Building interior multifunctional construction equipment and construction method thereof

Abstract

The invention discloses building interior multifunctional construction equipment and a construction method thereof, and relates to the field of building interior construction.The building interior multifunctional construction equipment comprises a frame plate, a construction positioning component vertically arranged at the top of the frame plate and a base box arranged at the execution end of the construction positioning component; the bonding layer feeding component, the hanging net stress relieving and conveying device, the press-in roller, the hanging net press-in device and the covering layer feeding component are sequentially arranged in the base box body, the hanging net feeding device is arranged on the outer wall of the base box body, and the discharging end of the hanging net feeding device extends to the feeding end of the hanging net stress relieving and conveying device. According to the construction equipment and the construction method, bonding layer smearing, hanging net pressing-in and covering layer smearing are carried out at the same time in the hanging net construction process, automatic deviation correction and stress relief of the hanging net are achieved in the hanging net construction process, the hanging net is prevented from being pressed into the bonding layer in the stress state, and the construction efficiency is improved. And through the hanging net pressing-in device, the uniformity when the hanging net is pressed into the bonding layer and the accuracy of the depth of pressing the hanging net into the bonding layer are ensured.

Description

Technical Field

[0001] The present invention mainly relates to the technical field of building interior construction, and specifically relates to a multifunctional building interior construction equipment and a construction method thereof. Background Art

[0002] The main purpose of the construction of mesh plastering inside the building is to enhance the crack resistance, integrity and durability of the wall. By adding mesh cloth or wire mesh to the plastering layer, the stress can be effectively dispersed to prevent the occurrence of cracks, while improving the strength and stability of the wall. Especially for the junction of different materials indoors, due to the different thermal expansion coefficients of different materials, cracks are prone to occur at the junction. Through mesh plastering, the generation of cracks can be restrained, so that the two materials form a whole and reduce the risk of cracking.

[0003] The mesh wall plastering device in the prior art includes: a circulating guide frame, a guide conveying trough is arranged in the middle of the circulating guide frame, a circulating traction chain is arranged on the outer side of the circulating guide frame, and a mesh winding roller is arranged on the upper side of the circulating guide frame. The product in the prior art uses a horizontal traction frame to draw the mesh from the mesh winding roller through magnetic adsorption and transport it to the front side of the circulating guide frame so that the mesh is placed on the wall surface, and then the concrete slurry is transported to the middle of the mesh through the slurry coating cylinder. After the middle part of the mesh is slurried and fixed, the mesh is sheared, and the upper and lower ends of the traction-fixed mesh lose their constraints and rely on their own elastic force to return to straightness so that the upper and lower ends are flush with the top and bottom of the wall surface, thereby avoiding the occurrence of processing dead angles at the top and bottom of the wall surface when hanging the mesh, facilitating the full coverage of the wall surface, and helping to improve the efficiency and quality of the mesh hanging work.

[0004] The products in the prior art can avoid the occurrence of dead corners at the top and bottom of the wall when hanging the mesh, but it is not convenient to accurately control the depth of the mesh embedded in the adhesive layer when the mesh is wet hung. Summary of the invention

[0005] Based on this, the purpose of the present invention is to provide a multifunctional construction equipment for interior of a building and a construction method thereof, so as to solve the technical problems raised in the above-mentioned background technology.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a multifunctional construction equipment for interior of a building, comprising a frame plate, a construction positioning component vertically arranged on the top of the frame plate, a base box body arranged at the execution end of the construction positioning component, and an adhesive layer feeding component, a mesh stress elimination transmission device, a pressing roller, a mesh pressing device and a covering layer feeding component sequentially arranged in the base box body, the mesh pressing device comprising a first pressing needle row, a second pressing needle row and a third pressing needle row which are arranged in sequence at equal intervals, and a power component arranged on the outer wall of the base box body and used for simultaneously driving the first pressing needle row, the second pressing needle row and the third pressing needle row to reciprocate; The first row of pressing needles is located between the mesh stress relief transmission device and the pressing roller, and the second row of pressing needles and the third row of pressing needles are located between the pressing roller and the covering layer feeding component; It also includes a net hanging feeding device which is arranged on the outer wall of the base box body and the discharge end extends to the feed end of the net hanging stress elimination transmission device. The net hanging feeding device includes a net hanging frame which is slidably connected to the outer wall of the base box body, an n-shaped conduit whose feed end is connected to the net hanging frame and the discharge end extends to the feed end of the net hanging stress elimination transmission device, two correction and feeding components which are symmetrically arranged on the inner wall of the discharge end of the n-shaped conduit, and a grid shooting component which is arranged at the discharge end of the n-shaped conduit.

[0007] Preferably, the power component includes a frame plate whose outer wall is connected to the ends of the first, second and third press-in needle rows, a movable plate whose one end is connected to the frame plate and the other end passes through the base box body and extends to the outside of the base box body, a slide groove passing through the movable plate, a power motor provided on the outer wall of the base box body, a turntable provided at the execution end of the power motor, and a power shaft eccentrically provided on the outer wall of the turntable, the power shaft is slidably connected to the slide groove, and the movable plate is slidably connected to the base box body. In this preferred embodiment, the stable reciprocating motion of the first, second and third press-in needle rows is realized by the power component.

[0008] Preferably, the mesh hanging stress relief transmission device includes two driven conveying rollers that are rotatably connected to the inner wall of the base box body and located at the same horizontal plane, an active conveying roller that is rotatably connected to the inner wall of the base box body and located on the side of the driven conveying roller away from the bonding layer feeding component, a conveying pressure belt that is sleeved on the outside of the driven conveying roller and the active conveying roller, and a plurality of clamping protrusions that are linearly arrayed on the outer wall of the conveying pressure belt. In this preferred embodiment, the mesh hanging stress relief transmission device is used to achieve stress relief transmission before the mesh is pressed in, so as to avoid the mesh's own stress from being pressed into the bonding layer.

[0009] Preferably, the deflection correction and feeding component includes a first micro linear module and a slide rail sequentially arranged in the n-shaped conduit, a second micro linear module with one end connected to the execution end of the first micro linear module and the other end slidably connected to the slide rail, a bump arranged at the execution end of the second micro linear module, a shaft with one end rotatably connected to the bump, a pressure wheel arranged at the end of the shaft, and an electromagnetic ring arranged on the outer wall of the bump and sleeved on the outside of the shaft. In this preferred embodiment, the deflection correction and feeding component is used to achieve stable deflection correction of the hanging net.

[0010] Preferably, the grid shooting component comprises a camera disposed at the discharge end of the n-shaped conduit. In this preferred embodiment, the grid image information of the hanging net is easily obtained by the grid shooting component.

[0011] Preferably, it also includes a central positioning component disposed on the outer wall of the base box body and used to drive the net hanging frame to move, the central positioning component includes a third linear module disposed on the outer wall of the base box body, and a distance sensor disposed on the outer wall of the n-shaped conduit, and the execution end of the third linear module is connected to the net hanging frame. In this preferred embodiment, the central positioning component is used to facilitate the control of the feeding position of the net hanging.

[0012] Preferably, it also includes a cutting component located between the discharge end of the n-shaped conduit and the mesh stress relief transmission device, the cutting component includes a slitting knife located between the discharge end of the n-shaped conduit and the mesh stress relief transmission device, a power pressure roller rotatably connected to the inner wall of the base box body and located between the slitting knife and the discharge end of the n-shaped conduit, two extension rods symmetrically arranged at both ends of the slitting knife, and two drive cylinders symmetrically arranged on both sides of the outer wall of the base box body, one end of the extension rod is connected to the end of the slitting knife, and the other end passes through the base box body and is connected to the execution end of the drive cylinder. In this preferred embodiment, automatic cutting during mesh construction is achieved by the cutting component.

[0013] Preferably, the adhesive layer feeding component includes an n-shaped discharge pipe fixedly arranged in the base box body, a storage tank arranged on the frame plate and connected to the n-shaped discharge pipe through a pipeline, and an n-shaped shaping plate with one end connected to the outer wall of the n-shaped discharge pipe. The covering layer feeding component has the same structure as the adhesive layer feeding component, and the end of the n-shaped shaping plate in the adhesive layer feeding component extends to the mesh stress relief transmission device. In this preferred embodiment, the application and shaping of the adhesive layer are achieved by the adhesive layer feeding component, and the application and shaping of the covering layer are achieved by the covering layer feeding component.

[0014] Preferably, the construction positioning component includes two fourth linear modules symmetrically arranged on the top of the frame plate, a lifting plate with two ends respectively connected to the execution ends of the two fourth linear modules, a mounting plate arranged on the outer wall of the base box body and rotatably connected to the lifting plate, a reducer arranged on the side of the lifting plate away from the mounting plate, and a stepper motor arranged on the outer wall of the mounting plate, the output end of the stepper motor is connected to the input end of the reducer, and the output end of the reducer is connected to the mounting plate through an output shaft. In this preferred embodiment, the starting point positioning and construction path control during the net hanging construction are realized by the construction positioning component.

[0015] According to the above technical solution of a multifunctional construction equipment for interior of a building, a construction method of the multifunctional construction equipment for interior of a building will also be provided, comprising the following steps: Step 1: Loading the net: manually install the net roll on the net rack, and guide the end of the net through the n-shaped guide tube until the end of the net reaches the position of the correction and loading component; Step 2: Preparatory transmission of the hanging net; the controller receives the hanging net grid information photographed by the grid shooting component, and triggers the correction and feeding component to correct the hanging net after analysis. After the correction is completed, the hanging net is transmitted to the hanging net stress elimination transmission device by the power pressure roller. The hanging net stress elimination transmission device transmits the hanging net by embedding the hanging net grid until the hanging net end reaches the predetermined position; Step 3: Construction positioning: The electric frame at the bottom of the frame plate and the construction positioning components work together to move the base box to the starting point of the net hanging construction and drive the base box to move according to the preset net hanging path; Step 4: Construction of the adhesive layer: During the movement of the base box body, the adhesive layer feeding component applies the adhesive layer to the moving path; Step 5: Pressing the mesh in; the mesh stress elimination transmission device continuously transmits the mesh whose end reaches the predetermined position, and the mesh is pressed into the bonding layer under the coordinated work of the mesh pressing device and the pressing roller. When the mesh is pressed in, it is squeezed into the bonding layer by the first pressing needle row, the pressing roller, the second pressing needle row and the third pressing needle row in sequence; Step six, construction of the covering layer; the covering layer feeding component applies the covering layer to the adhesive layer after the hanging mesh is pressed in to form the covering layer to complete the construction.

[0016] In summary, the present invention mainly has the following beneficial effects: The construction equipment and construction method of the present invention realize the simultaneous application of the adhesive layer, mesh pressing and covering layer during mesh construction, and realize automatic deviation correction and stress elimination of the mesh during mesh construction, thereby preventing the mesh from being pressed into the adhesive layer under stress, and the mesh pressing device ensures the uniformity of the mesh being pressed into the adhesive layer and the accuracy of the depth of the mesh being pressed into the adhesive layer; The starting point positioning and construction path control during the hanging mesh construction are realized through the construction positioning components; The adhesive layer is applied and formed by the adhesive layer feeding component, and the covering layer is applied and formed by the covering layer feeding component; The central positioning component in the net-hanging feeding device is convenient for controlling the feeding position of the net, the grid shooting component is convenient for obtaining the grid image information of the net, the deviation correction feeding component is used to achieve stable deviation correction of the net, and the cutting component is used to achieve automatic cutting during the net hanging construction; The stress relief transmission device is used to achieve stress relief transmission before the mesh is pressed in, so as to avoid the stress of the mesh itself being pressed into the bonding layer; In the screen pressing device, a power component is used to realize the stable reciprocating motion of the first pressing needle row, the second pressing needle row and the third pressing needle row. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is an axonometric diagram of the overall structure of the construction equipment of the present invention; Figure 2 It is an exploded view of the overall structure of the construction equipment of the present invention; Figure 3 It is an axonometric view of the internal structure of the base box body of the present invention; Figure 4 It is an exploded view of the internal structure of the base box body of the present invention; Figure 5 It is an exploded view of the structure of the mesh pressing device of the present invention; Figure 6 It is an exploded view of the structure of the hanging net feeding device of the present invention; Figure 7 It is a top view of the overall structure of the construction equipment of the present invention; Figure 8 It is a cross-sectional view of the overall structure of the construction equipment of the present invention; Fig. 9 It is a cross-sectional view of the structure of the mesh pressing device of the present invention; Fig.10 It is a cross-sectional view of the structure of the hanging net feeding device of the present invention; Fig.11 It is an enlarged view of the structure at A of the present invention; Fig.12 It is a flow chart of the construction method of the present invention.

[0018] Description of the drawings: 10, frame plate; 11, construction positioning component; 111, fourth linear module; 112, lifting plate; 113, mounting plate; 114, reducer; 115, stepping motor; 12, base box; 13, bonding layer feeding component; 131, n-shaped discharge pipe; 132, storage tank; 133, n-shaped shaping plate; 14, covering layer feeding component; 20, net hanging stress elimination transmission device; 21, driven conveying roller; 22, active conveying roller; 23, conveying pressure belt; 24, clamping protrusion; 30, pressing roller; 40, net hanging pressing device; 41, first pressing needle row; 42, second pressing needle row; 43, third pressing needle row; 44, power component; 441 , frame plate; 442, moving plate; 443, slide; 444, power motor; 445, turntable; 446, power shaft; 50, hanging net feeding device; 51, hanging net rack; 52, n-shaped guide tube; 53, deviation correction feeding component; 531, first micro linear module; 532, slide rail; 533, second micro linear module; 534, bump; 535, pressure wheel; 536, shaft; 537, electromagnetic ring; 54, grid shooting component; 541, camera; 55, center positioning component; 551, third linear module; 552, distance sensor; 56, cutting component; 561, slitting knife; 562, power pressure roller; 563, extension rod; 564, drive cylinder. DETAILED DESCRIPTION

[0019] The following will be combined with the accompanying drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. The embodiments described below with reference to the accompanying drawings are exemplary and are only used to explain the present invention, and cannot be understood as limiting the present invention.

[0020] The following describes an embodiment of the present invention based on its overall structure. Example

[0021] Please refer to the attached Figure 1 , 2, 3, 4, 7, 8, 12, in a preferred embodiment of the present invention, a multifunctional construction equipment for interior of a building includes a frame plate 10, a construction positioning component 11 vertically arranged on the top of the frame plate 10, a base box body 12 arranged at the execution end of the construction positioning component 11, and an adhesive layer feeding component 13, a mesh stress relief transmission device 20, a pressing roller 30, a mesh pressing device 40 and a covering layer feeding component 14 sequentially arranged in the base box body 12, the mesh stress relief transmission device 20 0 includes two driven conveying rollers 21 that are rotatably connected to the inner wall of the base box body 12 and are located on the same horizontal plane, an active conveying roller 22 that is rotatably connected to the inner wall of the base box body 12 and is located on the side of the driven conveying roller 21 away from the adhesive layer feeding component 13, a conveying pressure belt 23 that is sleeved on the outside of the driven conveying roller 21 and the active conveying roller 22, and a plurality of clamping protrusions 24 that are linearly arranged on the outer wall of the conveying pressure belt 23, and the adhesive layer feeding component 13 includes an n-shaped discharge pipe that is fixedly arranged in the base box body 12 131, a storage tank 132 arranged on the frame plate 10 and connected to the n-shaped discharge pipe 131 through a pipeline, and an n-shaped shaping plate 133 connected to the outer wall of the n-shaped discharge pipe 131 at one end, the covering layer feeding component 14 has the same structure as the bonding layer feeding component 13, and the end of the n-shaped shaping plate 133 in the bonding layer feeding component 13 extends to the hanging net stress elimination transmission device 20, and the construction positioning component 11 includes two fourth linear modules 111 symmetrically arranged on the top of the frame plate 10 , two ends of which are respectively connected to the lifting plates 112 of the two actuating ends of the fourth linear modules 111, a mounting plate 113 arranged on the outer wall of the base box body 12 and rotatably connected to the lifting plate 112, a reducer 114 arranged on the side of the lifting plate 112 away from the mounting plate 113, and a stepper motor 115 arranged on the outer wall of the mounting plate 113, the output end of the stepper motor 115 is connected to the input end of the reducer 114, and the output end of the reducer 114 is connected to the mounting plate 113 through an output shaft.

[0022] It should be noted that, in the present embodiment, during the net hanging construction, the net hanging roll is manually installed on the net hanging frame 51, and the net hanging end is introduced from the n-shaped guide tube 52 until the net hanging end reaches the position of the correction feeding component 53. At this time, the controller receives the net hanging grid information photographed by the camera 541, and triggers the correction feeding component 53 to correct the net hanging after analysis. After the correction is completed, the net hanging is transmitted by the power pressure roller 562 to the net hanging stress elimination transmission device 20. The net hanging stress elimination transmission device 20 transmits the net hanging by embedding the net hanging grid until the net hanging end reaches the predetermined position to complete the preparation work of the net hanging. The electric frame at the bottom of the frame plate 10 and the construction positioning component 11 work together to move the base box body 12 to the starting point of the net hanging construction and drive the base box body 12 to move according to the preset net hanging path. During the movement of the base box body 12, the adhesive layer feeding component 13 applies the adhesive layer to the moving path, and the net hanging stress elimination transmission device 20 continuously transmits the net whose end reaches the predetermined position. The net is pressed into the adhesive layer under the cooperation of the net pressing device 40 and the pressing roller 30. After the net output reaches the specified length, the cutting component 56 automatically cuts the net. The covering layer feeding component 14 applies the covering layer to the adhesive layer after the net is pressed in to complete the construction. Furthermore, when the construction positioning component 11 is working, the execution end of the fourth linear module 111 can drive the lifting plate 112 to rise and fall, and the execution end of the stepping motor 115 drives the mounting plate 113 and the base box body 12 to rotate after the torque is amplified by the reducer 114; Furthermore, the working principle of the covering layer feeding component 14 is consistent with the working principle of the bonding layer feeding component 13. Taking the working of the bonding layer feeding component 13 as an example, when the bonding layer feeding component 13 is working, the positive pressure system connected to the storage tank 132 is turned on, and the adhesive in the storage tank 132 enters the n-shaped discharge pipe 131 through the pipeline under the action of positive pressure, and is discharged from the discharge end of the n-shaped discharge pipe 131. As the base box body 12 moves, the n-shaped shaping plate 133 shapes and extrude the adhesive discharged from the n-shaped discharge pipe 131 to form an adhesive layer in the construction area; Furthermore, when the net stress elimination transmission device 20 is working, the motor outside the base box body 12 drives the active conveying roller 22 to rotate through the belt and the pulley, and the active conveying roller 22 drives the conveying pressure belt 23 to move. The clamping protrusion 24 on the surface of the conveying pressure belt 23 is clamped into the grid of the net and transmits the net to prevent the net from causing grid deformation and stress during transmission.

[0023] Please refer to the attached Figure 3 , 5As shown in Figures 9 and 10, in another preferred embodiment of the present invention, the mesh pressing device 40 includes a first pressing needle row 41, a second pressing needle row 42 and a third pressing needle row 43 which are arranged in sequence and at equal intervals, and a power component 44 which is arranged on the outer wall of the base box body 12 and is used to simultaneously drive the first pressing needle row 41, the second pressing needle row 42 and the third pressing needle row 43 to reciprocate; the first pressing needle row 41 is located between the mesh stress relief transmission device 20 and the pressing roller 30, and the second pressing needle row 42 and the third pressing needle row 43 are located between the pressing roller 30 and the covering layer feeding component 14; the power component 44 includes The outer wall is connected to a frame plate 441 whose ends are the first press-in needle row 41, the second press-in needle row 42 and the third press-in needle row 43, a movable plate 442 whose one end is connected to the frame plate 441 and the other end passes through the base box body 12 and extends to the outside of the base box body 12, a slide groove 443 passing through the movable plate 442, a power motor 444 provided on the outer wall of the base box body 12, a turntable 445 provided at the execution end of the power motor 444, and a power shaft 446 eccentrically provided on the outer wall of the turntable 445, the power shaft 446 is slidably connected to the slide groove 443, and the movable plate 442 is slidably connected to the base box body 12.

[0024] It should be noted that, in this embodiment, when the net pressing device 40 is working, the execution end of the power motor 444 drives the turntable 445 to rotate, and the turntable 445 drives the power shaft 446 to rotate. During the rotation of the power shaft 446, it slides in the slide groove 443 and drives the moving plate 442 to reciprocate, and the moving plate 442 drives the first pressing needle row 41, the second pressing needle row 42 and the third pressing needle row 43 to reciprocate; Furthermore, when the mesh is pressed in, it is squeezed into the adhesive layer by the first pressing needle row 41, the pressing roller 30, the second pressing needle row 42 and the third pressing needle row 43 in sequence. The first pressing needle row 41 can peel the mesh from the mesh stress relief transmission device 20 and press it into the adhesive layer. The pressing roller 30 realizes the overall re-pressing of the mesh. The second pressing needle row 42 realizes the re-positioning and pressing of the mesh after the re-pressing of the pressing roller 30. The third pressing needle row 43 realizes the re-pressing and positioning of the mesh before the covering layer is applied.

[0025] Please refer to the attached Figure 3 , 4, 6, 10, and 11, in another preferred embodiment of the present invention, it also includes a net hanging feeding device 50 arranged on the outer wall of the base box body 12 and the discharge end extends to the feed end of the net hanging stress relief transmission device 20, the net hanging feeding device 50 includes a net hanging frame 51 slidably connected to the outer wall of the base box body 12, an n-shaped conduit 52 with a feed end connected to the net hanging frame 51 and a discharge end extending to the feed end of the net hanging stress relief transmission device 20, two deviation correction feeding components 53 symmetrically arranged on the inner wall of the discharge end of the n-shaped conduit 52, and a grid beater arranged at the discharge end of the n-shaped conduit 52. The camera component 54, the deviation correction and feeding component 53 includes a first micro linear module 531 and a slide rail 532 which are sequentially arranged in the n-shaped guide tube 52, a second micro linear module 533 whose one end is connected to the execution end of the first micro linear module 531 and the other end is slidably connected to the slide rail 532, a protrusion 534 arranged at the execution end of the second micro linear module 533, a shaft 536 which is rotatably connected to the protrusion 534 at one end, a pressure wheel 535 arranged at the end of the shaft 536, and an electromagnetic ring 537 arranged on the outer wall of the protrusion 534 and sleeved on the outside of the shaft 536, The grid shooting component 54 includes a camera 541 disposed at the discharge end of the n-shaped conduit 52, and also includes a center positioning component 55 disposed on the outer wall of the base box body 12 and used to drive the net hanging frame 51 to move. The center positioning component 55 includes a third linear module 551 disposed on the outer wall of the base box body 12, and a distance sensor 552 disposed on the outer wall of the n-shaped conduit 52. The execution end of the third linear module 551 is connected to the net hanging frame 51, and also includes a cutting component 56 located between the discharge end of the n-shaped conduit 52 and the net hanging stress elimination transmission device 20. The cutting component 56 includes a slitting knife 561 located between the discharge end of the n-shaped conduit 52 and the net hanging stress relief transmission device 20, a power pressure roller 562 rotatably connected to the inner wall of the base box body 12 and located between the slitting knife 561 and the discharge end of the n-shaped conduit 52, two extension rods 563 symmetrically arranged at both ends of the slitting knife 561, and two driving cylinders 564 symmetrically arranged on both sides of the outer wall of the base box body 12, one end of the extension rod 563 is connected to the end of the slitting knife 561, and the other end passes through the base box body 12 and is connected to the execution end of the driving cylinder 564.

[0026] It should be noted that, in this embodiment, when the net hanging feeding device 50 is working, the worker installs the net hanging raw material roller on the net hanging frame 51, and guides the net hanging end from the n-shaped guide tube 52 until the net hanging end reaches the position of the deviation correction feeding component 53, and the center positioning component 55 can adjust the position of the net hanging frame 51 and the n-shaped guide tube 52 according to the net hanging width information input by the worker from the input end to the controller, so as to ensure that the net output through the n-shaped guide tube 52 is located at the center of the net hanging stress elimination transmission device 20; After the adjustment of the center positioning component 55 is completed, the controller receives the hanging net image information taken by the camera 541, and triggers the correction and feeding component 53 to correct the hanging net after analysis. After the correction is completed, the correction and feeding component 53 moves the corrected hanging net into the power pressure roller 562, and then the power pressure roller 562 inputs the hanging net into the hanging net stress elimination transmission device 20; Furthermore, when the center positioning component 55 is working, the controller receives the distance information between the outer wall of the n-shaped guide tube 52 and the inner wall of the base box body 12 measured by the distance sensor 552, and triggers the third linear module 551 to work. The execution end of the third linear module 551 drives the hanging grid frame 51 and the n-shaped guide tube 52 to move until the distance information reaches the set value; Furthermore, when the deflection correction feeding component 53 is working, the execution end of the first micro linear module 531 can drive the pressing wheel 535 to move along the X-axis direction to correct the deflection of the hanging net in the X-axis direction, and the execution end of the second micro linear module 533 can drive the pressing wheel 535 to move along the Y-axis direction to correct the deflection of the hanging net in the Y-axis direction; After the deflection correction is completed, the second micro linear modules 533 in the two deflection correction feeding components 53 move synchronously to move the deflected hanging net to the power pressing roller 562. After the hanging net reaches the power pressing roller 562, the electromagnetic ring 537 is powered off to cancel the magnetic attraction of the shaft 536, and the pressing wheel 535 can rotate freely. Furthermore, when the cutting component 56 is working, the execution end of the driving cylinder 564 drives the extension rod 563 to move, and the extension rod 563 drives the slitting knife 561 to move, and the slitting knife 561 cuts the hanging net.

[0027] According to the above embodiment, a construction method of a multifunctional construction device inside a building is also provided, comprising the following steps: Step 1: Loading the net: manually install the net roll on the net rack 51, and guide the net end through the n-shaped guide tube 52 until the net end reaches the position of the correction feeding component 53; Step 2: Preparatory transmission of the hanging net; the controller receives the hanging net grid information photographed by the grid shooting component 54, and triggers the correction feeding component 53 to correct the hanging net after analysis. After the correction is completed, the hanging net is transmitted to the hanging net stress elimination transmission device 20 by the power pressure roller 562. The hanging net stress elimination transmission device 20 transmits the hanging net by embedding the hanging net grid until the hanging net end reaches the predetermined position; Step three, construction positioning; the electric frame at the bottom of the frame plate 10 and the construction positioning component 11 work together to move the base box body 12 to the starting point of the hanging net construction and drive the base box body 12 to move according to the preset hanging net path; Step 4: Construction of the adhesive layer: During the movement of the base box body 12, the adhesive layer feeding component 13 applies the adhesive layer to the moving path; Step 5: Pressing the mesh in; the mesh stress elimination transmission device 20 continuously transmits the mesh whose end reaches the predetermined position, and the mesh is pressed into the bonding layer under the cooperation of the mesh pressing device 40 and the pressing roller 30. When the mesh is pressed in, it is squeezed into the bonding layer by the first pressing needle row 41, the pressing roller 30, the second pressing needle row 42 and the third pressing needle row 43 in sequence; Step 6: Construction of the covering layer: The covering layer feeding component 14 applies the covering layer to the adhesive layer after the hanging mesh is pressed in to form the covering layer to complete the construction.

[0028] The working principle of the present invention is: The electrical components in the present invention are all triggered to operate by the controller; During the net hanging construction, the net roll is manually installed on the net hanging frame 51, and the net hanging end is introduced from the n-shaped guide tube 52 until the net hanging end reaches the position of the correction feeding component 53. At this time, the controller receives the net hanging grid information photographed by the camera 541, and triggers the correction feeding component 53 to correct the net hanging after analysis. After the correction is completed, the net hanging is transmitted to the net hanging stress relief transmission device 20 by the power pressure roller 562. The net hanging stress relief transmission device 20 transmits the net hanging by embedding the net hanging grid until the net hanging end reaches the predetermined position to complete the preparation work of the net hanging; The electric frame at the bottom of the frame plate 10 and the construction positioning component 11 work together to move the base box body 12 to the starting point of the net hanging construction and drive the base box body 12 to move according to the preset net hanging path. During the movement of the base box body 12, the adhesive layer feeding component 13 applies the adhesive layer to the moving path, and the net hanging stress elimination transmission device 20 continuously transmits the net whose end reaches the predetermined position. The net is pressed into the adhesive layer under the cooperation of the net pressing device 40 and the pressing roller 30. After the net output reaches the specified length, the cutting component 56 automatically cuts the net. The covering layer feeding component 14 applies the covering layer to the adhesive layer after the net is pressed in to complete the construction. When the construction positioning component 11 is working, the execution end of the fourth linear module 111 can drive the lifting plate 112 to rise and fall, and the execution end of the stepping motor 115 drives the mounting plate 113 and the base box body 12 to rotate after the torque is amplified by the reducer 114; The working principle of the covering layer feeding component 14 is consistent with that of the bonding layer feeding component 13. Taking the working of the bonding layer feeding component 13 as an example, when the bonding layer feeding component 13 is working, the positive pressure system connected to the storage tank 132 is turned on, and the adhesive in the storage tank 132 enters the n-shaped discharge pipe 131 through the pipeline under the action of positive pressure, and is discharged from the discharge end of the n-shaped discharge pipe 131. As the base box body 12 moves, the n-shaped shaping plate 133 shapes and extrude the adhesive discharged from the n-shaped discharge pipe 131 to form an adhesive layer in the construction area; When the hanging net stress elimination transmission device 20 is working, the motor outside the base box body 12 drives the active conveying roller 22 to rotate through the belt and the pulley, and the active conveying roller 22 drives the conveying pressure belt 23 to move, and the clamping protrusion 24 on the surface of the conveying pressure belt 23 is clamped into the mesh of the hanging net and transmits the hanging net to prevent the hanging net from causing deformation of the mesh and generating stress during the transmission process; When the net pressing device 40 is working, the execution end of the power motor 444 drives the turntable 445 to rotate, and the turntable 445 drives the power shaft 446 to rotate. During the rotation of the power shaft 446, it slides in the slide groove 443 and drives the moving plate 442 to reciprocate. The moving plate 442 drives the first pressing needle row 41, the second pressing needle row 42 and the third pressing needle row 43 to reciprocate. When the mesh is pressed in, it is sequentially squeezed into the adhesive layer by the first pressing needle row 41, the pressing roller 30, the second pressing needle row 42 and the third pressing needle row 43. The first pressing needle row 41 can peel the mesh from the mesh stress relief transmission device 20 and press it into the adhesive layer. The pressing roller 30 realizes the overall re-pressing of the mesh. The second pressing needle row 42 realizes the re-positioning and pressing of the mesh after the re-pressing of the pressing roller 30. The third pressing needle row 43 realizes the re-pressing and positioning of the mesh before the coating of the covering layer. When the net hanging feeding device 50 is working, the staff installs the net hanging raw material roller on the net hanging frame 51, and guides the net hanging end from the n-shaped guide tube 52 until the net hanging end reaches the position of the deviation correction feeding component 53. The center positioning component 55 can adjust the position of the net hanging frame 51 and the n-shaped guide tube 52 according to the net hanging width information input by the worker from the input end to the controller, so as to ensure that the net output through the n-shaped guide tube 52 is located at the center of the net hanging stress elimination transmission device 20; After the adjustment of the center positioning component 55 is completed, the controller receives the hanging net image information taken by the camera 541, and triggers the correction and feeding component 53 to correct the hanging net after analysis. After the correction is completed, the correction and feeding component 53 moves the corrected hanging net into the power pressure roller 562, and then the power pressure roller 562 inputs the hanging net into the hanging net stress elimination transmission device 20; When the center positioning component 55 is working, the controller receives the distance information between the outer wall of the n-shaped guide tube 52 and the inner wall of the base box body 12 measured by the distance sensor 552, and triggers the third linear module 551 to work. The execution end of the third linear module 551 drives the hanging grid frame 51 and the n-shaped guide tube 52 to move until the distance information reaches the set value; When the deflection correction feeding component 53 is working, the execution end of the first micro linear module 531 can drive the pressing wheel 535 to move along the X-axis direction to correct the deflection of the hanging net in the X-axis direction, and the execution end of the second micro linear module 533 can drive the pressing wheel 535 to move along the Y-axis direction to correct the deflection of the hanging net in the Y-axis direction; After the deflection correction is completed, the second micro linear modules 533 in the two deflection correction feeding components 53 move synchronously to move the deflected hanging net to the power pressing roller 562. After the hanging net reaches the power pressing roller 562, the electromagnetic ring 537 is powered off to cancel the magnetic attraction of the shaft 536, and the pressing wheel 535 can rotate freely. When the cutting component 56 is working, the execution end of the driving cylinder 564 drives the extension rod 563 to move, and the extension rod 563 drives the slitting knife 561 to move, and the slitting knife 561 cuts the hanging net.

[0029] Although an embodiment of the present invention has been shown and described, this specific embodiment is merely an explanation of the present invention and is not a limitation of the invention. The specific features, structures, materials or characteristics described may be combined in a suitable manner in any one or more embodiments or examples. After reading this specification, those skilled in the art may make modifications, substitutions and variations to the embodiments without creative contributions as needed without departing from the principles and purpose of the present invention. However, as long as they are within the scope of the claims of the present invention, they are protected by patent law.

Claims

1. A multifunctional construction device for interior construction of a building, comprising a frame plate (10), a construction positioning component (11) vertically arranged on the top of the frame plate (10), a base box body (12) arranged at the execution end of the construction positioning component (11), and an adhesive layer feeding component (13), a mesh stress relief transmission device (20), a pressing roller (30), a mesh pressing device (40) and a covering layer feeding component (14) arranged in sequence in the base box body (12), characterized in that: The screen pressing device (40) comprises a first pressing needle row (41), a second pressing needle row (42) and a third pressing needle row (43) which are arranged in sequence and at equal intervals, and a power component (44) which is arranged on the outer wall of the base box body (12) and is used to simultaneously drive the first pressing needle row (41), the second pressing needle row (42) and the third pressing needle row (43) to reciprocate; The first row of pressing needles (41) is located between the mesh stress relief transmission device (20) and the pressing roller (30), and the second row of pressing needles (42) and the third row of pressing needles (43) are located between the pressing roller (30) and the covering layer feeding component (14); It also includes a net hanging feeding device (50) arranged on the outer wall of the base box body (12) and the discharge end extending to the feed end of the net hanging stress elimination transmission device (20), the net hanging feeding device (50) includes a net hanging frame (51) slidably connected to the outer wall of the base box body (12), an n-shaped conduit (52) with a feed end connected to the net hanging frame (51) and a discharge end extending to the feed end of the net hanging stress elimination transmission device (20), two deviation correction and feeding components (53) symmetrically arranged on the inner wall of the discharge end of the n-shaped conduit (52), and a grid shooting component (54) arranged at the discharge end of the n-shaped conduit (52).

2. A multifunctional construction equipment for interior construction of a building according to claim 1, characterized in that: The power component (44) comprises a frame plate (441) whose outer wall is connected to the ends of the first pressing needle row (41), the second pressing needle row (42) and the third pressing needle row (43), a movable plate (442) whose one end is connected to the frame plate (441) and the other end passes through the base box body (12) and extends to the outside of the base box body (12), a slide groove (443) passing through the movable plate (442), a power motor (444) arranged on the outer wall of the base box body (12), a turntable (445) arranged at the execution end of the power motor (444), and a power shaft (446) eccentrically arranged on the outer wall of the turntable (445), the power shaft (446) being slidably connected to the slide groove (443), and the movable plate (442) being slidably connected to the base box body (12).

3. The multifunctional construction equipment for interior construction of a building according to claim 1, characterized in that: The mesh hanging stress relieving transmission device (20) comprises two driven conveying rollers (21) rotatably connected to the inner wall of the base box body (12) and located on the same horizontal plane, an active conveying roller (22) rotatably connected to the inner wall of the base box body (12) and located on the side of the driven conveying roller (21) away from the adhesive layer feeding component (13), a conveying pressure belt (23) sleeved on the outside of the driven conveying roller (21) and the active conveying roller (22), and a plurality of clamping protrusions (24) arranged in a linear array on the outer wall of the conveying pressure belt (23).

4. The multifunctional construction equipment for interior construction of a building according to claim 1, characterized in that: The deflection correction and feeding component (53) comprises a first micro linear module (531) and a slide rail (532) which are sequentially arranged in the n-shaped guide tube (52), a second micro linear module (533) having one end connected to the execution end of the first micro linear module (531) and the other end slidably connected to the slide rail (532), a protrusion (534) arranged at the execution end of the second micro linear module (533), a shaft (536) having one end rotatably connected to the protrusion (534), a pressure wheel (535) arranged at the end of the shaft (536), and an electromagnetic ring (537) arranged on the outer wall of the protrusion (534) and sleeved on the outside of the shaft (536).

5. The multifunctional construction equipment for interior construction of a building according to claim 1, characterized in that: The grid shooting component (54) comprises a camera (541) arranged at the discharge end of the n-shaped conduit (52).

6. The multifunctional construction equipment for interior construction of a building according to claim 1, characterized in that: It also includes a center positioning component (55) arranged on the outer wall of the base box body (12) and used to drive the net hanging frame (51) to move, the center positioning component (55) includes a third linear module (551) arranged on the outer wall of the base box body (12), and a distance sensor (552) arranged on the outer wall of the n-shaped guide tube (52), and the execution end of the third linear module (551) is connected to the net hanging frame (51).

7. The multifunctional construction equipment for interior construction of a building according to claim 1, characterized in that: The invention also comprises a cutting component (56) located between the discharge end of the n-shaped conduit (52) and the mesh stress relief transmission device (20), wherein the cutting component (56) comprises a slitting knife (561) located between the discharge end of the n-shaped conduit (52) and the mesh stress relief transmission device (20), a power pressure roller (562) rotatably connected to the inner wall of the base box body (12) and located between the slitting knife (561) and the discharge end of the n-shaped conduit (52), two extension rods (563) symmetrically arranged at both ends of the slitting knife (561), and two driving cylinders (564) symmetrically arranged at both sides of the outer wall of the base box body (12), wherein one end of the extension rod (563) is connected to the end of the slitting knife (561), and the other end passes through the base box body (12) and is connected to the execution end of the driving cylinder (564).

8. The multifunctional construction equipment for interior construction of a building according to claim 1, characterized in that: The bonding layer feeding component (13) comprises an n-shaped discharge pipe (131) fixedly arranged in the base box body (12), a storage tank (132) arranged on the frame plate (10) and connected to the n-shaped discharge pipe (131) through a pipeline, and an n-shaped shaping plate (133) having one end connected to the outer wall of the n-shaped discharge pipe (131), the covering layer feeding component (14) has the same structure as the bonding layer feeding component (13), and the end of the n-shaped shaping plate (133) in the bonding layer feeding component (13) extends to the hanging net stress elimination transmission device (20).

9. The multifunctional construction equipment for interior construction of a building according to claim 1, characterized in that: The construction positioning component (11) comprises two fourth linear modules (111) symmetrically arranged on the top of the frame plate (10), a lifting plate (112) whose two ends are respectively connected to the execution ends of the two fourth linear modules (111), a mounting plate (113) arranged on the outer wall of the base box body (12) and rotatably connected to the lifting plate (112), a reducer (114) arranged on the side of the lifting plate (112) away from the mounting plate (113), and a stepping motor (115) arranged on the outer wall of the mounting plate (113), wherein the output end of the stepping motor (115) is connected to the input end of the reducer (114), and the output end of the reducer (114) is connected to the mounting plate (113) via an output shaft.

10. A construction method for a multifunctional construction device inside a building according to any one of claims 1 to 9, characterized in that: The following steps are involved: Step 1: Loading the net; manually mounting the net roll on the net rack (51), and guiding the end of the net through the n-shaped guide tube (52) until the end of the net reaches the position of the deviation correction and loading component (53); Step 2, preparatory transmission of the hanging net; the controller receives the hanging net grid information photographed by the grid photographing component (54), and triggers the correction feeding component (53) to correct the hanging net after analysis. After the correction is completed, the hanging net is transmitted to the hanging net stress elimination transmission device (20) by the power pressure roller (562). The hanging net stress elimination transmission device (20) transmits the hanging net by embedding the hanging net grid until the hanging net end reaches the predetermined position; Step 3: Construction positioning; the electric frame at the bottom of the frame plate (10) and the construction positioning component (11) work together to move the base box (12) to the starting point of the mesh hanging construction and drive the base box (12) to move according to a preset mesh hanging path; Step 4: Construction of the adhesive layer: During the movement of the base box body (12), the adhesive layer feeding component (13) applies the adhesive layer to the moving path to form the adhesive layer; Step 5, pressing the mesh in; the mesh stress elimination transmission device (20) continuously transmits the mesh whose end reaches the predetermined position, and the mesh is pressed into the adhesive layer under the coordinated work of the mesh pressing device (40) and the pressing roller (30). When the mesh is pressed in, it is squeezed into the adhesive layer by the first pressing needle row (41), the pressing roller (30), the second pressing needle row (42) and the third pressing needle row (43) in sequence; Step 6: Construction of the covering layer: The covering layer feeding component (14) applies the covering layer to the adhesive layer after the mesh is pressed in to form the covering layer, so as to complete the construction.

Images