CN115249752A - Photovoltaic hot water assembly and laminating machine thereof - Google Patents

Abstract

The invention provides a photovoltaic hot water component and a laminating machine thereof. The photovoltaic hot water component includes a photovoltaic component, a first lamination layer, a heat absorption component, a thermal insulation board, a thermal insulation ring, and a shell component. A photovoltaic hot water component is used for processing photovoltaic hot water. The laminator of the module includes a first conveying device, an image capturing device, a second conveying device, and a laminating device. The first conveying device, the second conveying device, and the laminating device are arranged in sequence. The photovoltaic hot water module adopts two The curved pipe is clamped and fixed by a heat absorbing plate to form a whole, which saves the worker's step of re-welding the copper pipe after hot pressing, which is conducive to the rapid production of the enterprise; the method of inserting the nozzle connector to ensure the sealing performance of the water outlet; this The laminator used to process photovoltaic hot water modules adopts the method of layer-by-layer descending during lamination to ensure the smooth entry of materials into the processing tank, which improves the production efficiency of the production line; the semi-finished products after lamination are moved out of the processing port by the use of power components. , improve the processing efficiency.

Description

A photovoltaic hot water module and its laminating machine

technical field

The invention relates to the technical field of photovoltaic panel production, in particular to a photovoltaic hot water module and a laminating machine thereof.

Background technique

Solar photovoltaic and solar thermal are the two main ways of large-scale application of solar energy. The application of solar water heating has been widely used in China because of its advantages of energy saving and economical applicability to users. However, solar photovoltaic power generation still has low power generation efficiency, high cost and relatively single type of photovoltaic modules. As a result, despite the rapid development of China's photovoltaic industry, there are outstanding product homogeneity expansions and the development status of relying on national policy subsidies.

Photovoltaic thermal comprehensive utilization (PV/T) technology is an organic combination of economical and applicable solar thermal technology and solar photovoltaic technology, which has the advantages of improving the economic level of photovoltaic products and changing the basically single type of photovoltaic module products in the solar photovoltaic industry. However, after investigation, although many research institutions at home and abroad have conducted research on this type of technology, and proposed various types of solar photovoltaic photothermal comprehensive utilization systems, at present, even flat-plate photovoltaic hot water (Flat-Plate Water -Heating PV/T, the most typical PV/T module of flat type PV/T (hot water) module has not yet fully solved the problems of life, stability, photoelectric efficiency damage and maintenance, and there is no mature one in China The commercialization of the product is mainly due to the limitation of structural design and process design methods. The main process methods currently used in flat-panel photovoltaic water heating modules are: first, the photovoltaic cells are bonded to the tube-sheet heat-absorbing plate with thermal silica gel, However, due to the different thermal expansion coefficients of the materials, it is difficult to maintain the bond between the metal heat absorbing plate and the photovoltaic cell for a long time. As a result, the photovoltaic and photothermal performance of the photovoltaic water heating module of this process is easy to decay or even fail. Stability issues; moreover, the heat-conducting adhesive process is quite different from the flow-line lamination process used in the existing photovoltaic module production. At present, this process is generally completed by manual glue application, so the production efficiency of this process is relatively low, and the product stability is not enough. . The second is to learn from the mature lamination process of photovoltaic cells. First, the photovoltaic cells and the flat heat-absorbing metal plate are laminated together, and then copper tubes are welded on the back of the laminated heat-absorbing plate, thereby finally forming a tube-sheet heat-absorbing The integral structure of the plate and the photovoltaic cell, but such separate welding of the copper tube is not conducive to the integrated production of the photovoltaic hot water module, increases labor costs, and is time-consuming and laborious.

The laminated structure is only suitable for flat-panel photovoltaic modules, and its heating is completed by contact conduction heating. In the production process of photovoltaic modules, it is necessary to use a laminator to press the photovoltaic modules, and sometimes in order to add other components, a high-temperature layer is required. However, when the existing laminator is hot-pressing the photovoltaic modules, it is necessary to manually place the sheets required for the photovoltaic modules layer by layer. If the sheets are placed offset, it will affect the lamination effect. The progress is slow, and the preheating is stopped when placed, resulting in a long preheating time, which wastes a lot of production time and makes it difficult to improve production efficiency.

For this reason, it is necessary to propose a photovoltaic water heating module and its laminator to solve the above problems.

SUMMARY OF THE INVENTION

In order to solve the above problems, the present invention proposes a photovoltaic water heating module and a laminator thereof to solve the above problems.

The present invention is realized through the following technical solutions:

The present invention proposes a photovoltaic hot water assembly, including a photovoltaic assembly, a first laminate, a heat-absorbing assembly, a thermal insulation board, a thermal insulation ring, and a housing assembly. The housing assembly is provided with a storage cavity and a fixing groove. The board, the heat-absorbing component, the first lamination layer, and the photovoltaic component are sequentially stacked from bottom to top and accommodated in the storage cavity, and the heat preservation ring is fixedly connected around the heat-absorbing component and accommodated in the In the fixing groove, the heat-absorbing assembly includes a first heat-absorbing plate, a curved pipe and a second heat-absorbing plate, the first heat-absorbing plate is fixedly connected to the second heat-absorbing plate, and the curved pipe is fixed connected between the first heat absorbing plate and the second heat absorbing plate, the first heat absorbing plate is provided with a first half groove, and the second heat absorbing plate is provided with a second half groove, The first half-groove and the second half-groove jointly form a placement groove, the curved pipe is accommodated in the placement groove, a first water inlet and a first water outlet are provided on one side of the housing assembly, The curved pipe is provided with a second water inlet and a second water outlet, the second water inlet is aligned with the first water inlet, and the second water outlet is aligned with the first water outlet.

Further, the housing assembly includes a housing, a first nozzle connector, a second nozzle connector, and a temperature sensor, the first water inlet and the first water outlet are both arranged on one side of the housing, The first water inlet is provided with a first fixing groove, the first water outlet is provided with a second fixing groove, and the first nozzle connector is inserted in the first water inlet and extends to the In the second water inlet and closely connected with the groove wall of the first fixed groove, the second nozzle connector is inserted in the first water outlet and extends into the second water outlet and is connected with the The groove walls of the second fixing groove are closely connected, and the temperature sensor is fixedly connected to one side of the housing and faces the heat-absorbing component.

Further, both the first nozzle connector and the second nozzle connector are made of solid metal materials, and their outer surfaces are coated with a 0.3-0.5 mm soft layer for waterproofing.

Further, the first nozzle connector is provided with a first insertion column and a first connection column for connecting external pipes, the first insertion column passes through the first water inlet and is inserted into the second water inlet In the mouth, the second nozzle connector is provided with a second insertion column and a second connection column for connecting to an external pipe, and the second insertion column passes through the first water outlet and is inserted into the second water outlet.

Further, the photovoltaic module includes a back sheet, a second laminate, a photovoltaic cell sheet, a third laminate, and glass, and the back sheet, the second laminate, a photovoltaic cell sheet, the third laminate, and the glass are arranged from bottom to top Layered in turn.

A laminator for processing photovoltaic water heating components, including a first conveying device, an image acquisition device, a second conveying device, and laminating equipment, and the first conveying device, the second conveying device, and the laminating equipment are arranged in sequence , the second conveying device is fixedly connected to one side of the laminating device, the image acquisition device is fixedly connected above the first conveying device and faces the upper surface of the first conveying device, and the laminating device includes A fixed frame, a first hydraulic cylinder, a controller, a lifting assembly, and two power assemblies, the controller is respectively connected with the first conveying device, the image acquisition device, the second conveying device, and the first hydraulic Cylinder, the lifting assembly, and the two power assemblies are electrically connected, the first hydraulic cylinder is fixedly connected above the fixed frame, a heating plate is provided on the push rod of the first hydraulic cylinder, and the fixed frame There is a sliding rod on the top, the heating plate is slidably connected with the sliding rod, a processing groove is arranged in the fixing frame, the processing groove is aligned with the heating plate, and the lifting assembly is fixedly connected to the fixing frame The bottom part is accommodated in the processing tank and is aligned with the heating plate. The two power components are respectively fixedly connected to both sides of the fixing frame and arranged symmetrically and facing the processing tank. The lifting component can When the hot pressing plate presses down and presses the photovoltaic water heating module layer by layer, it gradually descends, so that the second conveying device can convey materials into the processing tank in sequence.

Further, the second conveying device includes a support frame, a plurality of second hydraulic cylinders, a plurality of transmission motors, rolling elements, a first distance sensor, a plurality of second hydraulic cylinders, a plurality of transmission motors, a first distance The sensors are all electrically connected to the controller, the support frame is provided with an accommodation cavity, and the side of the support frame close to the lamination equipment is provided with an outflow groove, and the outflow groove is connected to the accommodation cavity, A plurality of the second hydraulic cylinders are arranged in sequence and fixedly accommodated in the accommodation cavity, the rolling elements are fixedly connected to the push rods of the plurality of second hydraulic cylinders, and the plurality of transmission motors are interspersed and arranged in sequence The plurality of second hydraulic cylinders are fixedly connected to the rolling elements, a plurality of sequentially arranged rolling rollers are arranged under the rolling elements, and at least two sequentially arranged transmission wheels are arranged on the transmission motor, One of the transmission wheels is located between the two rolling rollers and abuts against the two rolling rollers, a support rod is provided on one side of the support frame, and the first distance sensor is fixedly connected to the support rod And towards the first conveying device.

Further, the power assembly includes a first driving device, a deceleration conveying motor, and a fixed plate, both of the first driving device and the decelerated conveying motor are electrically connected to the controller, and the fixed plate is fixedly connected to the One side of the fixed frame, the fixed plate is provided with a slide groove, the first driving device is fixedly accommodated in the slide groove, and a slide block is provided below the deceleration conveying motor, and the slide block is accommodated in the slide In the groove and screwed with the rotating shaft of the first driving device, two conveying wheels and contact positions arranged in sequence are arranged on one side of the deceleration conveying motor, and the two conveying wheels and the contact positions are all facing the Processing slot.

Further, the lifting assembly includes a plurality of third hydraulic cylinders, a lifting plate, and a second distance sensor, and the plurality of third hydraulic cylinders and the second distance sensor are all electrically connected to the controller, and the plurality of the first distance sensors are electrically connected to the controller. The three hydraulic cylinders are arranged in sequence and fixedly connected under the fixed frame, the lifting plate is fixedly connected to the push rods of a plurality of the third hydraulic cylinders and is movably accommodated in the processing tank, and the second distance sensor It is fixedly connected under the fixed frame and faces the lifting plate.

Further, the first conveying device includes a conveyor belt and two correcting mechanisms, and the two correcting mechanisms are respectively located on both sides of the conveyor belt, and the correcting mechanism includes a support plate, a second driving device, and a push plate. The second drive device is electrically connected to the controller, the support plate is fixedly connected to the side plate of the conveyor belt, the second drive device is fixedly connected to the support plate and the rotating shaft is connected to the push plate Slidingly connected, the push plate is slidably connected with the support plate and faces the conveyor belt.

Beneficial effects of the present invention:

1. The photovoltaic water heating module uses two heat-absorbing plates to clamp and fix the curved pipe to form a whole; during production, the curved pipe is fixed between the first heat-absorbing plate and the second heat-absorbing plate in advance, and then combined with Photovoltaic panels are hot-pressed, eliminating the need for workers to re-weld copper pipes after hot-pressing, which is conducive to the rapid production of enterprises.

2. The sealing performance of the outlet water is ensured by inserting the nozzle connector; both the outer surface of the first nozzle connector and the second nozzle connector are coated with a 0.3~0.5mm soft layer for waterproofing. When inserted into the first water inlet and the second water inlet and the first water outlet and the second water outlet, they are tightly connected to the inner wall to prevent the water flow from penetrating out of the outside when it flows in or out, which affects the use of photovoltaic hot water components, and improves the bending pipe. sealing effect.

3. During lamination, the layer-by-layer descending method is adopted to ensure that the material enters the processing tank smoothly; when processing the photovoltaic hot water module, the photovoltaic module is first placed on the first conveying device layer by layer, and then the first conveying device The heat-absorbing component, the first laminate, the back sheet, the second laminate, photovoltaic cells, the third laminate, and the glass will be delivered to the second conveying device in sequence, and the second conveying device will sequentially transport the heat-absorbing component, the second laminate The first lamination layer, the back sheet, the second lamination layer, the photovoltaic cells, the third lamination layer, and the glass are fed into the processing tank for lamination. When feeding, the lifting components are lowered according to the thickness of the corresponding sheet to ensure The stability of the sheet when it is fed in, and the step of manually placing the sheet is omitted, which improves the production efficiency of the production line.

4. The semi-finished product after the power component is used to assist the lamination is moved out of the processing port. After the heat-absorbing component is laminated and combined with the photovoltaic component through the first lamination layer, the lifting component is raised to lift the laminated semi-finished product out. Then the power components move closer to hold the semi-finished product. At this time, the deceleration conveying motor operates, and the conveying wheel rotates to move the semi-finished product out of the processing tank, assisting the workers in handling, thereby improving the processing efficiency.

To sum up, the photovoltaic hot water module uses two heat-absorbing plates to clamp and fix the curved pipe to form a whole, which saves the workers from the steps of re-welding the copper pipe after hot pressing, which is conducive to the rapid production of the enterprise; the use of pipe The way of inserting the mouth connector ensures the sealing performance of the outlet water and improves the sealing effect of the curved pipe; the laminator used to process the photovoltaic hot water module adopts a layer-by-layer descending method during lamination to ensure that the material enters the processing tank smoothly , It saves the step of manually placing the sheet, which improves the production efficiency of the production line; the power component is used to assist the semi-finished products after lamination to move out of the processing port, and assist the workers to carry them, thereby improving the processing efficiency.

Description of drawings

Figure 1 is an exploded view of a photovoltaic water heating module;

Fig. 2 is a cross-sectional view of a photovoltaic water heating module;

Figure 3 is an exploded view of the heat absorbing component of the photovoltaic water heating module;

Fig. 4 is a sectional view of a laminator for processing a photovoltaic water heating module;

Figure 5 is an exploded view of a laminator for processing photovoltaic water heating components;

6 is an overall schematic diagram of a laminator for processing photovoltaic water heating components;

Fig. 7 is a schematic diagram of another angle of a laminator for processing photovoltaic water heating components;

Fig. 8 is a partially enlarged schematic diagram of the symbol A in Fig. 1;

Fig. 9 is a partially enlarged schematic diagram of the symbol B in Fig. 1;

Fig. 10 is a partially enlarged schematic diagram of the symbol C in Fig. 2;

Fig. 11 is a partially enlarged schematic diagram of the symbol D in Fig. 5;

Fig. 12 is a partially enlarged schematic diagram of the symbol E in Fig. 6;

FIG. 13 is a partially enlarged schematic diagram of the symbol F in FIG. 7 .

Detailed ways

In order to describe the technical solution of the present invention more clearly and completely, the present invention will be further described below in conjunction with the accompanying drawings.

Example 1:

Please refer to Fig. 1-Fig. 3, Fig. 8, and Fig. 9. The present invention proposes a photovoltaic water heating module, including a photovoltaic module 1, a first lamination layer 2, a heat-absorbing component 3, a thermal insulation board 4, a thermal insulation ring 5, and a housing Component 6, the housing component 6 is provided with a storage cavity 61 and a fixing groove 62, and the insulation board 4, the heat-absorbing component 3, the first lamination layer 2, and the photovoltaic component 1 are sequentially stacked and stored in the storage cavity 61 from bottom to top, and the heat preservation The ring 5 is fixedly connected around the heat absorbing assembly 3 and accommodated in the fixed groove 62. The heat absorbing assembly 3 includes a first heat absorbing plate 31, a curved pipe 32 and a second heat absorbing plate 33. The first heat absorbing plate 31 and the second heat absorbing plate The two heat absorbing plates 33 are fixedly connected, and the curved pipe 32 is fixedly connected between the first heat absorbing plate 31 and the second heat absorbing plate 33. The first heat absorbing plate 31 is provided with a first half groove 311, and the second heat absorbing plate 33 is provided with a second half-groove 331, the first half-groove 311 and the second half-groove 331 jointly form a placement groove 3133, the curved pipe 32 is accommodated in the placement groove 3133, and a first water inlet is provided on one side of the housing assembly 6 63 and the first water outlet 64, the curved pipe 32 is provided with a second water inlet 321 and a second water outlet 322, the second water inlet 321 is aligned with the first water inlet 63, and the second water outlet 322 is aligned with the first water outlet 64 .

In this embodiment:

The photovoltaic module 1 is a laminated solar panel;

The first lamination layer 2 is glue for lamination, and the material is POE film;

The heat-absorbing component 3 is used to absorb the heat irradiated by sunlight on the photovoltaic component 1, and transfer the heat to the inner curved pipe 32;

Both the first heat absorbing plate 31 and the second heat absorbing plate 33 are endothermic metals for absorbing heat;

The first half-groove 311 and the second half-groove 331 are symmetrically arranged grooves, which are used to provide a place for the curved pipe 32;

The curved pipe 32 is used to store and heat water;

The second water inlet 321 is used to provide a structure for external water flow to enter the curved pipe 32;

The second water outlet 322 is used to provide a channel for the water flow in the curved pipe 32 to flow out of the outside;

The insulation board 4 is used to insulate the contact between the heat-absorbing component 3 and the bottom of the shell component 6 to prevent excessive heat transfer to the shell component 6;

The thermal insulation ring 5 is used to isolate the contact between the heat-absorbing component 3 and the inner side of the shell component 6, so as to prevent excessive heat from being transferred to the shell component 6;

The housing assembly 6 is used to provide a protective structure for the photovoltaic assembly 1 and the heat-absorbing assembly 3;

The receiving cavity 61 is used to provide a space for placing the photovoltaic module 1, the first laminate 2, and the heat-absorbing component 3;

The fixing groove 62 is used to provide a place for the thermal insulation ring 5;

The first water inlet 63 is used to provide a connection structure for external water flow to enter the second water inlet 321;

The first water outlet 64 is used to provide an external connection structure for the water flowing out from the second water outlet 322;

Specifically, during production, the curved pipe 32 is pre-fixed between the first heat absorbing plate 31 and the second heat absorbing plate 33, and then laminated with the photovoltaic module 1, and the heat absorbing component 3, the first pressing Layer 2 and photovoltaic module 1 are placed on the first conveying device 101, and then the heat absorbing component 3 falls into the processing tank 10412 after being transported by the first conveying device 101 and the second conveying device 103, and the lifting component 1044 descends to a corresponding height so that the absorbing The heating component 3 is at the same level as the feeding level of the lamination equipment 104, and then the first laminated layer 2 is conveyed by the first conveying device 101 and the second conveying device 103, falls into the processing tank 10412 and is stacked on the upper surface of the heat-absorbing component 3, The lifting assembly 1044 descends to a corresponding height so that the first lamination layer 2 is equal to the feeding level of the lamination equipment 104, that is, the two wholes are stacked together for lamination, eliminating the need for workers to re-weld the copper tube after hot pressing. Conducive to rapid production of enterprises;

When the photovoltaic hot water module is assembled, the combination of the laminated photovoltaic module 1 and the heat-absorbing module 3 together with the insulation board 4 and the insulation ring 5 are put into the storage cavity 61, and glued to the casing by waterproof glue. At the gap between the body component 6 and the photovoltaic component 1, the assembly is completed.

Further, the housing assembly 6 includes a housing 65, a first nozzle connector 66, a second nozzle connector 67, and a temperature sensor 68. The first water inlet 63 and the first water outlet 64 are both arranged on one side of the housing 65, The first water inlet 63 is provided with a first fixing groove 631, the first water outlet 64 is provided with a second fixing groove 641, and the first nozzle connector 66 is inserted in the first water inlet 63 and extends to the second water inlet. In the water outlet 321 and closely connected with the groove wall of the first fixed groove 631, the second nozzle connector 67 is inserted in the first water outlet 64 and extends into the second water outlet 322 and is connected with the groove of the second fixed groove 641. The walls are tightly connected, and the temperature sensor 68 is fixedly connected to one side of the housing 65 and faces the heat-absorbing assembly 3; the first nozzle connector 66 and the second nozzle connector 67 are both made of solid metal materials, and the outer surfaces are coated There is a soft layer of 0.3~0.5mm for waterproofing; the first nozzle connector 66 is provided with a first insertion column 661 and a first connection column 662 for connecting external pipes, and the first insertion column 661 runs through the first water inlet 63 and inserted into the second water inlet 322, the second nozzle connector 67 is provided with a second insertion column 671 and a second connection column 672 for connecting external pipes, the second insertion column 671 runs through the first water outlet 64 and is inserted into Inside the second water outlet 322.

In this embodiment:

The housing 65 is used to provide a protective structure for the photovoltaic module 1 and the heat-absorbing module 3;

The first nozzle connector 66 is used to provide a connection structure for connecting the external water inlet pipe to the first water inlet 63;

The first insertion column 661 is used for inserting into the first water inlet 63, so that the inner wall of the first water inlet 63 is sealed;

The first connecting column 662 is used to provide an access structure for the external water inlet pipe;

The second nozzle connector 67 is used to provide a connection structure for connecting the external water outlet pipe to the first water outlet 64;

The second insertion column 671 is used for inserting into the first water inlet 64, so that the inner wall of the first water inlet 64 is sealed;

The second connecting column 672 is used to provide an access structure for the external water outlet pipe;

The temperature sensor 68 is used to monitor the temperature on the surface of the heat-absorbing component 3, and feeds back to the user's control device;

The first fixing groove 631 is used to provide a fixed installation position for the first nozzle connector 66;

The second fixing groove 641 is used to provide a fixed installation position for the second nozzle connector 67;

Specifically, the outer surfaces of the first orifice connector 66 and the second orifice connector 67 are coated with a soft layer (rubber layer or silica gel layer) of 0.3-0.5 mm for waterproofing. The water port 63, the second water inlet 321, the first water outlet 64, and the second water outlet 322 are tightly connected to their inner walls, preventing the water flow from penetrating out of the outside when it flows in or out and affecting the use of the photovoltaic hot water module, and improving the curved pipe. The sealing effect;

After the combination of the heat absorbing component 3 and the photovoltaic component 1 is put into the storage chamber 61, the first nozzle connector 66 and the second nozzle connector 67 can be inserted into the first water inlet 63 and the first outlet respectively. In the water port 64, after being inserted, the first nozzle connector 66 extends into the second water inlet 321 and is tightly connected with the inner wall of the second water inlet 321, and the second nozzle connector 67 extends into the second water outlet. 322 and closely connected with the inner wall of the second water outlet 322 .

Further, the photovoltaic module 1 includes a backplane 11, a second lamination layer 12, a photovoltaic cell sheet 13, a third lamination layer 14, a glass 15, a backplane 11, a second lamination layer 12, a photovoltaic cell sheet 13, and a third lamination layer 14. The glass 15 is stacked sequentially from bottom to top.

In this embodiment:

The back plate 11 is made of transparent hard material;

The second laminating layer 12 is glue for laminating photovoltaic cells;

Photovoltaic cells 13 are used to convert solar energy into electrical energy;

The third pressing layer 14 is glue for laminating photovoltaic cells;

The glass 15 is used to provide a protective structure for the photovoltaic cells 13;

Specifically, when laminating the photovoltaic module 1 alone, the back sheet 11, the second lamination layer 12, the photovoltaic cell sheet 13, the third lamination layer 14, and the glass 15 are placed on the first conveying device 101 in sequence, and then the The board 11 is conveyed by the first conveying device 101 and the second conveying device 103 and falls into the processing tank 10412, and the lifting assembly 1044 is lowered to a corresponding height so that the backboard 11 is equal to the feeding position of the lamination equipment 104, and then the second lamination 12 is conveyed by the first conveying device 101 and the second conveying device 103 and falls into the processing tank 10412, and the lifting assembly 1044 descends to a corresponding height so that the second pressing layer 12 is equal to the feeding level of the laminating equipment 104, and then the photovoltaic cells 13 is conveyed by the first conveying device 101 and the second conveying device 103 and falls into the processing tank 10412, and the lifting assembly 1044 is lowered to a corresponding height so that the photovoltaic battery sheet 13 is equal to the feeding level of the lamination equipment 104, and then the third lamination 14 is transported by the first conveying device 101 and the second conveying device 103 and falls into the processing tank 10412, the lifting assembly 1044 descends to a corresponding height so that the third laminating layer 14 is equal to the feeding level of the laminating equipment 104, and then the glass 15 passes through The conveying device 101 and the second conveying device 103 fall into the processing tank 10412, the lifting assembly 1044 descends to a corresponding height so that the glass 15 is equal to the feeding level of the lamination equipment 104, and then the first hydraulic cylinder 1042 drives the heating plate 10421 descends and laminates the stacked materials of the photovoltaic module 1 to make the photovoltaic module 1 .

Please refer to Fig. 4-Fig. 7, Fig. 10-Fig. 13, a laminator for processing photovoltaic water heating modules, including a first conveying device 101, an image acquisition device 102, a second conveying device 103, and a laminating device 104 , the first conveying device 101, the second conveying device 103, and the laminating equipment 104 are arranged in sequence, the second conveying device 103 is fixedly connected to one side of the laminating equipment 104, and the image acquisition device 102 is fixedly connected above the first conveying device 101 and faces On the upper surface of the first conveying device 101, the laminating device 104 includes a fixed frame 1041, a first hydraulic cylinder 1042, a controller 1043, a lifting assembly 1044, and two power assemblies 1045. The controller 1043 communicates with the first conveying device 101 and the image acquisition respectively The device 102, the second conveying device 103, the first hydraulic cylinder 1042, the lifting assembly 1044, and the two power assemblies 1045 are electrically connected, and the first hydraulic cylinder 1042 is fixedly connected to the top of the fixed frame 1041. There is a heating plate 10421, a sliding rod 10411 is provided on the fixed frame 1041, the heating plate 10421 is slidably connected with the sliding rod 10411, a processing groove 10412 is arranged in the fixed frame 1041, and the processing groove 10412 is aligned with the heating plate 10421, and the lifting assembly 1044 is fixedly connected to the The bottom of the fixed frame 1041 is partly accommodated in the processing tank 10412 and aligned with the heating plate 10421. The two power components 1045 are respectively fixedly connected to both sides of the fixed frame 1041 and symmetrically arranged towards the processing tank 10412. The lifting component 1044 can be placed on the heating plate When 10421 presses down and laminates the photovoltaic hot water modules layer by layer, it gradually descends, so that the second conveying device 103 can convey materials into the processing tank 10412 in sequence.

In this embodiment:

The first conveying device 101 is used to convey the plate to the second conveying device 103;

The image acquisition device 102 is used to acquire the sheet placed on the first conveying device 101, and return the image to the controller 1043;

The second conveying device 103 is used to send the sheet material sent from the first conveying device 101 into the processing tank 10412 to provide forward power for the sheet material;

The laminating device 104 is used for laminating the photovoltaic module 1, and laminating the heat absorbing component 3 and the photovoltaic module 1 into one;

The fixing frame 1041 is used to provide a stable support structure for the first hydraulic cylinder 1042;

The processing groove 10412 is used to place the sheets to be laminated;

The first hydraulic cylinder 1042 is used to drive the heating plate 10421 to slide up and down and laminate materials;

The heating plate 10421 is used to heat the laminated materials;

The controller 1043 is used to provide workers with an operating position for setting lamination parameters. It is provided with a main control board inside. The main control board is provided with a data processing module, a driving module, an image processing module, and a storage module. The drive module, the image processing module, and the storage module are electrically connected, the drive module is electrically connected to the first conveying device 101, the second conveying device 103, the first hydraulic cylinder 1042, the power assembly 1045, and the lifting assembly 1044, and the image processing module is connected to the image acquisition The device 102 is electrically connected, and the storage module pre-stores the photo information when the sheet is aligned. When the image acquisition device 102 sends the image information back to the image processing module, the image processing module converts the image information into the first data information And sent to the data processing module, the data processing module calls the photo information in the storage module and converts it into the second data information for comparison with the first data information, if the first data information exists within the error range of the second data information , it is judged that the sheet is in a straightened state, otherwise it is judged that it is not straightened, and at this time, the two correction mechanisms 1012 on the first conveying device 101 are started to correct the sheet;

The lifting assembly 1044 is used for lifting to cooperate with the sheets to be laminated to perform lamination processing in the processing tank 10412;

The power assembly 1045 is used to provide an auxiliary conveying device for the photovoltaic module 1 that has been laminated to be pushed out to the outside, and can also straighten the sheets fed in from the second conveying device 103;

Specifically, when processing the photovoltaic hot water assembly, the photovoltaic assembly 1 is placed layer by layer on the first conveying device 101, and then the first conveying device 101 will sequentially place the heat absorbing assembly 3, the first laminated layer 2, The back plate 11, the second lamination layer 12, the photovoltaic cells 13, the third lamination layer 14, and the glass 15 are transported to the second conveying device 103, and the second conveying device 103 sequentially transports the heat absorbing component 3, the first lamination layer 2 , the back plate 11, the second lamination layer 12, the photovoltaic cells 13, the third lamination layer 14, and the glass 15 are sent into the processing tank 10412 for lamination. drop to ensure the stability of the sheet when it is fed in, and save the step of manually placing the sheet, improving the production efficiency of the production line;

After the heat-absorbing component 3 is laminated and combined with the photovoltaic component 1 through the first lamination layer 2, the lifting component 1044 is raised to lift out the laminated semi-finished product, and then the power component 1045 moves closer to and clamps the semi-finished product. The deceleration conveying motor 10452 then operates, and the conveying wheel 10456 rotates to move the semi-finished product out of the processing tank 10412, assisting workers in carrying, thereby improving the processing efficiency.

Further, the second conveying device 103 includes a support frame 1031, a plurality of second hydraulic cylinders 1032, a plurality of transmission motors 1033, rolling elements 1034, a first distance sensor 1035, a plurality of second hydraulic cylinders 1032, and a plurality of transmission motors 1033 1. The first distance sensors 1035 are all electrically connected to the controller 1034, the support frame 1031 is provided with an accommodation chamber 10311, and the side of the support frame 1031 close to the lamination equipment 104 is provided with an outflow groove 10312, and the outflow groove 10312 is connected to the accommodation chamber 10311 A plurality of second hydraulic cylinders 1032 are arranged in sequence and fixedly accommodated in the accommodation chamber 10311, rolling elements 1034 are fixedly connected to the push rods of the plurality of second hydraulic cylinders 1032, and a plurality of transmission motors 1033 are interspersed and arranged in the plurality of second hydraulic cylinders in sequence. The hydraulic cylinders 1032 are fixedly connected with the rolling elements 1034. Below the rolling elements 1034, there are a plurality of sequentially arranged rolling rollers 10341. The transmission motor 1033 is provided with at least two sequentially arranged transmission wheels 10331. One transmission wheel 10331 is located on two sides. Between two rolling rollers 10341 and abut against two rolling rollers 10341, a support rod 10313 is provided on one side of the support frame 1031, and the first distance sensor 1035 is fixedly connected to the support rod 10313 and faces the first conveying device 101.

In this embodiment:

The support frame 1031 is used to provide a stable placement structure for the second hydraulic cylinder 1032;

The accommodation cavity 10311 is used to provide a space for placing the second hydraulic cylinder 1032, the transmission motor 1033, and the rolling element 1034;

The outflow groove 10312 is used to provide a channel for the plate to slide down to the processing groove 10412, the outflow groove 10314 is located on one side of the processing groove 10412, and the bottom wall of the outflow groove 10312 is a smooth surface;

The supporting rod 10313 is used to provide a supporting structure for the first distance sensor 1035;

There are four second hydraulic cylinders 1032, all of which are used to provide driving force for the rolling element 1034, so that the rolling element 1034 can be pressed down;

There are 3 transmission motors 1033, which are used to transmit the rotating power to the rolling roller 10341. The transmission motor 1033 is equipped with a DC motor and a reduction box. The shaft drives two transmission wheels 10331 to rotate;

The transmission wheel 10331 is used to transmit the rotational force to the rolling roller 10341;

The rolling member 1034 is used to contact the material from above and roll to drive the plate to slide to the outflow groove 10312;

There are 4 rolling rollers 10341, all of which are used for rolling sheets;

The first distance sensor 1035 is an infrared distance sensor for monitoring the thickness of the material;

Specifically, the first conveying device 101 conveys the plate to the second conveying device 103, and then when the plate enters the second conveying device 103, the first distance sensor 1035 detects the distance change from the surface of the first conveying device 101 , the drive module on the main control board in the controller 1043 sends corresponding drive commands to the second hydraulic cylinder 1032, and the second hydraulic cylinder 1032 descends to a corresponding height to just touch the sheet, and when the sheet falls into the processing tank 10412 After that, the drive module on the main control board in the controller 1043 sends corresponding drive commands to the third hydraulic cylinder 10441, and the third hydraulic cylinder 10441 lowers to a corresponding height to make the material flush with the outflow groove 10312.

Further, the power assembly 1045 includes a first driving device 10451, a deceleration conveying motor 10452, and a fixed plate 10453. The first driving device 10451 and the decelerated conveying motor 10452 are electrically connected to the controller 1043, and the fixed plate 10453 is fixedly connected to the fixed frame 1041- Side, the fixed plate 10453 is provided with a sliding groove 10454, the first driving device 10451 is fixedly accommodated in the sliding groove 10454, and a sliding block 10455 is arranged under the deceleration conveying motor 10452, and the sliding block 10455 is accommodated in the sliding groove 10454 and is connected with the first driving device. The rotating shaft of the device 10451 is screwed, and the deceleration conveying motor 10452 is provided with two sequentially arranged conveying wheels 10456 and contact positions 10457, both of which are facing the processing tank 10412.

In this embodiment:

The first driving device 10451 is a stepping motor, which is used to drive the deceleration conveying motor 10452 to slide horizontally;

The deceleration conveying motor 10452 is used to assist workers to push the laminated semi-finished products to the outside. Its internal structure is: DC motor, gearbox, two output shafts, the shaft of the DC motor is connected to the input shaft of the gearbox, and two output shafts The rotating shafts are respectively connected to the delivery wheels 10456;

The fixing plate 10453 is used to provide a supporting structure for the first driving device 10451 and the deceleration conveying motor 10452;

The sliding groove 10454 is used to provide a sliding space for the deceleration conveying motor 10452;

The sliding block 10455 is used to provide a sliding support structure for the deceleration conveying motor 10452;

The delivery wheel 10456 is used to transmit the power to the side of the semi-finished product after lamination;

The contact position 10457 is used to provide a structure for the deceleration output motor to contact with the sheet;

Specifically, when the lifting assembly 1044 lifts up the laminated semi-finished product, the two first driving devices 10451 respectively drive the two deceleration conveying motors 10452 to move towards each other, and the two decelerating conveying motors 10452 slide and clamp the two sides of the semi-finished product After clamping, the conveying wheel 10456 slowly rotates to slowly remove the semi-finished product from the lifting assembly 1044, and the contact position 10457 corrects the sheet when the sheet is stacked on the lifting assembly 1, so that the sheet is placed neatly. Before the heating plate 10421 is pressed down, the first driving device 10451 drives the decelerating conveying motor 10452 to slide away from the processing tank 10412 to avoid the heating plate 10421 .

Further, the lifting assembly 1044 includes a plurality of third hydraulic cylinders 10441, a lifting plate 10442, and a second distance sensor 10443. The plurality of third hydraulic cylinders 10441 and the second distance sensor 10443 are all electrically connected to the controller 1043. The hydraulic cylinders 10441 are arranged in sequence and fixedly connected under the fixed frame 1041. The lifting plate 10442 is fixedly connected to the push rods of multiple third hydraulic cylinders 10441 and is movably accommodated in the processing tank 10412. The second distance sensor 10443 is fixedly connected to the fixed frame. 1041 below and towards the lifting plate 10442.

In this embodiment:

There are three third hydraulic cylinders 10441, which are used to provide lifting power for the lifting plate 10442;

Lifting plate 10442 is used to provide a placement structure for stacked sheets;

The second distance sensor 10443 is used to monitor the lifting height of the lifting plate 10442 and send back the height value to the controller 1043 in real time.

Further, the first conveying device 101 includes a conveying belt 1011 and two correcting mechanisms 1012, and the two correcting mechanisms 1012 are respectively located on both sides of the conveying belt 1011. The correcting mechanism 1012 includes a supporting plate 10121, a second driving device 10122, and a pushing plate 10123. The second drive device 10122 is electrically connected to the controller 1043, the support plate 10121 is fixedly connected to the side plate of the conveyor belt 1011, the second drive device 10122 is fixedly connected to the support plate 10121 and the rotating shaft is slidably connected to the push plate 10123, and the push plate 10123 It is slidably connected with the support plate 10121 and faces the conveyor belt 1011.

In this embodiment:

The conveyor belt 1011 is used to transport the plate to the second conveying device 103;

The correction mechanism 1012 is used to correct the irregularly placed sheets;

The supporting plate 10121 is used to provide a stable supporting structure for the second driving device 10122;

The second driving device 10122 is a stepping motor, which is used to drive the push plate 10123 to slide;

The push plate 10123 is used to push the plate to make it straight;

Specifically, when the image acquisition device 102 acquires the incorrectly placed sheet, the second driving device 10122 rotates to drive the push plate 10123 to slide towards the sheet, and then the push plates 10123 on both sides push the sheet to be straight.

Example 2:

Please refer to Figure 4-13, the present invention proposes a photovoltaic water heating module, including a photovoltaic module, a first lamination layer, a heat-absorbing component, a thermal insulation board, glass, and a housing assembly. The housing assembly is provided with a storage cavity and a thermal insulation board , the heat-absorbing component, the first lamination layer, and the photovoltaic module are sequentially stacked from bottom to top and stored in the storage cavity. The heat-absorbing component includes a heat-absorbing plate and a curved pipe, which is welded under the heat-absorbing plate. There are a first water inlet and a first water outlet, the curved pipe is provided with a second water inlet and a second water outlet, the second water inlet is aligned with the first water inlet, and the second water outlet is aligned with the first water outlet.

In this embodiment:

The photovoltaic module is a laminated solar panel;

The first lamination layer is lamination glue, and the material is POE film;

The heat-absorbing component is used to absorb the heat of the solar radiation on the photovoltaic module and transfer the heat to the inner curved pipe;

The heat-absorbing plate is a heat-absorbing metal for absorbing heat;

The curved pipes are copper pipes, which are used to store and heat water;

The second water inlet is used to provide a structure for the external water flow to enter the curved pipe;

The second water outlet is used to provide a channel for the water flow in the curved pipe to flow out of the outside;

The insulation board is used to insulate the contact between the heat-absorbing component and the bottom of the shell component to prevent excessive heat from being transferred to the shell component. The insulation plate is provided with a curved groove for placement and matching with the curved pipe. The curved groove is used for bending The pipe provides a space to place it, which is beneficial to protect the curved pipe during lamination;

The shell component is used to provide a protective structure for the photovoltaic component and the heat sink component;

The storage cavity is used to provide a space for placing the photovoltaic module, the first laminate, and the heat-absorbing module;

The first water inlet is used to provide a connecting structure for external water flow to enter the second water inlet;

The first water outlet is used to provide an external connection structure for the water flowing out from the second water outlet;

Specifically, during production, first put the insulation board into the shell assembly, then weld the curved pipe under the heat-absorbing plate, and then put the welded heat-absorbing plate into a fixed mold with good thermal conductivity. Lamination, the fixed mold has a certain strength, and the production material is graphite or solid metal. At this time, the curved pipe will not be damaged during lamination, and then the fixed mold containing the heat absorbing plate, the first laminate, and the photovoltaic The component is placed on the first conveying device, and then the heat absorbing component falls into the processing tank 10412 after being transported by the first conveying device and the second conveying device, and the lifting component 1044 descends to a corresponding height so that the heat absorbing component 3 and the lamination equipment 104 The feed level is flat, and then the first layer 2 falls into the processing tank 10412 after being conveyed by the first conveying device 101 and the second conveying device 103, and is stacked on the upper surface of the heat-absorbing component 3, and the lifting component 1044 is lowered to a corresponding height so that the first The first lamination layer 2 is at the same level as the feeding position of the lamination equipment 104, that is, the two wholes are stacked together for lamination, and then put into the shell assembly for assembly after lamination, which saves the workers from re-laminating after hot pressing. The steps of welding copper pipes are conducive to the rapid production of enterprises.

Further, the housing assembly 6 includes a housing 65, a first nozzle connector 66, a second nozzle connector 67, and a temperature sensor 68. The first water inlet 63 and the first water outlet 64 are both arranged on one side of the housing 65, The first water inlet 63 is provided with a first fixing groove 631, the first water outlet 64 is provided with a second fixing groove 641, and the first nozzle connector 66 is inserted in the first water inlet 63 and extends to the second water inlet. In the water outlet 321 and closely connected with the groove wall of the first fixed groove 631, the second nozzle connector 67 is inserted in the first water outlet 64 and extends into the second water outlet 322 and is connected with the groove of the second fixed groove 641. The walls are tightly connected, and the temperature sensor 68 is fixedly connected to one side of the housing 65 and faces the heat-absorbing assembly 3; the first nozzle connector 66 and the second nozzle connector 67 are both made of solid metal materials, and the outer surfaces are coated There is a soft layer of 0.3~0.5mm for waterproofing; the first nozzle connector 66 is provided with a first insertion column 661 and a first connection column 662 for connecting external pipes, and the first insertion column 661 runs through the first water inlet 63 and inserted into the second water inlet 322, the second nozzle connector 67 is provided with a second insertion column 671 and a second connection column 672 for connecting external pipes, the second insertion column 671 runs through the first water outlet 64 and is inserted into Inside the second water outlet 322.

In this embodiment:

The housing 65 is used to provide a protective structure for the photovoltaic module 1 and the heat-absorbing module 3;

The first nozzle connector 66 is used to provide a connection structure for connecting the external water inlet pipe to the first water inlet 63;

The first insertion column 661 is used for inserting into the first water inlet 63, so that the inner wall of the first water inlet 63 is sealed;

The first connecting column 662 is used to provide an access structure for the external water inlet pipe;

The second nozzle connector 67 is used to provide a connection structure for connecting the external water outlet pipe to the first water outlet 64;

The second insertion column 671 is used for inserting into the first water inlet 64, so that the inner wall of the first water inlet 64 is sealed;

The second connecting column 672 is used to provide an access structure for the external water outlet pipe;

The temperature sensor 68 is used to monitor the temperature on the surface of the heat-absorbing component 3, and feeds back to the user's control device;

The first fixing groove 631 is used to provide a fixed installation position for the first nozzle connector 66;

The second fixing groove 641 is used to provide a fixed installation position for the second nozzle connector 67;

Specifically, the outer surfaces of the first orifice connector 66 and the second orifice connector 67 are coated with a soft layer (rubber layer or silica gel layer) of 0.3-0.5 mm for waterproofing. The water port 63, the second water inlet 321, the first water outlet 64, and the second water outlet 322 are tightly connected to their inner walls, preventing the water flow from penetrating out of the outside when it flows in or out and affecting the use of the photovoltaic hot water module, and improving the curved pipe. The sealing effect;

After the combination of the heat absorbing component 3 and the photovoltaic component 1 is put into the storage chamber 61, the first nozzle connector 66 and the second nozzle connector 67 can be inserted into the first water inlet 63 and the first outlet respectively. In the water port 64, after being inserted, the first nozzle connector 66 extends into the second water inlet 321 and is tightly connected with the inner wall of the second water inlet 321, and the second nozzle connector 67 extends into the second water outlet. 322 and closely connected with the inner wall of the second water outlet 322 .

Further, the photovoltaic module 1 includes a backplane 11, a second lamination layer 12, a photovoltaic cell sheet 13, a third lamination layer 14, a glass 15, a backplane 11, a second lamination layer 12, a photovoltaic cell sheet 13, and a third lamination layer 14. The glass 15 is stacked sequentially from bottom to top.

In this embodiment:

The back plate 11 is made of transparent hard material;

The second laminating layer 12 is glue for laminating photovoltaic cells;

Photovoltaic cells 13 are used to convert solar energy into electrical energy;

The third pressing layer 14 is glue for laminating photovoltaic cells;

The glass 15 is used to provide a protective structure for the photovoltaic cells 13;

Specifically, when laminating the photovoltaic module 1 alone, the back sheet 11, the second lamination layer 12, the photovoltaic cell sheet 13, the third lamination layer 14, and the glass 15 are placed on the first conveying device 101 in sequence, and then the The board 11 is conveyed by the first conveying device 101 and the second conveying device 103 and falls into the processing tank 10412, and the lifting assembly 1044 is lowered to a corresponding height so that the backboard 11 is equal to the feeding position of the lamination equipment 104, and then the second lamination 12 is conveyed by the first conveying device 101 and the second conveying device 103 and falls into the processing tank 10412, and the lifting assembly 1044 descends to a corresponding height so that the second pressing layer 12 is equal to the feeding level of the laminating equipment 104, and then the photovoltaic cells 13 is conveyed by the first conveying device 101 and the second conveying device 103 and falls into the processing tank 10412, and the lifting assembly 1044 is lowered to a corresponding height so that the photovoltaic battery sheet 13 is equal to the feeding level of the lamination equipment 104, and then the third lamination 14 is transported by the first conveying device 101 and the second conveying device 103 and falls into the processing tank 10412, the lifting assembly 1044 descends to a corresponding height so that the third laminating layer 14 is equal to the feeding level of the laminating equipment 104, and then the glass 15 passes through The first conveying device 101 and the second conveying device 103 fall into the processing tank 10412, and the lifting assembly 1044 descends to a corresponding height so that the glass 15 is equal to the feeding level of the laminating equipment 104, and then the first hydraulic cylinder 1042 drives the heating plate 10421 descends and laminates the stacked materials of the photovoltaic module 1 to make the photovoltaic module 1 .

Certainly, the present invention may also have other various implementation modes. Based on this implementation mode, other implementation modes obtained by those skilled in the art without any creative work shall fall within the protection scope of the present invention.

Claims (10)

1. A photovoltaic hot water assembly, characterized in that it comprises a photovoltaic assembly, a first laminate, a heat-absorbing assembly, a thermal insulation board, a thermal insulation ring, and a housing assembly, and the housing assembly is provided with a storage cavity and a fixing groove, The thermal insulation board, the heat-absorbing component, the first laminate, and the photovoltaic component are sequentially stacked from bottom to top and accommodated in the storage cavity, and the thermal-preservation ring is fixedly connected around the heat-absorbing component and accommodated in the fixing groove, the heat-absorbing assembly includes a first heat-absorbing plate, a curved pipe and a second heat-absorbing plate, the first heat-absorbing plate is fixedly connected to the second heat-absorbing plate, the The curved pipe is fixedly connected between the first heat absorbing plate and the second heat absorbing plate, the first heat absorbing plate is provided with a first half groove, and the second heat absorbing plate is provided with a second A half groove, the first half groove and the second half groove jointly form a placement groove, the curved pipe is accommodated in the placement groove, and a first water inlet and a first water inlet are provided on one side of the housing assembly. A water outlet, the curved pipe is provided with a second water inlet and a second water outlet, the second water inlet is aligned with the first water inlet, and the second water outlet is aligned with the first water outlet. 2. The photovoltaic water heating assembly according to claim 1, wherein the housing assembly comprises a housing, a first nozzle connector, a second nozzle connector, a temperature sensor, the first water inlet and The first water outlets are all arranged on one side of the housing, the first water inlet is provided with a first fixing groove, the first water outlet is provided with a second fixing groove, and the first nozzle is connected to The piece is inserted in the first water inlet and extends into the second water inlet and is closely connected with the groove wall of the first fixing groove, and the second nozzle connector is inserted in the first The water outlet extends into the second water outlet and is closely connected with the groove wall of the second fixed groove. The temperature sensor is fixedly connected to one side of the shell and faces the heat-absorbing component. 3. The photovoltaic water heating module according to claim 2, characterized in that, both the first nozzle connector and the second nozzle connector are made of solid metal materials, and the outer surfaces are coated with 0.3~0.5mm is used for waterproof soft layer. 4. The photovoltaic water heating module according to claim 2, characterized in that, the first spout connector is provided with a first insertion column and a first connection column for connecting external pipes, and the first insertion column Through the first water inlet and inserted into the second water inlet, the second nozzle connector is provided with a second insertion post and a second connection post for connecting to an external pipe, the second insertion post penetrates The first water outlet is inserted into the second water outlet. 5. The photovoltaic water heating module and its laminator according to claim 1, wherein the photovoltaic module comprises a back plate, a second laminate, a photovoltaic battery sheet, a third laminate, and glass, and the back The board, the second lamination layer, the photovoltaic cells, the third lamination layer, and the glass are stacked sequentially from bottom to top. 6. A laminator for processing photovoltaic water heating components, including the photovoltaic water heating components described in claims 1-5 above, characterized in that it includes a first conveying device, an image acquisition device, and a second conveying device . Laminating equipment, the first conveying device, the second conveying device, and the laminating equipment are arranged in sequence, the second conveying device is fixedly connected to one side of the laminating device, and the image acquisition device is fixedly connected to the Above the first conveying device and toward the upper surface of the first conveying device, the lamination equipment includes a fixed frame, a first hydraulic cylinder, a controller, a lifting assembly, and two power assemblies, and the controller is respectively connected to the first conveying device. A conveying device, the image acquisition device, the second conveying device, the first hydraulic cylinder, the lifting assembly, and the two power assemblies are electrically connected, and the first hydraulic cylinder is fixedly connected to the fixed Above the frame, a heating plate is provided on the push rod of the first hydraulic cylinder, a sliding rod is provided on the fixed frame, the heating plate is slidably connected to the sliding rod, and a processing groove is provided in the fixed frame. The processing tank is aligned with the heating plate, the lifting assembly is fixedly connected to the bottom of the fixed frame and partially accommodated in the processing tank and aligned with the heating plate, and the two power components are respectively fixedly connected to Both sides of the fixing frame are arranged symmetrically and facing the processing tank, and the lifting assembly can gradually descend when the hot pressing plate is pressed down and the photovoltaic water heating assembly is pressed layer by layer, so that the second conveying The device can sequentially transport materials into the processing tank. 7. The laminator for processing photovoltaic water heating components according to claim 6, wherein the second conveying device comprises a support frame, a plurality of second hydraulic cylinders, a plurality of transmission motors, rolling elements, The first distance sensor, the plurality of second hydraulic cylinders, the plurality of transmission motors, and the first distance sensor are all electrically connected to the controller, the support frame is provided with an accommodation cavity, and the support frame is close to the layer One side of the press equipment is provided with an outflow groove, and the outflow groove is connected to the accommodating cavity, and a plurality of the second hydraulic cylinders are arranged in sequence and fixedly stored in the accommodating cavity, and the rolling elements are fixedly connected to multiple On the push rod of each of the second hydraulic cylinders, a plurality of transmission motors are sequentially interspersed and arranged between the plurality of second hydraulic cylinders and are fixedly connected with the rolling elements. The rolling rollers arranged in sequence, the transmission motor is provided with at least two transmission wheels arranged in sequence, one of the transmission wheels is located between the two rolling rollers and abuts against the two rolling rollers, the support A support rod is provided on one side of the frame, and the first distance sensor is fixedly connected to the support rod and faces the first conveying device. 8. The laminator for processing photovoltaic water heating modules according to claim 6, characterized in that, the power assembly includes a first driving device, a deceleration conveying motor, and a fixed plate, and the first driving device, the The deceleration conveying motors are all electrically connected to the controller, the fixed plate is fixedly connected to one side of the fixed frame, the fixed plate is provided with a sliding groove, and the first driving device is fixedly accommodated in the sliding groove Inside, a sliding block is provided under the deceleration conveying motor, the sliding block is accommodated in the sliding groove and is screwed with the rotating shaft of the first driving device, and two sequentially arranged on one side of the decelerating conveying motor The conveying wheel and the contact position, both of the conveying wheels and the contact position are facing the processing tank. 9. The laminator for processing photovoltaic water heating modules according to claim 6, characterized in that, the lifting assembly includes a plurality of third hydraulic cylinders, a lifting plate, and a second distance sensor, and a plurality of the first The three hydraulic cylinders and the second distance sensor are all electrically connected to the controller, a plurality of the third hydraulic cylinders are arranged in sequence and fixedly connected under the fixed frame, and the lifting plate is fixedly connected to the plurality of third hydraulic cylinders. The push rod of the hydraulic cylinder is movably accommodated in the processing tank, and the second distance sensor is fixedly connected under the fixing frame and faces the lifting plate. 10. The laminator for processing photovoltaic water heating modules according to claim 6, characterized in that, the first conveying device includes a conveyor belt and two correcting mechanisms, and the two correcting mechanisms are respectively located on the On both sides of the conveyor belt, the correction mechanism includes a support plate, a second drive device, and a push plate, the second drive device is electrically connected to the controller, and the support plate is fixedly connected to the side plate of the conveyor belt , the second driving device is fixedly connected to the support plate and the rotating shaft is slidably connected to the push plate, and the push plate is slidably connected to the support plate and faces the conveyor belt.

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