A material distribution device for quartz stone slabs

Abstract

This invention discloses a quartz stone slab laying device, comprising: a composite support frame; a horizontal longitudinal traveling mechanism and a laying body mechanism are respectively installed on the inner side of the top and one side of the top of the composite support frame; horizontal transverse traveling mechanisms are installed on both sides of the middle of the horizontal longitudinal traveling mechanism; a multi-functional conveyor belt is movably sleeved on the outer side of the horizontal transverse traveling mechanism; a mold cavity material frame is movably connected to one side of the top of the multi-functional conveyor belt; and a two-stage recovery mechanism is sleeved on the inner side of the middle of the composite support frame. When the composite support frame, horizontal longitudinal traveling mechanism, horizontal transverse traveling mechanism, and multi-functional conveyor belt of this invention are assembled and used together, they can form a horizontal longitudinal and transverse self-propelled mechanism. When used in conjunction with the laying body mechanism, quartz stone can be evenly laid inside the mold cavity material frame, and the laying uniformity is stable.

Description

Technical Field

[0001] This invention relates to the field of feeding equipment technology, specifically to a feeding device for quartz stone slabs. Background Technology

[0002] Quartz stone, as we usually refer to it, is a new type of artificial stone made of more than 90% quartz crystals, plus resin and other trace elements. It is a large-format slab pressed by special machines under certain physical and chemical conditions. Its main material is quartz. The existing process of manufacturing artificial quartz slabs generally includes the following steps: quartz raw material collection → material selection → batching → mixing → material distribution → vacuum high-frequency vibration pressing → heating and curing → thickness grinding → polishing → slab cutting → packaging and warehousing. During the material distribution process, the material is generally transported to the mold cavity by a material distribution machine. However, most current material distribution devices are single funnel devices, which result in unstable material distribution uniformity. Furthermore, during the process of changing material frames in multiple mold cavities and during the intervals of material distribution by the material distribution device, spillage of quartz raw materials is unavoidable. However, the existing material distribution devices do not consider the recovery of spilled quartz raw materials during the material distribution process. Generally, they are only collected uniformly after one processing cycle. This increases the labor intensity of workers and extends the turnover time of the device. Moreover, it is necessary to separate and prevent impurities from the spilled quartz raw materials after collection. Summary of the Invention

[0003] The present invention provides a material feeding device for quartz stone slabs, which solves the problems mentioned in the background art.

[0004] The present invention provides the following technical solution: a quartz stone slab feeding device, comprising a composite support frame, wherein a horizontal longitudinal traveling mechanism and a feeding body mechanism are respectively installed on the inner side of the top of the composite support frame and one side of the top, a horizontal transverse traveling mechanism is installed on both sides of the middle of the horizontal longitudinal traveling mechanism, a multi-functional conveyor belt is movably sleeved on the outer side of the horizontal transverse traveling mechanism, a mold cavity material frame is movably connected to one side of the top of the multi-functional conveyor belt, and a two-stage recycling mechanism is sleeved on the inner side of the middle of the composite support frame.

[0005] Preferably, the multifunctional conveyor belt is fixedly connected with isolation strips on both sides, and the multifunctional conveyor belt does not contact the two-stage recycling mechanism. The width of the multifunctional conveyor belt is the same as the width of one end of the two-stage recycling mechanism.

[0006] A guide sleeve is snapped onto the outer side of the bottom of the mold cavity material frame, and the bottom of the guide sleeve is fixedly connected to the top surface of one side of the multi-functional conveyor belt. One side of the inside of the mold cavity material frame is aligned with the bottom of the fabric body mechanism.

[0007] An auxiliary bracket is fixedly connected to one side of the middle part of the fabric body mechanism, and the bottom of the auxiliary bracket is fixedly connected to the surface of the top side of the composite support frame. The fabric body mechanism is perpendicular to the composite support frame.

[0008] Preferably, the horizontal longitudinal traveling mechanism includes a composite lead screw, and a threaded sleeve is threaded to the surface of the middle part of the composite lead screw. A traveling linkage plate is fixedly sleeved on the surface of the threaded sleeve. A bearing is fixedly connected to one end of the composite lead screw, and a bearing seat is fixedly sleeved on the surface of the bearing. The bottom of the bearing seat is fixedly connected to the inner wall of the top of the composite support frame. A first servo motor is fixedly installed at the other end of the composite lead screw, and the bottom of the first servo motor is fixedly connected to the surface of the bottom of the composite support frame.

[0009] Preferably, the composite lead screw assembly consists of a lead screw and two guide rods, with both ends of the lead screw fixedly connected to one end of each of the two guide rods and concentrically positioned. One end of one guide rod inside the composite lead screw assembly is fixedly connected to a bearing, and one end of the other guide rod is fixedly connected to a first servo motor. The guide rod inside the composite lead screw assembly is fully movably fitted inside the multi-functional conveyor belt. Two anti-deviation constraint rods are internally engaged on both sides of the traveling linkage plate, and both ends of the two anti-deviation constraint rods are fixedly connected to the side walls on both sides of the top of the composite support frame.

[0010] Preferably, each of the two horizontal lateral travel mechanisms includes a first drive shaft, and a second servo motor is fixedly mounted on one end of one of the first drive shafts. The base of the second servo motor extends into the interior of the multi-functional conveyor belt and is fixedly connected to the side of the travel linkage plate. An auxiliary bearing is fixedly sleeved on the middle surface of each of the two first drive shafts. The two auxiliary bearings are respectively fixedly sleeved on the interior of both sides of the travel linkage plate. An extension roller is fixedly connected to both ends of each of the two first drive shafts. The surface of the extension roller is movably connected to the inner wall of the multi-functional conveyor belt.

[0011] Preferably, the fabric body mechanism includes a fabric funnel tank, the bottom of which is aligned with one side of the mold cavity material frame. The surface of one side of the middle portion of the fabric funnel tank is fixedly connected to an auxiliary support. A second drive shaft is movably sleeved on the inner side of the middle portion of the fabric funnel tank. A first spiral blade is fixedly connected to the bottom surface of the second drive shaft. The surface of the first spiral blade is movably connected to the inner wall of the bottom of the fabric funnel tank. A stirring rod is fixedly connected to the top surface of the fabric funnel tank. A third servo motor is fixedly connected to the top of the second drive shaft. A base is fixedly connected to the surface of the third servo motor, and one side of the base is fixedly connected to the surface of the other side of the top of the fabric funnel tank.

[0012] Preferably, the two-stage recycling mechanism includes a material conveying pipe, and a third drive shaft is movably sleeved inside the material conveying pipe. A second spiral blade is fixedly connected to the surface of one end of the third drive shaft, and the second spiral blade is movably sleeved inside the material conveying pipe. A receiving square curved pipe is fixedly connected to the other end of the material conveying pipe. One end of the third drive shaft passes through the side wall of one side of the material conveying pipe and is movably sleeved. A fourth servo motor is fixedly connected to one end of the third drive shaft. The servo motors of the horizontal longitudinal travel mechanism, the material distribution body mechanism, and the horizontal transverse travel mechanism are controlled through remote intelligent monitoring of the mold cavity material frame. The remote intelligent monitoring includes: establishing a remote intelligent monitoring model of the mold cavity material frame.

[0013] Capture images of the fabric within the mold cavity frame to obtain real-time monitoring images of the fabric;

[0014] The system intelligently compares real-time monitored fabric images with set fabric images through an intelligent fabric cloud system.

[0015] The servo motor states of the horizontal longitudinal travel mechanism, the cloth body mechanism, and the horizontal transverse travel mechanism when setting the cloth image are used as reference states.

[0016] Based on the intelligent comparison results between the real-time monitored fabric image and the set fabric image, the start / stop and rotation status of the servo motor are adjusted until the intelligent comparison results between the real-time monitored fabric image and the set fabric image meet the set intelligent comparison image training accuracy, and then precision fabric is applied.

[0017] Preferably, the intelligent fabric cloud system includes: an intelligent fabric cloud server, a remote signal terminal for the fabric device, a mobile operation terminal for the fabric site, and a management and control terminal for the fabric site;

[0018] The intelligent fabric cloud server is used to send calculation results and status information to the fabric site management and control terminal, and to receive service update and upload commands from the fabric site management and control terminal.

[0019] The intelligent fabric cloud server consists of a network server cluster, a data storage server cluster, and a data information security server cluster.

[0020] The network server cluster is used to run application service software;

[0021] The data storage server cluster is used to store and process large amounts of data;

[0022] The data security server cluster is used to isolate computers and the networks they use, and to ensure network security through access restrictions.

[0023] The service software is divided into core functional modules and basic modules;

[0024] The basic modules include: a basic information module, a system management module, and an information service module;

[0025] The core functional modules include: energy consumption simulation module, energy-saving diagnosis module, project operation analysis module, and energy-saving project verification module;

[0026] The data storage server cluster includes: an equipment library, an energy efficiency standard database, a renovation scheme library, and a standard equipment library under the basic information module;

[0027] The remote signal terminal of the fabric device is used to send customized fabric information required by the user to the fabric site management and control terminal, form intelligent customized fabric information, and receive the calculation results and status information from the intelligent fabric cloud server, and download the corresponding intelligent customized fabric data.

[0028] The fabric field mobile operation terminal is used to receive remote fabric customization information on the user's mobile terminal, and at the same time receive the corresponding calculation results and status information;

[0029] The fabric site management and control terminal is used to receive fabric site information from the remote signal terminal of the fabric device and the mobile operation terminal of the fabric site, and upload the corresponding fabric information to the intelligent fabric cloud server. After the user is verified by the account, he / she obtains the permission, so that the user can access the corresponding resource data through the client and perform customized intelligent fabric.

[0030] Preferably, the intelligent fabric cloud system includes: a comparison module, a processing module, a first acquisition module, a first deletion module, a construction module, a second acquisition module, a second deletion module, a generation module, a third deletion module, a calculation module, and a control module connected in sequence;

[0031] The comparison module is used to intelligently compare the real-time monitored fabric image with the set fabric image to obtain the corresponding intelligent comparison image training accuracy, and to determine whether the intelligent comparison image training accuracy meets the set intelligent comparison image training accuracy. If so, a hold command is output.

[0032] The processing module is used to enhance the real-time monitoring fabric image to obtain an optimized monitoring fabric image when the training accuracy of the intelligent comparison image does not meet the set training accuracy of the intelligent comparison image.

[0033] The first acquisition module is used to acquire the grayscale value, chromaticity value, and brightness value of each pixel in the optimized monitoring fabric image;

[0034] The first deletion module is used to delete the first pixel in the optimized monitoring fabric image whose grayscale value is equal to the preset background grayscale value, the second pixel whose chromaticity value is equal to the preset background chromaticity value, and the third pixel whose brightness value is equal to the preset brightness value.

[0035] The construction module is used to construct the corresponding grayscale matrix, chromaticity matrix, and luminance matrix based on the grayscale value, chromaticity value, and luminance value corresponding to the remaining fourth pixel in the optimized monitoring fabric image.

[0036] The second acquisition module is used to obtain the corresponding grayscale horizontal change curve, grayscale vertical change curve, and grayscale diagonal change curve based on the grayscale matrix. At the same time, it obtains the corresponding chroma horizontal change curve, chroma vertical change curve, and chroma diagonal change curve based on the chroma matrix. At the same time, it obtains the corresponding luminance horizontal change curve, luminance vertical change curve, and luminance diagonal change curve based on the luminance matrix.

[0037] The second deletion module is used to fuse and compare the horizontal grayscale variation curve, the horizontal chroma variation curve, and the horizontal brightness variation curve to filter out and delete the first outlier pixel. At the same time, it fuses and compares the vertical grayscale variation curve, the vertical chroma variation curve, and the vertical brightness variation curve to filter out and delete the second outlier pixel. Simultaneously, it fuses and compares the diagonal grayscale variation curve, the diagonal chroma variation curve, and the diagonal brightness variation curve to filter out and delete the third outlier pixel.

[0038] The generation module is used to generate corresponding chroma images, grayscale images, and luminance images based on the remaining fifth pixel in the optimized monitoring fabric image;

[0039] The third deletion module is used to perform texture recognition on the chroma image, the grayscale image, and the luminance image to obtain a first texture feature, a second texture feature, and a third texture feature, and to match and compare the first texture feature, the second texture feature, and the third texture feature to filter out and delete a fourth outlier.

[0040] The calculation module is used to calibrate the remaining sixth pixel in the optimized monitoring fabric image, calculate the real-time density of fabric particles in the optimized monitoring fabric image based on the calibration result, extract the set density of fabric particles in the set fabric image, calculate the density difference between the set density of fabric particles and the real-time density of fabric particles, obtain the corresponding operating parameters based on the preset density difference-operating parameter mapping table, and generate the corresponding modification parameter instruction based on the operating parameters.

[0041] The control module is used to control the longitudinal traveling mechanism, the fabric body mechanism, and the horizontal traveling mechanism to maintain their current working state when the holding command is received.

[0042] The control module is also used to modify the servo motor operating parameters corresponding to the longitudinal traveling mechanism, the fabric body mechanism, and the horizontal traveling mechanism based on the modification parameter instruction when the modification parameter instruction is received.

[0043] Preferably, the data information security server cluster includes: a receiving module, a matching module, a determining module, a sorting module, a verification module, a secondary verification module, and a communication module connected in sequence;

[0044] The receiving module is used to receive a permission acquisition request input by the user, wherein the permission acquisition request contains the user's unverified user information, and the permission acquisition request is used to obtain permissions from the intelligent fabric cloud system.

[0045] The matching module is used to obtain example information corresponding to each user information category when the permission acquisition request is received, match the user information to be verified with the example information, determine whether there is a first field in the user information to be verified that matches the example information, if so, obtain the matching degree between the first field and the example information, and arrange the first field in the user information to be verified in descending order of the matching degree to obtain a field list corresponding to each user information category;

[0046] Otherwise, issue a permission acquisition failure command;

[0047] The determining module is used to take the user information category corresponding to the maximum matching degree of each field in the user information to be verified as the user information category attribute of the corresponding field.

[0048] The sorting module is used to reorder each field in the user information to be verified based on a preset verification order and the user information category attribute corresponding to each field in the user information to be verified, and generate standard user information to be verified.

[0049] The verification module is used to determine whether there is pre-stored user information in the user information database that is consistent with the standard user information to be verified. If so, a permission acquisition success command is issued.

[0050] The secondary verification module is used to match the standard user information to be verified with all pre-stored user information when no pre-stored user information in the user information database matches the standard user information to be verified. If there is pre-stored user information to be verified with a matching degree greater than zero, the module determines the second difference field in the pre-stored user information to be verified, retrieves the field list corresponding to the user information category attribute of the second difference field, and checks whether there is a candidate field in the field list that matches the second difference field. If so, a permission acquisition success command is issued.

[0051] Otherwise, issue a permission acquisition failure command;

[0052] The secondary verification module is also used to issue a permission acquisition failure instruction when there is no pre-stored user information to be verified with a matching degree greater than zero to the standard user information to be verified.

[0053] The communication module is used to establish a communication link between the data storage server cluster and the client when the permission acquisition success instruction is received.

[0054] The present invention has the following beneficial effects:

[0055] 1. The composite support frame, horizontal longitudinal travel mechanism, horizontal transverse travel mechanism and multi-functional conveyor belt set in this invention can be assembled and used to form a horizontal transverse and longitudinal self-propelled mechanism. When used together with the material laying body mechanism, quartz stone can be evenly laid inside the mold cavity material frame, and the uniformity of the material laying is stable.

[0056] 2. This invention assembles a horizontal longitudinal and horizontal self-propelled mechanism by combining a composite support frame, a horizontal transverse traveling mechanism, and a multi-functional conveyor belt. In addition to providing power for the automatic displacement of subsequent related components, it also serves as a receiving surface and preliminary conveying mechanism for spilled quartz raw materials during the replacement and placement of multiple mold cavity material frames and the intermittent material distribution of the material distribution device, thereby achieving the effect of recycling spilled quartz raw materials during the material distribution process.

[0057] 3. When the two-stage recycling mechanism of this invention is used in conjunction with the above-mentioned horizontal and vertical self-propelled feeding mechanism, it can realize two-stage automated conveying of spilled quartz raw materials, further reducing the labor intensity of workers and shortening the turnaround time of the device. Moreover, the closed conveying process of the two-stage recycling mechanism avoids the phenomenon of other impurities being mixed in, solving the problem that it is still necessary to carry out anti-impurity separation when collecting spilled quartz raw materials.

[0058] 4. This invention, by setting up a comparison module, processing module, first acquisition module, first deletion module, construction module, second acquisition module, second deletion module, generation module, third deletion module, calculation module, and control module in the intelligent fabric cloud system, realizes intelligent comparison between real-time monitored fabric images and set fabric images. Based on the intelligent comparison results, it can determine whether the operating parameters of the servo motors corresponding to the longitudinal traveling mechanism, the fabric body mechanism, and the horizontal traveling mechanism meet the requirements. If not, by using the chroma, grayscale, brightness, and texture features corresponding to each pixel in the real-time monitored fabric image and the set fabric image, the fabric particle density values ​​contained in each of the real-time monitored fabric image and the set fabric image are filtered out. Based on the difference in fabric particle density contained in the real-time monitored fabric image and the set fabric image, the modified values ​​of the operating parameters of the servo motors corresponding to the longitudinal traveling mechanism, the fabric body mechanism, and the horizontal traveling mechanism can be obtained, thereby adjusting the operating parameters of the servo motors corresponding to the longitudinal traveling mechanism, the fabric body mechanism, and the horizontal traveling mechanism to make the fabric process meet the requirements.

[0059] 5. This invention, by setting up a receiving module, a matching module, a determining module, a sorting module, a verification module, and a secondary verification module in the data information security server cluster, realizes the function of obtaining user permissions based on the user information verification process, ensuring the information security of the intelligent fabric cloud system and preventing malicious intrusion. Attached Figure Description

[0060] Figure 1 This is a front view schematic diagram of the structure of the present invention;

[0061] Figure 2 This is a top view schematic diagram of the horizontal longitudinal traveling mechanism of the present invention;

[0062] Figure 3 This is a cross-sectional schematic diagram of the fabric body structure of the present invention;

[0063] Figure 4 This is a cross-sectional schematic diagram of the two-stage recycling mechanism of the present invention;

[0064] Figure 5 The structure of this invention Figure 1 Enlarged view of point A in the middle;

[0065] Figure 6 The structure of this invention Figure 2 Enlarged diagram of point B in the middle.

[0066] In the diagram: 1. Composite support frame; 2. Horizontal longitudinal traveling mechanism; 21. Composite lead screw; 22. Screw sleeve; 23. Traveling linkage plate; 24. First servo motor; 25. Anti-deviation constraint rod; 3. Horizontal transverse traveling mechanism; 31. First drive shaft; 32. Auxiliary bearing; 33. Extended sleeve roller; 4. Multifunctional conveyor belt; 5. Fabric feeding body mechanism; 51. Fabric feeding funnel tank; 52. Second drive shaft; 53. Third servo motor; 54. Stirring rod; 55. First spiral blade; 6. Mold cavity material frame; 7. Two-stage recycling mechanism; 71. Conveying pipe; 72. Receiving square curved pipe; 73. Third drive shaft; 74. Second spiral blade; 8. Guide sleeve; 9. Isolation baffle. Detailed Implementation

[0067] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0068] Please see Figure 1 , Figure 2 , Figure 3 , Figure 5 , Figure 6A quartz slab feeding device includes a composite support frame 1. A horizontal longitudinal traveling mechanism 2 and a feeding body mechanism 5 are respectively installed on the inner side of the top and one side of the top of the composite support frame 1. The horizontal longitudinal traveling mechanism 2 includes a composite screw rod 21, and a threaded sleeve 22 is threaded onto the surface of the middle part of the composite screw rod 21. A traveling linkage plate 23 is fixedly sleeved on the surface of the threaded sleeve 22. A bearing is fixedly connected to one end of the composite screw rod 21, and a bearing seat is fixedly sleeved on the surface of the bearing. The bottom of the bearing seat is fixedly connected to the inner wall of the top of the composite support frame 1. A first servo motor 24 is fixedly installed at the other end of the composite screw rod 21, and the bottom of the first servo motor 24 is fixedly connected to the composite support frame 1. On the bottom surface, the horizontal longitudinal traveling mechanism 2 provides power for the subsequent components that rely on it to travel horizontally and longitudinally, thus initially improving the automation performance of the device. The composite lead screw component 21 consists of a lead screw and two guide rods, with each end of the lead screw fixedly connected to one end of each of the two guide rods and concentrically positioned. One end of one guide rod inside the composite lead screw component 21 is fixedly connected to a bearing, and one end of the other guide rod is fixedly connected to the first servo motor 24. The guide rod inside the composite lead screw component 21 is fully movably sleeved inside the multi-functional conveyor belt 4. Two anti-deviation constraint rods 25 are internally engaged on both sides of the traveling linkage plate 23, and the two ends of the anti-deviation constraint rods 25 are fixed to the side walls on both sides of the top of the composite support frame 1. The composite screw component 21 adopts a multi-segment structure, which facilitates its subsequent concealment within the components set by the longitudinal travel mechanism 2, achieving a dustproof effect. An auxiliary bracket is fixedly connected to one side of the middle portion of the fabric body mechanism 5, and the bottom of the auxiliary bracket is fixedly connected to the top side of the composite support frame 1. The fabric body mechanism 5 is perpendicular to the composite support frame 1. The auxiliary bracket connects the fabric body mechanism 5 and the composite support frame 1 into a whole, improving the integrity of the device. Furthermore, subsequent movement of the entire device does not require consideration of the transfer of individual structures. The interior of the fabric body mechanism 5 includes a fabric funnel tank 51, and the bottom of the fabric funnel tank 51 is aligned with one side of the mold cavity material frame 6. The surface of one side of the middle portion of the fabric funnel tank 51 is aligned with the auxiliary bracket. The support bracket is fixedly connected. A second drive shaft 52 is movably sleeved on the inner side of the middle part of the feeding funnel tank 51. A first spiral blade 55 is fixedly connected to the bottom surface of the second drive shaft 52. The surface of the first spiral blade 55 is movably connected to the inner wall of the bottom of the feeding funnel tank 51. A stirring rod 54 is fixedly connected to the top surface of the feeding funnel tank 51. A third servo motor 53 is fixedly connected to the top of the second drive shaft 52. A base is fixedly connected to the surface of the third servo motor 53, and one side of the base is fixedly connected to the surface of the other side of the top of the feeding funnel tank 51. The feeding body mechanism 5 realizes automated and anti-clogging feeding, and its bottom inner structure has a self-locking condition. Horizontal transverse traveling mechanisms 3 are installed on both sides of the middle part of the horizontal longitudinal traveling mechanism 2.Each of the two horizontal lateral travel mechanisms 3 includes a first drive shaft 31. A second servo motor is fixedly mounted at one end of one of the first drive shafts 31. The base of the second servo motor extends into the interior of the multi-functional conveyor belt 4 and is fixedly connected to the side of the travel linkage plate 23. Auxiliary bearings 32 are fixedly sleeved on the middle surfaces of both first drive shafts 31, and are respectively fixedly sleeved inside the two sides of the travel linkage plate 23. Extended rollers 33 are fixedly connected to both ends of the two first drive shafts 31. The surfaces of the extended rollers 33 are movably connected to the inner wall of the multi-functional conveyor belt 4. The horizontal lateral travel mechanism 3 provides the power for the horizontal lateral movement of subsequent components, further improving the automation of the device. The performance features a multi-functional conveyor belt 4 movably sleeved on the outer side of the horizontal lateral travel mechanism 3. A mold cavity material frame 6 is movably connected to one side of the top of the multi-functional conveyor belt 4. A guide sleeve 8 is snapped onto the outer side of the bottom of the mold cavity material frame 6, and the bottom of the guide sleeve 8 is fixedly connected to the top surface of one side of the multi-functional conveyor belt 4. One side of the inside of the mold cavity material frame 6 is aligned with the bottom of the fabric laying mechanism 5. The guide sleeve 8 provides positional guidance for the connection between the mold cavity material frame 6 and the multi-functional conveyor belt 4, further facilitating operator operation. Furthermore, after the composite support frame, horizontal longitudinal travel mechanism, horizontal lateral travel mechanism, and multi-functional conveyor belt are assembled and used together, a horizontal longitudinal and lateral self-propelled travel mechanism can be formed. When used in conjunction with the fabric laying mechanism, quartz stone can be evenly laid inside the mold cavity material frame, with stable and uniform fabric distribution.

[0069] Please see Figure 4 A two-stage recycling mechanism 7 is sleeved on the inner side of the middle of the composite support frame 1. Isolation strips 9 are fixedly connected to both the front and back of the multi-functional conveyor belt 4, and the multi-functional conveyor belt 4 does not contact the two-stage recycling mechanism 7. The width of the multi-functional conveyor belt 4 is the same as the width of one end of the two-stage recycling mechanism 7. The isolation strips 9 can provide shielding for the top space of the multi-functional conveyor belt 4, improving the subsequent material collection effect. The interior of the two-stage recycling mechanism 7 includes a conveying pipe 71, and a third drive shaft 73 is movably sleeved inside the conveying pipe 71. A second spiral blade 74 is fixedly connected to the surface of one end of the third drive shaft 73. The second spiral blade 74 is movably sleeved inside the conveying pipe 71. The other end of the conveying pipe 71 is fixedly connected to the receiving square curved pipe 72. One end of the third drive shaft 73 passes through the side wall of one side of the conveying pipe 71 and is movably sleeved. One end of the third drive shaft 73 is fixedly connected to the fourth servo motor. The two-stage recovery mechanism 7 can realize the two-stage automated conveying of spilled quartz raw materials, further reducing the labor intensity of workers and shortening the turnaround time of the device. Moreover, the closed conveying process of the two-stage recovery mechanism 7 avoids the phenomenon of other impurities being mixed in, solving the problem that the current unified collection of spilled quartz raw materials still requires the separation of impurities.

[0070] Working Principle: During use, multiple steps need to be performed sequentially within the same time period, and the time interval between operations should not be too long. The third servo motor 53 inside the fabric feeding mechanism 5 is activated. The third servo motor 53 drives the stirring rod 54 and the third servo motor 53 to rotate via the second transmission shaft 52. The rotating stirring rod 54 will stir the quartz raw material inside the fabric feeding funnel tank 51 to prevent condensation. Meanwhile, the rotating first spiral blade 55 will automatically output the quartz raw material inside the fabric feeding funnel tank 51 through the bottom of the fabric feeding funnel tank 51. The surface of the first spiral blade 55 is movably connected to the inner wall of the bottom of the fabric feeding funnel tank 51, achieving automatic material feeding while simultaneously regulating the material feeding channel at the bottom of the fabric feeding funnel tank 51. The quartz raw material output from the bottom of the fabric funnel tank 51 will fall into one side of the mold cavity material frame 6. At the same time, the first servo motor 24 inside the horizontal longitudinal travel mechanism 2 is activated and rotated forward. The first servo motor 24, through the composite screw component 21, screw sleeve 22, and travel linkage plate 23, forms a screw transmission mechanism to move the horizontal transverse travel mechanism 3, the multi-functional conveyor belt 4, and the mold cavity material frame 6 on top of the multi-functional conveyor belt 4 horizontally and longitudinally. As a result, the quartz raw material continuously output from the fabric body mechanism 5 will fill the space inside one side of the mold cavity material frame 6 in a straight line. After reaching the limit of the space inside one side of the mold cavity material frame 6, the second servo motor inside the horizontal transverse travel mechanism 3 is immediately activated. Supported by the horizontal longitudinal traveling mechanism 2 and with the cooperation of the first drive shaft 31 and the extended sleeve roller 33 assembly inside the horizontal transverse traveling mechanism 3, the multi-functional conveyor belt 4 drives the mold cavity material frame 6 to move a certain distance. After completion, the first servo motor 24 reverses. Similarly, the first servo motor 24, through the composite screw component 21, screw sleeve 22, and traveling linkage plate 23, forms a screw transmission mechanism to move the horizontal transverse traveling mechanism 3, the multi-functional conveyor belt 4, and the mold cavity material frame 6 at the top of the multi-functional conveyor belt 4 in a horizontal longitudinal backward reset movement. As a result, the quartz raw material continuously output by the material feeding mechanism 5 will fill the empty area inside the mold cavity material frame 6 after displacement adjustment in a straight line. Thus, following the above steps, the horizontal transverse traveling mechanism is reciprocated. The material output from the material feeding mechanism 5 is evenly distributed in the mold cavity material frame 6 by the horizontal longitudinal traveling mechanism 3 and the horizontal longitudinal traveling mechanism 2. During the feeding process, the scattered quartz stone raw materials are collected. After the mold cavity material frame 6 is filled, the second servo motor inside the horizontal transverse traveling mechanism 3 is started. The second servo motor, supported by the horizontal longitudinal traveling mechanism 2 and the first transmission shaft 31 and the extended sleeve roller 33 assembly inside the horizontal transverse traveling mechanism 3, makes the multi-functional conveyor belt 4 rotate one cycle. The quartz stone raw materials scattered on the top surface of the multi-functional conveyor belt 4 will fall into the receiving square curved tube 72. The fourth servo motor is started. The fourth servo motor, through the third transmission shaft 73 and the second spiral blade 74, uniformly rotates and extrudes the scattered quartz stone raw materials for collection.The remote intelligent monitoring of the mold cavity material frame 6 controls the servo motors of the horizontal longitudinal traveling mechanism 2, the material laying body mechanism 5, and the horizontal transverse traveling mechanism 3. The remote intelligent monitoring includes: establishing a remote intelligent monitoring model of the mold cavity material frame 6; acquiring material laying images within the mold cavity material frame 6 to obtain real-time monitored material laying images; intelligently comparing the real-time monitored material laying images with the set material laying images through an intelligent material laying cloud system; using the servo motor states of the horizontal longitudinal traveling mechanism 2, the material laying body mechanism 5, and the horizontal transverse traveling mechanism 3 when the set material laying image is used as reference states; adjusting the start / stop and rotation states of the servo motors based on the intelligent comparison results of the real-time monitored material laying images and the set material laying images; until the intelligent comparison results of the real-time monitored material laying images and the set material laying images meet the set intelligent comparison image training accuracy, achieving the preset material laying state for precision material laying; calculating the resistance force of the material conveying pipe during the material laying process.

[0071]

[0072] Wherein, Bij represents the resistance force value of the conveying pipe during the material distribution process, n represents the unit resistance coefficient value, Li represents the length value of the conveying pipe, Dn represents the inner diameter value of the conveying pipe, Mi represents the sequence of local friction coefficient values, vi represents the transverse velocity value of the material powder during the material distribution process, vj represents the longitudinal turbulent velocity value of the material powder during the material distribution process, and g represents the gravity value; by calculating the resistance force value of the conveying pipe during the material distribution process, when the resistance force value of the conveying pipe during the material distribution process exceeds the set resistance force value range of the conveying pipe during the material distribution process, an alarm is triggered, and the pressure of the conveying pipe is increased to ensure accurate material distribution.

[0073] The intelligent fabric cloud system includes: an intelligent fabric cloud server, a remote signal terminal for the fabric device, a mobile operation terminal for the fabric site, and a management and control terminal for the fabric site. The intelligent fabric cloud server serves as the carrier for service uploads and information dissemination, sending calculation results and status information to the fabric site management and control terminal, and receiving service update and upload commands from the terminal. The intelligent fabric cloud server consists of a network server cluster, a data storage server cluster, and a data security server cluster. The network server cluster runs application service software, the data storage server cluster stores and processes large amounts of data, and the data security server cluster isolates the computer from its network, ensuring network security through access restrictions. The service software running on the network server cluster is divided into two main parts: a core functional module and a basic module. The basic module, serving as the underlying support for the core functional module, includes a basic information module, a system management module, and an information service module. The core functional module includes an energy consumption simulation module. The system comprises an energy-saving diagnostic module, a project operation analysis module, and an energy-saving project verification module; a data storage server cluster, including an equipment library, an energy efficiency standard database, a renovation scheme library, and a standard equipment library under the basic information module; a remote signal terminal for the fabric laying device, used to send customized fabric information required by the user to the fabric site management and control terminal, forming intelligent customized fabric information, and receiving calculation results and status information from the intelligent fabric cloud server, and downloading the corresponding intelligent customized fabric data; a mobile operation terminal for the fabric site, capable of receiving remote fabric customization information on the user's mobile terminal, and simultaneously receiving the corresponding calculation results and status information; and a management and control terminal for the fabric site, serving as a hub connecting the intelligent fabric cloud server and the user, used to receive fabric site information from the remote signal terminal for the fabric laying device and the mobile operation terminal for the fabric site, and to upload the corresponding fabric information to the intelligent fabric cloud server. After user account verification, access is granted, allowing the user to access the corresponding resource data through the client; and to perform customized intelligent fabric laying.

[0074] The intelligent fabric cloud system includes: a comparison module, a processing module, a first acquisition module, a first deletion module, a construction module, a second acquisition module, a second deletion module, a generation module, a third deletion module, a calculation module, and a control module connected in sequence.

[0075] The comparison module is used to intelligently compare the real-time monitored fabric image (the fabric image in the mold cavity frame 6 acquired in real time) with the set fabric image (the standard fabric image in the mold cavity frame 6 stored in advance) to obtain the corresponding intelligent comparison image training accuracy (i.e. the difference between the real-time monitored fabric image and the set fabric image), and determine whether the intelligent comparison image training accuracy meets the set intelligent comparison image training accuracy. If so, a hold command is output.

[0076] The processing module is used to enhance the real-time monitoring fabric image to obtain an optimized monitoring fabric image when the training accuracy of the intelligent comparison image does not meet the set training accuracy of the intelligent comparison image.

[0077] The first acquisition module is used to acquire the grayscale value, chromaticity value, and brightness value of each pixel in the optimized monitoring fabric image;

[0078] The first deletion module is used to delete the first pixel in the optimized monitoring fabric image whose grayscale value is equal to the preset background grayscale value (the pixel in the grayscale image whose grayscale value is equal to the preset background grayscale value), the second pixel whose chromaticity value is equal to the preset background chromaticity value (the pixel in the chromaticity image whose chromaticity value is equal to the preset background chromaticity value), and the third pixel whose brightness value is equal to the preset brightness value (the pixel in the brightness image whose brightness value is equal to the preset brightness value).

[0079] The construction module is used to construct a corresponding grayscale matrix, chromaticity matrix, and luminance matrix based on the grayscale value, chromaticity value, and luminance value of the remaining fourth pixel in the optimized monitoring fabric image (the remaining pixels in the optimized monitoring fabric image excluding the first, second, and third pixels).

[0080] The second acquisition module is used to obtain the corresponding grayscale horizontal change curve, grayscale vertical change curve, and grayscale diagonal change curve based on the grayscale matrix. At the same time, it obtains the corresponding chroma horizontal change curve, chroma vertical change curve, and chroma diagonal change curve based on the chroma matrix. At the same time, it obtains the corresponding luminance horizontal change curve, luminance vertical change curve, and luminance diagonal change curve based on the luminance matrix.

[0081] The second deletion module is used to fuse and compare the horizontal grayscale variation curve, the horizontal chroma variation curve, and the horizontal brightness variation curve to filter out and delete the first outlier pixel (pixels that do not overlap in the horizontal grayscale variation curve, the horizontal chroma variation curve, and the horizontal brightness variation curve). At the same time, it fuses and compares the vertical grayscale variation curve, the vertical chroma variation curve, and the vertical brightness variation curve to filter out and delete the second outlier pixel (pixels that do not overlap in the vertical grayscale variation curve, the vertical chroma variation curve, and the vertical brightness variation curve). Simultaneously, it fuses and compares the diagonal grayscale variation curve, the diagonal chroma variation curve, and the diagonal brightness variation curve to filter out and delete the third outlier pixel (pixels that do not overlap in the diagonal grayscale variation curve, the diagonal chroma variation curve, and the diagonal brightness variation curve).

[0082] The generation module is used to generate corresponding chroma images, grayscale images, and luminance images based on the remaining fifth pixel in the optimized monitoring fabric image (the remaining pixels in the optimized monitoring fabric image other than the first pixel, second pixel, third pixel, first outlier pixel, second outlier pixel, and third outlier pixel).

[0083] The third deletion module is used to perform texture recognition on the chroma image, the grayscale image, and the luminance image to obtain a first texture feature, a second texture feature, and a third texture feature, and to match and compare the first texture feature, the second texture feature, and the third texture feature to filter out a fourth outlier (a pixel that does not overlap with the first texture feature, the second texture feature, and the third texture feature) and delete it.

[0084] The calculation module is used to calibrate the remaining sixth pixel in the optimized monitoring fabric image (the remaining pixels in the optimized monitoring fabric image excluding the first, second, third, first outlier, second, third, and fourth outlier pixels), calculate the real-time density of fabric particles in the optimized monitoring fabric image based on the calibration result, extract the set density of fabric particles in the set fabric image, calculate the density difference between the set density of fabric particles and the real-time density of fabric particles, obtain the corresponding operating parameters based on a preset density difference-operating parameter mapping table, and generate corresponding modification parameter instructions based on the operating parameters.

[0085] The control module is used to control the longitudinal traveling mechanism 2, the fabric body mechanism 5, and the horizontal transverse traveling mechanism 3 to maintain their current working state when the holding command is received.

[0086] The control module is also used to modify the servo motor operating parameters corresponding to the longitudinal traveling mechanism 2, the fabric body mechanism 5, and the horizontal traveling mechanism 3 based on the modification parameter instruction when the modification parameter instruction is received.

[0087] In this embodiment, obtaining the corresponding intelligent contrast image training accuracy includes:

[0088]

[0089] In the formula, Δ represents the training accuracy of the comparison image between the real-time monitored fabric image and the set fabric image, i represents the i-th row of the real-time monitored fabric image and the set fabric image, j represents the j-th column of the real-time monitored fabric image and the set fabric image, n represents the total number of rows of pixels in the real-time monitored fabric image or the total number of rows of pixels in the set fabric image (both have the same number of rows), m represents the total number of columns of pixels in the real-time monitored fabric image or the total number of columns of pixels in the set fabric image (both have the same number of columns), and q represents the training accuracy of the comparison image between the real-time monitored fabric image and the set fabric image. 1ij To monitor the grayscale value of the pixel in the i-th row and j-th column of the fabric image in real time, q 2ij To set the grayscale value of the pixel in the i-th row and j-th column of the fabric image, w 1ij To monitor the chromaticity value of the pixel in the i-th row and j-th column of the fabric image in real time, w 2ij To set the chromaticity value of the pixel in the i-th row and j-th column of the fabric image, e 1ij To monitor the brightness value of the pixel in the i-th row and j-th column of the fabric image in real time, e 2ij To set the brightness value of the pixel in the i-th row and j-th column of the fabric image;

[0090] For example, real-time monitoring of the grayscale values ​​of pixels in a fabric image. chromaticity value Brightness value Set the grayscale value of the pixels in the fabric image chromaticity value Brightness value Therefore, Δ is 10.3.

[0091] In this embodiment, the density difference between the set density of the fabric particles and the real-time density of the fabric particles is calculated, including:

[0092]

[0093] In the formula, The density difference between the set density of the fabric particles and the real-time density of the fabric particles, x is the total number of fabric particles in the optimized monitoring fabric image, y is the total number of fabric particles in the set fabric image, n is the total number of rows of pixels in the optimized monitoring fabric image or the total number of rows of pixels in the set fabric image, and m is the total number of columns of pixels in the optimized monitoring fabric image or the total number of columns of pixels in the set fabric image.

[0094] For example, if x is 2, y is 3, n is 2, and m is 2, then It is 0.25.

[0095] The working principle and beneficial effects of the above technology are as follows: The comparison module obtains the corresponding intelligent comparison image training accuracy and determines whether the intelligent comparison image training accuracy meets the set intelligent comparison image training accuracy. If so, it outputs a hold command; the processing module performs enhancement processing on the real-time monitored fabric image when the intelligent comparison image training accuracy does not meet the set intelligent comparison image training accuracy; the acquisition module acquires the grayscale value, chromaticity value, and brightness value of each pixel in the optimized monitored fabric image; the first deletion module deletes the first pixel, the second pixel, and the third pixel; the construction module constructs the corresponding grayscale matrix, chromaticity matrix, and brightness matrix; the acquisition module... The system obtains the corresponding grayscale horizontal variation curve, grayscale vertical variation curve, and grayscale diagonal variation curve, and simultaneously obtains the corresponding chroma horizontal variation curve, chroma vertical variation curve, and chroma diagonal variation curve, and simultaneously obtains the corresponding brightness horizontal variation curve, brightness vertical variation curve, and brightness diagonal variation curve; the second deletion module filters out and deletes the second outlier pixel, and simultaneously filters out and deletes the third outlier pixel; the generation module generates the corresponding chroma image, grayscale image, and brightness image based on the remaining fifth pixel; the third deletion module filters out and deletes the fourth outlier; the calculation module is used to calculate the density difference between the set density of the fabric particles and the real-time density of the fabric particles, based on the preset density. The difference-operation parameter mapping table is used to obtain the corresponding operating parameters, and corresponding modification parameter instructions are generated based on the operating parameters. The control module controls the servo motor operating parameters corresponding to the longitudinal traveling mechanism 2, the fabric body mechanism 5, and the horizontal traveling mechanism 3 based on the received hold instruction or modification parameter instruction. This invention realizes intelligent comparison between real-time monitored fabric images and set fabric images by setting a comparison module, processing module, first acquisition module, first deletion module, construction module, second acquisition module, second deletion module, generation module, third deletion module, calculation module, and control module in the intelligent fabric cloud system. Based on the intelligent comparison results, the longitudinal traveling mechanism and the fabric body mechanism can be determined. And whether the operating parameters of the servo motor corresponding to the horizontal lateral travel mechanism meet the requirements. If not, by filtering out the fabric particle density values ​​contained in the real-time monitored fabric image and the set fabric image based on the chroma, grayscale, brightness and texture features corresponding to each pixel, the difference between the fabric particle density values ​​contained in the real-time monitored fabric image and the set fabric image can be used to obtain the modified operating parameter values ​​of the servo motors corresponding to the vertical travel mechanism, the fabric body mechanism and the horizontal lateral travel mechanism. This allows for the adjustment of the operating parameters of the servo motors corresponding to the vertical travel mechanism, the fabric body mechanism and the horizontal lateral travel mechanism, so that the fabric process meets the requirements.

[0096] The data information security server cluster includes: a receiving module, a matching module, a determining module, a sorting module, a verification module, and a secondary verification module connected in sequence.

[0097] The receiving module is used to receive a permission acquisition request input by the user, wherein the permission acquisition request contains the user's unverified user information (the user information that needs to be verified in the following steps), and the permission acquisition request is used to obtain permissions from the intelligent fabric cloud system.

[0098] The matching module is used to, when receiving the permission acquisition request, obtain example information corresponding to each user information category (e.g., login account, password, user level, etc.) (e.g., example information for login account: 000000), match the user information to be verified with the example information, and determine whether there is a first field in the user information to be verified that matches the example information (matching is matching information attributes, such as matching numbers with numbers, matching special symbols with special symbols, and matching text with text). If so, obtain the matching degree between the first field and the example information (i.e., the ratio of the number of bytes in the first field that match the information attributes of the example information to the total number of bytes contained in the example information), and arrange the first fields in the user information to be verified in descending order of the matching degree to obtain a field list corresponding to each user information category.

[0099] Otherwise, issue a permission acquisition failure command;

[0100] The determining module is used to take the user information category corresponding to the maximum matching degree of each field in the user information to be verified as the user information category attribute of the corresponding field (e.g., login account, password, user level, etc.).

[0101] The sorting module is used to reorder each field in the user information to be verified based on a preset verification order and the user information category attribute corresponding to each field in the user information to be verified, and generate standard user information to be verified.

[0102] The verification module is used to determine whether there is pre-stored user information in the user information database that is consistent with the standard user information to be verified. If so, a permission acquisition success command is issued.

[0103] The secondary verification module is used to match the standard user information to be verified with all pre-stored user information when no pre-stored user information in the user information database matches the standard user information to be verified. If there is pre-stored user information to be verified with a matching degree greater than zero (i.e., the pre-stored user information with the highest matching degree to the standard user information to be verified), the module determines the second difference field in the pre-stored user information to be verified (i.e., the field in the pre-stored user information to be verified that is inconsistent with the standard user information to be verified), and retrieves the field list corresponding to the user information category attribute of the second difference field. The module searches the field list to see if there is a candidate field consistent with the second difference field (i.e., a field in the field list that is consistent with the second difference field). If so, a permission acquisition success command is issued.

[0104] Otherwise, issue a permission acquisition failure command;

[0105] The secondary verification module is also used to issue a permission acquisition failure instruction when there is no pre-stored user information to be verified with a matching degree greater than zero to the standard user information to be verified.

[0106] The communication module is used to establish a communication link between the data storage server cluster and the client when the permission acquisition success instruction is received.

[0107] The working principle and beneficial effects of the above technology are as follows: The receiving module receives the permission acquisition request input by the user; the matching module obtains the field list corresponding to each user information category; the determining module determines the user information category attribute of the corresponding field; the sorting module re-sorts each field in the user information to be verified to generate standard user information to be verified; the verification module determines whether there is pre-stored user information in the user information database that is consistent with the standard user information to be verified, and if so, issues a permission acquisition success command; the secondary verification module, when there is no pre-stored user information in the user information database that is consistent with the standard user information to be verified, matches the standard user information to be verified with all pre-stored user information one by one, and if there is a user information to be verified with a matching degree greater than zero, it will verify the user information to be verified. When pre-storing user information, the second difference field in the pre-stored user information to be verified is determined, and the field list corresponding to the user information category attribute of the second difference field is retrieved. The system checks whether there is a candidate field in the field list that matches the second difference field. If so, a permission acquisition success command is issued. If no pre-stored user information to be verified has a matching degree greater than zero with the standard user information to be verified, the secondary verification module issues a permission acquisition failure command. This invention, by setting up a receiving module, a matching module, a determining module, a sorting module, a verification module, and a secondary verification module in a data information security server cluster, realizes the function of acquiring user permissions based on the user information verification process, ensuring the information security of the intelligent fabric cloud system and preventing malicious intrusion.

[0108] It should be noted that, in this document, relational terms such as "first" and "second" are used merely to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such a process, method, article, or apparatus. Additionally, in the accompanying drawings of this invention, the fill patterns are merely for distinguishing layers and do not constitute any other limitation.

[0109] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A device for laying a sheet of quartz stone, characterized in that: The utility model provides a kind of composite support frame (1), the inside of the top of the composite support frame (1) and the side of the top are respectively equipped with horizontal longitudinal travel mechanism (2) and cloth body mechanism (5), the both sides of the middle of the horizontal longitudinal travel mechanism (2) are equipped with horizontal transverse travel mechanism (3), the outside of the horizontal transverse travel mechanism (3) is movably sleeved with multifunctional conveying belt (4), the side of the top of the multifunctional conveying belt (4) is movably connected with mould cavity material frame (6), the inside of the middle of the composite support frame (1) is sleeved with two-stage recycling mechanism (7); The inside of the horizontal longitudinal travel mechanism (2) includes a composite screw piece (21), and the surface of the middle of the composite screw piece (21) is threadedly connected with a sleeve (22), the surface of the sleeve (22) is fixedly sleeved with a travel linkage plate (23), one end of the composite screw piece (21) is fixedly connected with a bearing, the surface of the bearing is fixedly sleeved with a bearing seat, and the bottom of the bearing seat is fixedly connected to the inner wall of the top of the composite support frame (1), the other end of the composite screw piece (21) is fixedly installed with a first servo motor (24), and the bottom of the first servo motor (24) is fixedly connected to the surface of the bottom of the composite support frame (1); The composite screw piece (21) is composed of one screw rod and two light rods, and the two ends of the specific screw rod are fixedly connected with one end of the two light rods and concentric, one end of one light rod inside the composite screw piece (21) is fixedly connected with a bearing, and the other end of the other light rod is fixedly connected with the first servo motor (24), and the light rods inside the composite screw piece (21) are movably sleeved inside the multifunctional conveying belt (4), two anti-deviation constraint rods (25) are clamped inside the both sides of the travel linkage plate (23), and the two ends of the two anti-deviation constraint rods (25) are fixedly connected with the side walls on the both sides of the top of the composite support frame (1); The inside of the two horizontal transverse travel mechanisms (3) each includes a first transmission shaft (31), one end of one of the two first transmission shafts (31) is fixedly installed with a second servo motor, the base on one side of the second servo motor extends to the inside of the multifunctional conveying belt (4) and is fixedly connected with the side surface of one side of the travel linkage plate (23), the surface of the middle of the two first transmission shafts (31) is fixedly sleeved with an auxiliary bearing (32), the two auxiliary bearings (32) are fixedly sleeved inside the both sides of the travel linkage plate (23), and the both ends of the two first transmission shafts (31) are fixedly connected with expansion sleeve rollers (33), and the surface of the expansion sleeve rollers (33) is movably connected with the inner wall of the multifunctional conveying belt (4).

2. The quartz stone plate material distributing device according to claim 1, characterized in that: The front and back of the multifunctional conveying belt (4) are fixedly connected with isolation bars (9), and the multifunctional conveying belt (4) does not contact the two-stage recycling mechanism (7), and the width value of the multifunctional conveying belt (4) is the same as the width value of one end of the two-stage recycling mechanism (7). The outer side of the bottom of the mold cavity frame (6) is clamped with a guide sleeve strip (8), and the bottom of the guide sleeve strip (8) is fixedly connected to the top surface of one side of the multifunctional conveying belt (4), and one side of the inside of the mold cavity frame (6) is aligned with the bottom of the cloth body mechanism (5); The surface of one side of the middle of the cloth body mechanism (5) is fixedly connected with an auxiliary support, and the bottom of the auxiliary support is fixedly connected to the surface of one side of the top of the composite support frame (1), and the cloth body mechanism (5) is perpendicular to the composite support frame (1).

3. The quartz stone plate material distributing device according to claim 2, characterized in that: The inside of the cloth body mechanism (5) comprises a cloth hopper tank body (51), and the bottom of the cloth hopper tank body (51) is aligned with one side of the inside of the mold cavity frame (6), and the surface of one side of the middle of the cloth hopper tank body (51) is fixedly connected with the auxiliary support, and the inside of the middle of the cloth hopper tank body (51) movably sleeves the second transmission shaft (52), and the surface of the bottom of the second transmission shaft (52) is fixedly connected with the first spiral blade (55), and the surface of the first spiral blade (55) is movably connected with the inner wall of the bottom of the cloth hopper tank body (51), and the surface of the top of the cloth hopper tank body (51) is fixedly connected with the stirring rod (54), and the top end of the second transmission shaft (52) is fixedly connected with the third servo motor (53), and the surface of the third servo motor (53) is fixedly connected with the base, and one side of the base is fixedly connected to the surface of the other side of the top of the cloth hopper tank body (51).

4. The quartz stone plate material distributing device according to claim 1, characterized in that: The inside of the two-section recovery mechanism (7) comprises a feeding pipe (71), and the inside of the feeding pipe (71) movably sleeves the third transmission shaft (73), and the surface of one end of the third transmission shaft (73) is fixedly connected with the second spiral blade (74), and the second spiral blade (74) movably sleeves the inside of the feeding pipe (71), and the other end of the feeding pipe (71) is fixedly connected with the receiving square pipe (72), and one end of the third transmission shaft (73) penetrates through the side wall of one side of the feeding pipe (71) and movably sleeves, and one end of the third transmission shaft (73) is fixedly connected with the fourth servo motor; through the remote intelligent monitoring of the mold cavity frame (6), the servo motors of the horizontal longitudinal traveling mechanism (2) and the cloth body mechanism (5) and the horizontal transverse traveling mechanism (3) are controlled; Remote intelligent monitoring, comprising: Establishing a remote intelligent monitoring model of the mold cavity frame (6): Collecting cloth images in the mold cavity frame (6) to obtain real-time monitoring cloth images; Comparing the real-time monitoring cloth images and the set cloth images through the intelligent cloth cloud system to obtain intelligent comparison of the cloth images; Taking the state of the servo motors of the horizontal longitudinal traveling mechanism (2) and the cloth body mechanism (5) and the horizontal transverse traveling mechanism (3) as the reference state when the set cloth images are compared; According to the intelligent comparison result of the real-time monitoring cloth images and the set cloth images, adjusting the start-stop and rotation state of the servo motors until the intelligent comparison result of the real-time monitoring cloth images and the set cloth images meets the set intelligent comparison image training precision, and performing precise cloth feeding.

5. The quartzite plate material distributing device according to claim 4, characterized in that: The intelligent cloth cloud system comprises an intelligent cloth cloud server, a cloth device remote signal end, a cloth field mobile operation end and a cloth field management control end. The intelligent cloth cloud server is configured to send operation results and state information to the cloth field management control end, and accept service updates and upload commands from the cloth field management control end. The intelligent cloth cloud server is composed of a network server cluster, a data storage server cluster and a data information security server cluster. The network server cluster is configured to run application service software. The data storage server cluster is configured to store and process a large amount of data. The data information security server cluster is configured to isolate computers and networks used by the computers, and ensure network security through access restriction. The service software is divided into a core function module and a basic module. The basic module comprises a basic information module, a system management module and an information service module. The core function module comprises an energy consumption simulation module, an energy saving diagnosis module, a project operation analysis module and an energy saving project verification module. The data storage server cluster comprises a device library, an energy efficiency standard database, a reconstruction scheme library and a standard device library under the basic information module. The cloth device remote signal end is configured to send customized cloth information required by a user to the cloth field management control end, form intelligent customized cloth information, and accept operation results and state information from the intelligent cloth cloud server, and download corresponding intelligent customized cloth data. The cloth field mobile operation end is configured to receive remote cloth customization information on a user mobile terminal, and receive corresponding operation results and state information. The cloth field management control end is configured to accept cloth field information from the cloth device remote signal end and the cloth field mobile operation end, and upload corresponding cloth information to the intelligent cloth cloud server.

6. The quartzite plate material distributing device according to claim 5, characterized in that: The intelligent cloth cloud system comprises a comparison module, a processing module, a first acquisition module, a first deletion module, a construction module, a second acquisition module, a second deletion module, a generation module, a third deletion module, a calculation module and a control module connected in sequence. The comparison module is configured to intelligently compare the real-time monitoring cloth image with the set cloth image, obtain corresponding intelligent comparison image training precision, and determine whether the intelligent comparison image training precision meets the set intelligent comparison image training precision. The processing module is configured to perform enhancement processing on the real-time monitoring cloth image when the intelligent comparison image training precision does not meet the set intelligent comparison image training precision, and obtain an optimized monitoring cloth image. The first acquisition module is configured to acquire the gray value, chroma value and brightness value of each pixel point in the optimized monitoring cloth image. The first deleting module is configured to delete first pixel points with a preset background grayscale value in the optimized monitoring cloth image, delete second pixel points with a preset background chroma value, and delete third pixel points with a preset brightness value. The constructing module is configured to construct a corresponding grayscale matrix, a chroma matrix, and a brightness matrix based on the grayscale value, the chroma value, and the brightness value of the fourth pixel points remaining in the optimized monitoring cloth image. The second obtaining module is configured to obtain a corresponding grayscale transverse variation curve, a grayscale longitudinal variation curve, and a grayscale diagonal variation curve based on the grayscale matrix, obtain a corresponding chroma transverse variation curve, a chroma longitudinal variation curve, and a chroma diagonal variation curve based on the chroma matrix, and obtain a corresponding brightness transverse variation curve, a brightness longitudinal variation curve, and a brightness diagonal variation curve based on the brightness matrix. The second deleting module is configured to compare and fuse the grayscale transverse variation curve, the chroma transverse variation curve, and the brightness transverse variation curve, screen and delete first outlier pixel points, compare and fuse the grayscale longitudinal variation curve, the chroma longitudinal variation curve, and the brightness longitudinal variation curve, screen and delete second outlier pixel points, compare and fuse the grayscale diagonal variation curve, the chroma diagonal variation curve, and the brightness diagonal variation curve, and screen and delete third outlier pixel points. The generating module is configured to generate a corresponding chroma image, a grayscale image, and a brightness image based on the fifth pixel points remaining in the optimized monitoring cloth image. The third deleting module is configured to perform texture recognition on the chroma image, the grayscale image, and the brightness image, obtain first texture features, second texture features, and third texture features, compare and match the first texture features, the second texture features, and the third texture features, screen and delete fourth outlier points, and delete the fourth outlier points. The calculating module is configured to calibrate the sixth pixel points remaining in the optimized monitoring cloth image, calculate the real-time density of cloth particles in the optimized monitoring cloth image based on the calibration result, extract the set density of the cloth particles of the set cloth image, calculate the density difference between the set density of the cloth particles and the real-time density of the cloth particles, obtain corresponding operation parameters based on a preset density difference-operation parameter mapping table, and generate corresponding modification parameter instructions based on the operation parameters. The control module is configured to control the horizontal longitudinal traveling mechanism (2), the cloth body mechanism (5), and the horizontal transverse traveling mechanism (3) to maintain the current working state when the maintaining instruction is received. The control module is further configured to modify the corresponding servo motor operation parameters of the horizontal longitudinal traveling mechanism (2), the cloth body mechanism (5), and the horizontal transverse traveling mechanism (3) based on the modification parameter instructions when the modification parameter instructions are received.

7. The quartzite plate material distributing device according to claim 5, characterized in that: The data information security server cluster comprises a receiving module, a matching module, a determining module, a sorting module, a verifying module, a secondary verifying module and a communication module connected in sequence. The receiving module is configured to receive a permission acquisition request input by a user, wherein the permission acquisition request comprises to-be-verified user information of the user, and the permission acquisition request is configured to acquire permission from the intelligent cloth cloud system; The matching module is configured to, when the permission acquisition request is received, acquire example information corresponding to each user information category, match the to-be-verified user information with the example information, determine whether a first field in the to-be-verified user information matches the example information, if yes, acquire a matching degree of the first field and the example information, arrange the first field in the to-be-verified user information in a descending order of the matching degree, and obtain a field list corresponding to each user information category; otherwise, issue a permission acquisition failure instruction; The determining module is configured to take a user information category corresponding to a maximum matching degree of each field in the to-be-verified user information as a user information category attribute of the corresponding field; The sorting module is configured to re-sort each field in the to-be-verified user information based on a preset verification order and the user information category attribute of each field in the to-be-verified user information, and generate to-be-verified standard user information; The verifying module is configured to determine whether there is pre-stored user information consistent with the to-be-verified standard user information in a user information library, if yes, issue a permission acquisition success instruction; The secondary verifying module is configured to, when there is no pre-stored user information consistent with the to-be-verified standard user information in the user information library, match the to-be-verified standard user information with all pre-stored user information one by one, if there is to-be-verified pre-stored user information with a matching degree greater than zero with the to-be-verified standard user information, determine a second difference field in the to-be-verified pre-stored user information, call a field list corresponding to a user information category attribute of the second difference field, determine whether there is a candidate field consistent with the second difference field in the field list, if yes, issue a permission acquisition success instruction, otherwise, issue a permission acquisition failure instruction; The secondary verifying module is further configured to, when there is no to-be-verified pre-stored user information with a matching degree greater than zero with the to-be-verified standard user information, issue a permission acquisition failure instruction; The communication module is configured to, when the permission acquisition success instruction is received, establish a communication link between the data storage server cluster and the client, otherwise, maintain a current working state.

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