A composite polymer material thermal insulation formwork and production device

Abstract

The present invention discloses a composite polymer material thermal insulation template and a production device thereof, which relates to the technical field of thermal insulation building materials and includes a graphite polystyrene thermal insulation layer. Both side surfaces of the graphite polystyrene thermal insulation layer are bonded with inorganic resin plates. The graphite polystyrene thermal insulation layer is composed of multiple graphite polystyrene sheets stacked and bonded. A fiberglass mesh is adhered between each of the graphite polystyrene sheets. The plane of each graphite polystyrene sheet is perpendicular to the plane of the inorganic resin plate. By sequentially and alternately stacking multiple graphite polystyrene sheets and multiple fiberglass meshes, the present invention forms a graphite polystyrene thermal insulation layer with a structure perpendicular to the inorganic resin plate, thereby improving the bending resistance of the thermal insulation template, making the thermal insulation template not easily deformed, and enhancing the stability of the thermal insulation template.

Description

Technical Field

[0001] The invention relates to the technical field of thermal insulation building materials, in particular to a composite polymer material thermal insulation template and a production device. Background Art

[0002] Insulation formwork is a formwork with insulation material laid on it to reduce the heat exchange rate between concrete and the external environment, thereby reducing the thermal bridge effect and improving the thermal insulation performance of the building.

[0003] The existing Chinese patent publication number is: CN104831823B, the name of the patent is "composite insulation template", the patent includes "a thermal insulation board and a slag mortar layer covering one side of the thermal insulation board, the slag mortar layer is mainly composed of coarse slag, slag powder, cement, and water reducing agent, the particle size of the slag powder is less than 2.5 mm, and the particle size of the coarse slag is 2.5 mm to 5 mm";

[0004] The existing insulation formwork panels are mostly layered stacked structures, which are made of various types of fireproof and heat-insulating material panels that are laid flat, stacked and glued together. The common way to improve its fireproof and heat-insulating effect is to increase the thickness of each layer or increase the number of stacked layers. However, a single stacked structure has poor bending resistance and is easy to deform. Summary of the invention

[0005] The purpose of the present invention is to provide a composite polymer material insulation template and a production device to solve the deficiencies in the above-mentioned prior art.

[0006] In order to achieve the above object, the present invention provides the following technical solutions:

[0007] A composite polymer material insulation template comprises a graphite polystyrene insulation layer, both sides of the graphite polystyrene insulation layer are bonded with inorganic resin plates, the graphite polystyrene insulation layer is composed of a plurality of graphite polystyrene sheets stacked and bonded, glass fiber mesh is bonded between each of the graphite polystyrene sheets, and the sheet surface of each of the graphite polystyrene sheets is perpendicular to the board surface of the inorganic resin plate.

[0008] A production device for a composite polymer material insulation template is used to prepare the above-mentioned composite polymer material insulation template, including a conveying roller table, a bracket mechanism is fixed on the conveying roller table, a main air box located directly above the conveying roller table can be slidably installed on the bracket mechanism, the main air box and the conveying roller table are connected by a transmission component, the main air box is connected to a plurality of blowing and vibration components facing the insulation template, the blowing and vibration components can lift dust from the potholes on the surface of the insulation template, and a dust suction unit for sucking dust is also installed on the bracket mechanism.

[0009] Preferably, each of the blowing and vibration components includes a main shaft tube fixedly connected to the main air box, a brush box is installed at the bottom of the main shaft tube, a hammer structure is movably sleeved on the main shaft tube, the hammer structure is fixed to the top of the brush box by a plurality of elastic air bag tubes, each of the elastic air bag tubes is connected to the brush box to form an air storage space, and when the elastic air bag tube is in an inflated state, the hammer structure is in an energy storage state.

[0010] Preferably, each of the blowing and vibration components is provided with a supporting unit fixed to the bracket mechanism on one side, and the brush box is provided with an air valve unit which can relieve the pressure of the air storage space when in an open state. The two ends of the stroke of the main air box on the bracket mechanism are respectively a first position and a second position. When the main air box is in the first position, the air valve unit is in an open state due to the force of the supporting unit, and the supporting unit provides supporting force for the hammer structure to maintain its original position. When the main air box is in the second position, the supporting unit is separated from the hammer structure, and the hammer structure collides and vibrates with the insulation template.

[0011] Preferably, the support mechanism includes a horizontally arranged support plate, both ends of which are fixed to the machine platform of the conveyor roller table through support plates, and a track opening is opened on the support plate for sliding engagement with the main air box, and the support unit is fixed to the bottom of the support plate.

[0012] Preferably, the transmission assembly includes a shaft rod rotatably mounted on a supporting plate, the shaft rod being connected to the roller body on the conveying roller platform via a wheel chain unit, a cylindrical cam being fixed on the shaft rod, a protruding column being adapted to engage with a main air box on the cylindrical cam, and the main air box being able to reciprocate and slide along the track opening on the supporting plate parallel to the axis centerline of the shaft rod.

[0013] Preferably, the dust collection unit comprises a gathering hood located above the conveying roller platform, the gathering hood is fixed to the supporting plate, and the hood body of the gathering hood is connected to a negative pressure suction pipe.

[0014] Preferably, the hammer structure comprises a connecting ring disk movably sleeved with the main shaft tube, a counterweight block is fixedly sleeved on the outside of the connecting ring disk, and the bottom surface position of the counterweight block can be lower than the bottom surface position of the brush box.

[0015] Preferably, brush strips are fixed to the bottom surfaces of the brush box, the gathering cover and the counterweight.

[0016] Preferably, the supporting unit comprises a vertical block fixed to the supporting plate, and a horizontal supporting rod capable of contacting the bottom of the connecting ring plate is fixed to the side of the vertical block.

[0017] In the above technical solution, a composite polymer material thermal insulation template provided by the present invention forms a graphite polystyrene thermal insulation layer with a vertical inorganic resin board structure by alternately stacking a plurality of graphite polystyrene sheets and a plurality of fiberglass meshes in sequence, thereby improving the bending resistance of the thermal insulation template, making the thermal insulation template not easily deformed, enhancing the stability of the thermal insulation template, and the gap structure formed on the surface of the graphite polystyrene thermal insulation layer formed by lateral stacking also increases the contact area with the adhesive, which is beneficial to more firmly bonding with the inorganic resin board or other thermal insulation materials. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the drawings required for use in the embodiments. Obviously, the drawings described below are only some embodiments recorded in the present invention. For those of ordinary skill in the art, other drawings can also be obtained based on these drawings.

[0019] Figure 1 Schematic diagram of a composite polymer material thermal insulation template of the present invention;

[0020] Figure 2 Overall schematic diagram of the production device of a composite polymer material thermal insulation template of the present invention on the conveying roller table;

[0021] Figure 3 Schematic diagram of the transmission component of the production device of a composite polymer material thermal insulation template of the present invention;

[0022] Figure 4 Schematic diagram of the protruding column of the production device of a composite polymer material thermal insulation template of the present invention;

[0023] Figure 5 Schematic diagram of the blowing and vibrating component of the production device of a composite polymer material thermal insulation template of the present invention on the supporting plate;

[0024] Figure 6 Schematic diagram of the brush strip at the bottom of the brush hair box of the production device of a composite polymer material thermal insulation template of the present invention;

[0025] Figure 7 Schematic diagram of the air valve unit of the production device of a composite polymer material thermal insulation template of the present invention.

[0026] Description of the reference numerals:

[0027] 1. Graphite polystyrene insulation layer; 1.1 Graphite polystyrene sheet; 1.2 Fiberglass mesh; 2. Inorganic resin board; 3. Air inlet pipe; 4. Conveyor roller table; 5. Bracket mechanism; 5.1 Support plate; 5.2 Support board; 5.3 Track opening; 6. Main air box; 7. Transmission component; 7.1 Shaft rod; 7.2 Wheel chain unit; 7.3 Cylindrical cam; 7.4 Protruding column; 8. Blowing and vibrating component; 8.1 Main spindle tube; 8.2 Brush box; 8.3 Impact hammer structure; 8.31 Connecting ring plate; 8.32 Counterweight; 8.4 Elastic airbag cylinder; 8.5 Blowing hole; 9. Dust suction unit; 9.1 Aggregation hood; 9.2 Negative pressure suction pipe; 10. Supporting unit; 10.1 Vertical block; 10.2 Horizontal support rod; 10.3 Contact rod; 11. Air valve unit; 11.1 Valve cylinder; 11.2 Piston rod; 11.3 Inner slider; 11.4 Sealing block; 11.5 Spring; 11.6 Extension rod; 12. Brush strip; 13. Tension spring. Detailed implementation mode

[0028] In order to enable those skilled in the art to better understand the technical solutions of the present invention, the present invention will be further introduced in detail below in conjunction with the accompanying drawings.

[0029] The insulation formwork is a formwork with thermal insulation materials laid on it to reduce the heat exchange rate between concrete and the external environment, reduce the thermal bridge effect, and improve the thermal insulation performance of the building. In the existing production process of insulation formwork, various equipment corresponding to each process is connected in series through a conveyor roller table or a conveyor belt to form a production line for processing insulation formwork. Each processing equipment on the production line constitutes a production device for insulation formwork. The general processes in the production process of insulation formwork are cutting, dust removal, gluing, covering, and pressing, etc. Among them, the dust removal process mainly cleans the dust on the insulation formwork to facilitate the bonding effect of subsequent gluing. The existing cleaning methods mainly use roller brushes or other means to remove dust. However, the surface of the insulation formwork has multiple densely distributed concave pit and crack structures. Especially for the graphite polystyrene insulation layer formed by sequentially overlapping and bonding multiple graphite polystyrene sheets and multiple fiberglass meshes to form a structure perpendicular to the inorganic resin board, some dust in the small concave pit and crack gaps is difficult to separate, resulting in poor dust removal and ash cleaning effects. The present application also proposes a production device for a composite polymer material insulation formwork.

[0030] Please refer to Figure 1-7 , a composite polymer material insulation formwork provided by an embodiment of the present invention includes a graphite polystyrene insulation layer 1. Both side surfaces of the graphite polystyrene insulation layer 1 are adhesively bonded with inorganic resin boards 2. The graphite polystyrene insulation layer 1 is composed of multiple graphite polystyrene sheets 1.1 adhesively laminated. Fiberglass meshes 1.2 are adhesively fixed between the graphite polystyrene sheets 1.1. The surfaces of the graphite polystyrene sheets 1.1 are perpendicular to the surfaces of the inorganic resin boards 2.

[0031] Specifically, the two inorganic resin plates 2 are parallel to each other, and there are multiple graphite polystyrene sheets 1.1 and glass fiber meshes 1.2. Multiple graphite polystyrene sheets 1.1 and glass fiber meshes 1.2 are arranged in sequence and staggered to form a graphite polystyrene insulation board surface. The graphite polystyrene sheets 1.1 and glass fiber meshes 1.2 are parallel to each other and are bonded and fixed to each other by an adhesive. Therefore, in actual use, when the insulation template is subjected to a bending force, the side edges of the graphite polystyrene sheets 1.1 and glass fiber meshes 1.2 that are perpendicular to the board surface of the inorganic resin plate 2 are subjected to a force, which acts as a reinforcing rib on the insulation template, thereby increasing the anti-bending effect of the insulation template.

[0032] The embodiment of the present invention provides a production device for a composite polymer material insulation template, which is used to prepare the composite polymer material insulation template, including a conveying roller platform 4, a bracket mechanism 5 is fixed on the conveying roller platform 4, and the top of the conveying roller platform 4 can carry the insulation template, the conveying roller platform 4 includes a support frame, and a plurality of rollers are rotatably installed on the support frame, and each roller can be driven by the output motor on the conveying roller platform 4 to rotate, and the specific structure and principle of the conveying roller platform 4 are prior art and are not repeated here, and a main air box 6 located directly above the conveying roller platform 4 can be slidably installed on the bracket mechanism 5, and the main air box 6 is a long cylindrical sealed box, and the main air box 6 is connected to the conveying roller platform 4 through a transmission assembly 7, so that the main air box 6 can be driven by the power of the conveying roller platform 4 and reciprocate on the bracket mechanism 5, and the main air box 6 is connected with a plurality of blowing and vibration assemblies 8 facing the insulation template, and the blowing and vibration assemblies 8 can lift dust from the pits on the surface of the insulation template, and a dust suction unit 9 for sucking dust is also installed on the bracket mechanism 5;

[0033] Among them, each blowing and vibrating assembly 8 includes a main spindle tube 8.1 fixedly communicated with the main air box 6. The axial line direction of the main spindle tube 8.1 is perpendicular to the horizontal plane. A brush box 8.2 is installed and communicated at the bottom of the main spindle tube 8.1. The brush box 8.2 is a plate-shaped box body. A plurality of uniformly distributed air blowing holes 8.5 are opened at the bottom of the brush box 8.2. The top surface of the brush box 8.2 is perpendicular to the axial line of the main spindle tube 8.1. A punching hammer structure 8.3 is movably sleeved on the main spindle tube 8.1. The punching hammer structure 8.3 is fixed to the top of the brush box 8.2 through a plurality of elastic air cylinder tubes 8.4. Each elastic air cylinder tube 8.4 is communicated with the brush box 8.2 to form a gas storage space. An air inlet pipe 3 is connected to the main air box 6. The air inlet pipe 3 inputs compressed air flow into the main air box 6. The air flow in the main air box 6 enters the gas storage space. The air flow supplied into the main air box 6 by the air inlet pipe 3 is much greater than the discharge speed of the air blowing holes 8.5. Another part of the air flow in the main air box 6 enters the elastic air cylinder tube 8.4, so that the air cylinder tube 8.4 expands and lifts the punching hammer structure 8.3 upward. The punching hammer structure 8.3 has gravitational potential energy. Preferably, a tension spring 13 is movably sleeved on the main spindle tube 8.1. One end of the tension spring 13 is fixed to the punching hammer structure 8.3, and the other end of the tension spring 13 is fixed to the brush box 8.2. When the punching hammer structure 8.3 is lifted upward, the tension spring 13 undergoes tensile deformation. When the elastic air cylinder tube 8.4 is in a fully inflated state, the punching hammer structure 8.3 is in an energy storage state;

[0034] Furthermore, a supporting unit 10 fixed to the bracket mechanism 5 is provided on one side of each blowing and vibrating assembly 8. An air valve unit 11 capable of relieving pressure in the gas storage space in the open state is installed on the brush box 8.2. The two ends of the travel of the main air box 6 on the bracket mechanism 5 are the first position and the second position respectively. When the main air box 6 is in the first position, the air valve unit 11 is in an open state under the action of the supporting unit 10. The supporting unit 10 provides a supporting force for the punching hammer structure 8.3 to maintain its original position state. When the main air box 6 is in the second position, the supporting unit 10 is separated from the punching hammer structure 8.3, and the punching hammer structure 8.3 collides and vibrates with the heat preservation template;

[0035] Specifically, the bracket mechanism 5 includes a horizontally arranged supporting plate 5.1. Both ends of the supporting plate 5.1 are fixed to the machine table of the conveying roller table 4 through support plates 5.2. A track opening 5.3 for slidingly clamping the main air box 6 is opened on the supporting plate 5.1. The track opening 5.3 is a long strip-shaped opening. The length direction line of the track opening 5.3 is perpendicular to the moving track line of the heat preservation template on the conveying roller table 4. The supporting unit 10 is fixed to the bottom of the supporting plate 5.1;

[0036] In addition, the transmission assembly 7 includes a shaft rod 7.1 rotatably mounted on the support plate 5.1, the axis of the shaft rod 7.1 is parallel to the horizontal plane, the shaft rod 7.1 is connected to the roller body on the conveying roller table 4 through a wheel chain unit 7.2, the wheel chain unit 7.2 includes a first chain plate fixed on the shaft rod 7.1 and a second chain plate fixed on the roller body on the conveying roller table 4, the first chain plate and the second chain plate are connected through a transmission chain, so that the shaft rod 7.1 rotates synchronously when the roller body on the roller table 4 rotates; a cylindrical cam 7.3 is fixed on the shaft rod 7.1, and a protruding column 7.4 fixed to the main air box 6 is adapted to mesh with the cylindrical cam 7.3, and the cylindrical cam 7.3 rotates synchronously with the shaft rod 7.1, so that under the meshing transmission action of the protruding column 7.4 and the cylindrical cam 7.3, The main air box 6 can slide back and forth on the support plate 5.1 along the track opening 5.3 parallel to the axis of the shaft 7.1, and the main air box 6 can move from the first position to the second position, and then move from the second position to the first position, thereby switching back and forth between the first position and the second position;

[0037] It should be further explained that the support unit 10 includes a vertical block 10.1 fixed to the support plate 5.1, a horizontal support rod 10.2 capable of contacting the bottom of the connecting ring plate 8.31 is fixed to the side of the vertical block 10.1, and a resistance rod 10.3 parallel to the horizontal support rod 10.2 is fixed to the side of the vertical block 10.1, the end of the resistance rod 10.3 is a wedge-shaped end, and the axis of the horizontal support rod 10.2 is parallel to the horizontal plane. When the main air box 6 is in the first position, the horizontal support rod 10.2 is in contact with the connecting ring plate 8.31, and the contact area between the horizontal support rod 10.2 and the connecting ring plate 8.31 is in the maximum state;

[0038] The air valve unit 11 includes a valve cylinder 11.1 fixedly plugged into the side of the main air box 6, a piston rod 11.2 is movably plugged into the cylinder body of the valve cylinder 11.1, an inner slider 11.3 is fixed to one end of the piston rod 11.2 that moves through the bottom of the valve cylinder 11.1, a sealing block 11.4 that can seal the cylinder mouth of the valve cylinder 11.1 is fixed to one end of the piston rod 11.2 that extends out of the valve cylinder 11.1, and the inner slider 11.3 is connected to the bottom of the valve cylinder 11.1 through a spring 11.5. Then, an extension rod 11.6 is fixed to the outer end surface of the sealing block 11.4, the body of the valve cylinder 11.1 is a porous mesh cylinder, the movement trajectory of the piston rod 11.2 coincides with its axis, the axis of the piston rod 11.2 is parallel to the conveying trajectory of the insulation template on the conveying roller table 4, the direction of the sealing block 11.4 toward the cylinder mouth of the valve cylinder 11.1 is consistent with the direction of the conveying trajectory of the insulation template, and the moving trajectory of the main gas box 6 is skewed and perpendicular to the conveying trajectory of the insulation template on the conveying roller table 4;

[0039] The hammer structure 8.3 includes a connecting ring disk 8.31 movably sleeved with the main shaft tube 8.1, and a counterweight block 8.32 is fixedly sleeved on the outside of the connecting ring disk 8.31. The bottom surface of the counterweight block 8.32 can be lower than the bottom surface of the brush box 8.2. In addition, the brush box 8.2, the gathering cover 9.1 and the bottom surface of the counterweight block 8.32 are all fixed with brush strips 12.

[0040] In actual use, when the insulation template passes under the support mechanism 5 under the conveying roller table 4, the brush box 8.2 and the gathering cover 9.1 are in contact with the upper surface of the insulation template through the brush strip 12, and the insulation template and the brush strip 12 have relative movement to achieve a cleaning effect;

[0041] At the same time, as the roller body on the conveying roller table 4 rotates, the shaft rod 7.1 rotates under the transmission action of the wheel chain unit 7.2, and the main air box 6 can slide back and forth on the support plate 5.1 along the track opening 5.3 parallel to the axis of the shaft rod 7.1 under the meshing transmission action of the protruding column 7.4 and the cylindrical cam 7.3, and the main air box 6 switches back and forth between the first position and the second position, thereby driving the brush box 8.2 to reciprocate on the insulation template perpendicular to the conveying direction of the conveying roller table 4, further increasing the actual cleaning area between the brush strip 12 and the insulation template, and improving the cleaning degree. In addition, in this process, part of the airflow inside the main air box 6 is blown onto the insulation template through the blowing hole 8.5, which is conducive to the dust from the pits on the surface of the insulation template.

[0042] In the process of the main gas box 6 moving from the second position to the first position, the hammer structure 8.3 is in the energy storage state. When the main gas box 6 reaches the first position, the hammer structure 8.3 reaches the maximum energy storage state, the cross support rod 10.2 contacts the bottom of the connecting ring plate 8.31, and the cross support rod 10.2 provides a supporting force for the bottom of the connecting ring plate 8.31. At the same time, the contact rod 10.3 and the extension rod 11.6 are squeezed, so that the extension rod 11.6 slides along the wedge-shaped end of the contact rod 10.3, and then The extension rod 11.6 drives the piston rod 11.2 to move toward the outside of the valve cylinder 11.1, so that the sealing block 11.4 is separated from the cylinder mouth of the valve cylinder 11.1. At this time, the air pressure in the air storage space is quickly released, and the released airflow rushes to the insulation template again, which is conducive to promoting the cleaning of the insulation template. The elastic airbag tube 8.4 no longer expands, and the horizontal support rod 10.2 provides a supporting force for the bottom of the connecting ring disk 8.31, keeping the elastic airbag tube 8.4 in an expanded and stretched state, and the tension spring 13 maintains a stretched deformation state;

[0043] During the movement of the main air box 6 from the first position to the second position, when the cross support rod 10.2 is separated from the connecting ring disk 8.31, the energy stored in the connecting ring disk 8.31 is released, so that it quickly collides with the insulation template, thereby causing the surface of the insulation template to vibrate, thereby further promoting the dust to be lifted and separated from the pits on the surface of the insulation template, and then the extension rod 11.6 is separated from the resistance rod 10.3. At this time, under the action of the elastic restoring force of the spring 11.5, the piston rod 11.2 moves toward the inside of the valve cylinder 11.1, so that the sealing block 11.4 is blocked with the cylinder mouth of the valve cylinder 11.1.

[0044] In another embodiment provided by the present invention, the dust collection unit 9 includes a collection hood 9.1 located above the conveying roller table 4, the collection hood 9.1 is fixed to the supporting plate 5.1, and the hood body of the collection hood 9.1 is connected to a negative pressure suction pipe 9.2, so that the dust raised on the insulation template is sucked and collected, and the brush strip 12 on the collection hood 9.1 can clean the insulation template.

[0045] The above description is only by way of illustration of certain exemplary embodiments of the present invention. It is undoubted that those skilled in the art can modify the described embodiments in various ways without departing from the spirit and scope of the present invention. Therefore, the above drawings and descriptions are illustrative in nature and should not be construed as limiting the scope of protection of the claims of the present invention.

Claims

1. An apparatus for producing a composite polymer material thermal insulation formwork, characterized in that, The invention comprises a conveying roller platform (4), a support mechanism (5) is fixed on the conveying roller platform (4), a main air box (6) located directly above the conveying roller platform (4) is slidably mounted on the support mechanism (5), the main air box (6) and the conveying roller platform (4) are connected to each other by a transmission component (7), the main air box (6) is connected to a plurality of blowing and vibrating components (8) directed toward the heat-insulating template, the blowing and vibrating components (8) are capable of lifting dust from the pits on the surface of the heat-insulating template, and a dust suction unit (9) for sucking dust is also mounted on the support mechanism (5); Each of the blowing and vibration components (8) comprises a main shaft tube (8.1) fixedly connected to the main air box (6); a brush box (8.2) is installed at the bottom of the main shaft tube (8.1) and connected thereto; a hammer structure (8.3) is movably sleeved on the main shaft tube (8.1); the hammer structure (8.3) is fixed to the top of the brush box (8.2) via a plurality of elastic air bag tubes (8.4); each of the elastic air bag tubes (8.4) is connected to the brush box (8.2) to form an air storage space; when the elastic air bag tube (8.4) is in an inflated state, the hammer structure (8.3) is in an energy storage state; Each of the blowing and vibrating components (8) is provided with a supporting unit (10) fixed to the bracket mechanism (5) on one side; the brush box (8.2) is provided with an air valve unit (11) capable of depressurizing the air storage space in an open state; the main air box (6) is at a first position and a second position at both ends of its travel on the bracket mechanism (5); when the main air box (6) is in the first position, the air valve unit (11) is in an open state due to the force of the supporting unit (10); the supporting unit (10) provides a supporting force for the hammer structure (8.3) to maintain its original position; when the main air box (6) is in the second position, the supporting unit (10) is separated from the hammer structure (8.3), and the hammer structure (8.3) collides and vibrates with the thermal insulation template; The support mechanism (5) comprises a horizontally arranged support plate (5.1), both ends of the support plate (5.1) are fixed to the machine platform of the conveying roller platform (4) through supporting plates (5.2), a track opening (5.3) for sliding engagement with the main air box (6) is provided on the support plate (5.1), and the supporting unit (10) is fixed to the bottom of the support plate (5.1); The transmission assembly (7) comprises a shaft (7.1) rotatably mounted on a support plate (5.1); the shaft (7.1) is connected to a roller body on a conveying roller platform (4) by transmission via a wheel chain unit (7.2); a cylindrical cam (7.3) is fixed on the shaft (7.1); a protruding column (7.4) fixed to a main air box (6) is adapted to be meshed on the cylindrical cam (7.3); the main air box (6) can reciprocate and slide along a track opening (5.3) on the support plate (5.1) in parallel with the axis of the shaft (7.1); The impact hammer structure (8.3) includes a connecting ring plate (8.31) movably sleeved on the main spindle tube (8.1). A counterweight block (8.32) is fixedly sleeved on the outside of the connecting ring plate (8.31), and the bottom surface position of the counterweight block (8.32) can be lower than the bottom surface position of the brush box (8.2).

2. The production device of a composite polymer material thermal insulation formwork according to claim 1, characterized in that, The dust suction unit (9) includes an aggregation hood (9.1) located above the conveying roller table (4). The aggregation hood (9.1) is fixed to the supporting plate (5.1), and a negative pressure suction pipe (9.2) is communicated with the hood body of the aggregation hood (9.1).

3. The production device of a composite polymer material thermal insulation template according to claim 2, characterized in that, Brush strips (12) are fixedly installed at the bottom surfaces of the brush box (8.2), the aggregation hood (9.1), and the counterweight block (8.32).

4. The production device of a composite polymer material thermal insulation formwork according to claim 3, wherein, The supporting unit (10) includes a vertical block (10.1) fixed to the supporting plate (5.1), and a horizontal supporting rod (10.2) capable of contacting the bottom of the connecting ring plate (8.31) is fixed to the side surface of the vertical block (10.1).

5. A composite polymer material thermal insulation formwork, characterized in that, The composite polymer material thermal insulation template is produced based on the production device of the composite polymer material thermal insulation template according to any one of claims 1-4. The composite polymer material thermal insulation template includes a graphite polystyrene thermal insulation layer (1). Inorganic resin plates (2) are bonded to both side surfaces of the graphite polystyrene thermal insulation layer (1). The graphite polystyrene thermal insulation layer (1) is composed of a plurality of stacked graphite polystyrene sheets (1.1). A fiberglass mesh (1.2) is bonded between the graphite polystyrene sheets (1.1), and the surfaces of the graphite polystyrene sheets (1.1) are perpendicular to the surfaces of the inorganic resin plates (2).

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