A net folding and upper pulp feeding system for processing rock wool composite board and a using method thereof
By combining bidirectional mesh twisting and vibratory sizing devices, the problems of loose fiberglass mesh wrapping and poor bonding effect were solved, achieving efficient production and high-quality finished product rate of rock wool composite panels.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2023-11-07
- Publication Date
- 2026-03-20
AI Technical Summary
In the current production of rock wool composite panels, the fiberglass mesh is not tightly wrapped, and the bonding effect between the polymer cement mortar plaster layer and the rock wool core material is poor, resulting in a high defect rate and scrap rate, as well as high labor costs.
The system employs a bidirectional rubbing device and a vibratory slurrying device. The rubbing rollers tighten the fiberglass mesh towards the center, and the vibrator allows the polymer cement mortar to evenly penetrate between the mesh and the rock wool core material. The combination of the profiled plate and the limiting plate ensures compactness and bonding effect.
It improves the compactness of fiberglass mesh and the bonding effect of polymer cement mortar, reduces the defect rate and scrap rate, and improves production efficiency and product consistency.
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Figure CN117207340B_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application relates to the technical field of rock wool composite board processing and production equipment, and particularly relates to a rock wool composite board processing net folding and top slurry system. BACKGROUND
[0002] The four length direction surfaces of the rock wool composite board are wrapped with glass fiber cloth, and the inner and outer two large surfaces are compounded with a polymer cement mortar finishing layer. The rock wool core material is a plate assembled by vertical rock wool strips or a horizontal rock wool plate. Compared with the ordinary rock wool bare plate, the rock wool composite board has the characteristics of high strength, waterproofness, strong adhesion, good labor protection, and the like. In the installation and use, the rock wool composite board is convenient to construct without pollution, can be firmly pasted to the base wall, and solves the problems of water settlement, layered sliding, low tensile strength, and skin damage caused by rock wool fibers of the rock wool bare plate, effectively improves the engineering quality, and can be widely applied to wall insulation engineering of various building structures. In the production and processing process of the rock wool composite board, the glass fiber cloth needs to be installed on the four length direction surfaces of the rock wool core material, and the polymer cement mortar finishing layer needs to be coated on the inner and outer two large surfaces. At present, the rock wool composite board is usually produced manually. The rock wool plate needs to be cut into the designed size, the glass fiber cloth is manually wrapped on the four length direction surfaces of the assembled rock wool core material, and then the polymer cement mortar finishing layer is manually coated on the inner and outer two large surfaces. This operation mode has low efficiency, poor product consistency, and high labor cost. In the rock wool composite board production line, the quality of the glass fiber cloth wrapping directly affects the quality of the product, so manual wrapping of the glass fiber cloth is usually adopted in the production line, which affects the operation efficiency of the production line and increases the labor cost. In the existing rock wool composite board production line, the glass fiber cloth is laid on the conveying belt, a layer of polymer cement mortar finishing layer is laid on the glass fiber cloth, and then the rock wool core material is laid on the polymer cement mortar finishing layer. A mechanical device is used to automatically wrap the glass fiber cloth, and then a pressing mechanism is used for pressing to improve the adhesion and tightness of the polymer cement mortar finishing layer and the rock wool core material. However, in the actual operation process, the tightness of the glass fiber cloth wrapping cannot be guaranteed by only using the natural folding method, and a large amount of defective products or waste products are generated. After the glass fiber cloth wrapping is completed, the top slurry operation is also needed. In the conventional case, a hopper is arranged on the conveying belt of the production line, a gap is arranged between the bottom of the hopper and the rock wool core material, and the polymer cement mortar is overflowed from the gap to form the polymer cement mortar finishing layer. However, in the actual operation process, the polymer cement mortar finishing layer formed by this method is loose, the adhesion effect of the polymer cement mortar finishing layer and the rock wool core material is poor, and the rock wool core material and the polymer cement mortar finishing layer are easy to separate after drying, so the defective product rate or the waste product rate is high. SUMMARY
[0003] The invention aims to provide a rock wool composite board processing net folding and top slurry system and a using method, which can automatically and continuously tighten the glass fiber mesh towards the middle, improve the tightness of the glass fiber mesh wrapping, and improve the bonding effect between the top polymer cement mortar and the rock wool core material, thereby increasing the yield.
[0004] To achieve the above-mentioned purpose, the invention adopts the following technical solutions:
[0005] A rock wool composite board processing net folding and top slurry system, comprising a transmission device, the transmission device comprising a transmission support, a transmission shaft installed on the transmission support, and a transmission belt installed on the transmission shaft, lateral limiting plates being adjustably installed on both sides of the transmission support; one or more sets of bidirectional net folding devices are installed on the transmission support, the bidirectional net folding devices comprising a gantry support, a vertical adjustment assembly installed on the gantry support, a support cross plate installed on the vertical adjustment assembly, a driving mechanism fixedly installed on the support cross plate, and two sets of roller shafts installed on the driving mechanism, the two sets of roller shafts being oppositely rotatable to squeeze the glass fiber mesh towards the middle; a profiling device is installed on the lateral limiting plate, the profiling device comprising a profiling support, a connecting piece installed on the profiling support, and a profiling plate rotatably installed on one end of the connecting piece; a vibrating type sizing device is installed on the transmission support, the vibrating type sizing device comprising an adjustable support, a hopper installed on the adjustable support, a vibrator arranged in the hopper, and a shaping piece arranged on the transmission support; after the glass fiber mesh wrapping is completed, the profiling plate is used for profiling, and then top sizing is performed.
[0006] Preferably, the bidirectional net folding devices are sequentially arranged in two groups, one roller shaft is arranged in each group of roller shafts in one group of bidirectional net folding devices; and two roller shafts are arranged in each group of roller shafts in the other group of bidirectional net folding devices.
[0007] Preferably, sliding blocks are arranged at both ends of the support cross plate, vertical supports are fixedly installed on both sides of the gantry support, sliding rails are fixedly installed on the vertical supports, and the sliding blocks are slidingly installed on the sliding rails.
[0008] Preferably, the vertical adjustment assembly is a worm gear screw lifter, a hydraulic cylinder, or an electric push rod.
[0009] Preferably, the roller shafts are made of rubber material.
[0010] Preferably, limiting pieces are installed on the profiling plate, and the limiting pieces can limit the angle of oscillation of the profiling plate.
[0011] Preferably, a serrated material distribution part is arranged at one end of the profiling plate, the serrated material distribution part is arranged in the hopper, and a shielding curtain is arranged between the hopper and the profiling plate.
[0012] Preferably, a shaping hole matching the product shape is arranged on the shaping piece; two centering plates are arranged on the two sides of the shaping piece in an inclined manner, and the two centering plates are arranged in a horn shape.
[0013] Preferably, a pressing plate is adjustably arranged on the bottom of the support horizontal plate, and the pressing plate is located above the overlapping part of the glass fiber mesh.
[0014] A method for using a net folding and upper top slurry system for processing rock wool composite boards, the method comprising the following steps:
[0015] Step one, parameter adjustment, the interval between the roller shaft and the conveying belt and the interval between the bottom of the hopper and the top of the rock wool core material are adjusted according to the thickness of the semi-finished product, and the interval between the two lateral limiting plates is adjusted according to the width of the semi-finished product;
[0016] Step two, grouting operation, after the glass fiber mesh is tightly wrapped, the bottom layer of polymer cement mortar is first extruded by the profiling plate and cooperated with the two lateral limiting plates to make the side surface smooth and have edges and corners, then the polymer cement mortar is added in the hopper by external equipment, the uniform mortar is formed by the vibration of the vibrator, and the polymer cement mortar can penetrate between the glass fiber mesh and the rock wool core material, the interval between the bottom of the hopper and the rock wool core material forms the top layer of polymer cement mortar, and finally the product is formed by the shaping piece.
[0017] In the present application, the bidirectional net folding device can fold and extrude the glass fiber mesh from both ends to the middle, so that the wrapped glass fiber mesh is more compact, which is convenient for the subsequent fixing and brushing of the second layer of polymer cement mortar, and improves the consistency and yield of the product. The vertical adjusting assembly can adjust the vertical height of the net folding assembly, adapt to products of different thickness specifications, and has good universality. The bidirectional net folding device is provided with two groups to avoid the rebound phenomenon of the glass fiber mesh and improve the tightness effect.
[0018] The profiling plate is installed in a hinged manner, can be suitable for products of different thickness specifications, and can adjust the extrusion force by increasing the counterweight, which is convenient to adjust. Cooperated with the two lateral limiting plates, the edges of the bottom layer of polymer cement mortar of the product have edges and corners, which ensures the product quality. The serrated material distribution part provided on the end of the profiling plate is located in the hopper, which connects the profiling operation with the top slurry operation, and also avoids the phenomenon of slurry overflow at the rear of the hopper due to too much polymer cement mortar on the surface layer of the rock wool core material, avoids waste, and reduces the cleaning work of the conveying belt. The limiting piece can control the angle of swinging of the profiling plate, limit the interval between the bottom of the profiling plate and the conveying belt, and adjust simply and conveniently.
[0019] The vibrator is arranged to vibrate and compact the polymer cement mortar in the hopper, which improves the uniformity of the mortar and facilitates the polymer cement mortar to penetrate into the glass fiber mesh and the rock wool core material, improves the reliability of the connection among the three, and avoids the phenomenon that the subsequent polymer cement mortar finishing layer and the rock wool board core material are separated to generate defective or waste products. The material blocking plate and the shaping piece can scrape and shape the polymer cement mortar finishing layer, so that the appearance consistency of the product is good, and the quality of the product is ensured. BRIEF DESCRIPTION OF DRAWINGS
[0020] Figure 1 It is a schematic diagram of the overall structure of the application;
[0021] Figure 2 It is a schematic diagram of the partial structure of the application;
[0022] Figure 3 It is another schematic diagram of the partial structure of the application;
[0023] In the figure: 1, conveying device; 2, lateral limiting plate; 3, connecting piece; 4, bidirectional meshing device; 5, profiling device; 7, vibrating sizing device; 10, conveying support; 11, conveying shaft; 12, conveying belt; 40, gantry support; 41, vertical adjusting assembly; 42, supporting cross plate; 43, driving mechanism; 44, rubbing roller shaft; 45, sliding block; 46, vertical support; 47, sliding rail; 48, pressing plate; 50, profiling support; 51, connecting piece; 52, profiling plate; 53, limiting piece; 54, sawtooth-shaped material distributing part; 70, adjustable support; 71, hopper; 72, vibrator; 73, shaping piece; 74, centering plate; 75, connecting plate; 76, material blocking plate. DETAILED DESCRIPTION
[0024] The application will be further described below in combination with the drawings:
[0025] As shown in Figure 1 , Figure 2 and Figure 3 , a mesh folding and sizing system for processing rock wool composite board, comprising a conveying device 1, the conveying device 1 comprising a conveying support 10, a conveying shaft 11 rotatably mounted on the conveying support 10 through a bearing, and a conveying belt 12 mounted on the conveying shaft 11, the conveying shaft 11 being power-connected through a chain transmission assembly, a power motor being mounted on the conveying support 10, the power motor being capable of driving the conveying shaft 11 to rotate and driving the conveying belt 12 to forwardly convey. Lateral limiting plates 2 are adjustably mounted on both sides of the conveying support 10, specifically, connecting pieces 3 are fixedly arranged outside the lateral limiting plates 2 through welding or fasteners, adjusting holes are arranged on the connecting pieces 3, and the lateral limiting plates 2 are mounted on the conveying support 10 by using bolts passing through the adjusting holes.
[0026] A set of bidirectional netting devices 4 are installed on the transmission support 10, the bidirectional netting device 4 comprises a gantry support 40, a vertical adjustment assembly 41 fixedly installed on the gantry support 40, a support horizontal plate 42 fixedly installed on the other end of the vertical adjustment assembly 41, a driving mechanism 43 fixedly installed on the support horizontal plate 42 through fasteners, and two sets of roller shafts 44 installed on the driving mechanism 43, the two sets of roller shafts 44 rotate oppositely to squeeze the glass fiber cloth to the middle. In this embodiment, two sets of bidirectional netting devices 4 are sequentially arranged, wherein each set of roller shafts in the bidirectional netting device 4 close to the previous working procedure is provided with one roller shaft 44, and each roller shaft 44 is driven to rotate by a driving motor, or a driving motor is shared and a gear power connection is matched to make them rotate inward at the same time. Each set of roller shafts in the other bidirectional netting device 4 is provided with two roller shafts 44, and the two roller shafts 44 in the same set share a driving motor and are matched with a chain transmission to realize synchronous rotation in the same direction. The two sets of bidirectional netting devices 4 are arranged at intervals to realize double-point rolling of the glass fiber cloth, prevent rebound, and improve the rolling effect. In a preferred embodiment, sliding blocks 45 are fixedly arranged at both ends of the support horizontal plate 42, vertical supports 46 are fixedly installed on both sides of the gantry support 40 through fasteners, sliding rails 47 are fixedly installed on the vertical supports 46 through fasteners, and the sliding blocks 45 are slidingly installed on the sliding rails 47 to ensure the stability of the vertical sliding of the support horizontal plate 42 and the components arranged thereon. The roller shaft 44 is made of rubber material and has good friction. A pressing plate 48 is adjustably installed on the bottom of the support horizontal plate 42 through a screw rod, an adjusting piece or other height adjusting components, the pressing plate 48 is located above the overlapping part of the glass fiber cloth to prevent the overlapping part of the glass fiber cloth from being warped and affecting the product quality. The vertical adjustment assembly 41 is a worm gear screw lifter, a hydraulic cylinder or an electric push rod, and a worm gear screw lifter is selected in this embodiment.
[0027] The profiled device 5 is installed on the lateral limiting plate 2, and the profiled device 5 comprises a profiled support 50, a connecting piece 51 installed on the profiled support 50, and a profiled plate 52 rotatably installed on one end of the connecting piece 51 through a pin shaft. Specifically, the connecting piece 51 is provided with two, and the connecting piece 51 comprises a hinged seat fixedly installed on the top of the profiled plate 52 and a connecting rod installed on the profiled support 50, and one end of the connecting rod is hingedly connected with the hinged seat through a pin shaft. In the process of use, a counterweight can be added on the profiled plate 52 to adjust the pressing force. In one embodiment, a limiting piece 53 is installed on the profiled plate 52, and the limiting piece 53 can limit the angle of oscillation of the profiled plate 52. Specifically, the limiting piece 53 is a vertical supporting rod fixedly installed on the profiled plate 52, and a regulating bolt is arranged on the top of the limiting piece 53 through a thread, and the regulating bolt can adjust the angle of oscillation of the profiled plate 52. In a preferred embodiment, one end of the profiled plate 52 is provided with a sawtooth-shaped material distribution part 54, the sawtooth-shaped material distribution part 54 is arranged in a hopper 71, and the sawtooth-shaped material distribution part 54 can block a part of the polymer cement mortar, so that the polymer cement mortar on the rock wool core material is uniformly distributed, and the phenomenon of overflow of the polymer cement mortar at the rear end of the hopper 71 is avoided due to the accumulation of too much polymer cement mortar on the surface of the product. A shielding curtain is arranged between the hopper 71 and the profiled plate 52, and the shielding curtain is made of flexible material. After the glass fiber mesh is wrapped, the top sizing is performed after the profiled plate 52 is profiled.
[0028] The vibrating sizing device 7 is installed on the transmission support 10, and the vibrating sizing device 7 comprises an adjustable support 70, a hopper 71 installed on the adjustable support 70, a vibrator 72 arranged in the hopper 71, and a shaping piece 73 arranged on the transmission support 10, the shaping piece 73 is provided with a shaping hole matched with the shape of the product, and two centering plates 74 are arranged on the two sides of the shaping piece 73, the two centering plates 74 are arranged in a horn shape, and the centering plates 74 facilitate the centering of the product. The vibrator 72 is installed on the ground or an external grouting device through a support. The shaping hole performs secondary shaping on the outer side of the product. Connecting plates 75 are fixedly arranged on the two sides of the back of the hopper 71 through welding, and connecting holes are arranged on the connecting plates 75, the connecting holes are long waist type holes, and blocking plates 76 are adjustably installed on the two connecting plates 75 through the connecting holes. The long waist type connecting holes can facilitate the adjustment of the height position of the blocking plates 76, and adapt to products of different thickness specifications. The blocking plates 76 and the two connecting plates 75 form a through hole matched with the shape of the product, and the through hole makes the product preliminarily shaped, that is, the top surface and the two side surfaces are flat and have edges and corners. The adjustable support 70 comprises a vertical adjusting piece and a connecting support plate installed on the vertical adjusting piece, one end of the connecting support plate is fixedly connected with the hopper 71, and the vertical adjusting piece is a screw rod, a hand-operated worm gear lifter or an electric push rod. In this embodiment, the hand-operated worm gear lifter is selected.
[0029] As Figure 1 , Figure 2 and Figure 3The use method of the folding net and the upper top slurry system for processing a rock wool composite board, and the use method comprises the following steps:
[0030] Step one, parameter adjustment, adjust the interval between the roller shaft 44 and the conveying belt 12 according to the thickness of the semi-finished product, adjust the rolling force to ensure the rolling effect. Adjust the interval between the bottom of the hopper 71 and the top of the rock wool core material according to the thickness of the semi-finished product to ensure the thickness of the top layer of polymer cement mortar. Adjust the interval between the two lateral limiting plates 2 to adapt to the width of the semi-finished product.
[0031] Step two, grouting operation, after the glass fiber mesh is wrapped and rolled tightly, the bottom layer of polymer cement mortar is first extruded by the pressing plate 52 and cooperated with the two lateral limiting plates 2 to make the side of the polymer cement mortar flat and have edges and corners, then the polymer cement mortar is added in the hopper 71 by external equipment, the uniform slurry is formed by the vibration of the vibrator 72, and the polymer cement mortar can penetrate between the glass fiber mesh and the rock wool core material, the interval between the bottom of the hopper 71 and the rock wool core material forms the upper layer of polymer cement mortar, and finally the product is formed by the secondary shaping of the shaping piece 73.
[0032] The above examples are only a number of descriptions of the concept and implementation of the present application, and do not limit it. Under the concept of the present application, the technical solutions without substantial changes are still within the protection scope.
Claims
1. A folding mesh and top grouting system for processing rock wool composite panels, comprising a conveying device, wherein the conveying device includes a conveying support, a conveying shaft mounted on the conveying support, and a conveyor belt mounted on the conveying shaft, characterized in that: Lateral limiting plates are adjustablely installed on both sides of the transmission support; one or more sets of bidirectional screen-forming devices are installed on the transmission support, the bidirectional screen-forming device includes a gantry support, a vertical adjustment component installed on the gantry support, a support horizontal plate installed on the vertical adjustment component, a drive mechanism fixedly installed on the support horizontal plate, and two sets of screen-forming rollers installed on the drive mechanism. The two sets of screen-forming rollers rotate relative to each other to press the glass fiber mesh towards the center; a forming device is installed on the lateral limiting plate, the forming device includes a forming support, a connector installed on the forming support, and a forming plate rotatably installed at one end of the connector; a vibratory sizing device is installed on the transmission support, the vibratory sizing device includes an adjustable support, a hopper installed on the adjustable support, a vibrator set in the hopper, and a shaping component set on the transmission support; after the glass fiber mesh is wrapped, it is formed by the forming plate and then top sizing is performed.
2. The folding mesh and top grouting system for processing rock wool composite panels according to claim 1, characterized in that: The bidirectional screen-making device is arranged in two sets in sequence. In one set, each set of screen-making rollers has one screen-making roller shaft; in the other set, each set of screen-making rollers has two screen-making roller shafts.
3. The folding mesh and top grouting system for processing rock wool composite panels according to claim 1 or 2, characterized in that: The supporting horizontal plate is provided with sliders at both ends, and vertical supports are fixedly installed on both sides of the gantry bracket. Slide rails are fixedly installed on the vertical supports, and the sliders are slidably installed on the slide rails.
4. The folding mesh and top grouting system for processing rock wool composite panels according to claim 1, characterized in that: The vertical adjustment component is a worm gear screw jack, a hydraulic cylinder, or an electric push rod.
5. The folding mesh and top grouting system for processing rock wool composite panels according to claim 1 or 4, characterized in that: The roller shaft is made of rubber material.
6. The folding mesh and top grouting system for processing rock wool composite panels according to claim 1, characterized in that: A limiting element is installed on the forming plate, which can limit the angle of the forming plate's swing.
7. The folding mesh and top grouting system for processing rock wool composite panels according to claim 1, 2, 4 or 6, characterized in that: One end of the forming plate is provided with a serrated material distribution section, which is located inside the hopper. A shielding curtain is provided between the hopper and the forming plate.
8. The folding mesh and top grouting system for processing rock wool composite panels according to claim 7, characterized in that: The molded part is provided with molding holes that are adapted to the shape of the product; centering plates are inclinedly arranged on both sides of the molded part, and the two centering plates are arranged in a trumpet shape.
9. The folding mesh and top grouting system for processing rock wool composite panels according to claim 1 or 8, characterized in that: A pressure plate is adjustablely installed on the bottom of the support cross plate, and the pressure plate is located above the overlapping part of the glass fiber mesh.
10. A method of using the folding mesh and top grouting system for processing rock wool composite panels according to any one of claims 1 to 9, characterized in that: The method of use includes the following steps: Step 1: Parameter adjustment. Adjust the interval between the roller shaft and the conveyor belt and the interval between the bottom of the hopper and the top of the rock wool core material according to the thickness of the semi-finished product. Adjust the interval between the two side limiting plates according to the width of the semi-finished product. Step two, grouting operation: After the fiberglass mesh is wrapped and tightened, it is first squeezed by a profile plate and combined with two lateral limiting plates to make the bottom layer of polymer cement mortar smooth and angular. Then, the polymer cement mortar is injected into the hopper by external equipment. After vibration by a vibrator, a uniform mortar is formed, which allows the polymer cement mortar to penetrate between the fiberglass mesh and the rock wool core material. The gap between the bottom of the hopper and the rock wool core material forms the upper layer of polymer cement mortar. Finally, the product is formed by shaping.
Citation Information
Patent Citations
Automatic continuous net wrapping production equipment for rock wool composite board
CN114851681A
Apparatus and process with a vibratory angled plate and / or fixed horizontal plate for forming fiber-reinforced cementitious panels with controlled thickness
US20210189737A1