Zinc pot roller simulation device and zinc pot roller measuring and adjusting method
By using zinc boiler roll simulation device in zinc boiler roll equipment, the problem of difficulty in measuring position relationship in high-temperature zinc liquid is solved, more precise position adjustment and maintenance is achieved, and the surface of hot-dip galvanized products is improved quality.
Patent Information
- Application Number
- CN202411599938.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-11
- Publication Date
- 2025-02-14
AI Technical Summary
In the prior art, after the installation of the zinc boiler roller equipment is completed, since both the sinking roller body and the stable roller body are immersed in high-temperature zinc liquid, it is difficult to accurately measure its position relationship, resulting in the surface quality of the hot-dip galvanized product being affected and the maintenance difficulty is difficult. Increase.
A zinc boiler roller simulation device is provided, including a sinking roller simulation assembly and a stabilizing roller simulation assembly, through which the simulation assembly is calibrated on an offline calibration rack to determine its actual position in the zinc liquid, thereby assisting in installation positioning and adjustment.
Through the use of the simulation device, the positional relationship between the zinc pot sinking roller and the stabilizing roller can be more conveniently measured and adjusted, which improves position accuracy and reduces maintenance difficulty.
Smart Images

Figure CN119436988A_ABST
Abstract
Description
Technical Field
[0001] The present application belongs to the technical field of auxiliary devices for metallurgical galvanizing production lines, and specifically relates to a zinc pot roller simulation device and a method for measuring and adjusting the zinc pot roller. Background Art
[0002] The zinc pot roller equipment is one of the core equipment of the hot-dip galvanizing unit. The zinc pot roller equipment includes the zinc pot sinking roller, the zinc pot stabilizing roller and the zinc pot correcting roller. When producing hot-dip galvanized products, the sinking roller body in the zinc pot sinking roller, the stabilizing roller body in the zinc pot stabilizing roller and the correcting roller body in the zinc pot correcting roller are all immersed in the molten zinc liquid and rotate at high speed following the running strip steel.
[0003] During the production process, the position accuracy of the zinc pot roller is very important, especially the relative position relationship between the sinking roller and the stabilizing roller, and the position relationship between the sinking roller and the correcting roller, which will directly affect the surface quality of the galvanized product.
[0004] The zinc pot sinking roller specifically includes parts such as a sinking roller beam, a roller arm and a sinking roller body. In the prior art, before installing the zinc pot sinking roller, the zinc pot sinking roller must be installed on an offline calibration frame to calibrate the position of the sinking roller body, and then the calibrated zinc pot sinking roller must be hoisted onto the sinking roller mounting seat at the online position of the galvanizing unit for installation and fixation.
[0005] The installation method of the zinc pot stabilizing roller is the same as the installation method of the zinc pot sinking roller mentioned above. After the calibration is completed on the corresponding calibration frame, it is installed on the stabilizing roller mounting seat and fixed;
[0006] During the installation and fixing process, the positional relationship between the zinc pot sinking roller and the sinking roller mounting seat, as well as the zinc pot stabilizing roller and the stabilizing roller mounting seat, will change due to the matching relationship or the wear of the pin shaft. At this time, the sinking roller body and the stabilizing roller body are both immersed in the zinc liquid above 400 degrees, and the actual positions of the sinking roller body and the stabilizing roller body cannot be determined, and thus the positional relationship between the sinking roller body and the stabilizing roller body cannot be measured. The position data of the sinking roller body and the stabilizing roller body can only be calculated by indirectly measuring the sinking roller mounting seat and the column pins on the stabilizing roller mounting seat with the aid of instruments such as laser trackers, and then the sinking roller mounting seat and the stabilizing roller mounting seat are moved according to the measured position data to adjust the positional relationship between the zinc pot sinking roller and the zinc pot stabilizing roller.
[0007] However, the accuracy of this measurement method is low, and the temperature of the molten zinc in the zinc pot is as high as 400 degrees or more, and the ambient temperature around the zinc pot is also relatively high, which has a great impact on the measurement accuracy of laser instruments, making it extremely difficult to adjust the position of the sinking roller and the stabilizing roller, which in turn increases the difficulty of maintaining the zinc pot roller equipment. Therefore, inventing a device and method that can assist in the installation and positioning of the zinc pot roller equipment is a technical problem that needs to be solved urgently by those skilled in the art. Summary of the invention
[0008] In order to solve the above technical problems, the present application provides a zinc pot roller simulation device on the one hand to solve the technical problem in the prior art that the submerged roller body and the stable roller body are both located in the zinc liquid after installation, and it is difficult to measure the positional relationship between the submerged roller body and the stable roller body, which increases the difficulty of maintaining the hot-dip galvanizing pot roller.
[0009] The technical solution adopted to achieve the purpose of this application is:
[0010] A zinc pot roller simulation device comprises a sinking roller simulation component and a stabilizing roller simulation component;
[0011] The sinking roller simulation assembly comprises a sinking roller simulation bracket and a sinking roller simulation roller, wherein the sinking roller simulation roller is mounted on the mounting end of the sinking roller simulation bracket, and the distance between the axis of the sinking roller simulation roller and the liquid surface in the hot-dip galvanizing pot is greater than or equal to 200 mm;
[0012] The stabilizing roller simulation assembly includes a stabilizing roller simulation bracket and a first stabilizing roller simulation roller, wherein the first stabilizing roller simulation roller is mounted on the mounting end of the stabilizing roller simulation bracket, and the axis of the first stabilizing roller simulation roller is in the same horizontal plane as the axis of the sinking roller simulation roller.
[0013] In order to better realize the present application, further optimization is made in the above structure, wherein the sinking roller simulation bracket includes a sinking roller simulation beam and a sinking roller simulation arm;
[0014] There are two sinking roller simulation arms, the fixed ends of the two sinking roller simulation arms are connected to the sinking roller simulation crossbeam, and the two sinking roller simulation arms are respectively arranged close to the two ends of the sinking roller simulation crossbeam;
[0015] The two ends of the sinking roller simulation roller are respectively mounted on the movable ends of the two sinking roller simulation supporting arms.
[0016] In order to better realize the present application, further optimization is made in the above structure, and a sinking roller simulation fixing seat is provided on the sinking roller simulation support arm, and the end of the sinking roller simulation roller is mounted on the sinking roller simulation fixing seat.
[0017] In order to better realize the present application, further optimization is made in the above structure, wherein the stabilizing roller simulation bracket includes a stabilizing roller simulation beam and a stabilizing roller simulation arm;
[0018] There are two stabilizing roller simulation arms, the fixed ends of the two stabilizing roller simulation arms are connected to the stabilizing roller simulation crossbeam, and the two stabilizing roller simulation arms are respectively arranged close to the two ends of the stabilizing roller simulation crossbeam;
[0019] The two ends of the first stabilizing roller simulation roller are respectively mounted on the movable ends of the two stabilizing roller simulation supporting arms.
[0020] In order to better realize the present application, further optimization is made in the above structure, and a column is provided at the movable end of the stabilizing roller simulation support arm, and the end of the first stabilizing roller simulation roller is mounted on the column.
[0021] In order to better realize the present application, further optimization is made in the above structure, the movable end of the column is provided with a stabilizing roller simulation fixing seat, and the end of the first stabilizing roller simulation roller is mounted on the stabilizing roller simulation fixing seat.
[0022] In order to better realize the present application, further optimization is made in the above structure, wherein the stabilizing roller simulation assembly further includes a second stabilizing roller simulation roller;
[0023] The first stabilizing roller simulation roller and the second stabilizing roller simulation roller are both mounted on the stabilizing roller simulation fixing seat, and the second stabilizing roller simulation roller is located on a side of the first stabilizing roller simulation roller away from the stabilizing roller simulation crossbeam.
[0024] On the other hand, the present application also provides a method for measuring and adjusting a zinc pot roller, the method being implemented by the above-mentioned zinc pot roller simulation device, and the method comprising the following steps:
[0025] The sinking roller simulation assembly is mounted on the sinking roller calibration stand for calibration, so that the axis of the sinking roller simulation roller is parallel to the horizontal plane, and the side of the sinking roller simulation roller away from the sinking roller simulation bracket is tangent to the galvanizing line rolling line;
[0026] The stabilizing roller simulation assembly is mounted on the offline calibration frame for calibrating the stabilizing roller positioning, so that the axis of the second stabilizing roller simulation roller in the stabilizing roller simulation assembly is parallel to the horizontal plane, and the side of the second stabilizing roller simulation roller away from the stabilizing roller simulation roller bracket is tangent to the galvanizing line rolling line; the position of the first stabilizing roller simulation roller is calibrated by the second stabilizing roller simulation roller, so that the axis of the first stabilizing roller simulation roller is parallel to the horizontal plane, and the axis of the first stabilizing roller simulation roller is parallel to the axis of the second stabilizing roller simulation roller;
[0027] After removing the second stabilizing roller simulation roller on the stabilizing roller simulation assembly, the calibrated sinking roller simulation assembly and the stabilizing roller simulation assembly are respectively installed on the sinking roller mounting seat and the stabilizing roller mounting seat on the online position of the galvanizing line, and the actual positions of the zinc pot sinking roller and the zinc pot stabilizing roller can be obtained through the sinking roller simulation roller and the first stabilizing roller simulation roller;
[0028] If the actual positions of the zinc pot sinking roller and the zinc pot stabilizing roller deviate from the standard positions of the zinc pot sinking roller and the zinc pot stabilizing roller, adjust the position of the sinking roller mounting seat so that the axis of the sinking roller simulation roller is parallel to the horizontal plane, and the side of the sinking roller simulation roller away from the sinking roller simulation bracket is tangent to the galvanizing line rolling line, and adjust the position of the stabilizing roller mounting seat so that the axis of the first stabilizing roller simulation roller is parallel to the horizontal plane, and the axis of the first stabilizing roller simulation roller is parallel to the axis of the sinking roller simulation roller, and control the spacing between the first stabilizing roller simulation roller and the sinking roller simulation roller;
[0029] Remove the sinking roller simulation assembly and the stabilizing roller simulation assembly;
[0030] The calibrated zinc pot sinking roller and zinc pot stabilizing roller are respectively mounted on the sinking roller mounting seat and the sinking roller mounting seat and stabilizing roller mounting seat.
[0031] In order to better realize the present application, further optimization is made in the above method, the horizontality of the axis of the sinking roller simulation roller is controlled within the accuracy range of 0.02mm / m; the horizontality of the axis of the first stabilizing roller simulation roller is controlled within the accuracy range of 0.02mm / m.
[0032] It can be known from the above technical scheme that the sinking roller simulation assembly and the stabilizing roller simulation assembly in the zinc pot roller simulation device provided by the present application can replace the zinc pot sinking roller and the zinc pot stabilizing roller and be installed on the sinking roller mounting seat and the stabilizing roller mounting seat of the galvanizing unit online position respectively after calibration. The sinking roller simulation roller and the first stabilizing roller simulation roller are both located on the liquid surface of the zinc liquid in the hot-dip galvanizing pot. The staff can use the sinking roller simulation roller and the first stabilizing roller simulation roller to determine the actual positions of the zinc pot sinking roller and the zinc pot stabilizing roller respectively installed on the sinking roller mounting seat and the stabilizing roller mounting seat, so that the measurement and adjustment of the positions of the zinc pot sinking roller and the zinc pot stabilizing roller are more convenient. After the position adjustment is completed, the sinking roller simulation roller and the first stabilizing roller simulation roller are removed and the calibrated zinc pot sinking roller and zinc pot stabilizing roller are respectively installed on the sinking roller mounting seat and the stabilizing roller mounting seat, so as to easily and quickly complete the position adjustment of the hot-dip galvanizing zinc pot roller and ensure the position accuracy of the hot-dip galvanizing zinc pot roller. BRIEF DESCRIPTION OF THE DRAWINGS
[0033] Figure 1 A side view of a zinc pot roller simulation device provided in the present application;
[0034] Figure 2 A top view of a zinc pot roller simulation device provided in this application;
[0035] Figure 3 A side view of a sinking roller simulation bracket in a zinc pot roller simulation device provided in the present application;
[0036] Figure 4 A top view of a sinking roller simulation assembly in a zinc pot roller simulation device provided in the present application;
[0037] Figure 5 A front view of a sinking roller simulation assembly in a zinc pot roller simulation device provided in the present application;
[0038] Figure 6 A side view of a stabilizing roller simulation bracket in a zinc pot roller simulation device provided in the present application;
[0039] Figure 7 A top view of a stabilizing roller simulation assembly in a zinc pot roller simulation device provided in the present application;
[0040] Figure 8 A front view of a stabilizing roller simulation assembly in a zinc pot roller simulation device provided in the present application.
[0041] Description of reference numerals:
[0042] 1-sinking roller simulation assembly, 11-sinking roller simulation bracket, 111-sinking roller simulation beam, 112-sinking roller simulation support arm, 113-sinking roller simulation fixed seat, 12-sinking roller simulation roller;
[0043] 2-stable roller simulation component, 21-stable roller simulation bracket, 211-stable roller simulation beam, 212-stable roller simulation support arm, 213-stable roller simulation fixed seat, 214-column, 22-first stable roller simulation roller, 23-second stable roller simulation roller. DETAILED DESCRIPTION
[0044] In order to enable technicians in the technical field to which the present application belongs to understand the present application more clearly, the technical solution of the present application is described in detail below through specific embodiments in conjunction with the accompanying drawings.
[0045] In the embodiments of the present application, Figures 1 to 8 As shown, the zinc pot roller simulation device includes a sinking roller simulation component 1 and a stabilizing roller simulation component 2; wherein,
[0046] The sinking roller simulation assembly 1 comprises a sinking roller simulation bracket 11 and a sinking roller simulation roller 12. The sinking roller simulation roller 12 is mounted on the mounting end of the sinking roller simulation bracket 11. The distance between the axis of the sinking roller simulation roller 12 and the liquid surface in the hot-dip galvanizing pot is greater than or equal to 200 mm.
[0047] The stabilizing roller simulation assembly 2 includes a stabilizing roller simulation bracket 21 and a first stabilizing roller simulation roller 22. The first stabilizing roller simulation roller 22 is mounted on the mounting end of the stabilizing roller simulation bracket 21. The axis of the first stabilizing roller simulation roller 22 is in the same horizontal plane as the axis of the sinking roller simulation roller 12.
[0048] Before adjusting the positions of the sinking roller mounting seat and the stabilizing roller mounting seat, the sinking roller simulation component 1 and the stabilizing roller simulation component 2 may be installed on an offline calibration frame for calibration;
[0049] During the calibration process, the axis of the sinking roller simulation roller 12 is parallel to the horizontal plane, and the side of the sinking roller simulation roller 12 away from the sinking roller simulation bracket 11 is tangent to the galvanizing line rolling line. At the same time, the axis of the first stabilizing roller simulation roller 22 is parallel to the horizontal plane, and the axis of the first stabilizing roller simulation roller 22 is parallel to the galvanizing line rolling line. Figure 1 ;
[0050] After the calibration is completed, the side of the sinking roller simulation roller 12 on the calibration frame away from the sinking roller simulation bracket 11 is located in the same vertical plane as the working side of the sinking roller body in the zinc pot sinking roller (the side where the sinking roller body is in contact with the galvanizing line rolling line), that is, the position of the working side of the sinking roller body can be determined by the side of the sinking roller simulation roller 12 away from the sinking roller simulation bracket 11; the side of the first stabilizing roller simulation roller 22 away from the stabilizing roller simulation bracket 21 is located in the same vertical plane as the working side of the stabilizing roller body in the zinc pot stabilizing roller (the side where the stabilizing roller body is in contact with the galvanizing line rolling line), that is, the position of the working side of the stabilizing roller body can be determined by the side of the first stabilizing roller simulation roller 22 away from the stabilizing roller simulation bracket 21;
[0051] After the calibration is completed, the sinking roller simulation component 1 and the stabilizing roller simulation component 2 are respectively installed on the sinking roller mounting seat and the stabilizing roller mounting seat on the line position of the galvanizing line. At this time, the sinking roller simulation roller 12 and the first stabilizing roller simulation roller 22 are both located above the zinc liquid. The staff can obtain the actual position of the working side of the zinc pot sinking roller and the working side of the zinc pot stabilizing roller through the sinking roller simulation roller 12 and the first stabilizing roller simulation roller 22;
[0052] If the actual positions of the working side of the zinc pot sinking roller and the working side of the zinc pot stabilizing roller do not meet the requirements, that is, the actual positions of the zinc pot sinking roller and the zinc pot stabilizing roller deviate from the standard positions of the zinc pot sinking roller and the zinc pot stabilizing roller, the staff can adjust the actual positions of the sinking roller simulation roller 12 and the first stabilizing roller simulation roller 22 by adjusting the sinking roller mounting seat and the stabilizing roller mounting seat, so that the positions of the side of the sinking roller simulation roller 12 away from the sinking roller simulation bracket 11 and the side of the first stabilizing roller simulation roller 22 away from the stabilizing roller simulation bracket 21 meet the requirements;
[0053] Then the sinking roller simulation roller 12 and the first stabilizing roller simulation roller 22 on the sinking roller mounting seat and the stabilizing roller mounting seat can be removed, and the calibrated zinc pot sinking roller and the zinc pot stabilizing roller can be installed on the sinking roller mounting seat and the stabilizing roller mounting seat respectively to complete the position adjustment of the zinc pot sinking roller and the zinc pot stabilizing roller, and the adjustment process can be carried out using measuring tools such as feeler gauges and gauge blocks to make the adjustment of the position of the hot-dip galvanizing zinc pot roller more convenient and to ensure the position accuracy of the hot-dip galvanizing zinc pot roller.
[0054] The axis of the sinking roller simulation roller 12 is set at a position more than 200 mm above the liquid level in the hot-dip galvanizing pot to facilitate the staff to carry out measurement work, so as to make the measurement of the zinc pot roller simulation device more convenient.
[0055] In some embodiments, the above-mentioned sinking roller simulation support 11 includes a sinking roller simulation beam 111 and a sinking roller simulation support arm 112, see Figures 3 to 5 ;in,
[0056] The structure of the sinking roller simulation beam 111 is exactly the same as the structure of the beam used to support the sinking roller body in the zinc pot sinking roller. There are two sinking roller simulation arms 112. The fixed ends of the two sinking roller simulation arms 112 are connected to the sinking roller simulation beam 111, and the two sinking roller simulation arms 112 are respectively arranged near the two ends of the stabilizing roller simulation beam 211.
[0057] In this embodiment, the diameter of the sinking roller simulation roller 12 is 40 mm and the length is 1800 mm, which is smaller than the sinking roller body. The installation position of the fixed end of the sinking roller simulation support arm 112 is the same as the installation position of the support arm in the sinking roller body. Therefore, the sinking roller simulation support arm 112 is set to be "L" shaped, and the movable end of the sinking roller simulation support arm 112 extends toward the center direction of the sinking roller simulation cross beam 111, shortening the distance between the movable ends of the two sinking roller simulation support arms 122, so that the sinking roller simulation The distance between the two movable ends of the support arm 112 matches the length of the sinking roller simulation roller 12, so that the two ends of the sinking roller simulation roller 12 can be respectively installed on the movable ends of the two sinking roller simulation support arms 112, and the plane where the sinking roller simulation support arms 112 are located is parallel to the horizontal plane, ensuring the parallelism of the sinking roller simulation roller 12 after installation. When adjusting the sinking roller simulation roller 12, only fine-tuning is required to make the axis of the sinking roller simulation roller 12 parallel to the horizontal plane, thereby reducing the calibration difficulty of the sinking roller simulation assembly 1.
[0058] In some embodiments, a sinking roller simulation fixing seat 113 is provided on the above-mentioned sinking roller simulation support arm 112, and the end of the sinking roller simulation roller 12 is provided on the sinking roller simulation fixing seat 113;
[0059] During the calibration process, the position of the axis of the sinking roller simulation roller 12 can be adjusted by adjusting the positions of the two sinking roller simulation fixing seats 113, such as adjusting the horizontality of the axis of the sinking roller simulation roller 12 by padding (laying washers, etc.), and adjusting the positional relationship between the axis of the sinking roller simulation roller 12 and the galvanizing line rolling line by moving forward and backward (close to or away from the sinking roller simulation crossbeam 111);
[0060] By the above method, the axis of the sinking roller simulation roller 12 can be easily adjusted to be parallel to the horizontal plane, and the side of the sinking roller simulation roller 12 away from the sinking roller simulation beam 111 is tangent to the galvanizing line rolling line.
[0061] In some embodiments, the above-mentioned stabilizing roller simulation support 21 includes a stabilizing roller simulation crossbeam 211 and a stabilizing roller simulation support arm 212, see Figures 6 to 8 ;in,
[0062] The structure of the simulated cross beam 211 of the stabilizing roller is exactly the same as the structure of the cross beam used to support the stabilizing roller body in the zinc pot stabilizing roller. There are two simulated arms 212 of the stabilizing roller. The fixed ends of the two simulated arms 212 of the stabilizing roller are connected to the simulated cross beam 211 of the stabilizing roller, and the two simulated arms 212 of the stabilizing roller are respectively arranged near the two ends of the simulated cross beam 211 of the stabilizing roller.
[0063] In this embodiment, the diameter of the first stabilizing roller simulation roller is 40 mm and the length is 1800 mm, which is smaller than the stabilizing roller body, and the installation position of the fixed end of the stabilizing roller simulation arm 212 is the same as the installation position of the arm of the stabilizing roller body. Therefore, the stabilizing roller simulation arm 212 is set to be "L"-shaped, and the movable end of the stabilizing roller simulation arm 212 extends toward the center direction of the stabilizing roller simulation beam 211, shortening the spacing between the movable ends of the two stabilizing roller simulation arms 212, so that the distance between the two movable ends of the stabilizing roller simulation arm 212 matches the length of the first stabilizing roller simulation roller 22, so that the two ends of the first stabilizing roller simulation roller 22 can be respectively installed on the movable ends of the two stabilizing roller simulation arms 212, and the plane where the stabilizing roller simulation arm 212 is located is parallel to the horizontal plane, ensuring the parallelism of the simulation roller B22 after installation. During adjustment, only fine-tuning is required to make the axis of the simulation roller B22 parallel to the horizontal plane, so as to reduce the calibration difficulty of the stabilizing roller simulation component 2.
[0064] Since the height of the stabilizing roller mounting seat on the galvanizing line is lower than that of the sinking roller mounting seat, in order to ensure that the first stabilizing roller simulation roller 22 is located above the zinc liquid and the axis of the first stabilizing roller simulation roller 22 is in the same horizontal plane as the axis of the sinking roller simulation roller 12, a column 214 is provided at the movable end of the stabilizing roller simulation arm 212, and the length direction of the column 214 is perpendicular to the plane where the stabilizing roller simulation arm 212 is located. The end of the first stabilizing roller simulation roller 22 is rotatably set on the column 214 to increase the height of the first stabilizing roller simulation roller 22, thereby ensuring that the position of the first stabilizing roller simulation roller 22 can extend above the liquid surface of the zinc liquid, and the axis of the first stabilizing roller simulation roller 22 is in the same horizontal plane as the axis of the sinking roller simulation roller 12, so as to facilitate the measurement and adjustment of the spacing between the first stabilizing roller simulation roller 22 and the sinking roller simulation roller 12.
[0065] In some embodiments, the movable end of the above-mentioned column 214 is provided with a stabilizing roller simulation fixing seat 213, and the end of the first stabilizing roller simulation roller 22 is provided on the stabilizing roller simulation fixing seat 213;
[0066] During the calibration process, the position of the axis of the first stabilizing roller simulation roller 22 can be adjusted by adjusting the positions of the two stabilizing roller simulation fixing seats 213, such as adjusting the horizontality of the axis of the first stabilizing roller simulation roller 22 by raising it (laying washers, etc.), and adjusting the positional relationship between the axis of the first stabilizing roller simulation roller 22 and the galvanizing line rolling line by moving it forward and backward (close to or away from the stabilizing roller simulation crossbeam 211);
[0067] By the above method, the axis of the first stabilizing roller simulation roller 22 can be easily adjusted to be parallel to the horizontal plane, and the side of the first stabilizing roller simulation roller 22 away from the stabilizing roller simulation beam 211 is parallel to the galvanizing line rolling line.
[0068] In order to better adjust and confirm the position of the second stabilizing roller simulation roller 23, the above-mentioned stabilizing roller simulation assembly 2 also includes a second stabilizing roller simulation roller 23, see Figure 7 ;in,
[0069] The first stabilizing roller simulation roller 22 and the second stabilizing roller simulation roller 23 are both mounted on the mounting end of the stabilizing roller simulation bracket 21, that is, on the above-mentioned stabilizing roller simulation fixing seat 213, and the second stabilizing roller simulation roller 23 is located on the side of the first stabilizing roller simulation roller 22 away from the stabilizing roller simulation crossbeam 211;
[0070] During the calibration process, the position of the second stabilizing roller simulation roller 23 can be adjusted so that the side away from the first stabilizing roller simulation roller 22 is tangent to the galvanizing line rolling line, and then the distance between the first stabilizing roller simulation roller 22 and the second stabilizing roller simulation roller 23 is adjusted to ensure that the side of the first stabilizing roller simulation roller 22 away from the stabilizing roller simulation beam 211 is parallel to the galvanizing line rolling line.
[0071] At the same time, when the axis of the first stabilizing roller simulation roller 22 and the axis of the sinking roller simulation roller 12 are in the same horizontal plane, the second stabilizing roller simulation roller 23 and the sinking roller simulation roller 12 have the characteristic of coinciding the axis;
[0072] In order to avoid the interference between the second stabilizing roller simulation roller 23 and the sinking roller simulation roller 12 when the sinking roller simulation component 1 and the stabilizing roller simulation component 2 are installed on the sinking roller mounting seat and the stabilizing roller mounting seat, after completing the calibration of the stabilizing roller simulation component 2, the second stabilizing roller simulation roller 22 in the stabilizing roller simulation component 2 can be removed, and then the sinking roller simulation component 1 and the stabilizing roller simulation component 2 can be installed on the sinking roller mounting seat and the stabilizing roller mounting seat respectively, and the distance between the sinking roller simulation roller 12 and the first stabilizing roller simulation roller 22 is adjusted to ensure that the axis of the sinking roller simulation roller 12 is parallel to the axis of the first stabilizing roller simulation roller 22, and the distance between the working side of the zinc pot sinking roller and the working side of the zinc pot stabilizing roller is determined.
[0073] It should be noted that the distance between the working side of the zinc pot sinking roller and the working side of the zinc pot stabilizing roller is equal to the distance between the sinking roller simulation roller 12 and the first stabilizing roller simulation roller 22 plus the diameter of the sinking roller simulation roller 12; the distance between the sinking roller simulation roller 12 and the first stabilizing roller simulation roller 22 refers to the distance between the side of the sinking roller simulation roller 12 facing the first stabilizing roller simulation roller 22 and the side of the first stabilizing roller simulation roller 22 facing the sinking roller simulation roller 12.
[0074] In some embodiments, the horizontality of the axis of the above-mentioned sinking roller simulation roller 12 is controlled within a precision range of 0.02 mm / m; the horizontality of the axis of the first stabilizing roller simulation roller 22 is controlled within a precision range of 0.02 mm / m.
[0075] Based on the above method, the positional relationship between the correction roller body and the sinking roller body can also be determined. Based on the above idea, a correction roller simulation component for replacing the zinc pot correction roller is set, and the position of the correction roller simulation roller in the correction roller simulation component and the positional relationship between the correction roller simulation roller and the first stabilizing roller simulation roller 22 are calibrated;
[0076] Then install the calibrated correction roller simulation assembly on the correction roller mounting seat on the galvanizing line, and adjust the position relationship between the correction roller simulation roller and the first stabilizing roller simulation roller 22 and the position relationship between the correction roller simulation roller and the galvanizing line rolling line by moving the correction roller mounting seat;
[0077] After the position of the correction roller simulation roller is determined, the correction roller simulation assembly is removed from the correction roller mounting seat, and the zinc pot correction roller is mounted on the correction roller mounting seat to complete the adjustment of the position of the correction roller mounting seat.
[0078] Through the above embodiments, the present application has the following beneficial effects or advantages:
[0079] The sinking roller simulation component 1 and the stabilizing roller simulation component 2 in the zinc pot roller simulation device can replace the zinc pot sinking roller and the zinc pot stabilizing roller and be installed on the sinking roller mounting seat and the stabilizing roller mounting seat of the galvanizing unit online position respectively after calibration. The sinking roller simulation roller 12 and the first stabilizing roller simulation roller 22 are both located on the liquid surface of the zinc liquid in the hot-dip galvanizing pot. The staff can use the sinking roller simulation roller 12 and the first stabilizing roller simulation roller 22 to determine the actual positions of the zinc pot sinking roller and the zinc pot stabilizing roller respectively installed on the sinking roller mounting seat and the stabilizing roller mounting seat, making it more convenient to measure and adjust the positions of the zinc pot sinking roller and the zinc pot stabilizing roller. After the position adjustment is completed, the sinking roller simulation roller 12 and the first stabilizing roller simulation roller 22 are removed and the calibrated zinc pot sinking roller and zinc pot stabilizing roller are respectively installed on the sinking roller mounting seat and the stabilizing roller mounting seat, so as to easily and quickly complete the position adjustment of the hot-dip galvanizing zinc pot roller and ensure the position accuracy of the hot-dip galvanizing zinc pot roller.
[0080] Although the preferred embodiments of the present application have been described, those skilled in the art may make other changes and modifications to these embodiments once they have learned the basic creative concept. Therefore, the appended claims are intended to be interpreted as including the preferred embodiments and all changes and modifications that fall within the scope of the present application.
[0081] Obviously, those skilled in the art can make various changes and modifications to the present application without departing from the spirit and scope of the present application. Thus, if these modifications and variations of the present application fall within the scope of the claims of the present application and their equivalents, the present application is also intended to include these modifications and variations.
Claims
1. A zinc pot roller simulation device, characterized in that: It comprises a sinking roller simulation component (1) and a stabilizing roller simulation component (2); The sinking roller simulation assembly (1) comprises a sinking roller simulation bracket (11) and a sinking roller simulation roller (12), wherein the sinking roller simulation roller (12) is mounted on the mounting end of the sinking roller simulation bracket (11), and the distance from the axis of the sinking roller simulation roller (12) to the liquid surface in the hot-dip galvanizing pot is greater than or equal to 200 mm; The stabilizing roller simulation component (2) comprises a stabilizing roller simulation bracket (21) and a first stabilizing roller simulation roller (22), wherein the first stabilizing roller simulation roller (22) is mounted on the mounting end of the stabilizing roller simulation bracket (21), and the axis of the first stabilizing roller simulation roller (22) is in the same horizontal plane as the axis of the sinking roller simulation roller (12).
2. The zinc pot roller simulation device according to claim 1, characterized in that: The sinking roller simulation support (11) comprises a sinking roller simulation crossbeam (111) and a sinking roller simulation support arm (112); There are two sinking roller simulation arms (112), the fixed ends of the two sinking roller simulation arms (112) are connected to the sinking roller simulation crossbeam (111), and the two sinking roller simulation arms (112) are respectively arranged close to the two ends of the sinking roller simulation crossbeam (111); The two ends of the sinking roller simulation roller (12) are respectively mounted on the movable ends of the two sinking roller simulation supporting arms (112).
3. The zinc pot roller simulation device according to claim 2, characterized in that: A sinking roller simulation fixing seat (113) is provided on the sinking roller simulation support arm (112), and the end of the sinking roller simulation roller (12) is mounted on the sinking roller simulation fixing seat (113).
4. The zinc pot roller simulation device according to claim 1, characterized in that: The stabilizing roller simulation support (21) comprises a stabilizing roller simulation crossbeam (211) and a stabilizing roller simulation support arm (212); There are two stabilizing roller simulation arms (212), the fixed ends of the two stabilizing roller simulation arms (212) are both connected to the stabilizing roller simulation crossbeam (211), and the two stabilizing roller simulation arms (212) are respectively arranged close to the two ends of the stabilizing roller simulation crossbeam (211); The two ends of the first stabilizing roller simulation roller (22) are respectively mounted on the movable ends of the two stabilizing roller simulation arms (212).
5. The zinc pot roller simulation device according to claim 4, characterized in that: A column (214) is provided at the movable end of the stabilizing roller simulation support arm (212), and an end of the first stabilizing roller simulation roller (22) is mounted on the column (214).
6. The zinc pot roller simulation device according to claim 5, characterized in that: A stabilizing roller simulation fixing seat (213) is provided at the movable end of the column (214), and the end of the first stabilizing roller simulation roller (22) is mounted on the stabilizing roller simulation fixing seat (213).
7. The zinc pot roller simulation device according to claim 6, characterized in that: The stabilizing roller simulation assembly (2) further comprises a second stabilizing roller simulation roller (23); The first stabilizing roller simulation roller (22) and the second stabilizing roller simulation roller (23) are both mounted on the stabilizing roller simulation fixed seat (213), and the second stabilizing roller simulation roller (23) is located on a side of the first stabilizing roller simulation roller (22) away from the stabilizing roller simulation crossbeam (211).
8. A method for measuring and adjusting a zinc pot roller, characterized in that: The method is implemented by the zinc pot roller simulation device according to any one of claims 1 to 7, and the method comprises the following steps: The sinking roller simulation assembly (1) is mounted on the sinking roller calibration frame for calibration, so that the axis of the sinking roller simulation roller (12) is parallel to the horizontal plane, and the side of the sinking roller simulation roller (12) away from the sinking roller simulation bracket (11) is tangent to the galvanizing line rolling line; The stabilizing roller simulation component (2) is mounted on the offline calibration frame for stabilizing roller positioning and calibration, so that the axis of the second stabilizing roller simulation roller (23) in the stabilizing roller simulation component (2) is parallel to the horizontal plane, and the side of the second stabilizing roller simulation roller (23) away from the stabilizing roller simulation roller bracket (21) is tangent to the galvanizing line rolling line; the position of the first stabilizing roller simulation roller (22) is calibrated by the second stabilizing roller simulation roller (23), so that the axis of the first stabilizing roller simulation roller (22) is parallel to the horizontal plane, and the axis of the first stabilizing roller simulation roller (22) is parallel to the axis of the second stabilizing roller simulation roller (23); After removing the second stabilizing roller simulation roller (23) on the stabilizing roller simulation component (2), the calibrated sinking roller simulation component (1) and the stabilizing roller simulation component (2) are respectively installed on the sinking roller mounting seat and the stabilizing roller mounting seat on the online position of the galvanizing line, and the actual positions of the zinc pot sinking roller and the zinc pot stabilizing roller can be obtained through the sinking roller simulation roller (12) and the first stabilizing roller simulation roller (22); If the actual positions of the zinc pot sinking roller and the zinc pot stabilizing roller deviate from the standard positions of the zinc pot sinking roller and the zinc pot stabilizing roller, adjust the position of the sinking roller mounting seat so that the axis of the sinking roller simulation roller (12) is parallel to the horizontal plane, and the side of the sinking roller simulation roller (12) away from the sinking roller simulation bracket (11) is tangent to the galvanizing line rolling line, and adjust the position of the stabilizing roller mounting seat so that the axis of the first stabilizing roller simulation roller (22) is parallel to the horizontal plane, and the axis of the first stabilizing roller simulation roller (22) is parallel to the axis of the sinking roller simulation roller (12), and at the same time control the distance between the first stabilizing roller simulation roller (22) and the sinking roller simulation roller (12); Remove the sinking roller simulation assembly (1) and the stabilizing roller simulation assembly (2); The calibrated zinc pot sinking roller and zinc pot stabilizing roller are respectively mounted on the sinking roller mounting seat and the sinking roller mounting seat and stabilizing roller mounting seat.
9. The method for measuring and adjusting the zinc pot roller according to claim 8, characterized in that: The horizontality of the axis of the sinking roller simulation roller (12) is controlled within an accuracy range of 0.02 mm / m; and the horizontality of the axis of the first stabilizing roller simulation roller (22) is controlled within an accuracy range of 0.02 mm / m.