Multifunctional integrated paving platform convenient for paving ceramic tile glue

Abstract

The invention relates to the technical field of building decoration engineering construction, in particular to a multifunctional integrated paving platform convenient for paving tile glue, which comprises a movable base frame, a stabilizing frame arranged on the movable base frame, a support frame arranged on the stabilizing frame, an adsorption mechanism arranged on the support frame, and a rotating assembly arranged on the support frame. A back shore stabilizing assembly is arranged on the movable base frame; a paving support is arranged on the stabilizing frame, a tile glue paving mechanism is arranged on the paving support, and an auxiliary platform mechanism is arranged on the stabilizing frame; during use, the auxiliary platform mechanism is located below the adsorption mechanism. By means of the device structure, stable adsorption, turning over and supporting of tiles can be achieved, the angle and the position of the tiles can be accurately adjusted, and the tile cutting requirement is met. And meanwhile, the tile glue paving mechanism can be used for uniformly and efficiently paving the tile glue on the back surfaces of the tiles, so that a solid foundation is provided for subsequent tile paving operation.

Description

Technical Field

[0001] The invention relates to the technical field of building decoration engineering construction, and in particular to a multifunctional integrated paving platform for facilitating the spreading of tile adhesive. Background Art

[0002] In the modern building decoration industry, ceramic tiles are a common decorative material and are widely used in various scenes such as floors and walls. The laying quality of ceramic tiles not only affects the aesthetics, but is also directly related to the overall durability and safety of the building. However, the traditional ceramic tile laying process often has many inconveniences, especially in the laying process of tile adhesive, which is cumbersome and inefficient, becoming a key factor restricting the quality and speed of ceramic tile laying.

[0003] Traditional tile adhesive paving methods mostly rely on manual operation. Workers need to manually apply tile adhesive to the back of the tile. This process not only easily causes waste of tile adhesive, but also makes it difficult to ensure uniform distribution of tile adhesive, which in turn affects the bonding strength between the tile and the base surface and the paving effect. In addition, manual operation can easily cause worker fatigue, increase construction difficulty and time cost.

[0004] In order to solve the above problems, various tile adhesive spreading devices have appeared on the market, which have improved the efficiency and uniformity of tile adhesive spreading to a certain extent. However, most of these devices have a single function and can only complete the spreading of tile adhesive, but cannot meet other needs in the tile laying process, such as positioning, turning over, and supporting tiles. Therefore, in the actual construction process, a variety of equipment and tools are still needed to complete the entire tile laying operation, which undoubtedly increases the complexity and cost of construction.

[0005] How to solve the above technical problems is the subject faced by the present invention. Summary of the invention

[0006] In order to solve the shortcomings of the prior art, the present invention provides a multifunctional integrated paving platform with reasonable design, safety and reliability for paving tile adhesive, which is suitable for the preparation of tile installation in various building decoration projects. The device integrates the functions of tile adsorption and fixation, rotation cutting, and adhesive paving, realizing a one-stop solution from the initial treatment of tiles to adhesive paving.

[0007] The technical solution adopted by the present invention to solve the technical problem is: a multifunctional integrated paving platform for paving tile adhesive, comprising a mobile base frame, a stabilizing frame is arranged on the mobile base frame, a supporting frame is arranged on the stabilizing frame, an adsorption mechanism for adsorbing and fixing tiles is arranged on the supporting frame, a rotating component for realizing the angular rotation of the tiles is arranged on the supporting frame, and a top supporting stabilizing component cooperating with the stabilizing frame and used to ensure the stability of paving is arranged on the mobile base frame;

[0008] The stabilizing frame is provided with a spreading bracket, and the spreading bracket is provided with a tile glue spreading mechanism for spreading the tile glue on the mobile base frame, and the tile glue spreading mechanism is located directly above the adsorption mechanism, and the stabilizing frame is provided with an auxiliary platform mechanism that cooperates with the adsorption mechanism and is used to provide auxiliary support for the tiles; when in use, the auxiliary platform mechanism is located below the adsorption mechanism.

[0009] Further, the support frame includes two support frames symmetrically arranged on the stabilizing frame, the support frame is provided with a tripod fixedly connected to the stabilizing frame, and the support frame is provided with a rotating circular frame cooperating with the rotating assembly;

[0010] The rotating assembly includes a rotating bearing arranged on the rotating circular frame, a rotating shaft is arranged between the two rotating bearings, an adsorption support cooperated with the adsorption mechanism is arranged on the rotating shaft, and rotating shafts passing through the rotating bearings are arranged at both ends of the rotating shaft, one of the rotating shafts is provided with a driving unit, and the other rotating shaft is provided with a stabilizing gear unit cooperating with the driving unit, one of the supporting brackets is provided with a driving bracket cooperating with the driving unit, and the other supporting bracket is provided with a stabilizing circular frame cooperating with the stabilizing gear unit.

[0011] Further, the driving unit includes a driving motor disposed on the driving bracket, and the output end of the driving motor is fixedly connected to the rotating shaft, and the driving bracket is provided with a stabilizing gear unit that cooperates with the rotating shaft and the stabilizing gear unit, and the structure of the stabilizing gear unit is consistent with that of the stabilizing gear unit;

[0012] The stable gear unit comprises a first gear arranged on the rotating shaft, and a plurality of second gears meshing with the first gear are evenly arranged on the stable circular frame along the circumferential direction of the stable circular frame.

[0013] Further, the adsorption mechanism includes an adsorption support frame arranged on the rotating assembly, the adsorption support frame is symmetrically provided with two groups of first electric rods, and each group of the electric rods includes a plurality of first electric rods arranged on the adsorption support frame, and the moving ends of the plurality of first electric rods are commonly connected to the same adsorption fixing frame;

[0014] The adsorption support frame is provided with a plurality of second electric rods, and the plurality of second electric rods are commonly connected to the same adsorption movable frame. The adsorption fixed frame is provided with an embedded groove matched with the adsorption movable frame, and the adsorption fixed frame is provided with a shock absorbing component matched with the adsorption movable frame;

[0015] Furthermore, an electric suction cup assembly cooperating with the adsorption movable frame is arranged on the movable base frame.

[0016] Furthermore, the adsorption movable frame includes a movable base fixedly connected to a plurality of second electric rods, a main movable frame is arranged on the movable base, and two groups of secondary movable frames are symmetrically arranged on the main movable frame, and each group of secondary movable frames includes a plurality of secondary movable frames arranged on the main movable frame;

[0017] The shock absorbing assembly includes a plurality of shock absorbing cylinders arranged on the adsorption fixed frame and matched with the embedded groove, a first spring is arranged in the shock absorbing cylinder, a shock absorbing circular plate matched with the first spring is arranged in the shock absorbing cylinder, and a shock absorbing rod matched with the shock absorbing circular plate is arranged on the adsorption movable frame; a second spring is sleeved on the shock absorbing rod, an extrusion circular groove matched with the second spring is opened in the embedded groove, one end of the second spring is in contact with the embedded groove, and the other end of the second spring is in contact with the adsorption movable frame;

[0018] The electric suction cup assembly includes an electric negative pressure machine arranged on the mobile base frame, a plurality of negative pressure suction cups are arranged on the movable frame, the electric negative pressure machine is provided with a negative pressure main pipe located on the main movable frame, and a plurality of negative pressure secondary pipes connected to the negative pressure suction cups are arranged on the secondary movable frame.

[0019] Further, the auxiliary platform mechanism includes a vertical slot provided on the stabilizing frame, a vertical frame slidably matched with the vertical slot is provided in the vertical slot, a synchronous frame is provided on the vertical frame, a first linear driving member for driving the vertical frame to perform lifting movement is provided in the vertical slot, synchronous arms are symmetrically provided on the synchronous frame, and a synchronous driving assembly for controlling the synchronous arms to perform same-direction movement and opposite-direction movement is provided on the synchronous frame;

[0020] The synchronization arm is provided with a telescopic arm that is slidably matched with the synchronization arm, the synchronization arm is provided with a second linear drive member for controlling the telescopic arm to perform telescopic movement, the telescopic arm is provided with a resistance base at one end away from the synchronization arm, the resistance base is provided with an angle plate that is matched with the resistance base, the angle plate is provided with a resistance component for contacting with tiles, and the resistance base is provided with an angle component for controlling the angle plate to rotate;

[0021] The stabilizing frame is provided with a central control component for controlling the linkage between the angle component and the rotation component.

[0022] Furthermore, the resistance assembly includes a resistance plate, the angle plate is provided with a plurality of resistance hydraulic rods for controlling the contact between the resistance plate and the tile, the resistance plate is provided with a shock absorbing plate, and a plurality of shock absorbing springs are provided between the shock absorbing plate and the resistance plate;

[0023] The angle assembly comprises an angle rotating seat arranged on the abutting base, an angle rotating shaft is arranged on the angle rotating seat, a rotating hinge seat matched with the angle rotating shaft is arranged on the angle plate, and an angle motor matched with the angle rotating shaft is arranged on the angle rotating seat;

[0024] The central control component includes a first angle sensor that cooperates with the rotating component, the angle rotating seat is provided with a second angle sensor that cooperates with the angle shaft and the rotating component, and the stabilizing frame is provided with a central control chip that cooperates with the rotating component and is electrically connected to the second angle sensor, the central control chip is electrically connected to the angle motor, and the mobile base is provided with a battery pack that cooperates with the central control chip.

[0025] Furthermore, a second linear driving member is provided at the bottom end of the synchronization arm, a stabilizing groove is opened in the synchronization arm, a stabilizing rod slidably matched with the stabilizing groove is provided on the telescopic arm, and a telescopic base matched with the second linear driving member is provided at the bottom end of the synchronization arm; and the second linear driving member includes a telescopic hydraulic rod provided on the telescopic base, a fixed end of the telescopic hydraulic rod is fixedly connected to the telescopic base, and a telescopic end of the telescopic hydraulic rod is fixedly connected to the telescopic arm.

[0026] Further, the synchronous drive assembly includes a first slide groove provided on the synchronous frame and slidably matched with the synchronous arm, a second slide groove connected with the first slide groove is provided on the synchronous frame, and a third slide groove matched with the second slide groove is provided on the synchronous frame;

[0027] The synchronous frame is provided with a driving frame, a driving slot is provided on the driving frame, a driving bracket slidably matched with the driving slot is provided in the driving slot, and a third linear driving member for driving the driving bracket to move along the length direction of the driving slot is provided on the driving frame, a driving base connected with the synchronous arm is provided in the second sliding slot, and driving connecting rods connected with the driving base on the same side of the synchronous arm are provided at both ends of the driving bracket;

[0028] The driving base is provided with a stabilizing frame, and the stabilizing frame is provided with a triangular stabilizing frame which is connected with the synchronization arm and forms a triangular support with the stabilizing frame.

[0029] Furthermore, the tile adhesive paving mechanism includes a paving fixed frame fixedly connected to the paving bracket, a paving movable frame is provided on the paving fixed frame, a driving electric rod for driving the paving sliding frame to move is provided on the paving fixed frame, a tile adhesive placement bucket is provided on the paving movable frame, a unloading assembly is provided on the tile adhesive placement bucket, and a paving assembly cooperating with the unloading assembly is provided on the tile adhesive placement bucket.

[0030] Further, the tile adhesive placement hopper comprises a tile adhesive placement box placed on the paving movable frame, a material discharge hopper is arranged at the bottom end of the tile adhesive placement box, the material discharge assembly is arranged on the material discharge hopper, a plurality of material discharge ports are arranged at the bottom end of the material discharge hopper, and a material discharge plate for opening and closing the material discharge ports is arranged at the material discharge ports;

[0031] The material discharge assembly comprises a material discharge shaft arranged in the material discharge hopper, the material discharge hopper is provided with a material discharge motor matched with the material discharge shaft, the material discharge shaft is evenly provided with material dividing baffles along the circumferential direction of the material discharge shaft, and the material discharge shaft is evenly provided with a plurality of dividing ring plates for dividing the material dividing baffles into a plurality of material discharge areas and matched with the material discharge opening one by one along the axial direction of the material discharge shaft;

[0032] The paving assembly includes a paving frame arranged at one end of the paving movable frame away from the driving electric rod, the paving frame is provided with a placement groove, a serrated scraper is provided in the placement groove for spreading tile adhesive on the back of the tile, the paving frame is provided with an extrusion screw, and the extrusion screw is provided with an extrusion plate that cooperates with the serrated scraper.

[0033] Furthermore, the mobile base is provided with a tile placement platform cooperating with the adsorption mechanism, the mobile base is provided with a stable hydraulic leg assembly cooperating with the top support stabilizing assembly, and the mobile base is provided with a mobile wheel assembly;

[0034] The tile placement platform includes a placement plate located directly above the mobile base, a plurality of shock-absorbing springs connected to the mobile base are arranged at the bottom end of the placement plate, and a handheld tile suction cup cooperating with the adsorption mechanism and used for hand-held transportation of the tile is arranged on the front of the tile;

[0035] The stabilizing hydraulic leg assembly comprises four stabilizing hydraulic legs respectively arranged at the four corners of the mobile base frame;

[0036] The mobile wheel assembly comprises a wheel frame arranged at the bottom end of the mobile base, an axle is arranged on the wheel frame, mobile wheels are arranged at both ends of the axle, and an electric drive unit matched with one of the axles is arranged on the mobile base;

[0037] The top support stabilizing assembly includes a top support fixing frame arranged on the stabilizing frame, a top support slide slidably matched with the top support fixing frame is arranged on the top support fixing frame, a plurality of top support rods are arranged at the top end of the top support slide, a top support plate in contact with the ceiling is arranged on the top support rod, and a plurality of top support hydraulic cylinders matched with the top support slide are arranged on the mobile base frame.

[0038] The present invention integrates multiple functions such as tile adsorption, turning over, supporting, positioning, and tile adhesive spreading, avoiding the cumbersome process of traditional construction that requires the coordinated use of multiple equipment and tools, greatly simplifies the construction steps, and improves the overall construction efficiency.

[0039] The present invention uses an adsorption mechanism to allow the platform to firmly adsorb tiles, avoiding displacement during turning over and paving, and ensuring accurate positioning of tiles. The auxiliary platform mechanism provides stable support for tiles through the coordinated work of vertical frames, synchronous arms, and telescopic arms, ensuring the horizontality and verticality of tiles during paving, thereby ensuring paving quality.

[0040] The tile adhesive spreading mechanism of the present invention adopts optimized feeding components and spreading components, which can accurately control the amount and distribution of tile adhesive, ensuring that the tile adhesive is evenly and fully covered on the back of the tile, thereby improving the bonding strength and reducing material waste.

[0041] The platform of the present invention is equipped with a central control component, which can realize precise control and coordinated operation of various components, making the operation easier and faster. At the same time, through auxiliary devices such as angle components, the platform can also adjust the angle and position of tiles according to actual needs to meet the needs of complex paving scenes.

[0042] The platform structure design in the present invention fully considers the diversity of tile specifications. By adjusting the parameters of components such as the adsorption mechanism and the auxiliary platform mechanism, it can easily adapt to tiles of different sizes, shapes and materials, thereby improving the versatility and practicality of the platform. BRIEF DESCRIPTION OF THE DRAWINGS

[0043] Figure 1 is a schematic diagram of the three-dimensional structure of the present invention in a preliminary processing state;

[0044] Figure 2 is a schematic diagram of the first three-dimensional structure of the tile adhesive of the present invention in a paving state;

[0045] Figure 3 It is a schematic diagram of the enlarged structure of location A of the present invention.

[0046] Figure 4 It is a side view of the present invention.

[0047] Figure 5It is an AA cross-sectional view of the present invention.

[0048] Figure 6 It is a schematic diagram of the enlarged structure of location B of the present invention.

[0049] Figure 7 It is a schematic diagram of the enlarged structure of the C position of the present invention.

[0050] Figure 8 It is a schematic diagram of the enlarged structure of D of the present invention.

[0051] Fig. 9 It is a schematic diagram of the enlarged structure of location E of the present invention.

[0052] Fig.10 It is a diagram of the coordination between the mobile base frame and the tile adhesive spreading mechanism of the present invention.

[0053] Fig.11 It is a schematic diagram of the enlarged structure of F of the present invention.

[0054] Fig.12 It is a schematic diagram of the enlarged structure of G of the present invention.

[0055] Fig.13 It is an exploded schematic diagram of the tile adhesive spreading mechanism of the present invention.

[0056] Fig.14 It is a schematic diagram of the enlarged structure at H of the present invention.

[0057] Fig.15 It is a diagram showing the coordination of the adsorption mechanism and the partial structure of the rotating assembly of the present invention.

[0058] Fig.16 It is a schematic diagram of the three-dimensional structure of the auxiliary platform mechanism of the present invention.

[0059] Fig.17 It is a three-dimensional schematic diagram of a partial structure of the auxiliary platform mechanism of the present invention.

[0060] Fig.18 It is a diagram showing the coordination of the mobile base frame and the auxiliary platform mechanism of the present invention.

[0061] Among them, the accompanying drawings are marked as follows: 100, mobile base frame; 110, stable frame; 111, vertical groove; 120, tile placement platform; 121, placement plate; 122, shock-absorbing spring; 123, hand-held tile suction cup; 130, stable hydraulic leg assembly; 131, stable hydraulic leg; 140, mobile wheel assembly; 141, wheel frame; 142, axle; 143, mobile wheel; 200, support frame; 210, support bracket; 220, tripod; 230, rotating round frame; 300, adsorption mechanism; 310, adsorption support frame; 320, first group of electric rods; 330, second group of electric rods; 340, adsorption fixed frame; 341, embedded groove; 350, adsorption movable frame; 351, movable base; 352, main active 1. movable frame; 353. secondary movable frame; 360. shock absorbing assembly; 361. shock absorbing cylinder; 362. first spring; 363. shock absorbing circular plate; 364. shock absorbing rod; 365. second spring; 366. extrusion groove; 370. electric suction cup assembly; 371. negative pressure main pipe; 372. negative pressure secondary pipe; 373. negative pressure suction cup; 400. rotating assembly; 410. rotating bearing; 420. rotating shaft; 430. adsorption support; 440. rotating shaft; 450. driving unit; 451. driving motor; 460. stable gear unit; 461. first gear; 462. second gear; 470. stable gear unit; 500. top support stabilizing assembly; 510. top support frame; 520. top support slide; 530. top support rod; 5 40. Top support plate; 550. Top support hydraulic cylinder; 600. Auxiliary platform mechanism; 601. Vertical frame; 602. Synchronous frame; 603. First slide; 604. Second slide; 605. Third slide; 606. First linear drive member; 607. Synchronous arm; 608. Stable slide; 609. Telescopic base; 610. Synchronous drive assembly; 611. Drive frame; 612. Drive slot; 613. Drive bracket; 614. Third linear drive member; 615. Drive base; 616. Drive connecting rod; 617. Stable frame; 618. Triangular stable frame; 620. Telescopic arm; 630. Second linear drive member; 631. Telescopic hydraulic rod; 640. Resistance base; 650. Angle plate; 660. Resistance assembly; 661, contact plate; 662, contact hydraulic rod; 663, shock absorbing plate; 664, shock absorbing spring; 670, angle assembly; 671, angle rotating seat; 672, rotating hinge seat; 673, angle motor; 680, central control assembly; 681, first angle sensor; 682, second angle sensor; 683, central control chip; 684, battery pack; 700, tile glue paving mechanism; 710, paving fixed frame; 720, paving movable frame; 730, driving electric rod; 740, tile glue placing bucket; 741, tile glue placing box; 742, unloading hopper; 743, unloading port; 744, unloading plate; 750, unloading assembly; 751, unloading shaft; 752, unloading motor; 753, material dividing partition;754, separation ring plate; 760, paving assembly; 761, paving frame; 762, placement groove; 763, sawtooth scraper; 764, extrusion screw; 765, extrusion plate; 800, paving bracket. ; DETAILED DESCRIPTION

[0062] See also Figures 1 to 18 As shown, a multifunctional integrated paving platform for paving tile adhesive comprises a mobile base frame 100, a stabilizing frame 110 is arranged on the mobile base frame 100, a supporting frame 200 is arranged on the stabilizing frame 110, an adsorption mechanism 300 for adsorbing and fixing tiles is arranged on the supporting frame 200, a rotating assembly 400 for realizing the angular rotation of tiles is arranged on the supporting frame 200, and a top supporting stabilizing assembly 500 cooperating with the stabilizing frame 110 and used to ensure the stability of paving is arranged on the mobile base frame 100;

[0063] The stabilizing frame 110 is provided with a spreading bracket 800, and the spreading bracket 800 is provided with a tile glue spreading mechanism 700 for spreading tile glue on the mobile base frame 100, and the tile glue spreading mechanism 700 is located directly above the adsorption mechanism 300. The stabilizing frame 110 is provided with an auxiliary platform mechanism 600 that cooperates with the adsorption mechanism 300 and is used to provide auxiliary support for tiles; when in use, the auxiliary platform mechanism 600 is located below the adsorption mechanism 300.

[0064] Specifically, the mobile base frame 100 serves as the basis of the entire device, and its structural design ensures the stability of the device during operation and the convenience of movement. The stabilizing frame 110 is fixed to the mobile base frame 100 by welding or bolting to form a more stable support structure, ensuring the stable operation of the upper support frame 200, the adsorption mechanism 300, the rotating assembly 400 and other components. The support frame 200 can bear the weight of the adsorption mechanism 300 and the rotating assembly 400 through its structural design, and at the same time ensure that these components can maintain a relatively stable position during operation. The adsorption mechanism 300 usually adopts the principle of negative pressure adsorption, and through components such as electric suction cups or pneumatic suction cups, the tiles are firmly adsorbed on the support frame 200 to ensure that the tiles will not slip during angle adjustment, tile glue paving and paving. The rotating assembly 400 drives the tiles on the adsorption mechanism 300 to rotate through components such as motors, reducers, and transmission shafts, thereby achieving precise adjustment of the angle of the tiles. The top support stabilizing assembly 500 can usually be extended when the tiles are laid, contacting the ceiling, providing additional support force to ensure the stability of the tiles during the laying process. The spreading bracket 800 can bear the weight of the tile adhesive spreading mechanism 700 through its structural design, while ensuring that the mechanism can maintain a relatively stable position during operation, thereby achieving uniform spreading of the tile adhesive. The tile adhesive spreading mechanism 700 spreads the tile adhesive in the storage hopper evenly on the tiles. The design of this mechanism can ensure the uniformity and consistency of the tile adhesive, thereby improving the laying quality. The auxiliary platform mechanism 600 can provide additional support force for the tiles during the spreading and preliminary processing of the tile adhesive. The design of this mechanism can ensure that the tiles remain flat and stable throughout the laying process.

[0065] Further, the support frame 200 includes two support frames 210 symmetrically arranged on the stabilizing frame 110, the support frames 210 are provided with a tripod 220 fixedly connected to the stabilizing frame 110, and the support frames 210 are provided with a rotating circular frame 230 cooperating with the rotating assembly 400;

[0066] The rotating assembly 400 includes a rotating bearing 410 arranged on the rotating circular frame 230, a rotating shaft 420 is arranged between the two rotating bearings 410, an adsorption support 430 coordinated with the adsorption mechanism 300 is arranged on the rotating shaft 420, and rotating shafts 440 passing through the rotating bearing 410 are arranged at both ends of the rotating shaft 420, one of the rotating shafts 440 is provided with a driving unit 450, and the other rotating shaft 440 is provided with a smooth gear unit 460 coordinated with the driving unit 450, one of the supporting brackets 210 is provided with a driving bracket 613 coordinated with the driving unit 450, and the other supporting bracket 210 is provided with a smooth circular frame coordinated with the smooth gear unit 460.

[0067] Further, the driving unit 450 includes a driving motor 451 disposed on the driving bracket 613, and the output end of the driving motor 451 is fixedly connected to the rotating shaft 440, and a stabilizing gear unit 470 that cooperates with the rotating shaft 440 and the stabilizing gear unit 460 is disposed on the driving bracket 613, and the structure of the stabilizing gear unit 470 is consistent with the structure of the stabilizing gear unit 460;

[0068] The stable gear unit 460 includes a first gear 461 disposed on the rotating shaft 440 , and a plurality of second gears 462 meshing with the first gear 461 are evenly disposed on the stable frame along the circumferential direction of the stable frame.

[0069] Specifically, the support frame 200 includes two support frames 210 symmetrically arranged on the stabilizing frame 110, a tripod 220 fixedly connected to the stabilizing frame 110 is arranged on the support frame 210, and a rotating circular frame 230 cooperating with the rotating assembly 400 is arranged on the support frame 210, providing a stable support structure to ensure the normal operation of the rotating assembly 400 and the adsorption mechanism 300. The rotating assembly 400 realizes the angle rotation of the tile through the rotating bearing 410 and the rotating shaft 420. The adsorption support 430 is installed on the rotating shaft 420, and cooperates with the adsorption mechanism 300 to ensure the fixation of the tile during the rotation process. The two ends of the rotating shaft 420 are provided with a rotating shaft 440 that passes through the rotating bearing 410, a driving unit 450 is installed on one of the rotating shafts 440, and a stable gear unit 460 is installed on the other rotating shaft 440. The rotating assembly 400 realizes the precise adjustment of the angle of the tile to ensure that the angle of the tile is controllable during the processing process. The driving unit 450 provides a stable power output to ensure the smooth rotation of the rotating shaft 420 and reduce vibration and noise. The stable gear unit 460 ensures the stable rotation of the rotating shaft 420 through the meshing of multiple gears, thereby improving the accuracy and reliability of angle adjustment.

[0070] Further, the adsorption mechanism 300 includes an adsorption support frame 310 disposed on the rotating assembly 400, and the adsorption support frame 310 is symmetrically provided with two groups of first electric rods, and each group of the electric rods includes a plurality of first electric rods disposed on the adsorption support frame 310, and the moving ends of the plurality of first electric rods are commonly connected to the same adsorption fixing frame 340;

[0071] The adsorption support frame 310 is provided with a plurality of second electric rods, and the plurality of second electric rods are connected to the same adsorption movable frame 350. The adsorption fixed frame 340 is provided with an embedded groove 341 matched with the adsorption movable frame 350. The adsorption fixed frame 340 is provided with a shock absorbing component 360 matched with the adsorption movable frame 350.

[0072] The movable base frame 100 is provided with an electric suction cup assembly 370 that cooperates with the adsorption movable frame 350 .

[0073] Furthermore, the adsorption movable frame 350 includes a movable base 351 fixedly connected to a plurality of second electric rods, a main movable frame 352 is arranged on the movable base 351, and two groups of secondary movable frames 353 are symmetrically arranged on the main movable frame 352, and each group of secondary movable frames 353 includes a plurality of secondary movable frames 353 arranged on the main movable frame 352;

[0074] The shock absorbing assembly 360 includes a plurality of shock absorbing cylinders 361 arranged on the adsorption fixed frame 340 and matched with the embedded groove 341, a first spring 362 is arranged in the shock absorbing cylinder 361, a shock absorbing circular plate 363 matched with the first spring 362 is arranged in the shock absorbing cylinder 361, and a shock absorbing rod 364 matched with the shock absorbing circular plate 363 is arranged on the adsorption movable frame 350; a second spring 365 is sleeved on the shock absorbing rod 364, and the embedded groove 341 is provided with an extrusion circular groove 366 matched with the second spring 365, one end of the second spring 365 is in contact with the embedded groove 341, and the other end of the second spring 365 is in contact with the adsorption movable frame 350;

[0075] The electric suction cup assembly 370 includes an electric negative pressure machine arranged on the mobile base frame 100, and a plurality of negative pressure suction cups 373 are arranged on the movable frame. The electric negative pressure machine is provided with a negative pressure main pipe 371 located on the main movable frame 352, and a negative pressure secondary pipe 372 connected to a plurality of negative pressure suction cups 373 is arranged on the secondary movable frame 353.

[0076] Specifically, the adsorption support frame 310 is provided with an adsorption holder 430 located on the rotating assembly 400 .

[0077] Preferably, a guide rod is provided on the adsorption support frame 310 , and a guide cylinder cooperating with the guide rod is provided on the adsorption support frame 310 .

[0078] Specifically, the adsorption support frame 310 serves as the main structure of the adsorption mechanism 300. The adsorption support frame 310 is fixedly mounted on the rotating assembly 400 to support and connect other components. Two groups of first electric rods are symmetrically arranged on the adsorption support frame 310, and each group includes a plurality of first electric rods, and their moving ends are commonly connected to the same adsorption fixed frame 340. By controlling the extension and retraction of the first electric rods, the height and position of the adsorption fixed frame 340 can be adjusted to adapt to tiles of different sizes and shapes. Similarly, a plurality of second electric rods are also arranged on the adsorption support frame 310, and their moving ends are commonly connected to the same adsorption movable frame 350. The adsorption movable frame 350 can move up and down under the drive of the second electric rod, and cooperate with the adsorption fixed frame 340 to clamp the tiles. An embedded groove 341 is provided on the adsorption fixed frame 340 to accommodate the adsorption movable frame 350. The shock absorbing assembly 360 includes a shock absorbing cylinder 361, a first spring 362, a shock absorbing circular plate 363, a shock absorbing rod 364 and other components, which work together between the adsorption movable frame 350 and the adsorption fixed frame 340 to play a role of buffering and shock absorption, and protect the tiles from impact and damage. The electric suction cup assembly 370 includes an electric negative pressure machine, a negative pressure main pipe 371 and a negative pressure secondary pipe 372 and other components. The electric negative pressure machine generates negative pressure, and transmits the negative pressure to the negative pressure suction cup 373 through the negative pressure main pipe 371 and the negative pressure secondary pipe 372, so as to firmly adsorb the tiles.

[0079] Further, the auxiliary platform mechanism 600 includes a vertical slot 111 provided on the stabilizing frame 110, a vertical frame 601 slidably matched with the vertical slot 111 is provided in the vertical slot 111, a synchronous frame 602 is provided on the vertical frame 601, a first linear driving member 606 for driving the vertical frame 601 to perform lifting movement is provided in the vertical slot 111, a synchronous arm 607 is symmetrically provided on the synchronous frame 602, and a synchronous driving assembly 610 for controlling the synchronous arm 607 to perform the same direction movement and the opposite direction movement is provided on the synchronous frame 602;

[0080] The synchronization arm 607 is provided with a telescopic arm 620 that is slidably matched with the synchronization arm 607, and the synchronization arm 607 is provided with a second linear driving member 630 for controlling the telescopic arm 620 to perform telescopic movement, and the telescopic arm 620 is provided with a resistance base 640 at one end away from the synchronization arm 607, and the resistance base 640 is provided with an angle plate 650 that matches with the resistance base 640, and the angle plate 650 is provided with a resistance component 660 for contacting with tiles, and the resistance base 640 is provided with an angle component 670 for controlling the rotation of the angle plate 650;

[0081] The stabilizing frame 110 is provided with a central control component 680 for controlling the linkage between the angle component 670 and the rotating component 400 .

[0082] Specifically, during the use of the auxiliary platform mechanism 600, the vertical frame 601 is lifted and lowered through the sliding cooperation between the vertical slot 111 and the vertical frame 601, and the driving of the first linear drive member 606, to provide support at different heights. The synchronous drive assembly 610 controls the same-direction and opposite-direction movement of the synchronous arm 607 to ensure stable support of tiles at different positions. Through the cooperation of the telescopic arm 620 and the second linear drive member 630, the telescopic arm 620 is extended and retracted to provide support at different positions. The angle plate 650 and the angle assembly 670 cooperate to adjust the angle of the tiles and ensure the accuracy of the tiles during the processing. Through real-time monitoring and control of the central control assembly 680, the linkage of the angle assembly 670 and the rotating assembly 400 is ensured to improve the accuracy and coordination of the angle adjustment and rotation.

[0083] Furthermore, the resistance assembly 660 includes a resistance plate 661, and the angle plate 650 is provided with a plurality of resistance hydraulic rods 662 for controlling the contact between the resistance plate 661 and the tile, and the resistance plate 661 is provided with a shock absorbing plate 663, and a plurality of shock absorbing springs 664 are provided between the shock absorbing plate 663 and the resistance plate 661;

[0084] The angle assembly 670 includes an angle rotating seat 671 disposed on the abutting base 640, an angle rotating shaft 440 is disposed on the angle rotating seat 671, a rotating hinge seat 672 matched with the angle rotating shaft 440 is disposed on the angle plate 650, and an angle motor 673 matched with the angle rotating shaft 440 is disposed on the angle rotating seat 671;

[0085] The central control component 680 includes a first angle sensor 681 that cooperates with the rotating component 400, the angle rotating seat 671 is provided with a second angle sensor 682 that cooperates with the angle shaft 440 and the rotating component 400, and the stabilizing frame 110 is provided with a central control chip that cooperates with the rotating component 400 and is electrically connected to the second angle sensor 682, the central control chip is electrically connected to the angle motor 673, and the mobile base frame 100 is provided with a battery pack that cooperates with the central control chip.

[0086] Specifically, the central control chip is electrically connected to the driving motor 451 of the rotating assembly 400 , and the first angle sensor 681 is a first angle sensor 681 that cooperates with the rotating shaft 440 of the rotating assembly 400 .

[0087] Specifically, in the resistance assembly 660, it mainly solves the impact and damage problems that may occur when the resistance plate 661 contacts the ceramic tile. Through the cooperation of the resistance hydraulic rod 662 and the shock absorbing spring 664, the softness and stability of the resistance plate 661 when contacting the ceramic tile are ensured, thereby reducing the damage to the ceramic tile. The angle assembly 670 includes an angle rotating seat 671 arranged on the resistance base 640, an angle rotating shaft 440 is arranged on the angle rotating seat 671, a rotating hinge seat 672 cooperating with the angle rotating shaft 440 is arranged on the angle plate 650, and an angle motor 673 cooperating with the angle rotating shaft 440 is arranged on the angle rotating seat 671, thereby solving the problems of insufficient precision and inaccurate control during the angle adjustment process. Through the cooperation of the angle motor 673 and the angle rotating shaft 440, the angle plate 650 is accurately rotated to ensure the angle adjustment accuracy of the ceramic tile during the processing process. In the central control component 680, through real-time monitoring of the first angle sensor 681 and the second angle sensor 682, the central control chip controls the operation of the angle motor 673 and the drive motor 451 according to the sensor data to ensure the accuracy and coordination of the angle adjustment and rotation.

[0088] Furthermore, a second linear driving member 630 is provided at the bottom end of the synchronization arm 607, the synchronization arm 607 is provided with a stabilizing groove 608, the telescopic arm 620 is provided with a stabilizing rod slidably matched with the stabilizing groove, and a telescopic base 609 matched with the second linear driving member 630 is provided at the bottom end of the synchronization arm 607; and the second linear driving member 630 includes a telescopic hydraulic rod 631 provided on the telescopic base 609, the fixed end of the telescopic hydraulic rod 631 is fixedly connected to the telescopic base 609, and the telescopic end of the telescopic hydraulic rod 631 is fixedly connected to the telescopic arm 620.

[0089] Further, the synchronous drive assembly 610 includes a first slide groove 603 provided on the synchronous frame 602 and slidably matched with the synchronous arm 607, a second slide groove 604 connected to the first slide groove 603 is provided on the synchronous frame 602, and a third slide groove 605 matched with the second slide groove 604 is provided on the synchronous frame 602;

[0090] The synchronous frame 602 is provided with a driving frame 611, and a driving slot 612 is provided on the driving frame 611. A driving bracket 613 that slides with the driving slot 612 is provided in the driving slot 612, and a third linear driving member 614 that drives the driving bracket 613 to move along the length direction of the driving slot 612 is provided on the driving frame 611, and a driving base 615 connected to the synchronous arm 607 is provided in the second sliding slot 604, and driving connecting rods 616 connected to the driving base 615 on the same side of the synchronous arm 607 are provided at both ends of the driving bracket 613;

[0091] The driving base 615 is provided with a stabilizing frame 617 , and the stabilizing frame 617 is provided with a triangular stabilizing frame 618 which is connected with the synchronization arm 607 and forms a triangular support with the stabilizing frame 617 .

[0092] Specifically, during the tile processing, the synchronous drive assembly 610 can ensure the stable support of the tiles at different positions, especially when performing operations such as flipping tiles and adjusting angles, the same-direction and opposite-direction movements of the synchronous arms 607 can accurately control the position of the tiles and ensure the smooth progress of the processing. Through the cooperation of the multi-stage slide and the driving connecting rod 616, the synchronous drive assembly 610 can effectively solve the problems of insufficient stability and inaccurate control of the synchronous arms 607 during the movement, and improve the efficiency and quality of tile processing.

[0093] Furthermore, the tile adhesive paving mechanism 700 includes a paving fixed frame 710 fixedly connected to the paving bracket 800, the paving fixed frame 710 is provided with a paving movable frame 720, the paving fixed frame 710 is provided with a driving electric rod 730 for driving the paving sliding frame to move, the paving movable frame 720 is provided with a tile adhesive placement bucket 740, the tile adhesive placement bucket 740 is provided with a unloading assembly 750, and the tile adhesive placement bucket 740 is provided with a paving assembly 760 that cooperates with the unloading assembly 750.

[0094] Further, the tile adhesive placement hopper 740 includes a tile adhesive placement box 741 placed on the paving movable frame 720, a lower hopper 742 is provided at the bottom end of the tile adhesive placement box 741, the lower material assembly 750 is provided on the lower material hopper 742, a plurality of lower material ports 743 are provided at the bottom end of the lower material hopper 742, and a lower material plate 744 for opening and closing the lower material ports 743 is provided at the lower material ports 743;

[0095] The material discharge assembly 750 includes a material discharge shaft 751 disposed in a material discharge hopper 742, a material discharge motor 752 matched with the material discharge shaft 751 is disposed on the material discharge hopper 742, material dividing baffles 753 are evenly disposed on the material discharge shaft 751 along the circumferential direction of the material discharge shaft 751, and a plurality of dividing ring plates 754 are evenly disposed on the material discharge shaft 751 along the axial direction of the material discharge shaft 751 to divide the material dividing baffles 753 into a plurality of material discharge areas and matched with the material discharge opening 743 one by one;

[0096] The paving assembly 760 includes a paving frame 761 arranged at one end of the paving movable frame 720 away from the driving electric rod 730, and the paving frame 761 is provided with a placement groove 762, and a serrated scraper 763 is provided in the placement groove 762 for spreading tile adhesive on the back of the tile. The paving frame 761 is provided with an extrusion screw 764, and the extrusion screw 764 is provided with an extrusion plate 765 that cooperates with the serrated scraper 763.

[0097] In the structure of the tile adhesive paving mechanism 700, the tile adhesive paving mechanism 700 includes a paving fixed frame 710 fixedly connected to the paving bracket 800, and a paving movable frame 720 is arranged on the paving fixed frame 710. These structures constitute the main body of the paving mechanism, which is used to support and move the tile adhesive placing bucket 740 and other related components. The paving movable frame 720 is provided with a tile adhesive placing bucket 740, and the tile adhesive placing bucket 740 is provided with a feeding assembly 750 and a paving assembly 760. The tile adhesive placing bucket 740 is used to store tile adhesive, and the tile adhesive is evenly spread on the back of the tile through the feeding assembly 750 and the paving assembly 760. The feeding assembly 750 is arranged on the feeding hopper 742, and a plurality of feeding ports 743 are arranged at the bottom end of the feeding hopper 742, and a feeding plate 744 for opening and closing the feeding port 743 is arranged at the feeding port 743. The unloading assembly 750 is responsible for controlling the flow rate and unloading position of the tile adhesive to ensure that the tile adhesive can be evenly distributed on the back of the tile. The unloading shaft 751 and the material dividing plate 753 in the unloading assembly 750 evenly distribute the tile adhesive to the unloading port 743. The number of opening windows of the unloading plate 744 is selected according to the size of the tile, and the unloading plate 744 controls the opening and closing of the unloading port 743. The paving assembly 760 includes a paving frame 761 arranged at one end of the paving movable frame 720 away from the driving electric rod 730, and a placement groove 762 is provided on the paving frame 761. A serrated scraper 763 for spreading the tile adhesive on the back of the tile is provided in the placement groove 762. The paving frame 761 is provided with an extrusion screw 764, and an extrusion plate 765 cooperating with the serrated scraper 763 is provided on the extrusion screw 764. The function of the paving assembly 760 is to evenly spread the tile adhesive on the back of the tile and ensure that the tile adhesive is tightly combined with the tile.

[0098] Furthermore, the mobile base frame 100 is provided with a tile placement platform 120 that cooperates with the adsorption mechanism 300, the mobile base frame 100 is provided with a stable hydraulic leg assembly 130 that cooperates with the top support stabilization assembly 500, and the mobile base frame 100 is provided with a mobile wheel assembly 140;

[0099] The tile placement platform 120 includes a placement plate 121 located directly above the mobile base frame 100, a plurality of shock-absorbing springs 122 connected to the mobile base frame 100 are arranged at the bottom of the placement plate 121, and a handheld tile suction cup 123 is arranged on the front of the tile to cooperate with the adsorption mechanism 300 and to be used for hand-held transportation of the tile;

[0100] The stabilizing hydraulic leg assembly 130 includes four stabilizing hydraulic legs 131 respectively disposed at the four corners of the mobile base frame 100;

[0101] The mobile wheel assembly 140 includes a wheel frame 141 disposed at the bottom end of the mobile base frame 100, an axle 142 is disposed on the wheel frame 141, and mobile wheels 143 are disposed at both ends of the axle 142, and an electric drive unit matched with one of the axles 142 is disposed on the mobile base frame 100;

[0102] The top support stabilizing assembly 500 includes a top support fixed frame 510 arranged on the stabilizing frame 110, and a top support slide 520 slidably matched with the top support fixed frame 510 is arranged on the top support fixed frame 510, and a plurality of top support rods 530 are arranged at the top end of the top support slide 520, and a top support plate 540 in contact with the ceiling is arranged on the top support rod 530, and a plurality of top support hydraulic cylinders 550 matched with the top support slide 520 are arranged on the mobile base frame 100.

[0103] Preferably, the mobile base frame 100 is provided with a supporting frame cooperating with the supporting hydraulic cylinder 550 .

[0104] Specifically, the structure of the electric drive unit is basically the same as the electric drive structure on the market for driving wheels to move, and will not be elaborated in this article.

[0105] Technical features not described in the present invention can be achieved through or by adopting existing technologies and will not be described in detail here. Of course, the above description is not a limitation of the present invention, and the present invention is not limited to the above examples. Changes, modifications, additions or substitutions made by ordinary technicians in this technical field within the essential scope of the present invention should also fall within the scope of protection of the present invention.

Claims

1. A multifunctional integrated paving platform for paving tile adhesive, characterized by: The invention comprises a mobile base frame (100), wherein a stabilizing frame (110) is arranged on the mobile base frame (100), a supporting frame (200) is arranged on the stabilizing frame (110), an adsorption mechanism (300) for adsorbing and fixing tiles is arranged on the supporting frame (200), a rotating assembly (400) for realizing angular rotation of tiles is arranged on the supporting frame (200), and a top supporting stabilizing assembly (500) cooperating with the stabilizing frame (110) and used to ensure paving stability is arranged on the mobile base frame (100); The stabilizing frame (110) is provided with a spreading bracket (800), and the spreading bracket (800) is provided with a tile adhesive spreading mechanism (700) for spreading tile adhesive on the mobile base frame (100), and the tile adhesive spreading mechanism (700) is located directly above the adsorption mechanism (300), and the stabilizing frame (110) is provided with an auxiliary platform mechanism (600) that cooperates with the adsorption mechanism (300) and is used to provide auxiliary support for tiles; when in use, the auxiliary platform mechanism (600) is located below the adsorption mechanism (300).

2. A multifunctional integrated paving platform for facilitating tile adhesive paving as claimed in claim 1, characterized in that: The support frame (200) comprises two support frames (210) symmetrically arranged on the stabilizing frame (110), the support frames (210) are provided with a tripod (220) fixedly connected to the stabilizing frame (110), and the support frames (210) are provided with a rotating circular frame (230) cooperating with the rotating assembly (400); The rotating assembly (400) comprises a rotating bearing (410) arranged on the rotating circular frame (230), a rotating shaft (420) is arranged between the two rotating bearings (410), an adsorption support (430) matched with the adsorption mechanism (300) is arranged on the rotating shaft (420), rotating shafts (440) passing through the rotating bearing (410) are arranged at both ends of the rotating shaft (420), a driving unit (450) is arranged on one of the rotating shafts (440), and a stabilizing gear unit (460) matched with the driving unit (450) is arranged on the other rotating shaft (440), a driving bracket (613) matched with the driving unit (450) is arranged on one of the supporting brackets (210), and a stabilizing circular frame matched with the stabilizing gear unit (460) is arranged on the other supporting bracket (210).

3. A multifunctional integrated paving platform for facilitating tile adhesive paving as claimed in claim 1, characterized in that: The adsorption mechanism (300) comprises an adsorption support frame (310) arranged on the rotating assembly (400), the adsorption support frame (310) being symmetrically provided with two groups of first electric rods (320), and each group of the electric rods comprises a plurality of first electric rods (320) arranged on the adsorption support frame (310), and the movable ends of the plurality of first electric rods are commonly connected to the same adsorption fixing frame (340); The adsorption support frame (310) is provided with a plurality of second electric rods (330), the plurality of second electric rods (330) are connected to a common adsorption movable frame (350), the adsorption fixed frame (340) is provided with an embedded groove (341) matched with the adsorption movable frame (350), and the adsorption fixed frame (340) is provided with a shock absorbing component (360) matched with the adsorption movable frame (350); Furthermore, the movable base frame (100) is provided with an electric suction cup assembly (370) that cooperates with the adsorption movable frame (350).

4. A multifunctional integrated paving platform for facilitating tile adhesive paving as claimed in claim 1, characterized in that: The adsorption movable frame (350) comprises a movable base (351) fixedly connected to a plurality of second electric rods, a main movable frame (352) is arranged on the movable base (351), and two groups of secondary movable frames (353) are symmetrically arranged on the main movable frame (352), and each group of secondary movable frames (353) comprises a plurality of secondary movable frames (353) arranged on the main movable frame (352); The shock absorbing assembly (360) comprises a plurality of shock absorbing cylinders (361) arranged on the adsorption fixed frame (340) and matched with the embedded groove (341); a first spring (362) is arranged in the shock absorbing cylinder (361); a shock absorbing circular plate (363) matched with the first spring (362) is arranged in the shock absorbing cylinder (361); a shock absorbing rod (364) matched with the shock absorbing circular plate (363) is arranged on the adsorption movable frame (350); a second spring (365) is sleeved on the shock absorbing rod (364); the embedded groove (341) is provided with an extrusion circular groove (366) matched with the second spring (365); one end of the second spring (365) is in contact with the embedded groove (341), and the other end of the second spring (365) is in contact with the adsorption movable frame (350); The electric suction cup assembly (370) includes an electric negative pressure machine arranged on the mobile base frame (100), and a plurality of negative pressure suction cups (373) are arranged on the movable frame. The electric negative pressure machine is provided with a negative pressure main pipe (371) located on the main movable frame (352), and a negative pressure secondary pipe (372) connected to a plurality of negative pressure suction cups (373) is arranged on the secondary movable frame (353).

5. The multifunctional integrated paving platform for facilitating the paving of tile adhesive according to claim 1, characterized in that: The auxiliary platform mechanism (600) comprises a vertical slot (111) provided on the stabilizing frame (110), a vertical frame (601) slidably matched with the vertical slot (111) being provided in the vertical slot (111), a synchronous frame (602) being provided on the vertical frame (601), a first linear driving member (606) for driving the vertical frame (601) to perform lifting movement being provided in the vertical slot (111), synchronous arms (607) being symmetrically provided on the synchronous frame (602), and a synchronous driving assembly (610) for controlling the synchronous arms (607) to perform same-direction movement and opposite-direction movement being provided on the synchronous frame (602); The synchronization arm (607) is provided with a telescopic arm (620) that is slidably matched with the synchronization arm (607), and the synchronization arm (607) is provided with a second linear driving member (630) for controlling the telescopic movement of the telescopic arm (620). The telescopic arm (620) is provided with a resistance base (640) at one end away from the synchronization arm (607), and the resistance base (640) is provided with an angle plate (650) that is matched with the resistance base (640), and the angle plate (650) is provided with a resistance component (660) for contacting with tiles, and the resistance base (640) is provided with an angle component (670) for controlling the rotation of the angle plate (650); The stabilizing frame (110) is provided with a central control component (680) for controlling the linkage between the angle component (670) and the rotating component (400).

6. A multifunctional integrated paving platform for facilitating tile adhesive paving as claimed in claim 5, characterized in that: The resistance component (660) comprises a resistance plate (661), a plurality of resistance hydraulic rods (662) for controlling the contact between the resistance plate (661) and the tiles are arranged on the angle plate (650), a shock absorbing plate (663) is arranged on the resistance plate (661), and a plurality of shock absorbing springs (664) are arranged between the shock absorbing plate (663) and the resistance plate (661); The angle assembly (670) comprises an angle rotating seat (671) arranged on the abutting base (640), an angle rotating shaft (440) being arranged on the angle rotating seat (671), a rotating hinge seat (672) cooperating with the angle rotating shaft (440) being arranged on the angle plate (650), and an angle motor (673) cooperating with the angle rotating shaft (440) being arranged on the angle rotating seat (671); The central control component (680) includes a first angle sensor (681) that cooperates with the rotating component (400); the angle rotating seat (671) is provided with a second angle sensor (682) that cooperates with the angle shaft (440) and the rotating component (400); the stabilizing frame (110) is provided with a central control chip that cooperates with the rotating component (400) and is electrically connected to the second angle sensor (682); the central control chip is electrically connected to the angle motor (673); and the mobile base frame (100) is provided with a battery pack that cooperates with the central control chip.

7. A multifunctional integrated paving platform for facilitating tile adhesive paving as claimed in claim 5, characterized in that: The synchronous drive assembly (610) includes a first slide groove (603) provided on the synchronous frame (602) and slidably matched with the synchronous arm (607); a second slide groove (604) connected to the first slide groove (603) is provided on the synchronous frame (602); and a third slide groove (605) matched with the second slide groove (604) is provided on the synchronous frame (602); The synchronous frame (602) is provided with a driving frame (611), a driving groove (612) is provided on the driving frame (611), a driving bracket (613) slidingly matched with the driving groove (612) is provided in the driving groove (612), and a third linear driving member (614) is provided on the driving frame (611) for driving the driving bracket (613) to move along the length direction of the driving groove (612), a driving base (615) connected to the synchronous arm (607) is provided in the second sliding groove (604), and driving connecting rods (616) connected to the driving base (615) on the same side of the synchronous arm (607) are provided at both ends of the driving bracket (613); The driving base (615) is provided with a stabilizing frame (617), and the stabilizing frame (617) is provided with a triangular stabilizing frame (618) which is connected to the synchronization arm (607) and forms a triangular support with the stabilizing frame (617).

8. The multifunctional integrated paving platform for facilitating the paving of tile adhesive according to claim 1, characterized in that: The tile adhesive paving mechanism (700) comprises a paving fixed frame (710) fixedly connected to the paving bracket (800), a paving movable frame (720) is arranged on the paving fixed frame (710), a driving electric rod (730) for driving the paving sliding frame to move is arranged on the paving fixed frame (710), a tile adhesive placement bucket (740) is arranged on the tile adhesive placement bucket (740), a material discharge assembly (750) is arranged on the tile adhesive placement bucket (740), and a paving assembly (760) cooperating with the material discharge assembly (750) is arranged on the tile adhesive placement bucket (740).

9. The multifunctional integrated paving platform for facilitating tile adhesive paving according to claim 1, characterized in that: The tile glue placement hopper (740) comprises a tile glue placement box (741) placed on the paving movable frame (720); a material discharge hopper (742) is arranged at the bottom end of the tile glue placement box (741); the material discharge assembly (750) is arranged on the material discharge hopper (742); a plurality of material discharge ports (743) are arranged at the bottom end of the material discharge hopper (742); and a material discharge plate (744) for opening and closing the material discharge ports (743) is arranged at the material discharge ports (743); The material discharge assembly (750) comprises a material discharge shaft (751) arranged in a material discharge hopper (742); a material discharge motor (752) matched with the material discharge shaft (751) is arranged on the material discharge hopper (742); material dividing baffles (753) are evenly arranged on the material discharge shaft (751) along the circumferential direction of the material discharge shaft (751); and a plurality of dividing ring plates (754) used to divide the material dividing baffles (753) into a plurality of material discharge areas and matched with the material discharge port (743) are evenly arranged on the material discharge shaft (751) along the axial direction of the material discharge shaft (751); The paving assembly (760) comprises a paving frame (761) arranged at one end of the paving movable frame (720) away from the driving electric rod (730), the paving frame (761) is provided with a placement groove (762), a serrated scraper (763) for spreading tile adhesive on the back of the tile is arranged in the placement groove (762), the paving frame (761) is provided with an extrusion screw (764), and the extrusion screw (764) is provided with an extrusion plate (765) that cooperates with the serrated scraper (763).

10. The multifunctional integrated paving platform for facilitating tile adhesive paving according to claim 1, characterized in that: The mobile base (100) is provided with a tile placement platform (120) that cooperates with the adsorption mechanism (300), the mobile base (100) is provided with a stabilizing hydraulic leg assembly (130) that cooperates with the top support stabilizing assembly (500), and the mobile base (100) is provided with a mobile wheel assembly (140); The tile placement platform (120) comprises a placement plate (121) located directly above the mobile base frame (100), a plurality of shock-absorbing springs (122) connected to the mobile base frame (100) are arranged at the bottom end of the placement plate (121), and a handheld tile suction cup (123) cooperating with the adsorption mechanism (300) and used for hand-held transportation of the tile is arranged on the front of the tile; The stabilizing hydraulic leg assembly (130) comprises four stabilizing hydraulic legs (131) respectively arranged at four corners of the mobile base frame (100); The mobile wheel assembly (140) comprises a wheel frame (141) arranged at the bottom end of the mobile base frame (100), an axle (142) is arranged on the wheel frame (141), mobile wheels (143) are arranged at both ends of the axle (142), and an electric drive unit matched with one of the axles (142) is arranged on the mobile base frame (100); The top support stabilizing assembly (500) comprises a top support frame (510) arranged on the stabilizing frame (110), the top support frame (510) is provided with a top support slide (520) which is slidably matched with the top support frame (510), a plurality of top support rods (530) are arranged at the top end of the top support slide (520), a top support plate (540) which is in contact with the ceiling is arranged on the top support rods (530), and a plurality of top support hydraulic cylinders (550) which are matched with the top support slide (520) are arranged on the mobile base frame (100).

Images