Solidification device of solar module

Abstract

The utility model discloses a curing device for a solar module, which comprises a curing room, and a head end material storage assembly, a middle material storage assembly and a tail end material storage assembly which are arranged in the curing room, and the middle material storage assembly is positioned between the head end material storage assembly and the tail end material storage assembly; the feeding lifting assembly and the discharging lifting assembly are located at the two ends of the curing room correspondingly and ascend and descend relative to the curing room; the feeding lifting assembly is used for feeding materials into the head end storage assembly layer by layer, the head end storage assembly is used for conveying the materials to the middle storage assembly, the middle storage assembly is used for conveying the materials to the tail end storage assembly, and the tail end storage assembly is used for feeding the materials into the discharging lifting assembly layer by layer. According to the utility model, a plurality of material storage positions including the head end material storage assembly, the middle material storage assembly and the tail end material storage assembly are arranged in the curing room, so that the solar module can be better exposed in the air, the curing is more sufficient, and the production quality of the solar module can be effectively improved.

Description

TECHNICAL FIELD

[0001] The utility model relates to the production technical field of solar module, especially relate to a kind of curing device of solar module. BACKGROUND

[0002] Solar module is the core part in solar power generation system, its function is to convert solar energy into electric energy, or send to battery and store, or drive load to work.Solar module is laminated by solar cell piece, toughened glass, EVA adhesive film, TPT back sheet and other laminated parts.Layered frame is installed around laminated part, and the gap between laminated part and frame is sealed by silicone adhesive to prevent water vapor and dust from entering.Curing refers to the process that silicone changes from liquid or semi-solid to solid, and the silicone after curing forms a firm sealing layer to ensure the structural stability of solar module.

[0003] However, the existing curing device is mostly stacked as a whole and shares a conveying belt with a single line, lacks storage positions, resulting in insufficient curing time of solar module, which seriously affects the production quality of solar module. UTILITY MODEL CONTENT

[0004] The utility model aims at providing a kind of curing device of solar module, and the first end storage assembly, intermediate storage assembly and tail end storage assembly are additionally arranged in curing room, so that solar module can be cured more fully, and the technical problem that the production quality of solar module is affected due to insufficient curing time is effectively solved.

[0005] To achieve the above-mentioned purpose, the utility model provides a kind of curing device of solar module, which comprises a curing room and a first end storage assembly, an intermediate storage assembly and a tail end storage assembly arranged in the curing room, and the intermediate storage assembly is located between the first end storage assembly and the tail end storage assembly;It also includes an input lifting assembly and an output lifting assembly respectively located at both ends of the curing room and lifted relative to the curing room.

[0006] The input lifting assembly is used to send materials layer by layer into the first end storage assembly, the first end storage assembly is used to transmit materials to the intermediate storage assembly, the intermediate storage assembly is used to transmit materials to the tail end storage assembly, and the tail end storage assembly is used to send materials layer by layer into the output lifting assembly.

[0007] Optionally, the input lifting assembly includes an input lifting frame and an input lifting driving member connected to the input lifting frame;The first end storage assembly includes a plurality of first end storage belts arranged in layers;It also includes a first end vacancy detection member for detecting whether there is an empty first end storage belt, and the input lifting driving member and the first end vacancy detection member are connected to the controller.

[0008] When the front-end vacancy detection member detects that there is a vacant front-end storage tape, the controller is configured to control the feeding lifting drive to drive the feeding lifting frame to lift according to the signal fed back by the front-end vacancy detection member.

[0009] Optionally, the feeding lifting frame is provided with a plurality of feeding storage tapes stacked in layers; the end of each feeding storage tape is provided with a feeding drive; the end of each front-end storage tape is provided with a front-end drive; the feeding alignment detection member for detecting whether all the feeding storage tapes are in alignment with the vacant front-end storage tapes one by one is further included, and the feeding alignment detection member is connected to the controller.

[0010] When the feeding alignment detection member detects that all the feeding storage tapes are in alignment with the vacant front-end storage tapes one by one, the controller is configured to control the feeding lifting drive to stop working according to the signal fed back by the feeding alignment detection member, and simultaneously control the feeding drive and the front-end drive to rotate synchronously layer by layer.

[0011] Optionally, the front-end storage detection member for detecting whether the material has completely entered the front-end storage tape is further included, and the front-end storage detection member is connected to the controller.

[0012] When the front-end storage detection member detects that the material has completely entered the front-end storage tape, the controller is configured to control the feeding drive and the front-end drive to stop rotating simultaneously according to the signal fed back by the front-end storage detection member.

[0013] Optionally, the intermediate storage assembly includes a plurality of intermediate storage tapes stacked in layers, and the end of each intermediate storage tape is provided with an intermediate drive; all the intermediate storage tapes are in alignment with all the front-end storage tapes one by one; the intermediate drive is connected to the controller.

[0014] When the front-end vacancy detection member detects that there is no vacant front-end storage tape, the controller is configured to control the front-end drive and the intermediate drive to rotate synchronously according to the signal fed back by the front-end vacancy detection member.

[0015] Optionally, the intermediate storage detection member for detecting whether the material has completely entered the intermediate storage tape is further included, and the intermediate storage detection member is connected to the controller.

[0016] When the intermediate storage detection member detects that the material has completely entered the intermediate storage tape, the controller is configured to control the front-end drive and the intermediate drive to stop rotating simultaneously according to the signal fed back by the intermediate storage detection member.

[0017] Optionally, the tail-end storage assembly includes a plurality of tail-end storage tapes stacked in layers, and the end of each tail-end storage tape is provided with a tail-end drive; all the intermediate storage tapes are in alignment with all the tail-end storage tapes one by one; the tail-end vacancy detection member for detecting whether there is a vacant tail-end storage tape is further included, and the tail-end drive and the tail-end vacancy detection member are both connected to the controller.

[0018] When the tail end driving member detects that there is an empty tail end storage belt, the controller is configured to control the intermediate driving member and the tail end driving member to rotate synchronously according to a signal fed back by the tail end driving member.

[0019] Optionally, the device further comprises a tail end storage detection member configured to detect whether the material has completely entered the tail end storage belt, and the tail end storage detection member is connected to the controller.

[0020] When the tail end storage detection member detects that the material has completely entered the tail end storage belt, the controller is configured to control the intermediate driving member and the tail end driving member to stop rotating simultaneously according to a signal fed back by the tail end storage detection member.

[0021] Optionally, the material output lifting assembly comprises a material output lifting frame provided with a plurality of layers of material output storage belts stacked together, and an end of each layer of the material output storage belts is provided with a material output driving member; the device further comprises a material output alignment detection member configured to detect whether all the material output storage belts are in alignment with all the tail end storage belts one by one, and the material output driving member and the material output alignment detection member are both connected to the controller.

[0022] When the tail end empty position detection member detects that there is no empty tail end storage belt, the controller is configured to control the material output lifting driving member to drive the material output lifting frame to ascend according to a signal fed back by the tail end empty position detection member.

[0023] When the material output alignment detection member detects that all the material output storage belts are in alignment with all the tail end storage belts one by one, the controller is configured to control the material output lifting driving member to stop operating according to a signal fed back by the material output alignment detection member, and simultaneously control the material output driving member and the tail end driving member to rotate synchronously layer by layer.

[0024] Optionally, the device further comprises a material output position detection member configured to detect whether the material has completely entered the material output storage belt, and the material output position detection member is connected to the controller.

[0025] When the material output position detection member detects that the material has completely entered the material output storage belt, the controller is configured to control the material output driving member to drive the material output lifting frame to descend according to a signal fed back by the material output position detection member.

[0026] Compared with the prior art, the structure of the solidification device of the solar module is optimized, the optimized solidification device comprises a solidification room and a first end storage assembly, an intermediate storage assembly and a tail end storage assembly arranged in the solidification room, the intermediate storage assembly is located between the first end storage assembly and the tail end storage assembly, and the optimized solidification device further comprises a material input lifting assembly and a material output lifting assembly arranged at two ends of the solidification room respectively.

[0027] The feeding lifting assembly first rises relative to the curing chamber. When the feeding lifting assembly aligns with one layer of the first-end storage assembly, it feeds the material into one layer of the first-end storage assembly. The feeding lifting assembly rises and falls relative to the first-end storage assembly until it feeds the material layer by layer into the first-end storage assembly. The first-end storage assembly then transfers the stored material to the intermediate storage assembly, which in turn transfers the material to the tail storage assembly. The tail storage assembly feeds one layer of material into the discharge lifting assembly, which rises and falls relative to the tail storage assembly until it feeds the material layer by layer into the discharge lifting assembly. Finally, the discharge lifting assembly descends to discharge the material.

[0028] This invention features multiple material storage locations within the curing chamber, including a front-end material storage component, a middle material storage component, and a rear-end material storage component. This allows the solar modules to be better exposed to the air, resulting in more thorough curing and effectively improving the production quality of the solar modules. Attached Figure Description

[0029] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on the provided drawings without creative effort.

[0030] Figure 1 A schematic diagram of the curing device for the solar module provided in an embodiment of this utility model;

[0031] Figure 2 for Figure 1 Front view of the central storage component;

[0032] Figure 3 for Figure 2 Side view.

[0033] The attached figures are labeled as follows:

[0034] 1. Curing chamber; 2. First-end material storage assembly; 21. First-end material storage belt; 3. Middle material storage assembly; 4. Tail-end material storage assembly; 5. Feeding lifting assembly; and 6. Discharge lifting assembly. Detailed Implementation

[0035] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0036] In order to make the person skilled in the art better understand the utility model scheme, the utility model is further explained in detail below in combination with the drawings and specific embodiments.

[0037] First of all, it needs to be pointed out that the material in the text refers to a solar module, but is not limited to this.

[0038] The utility model discloses an embodiment of a kind of solidification device of solar module, including solidification room 1 and be located in the first end material storage assembly 2 of solidification room 1, intermediate material storage assembly 3 and tail end material storage assembly 4, intermediate material storage assembly 3 is located between first end material storage assembly 2 and tail end material storage assembly 4, intermediate material storage assembly 3 is located first end material storage assembly 2 and tail end material storage assembly 4 three flush settings, so that material is in turn through first end material storage assembly 2, intermediate material storage assembly 3 and tail end material storage assembly 4.

[0039] Considering that solidification room 1 is higher than production line setting, the above-mentioned solidification device further includes feeding lifting assembly 5 and discharging lifting assembly 6 respectively located at both ends of solidification room 1 and lifting relative to solidification room 1, so that material is lifted between production line and solidification room 1, feeding lifting assembly 5 is used to send material from production line into solidification room 1, and discharging lifting assembly 6 is used to send material from solidification room 1 to production line.

[0040] Feeding lifting assembly 5 is first lifted relative to solidification room 1, when feeding lifting assembly 5 is aligned with one layer of first end material storage assembly 2, feeding lifting assembly 5 sends material into one layer of first end material storage assembly 2, feeding lifting assembly 5 is lifted relative to first end material storage assembly 2, until feeding lifting assembly 5 sends material into first end material storage assembly 2 layer by layer, so that solidification room 1 realizes feeding; First end material storage assembly 2 transmits the material stored to intermediate material storage assembly 3, intermediate material storage assembly 3 transmits material to tail end material storage assembly 4, tail end material storage assembly 4 sends one layer of material into discharging lifting assembly 6, discharging lifting assembly 6 is lifted relative to tail end material storage assembly 4, until tail end material storage assembly 4 sends material into discharging lifting assembly 6 layer by layer, and discharging lifting assembly 6 is lowered, so that solidification room 1 realizes discharging.

[0041] The utility model is provided with first end material storage assembly 2, intermediate material storage assembly 3 and tail end material storage assembly 4 multiple material storage positions in solidification room 1, so that solar module can be better exposed to air, solidification is more sufficient, and the production quality of solar module can be effectively improved.

[0042] As a preferred embodiment, in order to improve production efficiency, the feeding lifting assembly 5 comprises a feeding lifting frame and a feeding lifting driving element connected with the feeding lifting frame, and the feeding lifting driving element is used to drive the feeding lifting frame to lift along the vertical direction relative to the curing room 1. The feeding lifting driving element can be a linear motor or a pneumatic cylinder, which is not limited here. The front-end storage assembly 2 comprises a plurality of front-end storage belts 21 arranged in a stack, and all the front-end storage belts 21 are arranged in sequence along the vertical direction. The front-end storage belt 21 can be a conveyor belt, which comprises a driving pulley, a driven pulley and a synchronous belt arranged between the driving pulley and the driven pulley.

[0043] The curing device also comprises a front-end empty position detection element used to detect whether there is an empty front-end storage belt 21, which can be an obstacle sensor or a pressure sensor, but is not limited thereto. The feeding lifting driving element and the front-end empty position detection element are both connected with the controller.

[0044] When the front-end empty position detection element detects that there is an empty front-end storage belt 21, the front-end empty position detection element sends a signal to the controller, and the controller sends a signal to the feeding lifting driving element after judgment processing, so as to control the feeding lifting driving element to drive the feeding lifting frame to automatically lift, that is, the feeding lifting assembly 5 automatically lifts, which has a high degree of automation and high control precision, and the production efficiency and reliability are improved.

[0045] As a preferred embodiment, the feeding lifting frame is provided with a plurality of feeding storage belts arranged in a stack; the end of each feeding storage belt is provided with a feeding driving element; the end of each front-end storage belt 21 is provided with a front-end driving element; the feeding driving element and the front-end driving element can both be a servo motor, and the feeding storage belt can also be a conveyor belt.

[0046] The curing device also comprises a feeding alignment detection element used to detect whether all the feeding storage belts are in alignment with the empty front-end storage belt 21 one by one, and the feeding alignment detection element is connected with the controller. The feeding alignment detection element can be an obstacle sensor or a position sensor, which is not limited here.

[0047] When the feeding alignment detection element detects that all the feeding storage belts are in alignment with the empty front-end storage belt 21 one by one, the feeding alignment detection element sends a signal to the controller, and the controller sends a signal to the feeding lifting driving element, the feeding driving element and the front-end driving element after judgment processing, so as to control the feeding lifting driving element to automatically stop, and the feeding lifting assembly 5 automatically stops lifting, so that all the feeding storage belts remain at the current position. At the same time, the controller also controls the feeding driving element and the front-end driving element to synchronously rotate layer by layer, so that the materials of the feeding storage belts are sent into the empty front-end storage belt 21 layer by layer, and the feeding lifting assembly 5 automatically sends the materials into the front-end storage assembly 2.

[0048] The curing device further comprises a front-end material storage detection member for detecting whether the material has completely entered the front-end material storage belt 21, and the front-end material storage detection member is connected to the controller. The front-end material storage detection member can be a position sensor or a pressure sensor, etc.

[0049] When the front-end material storage detection member detects that the material has completely entered the front-end material storage belt 21, the front-end material storage detection member sends a signal to the controller, and the controller sends a signal to the feeding driving member and the front-end driving member after judgment processing, so as to control the feeding driving member and the front-end driving member to stop rotating at the same time, and the front-end material storage assembly 2 automatically stops moving.

[0050] The intermediate material storage assembly 3 comprises a plurality of intermediate material storage belts arranged in layers, and each end of each intermediate material storage belt is provided with an intermediate driving member. The intermediate material storage belt can be a conveying belt, and the intermediate driving member can be a servo motor. All the intermediate material storage belts are in alignment with all the front-end material storage belts 21 one by one. The intermediate driving member is connected to the controller.

[0051] When the front-end empty position detection member detects that there is no empty front-end material storage belt 21, it means that the front-end material storage belt 21 has been filled with material, and the front-end empty position detection member sends a signal to the controller. The controller sends a signal to the front-end driving member and the intermediate driving member after judgment processing, so as to control the front-end driving member and the intermediate driving member to rotate synchronously, and the front-end material storage assembly 2 automatically transfers the material to the intermediate material storage assembly 3 after being filled with material.

[0052] The curing device further comprises an intermediate material storage detection member for detecting whether the material has completely entered the intermediate material storage belt, and the intermediate material storage detection member is connected to the controller. The intermediate material storage detection member can be a position sensor or a pressure sensor, etc.

[0053] When the intermediate material storage detection member detects that the material has completely entered the intermediate material storage belt, it means that the material has been transferred to the intermediate material storage assembly 3, and the intermediate material storage detection member sends a signal to the controller. The controller sends a signal to the front-end driving member and the intermediate driving member after judgment processing, so as to control the front-end driving member and the intermediate driving member to stop rotating at the same time, and the front-end material storage assembly 2 automatically stops feeding the intermediate material storage assembly 3.

[0054] The tail-end material storage assembly 4 comprises a plurality of tail-end material storage belts arranged in layers. Each end of each tail-end material storage belt is provided with a tail-end driving member. The tail-end material storage belt can be a conveying belt, and the tail-end driving member can be a servo motor. All the intermediate material storage belts are in alignment with all the tail-end material storage belts one by one.

[0055] The curing device further comprises a tail-end empty position detection member for detecting whether there is an empty tail-end material storage belt, and the tail-end driving member and the tail-end empty position detection member are both connected to the controller. The tail-end empty position detection member can be a position sensor or a pressure sensor, etc., which is not limited here.

[0056] When the tail end driving member detects that there is an empty tail end storage tape, the tail end driving member sends a signal to the controller, the controller judges and processes and then sends a signal to the middle driving member and the tail end driving member, controls the middle driving member and the tail end driving member to rotate synchronously, and the middle storage assembly 3 automatically transmits all the materials to the tail end storage assembly 4 when the tail end storage assembly 4 is empty.

[0057] The curing device further comprises a tail end storage detection member for detecting whether the materials completely enter the tail end storage tape, and the tail end storage detection member is connected with the controller. The tail end storage detection member can be a position sensor or a displacement sensor.

[0058] When the tail end storage detection member detects that the materials completely enter the tail end storage tape, the tail end storage detection member sends a signal to the controller, the controller judges and processes and then sends a signal to the middle driving member and the tail end driving member, controls the middle driving member and the tail end driving member to stop rotating at the same time, the materials have been completely stored in the tail end storage assembly 4, and the middle storage assembly 3 automatically stops transmitting the materials to the tail end storage assembly 4.

[0059] The discharging lifting assembly 6 comprises a discharging lifting frame provided with a plurality of layers of discharging storage tapes stacked and arranged, and the end of each layer of the discharging storage tapes is provided with a discharging driving member. The discharging driving member can be a servo motor.

[0060] The curing device further comprises a discharging alignment detection member for detecting whether all the discharging storage tapes are in one-to-one correspondence with all the tail end storage tapes. The discharging driving member and the discharging alignment detection member are connected with the controller. The discharging alignment detection member can be an obstacle detection member.

[0061] When the tail end empty position detection member detects that there is no empty tail end storage tape, the tail end empty position detection member sends a signal to the controller, the controller judges and processes and then sends a signal to the discharging lifting driving member, controls the discharging lifting driving member to drive the discharging lifting frame to rise, and the discharging lifting assembly 6 realizes automatic rising.

[0062] When the discharging alignment detection member detects that all the discharging storage tapes are in one-to-one correspondence with all the tail end storage tapes, the discharging alignment detection member sends a signal to the controller, the controller judges and processes and then sends a signal to the discharging lifting driving member, the discharging driving member and the tail end driving member, the controller controls the discharging lifting driving member to stop, the discharging lifting assembly 6 realizes automatic stopping, and all the discharging storage tapes keep in one-to-one correspondence with all the tail end storage tapes. At the same time, the controller controls the discharging driving member and the tail end driving member to rotate synchronously layer by layer, so that the tail end storage assembly 4 automatically sends the materials layer by layer into the discharging lifting assembly 6.

[0063] The curing device further comprises a discharge position detection member for detecting whether the material completely enters the discharge storage belt, and the discharge position detection member is connected with the controller.

[0064] When the discharge position detection member detects that the material completely enters the discharge storage belt, the discharge position detection member sends a signal to the controller, and the controller controls the discharge driving member to drive the discharge lifting frame to descend, and the discharge lifting assembly 6 automatically descends to send the material to the production line.

[0065] The utility model adds first end empty position detection member, feed alignment detection member, first end storage detection member or intermediate storage detection member and other detections, makes the feed lifting assembly 5 and discharge lifting assembly 6 realize automatic lifting or stop, and makes the first end storage assembly 2, intermediate storage assembly 3 and tail end storage assembly 4 realize automatic feeding, degree of automation, effectively improves production efficiency.

[0066] It should be noted that the controller should include a signal receiving part, a signal judging part and a signal sending part, the signal receiving part is used for receiving the electric signal sent by the detection components such as the first end empty position detection member, the feed alignment detection member, the first end storage detection member or the intermediate storage detection member, the signal judging part is electrically connected with the signal receiving part, so that the signal judging part is used for judging whether the signal received by the signal receiving part is a trigger signal, and the signal sending part is electrically connected with the signal judging part, so that the signal sending part sends the generated judging signal of the signal judging part to the execution components such as the feed lifting driving member, the feed driving member, the first end driving member, the intermediate driving member or the tail end driving member. The specific setting mode of the signal receiving part, the signal judging part and the signal sending part can refer to the prior art; in the utility model, only the application scene of the above three is changed, and no substantial improvement is made. Obviously, the controller with the structure is widely applied to the existing automatic control equipment, such as MCU, DSP or single-chip microcomputer. The key point of the utility model is that the controller combines the detection components and the execution components two by two.

[0067] It should be noted that in the specification, relationship terms such as first and second are only used to distinguish one entity from another entity, and do not necessarily require or imply any such actual relationship or order between the entities.

[0068] The principle and implementation mode of the utility model are described by applying specific examples in the present application, and the above embodiment is only used to help understand the method and core idea of the utility model. It should be pointed out that for ordinary skilled persons in the technical field, without departing from the principle of the utility model, the utility model can be improved and modified in several ways, and these improvements and modifications also fall within the protection scope of the claims of the utility model.

Claims

1. A curing apparatus for a solar module, characterized by, The application relates to a curing room (1) and a front-end material storage assembly (2), a middle-end material storage assembly (3) and a tail-end material storage assembly (4) arranged in the curing room (1), the middle-end material storage assembly (3) being arranged between the front-end material storage assembly (2) and the tail-end material storage assembly (4); the application further relates to an inlet lifting assembly (5) and an outlet lifting assembly (6) arranged at both ends of the curing room (1) and capable of lifting relative to the curing room (1). The inlet lifting assembly (5) is used for feeding material into the front-end material storage assembly (2) layer by layer, the front-end material storage assembly (2) is used for transmitting material to the middle-end material storage assembly (3), the middle-end material storage assembly (3) is used for transmitting material to the tail-end material storage assembly (4), and the tail-end material storage assembly (4) is used for feeding material into the outlet lifting assembly (6) layer by layer.

2. The curing apparatus for solar modules according to claim 1, characterized in that The inlet lifting assembly (5) comprises an inlet lifting frame and an inlet lifting driving element connected with the inlet lifting frame; the front-end material storage assembly (2) comprises a plurality of front-end material storage belts (21) arranged in layers; a front-end vacancy detecting element for detecting whether there is a vacant front-end material storage belt (21) is further arranged; the inlet lifting driving element and the front-end vacancy detecting element are connected with a controller; When the front-end vacancy detecting element detects a vacant front-end material storage belt (21), the controller is used for controlling the inlet lifting driving element to drive the inlet lifting frame to lift according to a signal fed back by the front-end vacancy detecting element.

3. The curing apparatus for solar modules according to claim 2, characterized in that The inlet lifting frame is provided with a plurality of inlet material storage belts arranged in layers; an inlet driving element is arranged at the end of each inlet material storage belt; a front-end driving element is arranged at the end of each front-end material storage belt (21); an inlet alignment detecting element for detecting whether all the inlet material storage belts are in alignment with the vacant front-end material storage belt (21) one by one is further arranged; the inlet alignment detecting element is connected with the controller; When the inlet alignment detecting element detects that all the inlet material storage belts are in alignment with the vacant front-end material storage belt (21) one by one, the controller is used for controlling the inlet lifting driving element to stop working according to a signal fed back by the inlet alignment detecting element, and simultaneously controlling the inlet driving element and the front-end driving element to rotate synchronously layer by layer.

4. The curing apparatus for solar modules according to claim 3, characterized in that A front-end material detecting element for detecting whether material completely enters the front-end material storage belt (21) is further arranged; the front-end material detecting element is connected with the controller; When the front-end material detecting element detects that material completely enters the front-end material storage belt (21), the controller is used for controlling the inlet driving element and the front-end driving element to stop rotating simultaneously according to a signal fed back by the front-end material detecting element.

5. The curing apparatus for solar modules of claim 4, wherein, The middle-end material storage assembly (3) comprises a plurality of middle-end material storage belts arranged in layers, and a middle-end driving element is arranged at the end of each middle-end material storage belt; all the middle-end material storage belts are in alignment with all the front-end material storage belts (21) one by one; the middle-end driving element is connected with the controller. When the head-end vacancy detection member detects that there is no empty head-end storage tape (21), the controller is configured to control the head-end driving member and the intermediate driving member to rotate synchronously according to the signal fed back by the head-end vacancy detection member.

6. The curing apparatus for solar modules of claim 5, wherein, The intermediate storage detection member is further configured to detect whether the material has completely entered the intermediate storage tape, and the intermediate storage detection member is connected to the controller. When the intermediate storage detection member detects that the material has completely entered the intermediate storage tape, the controller is configured to control the head-end driving member and the intermediate driving member to stop rotating simultaneously according to the signal fed back by the intermediate storage detection member.

7. The curing apparatus for solar modules of claim 5, wherein, The tail-end storage assembly (4) comprises a plurality of layers of tail-end storage tapes arranged in stacks, and a tail-end driving member is mounted at the end of each layer of the tail-end storage tapes; all the intermediate storage tapes are in alignment with all the tail-end storage tapes one by one; a tail-end vacancy detection member is further configured to detect whether there is an empty tail-end storage tape, and the tail-end driving member and the tail-end vacancy detection member are both connected to the controller. When the tail-end driving member detects that there is an empty tail-end storage tape, the controller is configured to control the intermediate driving member and the tail-end driving member to rotate synchronously according to the signal fed back by the tail-end driving member.

8. The curing apparatus for solar modules of claim 7, wherein, A tail-end storage detection member is further configured to detect whether the material has completely entered the tail-end storage tape, and the tail-end storage detection member is connected to the controller. When the tail-end storage detection member detects that the material has completely entered the tail-end storage tape, the controller is configured to control the intermediate driving member and the tail-end driving member to stop rotating simultaneously according to the signal fed back by the tail-end storage detection member.

9. The curing apparatus for solar modules of claim 8, wherein, The discharge lifting assembly (6) comprises a discharge lifting frame provided with a plurality of layers of discharge storage tapes arranged in stacks, and a discharge driving member is mounted at the end of each layer of the discharge storage tapes; a discharge alignment detection member is further configured to detect whether all the discharge storage tapes are in alignment with all the tail-end storage tapes one by one, and the discharge driving member and the discharge alignment detection member are both connected to the controller. When the tail-end vacancy detection member detects that there is no empty tail-end storage tape, the controller is configured to control the discharge driving member to drive the discharge lifting frame to ascend according to the signal fed back by the tail-end vacancy detection member. When the discharge alignment detection member detects that all the discharge storage tapes are in alignment with all the tail-end storage tapes one by one, the controller is configured to control the discharge driving member to stop operating and simultaneously control the discharge driving member and the tail-end driving member to rotate synchronously layer by layer according to the signal fed back by the discharge alignment detection member.

10. The curing apparatus for solar modules of claim 9, wherein, A discharge position detection member is further configured to detect whether the material has completely entered the discharge storage tape, and the discharge position detection member is connected to the controller. When the discharge position detection member detects that the material has completely entered the discharge storage tape, the controller is configured to control the discharge driving member to drive the discharge lifting frame to descend according to the signal fed back by the discharge position detection member.

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