A kind of anti-shake device for photovoltaic module curing line

Abstract

The utility model discloses a kind of anti-shake devices for photovoltaic module curing line, it is related to photovoltaic module curing line anti-shake technical field, including base;Conveyer belt is set in the top of base;Several clamping mechanisms are set in the bottom of conveyer belt;Several protective components are set in the one side of clamping mechanism;Several I-shaped frames are set in the top outside of conveyer belt;Pressing mechanism is set in the top of I-shaped frame;Control panel is set in the one side of I-shaped frame.The utility model is fixed by setting clamping mechanism and protective component, the position of photovoltaic module can be fixed using clamping mechanism, prevent it from moving or deviating during curing process, to guarantee the stability of photovoltaic module curing production;Photovoltaic module is fixed simultaneously, and soft, buffering protection is provided for photovoltaic module surface, avoid because clamping force is too large to cause scratch, wear and tear and other damage to photovoltaic module surface, and then improve the product quality of photovoltaic module and the stability of curing process.

Description

Technical Field

[0001] This utility model relates to the field of anti-shake technology for photovoltaic module curing lines, and more specifically, to an anti-shake device for photovoltaic module curing lines. Background Technology

[0002] Photovoltaic modules are the core components of solar power generation systems. They are composed of multiple photovoltaic cells (solar cells) encapsulated in series and parallel, capable of directly converting sunlight into direct current. The core function of photovoltaic modules is to convert light energy into electrical energy, and they also possess characteristics such as protecting the cells, resisting environmental corrosion, and providing mechanical support. The curing line is a critical step in the production process of photovoltaic modules and is part of the lamination process. Its main function is to melt and cure the adhesive film under high temperature and pressure, tightly bonding materials such as photovoltaic cells, glass, and backsheets to form a sealed and durable module structure. During the curing process, if there is micro-displacement between module layers or structural shaking due to equipment vibration, airflow impact, or external interference, anti-vibration devices are needed to prevent the photovoltaic modules from shaking during the curing process, thereby improving the sealing performance, stability, and product quality of the photovoltaic modules.

[0003] While existing anti-shake devices can secure photovoltaic modules, most rely on rigid clamps that directly contact the module surface. This can lead to damage such as microcracks and scratches due to uneven pressure or overload, lacking flexible protection. Furthermore, rigid clamps are at higher risk of performance degradation in low-temperature or long-term vibration environments. In addition, the clamping mechanisms of existing anti-shake devices are relatively simple, typically achieving unidirectional clamping, which makes it difficult to ensure balanced force on both sides of the photovoltaic module. This can cause bending deformation or stress concentration on the frame, resulting in damage and cost losses, thus affecting the product quality of the photovoltaic module and ultimately reducing its power generation efficiency and lifespan.

[0004] There are currently no effective solutions to the problems in the relevant technologies. Utility Model Content

[0005] In view of the problems in related technologies, this utility model proposes a vibration stabilization device for photovoltaic module curing lines to overcome the above-mentioned technical problems existing in the existing related technologies.

[0006] Therefore, the specific technical solution adopted by this utility model is as follows: A vibration damping device for a photovoltaic module curing line includes: a base; a conveyor belt disposed on the top of the base; a plurality of clamping mechanisms disposed on the bottom of the conveyor belt; a plurality of protective components disposed on one side of the clamping mechanisms; a plurality of I-beams disposed on the top outer side of the conveyor belt; a pressing mechanism disposed on the top of the I-beams; and a control panel disposed on one side of the I-beams.

[0007] Furthermore, to ensure the stability of photovoltaic module curing production, the clamping mechanism includes a mounting base located at the bottom of the conveyor belt. Two sets of first limiting rods are positioned between the side walls of both ends of the mounting base. A support seat is located in the middle of the two sets of first limiting rods, and a diamond-shaped plate is mounted on top of the support seat. Clamping frames are located at both ends of the two sets of first limiting rods, and several clamping blocks arranged linearly are mounted on top of the clamping frames. One end of the diamond-shaped plate is connected to the clamping frame via a connecting rod. An electrically operated telescopic rod that cooperates with the support seat is mounted on top of the mounting base. One end of the diamond-shaped plate is connected to one end of the connecting rod via a movable shaft, and the other end of the connecting rod is connected to the clamping frame via a movable shaft.

[0008] Furthermore, to improve the product quality and curing process stability of photovoltaic modules, the protective component includes a mounting groove on one side of the clamping block, a connecting plate inside the mounting groove, first springs symmetrically arranged on one side of the connecting plate, and a strip pressure sensor in the center of the connecting plate; two first springs are connected to a flexible plate, and the flexible plate has several linearly arranged clamping grooves inside, with protrusions inside the clamping grooves; two flexible pads are connected to one side of the flexible plate, and the two flexible pads are connected to each other by a second spring and a rubber ring. The protrusions have a trapezoidal structure and cooperate with the flexible pads.

[0009] Furthermore, to improve the overall curing quality of the photovoltaic modules, the pressing mechanism includes a hydraulic rod mounted on the top of the I-beam frame. A support plate is connected to the bottom of the hydraulic rod, and end blocks are located at both ends of the support plate. Guide recesses are located on both sides of the support plate. A third spring is symmetrically arranged at the bottom of the support plate, and a damper is installed inside the third spring. The third spring and the damper are connected to a pressing plate, which has a cross-shaped structure. The pressing plate has guide plates that mate with the guide recesses. A pressure sensor is located in the middle of the pressing plate. A hydraulic cylinder is connected to the top of the hydraulic rod, which passes through the I-beam frame. The guide plates have an L-shaped structure. Limit grooves are formed inside both sides of the I-beam frame, and second limit rods that mate with the end blocks are installed inside the limit grooves.

[0010] The beneficial effects of this utility model are as follows: 1. This utility model, by setting up a clamping mechanism, a protective component, and a pressing mechanism, uses the clamping mechanism to fix the position of the photovoltaic module during the curing process, preventing it from moving or shifting during curing and avoiding curing defects caused by photovoltaic module displacement, thereby ensuring the stability of photovoltaic module curing production; while fixing the photovoltaic module, the protective component on the clamping mechanism provides soft and buffered protection for the surface of the photovoltaic module during clamping and curing, avoiding scratches, wear and other damage to the surface of the photovoltaic module caused by excessive clamping force, ensuring that the photovoltaic module can perform its power generation function normally after curing, thereby improving the product quality of the photovoltaic module and the stability of the curing process; after completing the initial clamping and fixing, pressure is applied again by the pressing mechanism to ensure that the curing material is tightly adhered, so that the curing reaction proceeds evenly, avoiding local curing defects or stress concentration problems caused by uneven pressure, thereby improving the overall curing quality of the photovoltaic module.

[0011] 2. This utility model, by setting up a clamping mechanism and protective components, through the coordinated cooperation of the clamping frame, clamping block, flexible pad, soft plate and multiple springs, provides soft and buffered protection for the surface of photovoltaic modules during the clamping and curing process, avoiding scratches, wear and other damage to the surface of photovoltaic modules caused by excessive clamping force, thereby improving the product quality of photovoltaic modules and the stability of the curing process.

[0012] 3. By setting up a pressing mechanism, the present invention reduces the excessive squeezing and deformation of the photovoltaic module during the pressing process through the coordinated cooperation of the cross pressing plate, damper, third spring, guide concave plate and guide plate, avoids the problem of uneven pressure causing local curing failure or stress concentration, and improves the overall curing quality of the photovoltaic module. Attached Figure Description

[0013] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0014] Figure 1 This is a schematic diagram of a vibration stabilization device for a photovoltaic module curing line according to an embodiment of the present utility model; Figure 2 yes Figure 1 A magnified view of a portion at point A; Figure 3 This is a partial structural schematic diagram of a vibration stabilization device for a photovoltaic module curing line according to an embodiment of the present utility model; Figure 4This is a schematic diagram of the pressing mechanism in a vibration stabilization device for a photovoltaic module curing line according to an embodiment of the present invention; Figure 5 This is a second partial structural schematic diagram of a vibration stabilization device for a photovoltaic module curing line according to an embodiment of the present utility model; Figure 6 This is a schematic diagram of one side of the protective component in a vibration damping device for a photovoltaic module curing line according to an embodiment of the present utility model; Figure 7 This is a schematic diagram of the other side of the protective component in a vibration damping device for a photovoltaic module curing line according to an embodiment of the present invention.

[0015] In the picture: 1. Base; 2. Conveyor Belt; 3. Clamping Mechanism; 301. Mounting Base; 302. First Limiting Rod; 303. Support Base; 304. Diamond Plate; 305. Clamping Frame; 306. Clamping Block; 307. Connecting Rod; 308. Electric Telescopic Rod; 4. Protective Components; 401. Mounting Slot; 402. Connecting Plate; 403. First Spring; 404. Strip Pressure Sensor; 405. Flexible Board; 406. Clamping Slot; 407. 408. Protrusion; 409. Flexible pad; 410. Second spring; 5. Rubber ring; 6. I-beam frame; 7. Pressing mechanism; 601. Hydraulic rod; 602. Support plate; 603. End block; 604. Guide concave plate; 605. Third spring; 606. Damper; 607. Pressing plate; 608. Guide plate; 609. Pressure sensor; 610. Hydraulic cylinder; 611. Limiting groove; 612. Second limiting rod; 7. Control panel. Detailed Implementation

[0016] To further illustrate the various embodiments, the present invention provides accompanying drawings, which are part of the disclosure of the present invention. These drawings are mainly used to illustrate the embodiments and can be used in conjunction with the relevant descriptions in the specification to explain the operating principles of the embodiments. With reference to these contents, those skilled in the art should be able to understand other possible implementation methods and the advantages of the present invention. The components in the figures are not drawn to scale, and similar component symbols are usually used to represent similar components.

[0017] According to an embodiment of the present invention, a vibration stabilization device for a photovoltaic module curing line is provided.

[0018] The present invention will now be further described in conjunction with the accompanying drawings and specific embodiments, such as... Figures 1-7As shown, a vibration damping device for a photovoltaic module curing line according to an embodiment of the present invention includes a base 1; a conveyor belt 2 disposed on the top of the base 1; a plurality of clamping mechanisms 3 disposed on the bottom of the conveyor belt 2; a plurality of protective components 4 disposed on one side of the clamping mechanisms 3; a plurality of I-beams 5 disposed on the top outer side of the conveyor belt 2; a pressing mechanism 6 disposed on the top of the I-beams 5; and a control panel 7 disposed on one side of the I-beams 5.

[0019] By utilizing the clamping mechanism 3, protective component 4, and pressing mechanism 6 of the present invention, during the curing process of photovoltaic modules, the clamping mechanism 3 can fix the position of the photovoltaic modules, preventing them from moving or shifting during the curing process, thus avoiding curing defects caused by photovoltaic module displacement and improving the product qualification rate. While fixing the photovoltaic modules, the protective component 4 on the clamping mechanism 3 provides soft and buffered protection for the surface of the photovoltaic modules during the clamping and curing process, avoiding scratches, wear, and other damage to the surface of the photovoltaic modules caused by excessive clamping force, ensuring that the photovoltaic modules can perform their power generation function normally after curing, thereby improving the product quality of photovoltaic modules and the stability of the curing process. After completing the initial clamping and fixing, pressure is then applied again by the pressing mechanism 6 to ensure that the curing material is tightly adhered, so that the curing reaction proceeds uniformly, avoiding local curing defects or stress concentration problems caused by uneven pressure, thereby improving the overall curing quality of photovoltaic modules.

[0020] Furthermore, in practical applications, a control panel 7 is installed on one side of the I-beam frame 5. This control panel 7 is electrically connected to the clamping mechanism 3, the pressing mechanism 6, the conveyor belt 2, the strip pressure sensor 404, and the pressure sensor 609. Operators can input relevant data through the human-machine interface of the control panel 7, thereby achieving dual fixation and anti-shake during the curing of photovoltaic modules by the clamping mechanism 3, the pressing mechanism 6, the conveyor belt 2, the strip pressure sensor 404, and the pressure sensor 609, and controlling the clamping and pressing pressure to prevent damage to the photovoltaic modules.

[0021] Additionally, it should be noted that the bar pressure sensor 404 and pressure sensor 609 can be selected from models such as SF15-54, SF15-130, SF15-150 and SF15-600.

[0022] In one embodiment, the clamping mechanism 3 includes a mounting base 301 disposed at the bottom of the conveyor belt 2. Two sets of first limiting rods 302 are disposed between the side walls of both ends of the mounting base 301. A support seat 303 is disposed in the middle of the two sets of first limiting rods 302, and a diamond-shaped plate 304 is disposed on the top of the support seat 303. Clamping frames 305 are disposed at both ends of the two sets of first limiting rods 302, and a plurality of clamping blocks 306 arranged linearly are disposed on the top of the clamping frames 305. One end of the diamond-shaped plate 304 is connected to the clamping frame 305 via a connecting rod 307. An electric telescopic rod 308 cooperating with the support seat 303 is disposed on the top of the mounting base 301. One end of the diamond-shaped plate 304 is connected to one end of the connecting rod 307 via a movable shaft, and the other end of the connecting rod 307 is connected to the clamping frame 305 via a movable shaft, thereby ensuring the stability of the photovoltaic module curing production.

[0023] Working principle of clamping mechanism 3: After the photovoltaic module is conveyed by the conveyor belt 2 to the preset position above the clamping mechanism, the electric telescopic rod 308 is started by the control panel 7. The electric telescopic rod 308 begins to move forward, pushing the support base 303 forward. As the support base 303 moves, the rhomboid plate 304 is pushed by a force. Since the rhomboid plate 304 is connected to the clamping frame 305 through the connecting rod 307, the force of the rhomboid plate 304 is transmitted to the clamping frame 305 through the connecting rod 307. The two ends of the connecting rod 307 are connected by movable shafts, which makes the clamping... The frame 305 can move smoothly towards the center along the first limit rod 302. The two sets of clamping frames 305 move towards the center at the same time, which drives the several clamping blocks 306 arranged in a linear shape on the top of the clamping frame 305 to gradually move towards the center as well. The clamping blocks 306 clamp the two sides of the photovoltaic module. During the clamping process, the clamping blocks 306 detect the pressure through the bar pressure sensor 404 that cooperates with the protective component 4, and feed back the set pressure value to the control panel 7. When the set pressure value is reached, the electric telescopic rod 308 is stopped by the control panel 7.

[0024] After the photovoltaic module completes the curing process, the control panel 7 controls the electric telescopic rod 308 to retract again. The electric telescopic rod 308 drives the support base 303 to move backward. The diamond plate 304 transmits the backward force to the clamping frame 305 through the connecting rod 307, causing the two sets of clamping frames 305 to move backward along the first limit rod 302. The clamping block 306 then releases its grip on the photovoltaic module.

[0025] In one embodiment, the protective component 4 includes a mounting groove 401 on one side of the clamping block 306, a connecting plate 402 inside the mounting groove 401, first springs 403 symmetrically arranged on one side of the connecting plate 402, and a strip pressure sensor 404 in the middle of the connecting plate 402; two first springs 403 are connected to a flexible plate 405, the flexible plate 405 has a plurality of clamping grooves 406 arranged linearly inside, and protrusions 407 are provided inside the clamping grooves 406; two flexible pads 408 are connected to one side of the flexible plate 405, and the two flexible pads 408 are connected to each other by a second spring 409 and a rubber ring 410 in sequence. The protrusions 407 have a trapezoidal structure and cooperate with the flexible pads 408, thereby improving the product quality of the photovoltaic module and the stability of the curing process.

[0026] Working principle of protective component 4: Before the photovoltaic module is placed on the conveyor belt 2 and prepared for clamping and curing, when the clamping mechanism 3 starts working, the connecting plate 402, which is pre-installed in the mounting groove 401 on one side of the clamping block 306, maintains a distance from the clamping block 306 under the support of the flexible plate 405 and the first spring 403. When the clamping block 306 gradually approaches the photovoltaic module and performs the clamping action, the flexible pad 408 first contacts the surface of the photovoltaic module. As the clamping force gradually increases, the flexible pad 408 and the flexible plate 405 are squeezed and move towards the connecting plate 402. The first spring 403 is compressed. The compression process of the first spring 403 plays a preliminary buffering role, which can absorb part of the impact force generated during the clamping process and prevent the clamping block from being clamped. During the hard collision between the flexible plate 405 and the photovoltaic module, the bar pressure sensor 404 senses the pressure on the flexible plate 405 in real time during the compression process and transmits the pressure data to the control panel 7. Based on the pressure range preset by the control panel 7, the clamping force of the clamping mechanism 3 is precisely controlled. After the flexible plate 405 and the flexible pad 408 come into contact with the photovoltaic module, the internal protrusions 407 cooperate with the flexible pad 408 to play a protective role. Moreover, the trapezoidal protrusions 407 can better adapt to the shape of the photovoltaic module surface, increase the contact area, and make the pressure distribution more uniform. Furthermore, the soft materials such as the flexible plate 405 and the flexible pad 408 can effectively isolate external dust, impurities, and chemical pollutants, preventing them from adhering to the surface of the photovoltaic module.

[0027] After the photovoltaic module completes the curing process, the clamping mechanism 3 releases the clamping block 306, and the clamping force gradually decreases. At this time, the first spring 403, the second spring 409 and the rubber ring 410 gradually return to their original shape under the action of elasticity, pushing the flexible plate 405 and the flexible pad 408 back to their initial position.

[0028] In one embodiment, the pressing mechanism 6 includes a hydraulic rod 601 mounted on the top of the I-beam frame 5. A support plate 602 is connected to the bottom of the hydraulic rod 601. End blocks 603 are mounted at both ends of the support plate 602, and guide recesses 604 are mounted on both sides of the support plate 602. A third spring 605 is symmetrically mounted at the bottom of the support plate 602. A damper 606 is installed inside the third spring 605. The third spring 605 and the damper 606 are connected to a holding plate 607, which has a cross-shaped structure. The holding plate 607 has a guide plate 608 that cooperates with the guide recesses 604. A pressure sensor 609 is mounted in the middle of the holding plate 607. A hydraulic cylinder 610 is connected to the top of the hydraulic rod 601 through the I-beam frame 5. The guide plate 608 has an L-shaped structure. Limiting grooves 611 are opened inside both sides of the I-beam frame 5. A second limiting rod 612 that cooperates with the end block 603 is set inside the limiting groove 611, thereby improving the overall curing quality of the photovoltaic module.

[0029] The working principle of the pressing mechanism 6: After the photovoltaic module is initially clamped, the hydraulic cylinder 610 is activated again via the control panel 7, applying pressure to the hydraulic rod 601 and pushing it downward. The hydraulic rod 601 drives the support plate 602 to move vertically downward along the second limit rod 612 within the limit groove 611. During the descent of the support plate 602, the guide concave plate 604 and the guide plate 608 cooperate to guide the pressing plate 607 to move downward synchronously. As the pressing plate 607 continues to descend, its bottom gradually approaches the surface of the photovoltaic module, and the pressure sensor 609 detects the pressure. The pressure on the pressure plate 607 is monitored and the pressure data is transmitted to the control panel 7. According to the pressure value preset on the control panel 7, the output pressure of the hydraulic cylinder 610 is precisely controlled. When the pressure reaches the preset value, the hydraulic cylinder 610 is stopped through the control panel 7. The bottom of the pressure plate 607 can be coated with a rubber-like buffer coating material to reduce damage to the photovoltaic module. After the pressure plate 607 contacts the photovoltaic module, the hydraulic cylinder 610 continues to apply pressure, and the third spring 605 is further compressed. At the same time, the damper 606 can absorb and dissipate the vibration energy generated during the pressing process.

[0030] After the photovoltaic module completes the curing process, the control panel 7 controls the hydraulic cylinder 610 to stop outputting pressure and start operating in reverse, causing the hydraulic rod 601 to retract upward. The hydraulic rod 601 drives the support plate 602 to move upward along the second limit rod 612 within the limit groove 611. During the upward movement of the support plate 602, the guide concave plate 604 cooperates with the guide plate 608 to guide the pressure plate 607 to rise synchronously. As the pressure plate 607 separates from the photovoltaic module, the third spring 605 and the damper 606 gradually return to their natural state, pushing the pressure plate 607 back to its initial position. After the clamping mechanism 3 and the pressing mechanism 6 are released, the conveyor belt 2 continues to run, transporting the cured photovoltaic module to the next process.

[0031] To facilitate understanding of the above-mentioned technical solutions of this utility model, the working principle or operation method of this utility model in actual process will be described in detail below.

[0032] In practical applications, after the photovoltaic module is laminated, it is transported to a preset position above the clamping mechanism 3 via conveyor belt 2. The operator then activates the electric telescopic rod 308 of the clamping mechanism 3 via control panel 7, pushing the support base 303 to drive the diamond plate 304. Through connecting rod 307, the two sets of clamping frames 305 move towards the center along the first limit rod 302, and the clamping block 306 clamps both sides of the photovoltaic module (the working principle of the clamping mechanism 3 is as described above). During the clamping process, the flexible pad 408 of the protective component 4 first contacts the module. As the clamping force of the clamping block 306 increases, the flexible plate 405 squeezes the first spring 403 for buffering, and the strip pressure sensor 404 senses the pressure on the flexible plate 405 (the working principle of the protective component 4 is as described above) and transmits the pressure data to the control panel 7. Based on the preset pressure range of the control panel 7, the clamping force of the clamping block 306 is precisely controlled. After the preset value is reached, the electric telescopic rod 308 stops, and the protrusion 407 and the flexible pad 408 cooperate to protect and distribute the pressure evenly.

[0033] After initial clamping, the control panel 7 activates the hydraulic cylinder 610 of the pressing mechanism 6, pushing the hydraulic rod 601 to drive the support plate 602 down along the second limit rod 612. The guide concave plate 604 and the guide plate 608 guide the pressing plate 607 to descend synchronously. The rubber coating at the bottom of the pressing plate 607 contacts the component, and the pressure sensor 609 transmits pressure to the control panel 7. After reaching the preset value, the hydraulic cylinder 610 stops. When pressure is applied again, the third spring 605 is compressed, and the damper 606 absorbs vibration and prevents shaking during curing. After curing, the control panel 7 first reverses the operation of the hydraulic cylinder 610, and the hydraulic rod 601 drives the relevant components to rise. The third spring 605 and the damper 606 return to their original positions, and the pressing plate 607 returns to its original position (the working principle of the pressing mechanism 6 is as described above). Then, the electric telescopic rod 308 is controlled to retract, the clamping frame 305 moves backward, the clamping block 306 is released, and the first spring 403 pushes the soft plate 405 and the flexible pad 408 to reset. Finally, the conveyor belt 2 sends the component to the next process.

[0034] In this utility model, unless otherwise explicitly specified and limited, the terms "installation", "setting", "connection", "fixing", "screw connection", etc., should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal connection of two components or the interaction between two components. Unless otherwise explicitly limited, those skilled in the art can understand the specific meaning of the above terms in this utility model according to the specific circumstances.

[0035] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A vibration stabilization device for a photovoltaic module curing line, characterized in that, include: Base (1); A conveyor belt (2) is disposed on top of the base (1); Several clamping mechanisms (3) are disposed at the bottom of the conveyor belt (2); Several protective components (4) are disposed on one side of the clamping mechanism (3); Several I-beams (5) are set on the top outer side of the conveyor belt (2); The pressing mechanism (6) is located on the top of the I-beam frame (5); The control panel (7) is located on one side of the I-beam frame (5).

2. The anti-shake device for a photovoltaic module curing line according to claim 1, characterized in that, The clamping mechanism (3) includes a mounting base (301) disposed at the bottom of the conveyor belt (2), two sets of first limiting rods (302) are disposed between the two side walls of the mounting base (301), a support seat (303) is disposed in the middle of the two sets of first limiting rods (302), and a diamond plate (304) is disposed on the top of the support seat (303). Two sets of first limiting rods (302) are provided with clamping frames (305) at both ends, and the top of the clamping frames (305) is provided with a number of clamping blocks (306) arranged in a linear shape. One end of the diamond plate (304) is connected to the clamping frame (305) via a connecting rod (307), and the top of the mounting base (301) is provided with an electric telescopic rod (308) that cooperates with the support base (303).

3. The anti-shake device for a photovoltaic module curing line according to claim 2, characterized in that, One end of the rhomboid plate (304) is connected to one end of the connecting rod (307) via a movable shaft, and the other end of the connecting rod (307) is connected to the clamping frame (305) via a movable shaft.

4. The anti-shake device for a photovoltaic module curing line according to claim 3, characterized in that, The protective component (4) includes a mounting groove (401) disposed on one side of the clamping block (306), a connecting plate (402) disposed inside the mounting groove (401), a first spring (403) symmetrically disposed on one side of the connecting plate (402), and a strip pressure sensor (404) disposed in the middle of the connecting plate (402). The two first springs (403) are connected to a flexible plate (405). The flexible plate (405) has a plurality of clamping grooves (406) arranged in a linear pattern inside. The clamping grooves (406) are provided with protrusions (407). Two flexible pads (408) are connected to one side of the flexible plate (405), and the two flexible pads (408) are connected to each other in sequence by a second spring (409) and a rubber ring (410).

5. The anti-shake device for a photovoltaic module curing line according to claim 4, characterized in that, The protrusion (407) has a trapezoidal structure and cooperates with the flexible pad (408).

6. The anti-shake device for a photovoltaic module curing line according to claim 1, characterized in that, The pressing mechanism (6) includes a hydraulic rod (601) set on the top of the I-beam frame (5), a support plate (602) connected to the bottom of the hydraulic rod (601), end blocks (603) set at both ends of the support plate (602), and guide recesses (604) set on both sides of the support plate (602). The support plate (602) is symmetrically provided with a third spring (605) at its bottom. The third spring (605) is provided with a damper (606) inside. The third spring (605) and the damper (606) are connected together to a pressure plate (607). The pressure plate (607) has a cross structure and is provided with a guide plate (608) that cooperates with the guide concave plate (604). A pressure sensor (609) is provided in the middle of the pressure plate (607), and a hydraulic cylinder (610) is connected to the top of the hydraulic rod (601) through the I-beam frame (5).

7. The anti-shake device for a photovoltaic module curing line according to claim 6, characterized in that, The guide plate (608) has an L-shaped structure.

8. The anti-shake device for a photovoltaic module curing line according to claim 7, characterized in that, The I-beam frame (5) has a limiting groove (611) inside both sides, and a second limiting rod (612) that cooperates with the end block (603) is provided inside the limiting groove (611).

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