Annealing tension control device of etching strip annealing furnace
By setting up front S-roller group and rear S-roller group in the annealing furnace, combining jumping rollers and adjusting cylinders, tension control of the etching strips is achieved, the problem of insufficient tension in the prior art is solved, the demand for low-temperature high-tension annealing is met, and the annealing quality is improved.
Patent Information
- Application Number
- CN202421667279.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-07-15
- Publication Date
- 2025-04-29
- Estimated Expiration
- 2034-07-15
AI Technical Summary
The prior art cannot meet the process conditions for high tension annealing of etched strips at low temperatures, and the tension of the rollers is insufficient.
An annealing tension control device for an etching tape annealing furnace is designed. By setting a front-health S-roll group and a rear-health S-roll group in the annealing furnace, the combined structure of multiple front-health rollers and post-health rollers is used to combine the jumping rollers and the adjustment cylinder to achieve tension control of the etching tape.
Low-temperature high-tension annealing of the etched strip is achieved, which meets the tension control needs of etched strip production and improves the annealing quality.
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Figure CN222809516U_ABST
Abstract
Description
Technical Field
[0001] The utility model belongs to the technical field of etching strip production, and more specifically relates to an annealing tension control device for an etching strip annealing furnace. Background Art
[0002] To support the development of etched strip materials, the etched strips need to undergo low-temperature annealing after finishing. Annealing is achieved by passing the etched strips through an annealing furnace. However, during the annealing operation, the roller tension does not meet the actual usage requirements. The low-tension annealing process cannot meet the process conditions for low-temperature, high-tension annealing of the etched strip materials.
[0003] In the prior art, there is a technology named "A tension control device for an annealing furnace" and with a publication number of "CN206486575U". This technology discloses a tension control device for an annealing furnace, which includes an annealing furnace, a control motor and a control device. A front tension roller device and a tension testing mechanism are provided on the inlet side of the annealing furnace, and a rear tension roller device is provided on the outlet side of the annealing furnace. The front tension roller device includes a frame A and a front tension roller, and the front tension roller is provided on the frame A. The rear tension roller device includes a frame B and a rear tension roller, and the rear tension roller is provided on the frame B. The front tension roller and the rear tension roller are respectively connected to the control motor and driven to rotate by the control motor; the tension testing mechanism includes a frame C, a guide roller, a tension measuring roller and a pressure sensor. The design of the tension measuring roller, the pressure sensor, the control device and the control motor facilitates the control of the degree of stretching of the metal plate.
[0004] However, this technology does not involve the technical problems and technical solutions of the present application. Utility Model Content
[0005] The technical problem to be solved by the utility model is: in view of the deficiencies of the existing technology, an annealing tension control device for an etching strip annealing furnace is provided, which has a simple structure, increases the tension of the etching strip during annealing treatment, realizes low-temperature and high-tension annealing, and meets the production requirements of the etching strip.
[0006] To solve the above-mentioned technical problems, the technical solution adopted by the present invention is:
[0007] The utility model discloses an annealing tension control device for an etched strip annealing furnace. The annealing furnace comprises an etched strip inlet section and an etched strip outlet section. A furnace front S roller group is arranged near the etched strip inlet section in the annealing furnace, the furnace front S roller group is arranged between the etched strip inlet section and a jumping roller, and a furnace rear S roller group is arranged near the etched strip outlet section in the annealing furnace.
[0008] The furnace front S roller group includes multiple furnace front rollers, which are installed on the furnace front mounting frame; the furnace rear S roller group includes multiple furnace rear rollers, which are installed on the furnace rear mounting frame.
[0009] The multiple furnace front rollers of the furnace front S roller group include a driving furnace front roller and multiple driven furnace front rollers, and the multiple furnace rear rollers of the furnace rear S roller group include a driving furnace rear roller and multiple driven furnace rear rollers.
[0010] The annealing furnace is further provided with a heating zone and a cooling zone. An isolation plate is provided on the side of the heating zone close to the dancing roller, an isolation plate is provided on the side of the heating zone close to the cooling zone, and an isolation plate is provided on the side of the cooling zone close to the S roller group behind the furnace.
[0011] The heating zone is located behind the dancing roller, and the cooling zone is located behind the heating zone.
[0012] The dancing roller is connected to an adjusting cylinder, and the adjusting cylinder is fixedly arranged on a bottom base inside the annealing furnace.
[0013] The etched strip is configured to be able to sequentially bypass the multiple furnace rollers of the furnace S roller group, and the etched strip bypassing the multiple furnace rollers of the furnace S roller group is configured to be able to bypass the dancer roller 5.
[0014] The etched strip that bypasses the dancing roller is configured to pass through the heating zone and the cooling zone in sequence, and the etched strip that passes through the cooling zone is configured to bypass multiple post-furnace rollers of the post-furnace S roller group.
[0015] A heater is arranged in the heating zone, and a cooler is arranged in the cooling zone.
[0016] The technical solution of this utility model is adopted, and the working principle and beneficial effects are as follows:
[0017] The annealing tension control device for an etched strip annealing furnace described in the utility model is configured to select an annealing furnace, wherein the annealing furnace includes an etched strip inlet section and an etched strip outlet section. The etched strip inlet section is used for the etched strip to enter for annealing, and the etched strip outlet section is used for the etched strip to exit for annealing. A furnace front S roller group is arranged near the etched strip inlet section inside the annealing furnace. In this way, when the etched strip passes through the furnace front S roller group, it sequentially bypasses each furnace front roller of the furnace front S roller group. The furnace front S roller group is arranged between the etched strip inlet section 2 and the jumping roller. The etched strip that bypasses each furnace front roller also bypasses the jumping roller, thereby achieving tension control and preventing the etched strip from loosening. A furnace rear S roller group is arranged near the etched strip outlet section 3 inside the annealing furnace. The etched strip also sequentially bypasses multiple furnace rear rollers of the furnace rear S roller group. The speed and driving force of the etched strip after entering the annealing furnace are controlled by the S-roller group in front of the furnace, and the speed and driving force of the etched strip when leaving the annealing furnace are controlled by the S-roller group in the back of the furnace. Reliable tension is formed on the etched strip between the S-roller group in front of the furnace and the S-roller group in the back of the furnace to achieve large tension control. In addition, the tension can be adjusted according to the model and size of the etched strip to meet the tension control during the production of the etched strip and improve the annealing quality of the etched strip. BRIEF DESCRIPTION OF THE DRAWINGS
[0018] The following is a brief description of the contents and symbols in the drawings of this specification:
[0019] Figure 1 This is a schematic structural diagram of the annealing tension control device for an etching strip annealing furnace according to the present invention;
[0020] The marks in the accompanying drawings are: 1. annealing furnace; 2. etching strip inlet section; 3. etching strip outlet section; 4. S-roller group in front of the furnace; 5. jumping roller; 6. S-roller group behind the furnace; 7. roller in front of the furnace; 8. mounting frame in front of the furnace; 9. roller behind the furnace; 10. mounting frame behind the furnace; 11. heating zone; 12. cooling zone; 13. adjusting cylinder; 14. etching strip; 15. bottom base; 16. isolation plate. DETAILED DESCRIPTION
[0021] The following is a detailed description of the embodiments of the present invention, such as the shapes, structures, positions and connections of the various components involved, the functions and working principles of the various components, etc., by referring to the accompanying drawings.
[0022] As attached Figure 1As shown, the utility model is an annealing tension control device for an etched strip annealing furnace. The annealing furnace 1 includes an etched strip inlet section 2 and an etched strip outlet section 3. A front-of-furnace S-roller group 4 is arranged near the etched strip inlet section 2 inside the annealing furnace 1. The front-of-furnace S-roller group 4 is arranged between the etched strip inlet section 2 and a jumping roller 5. A rear-of-furnace S-roller group 6 is arranged near the etched strip outlet section 3 inside the annealing furnace 1. The above structure addresses the shortcomings of the existing technology and proposes an improved technical solution. When setting up the structure, the annealing furnace 1 is selected. The annealing furnace 1 includes an etched strip inlet section 2 and an etched strip outlet section 3. The etched strip inlet section 2 is used for the etched strip to enter for annealing, and the etched strip outlet section 3 is used for the etched strip to exit for annealing. A furnace front S roller group 4 is set near the etching strip inlet section 2 inside the annealing furnace 1. In this way, when the etched strip passes through the furnace front S roller group 4, it will bypass each furnace front roller of the furnace front S roller group 4 in sequence. The furnace front S roller group 4 is set between the etching strip inlet section 2 and the dancing roller 5. Therefore, the etched strip 14 that bypasses each furnace front roller must also bypass the dancing roller 5 to achieve tension control and prevent the etched strip from loosening. A furnace rear S roller group 6 is set near the etching strip outlet section 3 inside the annealing furnace 1. Therefore, the etched strip 14 must also bypass multiple furnace rear rollers of the furnace rear S roller group 6 in sequence. In this way, the speed and driving force of the etched strip after entering the annealing furnace 1 are controlled by the furnace front S roller group 4, and the speed and driving force of the etched strip when leaving the annealing furnace 1 are controlled by the furnace rear S roller group 6. A reliable tension is formed on the etched strip 14 between the furnace front S roller group 4 and the furnace rear S roller group 6, realizing high tension control, and the tension can be adjusted according to the different models and sizes of the etched strip, thereby effectively meeting the tension control during the production of the etched strip and improving the annealing quality of the etched strip. The annealing tension control device for the etched strip annealing furnace described in the utility model has a simple structure, increases the strip tension during the annealing treatment of the etched strip, realizes low-temperature high-tension annealing, and meets the production needs of the etched strip.
[0023] The aforementioned S-roller assembly 4 includes multiple rollers 7 mounted on a pre-installation frame 8. The S-roller assembly 6 includes multiple post-installation rollers 9 mounted on a post-installation frame 10. With this structure, the pre-installation frame securely mounts the rollers, allowing the etched strip to bypass the rollers, allowing external force to be applied to the strip at the annealing furnace's pre-installation position. The post-installation frame securely mounts the rollers, allowing the strip to bypass the rollers, allowing external force to be applied to the strip at the annealing furnace's post-installation position. The rotational speeds of the pre-installation and post-installation rollers can be controlled independently, and the tension of the etched strip can be controlled through the forces acting in front and behind.
[0024] The multiple front rollers 7 of the front S roller group 4 include a driving front roller and multiple driven front rollers, and the multiple rear rollers 9 of the rear S roller group 6 include a driving rear roller and multiple driven rear rollers. With this structure, the driven front roller and rear roller can be controlled to rotate, driving the etched strip to move within the annealing furnace, ensuring reliable tension.
[0025] The annealing furnace 1 also includes a heating zone 11 and a cooling zone 12. An isolation plate 16 is provided on the side of the heating zone 11 near the dancer roller 5, the side of the heating zone 11 near the cooling zone 12, and the side of the cooling zone 12 near the rear S-roller group 6. In this structure, multiple isolation plates isolate different areas within the annealing furnace to prevent them from interfering with each other.
[0026] The heating zone 11 is located behind the dancing roller 5, and the cooling zone 12 is located behind the heating zone 11. In the above structure, the heating zone is used for heating the strip, and the cooling zone is used for cooling.
[0027] The dancing roller 5 is connected to an adjustment cylinder 13, which is fixed to a bottom base 15 within the annealing furnace 1. In this structure, the adjustment cylinder is fixed to the bottom base, and the dancing roller applies pressure to the strip. When the force of the strip is greater than that of the adjustment cylinder, the strip exerts force on the adjustment cylinder, causing it to retract. When the force of the strip is less than that of the adjustment cylinder, the adjustment cylinder extends, and the dancing roller applies force to the strip, achieving tension control.
[0028] The etched strip 14 is configured to sequentially bypass the multiple pre-heater rollers 7 of the pre-heater S-roller group 4. After bypassing the multiple pre-heater rollers 7 of the pre-heater S-roller group 4, the etched strip 14 is configured to bypass the dancer roller 5. The etched strip 14 bypassing the dancer roller 5 is configured to sequentially pass through the heating zone 11 and the cooling zone 12. After passing through the cooling zone 12, the etched strip 14 is configured to bypass the multiple post-heater rollers 9 of the post-heater S-roller group 6. A heater is provided in the heating zone 11, and a cooler is provided in the cooling zone 12. In this configuration, the heater controls the start and stop of heating and temperature control. The cooler controls the start and stop of cooling and temperature control.
[0029] The annealing tension control device for an etched strip annealing furnace described in the present invention comprises an annealing furnace 1, which includes an etched strip inlet section 2 and an etched strip outlet section 3. The etched strip inlet section 2 is used for the etched strip to enter for annealing, and the etched strip outlet section 3 is used for the etched strip to exit for annealing. A furnace front S roller group 4 is provided near the etched strip inlet section 2 within the annealing furnace 1. Thus, when the etched strip passes through the furnace front S roller group 4, it sequentially bypasses each furnace front roller of the furnace front S roller group 4. The furnace front S roller group 4 is provided between the etched strip inlet section 2 and the jumping roller 5. Therefore, the etched strip 14 that bypasses each furnace front roller also bypasses the jumping roller 5, achieving tension control and preventing the etched strip from loosening. A furnace rear S roller group 6 is provided near the etched strip outlet section 3 within the annealing furnace 1. Therefore, the etched strip 14 also sequentially bypasses multiple furnace rear rollers of the furnace rear S roller group 6. In this way, the speed and driving force of the etched strip after entering the annealing furnace 1 are controlled by the S roller group 4 in front of the furnace, and the speed and driving force of the etched strip when leaving the annealing furnace 1 are controlled by the S roller group 6 in the back of the furnace. Reliable tension is formed on the etched strip 14 between the S roller group 4 in front of the furnace and the S roller group 6 in the back of the furnace, and large tension control is achieved. In addition, the tension can be adjusted according to the model and size of the etched strip to meet the tension control during the production of the etched strip and improve the annealing quality of the etched strip.
[0030] The above is an exemplary description of the present invention in conjunction with the accompanying drawings. It is obvious that the specific implementation of the present invention is not limited to the above-mentioned method. As long as various improvements are made using the method concept and technical solution of the present invention, or the concept and technical solution of the present invention are directly applied to other occasions without improvement, they are all within the scope of protection of the present invention.
Claims
1. An annealing tension control device for an etching strip annealing furnace, characterized in that: The annealing furnace (1) comprises an etching strip inlet section (2) and an etching strip outlet section (3); a furnace front S roller group (4) is arranged near the etching strip inlet section (2) inside the annealing furnace (1); the furnace front S roller group (4) is arranged between the etching strip inlet section (2) and a jumping roller (5); and a furnace rear S roller group (6) is arranged near the etching strip outlet section (3) inside the annealing furnace (1).
2. The annealing tension control device for an etching strip annealing furnace according to claim 1, characterized in that: The furnace front S roller group (4) comprises a plurality of furnace front rollers (7), and the plurality of furnace front rollers (7) are mounted on a furnace front mounting frame (8). The furnace rear S roller group (6) comprises a plurality of furnace rear rollers (9), and the plurality of furnace rear rollers (9) are mounted on a furnace rear mounting frame (10).
3. The annealing tension control device for an etching strip annealing furnace according to claim 1, characterized in that: The plurality of furnace front rollers (7) of the furnace front S roller group (4) include a driving furnace front roller and a plurality of driven furnace front rollers, and the plurality of furnace rear rollers (9) of the furnace rear S roller group (6) include a driving furnace rear roller and a plurality of driven furnace rear rollers.
4. The annealing tension control device for an etching strip annealing furnace according to claim 2 or 3, characterized in that: The annealing furnace (1) is further provided with a heating zone (11) and a cooling zone (12); an isolation plate (16) is provided on the side of the heating zone (11) close to the jumping roller (5); an isolation plate (16) is provided on the side of the heating zone (11) close to the cooling zone (12); and an isolation plate (16) is provided on the side of the cooling zone (12) close to the S roller group (6) behind the furnace.
5. The annealing tension control device for an etching strip annealing furnace according to claim 4, characterized in that: The heating zone (11) is located behind the dancing roller (5), and the cooling zone (12) is located behind the heating zone (11).
6. The annealing tension control device for an etching strip annealing furnace according to claim 1 or 2, characterized in that: The dancing roller (5) is connected to an adjusting cylinder (13), and the adjusting cylinder (13) is fixedly arranged on a bottom base (15) inside the annealing furnace (1).
7. The annealing tension control device for an etching strip annealing furnace according to claim 3, characterized in that: The etched strip (14) is configured to be able to sequentially bypass a plurality of furnace front rollers (7) of a furnace front S roller group (4), and the etched strip (14) bypassing a plurality of furnace front rollers (7) of a furnace front S roller group (4) is configured to be able to bypass a jumping roller (5).
8. The annealing tension control device for an etching strip annealing furnace according to claim 7, characterized in that: The etched strip (14) bypassing the jumping roller (5) is configured to be able to pass through the heating zone (11) and the cooling zone (12) in sequence, and the etched strip (14) passing through the cooling zone (12) is configured to be able to bypass a plurality of post-furnace rollers (9) of the post-furnace S roller group (6).
9. The annealing tension control device for an etching strip annealing furnace according to claim 4, characterized in that: A heater is provided in the heating zone (11), and a cooler is provided in the cooling zone (12).
Citation Information
Patent Citations
Be applied to tension control device of annealing stove
CN206486575U