Head changeable high-precision flattening machine

CN224895292UActive Publication Date: 2026-10-27广东玛哈特智能装备有限公司
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Patent Information

Application Number
CN202522581945.3
Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
Filing Date
2025-12-04
Publication Date
2026-10-27
Estimated Expiration
2035-12-04

AI Technical Summary

Technical Problem

[0002]矫平机是用于将工件矫平的设备,现时不同型号的矫平机一般是分别单独制作,制造成本高

Benefits of technology

[0014]与现有技术相比,本实用新型能灵活切换不同型号的机头,矫平机的其它部件不需要重复制造,从而节约制作成本,且操作简单,使用快捷实用。。

✦ Generated by Eureka AI based on patent content.

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Abstract

The utility model discloses head replaceable high accuracy straightener, the middle part of frame is provided with installation platform, and left and right slide plate is installed on the installation platform, and can slide along the left and right of installation platform, left and right drive module is installed on the frame, and upper roll pressure lifting module is installed on the frame and is above installation platform, transmission case is installed on the right side of lower base plate and lower roll pressure wheel, and lower base plate is detachably installed on the top of left and right slide plate, and the output end of upper roll pressure lifting module is downward and detachably fixed with upper base plate, head roll pressure wheel drive module is installed on the right of transmission case on installation platform, and the output end of head roll pressure wheel drive module is connected with the input end of transmission case. The utility model discloses can switch the head of different models flexibly, and other components of straightener do not need to repeat manufacturing, thereby saving the production cost, and simple operation, quick and practical use.
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Description

Technical Field

[0001] This utility model relates to the field of automated leveling, and in particular to a high-precision leveling machine with a replaceable machine head. Background Technology

[0002] A leveling machine is a device used to straighten workpieces. Currently, different models of leveling machines are generally manufactured separately, resulting in high manufacturing costs. Summary of the Invention

[0003] This utility model provides a high-precision leveling machine with a replaceable head to solve the above-mentioned technical problems.

[0004] To achieve the above objectives, this utility model provides the following technical solution: a high-precision leveling machine with a replaceable head, comprising a frame, left and right sliding plates, left and right drive modules, a head, a head roller drive module, and an upper roller lifting module. An installation platform is provided in the middle of the frame. The left and right sliding plates are mounted on the installation platform and can slide left and right along the platform. The left and right drive modules are mounted on the frame and are used to drive the left and right sliding plates to move left and right. The upper roller lifting module is mounted on the frame above the installation platform. The head includes an upper roller assembly, a lower roller assembly, and a transmission box. The upper roller assembly includes an upper base plate, two upper side plates, and several upper rollers. The two upper side plates are vertically fixed to the bottom of the upper base plate in a front-to-back orientation and alternating left and right positions. Each of the two upper side plates has several alternating upper roller shaft holes that penetrate it. The left and right ends of the upper rollers are rotatably inserted into the upper roller shaft holes. The lower roller... The assembly includes a lower base plate, two lower side plates, and several lower rollers. The two lower side plates are vertically fixed to the top of the lower base plate in a front-to-back orientation and alternating left and right orientations. Each of the two lower side plates has several alternating lower roller shaft holes that pass through it. The left and right ends of the lower rollers are respectively rotatably inserted into the lower roller shaft holes. The bottom of the upper side plate abuts against the top of the corresponding lower side plate. The transmission box is installed on the top of the lower base plate to the right of the lower rollers and is used to drive several upper rollers to rotate synchronously and to drive several lower rollers to rotate synchronously in the opposite direction relative to the upper rollers. The lower base plate is detachably installed on the top of the left and right sliding plates. The output end of the upper roller lifting module extends downward and is detachably fixed to the upper base plate to drive the upper base plate to move up and down. The head roller drive module is installed on the mounting platform to the right of the transmission box, and the output end of the head roller drive module is connected to the input end of the transmission box.

[0005] Preferably, a lifting ring is installed on the top of the lower substrate.

[0006] Preferably, the lower base plate has lower positioning holes on the outer sides of the two lower side plates, and the left and right sliding plates have lower positioning posts protruding from the lower positioning holes, with the lower positioning posts inserted into the corresponding lower positioning holes.

[0007] Preferably, the right end of the left and right sliding plates has two positioning notches that are alternately front and back. The mounting platform has a positioning shaft wheel that protrudes upwards corresponding to the positioning notch. The positioning shaft wheel can be accommodated in the positioning notch and abuts against the inner sidewall of the positioning notch.

[0008] Preferably, the upper roller pressing and lifting module includes a lifting base plate, an output plate, and a lifting drive assembly. The lifting drive assembly is mounted on the lifting base plate, and the output end of the lifting drive assembly extends downward and is fixedly connected to the output plate. The bottom of the output plate is detachably fixedly connected to the top of the upper base plate.

[0009] Preferably, the output board has at least two upper positioning holes, and the top of the upper substrate has an upper positioning post protruding upwards from the upper positioning hole, and the upper positioning post is inserted into the corresponding upper positioning hole.

[0010] Preferably, the lifting drive assembly includes at least three drive motors and at least three screw lifters. At least three output holes are evenly provided on the lifting base plate. At least three screw lifters are fixedly installed on the top of the lifting base plate directly opposite the output holes. At least three drive motors are respectively fixedly installed on the top of the lifting base plate on one side of the corresponding screw lifter. The output end of the drive motor is connected to the input end of the screw lifter. The output shaft of the screw lifter passes through the corresponding output hole and is fixedly connected to the top of the output plate.

[0011] Preferably, the present invention further includes at least two upper support pulley assemblies, a plurality of upper support rollers, at least two lower support pulley assemblies, and a plurality of lower support rollers. Each upper support pulley assembly includes a front-to-back upper support base and a plurality of upper support pulleys. The upper support base includes a fixed top base and at least two front-to-back upper support side plates extending alternately downwards from the bottom of the fixed top base. The top of the upper support base is fixed to the bottom of the upper base plate. A plurality of upper pulley shaft holes are alternately formed in the lower part of the upper support base. Both ends of the upper support pulleys are rotatably inserted into the upper pulley shaft holes. The lower ends of the plurality of upper support pulleys are located on the same horizontal plane. A plurality of upper support shaft holes are alternately formed in the two upper side plates above the upper roller pressing shaft holes. Both ends of the upper support rollers are rotatably inserted into the upper support shaft holes. The upper ends of the upper support rollers and the lower ends of the upper support pulleys are aligned. The lower end of the upper support roller abuts against the upper end of the upper pressure roller; the lower support pulley assembly includes a lower support base running front-to-back and a plurality of lower support pulleys. The lower support base includes a fixed base and at least two lower support side plates running front-to-back, extending alternately from the top of the fixed base. The bottom of the lower support base is fixed to the top of the lower base plate. The upper part of the lower support base has a plurality of lower pulley shaft holes running front-to-back. The two ends of the lower support pulleys are rotatably inserted into the lower pulley shaft holes. The upper ends of the plurality of lower support pulleys are located on the same horizontal plane. The two lower side plates have a plurality of lower support shaft holes running front-to-back below the lower pressure roller shaft holes. The two ends of the lower support rollers are respectively rotatably inserted into the lower support shaft holes. The lower end of the lower support roller abuts against the upper end of the lower support pulley, and the upper end of the lower support roller abuts against the lower end of the lower pressure roller.

[0012] Preferably, the mounting platform is equipped with a position sensor on the right side of the left and right sliding plates. When the positioning axle wheel is accommodated in the positioning notch and abuts against the inner wall of the positioning notch, the position sensor senses the right end position of the left and right sliding plates and obtains positioning information.

[0013] Preferably, the top of the output board is provided with a sensor mounting hole, and a top position sensor is installed in the sensor mounting hole. When the bottom of the output board is in contact with the top of the upper substrate, the top position sensor senses the top position of the upper substrate and obtains the positioning information.

[0014] Compared with existing technologies, this invention allows for flexible switching between different machine heads, and eliminates the need for remanufacturing other components of the leveling machine, thus saving manufacturing costs. Furthermore, it is simple to operate and quick and practical to use. Attached Figure Description

[0015] Figure 1 This is a structural diagram of the present invention from the first angle; Figure 2 This is a structural diagram of the present invention from a second angle; Figure 3 This is a structural diagram of the present invention from a third angle; Figure 4 This is a partial structural view of the present invention from a first angle; Figure 5 This is a partial structural view of the present invention from a second angle; Figure 6 This is a structural diagram of the upper roller pressure roller assembly of this utility model from one angle; Figure 7 This is a structural view of the upper roller pressure roller assembly of this utility model from another angle; Figure 8 This is a partial view of the transmission box of this utility model from one angle; Figure 9 for Figure 8 Exploded view; Figure 10 This is a structural diagram of the transmission box of this utility model; Figure 11 for Figure 10 Exploded view; Figure 12 This is a structural view of the key assembly for the transmission box of this utility model from one angle. Figure 13 This is a structural view of the connecting key assembly of the transmission box of this utility model from another angle; Figure 14 This is a structural diagram of the upper roller lifting module of this utility model from one angle; Figure 15 This is a structural diagram of the upper roller lifting module of this utility model from another angle. Detailed Implementation

[0016] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0017] Please see Figures 1-15 The high-precision leveling machine with replaceable machine head of this utility model includes a frame 10, left and right slide plates 20, left and right drive modules 30, machine head 40, machine head roller drive module 50, and upper roller lifting module 60.

[0018] A mounting platform 11 is provided in the middle of the frame 10. Left and right slide rails 111 are mounted on the mounting platform 11. The left and right slide plates 20 are slidably engaged within the left and right slide rails 111. The left and right drive modules 30 are mounted on the frame 10 to drive the left and right slide plates 20 to move left and right. The upper roller pressing lifting module 60 is mounted on the frame 10 above the mounting platform 11. The machine head 40 includes an upper roller pressing roller assembly 41, a lower roller pressing roller assembly 42, and a transmission box. The upper roller pressing roller assembly 41 includes an upper base plate 411, two upper side plates 412, and several upper roller pressing rollers 413. The two upper side plates 412 are vertically fixed to the bottom of the upper base plate 411, running front to back and alternating left and right. Each upper side plate 412 has several upper roller pressing shaft holes 4121 arranged alternately front to back and penetrating through itself. The left and right ends of the upper roller pressing rollers 413 are respectively rotatably inserted into the upper roller pressing shaft holes 4121. The lower roller assembly 42 includes a lower base plate 421, two lower side plates 422 and a plurality of lower rollers 423. The two lower side plates 422 are vertically fixed to the top of the lower base plate 421 in a front-to-back direction and alternating left and right. Each of the two lower side plates 422 has a plurality of lower roller shaft holes 4221 arranged alternately in front-to-back and penetrating through itself. The left and right ends of the lower rollers 423 are respectively rotatably inserted into the lower roller shaft holes 4221. The bottom of the upper side plate 412 abuts against the top of the corresponding lower side plate 422. The transmission box is installed on the top of the lower base plate 421 to the right of the lower roller 423, and is used to drive the upper rollers 413 to rotate synchronously and drive the lower rollers 423 to rotate synchronously in the opposite direction relative to the upper rollers 413. The lower base plate 421 is detachably installed on the top of the left and right slide plates 20. The output end of the upper roller lifting module 60 extends downward and is detachably fixed to the upper base plate 411, and is used to drive the upper base plate 411 to move up and down and provide roller support pressure. The head roller drive module is installed on the mounting platform to the right of the transmission box, and the output end of the head roller drive module is connected to the input end of the transmission box. In this embodiment, the head roller drive module 50 is a drive motor 50. The left and right drive module 30 is a cylinder 301, which is fixedly mounted on the frame 10 below the mounting platform in a left-right direction. The output end of the cylinder 301 extends to the left and is fixedly connected to the left end of the left and right sliding plates 20. Two alternating lifting rings 425 are respectively installed on the front and rear sides of the top of the lower base plate 421. The frame 10 has an output roller 90 and an input roller 95 rotatably mounted on the front and rear sides of the lower roller assembly 42. The upper ends of the input roller 95 and the output roller 90 are on the same horizontal plane as the upper end of the lower roller 423.

[0019] Preferably, the lower base plate 421 has lower positioning holes 4211 respectively on the outer sides of the two lower side plates 422. The left and right sliding plates 20 have lower positioning posts 21 protruding from the lower positioning holes 4211, and the lower positioning posts 21 are inserted into the corresponding lower positioning holes 4211. The right end of the left and right sliding plates 20 has two positioning notches 22 alternating front and rear. The mounting platform 11 has a positioning shaft wheel 12 protruding upward from the positioning notch 22. The positioning shaft wheel 12 can be accommodated in the positioning notch 22 and abuts against the inner sidewall of the positioning notch 22. The mounting platform 11 is equipped with an end position sensor 13 on the right side of the left and right sliding plates 20. When the positioning shaft wheel 12 is accommodated in the positioning notch 22 and abuts against the inner sidewall of the positioning notch 22, the end position sensor 13 senses the right end position of the left and right sliding plates 20 and obtains positioning information.

[0020] Specifically, the upper roller pressing and lifting module 60 includes a horizontal lifting base plate 61, a horizontal output plate 62, and a lifting drive assembly 63. The lifting drive assembly 63 includes four drive motors 631 and four screw lifters 632. The lifting base plate 61 has four evenly spaced output holes 611. The four screw lifters 632 are fixedly installed on the top of the lifting base plate 61, directly opposite the output holes. The four drive motors 631 are respectively fixedly installed on the top of the lifting base plate 61, on one side of the corresponding screw lifter 632. The output end of each drive motor 631 is connected to the input end of the screw lifter 632. The output shaft 6321 of each screw lifter 632 passes through the corresponding output hole and is fixedly connected to the top of the output plate 62. The bottom of the output plate 62 is detachably fixed to the top of the upper base plate 411. In this embodiment, the output board 62 has two upper positioning holes 621. An upper positioning post 4111 protrudes upward from the top of the upper substrate 411, directly opposite the upper positioning holes 621, and is inserted into the corresponding upper positioning hole 621. A sensor mounting hole 622 is provided on the top of the output board 62. A top position sensor 623 is installed in the sensor mounting hole 622. When the bottom of the output board 62 is in contact with the top of the upper substrate 411, the top position sensor 623 senses the top position of the upper substrate 411 and obtains positioning information. In this embodiment, the upper roller pressing and lifting module 60 further includes several spring buffer components 64. Each spring buffer component 64 includes a spring sleeve post 641, a spring pressure cap 642, and a spring 643. The lifting base plate 61 has several sleeve insertion holes 612. The lower end of the spring sleeve post 641 is inserted through the sleeve insertion hole 612 and fixed to the top of the output plate 62. The spring pressure cap 642 is fixed to the upper end of the spring sleeve post 641. The spring 643 is sleeved outside the spring sleeve post 641. The upper end of the spring 643 elastically abuts against the spring pressure cap 642, and the lower end of the spring 643 elastically abuts against the top of the lifting base plate 61. The bottom of the output plate 62 and the top of the upper base plate 411 are detachably fixed to each other by a quick clamp 65.

[0021] Preferably, the present invention further includes three sets of upper support pulley assemblies 70, a plurality of upper support rollers 75, three sets of lower support pulley assemblies 80, and a plurality of lower support rollers 85. The upper support pulley assembly 70 includes a front-to-back upper support seat 71 and a plurality of upper support pulleys 72. The upper support seat 71 includes a fixed top seat 711 and three front-to-back upper support side plates 712 extending alternately downwards from the bottom of the fixed top seat 711. The top of the upper support seat 71 is fixed to the bottom of the upper base plate 411. The upper support side plates 712... The lower part of plate 12 has several upper pulley shaft holes 7121 spaced alternately front and back. The two ends of the upper support pulley 72 are rotatably inserted into the upper pulley shaft holes 7121. The lower ends of the upper support pulleys 72 are located on the same horizontal plane. The two upper side plates 412 have several upper support shaft holes 4122 spaced alternately front and back above the upper roller pressing shaft holes 4121. The two ends of the upper support rollers 75 are rotatably inserted into the upper support shaft holes 4122. The upper end of the upper support roller 75 abuts against the lower end of the upper support pulley 72. The lower end of the upper support roller 75 abuts against the upper end of the upper pressure roller 413; the lower support pulley assembly 80 includes a lower support base 81 running front to back and a plurality of lower support pulleys 82. The lower support base 81 includes a fixed base 811 and three lower support side plates 812 running front to back and extending alternately from the top of the fixed base 811. The bottom of the lower support base 71 is fixed to the top of the lower base plate 421. The upper part of the lower support side plate 812 is provided with a plurality of lower pulley shaft holes 8121 running front to back. Both ends of the support pulley 82 are rotatably inserted into the lower pulley shaft hole 8121. The upper ends of the plurality of lower support pulleys 8121 are located on the same horizontal plane. The two lower side plates 422 have a plurality of lower support shaft holes 4222 alternately arranged below the lower roller pressure shaft hole 4221. Both ends of the lower support roller 85 are rotatably inserted into the lower support shaft holes 4222. The lower end of the lower support roller 85 abuts against the upper end of the lower support pulley 82, and the upper end of the lower support roller 85 abuts against the lower end of the lower roller pressure roller 423. The outer side wall of the upper support roller 75 has a spiral upper groove 751, and the outer side wall of the lower support roller 85 has a spiral lower groove 851. Specifically, the transmission box includes a transmission box body 43, several input gears 44, input drive wheel sets, several output gear sets, and several connecting key assemblies 47. The transmission box body 43 includes a left outer plate 431, a mounting inner plate 432, a right outer plate 433, a top plate 434, a front plate 435, a rear plate 436, and a bottom plate 437. The left outer plate 431, the mounting inner plate 432, and the right outer plate 433 are all arranged vertically from left to right, with the top of the left outer plate 431, the top of the mounting inner plate 432, and the top of the right outer plate 433 all connected to the top plate. The bottom of the top plate 434 is fixedly connected to the front plate 435. The front ends of the left outer plate 431, the inner mounting plate 432, and the right outer plate 433 are all fixedly connected to the front plate 435. The rear ends of the left outer plate 431, the inner mounting plate 432, and the right outer plate 433 are all fixedly connected to the rear plate 436. The bottom of the left outer plate 431, the inner mounting plate 432, the right outer plate 433, the front plate 435, and the rear plate 436 are all fixedly mounted to the top of the bottom plate 437. The bottom plate 437 is fixedly mounted to the top of the lower base plate 421. A lifting ring 438 is also installed on the top of the top plate 434. The input drive gear set includes a drive gear 451 and several input transmission gears 452. The several input gears 44 include two first-stage input gears 441 and several second-stage input gears 442. The output gear set includes an output drive wheel 461, an upper output wheel 462, a lower output wheel 463, and an output transmission wheel 464. The middle part of the mounting inner plate 432 has several input wheel shaft holes 4321 arranged alternately front and back. The upper part of the mounting inner plate 432 has several upper output wheel shaft holes 4322 arranged alternately front and back. The lower part of the mounting inner plate 432 has several lower output wheel shaft holes 4323 arranged alternately front and back. The mounting inner plate 432 has an output transmission wheel shaft hole 4324 between the input wheel shaft holes 4321 and the upper output wheel shaft holes 4322. The mounting inner plate 432 has a drive wheel shaft hole 4325 below the two input wheel shaft holes 4321. The left outer plate 431 has an upper output shaft hole 4311 opposite to the upper output wheel shaft hole 4322, and a lower output shaft hole 4312 opposite to the lower output wheel shaft hole 4323. The shaft of the input gear 44 is rotatably inserted through the input wheel shaft hole 4321 and connected to the output drive wheel 461. The left end of the shaft of the drive gear 451 is rotatably inserted into the drive wheel shaft hole 4325. The drive gear 451 meshes with the two first-stage input gears 441. The input transmission gear 452 is rotatably connected to the right side wall of the mounting inner plate 432 between the first-stage input gear 441 and the adjacent second-stage input gear 442, or between the two adjacent second-stage input gears 442.The output transmission gear 452 meshes with the first-stage input gear 441 and the corresponding second-stage input gear 442, or with two adjacent second-stage input gears 442. The upper output wheel 462 is rotatably inserted into the upper output wheel shaft hole 4322, and the shaft of the upper output wheel 462 is helically inserted to the left through the upper output shaft hole 4311 to form an upper output shaft 4621. The lower output wheel 463 is rotatably inserted into the lower output wheel shaft hole 4323, and the shaft of the lower output wheel 463 is helically inserted to the left through the lower output shaft hole 4312 to form a lower output shaft 4631. The right end of the output transmission wheel 464 is rotatably inserted into the output transmission wheel shaft hole 4324. Both the upper output wheel 462 and the output drive wheel 461 mesh with the output transmission wheel 464. The left outer plate 431 has a first left shaft hole 4313 and a second left shaft hole 4314 respectively, corresponding to the left end of the shaft of the output drive wheel 461 and the left end of the shaft of the output transmission wheel 464. The left ends of the shafts of the output drive wheel 461 and the output transmission wheel 464 are respectively rotatably inserted into the first left shaft hole 4313 and the second shaft hole 4314. The right outer plate 433 has a first right shaft hole 4331, a second right shaft hole 4332, and a third right shaft hole 4333 respectively, corresponding to the right end of the shaft of the drive gear 451, the right end of the shaft of the input transmission gear 452, and the right end of the shaft of the input gear 44. The right ends of the shafts of the drive gear 451, the input transmission gear 452, and the input gear 44 are respectively rotatably inserted into the first right shaft hole 4331, the second right shaft hole 4332, and the third right shaft hole 4333. The right end of the shaft of the drive gear 451 has a gear shaft fixing hole 4511. The rotation of the drive gear 451 drives several input gears 44 to rotate in the same direction, which in turn drives the corresponding output drive wheel 461 to rotate. The output drive wheel 461 then drives the lower output wheel 463 to rotate in the opposite direction. Simultaneously, the output transmission wheel 464 drives the upper output wheel 462 to rotate in the same direction, thus achieving opposite rotations between the upper output wheel 462 and the lower output wheel 463, thereby causing the upper output shaft 4621 and the lower output shaft 4631 to flip relative to each other. The output shaft of the drive motor 50 extends to the left and is fixedly inserted into the gear shaft fixing hole 4511.

[0022] The connecting key assembly 47 includes a left connecting block 471 with a left insertion hole 4711 at its left end, a middle connecting rod 472, and a right connecting block 473 with a right insertion hole 4731 at its right end. The left end of the middle connecting rod 472 is universally connected to the right end of the left connecting block 471, and the right end of the middle connecting rod 472 is universally connected to the left end of the right connecting block 473. A plurality of connecting key assemblies include a plurality of upper connecting key assemblies 4701 and a plurality of lower connecting key assemblies 4702. The upper output shaft 4621 is fixedly inserted into the right insertion hole 4731 of the upper connecting key assembly 4701. The right end of the upper roller pressure roller 413 rotates through the corresponding upper roller pressure shaft hole 4121 and is fixedly inserted into the left insertion hole 4711 of the lower connecting key assembly 4702. The lower output shaft 4631 is fixedly inserted into the right insertion hole 4731 of the lower connecting key assembly 4702. The right end of the lower roller pressure roller 423 rotates through the corresponding lower roller pressure shaft hole 4221 and is fixedly inserted into the left insertion hole 4711 of the upper connecting key assembly 4701. The upper output shaft 4621 is fixedly inserted into the right insertion hole 4731 of the upper connecting key assembly 4701.

[0023] In use, the cylinder 301, end position sensor 13, top position sensor 623, head roller drive module 50, and drive motor 631 are all electrically connected to the control system. When a different model of head 40 needs to be replaced, the quick clamp 65 is opened, the drive motor 631 is started, and the output plate 62 is raised, causing the upper positioning pin 4111 to disengage from the upper positioning hole 621. Then, the cylinder 301 is started, causing the left and right slide plates 20 of the head 40 to slide out along the left and right slide rails 111. Then, the robotic arm is used to lift the head 40 by holding the lifting rings 25 and 438, causing the lower positioning pin 21 to disengage from the lower positioning hole 4211. The original head 40 is then removed. Next, the robotic arm is used to lift the required head 40 and place it on the left and right slide plates 20, allowing the lower positioning pin 21 to insert into the lower positioning hole 4211. Then, the cylinder 301 is started. 1. This causes the left and right slide plates 20 of the new machine head 40 to slide in along the left and right slide rails 111. When the positioning shaft wheel 12 is accommodated in the positioning notch 22 and abuts against the inner sidewall of the positioning notch 22, the end position sensor 13 senses the right end position of the left and right slide plates 20 and obtains the positioning information. After receiving the signal, the control system stops the cylinder 301 from moving, then starts the drive motor 631 to drive the output plate 62 to move down, so that the upper positioning post 4111 is inserted into the upper positioning hole 621. When the bottom of the output plate 62 is in contact with the top of the upper substrate 411, the top position sensor 623 senses the top position of the upper substrate 411 and obtains the positioning information. After receiving the signal, the control system stops the drive motor 631. Finally, the output plate 62 and the upper substrate 411 are locked together with the quick clamp 65.

[0024] This invention allows for flexible switching between different machine heads, eliminating the need for repeated manufacturing of other parts of the leveling machine, thus saving manufacturing costs. It is also simple to operate and quick and practical to use.

[0025] It should be noted that, in addition to being detachably fixed to each other via the quick clamp 65, the output board 62 and the upper substrate 411 can also be detachably connected via screws or other detachable fixing methods. The left and right drive modules 30 can be other drive modules besides the cylinder 301.

[0026] The above description is merely an embodiment of this utility model and does not limit the patent scope of this utility model. Any equivalent structural or procedural transformations made based on the description and drawings of this utility model, or direct or indirect applications in other related technical fields, are similarly included within the patent protection scope of this utility model.

Claims

1. A high-precision leveling machine with a replaceable head, characterized in that: The machine includes a frame, left and right sliding plates, left and right drive modules, a machine head, a machine head roller drive module, and an upper roller lifting module. A mounting platform is located in the middle of the frame. The left and right sliding plates are mounted on the mounting platform and can slide left and right along it. The left and right drive modules are mounted on the frame and drive the left and right sliding plates to move left and right. The upper roller lifting module is mounted on the frame above the mounting platform. The machine head includes an upper roller assembly, a lower roller assembly, and a transmission box. The upper roller assembly includes an upper base plate, two upper side plates, and several upper rollers. The two upper side plates are vertically fixed to the bottom of the upper base plate in a front-to-back orientation and alternating left and right. Each upper side plate has several alternating front-to-back upper roller shaft holes that penetrate it. The left and right ends of each upper roller are rotatably inserted into the upper roller shaft holes. The lower roller assembly includes a lower base plate, two lower side plates, and several lower rollers. The pressure rollers are vertically fixed to the top of the lower base plate with two lower side plates arranged in a front-to-back direction and alternating left and right. Each of the two lower side plates has several lower roller shaft holes arranged in a front-to-back direction and penetrating through itself. The left and right ends of the lower rollers are respectively rotatably inserted into the lower roller shaft holes. The bottom of the upper side plate abuts against the top of the corresponding lower side plate. The transmission box is installed on the top of the lower base plate to the right of the lower rollers and is used to drive several upper rollers to rotate synchronously and drive several lower rollers to rotate synchronously in the opposite direction relative to the upper rollers. The lower base plate is detachably installed on the top of the left and right slide plates. The output end of the upper roller lifting module extends downward and is detachably fixed to the upper base plate to drive the upper base plate to move up and down. The head roller drive module is installed on the mounting platform to the right of the transmission box, and the output end of the head roller drive module is connected to the input end of the transmission box.

2. The high-precision leveling machine with replaceable head as described in claim 1, characterized in that: A lifting ring is installed on the top of the lower substrate.

3. The high-precision leveling machine with replaceable head as described in claim 1, characterized in that: The lower base plate has lower positioning holes on the outer sides of the two lower side plates, and the left and right sliding plates have lower positioning posts protruding from the lower positioning holes, with the lower positioning posts inserted into the corresponding lower positioning holes.

4. The high-precision leveling machine with replaceable machine head according to claim 1, characterized in that: The right end of the left and right sliding plates has two positioning notches that are alternately front and back. The mounting platform has a positioning shaft wheel that protrudes upwards corresponding to the positioning notch. The positioning shaft wheel can be accommodated in the positioning notch and abuts against the inner sidewall of the positioning notch.

5. The high-precision leveling machine with replaceable head as described in claim 1, characterized in that: The upper roller pressing and lifting module includes a lifting base plate, an output plate, and a lifting drive assembly. The lifting drive assembly is mounted on the lifting base plate, and the output end of the lifting drive assembly extends downward and is fixedly connected to the output plate. The bottom of the output plate is detachably fixedly connected to the top of the upper base plate.

6. The high-precision leveling machine with replaceable head as described in claim 5, characterized in that: The output board has at least two upper positioning holes, and the top of the upper substrate has an upper positioning post protruding upwards from the upper positioning hole. The upper positioning post is inserted into the corresponding upper positioning hole.

7. The high-precision leveling machine with replaceable head as described in claim 5, characterized in that: The lifting drive assembly includes at least three drive motors and at least three screw lifters. At least three output holes are evenly provided on the lifting base plate. At least three screw lifters are fixedly installed on the top of the lifting base plate, directly opposite the output holes. At least three drive motors are respectively fixedly installed on the top of the lifting base plate on one side of the corresponding screw lifter. The output end of the drive motor is connected to the input end of the screw lifter. The output shaft of the screw lifter passes through the corresponding output hole and is fixedly connected to the top of the output plate.

8. The high-precision leveling machine with replaceable machine head according to claim 1, characterized in that: It also includes at least two upper support pulley assemblies, a plurality of upper support rollers, at least two lower support pulley assemblies, and a plurality of lower support rollers. Each upper support pulley assembly includes a front-to-back upper support base and a plurality of upper support pulleys. The upper support base includes a fixed top base and at least two front-to-back upper support side plates extending alternately downwards from the bottom of the fixed top base. The top of the upper support base is fixed to the bottom of the upper base plate. A plurality of upper pulley shaft holes are alternately formed in the lower part of the upper support base. Both ends of the upper support pulleys are rotatably inserted into the upper pulley shaft holes. The lower ends of the plurality of upper support pulleys are located on the same horizontal plane. A plurality of upper support shaft holes are alternately formed in the two upper side plates above the upper roller pressing shaft holes. Both ends of the upper support rollers are rotatably inserted into the upper support shaft holes. The upper ends of the upper support rollers abut against the lower ends of the upper support pulleys. The lower end of the upper support roller abuts against the upper end of the upper pressure roller; the lower support pulley assembly includes a lower support base running front-to-back and a plurality of lower support pulleys. The lower support base includes a fixed base and at least two lower support side plates running front-to-back, extending alternately from the top of the fixed base. The bottom of the lower support base is fixed to the top of the lower base plate. A plurality of lower pulley shaft holes are alternately opened in the upper part of the lower support base. The two ends of the lower support pulleys are rotatably inserted into the lower pulley shaft holes. The upper ends of the plurality of lower support pulleys are located on the same horizontal plane. A plurality of lower support shaft holes are alternately opened in the two lower side plates below the lower pressure roller shaft holes. The two ends of the lower support rollers are rotatably inserted into the lower support shaft holes respectively. The lower end of the lower support roller abuts against the upper end of the lower support pulley, and the upper end of the lower support roller abuts against the lower end of the lower pressure roller.

9. The high-precision leveling machine with replaceable head as described in claim 4, characterized in that: The mounting platform is equipped with an end position sensor on the right side of the left and right sliding plates. When the positioning shaft wheel is accommodated in the positioning notch and abuts against the inner wall of the positioning notch, the end position sensor senses the right end position of the left and right sliding plates and obtains positioning information.

10. The high-precision leveling machine with replaceable head as described in claim 5, characterized in that: The top of the output board has a sensor mounting hole, and a top position sensor is installed in the sensor mounting hole. When the bottom of the output board is in contact with the top of the upper substrate, the top position sensor senses the top position of the upper substrate and obtains the positioning information.