Assembly process and assembly construction device for a wall heating gypsum composite board

Abstract

The present invention discloses an assembly process and an assembly construction device for a wall heating gypsum composite board, including a docking slideway, a flipping fixing plate, a patch mechanism and a vertical plate pushing plate. The flipping fixing plate and the vertical plate pushing plate are both arranged on the docking slideway, and the vertical plate pushing plate is slidably connected to the docking slideway. The flipping fixing plate and the vertical plate pushing plate are respectively loaded with a gypsum board A to be assembled and a gypsum board B to be assembled. By using heat-conducting foam to clamp the graphene heating sheet, the present invention reduces the damage to the graphene heating sheet caused by the hard surface of the gypsum board and the possibility of short circuit of the graphene heating sheet after water absorption, thereby reducing the failure rate of the application of the wall heating composite gypsum board. The gypsum board is pushed by the vertical plate pushing plate to combine the gypsum boards, so as to form a whole machine gypsum board for application, improving the work efficiency and reducing the product damage rate.

Description

Technical Field

[0001] The present invention relates to the technical field of wall heating assembly, and in particular to an assembly process and an assembly construction device for a wall heating gypsum composite board. Background Art

[0002] In recent years, graphene has also begun to be used in wall heating due to its strong thermal conductivity. Gypsum board also offers excellent properties for lightweight insulation and sound absorption. Combining gypsum board with graphene heating sheets can create gypsum board wall heating systems, which can be applied in practice.

[0003] However, due to the fragility of the graphene thermal pad's surface, even scratches can cause it to lose functionality or even lead to safety accidents. Gypsum board surfaces are generally rough, and clamping the graphene thermal pad directly between gypsum boards can easily damage the surface of the graphene thermal pad, causing scratches on the gypsum board surface, increasing the failure rate after assembly and use (and making post-assembly repairs difficult). Furthermore, because gypsum board is highly absorbent, when moisture returns to the home during humid weather, the absorbed gypsum board can cause the graphene thermal pad to short circuit, posing a safety risk (also making repairs difficult).

[0004] Therefore, the failure rate of the combination technology of graphene heating sheet and gypsum board in the existing technology center is relatively high. Summary of the invention

[0005] The purpose of the present invention is to provide an assembly process and assembly construction device for a wall heating gypsum composite board, so as to solve the technical problems in the prior art that the surface of the graphene heating plate is easily scratched by the gypsum board and the gypsum board is inconvenient to assemble.

[0006] In order to solve the above technical problems, the present invention specifically provides the following technical solutions:

[0007] An assembly process for a wall-heating gypsum composite board comprises the following steps:

[0008] A material storage cavity is formed by slotting one side of the formed gypsum board, and a material injection hole is opened on the edge of the gypsum board to communicate with the interior of the material storage cavity, so as to form a gypsum board to be assembled;

[0009] A plurality of plug holes are provided at the edge of the opening of the material storage cavity of the gypsum board to be assembled to form the gypsum board A to be assembled;

[0010] A plurality of plug-in blocks are provided at the edge of the opening of the material storage cavity of the gypsum board to be assembled to form the gypsum board B to be assembled;

[0011] The graphene heating sheet is adhered to the edge of the opening of the material storage cavity of the gypsum board A to be assembled through the adhesive sheet provided on the edge thereof to form the gypsum board C to be assembled;

[0012] The to-be-assembled gypsum board C is disposed directly opposite to the opening of the storage cavity of the to-be-assembled gypsum board B, so that the insertion holes of the to-be-assembled gypsum board C are directly opposite to the insertion blocks of the to-be-assembled gypsum board B, and they are pressed together.

[0013] After injecting heat-conducting foam into the storage cavity through the injection hole, the injection hole is closed to form a foam layer, and the foam layer closely adheres to the graphene heating sheet.

[0014] As a preferred solution of the present invention, the area of the graphene heating sheet is less than or equal to the area of the opening of the storage cavity.

[0015] A wall heating gypsum composite board assembling device based on the manufacturing process according to any one of the claims, characterized in that it includes:

[0016] A docking slideway, a flipping fixing plate, a patch mechanism and a vertical plate push plate. The flipping fixing plate and the vertical plate push plate are both arranged on the docking slideway, and the vertical plate push plate is slidably connected to the docking slideway;

[0017] The flipping fixing plate and the vertical plate push plate are respectively loaded with the to-be-assembled gypsum board A and the to-be-assembled gypsum board B, and the storage cavities on the to-be-assembled gypsum board A and the to-be-assembled gypsum board B are disposed directly opposite to each other. The graphene heating sheet is adhered to the to-be-assembled gypsum board A through a patch structure to form the to-be-assembled gypsum board C. The vertical plate push plate slides towards the flipping fixing plate, driving the to-be-assembled gypsum board C to be inserted and pressed together with the to-be-assembled gypsum board B to form a complete machine gypsum board.

[0018] As a preferred solution of the present invention, the flipping fixing plate is horizontally arranged on the docking slideway in a manner parallel to the docking slideway through a rotating structure, and the flipping fixing plate can be flipped to a position perpendicular to the docking slideway through the rotating structure to correspond to the vertical plate push plate.

[0019] The flipping fixing plate is connected to the docking slideway through a rotating structure. The to-be-assembled gypsum board A is loaded on the flipping fixing plate at a position parallel to the docking slideway and the graphene heating sheet is adhered.

[0020] The flipping fixing plate is flipped to a position perpendicular to the docking slideway through the rotating structure, and is docked with the vertical plate push plate at this position to form a complete machine gypsum board.

[0021] As a preferred solution of the present invention, the rotating structure includes a rotating shaft and a folding support rod. The flipping fixing plate is rotatably connected to the docking slideway through the rotating shaft for flipping;

[0022] One end of the folding support rod is installed on the docking slideway, and the other end is installed on the side of the flipping fixed plate away from the gypsum board A to be assembled. The folding support rod can obliquely support the flipping fixed plate in the vertical state.

[0023] As a preferred solution of the present invention, the patch structure includes a grasping suction cup, a positioning grid, and a telescopic pressing block. The positioning grid positions the grasping suction cup that has sucked the graphene heating sheet on the storage cavity of the gypsum board A to be assembled by abutting against the side of the flipped fixed plate or the vertical plate push plate.

[0024] The telescopic pressing block bonds the graphene heating sheet to the gypsum board A to be assembled by telescopically pressing the adhesive sheet at the edge of the graphene heating sheet.

[0025] As a preferred solution of the present invention, clamping assemblies for clamping the gypsum board A to be assembled and the gypsum board B are provided on both the flipping fixed plate and the vertical plate push plate.

[0026] The clamping assembly includes an out groove opened on the sides of the flipping fixed plate and the vertical plate push plate and a clamping plate provided in the out groove. The clamping plate is installed in the out groove through an elastic member, extends outward from the out groove to the sides of the gypsum board A to be assembled and the gypsum board B, and clamps the gypsum board through the resilience of the elastic member.

[0027] As a preferred solution of the present invention, unlocking mechanisms for loosening the clamping plate are provided on both the flipping fixed plate and the vertical plate push plate, and the unlocking mechanisms are provided on the opposite faces of the flipping fixed plate and the vertical plate push plate. After the vertical plate push plate drives the gypsum board B to be assembled to be pressed against the gypsum board C to be assembled, the two unlocking structures interact to unlock the gypsum board C to be assembled and the gypsum board B at the same time.

[0028] As a preferred solution of the present invention, the unlocking structure includes an unlocking column, an unlocking hole, and an unlocking structure member. The unlocking structure member is provided below the out groove, and the unlocking structure member can enter the out groove and push the clamping plate to move away from the bottom of the out groove for unlocking. The unlocking column is inserted into the unlocking hole to trigger the unlocking structure member to work.

[0029] Unlocking columns and unlocking holes are provided on both the flipping fixed plate and the vertical plate push plate, and the unlocking column on the flipping fixed plate corresponds to the unlocking hole on the vertical plate push plate, and the unlocking hole on the flipping fixed plate corresponds to the unlocking column on the vertical plate push plate.

[0030] In a preferred embodiment of the present invention, the unlocking structural member includes a lever member, a pushing block, and a movement cavity. The movement cavity is disposed below the outlet groove and communicates with the outlet groove through an opening. A rotating shaft is rotatably provided in the middle of the lever member. One end of the lever member is disposed in the unlocking hole, and the other end is disposed in the movement cavity and connected to the pushing block. The pushing block corresponds to the outlet.

[0031] The unlocking column is inserted into the unlocking hole to press down one end of the lever member to lift the pushing block into the outlet groove, and push the clamping plate to move for unlocking.

[0032] The present invention has the following beneficial effects compared with the prior art:

[0033] In the present invention, the graphene heating sheet is clamped by using a heat-conducting filling material, so that it does not directly contact the rough surface of the gypsum board, but instead contacts the heat-conducting filling material, so as to reduce the damage to the graphene heating sheet caused by the hard surface of the gypsum board and the possibility of short circuit of the graphene heating sheet after water absorption, thereby reducing the failure rate of the wall heating combined gypsum board application.

[0034] In addition, the present invention is provided with a construction device for assembling gypsum boards. The gypsum boards are pushed by using a pushing plate of a construction plate to be combined, so as to form a whole machine gypsum board for application, improving the work efficiency and reducing the product damage rate. BRIEF DESCRIPTION OF THE DRAWINGS

[0035] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following will briefly introduce the drawings required for the description of the embodiments or the prior art. Obviously, the drawings in the following description are only exemplary, and for those of ordinary skill in the art, without creative efforts, other implementation drawings can be obtained according to the provided drawings.

[0036] Figure 1 It is a side structure diagram of the assembling device of the present invention, wherein the flipping fixing plate is in a horizontal state;

[0037] Figure 2 It is an exploded structure diagram of the combined gypsum board of the present invention;

[0038] Figure 3 For the present invention Figure 1 The enlarged view of the bonding sheet in;

[0039] Figure 4 For the present invention Figure 1 The enlarged view of the A part in;

[0040] Figure 5 It is a side structure diagram of the assembling device of the present invention, wherein the flipping fixing plate is in a vertical state;

[0041] Figure 6 This is a schematic structural diagram of the clamping plate in the present invention;

[0042] Figure 7 This is a schematic diagram of the unlocking structural member of the present invention;

[0043] Figure 8 For the present invention Figure 7 An enlarged view of part B in;

[0044] Figure 9 This is a side cross-sectional view of the clamping plate in the present invention.

[0045] The reference numerals in the figure are respectively represented as follows:

[0046] 1. Storage cavity; 2. Injection hole; 3. Insertion hole; 4. Gypsum board A to be assembled; 5. Insertion block; 6. Gypsum board B to be assembled; 7. Graphene heating sheet; 8. Adhesive sheet; 9. Gypsum board C to be assembled; 10. Foam layer; 11. Docking slideway; 12. Flipping fixing plate; 13. Patch structure; 14. Vertical plate push plate; 15. Rotating shaft; 16. Folding support rod; 17. Grabbing suction cup; 18. Positioning grid; 19. Telescopic pressing block; 20. Outlet groove; 21. Clamping plate; 22. Elastic member; 23. Unlocking column; 24. Unlocking hole; 25. Unlocking structural member; 26. Lever member; 27. Pushing block; 28. Movement cavity. Detailed implementation manners

[0047] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without making creative efforts shall fall within the protection scope of the present invention.

[0048] Fix and connect two gypsum boards by using an external clamping assembly to clamp the opposite sides of the two gypsum boards or by applying an adhesive material on the opposite sides of the gypsum boards;

[0049] As Figures 1 to 9 shown, the present invention provides an assembly process and an assembly construction device for a wall heating gypsum composite board, including,

[0050] Open a storage cavity 1 on one side of the formed gypsum board, and open an injection hole 2 communicating with the inside of the storage cavity 1 at the edge of the gypsum board to form a gypsum board to be assembled.

[0051] Open a plurality of insertion holes 3 at the edge of the opening of the storage cavity 1 of the gypsum board to be assembled to form a gypsum board A 4 to be assembled.

[0052] A plurality of plug-in blocks 5 are formed at the edge of the opening of the storage cavity 1 of the gypsum board to be assembled, forming the gypsum board B6 to be assembled.

[0053] The graphene heating sheet 7 is adhered to the edge of the opening of the storage cavity 1 of the gypsum board A4 to be assembled through the adhesive sheet 8 provided at its edge to form the gypsum board C9 to be assembled.

[0054] The gypsum board C9 to be assembled is disposed opposite to the opening of the storage cavity 1 of the gypsum board B6 to be assembled, so that the plug-in holes 3 of the gypsum board C9 to be assembled are opposite to the plug-in blocks 5 of the gypsum board B6 to be assembled and are pressed together.

[0055] Thermal conductive foam is injected into the storage cavity 1 through the injection hole 2, and then the injection hole 2 is closed to form a foam layer 10, and the foam layer 10 is closely attached to the graphene heating sheet 7.

[0056] In the prior art, there are usually rough burrs on the surface of the gypsum board after production. Even after the deburring process, there are still fine residues. The graphene heating sheet 7 itself is very thin, and generally no protective film or a very thin protective film is provided on its surface. Therefore, if the graphene heating sheet 7 is directly in contact with the surface of the gypsum board, the surface of the graphene heating sheet 7 is easily scratched by the burrs. Even if it is not scratched but only has indentations left, the graphene heating sheet 7 will be damaged after long-term use, increasing the failure rate of the combined board.

[0057] Therefore, in this device, the graphene heating sheet 7 is disposed between the gypsum boards, but the main body of the graphene heating sheet 7 is not in contact with the surface of the gypsum board. Instead, by injecting thermal conductive foam, the graphene heating sheet 7 is in contact with the thermal conductive foam. This setting method can not only stably install the graphene heating sheet 7 between the two gypsum boards, but also avoid being rubbed by the gypsum board, thereby reducing the damage rate of the graphene heating sheet 7.

[0058] The specific setting can be that the fronts of the two gypsum boards are both recessed inward to form a storage cavity 1 with an opening, and injection holes 2 communicating with the storage cavity 1 are provided on the sides of the two gypsum boards. The two gypsum boards sandwich the graphene heating sheet 7 between them with the storage cavities 1 facing each other.

[0059] The graphene heating sheet 7 is connected to the edge of the storage cavity 1 through a connecting piece to integrally fix the graphene heating sheet 7 at the opening of the storage cavity 1.

[0060] The adhesive sheet 8 can be set to include a U-shaped film 82 and a straight strip film 81. One end of the straight strip film 81 is provided at the protruding end of the U-shaped film 82 and is integrally formed with the U-shaped film 82 to form a whole. The U-shaped film 82 is clamped and adhered to the front and back sides of the graphene heating sheet 7, and the straight strip film 81 is a double-sided film for respectively connecting to the two opposite sides of the two gypsum boards.

[0061] The U-shaped film 82 and the straight-strip film 81 are respectively used to connect with the graphene heating sheet 7 and the gypsum board, so as to connect the graphene heating sheet 7 to the gypsum board. Moreover, through the connection method of film bonding and the subsequent connection method of connecting two gypsum boards through the insertion holes 3 and the insertion blocks 5, the device has the function of easy disassembly and assembly. When it is necessary to replace the graphene heating sheet 7 or the gypsum board, by quickly disassembling the gypsum board and tearing off the adhesive sheet 8, the replacement of the device can be quickly realized, making the device more convenient to use.

[0062] The gypsum board clamps and fixes the graphene heating sheet 7 located between two gypsum boards by injecting heat-conducting foam into the storage cavity 1 from the injection hole 2.

[0063] Moreover, since the gypsum board has good water absorption, when the home gets damp during the rainy season, if the graphene heating sheet 7 is directly in contact with the gypsum board, it may cause the graphene heating sheet 7 to be open-circuited, resulting in device damage and even fire risks. Therefore, the heat-conducting filling foam injected inside can also play an insulating role to isolate the two, and can effectively prevent risks from occurring.

[0064] In addition, the graphene heating sheet 7 is connected to an external temperature control system 7, and the heat emitted by the graphene heating sheet 7 is flexibly controlled through electrical operation, which can achieve a better heating effect. The graphene heating sheet 7 is connected to the external temperature control system through a cable. The wire harness can be arranged in the injection hole 2 and extends to the outside through the injection hole 2 to be connected to the temperature control system, and then the heat-conducting foam to be injected fixes the wire harness. Additionally, another hole can also be opened on the side of the gypsum board specifically for passing the wire harness.

[0065] In this device, the graphene heating sheet 7 is arranged at the opening of the storage cavity 1, that is, the graphene heating sheet 7 is not arranged inside the storage cavity 1, but is mainly arranged between the surfaces where two gypsum boards are joined together, and is supported and fixed by the subsequent injected heat-conducting material. Therefore, the area of the graphene heating sheet 7 is less than or equal to the area of the opening of the storage cavity 1. That is, the graphene heating sheet 4 does not contact the gypsum board, but contacts the gypsum board through the adhesive sheet 8, thereby avoiding damage to the graphene heating sheet 7 caused by the friction of burrs to the greatest extent.

[0066] In addition, in the manufacturing process, the heat-conducting foam is carried out after the graphene heating sheet 7 is arranged on the gypsum board and the two gypsum boards are joined and connected. And when injecting the heat-conducting foam into the storage cavity 1, a double-headed injection tube can be used. That is, two injection heads are simultaneously inserted into the two injection holes 2 of the two gypsum boards, and then the inside of the storage cavity 1 is injected with material. This method can ensure the filling uniformity of the heat-conducting foam inside the two storage cavities 1, making the clamping and fixing effect of the graphene heating sheet 7 better.

[0067] In addition, a heat insulation layer may be provided on the outer surface of one of the gypsum boards, and the heat insulation layer is used to separate the gypsum board from the wall on which the gypsum board is installed. When this device is installed on the wall for use, the device that generates heat for a long time will damage the paint and putty on the existing wall surface. Therefore, a heat insulation layer is provided on the outer surface of one of the gypsum boards.

[0068] In addition, a decorative panel pattern is provided on the outer surface of the other gypsum board (the one without the heat insulation layer), which increases the user-friendliness of the device and avoids the need for separate decoration after installing this device, simplifying the decoration steps.

[0069] For the fixed connection of the connected gypsum boards, this device is provided with insertion holes and insertion blocks. The insertion holes and insertion blocks are mature technologies in the prior art, and their main purpose is to fixedly connect the two gypsum boards. Specifically, traditional mortise and tenon techniques or a snap-fit component pushed by a spring can be used to limit and fix the insertion block.

[0070] And after the insertion block and the insertion hole are connected, connection sealant can also be applied to the edge where the two gypsum boards are connected to increase the firmness and tightness of the connection.

[0071] The present invention also provides an assembly construction device for assembling and constructing the wall heating gypsum composite board formed by using the above assembly process. It includes a docking slideway 11, a flipping fixed plate 12, a patch mechanism 13, and a vertical plate push plate 14. The flipping fixed plate 12 and the vertical plate push plate 14 are both arranged on the docking slideway 11, and the vertical plate push plate 14 is slidably connected to the docking slideway 11;

[0072] The flipping fixed plate 12 and the vertical plate push plate 14 are respectively loaded with a gypsum board A4 to be assembled and a gypsum board B6 to be assembled, and the storage cavities 1 on the gypsum board A4 to be assembled and the gypsum board B6 to be assembled are arranged opposite to each other. A graphene heating sheet 7 is adhered to the gypsum board A4 to be assembled through a patch structure 13 to form a gypsum board C9 to be assembled. The vertical plate push plate 14 slides towards the flipping fixed plate 12, driving the gypsum board C9 to be assembled to be inserted and pressed against the gypsum board B6 to be assembled to form a complete machine gypsum board.

[0073] The use of this device is that the vertical plate push plate 14 drives the gypsum board B6 to be assembled to move towards the flipping fixed plate 12, and then it is inserted into the gypsum board C9 to be assembled located on the flipping fixed plate 12, so that the two are connected to form a complete machine gypsum board.

[0074] Among them, the flipping fixed plate 12 is horizontally arranged on the docking slideway 11 in a manner parallel to the docking slideway 11 through a rotating structure, and the flipping fixed plate 12 can be flipped to a position perpendicular to the docking slideway 11 through the rotating structure to correspond to the vertical plate push plate 14.

[0075] The flipping fixed plate 12 is connected to the docking slideway 11 through a rotating structure. The flipping fixed plate 12 loads the gypsum board A4 to be assembled at a position parallel to the docking slideway 11 and adheres the graphene heating sheet 7.

[0076] The flipping fixed plate 12 is flipped to a position perpendicular to the docking slideway 11 through the rotating structure, and docks with the vertical plate push plate 14 at this position to form the whole machine gypsum board.

[0077] The gypsum board A4 to be assembled first needs to bond the graphene heating sheet 7 on the flipping fixed plate 12, so that the gypsum board A4 to be assembled and the graphene heating sheet 7 form the gypsum board C9 to be assembled. Then, it is assembled with the gypsum board B 6 on the vertical plate push plate 14 to form the whole machine gypsum board.

[0078] The rotating structure includes a rotating shaft 15 and a folding support rod 16. The flipping fixed plate 12 is rotatably connected to the docking slideway 11 through the rotating shaft to perform flipping.

[0079] One end of the folding support rod 16 is installed on the docking slideway 11, and the other end is installed on the side of the flipping fixed plate 12 away from the gypsum board A4 to be assembled. The folding support rod 16 can diagonally support the flipping fixed plate 12 in a vertical state.

[0080] The flipping fixed plate 12 is rotatably connected to the docking slideway 11 through the rotating shaft 15. The flipping action is also completed through the rotating shaft 15. After the graphene heating sheet 7 is bonded to the flipping fixed plate 12, it rotates to a vertical state through the rotating shaft 15. At this time, the following folding support rod 16 will also be straightened to support the flipping fixed plate 12, so that when the vertical plate push plate 14 impacts the flipping fixed plate 12, it will be more stable.

[0081] In the rotating structure, the setting of the rotating shaft 15 can include two functions. One is to enable the rotation of the flipping fixed plate 12, and the other function is to stabilize its vertical state after the flipping fixed plate 12 is flipped.

[0082] The function of the folding support rod 16 is to strengthen the vertical state of the flipping fixed plate 12 so that it will not fall down when receiving the impact of the vertical plate push plate 14 later.

[0083] The folding support plate 16 can be of a two-section type and can be rotated and folded. When idle, it is stored on the side of the flipping fixed plate 12 that does not load the gypsum board (an empty slot can be opened on this side for storage).

[0084] During use, through the rotation of the flipping fixed plate 12, the folding support rod 16 is driven to straighten for support.

[0085] For the bonding of the graphene heating sheet 7, the device is provided with a patch structure 15.

[0086] The patch structure 13 includes a grasping suction cup 17, a positioning grid 18, and a telescopic pressing block 19. The positioning grid 18 positions the grasping suction cup 17 that has picked up the graphene heating sheet 7 on the storage cavity 1 of the gypsum board A4 to be assembled by abutting against the side of the flipped fixed plate 12 or the vertical plate push plate 14.

[0087] The telescopic pressing block 19 bonds the graphene heating sheet 7 to the gypsum board A4 to be assembled by telescopically pressing the bonding sheet 8 at the edge of the graphene heating sheet 7.

[0088] The patching operation of the patch structure 13 is to first use the grasping suction cup 17 to pick up the graphene heating sheet 7, move it above the gypsum board A4 to be assembled, then use the positioning grid 18 to align with the edge corner of the flipped fixed plate 12, so as to position the graphene heating sheet 7 at the opening of the storage cavity 1 of the gypsum board A4 to be assembled. After that, place the graphene heating sheet 7 on the gypsum board A4 to be assembled. By pressing down the bonding sheet 8 at the edge of the graphene heating sheet 7 through the telescopic pressing block 19, it is tightly adhered to the gypsum board A4 to be assembled, thus completing the patching work of the graphene heating sheet 7.

[0089] In this device, the graphene heating sheet 7 is pasted on the non - movable flipped fixed plate 12. If it is placed on the vertical plate push plate 14, the subsequent movement of the vertical plate push plate 14 may shake off the graphene heating sheet 7.

[0090] The movement of each component in the patch structure 13 can be controlled by an external control device.

[0091] In this device, an unlocking structure is also provided on the flipped fixed plate 12 and the vertical plate push plate 14, which is used to release the clamping of the clamping plate 21 on the gypsum board. And the unlocking structure here can be directly and automatically unlocked after the gypsum board B6 to be assembled is pressed against the gypsum board A4 to be assembled, with a rapid response, no need for additional unlocking actions, which is convenient and efficient.

[0092] Clamping components for clamping the gypsum board A4 to be assembled and the gypsum board B6 to be assembled are provided on both the flipped fixed plate 12 and the vertical plate push plate 14.

[0093] The clamping component includes an out - slot 20 opened on the side of the flipped fixed plate 12 and the vertical plate push plate 14, and a clamping plate 21 arranged in the out - slot 20. The clamping plate 21 is installed in the out - slot 20 through an elastic member 22. The clamping plate 21 extends outward from the out - slot 20 to the side of the gypsum board A4 to be assembled and the gypsum board B6 to be assembled, and clamps the gypsum board through the resilience of the elastic member 22.

[0094] The unlocking mechanisms 22 for releasing the clamping plate 21 are provided on both the flipping fixing plate 12 and the vertical plate pushing plate 14, and the unlocking mechanisms are arranged on the opposite faces of the flipping fixing plate 12 and the vertical plate pushing plate 14. After the vertical plate pushing plate 14 drives the gypsum board B6 to be assembled and the gypsum board C9 to be assembled to be pressed together, the two unlocking structures interact to unlock the gypsum board C9 to be assembled and the gypsum board B6 to be assembled simultaneously.

[0095] The unlocking structure includes an unlocking column 23, an unlocking hole 24, and an unlocking structure member 25. The unlocking structure member 25 is arranged below the outlet groove 20, and the unlocking structure member 25 can enter the outlet groove 20 and push the clamping plate 21 to move away from the bottom of the outlet groove 20 for unlocking. The unlocking column 23 is inserted into the unlocking hole 24 to trigger the unlocking structure member 25 to work.

[0096] The unlocking columns 23 and the unlocking holes 24 are provided on both the flipping fixing plate 12 and the vertical plate pushing plate 14, and the unlocking column 23 on the flipping fixing plate 12 corresponds to the unlocking hole 24 on the vertical plate pushing plate 14, and the unlocking hole 24 on the flipping fixing plate 12 corresponds to the unlocking column 23 on the vertical plate pushing plate 14.

[0097] The unlocking structure member 25 includes a lever member 26, a pushing block 27, and a movement cavity 28. The movement cavity 28 is arranged below the outlet groove 20 and is communicated with the outlet groove 20 by opening an outlet. A rotating shaft is rotatably arranged in the middle of the lever member 26. One end of the lever member 26 is arranged in the unlocking hole 24, and the other end is arranged in the movement cavity 28 and is connected with the pushing block 27. The pushing block 27 corresponds to the outlet.

[0098] The unlocking column 23 is inserted into the unlocking hole 24 to lift the pushing block 27 into the outlet groove 20 by pressing down one end of the lever member 26, and push the clamping plate 21 to move for unlocking.

[0099] The main working principle of this unlocking structure utilizes the lever principle. By inserting the unlocking column 23 into the unlocking hole 24, pressing one end of the lever member 26 located in the unlocking hole 24, then causing the pushing block 27 located at the other end of the lever member 26 to rise, reaching into the outlet groove 20, slowly squeezing into the space between the tail end of the clamping plate 21 and the bottom surface of the outlet groove 20, and pushing the clamping plate 21 outwards, so as to achieve unlocking.

[0100] The above embodiments are only exemplary embodiments of the present application and are not used to limit the present application. The protection scope of the present application is defined by the claims. Those skilled in the art can make various modifications or equivalent replacements within the essence and protection scope of the present application, and such modifications or equivalent replacements should also be regarded as falling within the protection scope of the present application.

Claims

1. A wall heating gypsum composite board assembly device, characterized in that, Comprising: A docking slideway (11), a flipping fixing plate (12), a patch mechanism (13) and a vertical plate push plate (14). The flipping fixing plate (12) and the vertical plate push plate (14) are both arranged on the docking slideway (11), and the vertical plate push plate (14) is slidably connected to the docking slideway (11); The flipping fixing plate (12) and the vertical plate push plate (14) are respectively loaded with a gypsum board A (4) to be assembled and a gypsum board B (6) to be assembled. The storage cavities (1) on the gypsum board A (4) to be assembled and the gypsum board B (6) to be assembled are arranged opposite to each other. A graphene heating sheet (7) is adhered to the gypsum board A (4) to be assembled through the patch mechanism (13) to form a gypsum board C (9) to be assembled. The vertical plate push plate (14) slides towards the flipping fixing plate (12), driving the gypsum board C (9) to be assembled to be inserted and pressed against the gypsum board B (6) to form a complete machine gypsum board; The flipping fixing plate (12) is horizontally arranged on the docking slideway (11) in a manner parallel to the docking slideway (11) through a rotating structure, and the flipping fixing plate (12) can be flipped to a position perpendicular to the docking slideway (11) through the rotating structure to correspond to the vertical plate push plate (14); The flipping fixing plate (12) is linked to the docking slideway (11) through a rotating structure. The flipping fixing plate (12) loads the gypsum board A (4) to be assembled and adheres the graphene heating sheet (7) at a position parallel to the docking slideway (11); The flipping fixing plate (12) is flipped to a position perpendicular to the docking slideway (11) through the rotating structure, and docks with the vertical plate push plate (14) at this position to form a complete machine gypsum board; Clamping assemblies for clamping the gypsum board A (4) to be assembled and the gypsum board B (6) to be assembled are arranged on both the flipping fixing plate (12) and the vertical plate push plate (14); The clamping assembly includes an out groove (20) opened on the sides of the flipping fixing plate (12) and the vertical plate push plate (14) and a clamping plate (21) arranged in the out groove (20). The clamping plate (21) is installed in the out groove (20) through an elastic member (22). The clamping plate (21) extends outward from the out groove (20) to the sides of the gypsum board A (4) to be assembled and the gypsum board B (6) to be assembled, and clamps the gypsum board through the resilience of the elastic member (22); Unlocking mechanisms for loosening the clamping plate (21) are arranged on both the flipping fixing plate (12) and the vertical plate push plate (14). The unlocking mechanisms are arranged on the opposite faces of the flipping fixing plate (12) and the vertical plate push plate (14). After the vertical plate push plate (14) drives the gypsum board B (6) to be assembled to be pressed against the gypsum board C (9) to be assembled, the two unlocking mechanisms interact with each other to unlock the gypsum board C (9) to be assembled and the gypsum board B (6) to be assembled simultaneously; The unlocking mechanism includes an unlocking post (23), an unlocking hole (24), and an unlocking structural member (25). The unlocking structural member (25) is arranged below the outlet slot (20), and the unlocking structural member (25) can enter the outlet slot (20) and push the clamping plate (21) to move away from the bottom of the outlet slot (20) for unlocking. The unlocking post (23) is inserted into the unlocking hole (24) to trigger the unlocking structural member (25) to work; The unlocking post (23) and the unlocking hole (24) are arranged on both the flipping fixed plate (12) and the vertical plate push plate (14). The unlocking post (23) on the flipping fixed plate (12) corresponds to the unlocking hole (24) on the vertical plate push plate (14), and the unlocking hole (24) on the flipping fixed plate (12) corresponds to the unlocking post (23) on the vertical plate push plate (14).

2. The wall-mounted heating gypsum composite board assembly equipment according to claim 1, characterized in that, The rotating structure includes a rotating shaft (15) and a folding support rod (16). The flipping fixed plate (12) is rotatably connected to the docking slideway (11) through the rotating shaft for flipping; One end of the folding support rod (16) is installed on the docking slideway (11), and the other end is installed on the side of the flipping fixed plate (12) away from the gypsum board A (4) to be assembled. The folding support rod (16) can obliquely support the flipping fixed plate (12) in a vertical state.

3. The wall heating gypsum composite board assembly device according to claim 2, characterized in that, The patch mechanism (13) includes a grasping suction cup (17), a positioning grid (18), and a telescopic pressing block (19). The positioning grid (18) positions the grasping suction cup (17) that has sucked the graphene heating sheet (7) on the storage cavity (1) of the gypsum board A (4) to be assembled by abutting against the side of the flipping fixed plate (12) or the vertical plate push plate (14); The telescopic pressing block (19) bonds the graphene heating sheet (7) to the gypsum board A (4) to be assembled by telescopically pressing the adhesive sheet (8) at the edge of the graphene heating sheet (7).

4. The wall heating gypsum composite board assembly equipment according to claim 1, characterized in that, The unlocking structural member (25) includes a lever member (26), a pushing block (27), and a movement cavity (28). The movement cavity (28) is arranged below the outlet slot (20) and is communicated with the outlet slot (20) by opening an outlet. A rotating shaft is rotatably arranged in the middle of the lever member (26). One end of the lever member (26) is arranged in the unlocking hole (24), and the other end is arranged in the movement cavity (28) and is connected with the pushing block (27). The pushing block (27) corresponds to the outlet; The unlocking post (23) is inserted into the unlocking hole (24) to lift the pushing block (27) into the outlet slot (20) by pressing down one end of the lever member (26), and push the clamping plate (21) to move for unlocking.

5. A manufacturing process for the wall heating gypsum composite board of the wall heating gypsum composite board assembling device according to claim 1, characterized in that, It includes the following steps: A storage cavity (1) is formed by grooving on one side of the formed gypsum board, and a filling hole (2) communicating with the inside of the storage cavity (1) is opened at the edge of the gypsum board to form a gypsum board to be assembled; A plurality of insertion holes (3) are formed at the edge of the opening of the storage cavity (1) of the gypsum board to be assembled, forming the gypsum board A (4) to be assembled; A plurality of insertion blocks (5) are formed at the edge of the opening of the storage cavity (1) of the gypsum board to be assembled, forming the gypsum board B (6) to be assembled; The graphene heating sheet (7) is adhered to the edge of the opening of the storage cavity (1) of the gypsum board A (4) to be assembled through the adhesive sheet (8) provided at its edge to form the gypsum board C (9) to be assembled; The gypsum board C (9) to be assembled is disposed directly opposite to the opening of the storage cavity (1) of the gypsum board B (6) to be assembled, so that the insertion holes (3) of the gypsum board C (9) to be assembled are directly opposite to the insertion blocks (5) of the gypsum board B (6) to be assembled, and they are pressed together; Thermal conductive foam is injected into the storage cavity (1) through the injection hole (2), and then the injection hole (2) is closed to form a foam layer (10), and the foam layer (10) closely adheres to the graphene heating sheet (7).

6. The manufacturing process of a wall heating gypsum composite board according to claim 5, wherein The area of the graphene heating sheet (7) is less than or equal to the area of the opening of the storage cavity (1).

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