Multi-station through type flame heat shrinking machine for wind power anchor bolt

Abstract

The application provides a multi-station through type wind power anchor bolt flame heat shrinking machine, which comprises a length and shortness detection device, a pipe penetrating conveying device, a first load moving device, a heat shrinking device, a second load moving device and a discharge conveying device; the length and shortness detection device comprises a first feeding track, a blocking piece and a detection element, wind power anchor bolts are conveyed from the first feeding track to the blocking piece, and the detection element detects the length of the wind power anchor bolts; the first load moving device comprises a first load moving part and a second load moving part, and the second load moving part is used for lifting and conveying the wind power anchor bolts arranged on the second discharge end to the first load moving part; the heat shrinking device comprises a heat shrinking feeding platform, a heat shrinking cavity and a heat shrinking discharge platform; and the second load moving device is used for lifting and conveying the wind power anchor bolts arranged on the heat shrinking discharge platform to the discharge conveying device. The application solves the problems of low detection, carrying and heat shrinking efficiency of the wind power anchor bolts in the sleeving process of the wind power anchor bolts and the heat shrinking sleeves.

Description

Technical Field

[0001] This invention relates to the field of wind power anchor technology, and more specifically, to a multi-station through-type flame heat shrink machine for wind power anchors. Background Technology

[0002] Wind power anchors are used in anchor cages, which consist of upper and lower anchor plates, anchors, and anchor accessories. As a prestressed tension member of the foundation concrete, the wind power anchor also serves to fasten and connect the superstructure, making it a key component.

[0003] In existing technologies, wind turbine anchors have threads at both ends and a smooth rod section in the middle. The anchors are made of metal, and since they are embedded in concrete, they need to be protected against corrosion over a long period of use. Therefore, heat shrink sleeves are generally used for corrosion protection. However, when using heat shrink sleeves for manual installation, the length measurement and handling of the wind turbine anchors, as well as the heating of the heat shrink sleeves, all require manual intervention, resulting in low production efficiency and difficulty in quickly connecting the various processes. Summary of the Invention

[0004] The problem solved by this invention is that the efficiency of wind power anchor bolt detection, handling, and heat shrinking is low in the connection process of wind power anchor bolts and heat shrink sleeves.

[0005] To address the aforementioned problems, this invention provides a multi-station through-type wind turbine anchor flame heat shrinking machine. The multi-station through-type wind turbine anchor flame heat shrinking machine includes: a length detection device, a pipe-feeding conveying device, a first transfer device, a heat shrinking device, a second transfer device, and a discharge conveying device. The length detection device includes: a first feeding track, a blocking member, and a detection element. The first feeding track has a first discharge end, the blocking member is located at the first discharge end, and the detection element is located on one side of the first discharge end. The wind turbine anchor is conveyed from the first feeding track to the blocking member, and the detection element detects the length of the wind turbine anchor. When the length of the wind turbine anchor meets a preset value, it is conveyed to the pipe-feeding device. A conveying device; the pipe conveying device has an operating area and a second discharge end; the first transfer device is at least partially located below the second discharge end, the first transfer device includes: a first transfer part and a second transfer part, the second transfer part is used to lift and transport the wind power anchor bolts set on the second discharge end to the first transfer part; the heat shrinking device includes a heat shrinking feeding platform, a heat shrinking cavity and a heat shrinking discharging platform, the heat shrinking feeding platform and the heat shrinking discharging platform are located on both sides of the heat shrinking cavity, the heat shrinking feeding platform is collinear with the second transfer part; the second transfer device is used to lift and transport the wind power anchor bolts set on the heat shrinking discharging platform to the discharge conveying device.

[0006] The technical effects achieved by adopting this solution are as follows: A length detection device automatically detects the length of wind turbine anchor bolts, thereby selecting anchor bolts that meet the length requirements for transport, resulting in higher detection and selection efficiency; a pipe-feeding and conveying device transports the wind turbine anchor bolts while simultaneously performing manual heat-shrink fitting; a first transfer device enables multi-station automatic handling of the wind turbine anchor bolts, facilitating heat fitting at designated locations; a heat-shrinking device uniformly heats the heat-shrink fitting, achieving waterproofing and corrosion resistance for the wind turbine anchor bolts; and a second transfer device transports the heat-fitted wind turbine anchor bolts out. Therefore, the multi-station through-type wind turbine anchor bolt flame heat shrinking machine achieves efficient detection, handling, and heat fitting of wind turbine anchor bolts.

[0007] Furthermore, the length detection device also includes: a first baffle and a top material assembly; the first baffle is located on one side of the first feeding track, and the detection element is located on the side of the blocking member away from the first baffle; the top material assembly is located on one side of the first discharge end, and the top material assembly is used to lift the wind turbine anchor bolt, so that the wind turbine anchor bolt flips over the blocking member.

[0008] The technical effects achieved by adopting this technical solution are as follows: When feeding wind turbine anchor bolts, the bolts are first fed from the end of the first feeding track away from the blocking component. They slide along the inclined surface at the top of the first feeding track to the blocking component. Since one end of the wind turbine anchor bolt is aligned with the first baffle, the detection element detects the distance between the first baffle and the other end of the wind turbine anchor bolt. The length of the wind turbine anchor bolt can then be calculated based on the distance between the wind turbine anchor bolt and the corresponding first baffle. If the length of the wind turbine anchor bolt meets the preset value, the lifting component can lift the wind turbine anchor bolt and move it to the next work station. Therefore, the detection, screening, and transportation of wind turbine anchor bolts are more convenient.

[0009] Furthermore, the length detection device further includes: a first support leg, which is supported below the first feeding track; the top material assembly includes: a top material block, a top material drive, a first top material guide, and a second top material guide, wherein the first top material guide is connected to the first support leg, the second top material guide is slidably connected to the first top material guide, the top material block is connected to the second top material guide, and the output shaft of the top material drive is used to drive the top material block and the second top material guide to move up and down.

[0010] The technical effects achieved by adopting this technical solution are as follows: the top material drive component is used to drive the top material block to rise and fall, thereby lifting the wind power anchor bolt; the first top material guide component is fixed by the first support leg, thereby providing accurate guidance for the second top material guide component. For example, the first top material guide component is provided with a through hole, and the second top material guide component is a sliding shaft component that slides in the through hole, so that the top material block can also perform stable lifting and lowering actions and avoid tilting.

[0011] Furthermore, the pipe-feeding conveying device includes: a conveying assembly, multiple support assemblies, a connecting baffle, and a clearance baffle; the end of the conveying assembly furthest from the length detection device is the second discharge end; the support assembly is used to support the wind turbine anchor bolt, and the support assembly includes a first support member and a second support member, the first support member and the second support member being disposed on both sides of the conveying assembly, and the midpoints of the first support member and the second support member of the multiple support assemblies forming a center line; the connecting baffle is connected to one side of the conveying assembly; the clearance baffle is located on the same side of the conveying assembly as the connecting baffle, the clearance baffle being located on the side of the connecting baffle closer to the second discharge end, and the distance of the clearance baffle from the center line is greater than the distance of the connecting baffle from the center line.

[0012] The technical effects achieved by adopting this technical solution are as follows: The support assembly supports both ends of the wind turbine anchor bolt through the first and second support members. The conveying assembly drives the support assembly to convey the wind turbine anchor bolt. When the wind turbine anchor bolt is conveyed to the position corresponding to the sleeve baffle, the operator can press the end of the wind turbine anchor bolt onto the sleeve baffle to perform the heat shrink sleeve connection action. At this time, the wind turbine anchor bolt corresponding to the clearance baffle can be pushed towards the clearance baffle, thereby leaving an operating area on the other side of the conveying assembly relative to the clearance baffle. When the operator is in the operating area, the wind turbine anchor bolt corresponding to the sleeve baffle has more length that can be reached by the operator, which facilitates the pushing and connection of the heat shrink sleeve.

[0013] Furthermore, the conveying assembly includes a first conveying assembly housing, a first chain assembly, a second conveying assembly housing, and a second chain assembly; wherein the first conveying assembly housing and the second conveying assembly housing are disposed opposite to each other, the first chain assembly drives within the first conveying assembly housing, and the second chain assembly drives within the second chain assembly; the first chain assembly includes a plurality of first chain links, and the first support member connects to the first chain links; the second chain assembly includes a plurality of second chain links, and the second support member connects to the second chain links.

[0014] The technical effects achieved by adopting this technical solution are as follows: the first chain assembly rotates under the drive of the motor, which enables the linear movement of the first support member; the second chain assembly rotates under the drive of the motor, which enables the linear movement of the second support member; the first support member is easy to install on the first chain link, and the second support member is easy to install on the second chain link, thus facilitating the support assembly to support and transport the wind power anchor bolt.

[0015] Furthermore, the tube conveying device also includes a width adjustment device, which is located at the bottom of the conveying assembly. The width adjustment device includes a width adjustment roller and a width adjustment track. The width adjustment roller is located at the bottom of the first conveying assembly housing and / or at the bottom of the second conveying assembly housing. The width adjustment track is arranged along the width direction of the conveying assembly and cooperates with the width adjustment roller.

[0016] The technical effects achieved by adopting this technical solution are as follows: the width adjustment device can adjust the distance between the first conveying component housing and the second conveying component housing, that is, adjust the distance between the first support member and the second support member, so as to adapt to wind power anchor bolts of different lengths. Therefore, the conveying component can handle wind power anchor bolts more flexibly.

[0017] Furthermore, the first transfer unit includes: a first support platform and a first positioning support, the first positioning support being located at the top of the first support platform; the second transfer unit includes a second support platform and a second positioning support, the second positioning support being located at both ends of the top of the first support platform, the second support platform having a clearance notch on one side facing the first support platform, the clearance notch being used to accommodate the first support platform; the first transfer device further includes: a first lifting assembly, the first lifting assembly being connected to the second support platform; a first moving assembly, the first moving assembly being connected to the first lifting assembly; wherein, when the first support platform is located within the clearance notch, the first positioning support and the second positioning support can be aligned.

[0018] The technical effects achieved by adopting this technical solution are as follows: The first lifting component is used to control the second support platform to lift and lower, thereby lifting the wind turbine anchor bolts to be transported through the second positioning support. At this time, the moving component controls the second support platform to move towards the first support platform. When the clearance gap corresponds to the position of the first support platform, the first lifting component controls the second support platform to descend until the wind turbine anchor bolt is supported by the first positioning support, thus completing the transport. Therefore, this first transfer device realizes the automatic transport of multiple wind turbine anchor bolts, saving time and effort. In the heat fitting process of wind turbine anchor bolts, the insertion and removal of wind turbine anchor bolts are more convenient.

[0019] Furthermore, the first positioning support includes: two support shaft seats and a positioning shaft disposed between the two support shaft seats; wherein, the positioning shaft includes a plurality of positioning wheels, each positioning wheel has a first positioning inclined surface on both sides, and a first positioning groove is formed between adjacent positioning wheels; the heat shrink feeding platform includes: a first heat shrink feeding platform and a second heat shrink feeding platform, the first heat shrink feeding platform and the second heat shrink feeding platform are disposed on both sides of the first transfer part, the first heat shrink feeding platform includes a first feeding support, the second heat shrink feeding platform includes a second feeding support, and the first feeding support, the first positioning support, and the second feeding support are collinear.

[0020] The technical effect achieved by adopting this technical solution is as follows: the positioning shaft can be rotated manually or by motor, at which time the positioning wheel rolls, and the wind power anchor bolt is pushed by the friction between the first positioning inclined surface and the wind power anchor bolt, thereby pushing the wind power anchor bolt from the first positioning support into the heat shrink cavity.

[0021] Furthermore, the heat shrinking device further includes: a housing, a first heating device, a second heating device, a third moving component, and a fourth moving component; the interior of the housing is the heat shrinking cavity; the first heating device and the second heating device are disposed within the heat shrinking cavity, and the first heating device and the second heating device are arranged facing each other, forming a heating channel between the first heating device and the second heating device; the third moving component connects the housing and the first heating device; the fourth moving component connects the housing and the second heating device.

[0022] The technical effects achieved by adopting this technical solution are as follows: After the wind turbine anchor bolt with heat shrink sleeve enters the housing and passes through the heating channel, both sides of the heat shrink sleeve can be uniformly heated by the first and second heating devices to improve the heat shrink effect; the third and fourth moving components can adjust the positions of the first and second heating components, and can heat and fit any part of the wind turbine anchor bolt that extends into the heat shrink cavity, further improving the heating uniformity, achieving effective waterproof and anti-corrosion effects, and improving production efficiency.

[0023] Furthermore, the heat-shrinkable discharge platform includes: a first heat-shrinkable discharge platform and a second heat-shrinkable discharge platform, the first heat-shrinkable discharge platform being provided with a first discharge support, and the second heat-shrinkable discharge platform including a second discharge support; the second transfer device is at least partially located between the first heat-shrinkable discharge platform and the second heat-shrinkable discharge platform, and the second transfer device includes: a third transfer part and a fourth transfer part, the fourth transfer part including a fourth positioning support, the first discharge support, the fourth positioning support, and the second discharge support being collinear; wherein, the third transfer part is used to lift and transport the wind turbine anchor bolts on the first discharge support, the fourth positioning support, and the second discharge support to the discharge conveying device.

[0024] The technical effect achieved by adopting this technical solution is as follows: After the heat fitting is completed, the wind power anchor bolt is supported by the first discharge support, the fourth positioning support and the second discharge support at the same time. At this time, the third transfer part extends into both sides of the fourth transfer part to lift and transport the wind power anchor bolt. Therefore, the first transfer device realizes the automatic transport of multiple wind power anchor bolts, saving time and effort.

[0025] In summary, the above-mentioned technical solutions of this application can have one or more of the following advantages or beneficial effects: i) The length detection device is used to automatically detect the length of wind turbine anchor bolts, thereby screening wind turbine anchor bolts that meet the length requirements for conveying and ejecting them through the top material assembly, thus improving the detection and screening efficiency; ii) The pipe conveying device is used to convey wind turbine anchor bolts, and the wind turbine anchor bolts corresponding to the avoidance baffle can be pushed towards the avoidance baffle, thereby leaving an operating area on the other side of the conveying assembly relative to the avoidance baffle, which is convenient for manual fitting of heat shrink sleeves; iii) The first transfer device is used to realize the automatic multi-station handling of wind turbine anchor bolts, which is convenient for heating and fitting at designated locations; iv) The heat shrinking device is used to uniformly heat the heat shrink sleeve to achieve waterproofing and corrosion protection of the wind turbine anchor bolts; v) The second transfer device is used to transport the heat-fitted wind turbine anchor bolts out; Therefore, the multi-station through-type wind turbine anchor bolt flame heat shrinking machine realizes the efficient detection, handling and heat fitting of wind turbine anchor bolts. Attached Figure Description

[0026] Figure 1 This is a schematic diagram of a multi-station through-type wind power anchor bolt flame heat shrink machine provided in an embodiment of the present invention;

[0027] Figure 2 for Figure 1 Schematic diagram of the medium- and long-range detection device;

[0028] Figure 3 for Figure 2 A structural diagram from another perspective;

[0029] Figure 4 for Figure 3 A magnified view of a portion of region I;

[0030] Figure 5 for Figure 3 A magnified view of a portion of region II;

[0031] Figure 6 for Figure 1 Schematic diagram of the medium- and long-range detection device;

[0032] Figure 7 for Figure 6 A schematic diagram of the structure of the conveyor assembly;

[0033] Figure 8 for Figure 7 A magnified view of a portion of region I;

[0034] Figure 9 for Figure 6 Another structural diagram of the conveyor component;

[0035] Figure 10 for Figure 9 A magnified view of a portion of region II;

[0036] Figure 11 for Figure 6 Schematic diagram of the width adjustment device;

[0037] Figure 12 for Figure 1 A schematic diagram of the structure of the first transfer device in the middle;

[0038] Figure 13 for Figure 12 A structural diagram from another perspective;

[0039] Figure 14 for Figure 13 A schematic diagram showing the connection between the first lifting component and the first moving component;

[0040] Figure 15 for Figure 12 Another structural schematic diagram of the first transfer device in the middle;

[0041] Figure 16 for Figure 1 Schematic diagram of the heat shrink device;

[0042] Figure 17 for Figure 16 A structural diagram from another perspective;

[0043] Figure 18 for Figure 16 Another structural diagram from a different perspective.

[0044] Explanation of reference numerals in the attached figures:

[0045] 10-Multi-station through-type wind power anchor bolt flame heat shrink machine;

[0046] 100 - Length detection device; 110 - First feeding track; 111 - Extension arm; 112 - Extension arm body; 113 - First locking element; 114 - Second locking element; 120 - Blocking element; 121 - Buffer block; 122 - Third locking element; 130 - First baffle; 140 - Detection element; 150 - Top material assembly; 151 - Top material block; 152 - Top material drive element; 152a - Hook; 153 - First top material guide element; 154 - Second top material guide element; 155 - Linkage beam; 161 - First support leg; 162 - Support beam; 163 - First top beam; 164 - Second top beam;

[0047] 200-Pipe conveying device; 210-Conveying assembly; 211-Second discharge end; 212-First conveying assembly housing; 213-First chain assembly; 213a-First chain link; 214-Second conveying assembly housing; 215-Second chain assembly; 215a-Second chain link; 221-First support member; 221a-First roller; 221b-First roller support; 222-Second support member; 222a-Second roller; 222b-Second roller support; 231-Sleeve baffle; 232-Allowing baffle; 233-First guide baffle; 234-Second guide baffle; 240-Width adjustment device; 241-Width adjustment roller; 242-Width adjustment track; 243-Width adjustment drive device; 244-Linkage shaft; 245-Gear and rack structure;

[0048] 300-First transfer device; 310-First support platform; 311-First positioning support; 312-First positioning groove; 313-Support shaft seat; 314-Positioning wheel; 320-Second support platform; 321-Second positioning support; 322-Avoidance notch; 323-Second positioning groove; 330-First lifting assembly; 331-Lifting drive component; 332-Lifting rod; 333-First transmission shaft; 334-Second transmission shaft; 335-Lifting assembly base; 336-Lifting transmission seat; 340-First moving assembly; 341-First guide component; 342-Linear movement assembly;

[0049] 400-Heat shrinking device; 410-House; 411-Heat shrinking cavity; 412-Heating channel; 413-Workpiece inlet; 414-Workpiece outlet; 415-Support plate; 416-Bracket; 420-First heating device; 430-Second heating device; 440-Third moving assembly; 450-Fourth moving assembly; 460-Operation panel; 471-First heat shrinking feeding platform; 472-First feeding support; 473-Second heat shrinking feeding platform; 474-Second feeding support; 475-First heat shrinking discharging platform; 476-First discharging support; 477-Second heat shrinking discharging platform; 478-Second discharging support;

[0050] 500 - Second transfer device; 600 - Discharge conveyor device; 700 - Receiving rack. Detailed Implementation

[0051] The purpose of this invention is to provide a multi-station through-type wind power anchor bolt flame heat shrink machine 10, which is used to achieve the effects of rapid detection, handling and heat shrinking of wind power anchor bolts in the process of connecting wind power anchor bolts and heat shrink sleeves.

[0052] To make the above-mentioned objects, features and advantages of the present invention more apparent and understandable, specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings.

[0053] See Figure 1 This invention provides a multi-station through-type wind power anchor flame heat shrink machine 10, which includes: a length detection device 100, a pipe conveying device 200, a first transfer device 300, a heat shrinking device 400, a second transfer device 500, and a discharge conveying device 600.

[0054] The length detection device 100 includes: a first feeding track 110, a blocking member 120, and a detection element 140. The first feeding track 110 has a first discharge end, the blocking member 120 is disposed at the first discharge end, and the detection element 140 is located on one side of the first discharge end. The wind power anchor bolt is conveyed from the first feeding track 110 to the blocking member 120. The detection element 140 detects the length of the wind power anchor bolt. When the length of the wind power anchor bolt meets the preset value, it is conveyed to the pipe conveying device 200.

[0055] The pipe conveying device 200 has an operating area and a second discharge end 211;

[0056] The first transfer device 300 is located at least partially below the second discharge end 211. The first transfer device 300 includes: a first transfer part and a second transfer part. The second transfer part is used to lift and transport the wind power anchor bolts installed on the second discharge end 211 to the first transfer part.

[0057] The heat shrinking device 400 includes a heat shrinking feeding platform, a heat shrinking cavity 411, and a heat shrinking discharging platform. The heat shrinking feeding platform and the heat shrinking discharging platform are located on both sides of the heat shrinking cavity 411, and the heat shrinking feeding platform is collinear with the second transfer section.

[0058] The second transfer device 500 is used to lift and transport the wind power anchor bolts installed on the heat shrink discharge platform to the discharge conveyor 600.

[0059] In this embodiment, the length detection device 100 is used to automatically detect the length of the wind turbine anchor bolts, thereby screening wind turbine anchor bolts that meet the length requirements for transportation, resulting in higher detection and screening efficiency; the pipe conveying device 200 is used to transport the wind turbine anchor bolts and simultaneously perform manual fitting of the heat shrink sleeve; the first transfer device 300 is used to realize the multi-station automatic handling of the wind turbine anchor bolts, facilitating heating and fitting at designated locations; the heat shrinking device 400 is used to uniformly heat the heat shrink sleeve, achieving waterproofing and corrosion protection for the wind turbine anchor bolts; the second transfer device 500 is used to transport the heat-fitted wind turbine anchor bolts out; therefore, the multi-station through-type wind turbine anchor bolt flame heat shrinking machine 10 achieves efficient detection, handling, and heat fitting of wind turbine anchor bolts.

[0060] In one specific embodiment, the first discharge end is inclined downward, and the blocking member 120 protrudes from the top surface of the first discharge end. The length detection device 100 also includes a first baffle 130, which is disposed on one side of the first feeding track 110; a detection element 140 is located on the side of the blocking member 120 away from the first baffle 130; and a top-loading assembly 150, which is disposed on one side of the first discharge end. The wind turbine anchor bolt can slide along the first baffle 130 on the first feeding track 110 to the blocking member 120, while covering the side of the detection element 140 facing the first baffle 130. When the detection element 140 determines that the length of the wind turbine anchor bolt meets the preset value, the top-loading assembly 150 is used to lift the wind turbine anchor bolt, so that the wind turbine anchor bolt flips over the blocking member 120.

[0061] It should be noted that when feeding wind turbine anchor bolts, the bolts are first fed from the end of the first feeding track 110 away from the blocking member 120. They slide along the inclined surface at the top of the first feeding track 110 to the blocking member 120. Since one end of the wind turbine anchor bolt is aligned with the first baffle 130, the detection element 140 detects the distance between it and the other end of the wind turbine anchor bolt. The length of the wind turbine anchor bolt can then be calculated based on the distance between the wind turbine anchor bolt and the corresponding first baffle 130. If the length of the wind turbine anchor bolt meets the preset value, the lifting assembly 150 can lift the wind turbine anchor bolt and move it to the next work station. Therefore, the detection, screening and transportation of wind turbine anchor bolts are more convenient.

[0062] In one specific embodiment, the first feeding track 110 includes a track body and an extension arm 111. The extension arm 111 is located on the side of the track body that is close to or away from the first baffle 130. The extension arm 111 extends in a direction away from the first feeding track 110. The blocking member 120 protrudes from the end of the extension arm 111 that is away from the track body. The top material assembly 150 is located on the same side of the extension arm 111 as the track body.

[0063] It should be noted that when the wind power anchor bolt comes into contact with the blocking member 120, the wind power anchor bolt is located above the extension arm 111 and the top material assembly 150. When the detection element 140 detects the length of the wind power anchor bolt, the wind power anchor bolt is supported by the extension arm 111. If the length of the wind power anchor bolt meets the preset value, the wind power anchor bolt is lifted and supported by the top material assembly 150 and disengages from the extension arm 111.

[0064] In one specific embodiment, the blocking member 120 has a buffer block 121 on the side facing the track body.

[0065] It should be noted that when the wind turbine anchor bolt slides from the inclined surface at the top of the first feeding track 110 to the blocking member 120, it can be protected by the buffer block 121 to avoid damage to the wind turbine anchor bolt.

[0066] In one specific embodiment, the extension arm 111 includes an extension arm body 112, a first locking member 113 and a second locking member 114. The first locking member 113 is located on the top side of the extension arm body 112 away from the track body, and the second locking member 114 is located on the top side of the extension arm body 112 close to the track body. A buffer block mounting groove is formed between the first locking member 113 and the second locking member 114. The second locking member 114 is detachably connected to the extension arm body 112, and the buffer block mounting groove is used to clamp and lock the buffer block 121.

[0067] It should be noted that the first locking member 113 and the second locking member 114 are used to fix the buffer block 121 so that the buffer block 121 will not be detached or damaged when squeezed by the wind power anchor bolt, thus playing a better buffering role; for example, the buffer block 121 is connected to the first locking member 113 by fasteners, and the second locking member 114 presses the buffer block 121 and locks it with the extension arm body 112 by fasteners, thereby improving the connection strength between the buffer block 121 and the extension arm 111.

[0068] In one specific embodiment, the blocking member 120 further includes a third locking member 122, which is connected to the top of the first locking member 113 and abuts against the side of the buffer block 121 away from the track body.

[0069] It should be noted that the third locking member 122 is fixed to the first locking member 113 by fasteners. The third locking member 122 can support the buffer block 121. When the buffer block 121 is squeezed by the wind power anchor bolt, the buffer block 121 deforms in the direction of the third locking member 122, thereby achieving buffering.

[0070] In one specific embodiment, the length detection device 100 further includes: a first support leg 161, which is supported below the first feeding track 110; the top material assembly 150 includes: a top material block 151, a top material drive 152, a first top material guide 153, and a second top material guide 154, wherein the first top material guide 153 is connected to the first support leg 161, the second top material guide 154 is slidably connected to the first top material guide 153, the top material block 151 is connected to the second top material guide 154, and the output shaft of the top material drive 152 is used to drive the top material block 151 and the second top material guide 154 to move up and down.

[0071] It should be noted that the top material drive component 152 is used to drive the top material block 151 to move up and down, thereby lifting the wind power anchor bolt; the first top material guide component 153 is fixed by the first support leg 161, thereby providing accurate guidance for the second top material guide component 154. For example, the first top material guide component 153 is provided with a through hole, and the second top material guide component 154 is a sliding shaft component that slides in the through hole, so that the top material block 151 can also perform stable lifting and lowering actions and avoid tilting.

[0072] Preferably, the top surface of the top material block 151 is also inclined, with the side of its top surface closer to the first feeding track 110 being higher than the side of its top surface away from the first feeding track 110.

[0073] In one specific embodiment, the top material assembly 150 further includes a linkage beam 155, which connects multiple top material blocks 151 and multiple second top material guides 154, and the output shaft of the top material drive 152 is connected to the linkage beam 155.

[0074] It should be noted that the top material drive component 152 pushes the linkage beam 155 to lift and lower, and can simultaneously control the lifting and lowering of multiple top material blocks 151, making the drive method simpler and realizing the synchronous lifting and lowering of various parts of the wind power anchor bolt; on the basis of the synchronous lifting and lowering of multiple second top material guide components 154, the guidance and limiting of multiple first top material guide components 153 also prevents the wind power anchor bolt from tilting when it is far from the top material drive component 152.

[0075] In one specific embodiment, the length detection device 100 further includes a support beam 162; the top material drive 152 includes a top material drive 152 body and a hook 152a, the hook 152a and the top material drive 152 body are located at both ends of the output shaft of the top material drive 152; wherein, the hook 152a is engaged with the linkage beam 155, and the top material drive 152 body is connected to the support beam 162.

[0076] It should be noted that the hook 152a provides support for the linkage beam 155 and the top material block 151. At the same time, the hook 152a secures the linkage beam 155 to prevent it from shifting or coming off the hook 152a when the linkage beam 155 is raised or lowered.

[0077] Preferably, the top material drive component 152 is, for example, a cylinder, but this is not limited here.

[0078] Preferably, the hook 152a includes, for example, a hook support and a hook locking part. The hook support is located below the linkage beam 155, and the hook locking part is located above the linkage beam 155. The hook support and the hook locking part clamp the linkage beam 155 from the upper and lower sides of the linkage beam 155 to fix it to the linkage beam 155.

[0079] In one specific embodiment, the length detection device 100 further includes a first top beam 163 and a second top beam 164, with a plurality of first feeding tracks 110 and a first baffle 130 alternately supported on the first top beam 163 and the second top beam 164; the first baffle 130 and the first top beam 163 are detachably connected, and the first baffle 130 and the second top beam 164 are detachably connected.

[0080] It should be noted that any one of the first baffles 130 can be used for positioning wind power anchors, thereby enabling the detection of wind power anchors with various preset lengths. Specifically, when a designated first baffle 130 is used for positioning, other first baffles 130 on the side closest to the detection element 140 can be removed to facilitate the placement of wind power anchors on multiple first feeding tracks 110 on that side for conveying and detection.

[0081] In one specific embodiment, the bottom of the first baffle 130 has a first slot, which is engaged with the first top beam 163; and / or, the bottom of the first baffle 130 has a second slot, which is engaged with the second top beam 164.

[0082] It should be noted that the first baffle 130 clamps and fixes the first top beam 163 through the first slot, and the first baffle 130 clamps and fixes the second top beam 164 through the second slot, thereby stably guiding the wind power anchor bolt.

[0083] In one specific embodiment, the pipe conveying device 200 includes: a conveying assembly 210, the end of the conveying assembly 210 away from the length detection device 100 being a second discharge end 211; multiple support assemblies for supporting wind power anchor bolts, the support assemblies including a first support member 221 and a second support member 222, the first support member 221 and the second support member 222 being disposed on both sides of the conveying assembly 210, the midpoints of the first support member 221 and the second support member 222 of the multiple support assemblies forming a center line; a sleeve baffle 231, the sleeve baffle 231 being connected to one side of the conveying assembly 210; and a clearance baffle 232, the clearance baffle 232 being located on the same side of the conveying assembly 210 as the sleeve baffle 231, the clearance baffle 232 being located on the side of the sleeve baffle 231 closer to the second discharge end 211, and the clearance baffle 232 being at a greater distance from the center line than the sleeve baffle 231 being at a greater distance from the center line.

[0084] It should be noted that the support assembly supports both ends of the wind turbine anchor bolt through the first support member 221 and the second support member 222. The conveying assembly 210 is used to drive the support assembly, thereby conveying the wind turbine anchor bolt. When the wind turbine anchor bolt is conveyed to the position corresponding to the sleeve baffle 231, the operator can press the end of the wind turbine anchor bolt onto the sleeve baffle 231 to perform the heat shrink sleeve connection action. At this time, the wind turbine anchor bolt corresponding to the clearance baffle 232 can be pushed towards the clearance baffle 232, thereby leaving an operating area on the other side of the conveying assembly 210 relative to the clearance baffle 232. When the operator is in the operating area, the wind turbine anchor bolt corresponding to the sleeve baffle 231 has more length that can be reached by the operator, which facilitates the pushing and connection of the heat shrink sleeve.

[0085] In one specific embodiment, the pipe conveying device 200 further includes: a first guide baffle 233, which is disposed on the side of the avoidance baffle 232 near the second discharge end 211; wherein, the distance of the first guide baffle 233 from the center line gradually decreases along the direction close to the second discharge end 211.

[0086] It should be noted that as the conveying component 210 drives the support component to move, the wind power anchor bolt can be guided to the middle position of the support component by the first guide baffle 233, eliminating the positional deviation of the wind power anchor bolt caused by the avoidance baffle 232.

[0087] In one specific embodiment, the pipe conveying device 200 further includes a second guide baffle 234, which is disposed on the side of the first guide baffle 233 near the second discharge end 211, and the second guide baffle 234 is arranged parallel to the center line.

[0088] It should be noted that the second guide baffle 234 is used to guide the wind turbine anchor bolt to roll along the middle position of the support assembly until it is discharged from the second discharge end 211.

[0089] In one specific embodiment, the conveying assembly 210 includes a first conveying assembly housing 212, a first chain assembly 213, a second conveying assembly housing 214, and a second chain assembly 215; wherein the first conveying assembly housing 212 and the second conveying assembly housing 214 are disposed opposite to each other, the first chain assembly 213 drives within the first conveying assembly housing 212, the second chain assembly 215 drives within the second chain assembly 215, a first support member 221 connects to the first chain assembly 213, and a second support member 222 connects to the second chain assembly 215.

[0090] It should be noted that the first chain assembly 213 rotates under the drive of the motor, enabling the linear movement of the first support member 221, and the second chain assembly 215 rotates under the drive of the motor, enabling the linear movement of the second support member 222, thereby realizing the support and transportation of the wind power anchor bolt by the support assembly.

[0091] In one specific embodiment, the first chain assembly 213 includes a plurality of first chain links 213a, a first support member 221 is connected to the first chain links 213a, and the first support member 221 and the first chain links 213a correspond one-to-one; the second chain assembly 215 includes a plurality of second chain links 215a, a second support member 222 is connected to the second chain links 215a, and the second support member 222 and the second chain links 215a correspond one-to-one.

[0092] It should be noted that the first support member 221 is easy to install on the first link 213a, and the second support member 222 is easy to install on the second link 215a. Therefore, the use of chain assembly facilitates the support and transportation of wind power anchor bolts.

[0093] In one specific embodiment, the first support member 221 includes: a first rotating wheel 221a and a first rotating wheel support 221b, the first rotating wheel 221a and the first rotating wheel support 221b being rotatably connected, the first rotating wheel support 221b being connected to a first chain link 213a, and the first rotating wheel 221a being provided with a first guide groove; the second support member 222 includes: a second rotating wheel 222a and a second rotating wheel support 222b, the second rotating wheel 222a and the second rotating wheel support 222b being rotatably connected, the second rotating wheel support 222b being connected to a second chain link 215a, and the second rotating wheel 222a being provided with a second guide groove.

[0094] It should be noted that the first rotating wheel 221a can rotate on the first rotating wheel support 221b, and the second rotating wheel 222a can rotate on the second rotating wheel support 222b. The wind power anchor is set on the first rotating wheel 221a and the second rotating wheel 222a and can slide along the width direction of the conveying assembly 210. This facilitates the connection of the wind power anchor to the sleeve baffle 231 for heat shrink sleeve, and also facilitates the push of the wind power anchor towards the clearance baffle 232 to free up the operating area.

[0095] Preferably, the first guide groove and the second guide groove are, for example, V-shaped structures, but this is not limited here.

[0096] In one specific embodiment, the socket baffle 231 includes a socket baffle 231 body and a first connecting plate, the first connecting plate connecting the socket baffle 231 body and the first conveying component housing 212; and / or, the avoidance baffle 232 includes an avoidance baffle 232 body and a second connecting plate, the second connecting plate connecting the avoidance baffle 232 body and the first conveying component housing 212.

[0097] It should be noted that the sleeve baffle 231 achieves a stable installation effect through the first connecting plate. When the wind turbine anchor bolt abuts against the sleeve baffle 231, the sleeve baffle 231 will not deform, which facilitates the sleeve connection of the heat shrink sleeve. The clearance baffle 232 achieves a stable installation effect through the second connecting plate. When the wind turbine anchor bolt abuts against the clearance baffle 232, the sleeve baffle 231 will not deform, which facilitates the clearance baffle 232 to guide the wind turbine anchor bolt to slide along the width direction of the conveying assembly 210.

[0098] In one specific embodiment, the pipe conveying device 200 further includes a width adjustment device 240, which is disposed at the bottom of the conveying assembly 210. The width adjustment device 240 includes a width adjustment roller 241 and a width adjustment track 242. The width adjustment roller 241 is disposed at the bottom of the first conveying assembly housing 212 and / or at the bottom of the second conveying assembly housing 214. The width adjustment track 242 is arranged along the width direction of the conveying assembly 210 and cooperates with the width adjustment roller 241.

[0099] It should be noted that the width adjustment device 240 can adjust the distance between the first conveying component housing 212 and the second conveying component housing 214, that is, adjust the distance between the first support member 221 and the second support member 222, so as to adapt to wind power anchor bolts of different lengths. Therefore, the conveying component 210 is more flexible in handling wind power anchor bolts.

[0100] Preferably, the width adjusting roller 241 is provided with a roller slot, and the width adjusting track 242 is an I-beam structure, for example. The roller slot rolls on the I-beam structure, thereby realizing the movement of the first conveying component housing 212 or the second conveying component housing 214.

[0101] In one specific embodiment, the first conveying component housing 212 corresponds to a plurality of width adjustment devices 240, and / or the second conveying component housing 214 corresponds to a plurality of width adjustment devices 240; wherein, the tube conveying device 200 further includes: a width adjustment drive device 243 and a linkage shaft 244, the width adjustment drive device 243 drives the linkage shaft 244 to rotate; the linkage shaft 244 drives a plurality of width adjustment rollers 241 corresponding to the first conveying component housing 212 to rotate, or the linkage shaft 244 drives a plurality of width adjustment rollers 241 corresponding to the second conveying component housing 214 to rotate.

[0102] It should be noted that the multiple width-adjusting rollers 241 and multiple width-adjusting tracks 242 can achieve multi-point support for the first conveying component housing 212 and the second conveying component housing 214, making the first conveying component housing 212 and the second conveying component housing 214 more stable; the width-adjusting drive device 243 drives the linkage shaft 244 to rotate, and then drives the multiple width-adjusting rollers 241 to rotate simultaneously through the linkage shaft 244, which can achieve synchronous movement of the multiple width-adjusting rollers 241, thereby achieving synchronous movement of each support position of the first conveying component housing 212, or synchronous movement of each support position of the second conveying component housing 214.

[0103] Preferably, the output shaft of the width adjustment drive device 243 realizes the rotation of the linkage shaft 244 through a helical gear or worm gear structure, for example.

[0104] Preferably, the width adjustment device 240 further includes a gear and rack structure 245, which is disposed on the width adjustment track 242. The linkage shaft 244 drives the gear to rotate, so that the gear rolls on the rack, thereby driving the width adjustment roller 241 to roll on the width adjustment track 242.

[0105] In one specific embodiment, the length of the wind turbine anchor is L, and the distance between the sleeve baffle 231 and the centerline is less than or equal to 0.5L; or, the length of the wind turbine anchor is L, and the distance between the clearance baffle 232 and the centerline is greater than or equal to 0.5L.

[0106] It should be noted that when the distance between the sleeve baffle 231 and the center line is small, the wind power anchor bolt that abuts against the sleeve baffle 231 can move towards the operator. When the distance between the clearance baffle 232 and the center line is large, the wind power anchor bolt that abuts against the clearance baffle 232 can move away from the operator, thereby further increasing the operating area and facilitating the sleeve heat shrink sleeve.

[0107] In one specific embodiment, the first transfer part includes a first support platform 310 and a first positioning support 311, the first positioning support 311 being located on the top of the first support platform 310; the second transfer part includes a second support platform 320 and a second positioning support 321, the second positioning support 321 being located at both ends of the top of the first support platform 310, and the second support platform 320 having an avoidance notch 322 on one side facing the first support platform 310, the avoidance notch 322 being used to accommodate the first support platform 310.

[0108] Furthermore, the first transfer device 300 also includes: a first lifting component 330, which is connected to the second support platform 320; and a first moving component 340, which is connected to the first lifting component 330; wherein, when the first support platform 310 is located within the clearance notch 322, the first positioning support 311 and the second positioning support 321 can be aligned.

[0109] It should be noted that the first lifting component 330 is used to control the second support platform 320 to lift and lower, thereby lifting the wind turbine anchor bolts to be transported through the second positioning support 321. At this time, the moving component controls the second support platform 320 to move towards the first support platform 310. When the clearance notch 322 corresponds to the position of the first support platform 310, the first lifting component 330 controls the second support platform 320 to descend until the wind turbine anchor bolt is supported by the first positioning support 311, and the transport is completed. Therefore, the first transfer device 300 realizes the automatic transport of multiple wind turbine anchor bolts, saving time and effort. In the heat fitting process of wind turbine anchor bolts, the insertion and removal of wind turbine anchor bolts are more convenient.

[0110] In one specific embodiment, the first lifting assembly 330 includes: a lifting drive 331, at least one drive shaft, and a lifting rod 332; wherein, the lifting drive 331 is driven to connect to at least one drive shaft, the drive shaft is driven to connect to the lifting rod 332, and the lifting rod 332 is connected to the second support platform 320.

[0111] It should be noted that the lifting drive component 331 controls the rotation of the transmission shaft, the transmission shaft drives the lifting rod 332 to lift and lower, and the transmission shaft pushes or pulls the second support platform 320 to lift and lower, thereby realizing the automatic placement and removal of wind power anchor bolts.

[0112] In one specific embodiment, the first lifting component 330 further includes a lifting component base 335 and a lifting transmission seat 336. The lifting transmission seat 336 is disposed on the lifting component base 335, and the transmission shaft and the lifting rod 332 are connected in a transmission manner inside the lifting transmission seat 336. The end of the lifting rod 332 away from the second support platform 320 passes through the lifting transmission seat 336 and the lifting component base 335.

[0113] It should be noted that the lifting transmission seat 336 is used to assemble and connect the transmission shaft and the lifting rod 332. The bottom end of the lifting rod 332 extends out of the lifting assembly base 335, so that the lifting rod 332 has sufficient length to move vertically within the lifting transmission seat 336, thereby increasing the lifting range of the second support platform 320.

[0114] In one specific embodiment, the drive shaft includes two first drive shafts 333 and two second drive shafts 334. The lifting drive member 331 drives the two first drive shafts 333 simultaneously. The first drive shafts 333 are connected to the second drive shafts 334, and the second drive shafts 334 are connected to multiple lifting rods 332 simultaneously. The second drive shafts 334 are located on both sides of the clearance notch 322.

[0115] It should be noted that the lifting drive component 331 drives the second drive shafts 334 on both sides of the clearance notch 322 to rotate simultaneously through two first drive shafts 333. Therefore, the multiple lifting rods 332 connected to the second drive shafts 334 can simultaneously support both sides of the second support platform 320 and control the synchronous lifting of both sides of the second support platform 320. Thus, while stabilizing the second support platform 320, the lifting rods 332 can make both ends of the second support platform 320 rise and fall smoothly.

[0116] Preferably, the lifting drive 331 is a motor, and the output shaft of the lifting drive 331 meshes with two first transmission shafts 333 through helical gears to realize the rotation of the two first transmission shafts 333; the two first transmission shafts 333 mesh with second transmission shafts 334 through helical gears to realize the rotation of the two second transmission shafts 334; the second transmission shafts 334 drive the lifting rod 332 to rise and fall through a worm gear mechanism or helical gears.

[0117] In one specific embodiment, the first positioning support 311 includes a plurality of first positioning grooves 312, and the inner side of the first positioning groove 312 has two first positioning inclined surfaces arranged opposite to each other.

[0118] It should be noted that when the first positioning support 311 and the second positioning support 321 are aligned, the first positioning inclined surfaces on both sides of the first positioning groove 312 can guide the wind power anchor bolt, so that the wind power anchor bolt can be accurately slid into the first positioning groove 312, thereby locking the placement direction of the wind power anchor bolt and facilitating the subsequent heat fitting process.

[0119] In one specific embodiment, the first positioning support 311 includes: two support shaft seats 313 and a positioning shaft disposed between the two support shaft seats 313; wherein, the positioning shaft includes a plurality of positioning wheels 314, the positioning wheels 314 have a first positioning inclined surface on both sides, and a first positioning groove 312 is formed between adjacent positioning wheels 314.

[0120] It should be noted that the positioning shaft can be rotated manually or by a motor. In this case, the positioning wheel 314 rolls, and the friction between the first positioning inclined surface and the wind power anchor bolt pushes the wind power anchor bolt, thereby pushing the wind power anchor bolt from the first positioning support 311 to other equipment.

[0121] In one specific embodiment, the heat shrink feeding platform includes: a first heat shrink feeding platform 471 and a second heat shrink feeding platform 473. The first heat shrink feeding platform 471 and the second heat shrink feeding platform 473 are disposed on both sides of the first transfer part. The first heat shrink feeding platform 471 includes a first feeding support 472, and the second heat shrink feeding platform 473 includes a second feeding support 474. The first feeding support 472, the first positioning support 311, and the second feeding support 474 are collinear.

[0122] It should be noted that when the clearance gap 322 corresponds to the position of the first support platform 310, the first lifting component 330 controls the second support platform 320 to descend, so that the wind power anchor bolt can simultaneously obtain the support of the first feeding support 472, the first positioning support 311, and the second feeding support 474, and disengage from the support of the second positioning support 321, thereby completing the handling. At this time, the positioning shaft and positioning wheel 314 can be rotated manually or by motor to push the wind power anchor bolt into the heat shrink cavity 411.

[0123] In one specific embodiment, the second positioning support 321 includes a plurality of second positioning grooves 323, and the inner side of the second positioning grooves 323 has two opposing second positioning inclined surfaces.

[0124] It should be noted that before the second positioning support 321 moves the wind power anchor bolt, the second positioning inclined surfaces on both sides of the second positioning groove 323 can guide the wind power anchor bolt, so that the wind power anchor bolt can be accurately slid into the second positioning groove 323, thereby locking the placement direction of the wind power anchor bolt and facilitating the subsequent alignment of the wind power anchor bolt with the first positioning groove 312.

[0125] In one specific embodiment, the first moving component 340 includes: a first guide 341, which is slidably connected to the lifting component base 335; and a linear motion component 342, which is arranged parallel to the first guide 341 and has a pushing end connected to the lifting component base 335.

[0126] It should be noted that the linear motion component is used to push the lifting component base 335 to move towards the first support platform 310, and the first guide member 341 is used to support the lifting component base 335 and guide the lifting component base 335.

[0127] Preferably, the linear motion component is, for example, a lead screw or a cylinder, and the first guide 341 is, for example, a guide rail and a slider.

[0128] In one specific embodiment, the heat shrinking device 400 includes: a housing 410, the interior of which is a heat shrinking cavity 411; a first heating device 420 and a second heating device 430, the first heating device 420 and the second heating device 430 being disposed within the heat shrinking cavity 411 and facing each other, forming a heating channel 412 between the first heating device 420 and the second heating device 430; a third moving component 440, the third moving component 440 connecting the housing 410 and the first heating device 420; and a fourth moving component 450, the fourth moving component 450 connecting the housing 410 and the second heating device 430.

[0129] It should be noted that after the wind turbine anchor bolt with heat shrink sleeve enters the housing 410, it passes through the heating channel 412. The first heating device 420 and the second heating device 430 can uniformly heat both sides of the heat shrink sleeve, improving the heat shrink effect. The third moving component 440 and the fourth moving component 450 can adjust the position of the first heating component and the second heating component, so that any part of the wind turbine anchor bolt that extends into the heat shrink cavity 411 can be heated and fitted, further improving the heating uniformity, achieving effective waterproof and anti-corrosion effects, and improving production efficiency.

[0130] In one specific embodiment, the housing 410 has a workpiece inlet 413 and a workpiece outlet 414 that connect opposite sides of the heat shrink cavity 411; the two ends of the heating channel 412 are respectively oriented toward the workpiece inlet 413 and the workpiece outlet 414.

[0131] It should be noted that the wind power anchor bolt with heat shrink sleeve is driven by an external linear transmission structure. It can be directly inserted into the heating channel 412 from the workpiece inlet 413 for heat shrinking and then transported out from the workpiece outlet 414. Therefore, the external transmission structure is simpler and the conveying and heat shrinking are more convenient and efficient.

[0132] In one specific embodiment, the third moving component 440 is arranged in the direction in which the workpiece inlet 413 and the workpiece outlet 414 communicate; and / or, the fourth moving component 450 is arranged in the direction in which the workpiece inlet 413 and the workpiece outlet 414 communicate.

[0133] It should be noted that the third moving component 440 facilitates the movement of the first heating component toward the workpiece inlet 413 or the workpiece outlet 414, and can heat and fit one side of the wind power anchor bolt that extends into the heat shrink cavity 411. The fourth moving component 450 facilitates the movement of the second heating component toward the workpiece inlet 413 or the workpiece outlet 414, and can heat and fit the other side of the wind power anchor bolt that extends into the heat shrink cavity 411.

[0134] In one specific embodiment, the first heating device 420 is located above the second heating device 430, and the heating channel 412 is located at the midpoint between the first heating device 420 and the second heating device 430 in the vertical direction.

[0135] It should be noted that the first heating device 420 heats and fits the heat shrink sleeve of the upper part of the wind turbine anchor bolt; the second heating device 430 heats and fits the heat shrink sleeve of the lower part of the wind turbine anchor bolt.

[0136] In one specific embodiment, the housing 410 includes a support plate 415 and a bracket 416. A fourth moving component 450 and a second heating device 430 are located on the support plate 415, and the fourth moving component 450 connects the second heating device 430 and the support plate 415. The bracket 416 is located on one side of the second heating device 430 and on the support plate 415. A third moving component 440 and a first heating device 420 are located on the bracket 416, and the third moving component 440 connects the first heating device 420 and the bracket 416.

[0137] It should be noted that the first heating device 420 and the third moving component 440 are supported by the bracket 416 to achieve the height difference between them and the second heating device 430. Therefore, the wind power anchor bolt can be uniformly heated between the first heating device 420 and the second heating device 430.

[0138] In one specific embodiment, the support 416 includes a longitudinal beam, a crossbeam, and a reinforcing beam; wherein the longitudinal beam is located on one side of the second heating device 430, the crossbeam connects the longitudinal beam, the reinforcing beam obliquely connects the crossbeam and the longitudinal beam, and the third moving assembly 440 is connected between the first heating device 420 and the crossbeam.

[0139] It should be noted that the longitudinal and transverse beams provide support for the first heating device 420 and the first moving device. The reinforcing beams improve the connection strength between the transverse and longitudinal beams, preventing them from bending when supporting the third moving component 440 and the first heating device 420.

[0140] In one specific embodiment, the third moving component 440 includes a first slider, a first guide rail, and a first sliding plate. The first guide rail is connected to a crossbeam, the first slider slides on the first guide rail, the first sliding plate is connected to the first slider, and the first heating device 420 is connected to the first sliding plate.

[0141] It should be noted that the first heating device 420 and the first sliding plate can slide along the first guide rail via the first slider, which facilitates the adjustment of the axial position of the heating in the wind power anchor bolt.

[0142] In one specific embodiment, the fourth moving component 450 includes a second slider, a second guide rail, and a second sliding plate. The second guide rail is connected to a support plate 415, the second slider slides on the second guide rail, the second sliding plate is connected to the second slider, and the second heating device 430 is connected to the second sliding plate.

[0143] It should be noted that the second heating device 430 and the second sliding plate can slide along the second guide rail via the second slider, which facilitates the adjustment of the axial position of the heating in the wind power anchor bolt.

[0144] Preferably, the third moving component 440 may further include a first driving component for driving the first sliding plate and the first slider to slide on the first guide rail, and the fourth moving component 450 may further include a second driving component for driving the second sliding plate and the second slider to slide on the second guide rail. The first and second driving components may be, for example, cylinders or lead screws, and are not limited here.

[0145] In one specific embodiment, the first heating device 420 and / or the second heating device 430 are flame burners.

[0146] It should be noted that the heating zone of the burner is distributed along a straight line, which facilitates uniform heating of the heat shrink sleeve.

[0147] In one specific embodiment, the heat shrinking device 400 further includes an operation panel 460 for controlling the first heating device 420 and the second heating device 430.

[0148] It should be noted that the operation panel 460 is used to control the working status of the first heating device 420 and the second heating device 430, such as temperature or heating time.

[0149] Preferably, the operation panel 460 can also be used as the first drive component and the second drive component, which is not limited here.

[0150] In one specific embodiment, the heat-shrinkable discharge platform includes: a first heat-shrinkable discharge platform 475 and a second heat-shrinkable discharge platform 477. The first heat-shrinkable discharge platform 475 is provided with a first discharge support 476, and the second heat-shrinkable discharge platform 477 includes a second discharge support 478. A second transfer device 500 is at least partially located between the first heat-shrinkable discharge platform 475 and the second heat-shrinkable discharge platform 477. The second transfer device 500 includes: a third transfer part and a fourth transfer part. The fourth transfer part includes a fourth positioning support. The first discharge support 476, the fourth positioning support, and the second discharge support 478 are collinear. The third transfer part is used to lift and transport the wind turbine anchor bolts on the first discharge support 476, the fourth positioning support, and the second discharge support 478 to the discharge conveying device 600.

[0151] It should be noted that after the heat fitting is completed, the wind power anchor bolt is supported by the first discharge support 476, the fourth positioning support and the second discharge support 478 at the same time. At this time, the third transfer part extends into both sides of the fourth transfer part to lift and transport the wind power anchor bolt. Therefore, the first transfer device 300 realizes the automatic transport of multiple wind power anchor bolts, saving time and effort.

[0152] Preferably, the structure of the second transfer device 500 is the same as that of the first transfer device 300, and will not be described again here.

[0153] Preferably, the structure of the discharge conveying device 600 is the same as that of the pipe conveying device 200, and will not be described in detail here.

[0154] In one specific embodiment, the multi-station through-type wind power anchor flame heat shrink machine 10 also includes a receiving rack 700, and a discharge conveying device 600 conveys the wind power anchors to the receiving rack 700.

[0155] While the present invention has been disclosed above, it is not limited thereto. Any person skilled in the art can make various modifications and alterations without departing from the spirit and scope of the invention; therefore, the scope of protection of the present invention should be determined by the scope defined in the claims.

Claims

1. A multi-station through-type flame heat shrink machine for wind power anchors, characterized in that, The multi-station through-type wind power anchor bolt flame heat shrinking machine includes: a length detection device, a pipe conveying device, a first transfer device, a heat shrinking device, a second transfer device, and a discharge conveying device; The length detection device includes: a first feeding track, a blocking member, and a detection element. The first feeding track has a first discharge end, the blocking member is disposed at the first discharge end, and the detection element is located on one side of the first discharge end. The wind power anchor bolt is conveyed from the first feeding track to the blocking member, and the detection element detects the length of the wind power anchor bolt. When the length of the wind power anchor bolt meets the preset value, it is conveyed to the pipe conveying device. The pipe conveying device has an operating area and a second discharge end; the pipe conveying device includes: a conveying component, multiple supporting components, a sleeve baffle and a clearance baffle; The end of the conveying assembly furthest from the length detection device is the second discharge end; The support assembly is used to support the wind power anchor bolt. The support assembly includes a first support member and a second support member. The first support member and the second support member are disposed on both sides of the conveying assembly. The midpoints of the first support member and the second support member of the plurality of support assemblies form a center line. The sleeve baffle is connected to one side of the conveying assembly; The clearance baffle and the connecting baffle are located on the same side of the conveying assembly. The clearance baffle is located on the side of the connecting baffle closer to the second discharge end. Furthermore, the distance of the clearance baffle from the center line is greater than the distance of the connecting baffle from the center line. The first transfer device is located at least partially below the second discharge end. The first transfer device includes a first transfer part and a second transfer part. The second transfer part is used to lift and transport the wind power anchor bolts installed on the second discharge end to the first transfer part. The heat shrinking device includes a heat shrinking feeding platform, a heat shrinking cavity, and a heat shrinking discharging platform. The heat shrinking feeding platform and the heat shrinking discharging platform are located on both sides of the heat shrinking cavity, and the heat shrinking feeding platform is collinear with the second transfer section. The second transfer device is used to lift and transport the wind power anchor bolts set on the heat-shrinkable discharge platform to the discharge conveying device.

2. The multi-station through-type wind power anchor bolt flame heat shrink machine according to claim 1, characterized in that, The length detection device further includes: a first baffle and a top material assembly; The first baffle is located on one side of the first feeding track, and the detection element is located on the side of the blocking member away from the first baffle; The top material assembly is located on one side of the first discharge end. The top material assembly is used to lift the wind turbine anchor bolt, so that the wind turbine anchor bolt can be flipped over the blocking member.

3. The multi-station through-type wind power anchor bolt flame heat shrink machine according to claim 2, characterized in that, The length detection device further includes: a first leg, which is supported below the first feeding track; The top material assembly includes: a top material block, a top material drive, a first top material guide, and a second top material guide. The first top material guide is connected to the first support leg, and the second top material guide is slidably connected to the first top material guide. The top material block is connected to the second top material guide, and the output shaft of the top material drive is used to drive the top material block and the second top material guide to move up and down.

4. The multi-station through-type wind power anchor bolt flame heat shrink machine according to claim 1, characterized in that, The conveying assembly includes a first conveying assembly housing, a first chain assembly, a second conveying assembly housing, and a second chain assembly; The first conveying component housing and the second conveying component housing are disposed opposite to each other. The first chain assembly drives within the first conveying component housing, and the second chain assembly drives within the second conveying component housing. The first chain assembly includes a plurality of first chain links, and the first support member connects to the first chain links. The second chain assembly includes a plurality of second chain links, and the second support member connects to the second chain links.

5. The multi-station through-type wind power anchor bolt flame heat shrink machine according to claim 4, characterized in that, The tube conveying device also includes: A width adjustment device is provided at the bottom of the conveying assembly. The width adjustment device includes a width adjustment roller and a width adjustment track. The width adjustment roller is provided at the bottom of the first conveying assembly housing and / or at the bottom of the second conveying assembly housing. The width adjustment track is arranged along the width direction of the conveying assembly and cooperates with the width adjustment roller.

6. The multi-station through-type wind power anchor bolt flame heat shrink machine according to claim 1, characterized in that, The first transfer unit includes a first support platform and a first positioning support, the first positioning support being located at the top of the first support platform; the second transfer unit includes a second support platform and a second positioning support, the second positioning support being located at both ends of the top of the second support platform, and the second support platform having an clearance notch on one side facing the first support platform, the clearance notch being used to accommodate the first support platform; The first transfer device further includes: a first lifting component connected to the second support platform; and a first moving component connected to the first lifting component; wherein, when the first support platform is located within the clearance notch, the first positioning support and the second positioning support can be aligned.

7. The multi-station through-type wind power anchor bolt flame heat shrink machine according to claim 6, characterized in that, The first positioning support includes: two support shaft seats and a positioning shaft disposed between the two support shaft seats; wherein, the positioning shaft includes a plurality of positioning wheels, each positioning wheel has a first positioning inclined surface on both sides, and a first positioning groove is formed between adjacent positioning wheels; The heat shrink feeding platform includes a first heat shrink feeding platform and a second heat shrink feeding platform. The first heat shrink feeding platform and the second heat shrink feeding platform are located on both sides of the first transfer part. The first heat shrink feeding platform includes a first feeding support, and the second heat shrink feeding platform includes a second feeding support. The first feeding support, the first positioning support, and the second feeding support are collinear.

8. The multi-station through-type wind power anchor bolt flame heat shrink machine according to claim 1, characterized in that, The heat shrinking device further includes: a housing, a first heating device, a second heating device, a third moving component, and a fourth moving component; The interior of the housing is the heat-shrinkable cavity; The first heating device and the second heating device are disposed in the heat shrink cavity, and the first heating device and the second heating device are arranged facing each other, forming a heating channel between the first heating device and the second heating device; The third movable component connects the housing and the first heating device; The fourth movable component connects the housing and the second heating device.

9. The multi-station through-type wind power anchor bolt flame heat shrink machine according to claim 1, characterized in that, The heat shrinking discharge platform includes: a first heat shrinking discharge platform and a second heat shrinking discharge platform. The first heat shrinking discharge platform is provided with a first discharge support, and the second heat shrinking discharge platform includes a second discharge support. The second transfer device is at least partially located between the first heat-shrinkable discharge platform and the second heat-shrinkable discharge platform. The second transfer device includes a third transfer part and a fourth transfer part. The fourth transfer part includes a fourth positioning support. The first discharge support, the fourth positioning support, and the second discharge support are collinear. The third transfer unit is used to lift and transport the wind power anchor bolts on the first discharge support, the fourth positioning support and the second discharge support to the discharge conveying device.

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