the heat preservation section 412 is located in the heat preservation sleeve 3; a plurality of heating round holes are uniformly and equally arranged on the copper pipe 41 at equal intervals;

[0059] The micro-vibration concentric material guiding module 42 comprises a first feeding guide sleeve 421, a material guiding spring 422 and an inner lining ring 423, the first feeding guide sleeve 421 is fixedly installed at the right middle part of the heating bin 21, and the first feeding guide sleeve 421 is aligned with the end of the copper pipe 41; the inner lining ring 423 is fixedly and uniformly installed on the material guiding spring 422 at equal intervals; the outer diameter of the inner lining ring 423 is the same as the inner diameter of the copper pipe 41; the material guiding spring 422 and the inner lining ring 423 are located in the copper pipe 41; the pipeline passes through the first feeding guide sleeve 421 and the middle part of the material guiding spring 422 in sequence;

[0060] The auxiliary clamping assembly 43 comprises a fixed plate 431, a lower guide sleeve 433, an auxiliary clamping cylinder 434 and an upper guide sleeve 435, the fixed plate 431 is fixedly installed at the left end of the heat preservation sleeve 3; a fixed guide hole is arranged in the middle part of the fixed plate 431; the fixed guide hole is aligned with the material guiding spring 422; the lower guide sleeve 433 is fixedly installed on the lower side of the fixed plate 431, the auxiliary clamping cylinder 434 is fixedly installed on the upper side of the fixed plate 431, and the output end of the auxiliary clamping cylinder 434 is fixedly installed with the upper guide sleeve 435; the upper guide sleeve 435 and the lower guide sleeve 433 clamp the pipeline in cooperation;

[0061] The rotating module 51 comprises a fixing frame 511, a rotating motor 512, a first gear 513, a second gear 514, a rotating disc 515 and a fixed support frame 516, the fixing frame 511 is fixedly connected with the middle part of the heat preservation sleeve 3; the rotating motor 512 is fixedly installed on the fixing frame 511, and the output end of the rotating motor 512 is fixedly installed with the first gear 513; the second gear 514 is rotatably installed on the fixing frame 511, and the first gear 513 is in meshing connection with the second gear 514; the second gear 514 is fixedly connected with the rotating disc 515; the fixed support frame 516 is fixedly installed on the left side of the rotating disc 515; the heat preservation sleeve 3 is fixedly installed on the fixing frame 511;

[0062] The translation module 52 comprises a second sliding table 521, a third guide rail 522, a moving support frame 523 and an electric push cylinder 524, the upper sides of the fixed support frame 516 are respectively fixedly installed with the second sliding table 521, the upper and lower sides of the moving support frame 523 are respectively fixedly installed with the third guide rail 522, and the second sliding table 521 is in limiting sliding connection with the third guide rail 522; the electric push cylinder 524 is fixedly installed on the moving support frame 523, and the output end of the electric push cylinder 524 is fixedly connected with the rotating disc 515;

[0063] The bending die module 53 comprises a release air cylinder 531, a fourth guide rail 532, a moving plate 533, an upper die 534, a lower die 535 and a die mounting plate 537, the die mounting plate 537 is fixedly installed on the moving support frame 523; the release air cylinder 531 is fixedly installed on the die mounting plate 537, the die mounting plate 537 is symmetrically fixedly installed with the fourth guide rail 532 on both sides, and the moving plate 533 is in limiting sliding connection with the two fourth guide rails 532; the moving plate 533 is provided with two, and the two output ends of the release air cylinder 531 are respectively fixedly connected with one moving plate 533; the upper die 534 is fixedly installed on the upper moving plate 533, and the lower die 535 is fixedly installed on the lower moving plate 533; the upper die 534 and the lower die 535 form a bending groove 536 for pipe forming between them;

[0064] The bending module 54 comprises a linear sliding table 541, an L-shaped mounting plate 542, a bending motor 543, a speed reducer 544, a connecting plate 545 and a bending rod 546, the linear sliding table 541 is fixedly installed on the lower side of the moving support frame 523; the moving end of the linear sliding table 541 is fixedly installed with the L-shaped mounting plate 542, the L-shaped mounting plate 542 is fixedly installed with the bending motor 543, the power output end of the bending motor 543 is fixedly connected with the power input end of the speed reducer 544, the power output end of the speed reducer 544 is fixedly installed with the connecting plate 545, and the connecting plate 545 is fixedly installed with the bending rod 546; the upper side of the bending rod 546 is provided with a conforming groove matched with the bending groove 536 to jointly bend the pipeline; the second feeding guide sleeve is fixedly installed on the moving support frame 523;

[0065] The mold mounting plate 537 is provided with a through hole, which is aligned with the middle part of the second feeding guide sleeve; the cutting cylinder 61 is fixedly installed on the upper side of the moving end of the moving support frame 523, and the upper die 534 and the mold mounting plate 537 constitute a cutting groove 63.

[0066] The cooling pipe 71 is fixedly installed on the mold mounting plate 537, and the vortex pipe 73 is fixedly installed on the moving support frame 523.

[0067] In the embodiment, after the pipe to be processed passes between the two synchronous belts 127, it passes between the middle part of the guide spring 422 in the copper pipe 41 and the fixed guide hole at the left end of the heat preservation sleeve 3, and between the lower guide sleeve 433 and the lower die 535; the auxiliary clamping cylinder 434 drives the lower die 535 to move vertically, and the pipe is clamped by the cooperation of the lower guide sleeve 433 and the upper guide sleeve 435.

[0068] In the heating bin 21, the temperature in the heating bin 21 is monitored by the temperature sensor 25, the driving motor 221 and the heating wire 223 are started, the heating wire 223 is heated, and the driving motor 221 drives the vortex impeller 222 to rotate; the heat delivery module 22 drives the air in the flow guide bin 231 to move to the middle part of the vortex impeller 222 through the cooperation of the lower flow guide plate 241, and then moves upward from the middle part of the vortex impeller 222, in the process, the heat of the heating wire 223 in the hollow groove 234 is taken away; the heated air flows out from the flow guide hole 243 after being guided by the upper flow guide box 242, and then passes through the heating hole to exchange heat with the pipe, and heats the pipe; then the air flows into the backflow bin 232 through the backflow hole 244, and then returns to the flow guide bin 231 through the backflow baffle 245 and the backflow channel 233, so as to realize the uniform and rapid dispersion of the air flow, make the temperature in the heating bin 21 more balanced, so that the temperature measured by the temperature sensor 25 is basically consistent with the temperature in the copper pipe 41, facilitate temperature control, so as to ensure the temperature balance of the heated pipe, and then improve the processing quality; the pipe heated is preserved by the heat preservation sleeve 3, so that the bend maintains a proper temperature before processing;

[0069] The electric push cylinder 524 and the synchronous belt 127 are started; the pipeline is conveyed to the left through the synchronous belt 127, and meanwhile the electric push cylinder 524 drives the moving support frame 523 to move horizontally under the cooperation of the second sliding table 521 and the third guide rail 522, the moving of the moving support frame 523 drives the fixed plate 431, the lower guide sleeve 433, the auxiliary clamping air cylinder 434 and the upper guide sleeve 435 to move horizontally, so as to jointly drive the pipeline to move to the left under the cooperation of the synchronous belt 127; in this process, the outer diameter of the inner liner sleeve 423 is consistent with the inner diameter of the copper pipe 41, the inner diameter of the guide spring 422 is changed by replacing or changing the extension amount of the guide spring 422, so that the inner diameter of the guide spring 422 is adapted to pipelines of different sizes; meanwhile, the center of the guide spring 422 is always consistent with the center of the copper pipe 41 through the inner liner sleeve 423 outside the guide spring 422; so that the pipeline is kept concentric with the copper pipe 41 through the cooperation of the guide spring 422 and the inner liner sleeve 423; and in the process of moving the pipeline to the left, the guide spring 422 is driven to generate a small amount of vibration, so as to clean the dust outside the pipeline; the dust moves to the outside of the copper pipe 41 through the guide spring 422, the inner liner sleeve 423 and the heating round hole, avoiding the accumulation of dust in the copper pipe 41;

[0070] Then the auxiliary clamping air cylinder 434 drives the lower die 535 to move upwards, so that the moving plate 533 and the lower die 535 no longer clamp the pipeline; the electric push cylinder 524 drives the moving support frame 523 to reset, so that the pipeline to be bent moves to the left side of the upper die 534 and the lower die 535; then the auxiliary clamping air cylinder 434 is started again to clamp the pipeline through the upper guide sleeve 435 and the lower guide sleeve 433; at this time, the supporting spring 144 is located in the pipeline at the bending die module 53, realizing the support of the inner pipeline and avoiding the deformation of the pipeline in the pipe bending process;

[0071] When bending the pipe, the auxiliary clamping air cylinder 434 drives the upper guide sleeve 435 to clamp the pipeline in cooperation with the lower guide sleeve 433, avoiding the rotation of the pipeline with the rotating disc 515, and ensuring the bending precision;

[0072] The rotating motor 512 drives the second gear 514 to rotate through the first gear 513, the second gear 514 drives the rotating disc 515 and the fixed support frame 516 to rotate, so as to drive the moving support frame 523 to rotate through the second sliding table 521 and the third guide rail 522; the upper die 534, the lower die 535 and the bending rod 546 for bending on the moving support frame 523 are moved to the angle of the pipeline to be bent;

[0073] The bending motor 543 drives the connecting plate 545 to rotate through the speed reducer 544, the connecting plate 545 drives the bending rod 546 to rotate, the pipe is bent through the cooperation of the bending rod 546 and the bending groove 536 between the upper die 534 and the lower die 535, and the pipe is bent; in this process, the pipe is supported to avoid deformation through the supporting spring 144; after the whole bending process, the cold air is sprayed on the bent pipe through the cooling pipe 71, the eddy current pipe 73 and the cooling nozzle 72 to accelerate the cooling and setting of the pipe;

[0074] After the setting is completed, the release cylinder 531 drives the two moving plates 533 to move vertically under the guidance of the fourth guide rail 532, so as to drive the upper die 534 and the lower die 535 to move in opposite directions, so that the upper die 534 and the lower die 535 are separated from the pipe which is set and completed, and the bent pipe is moved;

[0075] After the pipe is bent once, the reset cylinder 134 drives the first sliding table 133 to move to the right under the limiting action of the second guide rail 132, so as to drive the magnetic suspension sleeve 141 to move to the right through the first sliding table 133 and the pressing sleeve 135, the magnetic suspension sleeve 141 drives the core rod 142 to move to the right, so as to drive the supporting spring 144 to move to the right through the connecting steel bar 143, so that the supporting spring 144 at the bending position moves to the right to the bending position; repeat the operation until the bending is completed; then the supporting spring 144 is moved to the bending position, the pipe to be bent is clamped through the upper guide sleeve 435 and the lower guide sleeve 433, the cutting cylinder 61 is started to drive the cutter 62 to cut the bent pipe.

[0076] The above embodiments are only used to illustrate the technical solutions of the present application, and not to limit them; although the present application has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that the technical solutions recorded in the foregoing embodiments can be modified, or some technical features can be replaced by equivalent ones; and these modifications or replacements will not make the essence of the corresponding technical solutions deviate from the spirit and scope of the technical solutions of the embodiments of the present application.

Claims

1. A heating and material guiding assembly facilitating concentric arrangement, comprising a constant-temperature heating mechanism (2), a heat preservation sleeve (3) and a concentric material guiding mechanism (4), characterized in that: the left side of the constant-temperature heating mechanism (2) is fixedly provided with the heat preservation sleeve (3) with built-in heat preservation electric heating wire; the constant-temperature heating mechanism (2) and the heat preservation sleeve (3) are internally provided with the concentric material guiding mechanism (4) for assisting the delivery of pipeline; the concentric material guiding mechanism (4) comprises a copper pipe (41), a micro-vibration concentric material guiding module (42) and an auxiliary clamping assembly (43), the copper pipe (41) is fixedly installed inside the heat preservation sleeve (3) and the heating bin (21); the copper pipe (41) is internally provided with the micro-vibration concentric material guiding module (42) for assisting the delivery of pipeline, and the left end of the heat preservation sleeve (3) is provided with the auxiliary clamping assembly (43) for clamping the pipeline.

2. The concentrically arranged heated material guiding assembly of claim 1, wherein, The copper pipe (41) is composed of a heating section (411) and a heat preservation section (412), the heating section (411) is located inside the heating bin (21), and the heat preservation section (412) is located inside the heat preservation sleeve (3).

3. The concentrically arranged heated material guiding assembly of claim 2, wherein, The copper pipe (41) is uniformly provided with a plurality of heating round holes at equal intervals at the heating section (411).

4. The heated material feed assembly facilitating concentric setup of claim 1, wherein, The micro-vibration concentric material guiding module (42) comprises a first feeding guide sleeve (421) and a material guiding spring (422), the first feeding guide sleeve (421) is fixedly installed at the right middle part of the heating bin (21) and is aligned with the end of the copper pipe (41); the material guiding spring (422) is located inside the copper pipe (41); the pipeline passes through the first feeding guide sleeve (421) and the middle part of the material guiding spring (422) in sequence.

5. The concentrically arranged heated material guiding assembly of claim 4, wherein, The micro-vibration concentric material guiding module (42) further comprises an inner lining ring (423), the inner lining ring (423) is fixedly installed at equal intervals and uniformly on the outside of the material guiding spring (422); the inner lining ring (423) is located inside the copper pipe (41).

6. A heated material guiding assembly for facilitating concentric placement according to claim 5, wherein, The outer diameter of the inner lining ring (423) is the same as the inner diameter of the copper pipe (41).

7. The concentrically arranged heated material guiding assembly of claim 1, wherein, The auxiliary clamping assembly (43) comprises a fixed plate (431), a lower guide sleeve (433) and a clamping module, the fixed plate (431) is fixedly installed at the left end of the heat preservation sleeve (3); the middle part of the fixed plate (431) is provided with a fixed guide hole; the fixed guide hole is aligned with the material guiding spring (422); the lower guide sleeve (433) is fixedly installed at the lower side of the fixed plate (431); and the clamping module is installed on the fixed plate (431).

8. The concentrically arranged heated material guiding assembly of claim 7, wherein, The clamping module comprises an auxiliary clamping air cylinder (434) and an upper guide sleeve (435), the auxiliary clamping air cylinder (434) is fixedly installed at the upper side of the fixed plate (431), the output end of the auxiliary clamping air cylinder (434) is fixedly provided with the upper guide sleeve (435), and the upper guide sleeve (435) and the lower guide sleeve (433) cooperate to clamp the pipeline.

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