Indoor building floor laying coiled material and processing device thereof

Abstract

A roll material for laying indoor building floors, comprising: a PVC rubber layer, the surface of which is formed with grid-like protrusions and is provided with a steel wire mesh; an antibacterial layer, which is adhered to the inner side of the PVC rubber layer and is made of chitosan; a flame retardant layer, which is adhered to the inner side of the antibacterial layer and is a fiber braid with a mixture of magnesium hydroxide and aluminum hydroxide attached thereto; a moisture-proof layer, which is adhered to the inner side of the flame retardant layer and is asphalt felt; a polyester fiber layer, which is adhered to the inner side of the moisture-proof layer; a steel wire mesh is hot-pressed in the PVC rubber layer, the antibacterial layer is adhered to the PVC rubber layer by epoxy resin glue, the flame retardant layer is adhered to the antibacterial layer by epoxy resin glue, the moisture-proof layer is adhered to the flame retardant layer by epoxy resin glue, and the polyester fiber layer is adhered to the moisture-proof layer by epoxy resin glue. The antibacterial property of the composite roll material is improved, the moisture resistance of the composite roll material is improved, the strength of the roll material is improved, the preparation of the composite roll material is convenient, the production efficiency of the composite roll material is improved, and the composite roll material has strong practicality.

Description

Technical Field

[0001] The invention relates to the technical field related to building material processing equipment, and in particular to an indoor building floor laying coiled material and a processing device thereof. Background Art

[0002] With the improvement of people's material living standards, the requirements for spatial comfort in daily life are becoming higher and higher, especially for antibacterial performance and sound insulation performance. The requirements for sound insulation environment are mainly reflected in noise reduction. Noise reduction belongs to the category of environmental protection, while the requirements for antibacterial performance are mainly reflected in the isolation of bacteria on walls and floors, reducing bacterial growth, and providing an environment that is not suitable for bacterial growth. Through this environment, the spread and excessive growth of bacteria in the living space can be reduced.

[0003] Existing composite building rolls usually rely on the antibacterial, flame retardant and sound-absorbing properties of polyester fibers to meet the requirements of living spaces, and then the polyester fibers are bonded to the PVC rubber layer. This composite material has low strength, and its antibacterial, flame retardant and sound-absorbing properties have certain limits.

[0004] Conventional composite coils have a simple structure and are made of only two layers for easy processing. However, when the number of layers of the composite coil increases, the existing devices are not convenient for producing the composite coils and have low production efficiency. Summary of the invention

[0005] The present invention provides a composite material for laying indoor building floors and a processing device thereof, so as to solve the above-mentioned deficiencies in the prior art, improve the antibacterial property of the composite material, improve the moisture resistance of the composite material, improve the strength of the composite material, facilitate the preparation of the composite material, improve the production efficiency of the composite material, and have strong practicality.

[0006] In order to achieve the purpose of the present invention, the following technologies are proposed:

[0007] A roll material for laying indoor building floors, comprising:

[0008] PVC rubber layer, with grid-like protrusions on the surface and a steel mesh inside;

[0009] The antibacterial layer is adhered to the inner side of the PVC rubber layer and is made of chitosan;

[0010] The flame retardant layer is adhered to the inner side of the antibacterial layer and is a fiber braid with a mixture of magnesium hydroxide and aluminum hydroxide attached therein;

[0011] The moisture-proof layer is bonded to the inner side of the flame-retardant layer and is asphalt felt;

[0012] A polyester fiber layer, bonded to the inside of the moisture barrier;

[0013] The steel wire mesh is hot-pressed in the PVC rubber layer, the antibacterial layer is bonded to the PVC rubber layer by epoxy resin glue, the flame retardant layer is bonded to the antibacterial layer by epoxy resin glue, the moisture-proof layer is bonded to the flame retardant layer by epoxy resin glue, and the polyester fiber layer is bonded to the moisture-proof layer by epoxy resin glue.

[0014] A coil material processing device for laying indoor building floors, comprising:

[0015] The wire mesh conveying unit comprises a pair of placing components, a coiling component is provided at the upper end of the placing component, the placing component is used to support the two ends of the coiling component, and the coiling component is used to place the wire mesh coil;

[0016] The rubber layer forming unit comprises a pair of support assemblies arranged at one end of the placement assembly, a conveying assembly is arranged between the support assemblies, an upper limit assembly is arranged at one end of the support assemblies, a compacting assembly is arranged at the other end of the support assemblies, a hot melt assembly is arranged between the upper limit assembly and the compacting assembly, a scraping assembly is arranged between the hot melt assembly and the compacting assembly, the hot melt assembly and the scraping assembly are both arranged on the support assembly, the upper limit assembly is used for upper side limit during steel mesh conveying, the compacting assembly is used for compacting the PVC rubber layer, the hot melt assembly is used for storing and conveying molten PVC rubber, the scraping assembly is used for scraping the surface of the PVC rubber layer, and the conveying assembly is used for conveying the PVC rubber layer during forming;

[0017] The embossing and cooling unit includes a water cooling assembly located at the other end of the supporting assembly, an embossing assembly is arranged inside the water cooling assembly, the water cooling assembly is used for cooling the PVC rubber layer, the embossing assembly is used for forming grid-like protrusions on the surface of the PVC rubber layer, and conveying the PVC rubber layer during embossing;

[0018] The rolling unit comprises a pair of upper support components located at one end of the water-cooling component, the upper end of the upper support component is provided with a guide component, one end of one of the upper support components is provided with a conveying component, and a steering component is provided directly above the conveying component. The guide component extends upward and is provided with an antibacterial material placement component, a first epoxy resin glue placement component, an antibacterial layer lamination component, a second epoxy resin glue placement component, a flame retardant layer placement component, a flame retardant layer lamination component, a third epoxy resin glue placement component, a moisture-proof layer placement component, a moisture-proof layer lamination component, a fourth epoxy resin glue placement component, a polyester fiber layer placement component and a polyester fiber layer lamination component in sequence. The antibacterial material placement component, the first epoxy resin glue placement component, the second epoxy resin glue placement component, the third epoxy resin glue placement component and the fourth epoxy resin glue placement component have the same structure, the antibacterial layer lamination component, the flame retardant layer lamination component, the moisture-proof layer lamination component and the polyester fiber layer lamination component have the same structure, the flame retardant layer placement component, the moisture-proof layer placement component and the polyester fiber layer placement component have the same structure, and a rolling component is provided at one end of the upper support component.

[0019] Further, the placement assembly includes a bottom plate, a vertical plate extending upward from the bottom plate, an arc plate at the upper end of the vertical plate, a concave groove formed in the arc plate, three rollers evenly distributed in the concave groove, a limited convex ring formed on the outer wall of the roller, a mounting plate at one side of the vertical plate, an extension plate extending outward from the mounting plate, and the other end of the extension plate is mounted on the support assembly;

[0020] The roll-setting assembly includes a pair of rotating heads arranged between the rollers, the arc walls of the rotating heads are formed with limiting grooves, the limiting convex rings are clamped in the limiting grooves and are tangent to the bottom of the limiting grooves, a roll-making rod is provided between the rotating heads, and the outer side of the roll-setting rod is covered with an inflatable film roll. When the inflatable film roll is inflated, the wire mesh roll is fixed.

[0021] Furthermore, the support assembly includes two rows of support plates in an equally spaced array, a base plate is installed at the lower end of the support plates, a cross-shaped reinforcement plate is installed between each pair of support plates, a side plate is installed at the upper end of the support plates on the same side, assembly plates are provided at both ends of the side plates, and an external reinforcement plate is installed on the outer side of the support plates on the same side.

[0022] Furthermore, the conveying components include bearing seats installed on the outside of the assembly plate, bearings are arranged in the bearing seats, each pair of bearing inner rings is provided with a rotating shaft, one end of the rotating shaft is connected to a conveying motor, each rotating shaft is provided with an inner rotating circle, the inner rotating circles are provided with arc plates in a circular array, the arc plates are provided with outer rotating circles, both ends of the outer rotating circle are provided with guard rings, the outer rotating circle is wrapped with a conveyor belt, guard plates are provided on both sides of the conveyor belt, the guard plates are located between the guard rings, and the conveyor belt is made of heat-resistant soft material.

[0023] Further, the upper limit assembly includes a pair of upper extension plates both extending upward and mounted on the assembly plate, a rotating plate is provided at the upper end of the upper extension plate, the rotating plate is provided with an upper limit rotating rod, the upper limit rotating rod is provided with an upper limit inner ring, the upper limit inner ring is located between the rotating plates, the outer wall of the upper limit inner ring is provided with an upper limit support plate in a circumferential array, and the other end of the upper limit support plate is provided with an upper limit outer ring;

[0024] The compaction assembly includes a pair of upper support plates extending upward and installed on another pair of assembly plates. The upper ends of the upper support plates are provided with assembly plates, the assembly plates are provided with compaction rods, the compaction rods are provided with compaction rotating circles, the outer walls of the compaction rotating circles are provided with compaction support plates in a circular array, and the other end of the compaction support plates is provided with a compaction ring, which is located between the assembly plates.

[0025] Furthermore, the hot melt assembly includes two pairs of mounting feet both mounted on the external reinforcement plate, the mounting feet on the same side are provided with concave support plates extending upward, the middle position of the upper end of the concave support plates is provided with hot melt support plates extending upward, the upper ends of the hot melt support plates are provided with assembly frames, two pairs of extension mounting plates are installed in the assembly frames, the other end of the extension mounting plates is provided with a fixing ring, and the fixing ring is provided with a molten rubber delivery assembly;

[0026] The molten rubber delivery assembly includes a placement barrel installed in a fixed ring, a funnel-shaped discharge piece is provided at the lower end of the placement barrel, the lower end of the funnel-shaped discharge piece is connected with a lower extension pipe, the lower end of the lower extension pipe is connected with a conveying pipe, the lower end of the conveying pipe is connected with a distribution pipe fixed thereto, the distribution pipe extends downward and is connected with distribution branch pipes in an evenly spaced array, the conveying pipe is provided with a valve, and the distribution branch pipe is located directly above the conveyor belt.

[0027] Furthermore, the scraping assembly includes two pairs of assembly plates distributed on both sides of the conveyor belt, the assembly plates at the lower ends are installed on the external reinforcement plates, a number of guide rods are provided between the assembly plates on the same side, screw rods are provided between the assembly plates on the same side, lifting motors are connected to the upper ends of the screw rods, lifting plates are rotated on the screw rods, lifting connecting plates are provided between the lifting plates, scrapers are provided on the lifting connecting plates extending downward, the scrapers are inclined on the lifting connecting plates, and the lower ends of the scrapers are inclined toward the compacting assembly.

[0028] Further, the water cooling assembly includes a water tank, the water tank is connected to a water outlet pipe, the other end of the water outlet pipe is connected to a supercharger, the supercharger is connected to a supercharger motor, the supercharger is connected to two water pipes extending upward, the other ends of the water pipes are connected to water spray pipes, the water spray pipes are located in the water tank, and conveying parts are installed on both sides of the water tank extending outward, and a conveying cavity is formed in the conveying part;

[0029] The embossing component includes two pairs of rotating assembly seats installed on both side walls of the water tank, an assembly seat connecting plate is provided between the rotating assembly seats on the same side, and the assembly seat connecting plates are installed on the side walls of the water tank, an embossing rod is provided between the rotating assembly seats at the upper end, one end of the embossing rod is connected to the embossing motor, a conveying rotating rod is provided between the rotating assembly seats at the lower end, one end of the conveying rotating rod is connected to the conveying driving motor, the embossing rod is provided with an embossing roller, the embossing roller is formed with a forming groove in a circular array, and the conveying rotating rod is provided with a conveying roller.

[0030] Furthermore, the upper support assembly includes two pairs of upper extension support plates, each pair of upper extension support plates is provided with a middle connecting plate in an array with equal intervals, and each pair of upper extension support plates is provided with an upper connecting plate at the upper end;

[0031] The guide assembly includes a conveying plate installed on the upper connecting plate, and protective plates are provided on both sides of the conveying plate;

[0032] The conveying assembly includes a pair of front extension plates installed on the inner wall of one pair of upper extension support plates, the other end of each front extension plate is provided with a front extension assembly plate, a conveying shaft rod is provided between the front extension assembly plates, and the conveying shaft rod is provided with a front conveying roller;

[0033] The steering assembly comprises a pair of forward extension plates installed on the inner wall of one pair of upper extension support plates, the other end of each forward extension plate is provided with a forward extension assembly plate, a steering rod is provided between the forward extension assembly plates, the steering rod is provided with a steering roller, the steering roller is provided between the forward extension assembly plates, and the steering roller is located directly above the front conveyor roller;

[0034] The antibacterial material placement assembly A comprises a pair of side mounting plates installed on both sides of the protective plate, the upper ends of the side mounting plates are both provided with inner extension plates extending inward, the other ends of the inner extension plates are both provided with inner safety plates, an upper extension frame is provided between the inner safety plates, a contraction frame is provided downwardly extending from the upper extension frame, a lower discharge frame is provided at the lower end of the contraction frame, the lower discharge frame is located directly above the conveying plate, a scraping and safety plate is installed on one side of the upper extension frame, the scraping and safety plate is provided with an L-shaped scraper, and the lower end of the L-shaped scraper is a wedge-shaped structure;

[0035] The antibacterial layer laminating assembly A comprises a pair of upper extending rotating seats mounted on the protective plate, a laminating rod is arranged between the upper extending rotating seats, one end of the laminating rod is connected to a laminating motor, and the laminating rod is provided with a laminating roller;

[0036] The flame retardant layer placement assembly A comprises a pair of upper support plates extending upward and mounted on the protective plate, the upper ends of the upper support plates are formed with U-shaped grooves, the U-shaped grooves are provided with assembly rods, the outer ends of the assembly rods are provided with outer plates, the inner ends of the assembly rods are provided with inner plates, and mounting rods are provided between the inner plates;

[0037] The rolling assembly includes rear extension plates installed in pairs on the upper extension support plates, the other ends of the rear extension plates are vertically upwardly provided with upper extension arms, the upper ends of the upper extension arms are formed with U-shaped placement grooves, placement rods are provided in the U-shaped placement grooves, the outer ends of the placement rods are provided with outer turntables, the inner ends of the placement rods are provided with inner limit plates, rolling rods are provided between the inner limit plates, the outer turntable located at one end is formed with a notch, a number of fixed screw rods are installed on the upper ends of the upper extension arms, a rolling motor is installed on the other end of the fixed screw rods, the output shaft of the rolling motor is provided with a rotating plate, and the rotating plate is inserted in the notch.

[0038] The advantages of the above technical solution are:

[0039] 1. During the construction of the composite coil, the coil needs to be placed on a prefabricated wall or ground, and then a cement layer is prepared on the surface of the composite coil. In order to improve the connection effect between the cement layer and the coil, a corresponding grid-like protrusion is set on the surface of the PVC rubber layer. At the same time, in order to improve the strength of the PVC rubber layer, the PVC rubber layer is hot-melted to the wire mesh. At the same time, the presence of the wire mesh also facilitates the connection and fixation between two adjacent composite coils. PVC rubber is a non-crystalline material. Stabilizers, lubricants, auxiliary processing agents, colorants, impact agents and other additives are added to PVC rubber. It is not easy to burn, high strength, climate change resistance and excellent geometric stability. PVC rubber has strong resistance to oxidants, reducing agents and strong acids. Due to the existence of the above characteristics, the PVC rubber layer is used on the surface, which can improve the impact resistance of the coil, reduce flammability, and increase the service life of the coil, and the wire mesh is set therein to enhance the strength of the PVC rubber layer. The antibacterial layer adhered to the PVC rubber layer can improve the antibacterial property of the entire composite coil, and the antibacterial material is composed of flaky chitosan. The flame retardant layer adhered to the antibacterial layer can improve the flame retardancy of the composite coil, and in order to improve the flame retardancy of the composite coil, a fiber braided fabric of a mixture of magnesium hydroxide and aluminum hydroxide that does not burn and does not produce toxic gas at high temperatures is selected to improve the flame retardancy of the composite coil. The moisture-proof layer adhered to the flame retardant layer can prevent the circulation of water vapor, and the moisture-proof layer is composed of asphalt felt with good water-insulating properties. The polyester fiber layer adhered to the moisture-proof layer further utilizes its characteristics to improve the flame retardancy, antibacterial property, and sound absorption of the composite coil.

[0040] 2. The preparation device of the composite coiled material consists of a wire mesh conveying unit, a rubber layer forming unit, an embossing and cooling unit, and a rolling unit, wherein the wire mesh conveying unit conveys the wire mesh to the rubber layer forming unit, the rubber layer forming unit presses the hot-melt PVC rubber layer onto the wire mesh, and then the embossing and cooling unit completes the pressing of the grid-shaped protrusions and cooling of the PVC rubber layer, and then the antibacterial layer, the flame retardant layer, the moisture-proof layer and the polyester fiber layer are adhered to the PVC rubber layer through the rolling unit, wherein the roll-placing component is used to place the wire mesh roll, the upper limit component is used for the upper side limit when the wire mesh is conveyed, the compacting component is used for compacting the PVC rubber layer, the hot melt component is used to store and convey the molten PVC rubber, the leveling component is used for leveling the surface of the PVC rubber layer, and the conveying component is used for conveying the PVC rubber layer during forming. The water cooling component is used for cooling the PVC rubber layer, the embossing component is used for forming the grid-like protrusions on the surface of the PVC rubber layer, and for conveying the PVC rubber layer during embossing. The transmission component and the steering component cooperate with each other to convey the PVC rubber layer and flip the PVC rubber layer upwards, and the rolling component makes the strip coiled material be wound into a roll. Before rolling, the antibacterial layer, flame retardant layer, moisture-proof layer and polyester fiber layer are prepared on the PVC rubber layer in sequence through the antibacterial material placement component, the first epoxy resin glue placement component, the antibacterial layer lamination component, the second epoxy resin glue placement component, the flame retardant layer placement component, the flame retardant layer lamination component, the third epoxy resin glue placement component, the moisture-proof layer placement component, the moisture-proof layer lamination component, the fourth epoxy resin glue placement component, the polyester fiber layer placement component and the polyester fiber layer lamination component.

[0041] 3. A wire mesh conveying unit, which is used to place a wire mesh roll, wherein the placing component is used to support and fix the roll-up component, and the roll-up component is used to place the wire mesh roll, wherein in order to facilitate the conveying of the wire mesh roll, a corresponding concave groove is provided on the arc plate, and rollers are evenly distributed in the concave groove, and the limiting convex ring provided on the roller is used to limit the position of the roll-up component, and the roller facilitates the rotation of the wire mesh roll during conveying, and the rotating head of the roll-up component is provided on the roller, and the limiting convex ring is fitted in the limiting groove in the rotating head, and the inflatable film roll provided on the roll-up rod is used to fix the wire mesh roll, thereby preventing the wire mesh roll from moving relative to the roll-up rod during conveying, thereby improving the stability of the wire mesh roll conveying.

[0042] 4. The rubber layer forming unit can pour the PVC rubber layer on the steel wire mesh, wherein the conveyor belt on the conveying assembly can facilitate the conveying of the steel wire mesh. During the conveying, the two conveying motors are started, and the outer rotating circle rotates under the drive of the conveying motor, and the rotation of the outer rotating circle will drive the rotation of the conveyor belt, thereby driving the steel wire mesh to be conveyed forward, and the guard plates arranged on both sides of the conveyor belt facilitate the forming of the PVC rubber layer, and the guard rings arranged at both ends of the outer rotating circle are used to limit the position of the conveyor belt, and the upper limit ring of the upper limit assembly limits the conveying upper end of the steel wire mesh, and the compacting ring in the compacting assembly compacts the PVC rubber layer, and in the preparation process, the hot-melted PVC rubber is conveyed from the barrel through the conveying The hot melt rubber delivered to the conveyor belt is flattened by the scraper assembly to flatten the PVC rubber layer, so that the PVC rubber layer forms a flat panel. Then, the PVC rubber layer is compacted by the compacting ring. During the flattening, the scraper assembly can be adjusted according to the specific thickness of the PVC rubber layer. During the adjustment, the lifting motor is started. Driven by the lifting motor, the lifting plate performs a lifting movement, and the lifting movement of the lifting plate will drive the lifting movement of the lifting connecting plate, and the lifting movement of the lifting connecting plate will drive the lifting movement of the scraper. In order to improve the scraping effect of the scraper, the scraper is set to an inclined state.

[0043] 5. The embossing and cooling unit can form grid-like protrusions on the surface of the PVC rubber layer. Then, the supercharger in the water-cooling assembly, driven by the supercharger motor, transports the cooling water to the water spray pipe through the water pipe in a high-pressure and high-speed manner. Then the water spray pipe sprays the cooling water onto the PVC rubber layer. The conveying cavity of the conveying member arranged on the water tank facilitates the conveying of the PVC rubber layer. Driven by the embossing motor and the conveying drive motor, the embossing roller and the conveying roller convey forward. When the PVC rubber layer is conveyed, the forming groove on the embossing roller forms a grid-like protrusion on the surface of the PVC rubber layer.

[0044] 6. The embossed PVC rubber layer is conveyed forward through the conveying plate, and the PVC rubber layer is conveyed forward through the front conveying roller and the steering roller. At the same time, the PVC rubber layer is turned over so that the grid-shaped protrusions face downward and the flat side faces upward, and is conveyed along the conveying plate. During the conveying process, epoxy resin glue is first placed from the first epoxy resin glue placement component to the PVC rubber layer, and then chitosan is placed from the antibacterial material placement component, and the antibacterial layer pressing component presses it, and then it passes through the second epoxy resin glue placement component, the flame retardant layer placement component, the flame retardant layer pressing component, the third epoxy resin glue placement component, the moisture-proof layer placement component, and the antibacterial layer. The moisture layer laminating assembly, the fourth epoxy resin glue placement assembly, the polyester fiber layer placement assembly and the polyester fiber layer laminating assembly, the antibacterial material placement assembly, the first epoxy resin glue placement assembly, the second epoxy resin glue placement assembly, the third epoxy resin glue placement assembly and the fourth epoxy resin glue placement assembly press the flame retardant layer, the moisture-proof layer and the polyester fiber layer on the PVC rubber layer in sequence, and then the pressed end is wrapped around the rolling rod, and the rotating plate is inserted into the notch at the same time, so that the rolling motor drives the rolling rod to rotate, and finally a composite coil is formed. After completion, the rolled rolling rod is removed from the upper end of the upper extension arm, and the composite coil is removed from the rolling rod, and then the next rolling operation is carried out.

[0045] 7. The present invention improves the antibacterial property of the composite coiled material, improves the moisture resistance of the composite coiled material, improves the strength of the coiled material, facilitates the preparation of the composite coiled material, improves the production efficiency of the composite coiled material, and has strong practicality. BRIEF DESCRIPTION OF THE DRAWINGS

[0046] Figure 1 Shows the three-dimensional structure of one of the indoor building floor laying coils Figure 1 .

[0047] Figure 2 Shows the three-dimensional structure of one of the indoor building floor laying coils Figure 2 .

[0048] Figure 3 The three-dimensional structure of a roll material processing device for indoor building floor laying is shown. Figure 1 .

[0049] Figure 4 The three-dimensional structure of a roll material processing device for indoor building floor laying is shown. Figure 2 .

[0050] Figure 5 Shows the three-dimensional structure of the wire mesh conveying unit Figure 1 .

[0051] Figure 6 Shows the three-dimensional structure of the wire mesh conveying unit Figure 2 .

[0052] Figure 7 Shows the three-dimensional structure of the rubber layer forming unit Figure 1 .

[0053] Figure 8 Shows the three-dimensional structure of the rubber layer forming unit Figure 2 .

[0054] Fig. 9 Shows the embossing and cooling unit three-dimensional structure Figure 1 .

[0055] Fig.10 Shows the embossing and cooling unit three-dimensional structure Figure 2 .

[0056] Fig.11 Shows the three-dimensional structure of the roll unit Figure 1 .

[0057] Fig.12 Shows the three-dimensional structure of the roll unit Figure 2 .

[0058] Fig.13 Shows the three-dimensional structure of the roll unit Figure 3 .

[0059] Fig.14 A local enlarged view of point A is shown. DETAILED DESCRIPTION

[0060] In order to make the purpose, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Generally, the components of the embodiments of the present invention described and shown in the drawings here can be arranged and designed in various different configurations.

[0061] Therefore, the following detailed description of the embodiments of the present invention provided in the accompanying drawings is not intended to limit the scope of the invention claimed for protection, but merely represents selected embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0062] It should be noted that similar reference numerals and letters denote similar items in the following drawings, and therefore, once an item is defined in one drawing, further definition and explanation thereof is not required in subsequent drawings.

[0063] In the description of the present invention, it should be noted that the terms "center", "up", "down", "left", "right", "vertical", "horizontal", "inside", "outside", etc. indicate directions or positional relationships based on the directions or positional relationships shown in the accompanying drawings, or are the directions or positional relationships in which the inventive product is usually placed when in use. They are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific direction, be constructed and operated in a specific direction, and therefore should not be understood as a limitation on the present invention.

[0064] The terms “first”, “second”, etc. are only used for distinguishing descriptions and should not be understood as indicating or implying relative importance.

[0065] The terms "parallel", "vertical", etc. do not mean that the components must be absolutely parallel or vertical, but can be slightly tilted. For example, "parallel" only means that its direction is more parallel than "vertical", and does not mean that the structure must be completely parallel, but can be slightly tilted.

[0066] In addition, the terms "roughly" and "basically" are intended to explain that the relevant content does not require absolute accuracy, but can have certain deviations. For example, "roughly equal to" does not only mean absolute equality. Since it is difficult to achieve absolute "equality" in actual production and operation, there are generally certain deviations. Therefore, in addition to absolute equality, "roughly equal to" also includes the above-mentioned situation with certain deviations. Taking this as an example, in other cases, unless otherwise specified, the terms "roughly" and "basically" have similar meanings to the above.

[0067] In the description of the present invention, it is also necessary to explain that, unless otherwise clearly specified and limited, the terms "set", "install", "connect", and "connect" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a direct connection, or an indirect connection through an intermediate medium, or it can be the internal communication of two elements. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0068] like Figure 1-Figure 14 As shown, a roll material for laying indoor building floors comprises:

[0069] The PVC rubber layer 10 has a grid-like protrusion 100 formed on the surface, and a steel wire mesh 101 is arranged inside. The antibacterial layer 11 is adhered to the inner side of the PVC rubber layer 10 and is made of chitosan. The flame retardant layer 12 is adhered to the inner side of the antibacterial layer 11 and is a fiber braid with a mixture of magnesium hydroxide and aluminum hydroxide attached thereto. The moisture-proof layer 13 is adhered to the inner side of the flame retardant layer 12 and is asphalt felt. The polyester fiber layer 14 is adhered to the inner side of the moisture-proof layer 13. The steel wire mesh 101 is hot-pressed and formed in the PVC rubber layer 10, the antibacterial layer 11 is adhered to the PVC rubber layer 10 by epoxy resin glue, the flame retardant layer 12 is adhered to the antibacterial layer 11 by epoxy resin glue, the moisture-proof layer 13 is adhered to the flame retardant layer 12 by epoxy resin glue, and the polyester fiber layer 14 is adhered to the moisture-proof layer 13 by epoxy resin glue.

[0070] During the construction of the composite coil, the coil needs to be placed on a prefabricated wall or ground, and then a cement layer is prepared on the surface of the composite coil. In order to improve the connection effect between the cement layer and the coil, a corresponding grid-shaped protrusion 100 is set on the surface of the PVC rubber layer 10. At the same time, in order to improve the strength of the PVC rubber layer 10, the PVC rubber layer 10 is hot-melted to the steel mesh 101. At the same time, the existence of the steel mesh 101 also facilitates the connection and fixation between two adjacent composite coils. PVC rubber is a non-crystalline material. Stabilizers, lubricants, auxiliary processing agents, colorants, impact agents and other additives are added to the PVC rubber. It is not easy to burn, has high strength, is resistant to climate change and has excellent geometric stability. PVC rubber has strong resistance to oxidants, reducing agents and strong acids. Due to the existence of the above characteristics, the PVC rubber layer is used on the surface, which can improve the impact resistance of the coil, reduce flammability, and increase the service life of the coil, and the steel mesh 101 is set therein to enhance the strength of the PVC rubber layer. The antibacterial layer 11 adhered to the PVC rubber layer 10 can improve the antibacterial property of the entire composite coil, and the antibacterial material is composed of flaky chitosan. The flame retardant layer 12 adhered to the antibacterial layer 11 can improve the flame retardancy of the composite coil, and in order to improve the flame retardancy of the composite coil, a fiber braided fabric of a mixture of magnesium hydroxide and aluminum hydroxide that does not burn and does not produce toxic gas at high temperatures is selected, and the flame retardancy of the composite coil is improved by the fiber braided fabric of the mixture of magnesium hydroxide and aluminum hydroxide. The moisture-proof layer 13 adhered to the flame retardant layer 12 can prevent the circulation of water vapor, and the moisture-proof layer 13 is composed of asphalt felt with good water-insulating properties. The polyester fiber layer adhered to the moisture-proof layer 13 further utilizes its characteristics to improve the flame retardancy, antibacterial property, and sound absorption of the composite coil.

[0071] A coil material processing device for laying indoor building floors includes: a wire mesh conveying unit 2, including a pair of placement components 20, a coiling component 21 is provided at the upper end of the placement component 20, the placement component 20 is used to support the two ends of the coiling component 21, and the coiling component 21 is used to place the wire mesh roll. The rubber layer forming unit 3 includes a pair of support assemblies 30 arranged at one end of the placement assembly 20, a conveying assembly 31 is arranged between the support assemblies 30, an upper limit assembly 32 is arranged at one end of the support assembly 30, a compacting assembly 33 is arranged at the other end of the support assembly 30, a hot melt assembly 34 is arranged between the upper limit assembly 32 and the compacting assembly 33, a scraping assembly 35 is arranged between the hot melt assembly 34 and the compacting assembly 33, and the hot melt assembly 34 and the scraping assembly 35 are both arranged on the support assembly 30, the upper limit assembly 32 is used for upper side limiting during wire mesh conveying, the compacting assembly 33 is used for compacting the PVC rubber layer 10, the hot melt assembly 34 is used for storing and conveying molten PVC rubber, the scraping assembly 35 is used for scraping the surface of the PVC rubber layer 10, and the conveying assembly 31 is used for conveying the PVC rubber layer 10 during forming. The embossing and cooling unit 4 includes a water cooling component 40 located at the other end of the support component 30. The water cooling component 40 is provided with an embossing component 41. The water cooling component 40 is used to cool the PVC rubber layer 10. The embossing component 41 is used to form the grid-like protrusions 100 on the surface of the PVC rubber layer 10 and to transport the PVC rubber layer 10 during embossing. The rolling unit 5 includes a pair of upper support components 50 located at one end of the water cooling component 40. The upper end of the upper support component 50 is provided with a guide component 51. One end of one of the upper support components 50 is provided with a conveying component 52. A steering component 53 is provided directly above the conveying component 52. The guide component 51 extends upward and is provided with an antibacterial material placement component 54A, a first epoxy resin glue placement component 54B, an antibacterial layer laminating component 55A, a second epoxy resin glue placement component 54C, a flame retardant layer placement component 56A, a flame retardant layer laminating component 55B, a third epoxy resin glue placement component 54D, a moisture-proof layer placement component 56B, a moisture-proof layer laminating component 55C, and a third epoxy resin glue placement component 54D. 5C, the fourth epoxy resin glue placement component, the polyester fiber layer placement component and the polyester fiber layer lamination component, the antibacterial material placement component 54A, the first epoxy resin glue placement component 54B, the second epoxy resin glue placement component 54C, the third epoxy resin glue placement component 54D, and the fourth epoxy resin glue placement component have the same structure, the antibacterial layer lamination component 55A, the flame retardant layer lamination component 55B, the moisture-proof layer lamination component 55C, and the polyester fiber layer lamination component have the same structure, the flame retardant layer placement component 56A, the moisture-proof layer placement component 56B, and the polyester fiber layer placement component have the same structure, and one end of the upper support component 50 is provided with a rolling component 57.

[0072] The preparation device of the composite coil material consists of a wire mesh conveying unit 2, a rubber layer forming unit 3, an embossing and cooling unit 4, and a rolling unit 5, wherein the wire mesh conveying unit 2 conveys a wire mesh 101 to the rubber layer forming unit 3, the rubber layer forming unit 3 presses the hot-melt PVC rubber layer 10 on the wire mesh 101, and then completes the pressing of the grid-shaped protrusions 100 and cooling of the PVC rubber layer 10 through the embossing and cooling unit 4, and then adheres the antibacterial layer 11, the flame retardant layer 12, the moisture-proof layer 13 and the polyester fiber layer 14 to the PVC rubber layer 10 through the rolling unit 5, wherein the roll placement component 21 is used to place the wire mesh roll, the upper limit component 32 is used for the upper side limit during the conveyance of the wire mesh, the compaction component 33 is used for the compaction of the PVC rubber layer 10, the hot melt component 34 is used to store and convey the molten PVC rubber, the leveling component 35 is used for leveling the surface of the PVC rubber layer 10, the conveying component 31 is used for conveying the PVC rubber layer 10 during forming, and the water cooling component 40 is used for cooling the PVC rubber layer 10, the embossing component 41 is used for forming the grid-like protrusions 100 on the surface of the PVC rubber layer 10, and for conveying the PVC rubber layer 10 during embossing, the conveying component 52 and the steering component 53 cooperate with each other for conveying the PVC rubber layer 10 and flipping the PVC rubber layer 10 upwards, and the rolling component 57 is used to wind the strip-shaped coil into a roll, and before rolling, the antibacterial layer 11, the flame retardant layer 12, the moisture-proof layer 13, and the polyester fiber layer 14 are prepared on the PVC rubber layer 10 in sequence through the antibacterial material placement component 54A, the first epoxy resin glue placement component 54B, the antibacterial layer lamination component 55A, the second epoxy resin glue placement component 54C, the flame retardant layer placement component 56A, the flame retardant layer lamination component 55B, the third epoxy resin glue placement component 54D, the moisture-proof layer placement component 56B, the moisture-proof layer lamination component 55C, the fourth epoxy resin glue placement component, the polyester fiber layer placement component and the polyester fiber layer lamination component.

[0073] The placement assembly 20 includes a bottom plate 203, and a vertical plate 202 is provided on the bottom plate 203 extending upward. An arc plate 204 is provided on the upper end of the vertical plate 202. A concave groove 205 is formed in the arc plate 204. Three rollers 206 are evenly distributed in the concave groove 205. The outer wall of the roller 206 is formed with a limiting convex ring 207. A mounting plate 201 is provided on one side of the vertical plate 202. An extension plate 200 is provided on the mounting plate 201 extending outward. The other end of the extension plate 200 is mounted on the support assembly 30. The roll assembly 21 includes a pair of rotating heads 210 arranged between the rollers 206. The arc walls of the rotating heads 210 are all formed with limiting grooves 211. The limiting convex rings 207 are all clamped in the limiting grooves 211 and tangent to the bottom of the limiting grooves 211. A roll-making rod is provided between the rotating heads 210. The outer side of the roll-making rod is covered with an inflatable film roll. When the inflatable film roll is inflated, the wire mesh roll is fixed.

[0074] The wire mesh conveying unit 2 is used to place the wire mesh 101 roll, wherein the placing component 20 is used to support and fix the roll component 21, and the roll component 21 is used to place the wire mesh 101 roll. In order to facilitate the transportation of the wire mesh 101 roll, a corresponding concave groove 205 is set on the arc plate 204, and rollers 206 are evenly distributed in the concave groove 205. The limiting convex ring 207 set on the roller 206 is used to limit the position of the roll component 21, and the roller 206 facilitates the rotation of the wire mesh 101 roll during transportation. The rotating head 210 of the roll component 21 is set on the roller 206, and the limiting convex ring 207 is matched in the limiting groove 211 in the rotating head 210, and the inflatable film roll set on the roll rod is used to fix the wire mesh 101 roll, so as to prevent the wire mesh 101 roll from moving relative to the roll rod during transportation, thereby improving the stability of the wire mesh 101 roll transportation.

[0075] The support assembly 30 includes two rows of support plates 300 in an equally spaced array, a base plate 301 is installed at the lower end of the support plates 300, a cross-shaped reinforcement plate 302 is installed between each pair of support plates 300, a side plate 303 is installed at the upper end of the support plates 300 on the same side, and assembly plates 304 are provided at both ends of the side plates 303, and an external reinforcement plate 305 is installed on the outer side of the support plates 300 on the same side. The conveying assembly 31 includes bearing seats 310 installed on the outside of the assembly plate 304, bearings 311 are arranged in the bearing seats 310, and the inner rings of each pair of bearings 311 are provided with a rotating shaft 312, and one end of the rotating shaft 312 is connected to a conveying motor 318, and each rotating shaft 312 is provided with an inner rotating circle, and the inner rotating circles are provided with arc plates 313 in a circular array, and the arc plates 313 are provided with outer rotating circles 314, and both ends of the outer rotating circles 314 are provided with guard rings 315, and the outer rotating circle 314 is wrapped with a conveyor belt 316, and guard plates 317 are provided on both sides of the conveyor belt 316, and the guard plates 317 are located between the guard rings 315, and the conveyor belt 316 is made of heat-resistant soft material. The upper limit assembly 32 includes a pair of upper extension plates 320 that are both extended upward and mounted on the assembly plate 304. The upper extension plates 320 are provided with a rotating plate 321 at the upper end. The rotating plate 321 is provided with an upper limit rotating rod 322. The upper limit rotating rod 322 is provided with an upper limit inner ring 323. The upper limit inner ring 323 is located between the rotating plates 321. The upper limit inner ring 323 is provided with an upper limit supporting plate 324 on the outer wall in a circumferential array. The upper limit supporting plate 324 is provided with an upper limit outer ring 325 at the other end. The compacting assembly 33 includes a pair of upper support plates 330 that are extended upward and mounted on another pair of assembly plates 304. The upper support plates 330 are both provided with an assembly plate 331 at the upper end. The assembly plate 331 is provided with a compacting rod 332. The compacting rod 332 is provided with a compacting rotating circle 333. The outer wall of the compacting rotating circle 333 is provided with a compacting supporting plate 334 on the outer wall in a circumferential array. The compacting supporting plate 334 is provided with a compacting circle 335 at the other end. The compacting circle 335 is located between the assembly plates 331. The hot melt assembly 34 includes two pairs of mounting feet 340 both mounted on the external reinforcement plate 305. The mounting feet 340 on the same side are provided with a concave support plate 341 extending upward. A hot melt support plate 342 is extended upward at the middle position of the upper end of the concave support plate 341. An assembly frame 343 is installed on the upper end of the hot melt support plate 342. Two pairs of extended mounting plates 344 are installed in the assembly frame 343. A fixing ring 345 is provided at the other end of the extended mounting plate 344. A molten rubber delivery assembly 346 is provided in the fixing ring 345. The molten rubber delivery assembly 346 includes a placement barrel 3460 installed in a fixed ring 345, and a funnel-shaped discharge piece 3461 is provided at the lower end of the placement barrel 3460. The lower end of the funnel-shaped discharge piece 3461 is connected to a down-extension pipe 3462, and the lower end of the down-extension pipe 3462 is connected to a delivery pipe 3463. The lower end of the delivery pipe 3463 is connected to a distribution pipe 3465 fixedly connected thereto. The distribution pipe 3465 extends downward and is connected to distribution branch pipes 3466 in an evenly spaced array. The delivery pipe 3463 is provided with a valve 3464, and the distribution branch pipe 3466 is located directly above the conveyor belt 316.The scraping assembly 35 includes two pairs of assembly plates 350 distributed on both sides of the conveyor belt 316. The assembly plates 350 at the lower end are installed on the external reinforcement plate 305. A number of guide rods 351 are provided between the assembly plates 350 on the same side. Screw rods 352 are provided between the assembly plates 350 on the same side. The upper ends of the screw rods 352 are connected to lifting motors 354. The screw rods 352 are rotated with lifting plates 353. Lifting connecting plates 355 are provided between the lifting plates 353. Scrapers 356 are provided on the lifting connecting plates 355 extending downward. The scrapers 356 are inclined on the lifting connecting plates 355, and the lower ends of the scrapers 356 are inclined toward the compacting assembly 33.

[0076] The rubber layer forming unit 3 can pour the PVC rubber layer 10 on the steel mesh 101, wherein the conveyor belt 316 on the conveying assembly 31 can facilitate the conveying of the steel mesh 101. During the conveying, the two conveying motors 318 are started, and the outer rotating circle 314 rotates under the drive of the conveying motor 318, and the rotation of the outer rotating circle 314 will drive the rotation of the conveyor belt 316, thereby driving the steel mesh 101 to be conveyed forward, and the guard plates 317 arranged on both sides of the conveyor belt 316 facilitate the forming of the PVC rubber layer 10, and the guard rings 315 arranged at both ends of the outer rotating circle 314 are used to limit the position of the conveyor belt 316, and the upper limit ring 325 of the upper limit assembly 32 limits the conveying upper end of the steel mesh 101, and the compaction ring 335 in the compaction assembly 33 compacts the PVC rubber layer 10, and in the preparation process, the hot-melted PVC rubber is placed in the barrel 3460. The hot melt rubber delivered to the conveyor belt 316 is flattened by the flattening assembly 35, so that the PVC rubber layer 10 forms a flat panel. Then, the PVC rubber layer 10 is compacted by the compacting ring 335. During the flattening, the flattening assembly 35 can be adjusted according to the specific thickness of the PVC rubber layer. During the adjustment, the lifting motor 354 is started. Driven by the lifting motor 354, the lifting plate 353 performs a lifting movement. The lifting movement of the lifting plate 353 will drive the lifting movement of the lifting connecting plate 355, and the lifting movement of the lifting connecting plate 355 will drive the lifting movement of the scraper 356. In order to improve the flattening effect of the scraper 356, the scraper 356 is set to an inclined state.

[0077] The water cooling assembly 40 includes a water tank 400, which is connected to a water outlet pipe 401. The other end of the water outlet pipe 401 is connected to a supercharger 402. The supercharger 402 is connected to a supercharger motor 403. The supercharger 402 is connected to two water pipes 404 extending upward. The other ends of the water pipes 404 are connected to water spray pipes. The water spray pipes are all located in the water tank 400. Conveying parts 405 are installed on both sides of the water tank 400 to extend outward, and a conveying cavity 406 is formed in the conveying part 405. The embossing component 41 includes two pairs of rotating assembly seats 410 installed on both side walls of the water tank 400, and an assembly seat connecting plate 411 is provided between the rotating assembly seats 410 located on the same side, and the assembly seat connecting plates 411 are installed on the side walls of the water tank 400. An embossing rod 412 is provided between the rotating assembly seats 410 located at the upper end, and one end of the embossing rod 412 is connected to an embossing motor 414, and a conveying rotating rod 413 is provided between the rotating assembly seats 410 located at the lower end, and one end of the conveying rotating rod 413 is connected to a conveying driving motor 415, the embossing rod 412 is provided with an embossing roller 416, and the embossing roller 416 is formed with a forming groove 417 in a circular array, and the conveying rotating rod 413 is provided with a conveying roller 418.

[0078] The embossing and cooling unit 4 can form grid-like protrusions 100 on the surface of the PVC rubber layer 10, and then, the booster 402 in the water-cooling component 40 is driven by the booster motor 403 to transport the cooling water to the water spray pipe through the water pipe 404 in a high-pressure and high-speed manner, and then the water spray pipe sprays the cooling water onto the PVC rubber layer 10, and the conveying cavity 406 of the conveying member 405 arranged on the water tank 400 facilitates the conveying of the PVC rubber layer 10. Driven by the embossing motor 414 and the conveying drive motor 415, the embossing roller 416 and the conveying roller 418 convey the PVC rubber layer 10 forward. When the PVC rubber layer 10 is conveyed, the forming groove 417 on the embossing roller 416 forms a grid-like protrusion 100 on the surface of the PVC rubber layer 10.

[0079] The upper support assembly 50 includes two pairs of upper extension support plates 500, and a middle connecting plate 502 is installed between each pair of upper extension support plates 500 in an array with equal intervals, and an upper connecting plate 501 is installed on the upper end of each pair of upper extension support plates 500. The guide assembly 51 includes a conveying plate 510 installed on the upper connecting plate 501, and protective plates 511 are provided on both sides of the conveying plate 510. The transmission assembly 52 includes a pair of front extension plates 520 installed on the inner wall of one pair of upper extension support plates 500, and the other end of the front extension plates 520 is provided with a front extension assembly plate 521, and a conveying shaft rod 522 is provided between the front extension assembly plates 521, and the conveying shaft rod 522 is provided with a front conveying roller 523. The steering assembly 53 includes a pair of forward extension plates 530 installed on the inner wall of one pair of upper extension support plates 500, and the other end of the forward extension plates 530 is provided with a forward extension assembly plate 531, a steering rod 532 is provided between the forward extension assembly plates 531, and the steering rod 532 is provided with a steering roller 533, which is provided between the forward extension assembly plates 531 and is located directly above the front input roller 523. The antibacterial material placement assembly 54A includes a pair of side mounting plates 540 mounted on both sides of the protective plate 511, and the upper ends of the side mounting plates 540 are provided with inner extension plates 541 extending inward, and the other ends of the inner extension plates 541 are provided with inner safety plates 542, and an upper extension frame 543 is provided between the inner safety plates 542, and a contraction frame 544 is provided downwardly extending from the upper extension frame 543, and a lower discharge frame 545 is provided at the lower end of the contraction frame 544, and the lower discharge frame 545 is located directly above the conveying plate 510, and a scraping plate 546 is installed on one side of the upper extension frame 543, and the scraping plate 546 is provided with an L-shaped scraper 547, and the lower end of the L-shaped scraper 547 is a wedge-shaped structure. The antibacterial layer pressing assembly 55A includes a pair of upper extension rotating seats 550 mounted on the protective plate 511, and a pressing rod 551 is provided between the upper extension rotating seats 550, and a pressing motor is connected to one end of the pressing rod 551, and a pressing roller 552 is provided on the pressing rod 551. The flame retardant layer placement assembly 56A includes a pair of upper support plates 560 extending upward and installed on the protective plate 511. The upper end of the upper support plate 560 is formed with a U-shaped groove 561. The U-shaped groove 561 is provided with an assembly rod 563. The outer end of the assembly rod 563 is provided with an outer plate 562. The inner end of the assembly rod 563 is provided with an inner plate 564. A mounting rod 565 is provided between the inner plates 564. The rolling assembly 57 includes a rear extension plate 570 installed in pairs on the upper extension support plate 500, and the other end of the rear extension plate 570 is vertically upwardly provided with an upper extension arm 571, the upper end of the upper extension arm 571 is formed with a U-shaped placement groove 572, and a placement rod 577 is provided in the U-shaped placement groove 572, the outer end of the placement rod 577 is provided with an outer turntable 576, the inner end of the placement rod 577 is provided with an inner limit plate 578, a rolling rod 579 is provided between the inner limit plates 578, and the outer turntable 576 located at one end is formed with a notch 5760, a plurality of fixed screw rods 573 are installed on the upper end of the upper extension arm 571, and a rolling motor 574 is installed on the other end of the fixed screw rod 573, and the output shaft of the rolling motor 574 is provided with a rotating plate 575, and the rotating plate 575 is inserted in the notch 5760.

[0080] The embossed PVC rubber layer 10 is conveyed forward through the conveying plate 510, and is conveyed forward by the front conveying roller 523 and the steering roller 533. At the same time, the PVC rubber layer 10 is turned over so that the grid-shaped protrusions 100 face downward and the flat side faces upward, and is conveyed along the conveying plate 510. During the conveying process, epoxy resin glue is first placed from the first epoxy resin glue placement component 54B to the PVC rubber layer 10, and then chitosan is placed from the antibacterial material placement component 54A, and the antibacterial layer pressing component 55A presses it, and then passes through the second epoxy resin glue placement component 54C, the flame retardant layer placement component 56A, the flame retardant layer pressing component 55B, the third epoxy resin glue placement component 54D, the moisture-proof layer placement component 56B, the moisture-proof layer The pressing assembly 55C, the fourth epoxy resin glue placement assembly, the polyester fiber layer placement assembly and the polyester fiber layer pressing assembly, the antibacterial material placement assembly 54A, the first epoxy resin glue placement assembly 54B, the second epoxy resin glue placement assembly 54C, the third epoxy resin glue placement assembly 54D, and the fourth epoxy resin glue placement assembly press the flame retardant layer 12, the moisture-proof layer 13, and the polyester fiber layer 14 on the PVC rubber layer 10 in sequence, and then, the pressing end is wrapped around the rolling rod 579, and the rotating plate 575 is inserted into the notch 5760, so that the rolling motor 574 drives the rolling rod 579 to rotate, and finally a composite coil is formed. After completion, the rolled rolling rod 579 is removed from the upper end of the upper extension arm 571, and the composite coil is removed from the rolling rod 579, and then the next rolling operation is carried out.

[0081] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention is also intended to include these modifications and variations.

Claims

1. A device for processing indoor building floor laying coiled materials, used for preparing indoor building floor laying coiled materials, the indoor building floor laying coiled materials comprising: A PVC rubber layer (10) having a grid-like protrusion (100) formed on the surface and a steel mesh (101) disposed inside; The antibacterial layer (11) is adhered to the inner side of the PVC rubber layer (10) and is made of chitosan; The flame retardant layer (12) is adhered to the inner side of the antibacterial layer (11) and is a fiber braid with a mixture of magnesium hydroxide and aluminum hydroxide attached thereto; The moisture-proof layer (13) is adhered to the inner side of the flame-retardant layer (12) and is asphalt felt; A polyester fiber layer (14) adhered to the inner side of the moisture-proof layer (13); The steel wire mesh (101) is hot-pressed and formed in the PVC rubber layer (10), the antibacterial layer (11) is bonded to the PVC rubber layer (10) by epoxy resin glue, the flame retardant layer (12) is bonded to the antibacterial layer (11) by epoxy resin glue, the moisture-proof layer (13) is bonded to the flame retardant layer (12) by epoxy resin glue, and the polyester fiber layer (14) is bonded to the moisture-proof layer (13) by epoxy resin glue, characterized in that the processing device comprises: The wire mesh conveying unit (2) comprises a pair of placement components (20), wherein a roll-up component (21) is provided at the upper end of the placement component (20), the placement component (20) is used to support the two ends of the roll-up component (21), and the roll-up component (21) is used to place the wire mesh roll; The rubber layer forming unit (3) comprises a pair of support assemblies (30) arranged at one end of the placement assembly (20), a conveying assembly (31) being arranged between the support assemblies (30), an upper limit assembly (32) being arranged at one end of the support assemblies (30), a compacting assembly (33) being arranged at the other end of the support assemblies (30), a hot melt assembly (34) being arranged between the upper limit assembly (32) and the compacting assembly (33), a scraping assembly (35) being arranged between the hot melt assembly (34) and the compacting assembly (33), the hot melt assembly (34) and the scraping assembly (35) being arranged on the support assemblies (30), the upper limit assembly (32) being used for upper side limiting during conveying of the wire mesh, the compacting assembly (33) being used for compacting the PVC rubber layer (10), the hot melt assembly (34) being used for storing and conveying molten PVC rubber, the scraping assembly (35) being used for scraping the surface of the PVC rubber layer (10), and the conveying assembly (31) being used for conveying the PVC rubber layer (10) during forming; The placement component (20) comprises a bottom plate (203), a vertical plate (202) extending upward from the bottom plate (203), an arc plate (204) being provided at the upper end of the vertical plate (202), a concave groove (205) being formed in the arc plate (204), three rollers (206) being evenly distributed in the concave groove (205), a limiting convex ring (207) being formed on the outer wall of the roller (206), a mounting plate (201) being provided at one side of the vertical plate (202), an extension plate (200) being provided extending outward from the mounting plate (201), and the other end of the extension plate (200) being mounted on the support component (30); The roll-setting assembly (21) comprises a pair of rotating heads (210) arranged between the rollers (206); the arc walls of the rotating heads (210) are formed with limiting grooves (211); the limiting convex rings (207) are clamped in the limiting grooves (211) and are tangent to the groove bottoms of the limiting grooves (211); a roll-setting rod is arranged between the rotating heads (210); the outer side of the roll-setting rod is covered with an inflatable film roll; when the inflatable film roll is inflated, the wire mesh roll is fixed; An embossing and cooling unit (4) comprises a water cooling component (40) located at the other end of the support component (30), an embossing component (41) being arranged in the water cooling component (40), the water cooling component (40) being used for cooling the PVC rubber layer (10), and the embossing component (41) being used for forming grid-like protrusions (100) on the surface of the PVC rubber layer (10), and for conveying the PVC rubber layer (10) during embossing; The support assembly (30) comprises two rows of support plates (300) arranged in an equidistant array, a base plate (301) being installed at the lower end of each support plate (300), a reinforcing plate (302) intersecting each other being installed between each pair of support plates (300), a side plate (303) being installed at the upper end of the support plates (300) on the same side, an assembly plate (304) being provided at both ends of the side plates (303), and an external reinforcing plate (305) being installed on the outer side of the support plates (300) on the same side; The rolling unit (5) comprises a pair of upper support assemblies (50) located at one end of the water cooling assembly (40), wherein the upper end of the upper support assemblies (50) is provided with a guide assembly (51), wherein one end of one of the upper support assemblies (50) is provided with a conveying assembly (52), and a steering assembly (53) is provided directly above the conveying assembly (52), and the guide assembly (51) is provided with a first epoxy resin glue placement assembly (54B), an antibacterial material placement assembly (54A), an antibacterial layer laminating assembly (55A), a second epoxy resin glue placement assembly (54C), a flame retardant layer placement assembly (56A), a flame retardant layer laminating assembly (55B), a third epoxy resin glue placement assembly (54D), a moisture-proof layer placement assembly (56B), a moisture-proof layer The layer lamination assembly (55C), the fourth epoxy resin glue placement assembly, the polyester fiber layer placement assembly and the polyester fiber layer lamination assembly, the antibacterial material placement assembly (54A), the first epoxy resin glue placement assembly (54B), the second epoxy resin glue placement assembly (54C), the third epoxy resin glue placement assembly (54D) and the fourth epoxy resin glue placement assembly have the same structure, the antibacterial layer lamination assembly (55A), the flame retardant layer lamination assembly (55B), the moisture-proof layer lamination assembly (55C) and the polyester fiber layer lamination assembly have the same structure, the flame retardant layer placement assembly (56A), the moisture-proof layer placement assembly (56B) and the polyester fiber layer placement assembly have the same structure, and one end of the upper support assembly (50) is provided with a rolling assembly (57); The upper support assembly (50) comprises two pairs of upper extension support plates (500), middle connecting plates (502) are installed in an array with equal intervals between each pair of upper extension support plates (500), and upper connecting plates (501) are installed at the upper ends of each pair of upper extension support plates (500); The guide assembly (51) comprises a conveying plate (510) mounted on the upper connecting plate (501), and protective plates (511) are provided on both sides of the conveying plate (510); The conveying assembly (52) comprises a pair of front extension plates (520) mounted on the inner wall of one of the pair of upper extension support plates (500), the other end of each front extension plate (520) is provided with a front extension assembly plate (521), a conveying shaft rod (522) is provided between the front extension assembly plates (521), and the conveying shaft rod (522) is provided with a front conveying roller (523); The steering assembly (53) comprises a pair of forward extension plates (530) mounted on the inner wall of one of the pair of upper extension support plates (500); the other end of each forward extension plate (530) is provided with a forward extension assembly plate (531); a steering rod (532) is provided between the forward extension assembly plates (531); the steering rod (532) is provided with a steering roller (533); the steering roller (533) is provided between the forward extension assembly plates (531); and the steering roller (533) is located directly above the front transport roller (523); The antibacterial material placement component (54A) comprises a pair of side mounting plates (540) mounted on both sides of the protection plate (511); the upper ends of the side mounting plates (540) are provided with inner extension plates (541) extending inwards; the other ends of the inner extension plates (541) are provided with inner safety plates (542); an upper extension frame (543) is provided between the inner safety plates (542); a contraction frame (544) is provided downwardly extending from the upper extension frame (543); a lower discharge frame (545) is provided at the lower end of the contraction frame (544); the lower discharge frame (545) is located directly above the conveying plate (510); a scraping plate (546) is installed on one side of the upper extension frame (543); the scraping plate (546) is provided with an L-shaped scraper (547); the lower end of the L-shaped scraper (547) is a wedge-shaped structure; The antibacterial layer laminating assembly (55A) comprises a pair of upper extending rotating seats (550) mounted on the protective plate (511), a laminating rod (551) is provided between the upper extending rotating seats (550), one end of the laminating rod (551) is connected to a laminating motor, and the laminating rod (551) is provided with a laminating roller (552); The flame retardant layer placement assembly (56A) comprises a pair of upper support plates (560) extending upward and mounted on the protective plate (511); a U-shaped groove (561) is formed at the upper end of the upper support plate (560); a mounting rod (563) is provided in the U-shaped groove (561); an outer plate (562) is provided at the outer end of the mounting rod (563); an inner plate (564) is provided at the inner end of the mounting rod (563); and a mounting rod (565) is provided between the inner plates (564); The roll forming assembly (57) comprises a pair of rear extension plates (570) mounted on the upper extension support plate (500), the other end of the rear extension plates (570) is vertically upwardly provided with an upper extension arm (571), the upper end of the upper extension arm (571) is formed with a U-shaped placement groove (572), the U-shaped placement groove (572) is provided with a placement rod (577), the outer end of the placement rod (577) is provided with an outer turntable (576), and the inner end of the placement rod (577) is provided with a An inner limit plate (578) is provided, and a rolling rod (579) is provided between the inner limit plates (578). An outer turntable (576) located at one end is formed with a notch (5760). A plurality of fixed screw rods (573) are installed at the upper end of the upper extension arm (571), and a rolling motor (574) is installed at the other end of the fixed screw rod (573). A rotating plate (575) is provided on the output shaft of the rolling motor (574), and the rotating plate (575) is inserted into the notch (5760).

2. The indoor building floor laying coil material processing device according to claim 1 is characterized in that: The conveying assembly (31) comprises bearing seats (310) which are all mounted on the outside of the assembly plate (304). The bearing seats (310) are each provided with a bearing (311). The inner ring of each pair of bearings (311) is provided with a rotating shaft (312). One end of the rotating shaft (312) is connected to a conveying motor (318). Each rotating shaft (312) is provided with an inner rotating ring. The inner rotating rings are all provided with arc plates (313) in a circular array. The arc plates (313) are provided with an outer rotating ring (314). Both ends of the outer rotating ring (314) are provided with guard rings (315). A conveying belt (316) is wound around the outer rotating ring (314). Guard plates (317) are provided on both sides of the conveying belt (316). The guard plates (317) are located between the guard rings (315). The conveying belt (316) is made of a heat-resistant soft material.

3. The indoor building floor laying coil material processing device according to claim 2 is characterized in that: The upper limit assembly (32) comprises a pair of upper extension plates (320) both extending upward and mounted on the assembly plate (304); a rotating plate (321) is provided at the upper end of the upper extension plate (320); the rotating plate (321) is provided with an upper limit rotating rod (322); the upper limit rotating rod (322) is provided with an upper limit inner ring (323); the upper limit inner ring (323) is located between the rotating plates (321); an upper limit supporting plate (324) is provided on the outer wall of the upper limit inner ring (323) in a circumferential array; and an upper limit outer ring (325) is provided at the other end of the upper limit supporting plate (324); The compaction assembly (33) comprises a pair of upper support plates (330) extending upward and mounted on another pair of assembly plates (304); the upper ends of the upper support plates (330) are each provided with an assembly plate (331); the assembly plate (331) is provided with a compaction rod (332); the compaction rod (332) is provided with a compaction rotating ring (333); the outer wall of the compaction rotating ring (333) is provided with a compaction support plate (334) in a circumferential array; the other end of the compaction support plate (334) is provided with a compaction ring (335); the compaction ring (335) is located between the assembly plates (331).

4. The indoor building floor laying coil material processing device according to claim 3 is characterized in that: The hot melt assembly (34) comprises two pairs of mounting feet (340) both mounted on the external reinforcement plate (305); the mounting feet (340) on the same side are provided with a concave support plate (341) extending upward; a hot melt support plate (342) is provided at the middle position of the upper end of the concave support plate (341); an assembly frame (343) is installed at the upper end of the hot melt support plate (342); two pairs of extension mounting plates (344) are installed in the assembly frame (343); a fixing ring (345) is provided at the other end of the extension mounting plate (344); a molten rubber delivery assembly (346) is provided in the fixing ring (345); The molten rubber delivery assembly (346) comprises a placement barrel (3460) installed in a fixing ring (345). A funnel-shaped discharge piece (3461) is provided at the lower end of the placement barrel (3460). The lower end of the funnel-shaped discharge piece (3461) is connected to a lower extension pipe (3462). The lower end of the lower extension pipe (3462) is connected to a delivery pipe (3463). The lower end of the delivery pipe (3463) is connected to a distribution pipe (3465) fixedly connected thereto. The distribution pipe (3465) extends downward and is connected to distribution branch pipes (3466) in an evenly spaced array. The delivery pipe (3463) is provided with a valve (3464). The distribution branch pipe (3466) is located directly above the conveyor belt (316).

5. The indoor building floor laying coil material processing device according to claim 4 is characterized in that: The scraping assembly (35) comprises two pairs of assembly plates (350) distributed on both sides of the conveyor belt (316), the assembly plates (350) located at the lower end are mounted on the outer reinforcement plate (305), a plurality of guide rods (351) are provided between the assembly plates (350) located on the same side, screw rods (352) are provided between the assembly plates (350) located on the same side, the upper ends of the screw rods (352) are connected to lifting motors (354), the screw rods (352) are rotatably connected to lifting plates (353), lifting connecting plates (355) are provided between the lifting plates (353), and the lifting connecting plates (355) are provided with scrapers (356) extending downwardly, the scrapers (356) are inclinedly provided on the lifting connecting plates (355), and the lower ends of the scrapers (356) are inclined toward the compacting assembly (33).

6. The indoor building floor laying coil material processing device according to claim 1, characterized in that: The water cooling assembly (40) comprises a water tank (400), the water tank (400) is connected to a water outlet pipe (401), the other end of the water outlet pipe (401) is connected to a supercharger (402), the supercharger (402) is connected to a supercharger motor (403), the supercharger (402) is connected to two water delivery pipes (404) extending upward, the other ends of the water delivery pipes (404) are connected to water spray pipes, the water spray pipes are located in the water tank (400), and conveying members (405) are installed on both sides of the water tank (400) extending outwards, and a conveying cavity (406) is formed in the conveying member (405); The embossing assembly (41) comprises two pairs of rotating assembly seats (410) installed on both side walls of the water tank (400); an assembly seat connecting plate (411) is provided between the rotating assembly seats (410) located on the same side; the assembly seat connecting plates (411) are installed on the side walls of the water tank (400); an embossing rod (412) is provided between the rotating assembly seats (410) located at the upper end; one end of the embossing rod (412) is connected to an embossing motor (414); a conveying rotating rod (413) is provided between the rotating assembly seats (410) located at the lower end; one end of the conveying rotating rod (413) is connected to a conveying driving motor (415); the embossing rod (412) is provided with an embossing roller (416); the embossing roller (416) is formed with a forming groove (417) in a circular array; and the conveying rotating rod (413) is provided with a conveying roller (418).

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