Rock wool floor composite device and automated production line for composite rock wool board

Abstract

This invention relates to a rock wool baseboard composite device, comprising at least a baseboard conveying assembly and stacked rock wool conveying assemblies. One end of the rock wool conveying assembly is rotatably disposed relative to the baseboard conveying assembly, while the other end can move closer to or further away from the baseboard conveying assembly under the drive of a driving assembly. This allows the rock wool conveying assembly to remain parallel to the baseboard conveying assembly when it is moving away from the baseboard conveying assembly, and to remain inclined to the baseboard conveying assembly when it is moving closer to the baseboard conveying assembly, thereby improving the efficiency and strength of the rock wool-baseboard composite.

Description

Technical Field

[0001] This invention relates to the field of board production technology, and in particular to a rock wool baseboard composite device and an automated production line for composite rock wool boards. Background Technology

[0002] Rock wool board is an inorganic fiber board made from basalt as the main raw material and processed by high temperature melting. It has the characteristics of being lightweight, having low thermal conductivity, absorbing heat, and being non-combustible. In the existing processing of composite rock wool boards, after curing, the composite rock wool board is usually cut into appropriate sizes and then transported to the next hot-pressing outer panel process.

[0003] The existing composite rock wool board production line consists of a glue-applying device, a conveyor line, and a hot-pressing device connected in sequence. After the face panel and the base panel are glued, workers manually lay the rock wool on the glued base panel, and then manually flip the glued face panel onto the rock wool. The glue in the stacked base panel, rock wool, and face panel needs to be cured by the hot-pressing device to bond them together. The existing production process has the following problems: 1. After the existing composite rock wool boards are cut to the appropriate size, there are often incompletely cut rough edges on the upper and lower ends of the sides. Subsequent manual cutting will pull out pits and protruding internal fibers from the rock wool boards; 2. After the rock wool boards are cut, they are irregularly arranged on the conveyor belt, requiring the next hot-pressing process to readjust the position of the rock wool boards to ensure accurate bonding; 3. The laying of rock wool on the base panel or the bonding of the face panel and rock wool is all done manually, which is labor-intensive, inefficient, and makes it difficult to guarantee quality. Summary of the Invention

[0004] The purpose of this invention is to overcome the defects in the prior art and provide a rock wool baseboard composite device and an automatic production line for composite rock wool boards.

[0005] To achieve the above objectives, the technical solution of the present invention is to design a rock wool base plate composite device, which includes at least a base plate conveying assembly and stacked rock wool conveying assemblies. One end of the rock wool conveying assembly is rotatably arranged relative to the base plate conveying assembly, and the other end can move closer to or further away from the base plate conveying assembly under the drive of the driving assembly. When the rock wool conveying assembly is away from the bottom plate conveying assembly, it is kept parallel to the bottom conveying assembly; when it is close to the bottom plate conveying assembly, it is kept inclined to the bottom plate conveying assembly.

[0006] In a further preferred embodiment, the angle between the rock wool conveying assembly and the base plate conveying assembly along the projection direction of the second direction Y is 30-60 degrees.

[0007] In a further preferred embodiment, the rock wool conveying assembly includes a plate extending along a first direction X, and the plate includes at least a first section and a second section.

[0008] In a further preferred embodiment, a first baffle is provided on one side of the plate along the second direction Y, and a second baffle is provided on the other side. One of the first baffle and the second baffle is fixedly provided on the plate, and the other of the first baffle and the second baffle is movably provided on the plate.

[0009] In a further preferred embodiment, the first baffle or the second baffle is moved along the second direction Y by a set of adjustment components on one side.

[0010] In a further preferred embodiment, the drive assembly includes a drive bracket, the drive bracket having a drive component connected to the rock wool support of the rock wool conveying assembly, one end of the drive component being hinged to the drive bracket, and the other end being hinged to the rock wool support of the rock wool conveying assembly.

[0011] In a further preferred embodiment, the rock wool conveying assembly further includes a pushing assembly, which pushes the rock wool from a position near the first end of the board to the second end along a first direction, leaving the board and bonding it with the bottom plate.

[0012] In a further preferred embodiment, the pushing component includes a pusher plate that moves along a first direction X.

[0013] In a further preferred embodiment, the pusher consists of multiple pushers arranged side by side along the second direction X. The pusher is mounted on the pusher bracket, which is movably mounted on the rock wool bracket and reciprocates along the first direction X on the rock wool bracket.

[0014] In a further preferred embodiment, the rock wool conveying assembly also includes a pressure application assembly.

[0015] In a further preferred embodiment, the pressure application component includes a pressure roller, which is rotatably mounted on the rock wool support corresponding to the second end of the plate and is located on the path that the rock wool must take when it detaches from the plate.

[0016] In a further preferred embodiment, the pressure application component further includes a pressure adjustment component, which can drive the pressure roller to reciprocate along the third direction Z.

[0017] In a further preferred embodiment, the base plate conveying assembly includes a base plate support, and the base plate support is provided with a first conveying assembly.

[0018] In a further preferred embodiment, the base plate conveying assembly further includes a positioning assembly, which includes a plurality of positioning rollers spaced apart along a first direction X.

[0019] In a further preferred embodiment, a receiving conveying component is provided at the position corresponding to the output end of the base plate conveying component.

[0020] In a further preferred embodiment, the material receiving and conveying assembly includes a material receiving bracket, and the material receiving bracket is provided with a second conveying assembly.

[0021] In a further preferred embodiment, the receiving and conveying assembly further includes a receiving component, which abuts against the first end of the rock wool base plate composite assembly and moves along the first direction X to prevent the base plate and rock wool from shifting in the first direction X after they are combined.

[0022] In a further preferred embodiment, the receiving assembly includes a receiving plate that moves along a first direction X, and the receiving plate reciprocates along the first direction X.

[0023] An automated production line for composite rock wool boards includes the aforementioned rock wool baseboard composite device.

[0024] The advantages and beneficial effects of the present invention are as follows: the first end of the rock wool conveying assembly is rotatably arranged relative to the bottom plate conveying assembly, and the second end can approach or move away from the bottom plate conveying assembly under the drive of the drive assembly, so that the rock wool conveying assembly remains parallel to the bottom conveying assembly when it is away from the bottom plate conveying assembly, and remains inclined to the bottom plate conveying assembly when it is close to the bottom plate conveying assembly, thereby improving the composite efficiency and strength of rock wool and bottom plate. Attached Figure Description

[0025] Figure 1 This is a front view schematic diagram of the rock wool base plate composite device of the present invention.

[0026] Figure 2 Axonometric analysis of the rock wool base plate composite device of the present invention Figure 1 .

[0027] Figure 3 Axonometric analysis of the rock wool base plate composite device of the present invention Figure 2 .

[0028] Figure 4 This is a side view schematic diagram of the rock wool base plate composite device of the present invention.

[0029] Figure 5 Partial isometric view of the rock wool conveying assembly and the base plate conveying assembly of the present invention. Figure 1 .

[0030] Figure 6 Partial isometric view of the rock wool conveying assembly and the base plate conveying assembly of the present invention. Figure 2 .

[0031] Figure 7This is a partial cross-sectional view of the rock wool conveying assembly and the base plate conveying assembly of the present invention. Figure 1 .

[0032] Figure 8 This is a partial cross-sectional view of the rock wool conveying assembly and the base plate conveying assembly of the present invention. Figure 2 .

[0033] Figure 9 This is a partial cross-sectional view of the material receiving and conveying assembly of the present invention. Figure 1 .

[0034] Figure 10 This is a partial cross-sectional view of the material receiving and conveying assembly of the present invention. Figure 2 .

[0035] Figure 11 This is a schematic diagram of the automated production line structure for the composite rock wool board of the present invention.

[0036] Figure 12 For the present invention Figure 11 A magnified view of part A.

[0037] In the diagram: 100, rock wool conveying assembly; 110. Plate body; 1101. First section; 1102. Second section; 120. Rock wool support; 1201. Main shaft; 130. First baffle; 140. Second baffle; 150. Adjustment assembly; 1501. Gear and rack assembly; 1502. Guide assembly; 1503. First drive motor; 160. Pushing assembly; 1601. Push plate; 1602. Push plate support; 1603. Push plate drive assembly; 1604. Second drive motor; 170. Pressure application assembly; 1701. Pressure roller; 1702. Pressure support; 1703. Pressure adjustment assembly; 1704. Pressure drive assembly; 200. Base plate conveyor assembly; 210. Base plate support; 2101. Bearing housing; 220. First conveying assembly; 2201. First transmission roller; 2202. First transmission shaft; 2203. First transmission belt; 2204. Third drive motor; 2205. First belt; 230. Positioning assembly; 2301. Positioning roller; 240. Positioning adjustment assembly; 2401. Lead screw; 2402. Positioning bracket; 2403. Fourth drive motor; 300. Driver components; 310. Drive bracket; 320. Drive component; 400. Material receiving and conveying assembly; 410. Receiving bracket; 420. Second conveying assembly; 4201. Second drive roller; 4202. Second drive shaft; 4203. Second drive belt; 4204. Fifth drive motor; 4205. Second belt; 430. Receiving assembly; 4301. Receiving plate; 4302. Receiving plate bracket; 4303. Receiving assembly bracket; 4304. Receiving plate drive assembly; 4305. Sixth drive motor; 500. Rock wool; 600. Base plate. Detailed Implementation

[0038] The specific embodiments of the present invention will be further described below with reference to the accompanying drawings and examples. The following examples are only used to more clearly illustrate the technical solutions of the present invention and should not be construed as limiting the scope of protection of the present invention.

[0039] like Figure 1-10 As shown, the rock wool base plate composite device includes at least a base plate conveying assembly 200 and stacked rock wool conveying assemblies 100. For ease of explanation, according to the conveying direction, one end of the rock wool conveying assembly 100 is defined as the first end, and the other end of the rock wool conveying assembly 100 is defined as the second end. The first end of the rock wool conveying assembly 100 is rotatably arranged relative to the base plate conveying assembly 200. The second end can approach or move away from the base plate conveying assembly 200 under the drive of the drive assembly 300, so that when the rock wool conveying assembly 100 is away from the base plate conveying assembly 200, it remains parallel to the bottom conveying assembly 200, and when it is close to the base plate conveying assembly 200, it remains inclined to the base plate conveying assembly 200.

[0040] It should be noted that the conveying direction is the first direction X, the rotation axis of the first end of the rock wool conveying assembly 100 relative to the bottom plate conveying assembly 200 is the second direction Y, the overlap direction of the bottom plate conveying assembly 200 and the rock wool conveying assembly 100 is the third direction Z, the first direction X, the second direction Y and the third direction Z are perpendicular to each other, the first end of the rock wool conveying assembly 100 rotates around the axis of the second direction Y, so that the second end of the rock wool conveying assembly 100 moves away from or closer to the bottom plate conveying assembly 200 along the third direction Z, so that the rock wool conveying assembly 100 is inclined on the bottom plate conveying assembly 200.

[0041] With the second end of the rock wool conveying assembly 100 far away from the base plate conveying assembly 200, the rock wool 500 enters the rock wool conveying assembly 100 from the first end, driven by the rock wool in the previous process. According to the predetermined design, the rock wool 500 is neatly arranged on the rock wool conveying assembly 100 with the second end as the positioning reference. It should be noted that using the second end as the positioning reference can mean that the end face of the rock wool 500 is aligned with the second end, or that the end face of the rock wool 500 is spaced a distance from the second end. Meanwhile, the base plate 600 enters the base plate conveying assembly 200 and, according to the predetermined design, enters the designated position, so that the rock wool 500 and the base plate 600 overlap on the stacked rock wool conveying assembly 100 and base plate conveying assembly 200 respectively, preparing for the lamination of the rock wool 500 and the base plate 600.

[0042] With the second end of the rock wool conveying assembly 100 close to the base plate conveying assembly 200, the first end of the rock wool conveying assembly 100 rotates around the axis of the second direction Y, causing the second end of the rock wool conveying assembly 100 to approach the base plate conveying assembly 200 along the third direction Z. The rock wool conveying assembly 200 is inclinedly disposed on the base plate conveying assembly 100. The angle between the rock wool conveying assembly 100 and the base plate conveying assembly 200 in the projection direction along the second direction Y is 30-60 degrees, preferably 35-50 degrees, and the optimal angle is 37.5 degrees. This helps the rock wool 500 to be laid on the base plate 600 in the movement state according to the conveying direction. If the inclination angle is too large, the end face of the rock wool 500 will easily abut against the base plate 600. On the base plate 600, collisions and misalignments can occur. If the inclination angle is too small, the gravity will be too weak, and the rock wool 500 cannot adhere well to the base plate 600. This is because before the rock wool 500 is bonded to the base plate 600, a layer of adhesive is applied to the bonding surface of the base plate 600 for bonding with the rock wool 500. Without external force, the rock wool 500 relies on its own weight to bond with the base plate 600. If the inclination angle is too small, the weight of the rock wool 500 in the third direction Z is small, making it difficult for the rock wool 500 to bond with the base plate 600. By tilting the rock wool conveying assembly 100 onto the base plate conveying assembly 200, it is easier for the rock wool 500 to bond with the base plate 600 during the conveying process.

[0043] In some embodiments, the rock wool conveying assembly 100 includes a plate 110 extending along a first direction X. The plate 110 includes at least a first segment 1101 and a second segment 1102. The first segment 1101 and the second segment 1102 are connected. The connection can be a direct integral connection or an indirect connection through a connector. The first segment 1101 is used to arrange the rock wool neatly according to a predetermined design. When the second segment 1102 is connected to the first segment 1101 and is set at an angle to the first segment 1101, it is used to connect with the base plate conveying assembly 200, so as to facilitate the combination of the rock wool 500 and the base plate 600.

[0044] The rock wool conveying assembly 100 includes a rock wool support 120, which extends along a first direction X. The plate 110 is mounted on the rock wool support 120 along the first direction X. It should be noted that the rock wool support 120 can be a pair of frames fixedly installed on a pair of sides of the plate 110 along a second direction Y, and connected by the plate 110 as a crossbeam. Alternatively, it can be a stable frame formed by connecting longitudinally and transversely connected pipes, and then the plate 110 is fixed on the frame.

[0045] The rock wool conveying assembly 100 is connected to the base plate conveying assembly 200 via a rock wool support 120. The rock wool support 120 corresponding to the first end of the plate 110 is rotatably connected to the base plate conveying assembly 200, and the other end is movable relative to the base plate conveying assembly 200 via a drive assembly 300.

[0046] In some embodiments, the rock wool support 120 has a main shaft 1201 extending away from the rock wool support on a pair of sides along the second direction Y, and a bearing seat 2101 for mounting the main shaft is provided on the base plate conveying assembly 200, so that the rock wool support 120 and the base plate conveying assembly 200 are rotatably connected; while in some embodiments, the rock wool support 120 has bearing holes on a pair of sides along the second direction Y, and the base plate conveying assembly 200 has a main shaft and is rotatably connected by bearings cooperating with the bearing holes. Of course, the structure that can achieve rotation is not limited to the solutions disclosed in this application.

[0047] The drive assembly 300 includes a drive bracket 310, which is located at the position corresponding to the second end 1102 of the plate 110. The drive bracket 310 is provided with a drive member 320 connected to the rock wool support 120. One end of the drive member 320 is hinged to the drive bracket 310, and the other end is hinged to the rock wool support 120.

[0048] In order to enable the rock wool support 120 to work stably, the drive support 310 is provided with two drive members 320 along the second direction. The two drive members 320 are arranged side by side, one end of the drive member 320 is connected to the drive support 310, and the other end is connected to the corresponding side of the rock wool support 120.

[0049] The driving component 310 can be a cylinder, a hydraulic cylinder, or an electric lead screw, preferably a cylinder. The base of the cylinder is hinged to the driving bracket 310, and the piston rod of the cylinder is hinged to the rock wool bracket 120.

[0050] It should be noted that the piston rod of the cylinder can extend or retract upwards or downwards. When the piston rod extends or retracts downwards, the cylinder is inverted on the drive bracket 310. The drive bracket 310 has a crossbeam higher than the rock wool conveying assembly 100, allowing the base of the cylinder to be mounted on the crossbeam. When the piston rod extends, the rock wool conveying assembly 100 is in an inclined state; when the piston rod retracts, the rock wool conveying assembly 100 is in a horizontal state. When the piston rod extends or retracts upwards, the cylinder can be mounted on the drive bracket 310 or on the side of the base plate conveying assembly 200. The piston rod of the cylinder connects upwards to the rock wool bracket 120. When the piston rod extends, the rock wool conveying assembly 100 is in a horizontal state; when the piston rod retracts, the rock wool conveying assembly 100 is in an inclined state.

[0051] One end of the rock wool support 120 of the rock wool conveying assembly 100 is rotatably connected to the base plate conveying assembly 200, and the other end is hinged to the drive support 310 or the base plate conveying assembly 200 through the drive component 320. This allows one end of the rock wool conveying assembly 100 to move closer to or further away from the base plate conveying assembly 200 along the third direction Z. When it moves away from the base plate conveying assembly 200, the plate 110 on the rock wool conveying assembly 100 is in a horizontal state, which can be used to place the rock wool 500 to form the shape required by the design. When it moves closer to the base plate conveying assembly 200, the plate 110 on the rock wool conveying assembly 100 is in an inclined state, which allows the placed rock wool 500 to move synchronously from the second end position of the rock wool conveying assembly 100 to the base plate on the base plate conveying assembly 200 and fit together, forming a composite of rock wool 500 and base plate 600.

[0052] In some embodiments, a first baffle 130 is provided on one side of the plate 110 along the second direction Y, and a second baffle 140 is provided on the other side. One of the first baffle 130 and the second baffle 140 is fixedly provided on the plate 100 and extends along the first direction X. The other of the first baffle 130 and the second baffle 140 is movably provided on the plate 110 and can move along the second direction Y to change the distance between the first baffle 130 and the second baffle 140 to adapt to the requirements of rock wool of different widths.

[0053] In some embodiments, the first baffle 130 and / or the second baffle 140 can be segmented along the first direction X, which facilitates the processing and installation of the first baffle 130. Especially when the first baffle 130 or the second baffle 140 needs to be movable, the segmented arrangement facilitates movement and adjustment along the second direction Y. When the length is too long, it is not easy to ensure the straightness of the first baffle 130 and / or the second baffle 140 along the first direction X. Therefore, the problem of parallel placement of the first baffle 130 and / or the second baffle 140 can be solved by segmenting.

[0054] The first baffle 130 and the second baffle 140 have an arc-shaped bent edge at one end near the first end 1101 of the plate body 100, and are bent outward into an arc shape, so that the pair of first baffles 130 and second baffles 140 form a funnel shape, which facilitates the automatic introduction of rock wool 500 between the first baffles 130 and the second baffles 140, and avoids the phenomenon of bumping and obstruction when the rock wool 500 enters. It should be noted that when the first baffle 130 and / or the second baffle 140 are set in segments, each segment of the first baffle 130 and / or the second baffle 140 has an arc-shaped bent edge.

[0055] In some embodiments, each of the first baffle 130 and / or the second baffle 140 is moved along the second direction Y by a set of adjustment components 150 on one side, adjusting the distance between them, the adjustment components 150 being disposed on the rock wool support 110 on the corresponding side.

[0056] The adjustment component 150 adopts a guide telescopic structure, such as a lead screw and nut assembly, a gear and rack assembly, and a guide assembly. It can also directly adopt a cylinder and a guide assembly, but it is not limited to the contents described in this application.

[0057] In one specific embodiment, the first baffle 130 and / or the second baffle 140 are adjusted using a gear and rack assembly 1501 and a guide assembly 1502. Specifically, two sets of guide assemblies 150 are spaced apart along the first direction X on the outside of the rock wool support 120. Each guide assembly 1502 includes a guide sleeve and a guide rod that slides with the guide sleeve. The guide sleeve is fixed to the rock wool support, and the guide rod passes through the guide sleeve, with one end entering the rock wool conveying assembly 100 and connecting to the first baffle 130 or the second baffle 140. The other end is suspended on the outside of the rock wool support 120. A gear and rack assembly 1501 is provided between the two sets of guide assemblies. The gear and rack assembly 1501 includes gears. The gear frame is equipped with a first drive motor 1503 arranged along the third direction Z. The main shaft of the first drive motor 1503 is equipped with a first drive gear. The gear frame has a first rack that penetrates the gear frame along the second direction Y, so that the first rack and the first drive gear are arranged in a cross shape and mesh on the gear frame. The first rack passes through the rock wool support 120 and is connected to the first baffle 130 or the second baffle 140. It should be noted that in order to make the gear rack transmission stable, the rock wool support 120 is equipped with a rack guide sleeve that slides with the first rack to ensure smooth movement of the first rack and prevent the first rack from tilting during long-term movement, deforming with the first drive gear, and interfering with it.

[0058] By cooperating with the first baffle 130 and the second baffle 140, different widths of spacing can be formed, and the rock wool 500 is arranged neatly according to regulations, and then attached to the base plate 600.

[0059] In order to move the neatly arranged rock wool 500 from the board 110 to the base plate 600 to form a composite board, the rock wool conveying assembly 100 also includes a pushing assembly 160. The pushing assembly 160 pushes the rock wool 500 from a position close to the first end of the board 110 to the second end along the first direction X, leaving the board 100 and combining it with the base plate 600.

[0060] In some embodiments, the pushing component 160 includes a pusher plate 1601 that moves along a first direction X. The pusher plate 1601 reciprocates along the first direction X to push the rock wool 500 from the plate body 110 onto the base plate 600.

[0061] The pusher plate 1601 consists of multiple pusher plates 1601 arranged side by side along the second direction X. The pusher plate 1601 is mounted on the pusher plate bracket 1602. The pusher plate bracket 1602 is movably mounted on the rock wool bracket 120 and reciprocates along the first direction X on the rock wool bracket 120.

[0062] To accommodate different widths, each push plate 1601 can reciprocate independently along the third direction Z on the push plate bracket 1602. Each push plate 1601 is slidably connected to the push plate bracket 1602 through a slide rail-sleeve cooperation method. For example, a slide rail is provided on the push plate bracket 1602, and correspondingly, a sliding sleeve is provided on the push plate 1601 to cooperate with the slide rail. Thus, the push plate 1602 moves up and down relative to the push plate bracket 1602 under the drive of the push plate drive assembly 1603. By controlling the push plate drive assembly 1603, the movement of the corresponding push plate 1601 can be adjusted, and push assemblies 160 of different widths can be formed by combination. At the same time, collisions and interference with the next group of rock wool 500 can be avoided during reciprocating motion.

[0063] The push plate drive assembly 1603 can be any of a pneumatic cylinder, hydraulic cylinder, or electric cylinder, which will not be described in detail here. In one embodiment, each push plate 1601 is connected to a pneumatic cylinder, and a group of the pneumatic cylinders are arranged and mounted on the push plate bracket 1602 along the second direction Y. The piston rod of each pneumatic cylinder extends and retracts toward the plate body, and the end of the piston rod is connected to a corresponding push plate 1601. Each push plate 1601 can reciprocate independently along the third direction Z.

[0064] The push plate bracket 1602 can be driven by a motor-screw to achieve reciprocating motion along the first direction X, or it can be driven by a linear motor, conveyor belt or cylinder.

[0065] In one embodiment, the push plate bracket 1602 uses a motor-gear rack drive to achieve reciprocating motion. Specifically, the rock wool bracket 120 is provided with slide rails extending along the first direction X on a pair of sides along the second direction Y. The push plate bracket 1602 is slidably connected to a pair of slide rails through a pair of sliding sleeves mounted thereon. A second rack is provided on one side of any one of the slide rails. A second drive motor 1604 is provided on the push plate bracket 1602 and arranged along the third direction Z. A second drive gear is provided on the main shaft of the second drive motor 1604. The second drive gear and the second rack are arranged in a cross shape and mesh with each other.

[0066] Driven by the drive assembly 300, the rock wool conveying assembly 100 approaches the bottom plate conveying assembly 200, causing the second end of the plate 110 to be inclined on the bottom plate conveying assembly 200. Driven by the push plate drive assembly 1603, the push plate 1601 realizes push plate groups of different widths, which can be matched with rock wool 500 of different widths. Driven by the second drive motor, the push plate bracket 1602 moves along the first direction X, driving the push plate 1601 to move synchronously. The push plate 1601 pushes the rock wool 500 from one end of the rock wool 500 and separates from the plate 110 from the other end to combine with the bottom plate 600 on the bottom plate conveying assembly 200.

[0067] In the composite process, in order to improve the composite strength of the rock wool 500 and the base plate 600, the rock wool conveying assembly 100 also includes a pressure application assembly 170, which applies pressure to the rock wool 500 from above to improve the composite effect of the two sets.

[0068] In one embodiment, the pressure application component 170 includes a pressure roller 1701, which is rotatably mounted on the rock wool support 120 corresponding to the second end of the plate 110 and located on the path that the pushing component 160 must pass when pushing the rock wool 500 away from the plate 110. The distance between the pressure roller 1701 and the plate 110 in the third direction Z is less than the thickness of the rock wool 500, so that the rock wool 500 is pressed by the pressure roller 1701 and adheres to the base plate 600 when it passes by.

[0069] The pressure application assembly 170 also includes a pressure application bracket 1702, which is arranged along the second direction Y. The pressure application roller 1701 extends along the second direction Y and is arranged on the pressure application bracket 1702. Both ends of the pressure application roller 1701 are rotatably arranged on the pressure application bracket 1702. The pressure application roller 1701 can cover the plate 110 along the second direction Y to apply pressure to the rock wool 500.

[0070] In order to enable the pressure roller 1701 to adapt to rock wool of different thicknesses, the pressure assembly 170 also includes a pressure adjustment assembly 1703, which can drive the pressure roller 1701 to reciprocate along the third direction Z.

[0071] In one embodiment, the pressure application assembly 170 includes two sets of pressure application guide assemblies. Specifically, a crossbeam is provided on the rock wool support 120, and two sets of pressure application guide assemblies are spaced apart along the second direction Y. Each pressure application guide assembly includes a guide sleeve and a guide rod that slides with the guide sleeve. The guide sleeve is fixed to the crossbeam, and the guide rod passes through one end of the guide sleeve along the third direction Z and is connected to the pressure application support 1702. A pressure application drive assembly 1704 is provided between the two sets of pressure application guide assemblies. The pressure application drive assembly 1704 is connected to the pressure application support 1702. The pressure application drive assembly 1704 can be any of a pneumatic cylinder, a hydraulic cylinder, or an electric cylinder, which will not be described in detail here.

[0072] The pressure adjustment component 1703 can adjust the distance between the pressure roller 1701 and the plate 110 to adapt to the requirements of rock wool 500 of different thicknesses. It should also be noted that when the thickness of the rock wool 500 is constant, the pressure adjustment component 1703 can play a role in preventing interference. This means that a portion of the rock wool 500 passes through the pressure roller 1701 before being pressed down, preventing the end face of the rock wool 500 from interfering with the pressure roller 1701 and being unable to enter the pressure roller 1701.

[0073] The base plate conveying assembly 200 includes a base plate support 210, and the base plate support 210 is provided with a first conveying assembly 220, which can be a transmission belt or a transmission roller.

[0074] In one embodiment, the base plate support 210 is provided with a plurality of first transmission rollers 2201 arranged at intervals along a first direction X. A first transmission shaft 2202 extending along the first direction X is provided on one side of the base plate support 210 of the first transmission rollers 2201. One end of each first transmission roller 2201 is connected to the first transmission shaft 2202 through a first transmission belt 2203. The base plate support 210 is also provided with a third drive motor 2204. The third drive motor 2204 is connected to the first transmission shaft 2202 through a first belt 2205. The third drive motor 2204 drives the first transmission shaft 2202 to rotate. The first transmission shaft 2202 drives the plurality of first transmission rollers 2201 to rotate synchronously through the transmission belt 2203, so that the base plate 600 moves along the conveying direction on the base plate conveying assembly 200.

[0075] To prevent the base plate 600 from shifting when moving on the first transmission roller 2201, the base plate conveying assembly 200 further includes a positioning assembly 230. The positioning assembly 230 includes a plurality of positioning rollers 2301 spaced apart along the first direction X. The positioning rollers 2301 are located on the side of the base plate support 210 away from the first transmission shaft 2202. A positioning roller 2301 is provided between two adjacent first transmission rollers 2201. The positioning roller 2301 protrudes along the third direction Z and is provided on the first transmission roller 2001. This allows one side of the base plate 600 to contact the outer circumferential surface of the positioning roller 2301 and move linearly along the positioning roller 2301 in the first direction X.

[0076] In order for the rock wool 500 and the base plate 600 to be aligned in the second direction Y, the positioning roller 2301 can move simultaneously in the second direction Y through the positioning adjustment component 240, so that the two sides of the rock wool 500 and the base plate 600 are aligned in the second direction Y, and there is no error or the error requirement is met when they are joined.

[0077] The positioning adjustment component 240 adopts a guide telescopic structure, such as a lead screw and nut assembly, a gear and rack assembly, and a guide assembly. It can also directly adopt a cylinder and a guide assembly, but it is not limited to the contents described in this application.

[0078] In one embodiment, the positioning adjustment assembly 240 includes a pair of lead screws 2401 extending along the second direction Y. Each lead screw 2401 is fitted with a nut sleeve. A positioning bracket 2402 extending along the first direction X is provided on the pair of nut sleeves. Multiple positioning rollers 2301 are mounted on the positioning bracket 240 via roller brackets. One end of each lead screw is connected to a fourth drive motor 2403. The fourth drive motor 2403 drives the positioning bracket 2402 to move along the second direction Y, thereby realizing the position adjustment of the multiple positioning rollers 2301.

[0079] It should be noted that, in order to reasonably arrange the spatial position of the base plate conveying assembly 200, the positioning adjustment assembly 240 and the first transmission shaft 2202 are both set on the base plate support 210 below the first transmission roller 2201.

[0080] The rock wool conveying assembly 100 and the base plate conveying assembly 200 are stacked together, so that the rock wool 500 and the base plate 600 are stacked. The rock wool 500 and the base plate 600 are simultaneously separated from the rock wool conveying assembly 100 and combined with the base plate conveying assembly 500 to form a rock wool base plate composite assembly. The rock wool conveying assembly 100 is connected to the base plate support 210 of the base plate conveying assembly 200 through the rock wool support 120 to form a stacked structure. It should be noted that the rock wool support 120 is installed on the crossbeams of different heights at both ends of the base plate support 210, so that the rock wool support 120 can be rotatably connected to the base plate support 210 at one end, and the other end can be close to or away from the base plate support 210.

[0081] After the rock wool 500 and the base plate 600 are combined to form a rock wool base plate composite component, a receiving conveying component 400 is provided at the position corresponding to the output end of the base plate conveying component 200 in order to facilitate the transportation of the rock wool base plate composite component.

[0082] In one embodiment, the receiving conveying assembly 400 abuts against the output end of the base plate conveying assembly 200. The receiving conveying assembly 400 includes a receiving bracket 410, and the receiving bracket 410 is provided with a second conveying assembly 420, which can be a transmission belt or a transmission roller.

[0083] In one embodiment, the receiving bracket 410 is provided with a plurality of second transmission rollers 4201 arranged at intervals along a first direction X. A second transmission shaft 4202 extending along the first direction X is provided on one side of the receiving bracket 410 of the second transmission rollers 4201. One end of each second transmission roller 4201 is connected to the second transmission shaft 4202 through a second transmission belt 4203. The receiving bracket 410 is also provided with a fifth drive motor 4204. The fifth drive motor 4204 is connected to the second transmission shaft 4202 through a second belt 4205. The fifth drive motor 4204 drives the second transmission shaft 4202 to rotate. The second transmission shaft 4202 drives the plurality of second transmission rollers 4201 to rotate synchronously through the second transmission belt 4203, so that the rock wool base plate composite assembly moves on the receiving and conveying assembly 400 along the conveying direction.

[0084] Since the rock wool 500 is subjected to pressure from the pressure roller 1701 during the composite process, it may cause the base plate 600 and the rock wool 500 to shift in the first direction X after they are combined. The receiving and conveying assembly 400 also includes a receiving assembly 430, which abuts against the first end of the rock wool base plate composite assembly and moves along the first direction X to prevent the base plate 600 and the rock wool 500 from shifting in the first direction X after they are combined.

[0085] In some embodiments, the receiving assembly 430 includes a receiving plate 4301 that moves along a first direction X and reciprocates along the first direction X.

[0086] The receiving plate 4301 is disposed on the receiving plate bracket 4302, and the receiving plate bracket 4302 is movably disposed on the receiving component bracket 4303, and reciprocates along the first direction X on the receiving component bracket 4303.

[0087] The receiving plate 4301 is slidably connected to the receiving plate support 4302 through a sliding rail-sliding sleeve cooperation. For example, a sliding rail is provided on the receiving plate support 4302, and correspondingly, a sliding sleeve that cooperates with the sliding rail is provided on the receiving plate 4301. Thus, the receiving plate 4301 moves up and down relative to the receiving plate support 4302 under the drive of the receiving plate drive assembly 4304. By controlling the receiving plate drive assembly 4304, the movement of the corresponding receiving plate 4301 can be adjusted, and it can collide and interfere with the next set of rock wool 500 during the reciprocating motion.

[0088] The receiving plate drive assembly 4304 can be any of a pneumatic cylinder, hydraulic cylinder, or electric cylinder, which will not be described in detail here. In one embodiment, the receiving plate 4301 is connected to a pneumatic cylinder, the piston rod of the pneumatic cylinder extends and retracts toward the receiving bracket, and the end of the piston rod is connected to the receiving plate 4301. The receiving plate 4301 can reciprocate along the third direction Z.

[0089] The receiving component bracket 4303 can be driven by a motor-screw to achieve reciprocating motion along the first direction X, or it can be driven by a linear motor, conveyor belt or cylinder.

[0090] In one embodiment, the receiving component bracket 4303 uses a motor-gear rack drive to achieve reciprocating motion. Specifically, the receiving component bracket 4303 is provided with slide rails extending along the first direction X on one side along the second direction Y. The receiving component bracket 4303 is slidably connected to the slide rails through a sliding sleeve mounted thereon. A second rack is provided on one side of the slide rails. A sixth drive motor 4305 is provided on the receiving component bracket 4303 and arranged along the third direction Z. A second drive gear is provided on the main shaft of the sixth drive motor 4305. The second drive gear and the second rack are arranged in a cross shape and mesh with each other.

[0091] Driven by the drive assembly 300, the rock wool conveying assembly 100 approaches the base plate conveying assembly 200, causing the second end of the plate 110 to be inclined on the base plate conveying assembly 200. The pusher plate 1601, driven by the pusher plate drive assembly 1603, realizes pusher plate groups of different widths, which can be matched with rock wool 500 of different widths. Driven by the drive motor, the pusher plate bracket 1602 moves along the first direction X, driving the pusher plate 1601 to move synchronously. The pusher plate 1601 pushes the rock wool 500 from one end and separates from the plate 110 from the other end to combine with the base plate 600 of the base plate conveying assembly 200 to form a rock wool base plate composite assembly. The receiving conveying assembly 400 abuts against the output end of the base plate conveying assembly 200. The receiving component 430 of the receiving conveying assembly 400 abuts against the end of the rock wool base plate composite assembly and moves along the first direction X to realize the transportation of the rock wool base plate composite assembly.

[0092] This application also provides an automated production line for composite rock wool boards, the automated production line for composite rock wool boards including the above-mentioned rock wool baseboard composite device.

[0093] Specifically, the automated production line for the composite rock wool board consists of two parallel production lines connected together. One line is a rock wool composite production line formed by connecting the rock wool conveying device 15, rock wool cutting device 13, rock wool base plate composite device 12, rock wool panel composite device 10, and hot pressing device 9 end to end. The other line is a base plate and panel adhesive coating and conveying production line formed by connecting the board conveying device 4 and adhesive coating device 3 end to end. The two production lines are arranged in parallel and are longitudinally connected in the middle by a base plate transverse moving device 5 and a panel transverse moving device 8 arranged perpendicular to the two production lines. This allows the base plate 2 and panel 7 to achieve automatic adhesive coating, conveying, and automatic composite processing with rock wool 14. This parallel arrangement is a preferred method, which is beneficial for production layout, can improve production efficiency, and reduce production costs. In another embodiment, the base plate 2 and panel 7 can be set on opposite sides, but this production method requires an increase in the number of adhesive coating devices 3 and occupies more space. The advantage is that the control program is relatively simple and can appropriately improve production efficiency. like Figure 1-2 As shown, in the rock wool composite production line, the rock wool 14 first needs to be fed and conveyed. The rock wool conveying device 15 is used to convey and arrange the segmented rock wool 14. The rock wool conveying device 15 includes a first conveying line 151 and a connected second conveying line 152. Specifically, the first conveying line 151 and the second conveying line 152 are preferably belt conveyors. The belt conveyor includes a frame, on which a pulley is rotatably mounted. The belt is then installed on the pulley, and the belt is driven to rotate by a drive motor to convey the material. The drive motor is preferably either a stepper motor or a servo motor. The motor can precisely control the running speed of the belt conveyor, making it easy to adjust the linear speed of the first conveyor line 151 and the second conveyor line 152. In order to connect the front and rear segments of rock wool 14 end to end, the linear speed of the first conveyor line 151 is made greater than the linear speed of the second conveyor line 152, so that the rock wool 14 located on the first conveyor line 151 moves faster than the rock wool on the second conveyor line 152. This causes the end of the rock wool 14 on the first conveyor line 151 to abut against the tail of the rock wool 14 on the second conveyor line 152. The rock wool conveying device 15 connects several rows of segmented rock wool 14 end to end according to the preset width dimensions. Furthermore, in order to facilitate the better introduction of rock wool 14 into the bottom when it is combined with the base plate 2, and to facilitate the transportation of rock wool 14, the first conveyor line 151 and the connected second conveyor line 152 are continuously inclined downward from the input end to the output end. Specifically, one end of the first frame of the first conveyor line 151 and the second conveyor line 152 is higher than the other end, so that the belt is inclined after installation. Then, when placing the belt, it is placed in an inclined downward state from the input end to the output end. This is beneficial for the rock wool 14 and the base plate 2 to have line contact when they come into contact, so that the rock wool 14 is continuously pressed against the adhesive layer of the base plate 2 from the front end to the end. This allows the gas between the rock wool 14 and the base plate 2 to be discharged under the action of compression, avoiding the local gas accumulation when the entire rock wool 14 is in contact with a large area, which cannot be discharged and forms air pockets or air bags, resulting in a decrease in the bonding effect. At the same time, it allows the rock wool 14 to be better introduced into the base plate. After several rows of segmented rock wool 14 are connected end to end according to a preset width dimension, they need to be cut according to a preset length dimension by a rock wool cutting device 13. The rock wool cutting device 13 includes a circular saw, which is connected to a first frame through a first linear guide rail and can cut along the width direction of the rock wool 14. Since many fine fibers are generated during the production and cutting of rock wool 14, long-term and excessive inhalation can harm the lungs. Therefore, the first frame of the rock wool cutting device 13 is also equipped with a dust collection mechanism, which is a cartridge dust collector, a bag dust collector, or a vacuum cleaner, to collect the fine fibers during the cutting process and purify the working environment. The input end of the rock wool cutting device 13 is connected to the output end of the rock wool conveying device 15 to cut several rows of rock wool 14 connected end to end according to a preset length dimension. The circular saw cutting method is a preferred method in this embodiment, which is relatively inexpensive, has a long service life, and has a good cutting effect. In other embodiments, other cutting methods can also be used, such as wire cutting and laser cutting, which can also have a good cutting ability for rock wool 14. After the rock wool 14 is shaped in length and width, it is laid on the base plate 2 after being coated with adhesive by the rock wool base plate composite device 12. The rock wool base plate composite device 12 includes a rock wool conveying component 100 connected to the output end of the rock wool cutting device 13 and a base plate conveying component 200 stacked with the rock wool conveying component 100, which is conducive to the composite of rock wool 14 and base plate 2. After the rock wool 14 is laminated with the base plate 2, the panel 7 is laminated with the side of the rock wool 14 away from the base plate 2 by the rock wool panel laminating device 10. The rock wool panel laminating device 10 includes a rock wool base plate conveying mechanism and a flipping mechanism on one side. The input end of the rock wool base plate conveying mechanism is connected to the output end of the rock wool base plate laminating device 12. The glued panel 7 is laid on the rock wool 14. Specifically, the rock wool base plate conveying mechanism preferably adopts a roller conveyor line. After the rock wool 14 is laminated with the base plate 2, it enters the roller conveyor line. The roller conveyor line has a [missing information - likely a feature or design]. The flipping mechanism preferably employs a robotic arm. The robotic arm adheres to the side of the panel 7 away from the adhesive coating, covering the adhesive-coated side of the panel 7 onto the rock wool 14. In another embodiment, the flipping mechanism is a 180-degree flipping bracket. The flipping bracket is held to the outside of the panel by a cylinder, and then driven by a drive motor to flip the flipping bracket 180 degrees, so that the panel 7 covers the rock wool 14. Similarly, a robotic arm can also be used to flip the composite thick rock wool base plate 180 degrees, so that the rock wool base plate covers the adhesive-coated panel. The adhesive in the sequentially stacked base plate 2, rock wool 14, and panel 7 needs to be cured by a hot pressing device 9 to bond the base plate 2, rock wool 14, and panel 7 together. The hot pressing device 9 includes a box, and a heating mechanism is provided inside the box. The heating mechanism is an electric heating wire. The box is also provided with a pressing mechanism, which includes a hydraulic cylinder. The hydraulic cylinder is located at the top of the box, and the piston rod of the hydraulic cylinder extends into the box and is connected to a pressure plate at its end. The sequentially stacked base plate 2, rock wool 14, and panel 7 are bonded together by the pressing mechanism in the high-temperature box to form a composite rock wool board. A parallel bottom plate and panel adhesive coating conveying production line is provided on one side of the rock wool composite production line. The bottom plate and panel adhesive coating conveying production line includes the plate conveying device 4 and the adhesive coating device 3. The adhesive application device 3 is arranged parallel to one side of the rock wool conveying device 15. It applies adhesive to the surface layer where the base plate 2 or panel 7 is bonded to the rock wool 14. The adhesive application device 3 includes a compressor, a glue tank, a glue nozzle, a third linear guide rail, a second drive motor, and a second frame. The third linear guide rail is set on the second frame, and the glue nozzle is set on the third linear guide rail. Driven by the second drive motor, the nozzle moves along the third linear guide rail. The glue nozzle is connected to the glue tank through a conduit, and the glue tank is connected to the compressor through a conduit. The base plate 2 or panel 7 passes through the adhesive application device 3 at a constant speed, and the glue nozzle reciprocates along the third linear guide rail to apply the adhesive to the base plate 2 or panel 7. The sheet material conveying device 4 includes a feeding end 1, a bottom plate transverse moving device 5 and a panel transverse moving device 6, which alternately conveys the panel 7 or bottom 2 after glue application. The base plate transverse movement device 5 is located between the board conveying device 4 and the rock wool base plate composite device 12. One end of the base plate transverse movement device 5 is alternately connected to the board conveying device 4, and the other end is alternately connected to the base plate conveying assembly 200. The glued base plate 2 is conveyed from the board conveying device 4 to the base plate conveying assembly 200. The base plate transverse movement device 5 preferably adopts belt conveyor. The board conveying device 4 includes a panel conveying device 6. The input end of the panel conveying device 6 is connected to the output end of the board conveying device 1. The output end of the panel conveying device 6 is located on the side of the rock wool panel composite device 10 near the flipping mechanism, and conveys the panel 7 after glue application. The panel transverse movement device 8 is disposed between the panel conveying device 6 and the rock wool panel composite device 10. One end of the panel transverse movement device 8 is alternately connected to the panel conveying device 6, and the other end is connected to one side of the rock wool panel composite device 10. The panel transverse movement device 6 preferably adopts belt conveying. The glued panel 7 is conveyed from the panel conveying device 6 to one side of the rock wool panel composite device 10 and the panel 7 is bonded to the rock wool 14 by the flipping mechanism. To facilitate the loading of the base plate 2 and the panel 7 before applying the adhesive, and to position the base plate 2 and the panel 7, the input end of the adhesive application device 3 is the loading end 1 of the board conveying device 4. The board conveying device 4 is composed of several sections of roller conveyor lines and belt conveyor lines connected end to end. In this embodiment, the board conveying device 4 includes roller conveyor lines and belt conveyor lines. The frame of the belt conveyor line is also provided with a baffle arranged along the width direction. The baffle abuts against the base plate 2 and the panel 7 for positioning. The baffle can be moved by a fourth linear guide rail. Since the production cycle of the hot pressing device 9 is lower than that of the rock wool baseboard composite device 12 and the rock wool panel composite device 10, in order to prevent the composite from being placed in front of the hot pressing device 9 and bumping into each other, a transition roller conveyor line 11 is further provided between the rock wool baseboard composite device 12 and the rock wool panel composite device 10. The transition roller conveyor line 11 allows the rock wool baseboard to wait in the area of ​​the transition roller conveyor line 11 after being composited, and then enter the rock wool panel composite device 10 after the hot pressing device 9 issues an instruction, and then enter the hot pressing device 9 to bond the colloid to form a composite rock wool board.

[0094] This application also includes a method for producing composite rock wool boards, comprising the following steps: S1: Arrange the rock wool 14 raw material in the width direction at the input end of the rock wool conveying device 15 and place the ends of the two adjacent rows of rock wool in an alternating manner. At the same time, alternately place the formed base plate 2 and panel 7 on the board feeding device 1. S2: The rock wool conveying device 15 connects several rows of segmented rock wool end to end according to the preset width size and cuts them according to the preset length size through the rock wool cutting device 13. At the same time, the bottom plate 2 and the top plate 7 are alternately coated with adhesive through the glue application device 3. S3: The cut rock wool 14 is positioned and conveyed by the rock wool conveying component 100 of the rock wool base plate composite device 12. At the same time, the base plate 2 after being coated with adhesive is conveyed to the base plate conveying component 200 in sequence through the plate conveying device 1 and the base plate transverse moving device 5. The base plate transverse moving device 5 ensures that the transverse moving positioning reference point of the base plate 2 after being coated with adhesive is consistent with the reference point of the top of the rock wool. Through the synchronous movement of the base plate conveying component 200 and the rock wool conveying component 100, the rock wool 14 automatically falls onto the adhesive surface layer of the base plate 2. S4: After the rock wool base plate is composited, it is conveyed to the rock wool base plate conveying mechanism of the rock wool panel composite device 10 through the transition roller conveying line 11. At the same time, the glued panel 7 is conveyed to one side of the rock wool base plate conveying mechanism through the panel conveying device 6 and the panel transverse moving device 8 in sequence. Then, the glued panel 7 and the rock wool 14 are laminated again through the flipping mechanism. S5: The bottom plate 2, rock wool 14, and panel 7, which are stacked in sequence, are bonded together in a high-temperature chamber by a pressing device 9 to form a composite rock wool board.

[0095] In order to achieve the composite bonding of the rock wool, the base plate and the adhesive-coated panel, in step S4, the adhesive-coated panel is rotated 180 degrees so that the side of the rock wool away from the base plate after the adhesive-coated panel and the rock wool base plate are bonded together again.

[0096] In order to achieve the composite bonding of the rock wool, the base plate, and the adhesive-coated panel, in step S4, the adhesive-coated rock wool base plate is rotated 180 degrees after being bonded, so that the rock wool side away from the base plate after the rock wool base plate is bonded is again laminated with the adhesive-coated panel.

[0097] To ensure that the four sides of the stacked base plate, rock wool, and panel are aligned, further, in step S5, the base plate, rock wool, and panel, which are stacked in sequence, are shaped before entering the high-temperature chamber.

[0098] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. A rock wool baseboard composite device, characterized in that, It includes at least a base plate conveying assembly and a stacked rock wool conveying assembly. One end of the rock wool conveying assembly is rotatably disposed relative to the base plate conveying assembly, and the other end can move closer to or further away from the base plate conveying assembly under the drive of the driving assembly. When the rock wool conveying assembly is away from the bottom plate conveying assembly, it is kept parallel to the bottom conveying assembly; when it is close to the bottom plate conveying assembly, it is kept inclined to the bottom plate conveying assembly.

2. The rock wool base plate composite device according to claim 1, characterized in that, The angle between the rock wool conveying assembly and the base plate conveying assembly in the projection direction along the second direction Y is 30-60 degrees.

3. The rock wool base plate composite device according to claim 1 or 2, characterized in that, The rock wool conveying assembly includes a plate extending along a first direction X, the plate including at least a first section and a second section.

4. The rock wool base plate composite device according to claim 3, characterized in that, A first baffle is provided on one side of the plate along the second direction Y, and a second baffle is provided on the other side. One of the first baffle and the second baffle is fixedly provided on the plate, and the other of the first baffle and the second baffle is movably provided on the plate.

5. The rock wool base plate composite device according to claim 4, characterized in that, The first or second baffle moves along the second direction Y via a set of adjustment components on one side.

6. The rock wool base plate composite device according to claim 1 or 2, characterized in that, The drive assembly includes a drive bracket, the drive bracket having a drive component connected to the rock wool support of the rock wool conveying assembly, one end of the drive component being hinged to the drive bracket, and the other end being hinged to the rock wool support of the rock wool conveying assembly.

7. The rock wool base plate composite device according to claim 3, characterized in that, The rock wool conveying assembly also includes a pushing component, which pushes the rock wool from a position near the first end of the board to the second end along a first direction, leaving the board and bonding it with the bottom plate.

8. The rock wool base plate composite device according to claim 7, characterized in that, The pushing component includes a push plate that moves along a first direction X.

9. The rock wool base plate composite device according to claim 8, characterized in that, The pusher consists of multiple pushers arranged side by side along the second direction X. The pusher is mounted on the pusher bracket, which is movably mounted on the rock wool bracket and reciprocates along the first direction X on the rock wool bracket.

10. The rock wool base plate composite device according to claim 3, characterized in that, The rock wool conveying assembly also includes a pressure application assembly.

11. The rock wool base plate composite device according to claim 10, characterized in that, The pressure application component includes a pressure roller, which is rotatably mounted on the rock wool support corresponding to the second end of the plate and is located on the path that the rock wool must take when it detaches from the plate.

12. The rock wool base plate composite device according to claim 11, characterized in that, The pressure application assembly also includes a pressure adjustment assembly, which can drive the pressure roller to reciprocate along the third direction Z.

13. The rock wool base plate composite device according to claim 1, characterized in that, The base plate conveying assembly includes a base plate support, and the base plate support is provided with a first conveying assembly.

14. The rock wool base plate composite device according to claim 13, characterized in that, The base plate conveying assembly further includes a positioning assembly, which includes a plurality of positioning rollers spaced apart along a first direction X.

15. The rock wool base plate composite device according to claim 1, characterized in that, A receiving conveying component is provided at the position corresponding to the output end of the base plate conveying component.

16. The rock wool base plate composite device according to claim 15, characterized in that, The receiving and conveying assembly includes a receiving bracket, and the receiving bracket is provided with a second conveying assembly.

17. The rock wool base plate composite device according to claim 16, characterized in that, The receiving and conveying assembly also includes a receiving component, which abuts against the first end of the rock wool base plate composite assembly and moves along the first direction X to prevent the base plate and rock wool from shifting in the first direction X after they are combined.

18. The rock wool base plate composite device according to claim 17, characterized in that, The receiving assembly includes a receiving plate that moves along a first direction X, and the receiving plate reciprocates along the first direction X.

19. An automated production line for composite rock wool boards, characterized in that, The rock wool base plate composite device includes any one of claims 1-18.

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