A food factory floor construction apparatus

Abstract

This invention relates to a flooring construction equipment for a food factory, comprising a base unit, a slurry propulsion unit, a slurry pouring unit, at least one locking unit, a coating propulsion unit, a coating unit, and a defoaming unit. Its advantages include: utilizing the base unit as the load-bearing base of the entire machine, which is movable and provides stable support for the entire flooring construction process; using the slurry propulsion unit to drive the slurry pouring unit to move horizontally, realizing mechanized transfer of the slurry bucket and reducing the labor intensity of manual pouring; using the locking unit to lock and limit the slurry bucket, preventing slippage and tipping during operation, thus improving equipment operational safety; using the coating propulsion unit to drive the coating unit to reciprocate, automating the slurry leveling operation, eliminating differences in manual operation, and ensuring uniform flatness over large areas; and using the defoaming unit to work synchronously with the coating unit, promptly and comprehensively eliminating air bubbles on the slurry surface, preventing defects such as pinholes and depressions in the flooring.

Description

Technical Field

[0001] This invention relates to the technical field of floor construction, and in particular to a floor construction equipment for a food factory. Background Technology

[0002] Food production workshop flooring is a specialized functional flooring system specifically designed for food processing, packaging, and storage. Unlike ordinary civilian cement or residential epoxy flooring, it is a core component of the clean infrastructure of food factories, simultaneously meeting three stringent requirements: food safety, production operations, and hygiene and disinfection. This type of flooring is mostly constructed using food-grade materials such as water-based polyurethane mortar and clean epoxy, resulting in a seamless, gapless surface that prevents food residue, oil stains, and water accumulation. It can withstand daily high-pressure water washing and repeated wiping with acidic or alkaline food disinfectants, minimizing the growth of bacteria and mold and avoiding the risk of cross-contamination. In terms of mechanical properties, the flooring is highly wear-resistant and pressure-resistant, capable of withstanding the high-frequency rolling of forklifts and material carts without easily peeling, cracking, or crumbling. The surface is treated with an anti-slip coating, reducing the risk of slipping after spills of soup or cooking oil. It is also resistant to high and low temperatures and acid and alkali corrosion from food, preventing the release of toxic or harmful substances into raw materials and finished products, thus meeting the production audit standards of food factories. Different colored flooring can be used to delineate raw material areas, refining areas, cleaning and disinfection areas, and finished product packaging areas, with clear traffic flow that takes into account both hygiene compliance, production safety, and long-term ease of maintenance.

[0003] The construction of flooring in food production workshops involves multiple processes, including ground grinding and cleaning, repair of base surface defects, cutting of floor joints, and application of slurry. Currently, the industry generally adopts a segmented operation mode with human and machine cooperation. Among these, the slurry application process still relies mainly on manual labor, specifically including manual transfer of slurry buckets, pouring of slurry, manual leveling of the material, and manual removal of surface air bubbles. Each operation is independent and carried out step by step, resulting in poor continuity between processes.

[0004] In actual construction scenarios for flooring in large food factories, the manual handling and dumping of slurry buckets is labor-intensive, and subsequent manual leveling is time-consuming, labor-intensive, and inefficient, failing to meet the essential requirements for continuous and standardized construction of large-area flooring in large factories. Furthermore, due to differences in operator techniques, the flatness of large-area flooring is difficult to maintain consistently, resulting in poor construction quality stability. After the slurry is spread, a large number of air bubbles easily form on the surface. Manual defoaming is not only inefficient but also difficult to address comprehensively and promptly. After the flooring hardens, defects such as pinholes and depressions are highly likely to appear. These imperfections weaken the structural strength of the flooring, shorten its service life, and create unsanitary corners that harbor dirt and grime, failing to meet the clean production standards of large food workshops.

[0005] Currently, no effective solution has been proposed for the problems of low efficiency, high labor intensity, easy defects and failure to meet cleanliness requirements in the construction of flooring for large food factories using related technologies. Summary of the Invention

[0006] The purpose of this invention is to address the shortcomings of existing technologies by providing a food factory flooring construction equipment to solve the problems of low efficiency, high labor intensity, easy defects, and failure to meet cleanliness requirements in large-scale food factory flooring construction by manual methods.

[0007] To achieve the above objectives, the technical solution adopted by the present invention is as follows: A food factory flooring construction equipment, comprising: Base unit; A slurry propulsion unit is disposed at the top of the base unit and connected to the base unit; A slurry pouring unit is located at the top of the slurry propulsion unit and connected to the output end of the slurry propulsion unit. It is used to place the slurry bucket, tilt the slurry bucket vertically, and reciprocate horizontally under the action of the slurry propulsion unit so that the slurry in the slurry bucket is spread on the ground. At least one locking unit is movably disposed at the top of the slurry pouring unit for reciprocating movement in the vertical direction to secure the slurry bucket to the slurry pouring unit; A coating propulsion unit is disposed at the front end of the slurry propulsion unit and connected to the slurry propulsion unit; A coating unit is disposed at the front end of the coating propulsion unit and connected to the output end of the coating propulsion unit. It is used to reciprocate in the horizontal direction under the action of the coating propulsion unit to scrape the slurry. A defoaming unit is disposed on the side of the coating unit and connected to the coating unit, and is used to move with the coating unit to defoam the slurry after it is coated.

[0008] The present invention adopts the above technical solution and has the following technical effects compared with the prior art: This invention discloses a food factory flooring construction equipment. It utilizes a base unit as the machine's load-bearing structure, which is movable and provides stable support for the entire flooring construction process. A slurry propulsion unit drives the slurry pouring unit to move horizontally, enabling mechanized transport of the slurry buckets and reducing the labor intensity of manual pouring. A locking unit locks and limits the slurry buckets, preventing slippage and tipping during operation and improving equipment safety. A coating propulsion unit drives the coating unit to reciprocate, automating the slurry leveling operation, eliminating differences in manual operation, and ensuring uniform flatness over large areas. A defoaming unit operates synchronously with the coating unit, promptly and comprehensively eliminating air bubbles on the slurry surface, preventing pinholes, depressions, and other defects in the flooring, meeting the cleanliness standards of food workshops. The entire machine integrates multiple construction processes with smooth transitions, adaptable to continuous and standardized construction of large-area floors in large food factories, improving overall construction efficiency. Attached Figure Description

[0009] Figure 1 This is a structural schematic diagram of a food factory flooring construction equipment according to an embodiment of the present invention; Figure 2 This is a structural schematic diagram of a food factory flooring construction equipment according to an embodiment of the present invention from another perspective. Figure 3 This is a schematic diagram (a) of a food factory flooring construction equipment with a slurry tank placed according to an embodiment of the present invention. Figure 4 This is a schematic diagram (II) of a food factory flooring construction equipment with a slurry tank placed according to an embodiment of the present invention. Figure 5 This is a schematic diagram of the structure of the base unit according to an embodiment of the present invention; Figure 6 This is a schematic diagram of the slurry propulsion unit according to an embodiment of the present invention; Figure 7 This is a schematic diagram of the slurry pouring unit according to an embodiment of the present invention; Figure 8 This is a partial internal structure schematic diagram of the slurry pouring unit according to an embodiment of the present invention; Figure 9 This is a schematic diagram of the locking unit according to an embodiment of the present invention; Figure 10 This is a cross-sectional view of the locking unit according to an embodiment of the present invention; Figure 11 This is a partial internal structure diagram of the locking unit according to an embodiment of the present invention; Figure 12 This is a schematic diagram of the structure of a coating propulsion unit according to an embodiment of the present invention; Figure 13 This is a schematic diagram of the coating unit according to an embodiment of the present invention; Figure 14 This is a schematic diagram of the structure of the defoaming unit according to an embodiment of the present invention; Figure 15 This is a structural schematic diagram of the defoaming unit in another state according to an embodiment of the present invention.

[0010] The reference numerals in the attached drawings are as follows: 10, base unit; 11, base element; 12, first moving element; 13, first support element; 14, pushing element; 20, slurry propulsion unit; 21, second support element; 22, second moving element; 23, first transmission element; 24, second transmission element; 25, first connecting element; 26, first driving element; 30, slurry pouring unit; 31, third support element; 32, fourth support element; 33, fifth support element; 34, first linkage element; 35, second driving element; 36, sixth support element; 37, second linkage element; 38, placement element; 39, first sliding element; 310, second connecting element; 311, first rotating element; 312, second rotating element; 313, third rotating element; 314, fourth rotating element; 315, fifth rotating element; 316, sixth rotating element; 40, locking unit; 41, second sliding element. 42. Moving element; 43. Locking element; 44. Cavity element; 45. Third connecting element; 46. First limiting element; 47. Second limiting element; 48. Control element; 59. Coating propulsion unit; 50. Seventh support element; 51. Third moving element; 52. Third transmission element; 53. Fourth transmission element; 54. Fourth transmission element; 55. Fourth connecting element; 56. Third driving element; 60. Coating unit; 61. Eighth support element; 62. Fourth driving element; 63. First mounting element; 64. First coating element; 65. Second coating element; 70. Defoaming unit; 71. Ninth support element; 72. Tenth support element; 73. Eleventh support element; 74. Twelfth support element; 75. Third linkage element; 76. Fourth linkage element; 77. Fifth linkage element; 78. Fifth driving element; 79. Sixth driving element; 710. Second mounting element; 711. Defoaming element; A. Slurry tank. Detailed Implementation

[0011] 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.

[0012] It should be noted that, unless otherwise specified, the embodiments and features described in the present invention can be combined with each other.

[0013] The present invention will be further described below with reference to the accompanying drawings and specific embodiments, but this is not intended to limit the scope of the invention.

[0014] An illustrative embodiment of the present invention, such as Figure 1 , Figure 2 , Figure 3 , Figure 4 As shown, a food factory flooring construction device includes a base unit 10, a slurry propulsion unit 20, a slurry pouring unit 30, at least one locking unit 40, a coating propulsion unit 50, a coating unit 60, and a defoaming unit 70. The slurry propulsion unit 20 is located at the top of the base unit 10 and connected to it. The slurry pouring unit 30 is located at the top of the slurry propulsion unit 20 and connected to its output end. It is used to place a slurry bucket A, tilt the slurry bucket A vertically, and reciprocate horizontally under the action of the slurry propulsion unit 20 to spread the slurry in the bucket A onto the ground. The locking unit 40 is movably located at the top of the slurry pouring unit 30 and is used to reciprocate vertically to hold the slurry bucket A in place. A is fixed to the slurry pouring unit 30; the coating propulsion unit 50 is located at the front end of the slurry propulsion unit 20 and connected to the slurry propulsion unit 20; the coating unit 60 is located at the front end of the coating propulsion unit 50 and connected to the output end of the coating propulsion unit 50, and is used to reciprocate in the horizontal direction under the action of the coating propulsion unit 50 to scrape the slurry; the defoaming unit 70 is located on the side of the coating unit 60 and connected to the coating unit 60, and is used to follow the coating unit 60 to defoam the scraped slurry.

[0015] In some embodiments, there are two locking units 40, which are symmetrically arranged on both sides of the slurry pouring unit 30.

[0016] like Figure 5 As shown, the base unit 10 includes a base element 11, a plurality of first moving elements 12, a plurality of first support elements 13, and a pushing element 14. The plurality of first moving elements 12 are distributed at the bottom end of the base element 11 and connected to it, respectively, to drive the base element 11 to move. The plurality of first support elements 13 are distributed at the top end of the base element 11, and a slurry propulsion unit 20 is provided at the top end of each of the first support elements 13, and is connected to both the base element 11 and the slurry propulsion unit 20. The pushing element 14 is located at the top end of the base element 11, at the rear end of the slurry propulsion unit 20, and connected to the base element 11, to push the base element 11.

[0017] The base element 11 has a rectangular cross-section.

[0018] In some embodiments, the base element 11 is a base plate made of metal. The base element 11 serves as the load-bearing base of the entire device, supporting all functional components at the top and providing stable support for the overall structure of the device.

[0019] In some embodiments, a plurality of first moving elements 12 are distributed at the four corners of the bottom end of the base element 11.

[0020] In some embodiments, a first movable element 12 is provided at each of the four corners of the bottom end of the base element 11.

[0021] In some embodiments, the first movable element 12 is fixedly connected to the base element 11, including but not limited to bolted connections.

[0022] In some embodiments, the first moving element 12 is a caster wheel with brakes. The first moving element 12 drives the entire machine to move, enabling switching of construction positions.

[0023] The cross-section of the first support element 13 is rectangular.

[0024] The dimensions of the first support element 13 are matched with the dimensions of the base element 11. Generally, the length of the first support element 13 is less than the length of the base element 11, and the width of the first support element 13 is less than the width of the base element 11.

[0025] In some embodiments, a plurality of first support elements 13 are arranged in a rectangular array. Specifically, the plurality of first support elements 13 are spaced apart along the length and width directions of the base element 11.

[0026] In some of these embodiments, the first support element 13 is fixedly connected to the base element 11, including but not limited to bolted connections.

[0027] In some embodiments, the first support element 13 is made of metal. The first support element 13 supports and positions the slurry propulsion unit 20, ensuring the upper structure is securely installed.

[0028] The cross-section of the driving element 14 is circular.

[0029] The dimensions of the actuating element 14 are matched with the dimensions of the base element 11. Generally, the radial dimension of the actuating element 14 is smaller than the length and width of the base element 11.

[0030] In some embodiments, the actuating element 14 is fixedly connected to the base element 11, including but not limited to bolted connections.

[0031] In some embodiments, the actuating element 14 is a push rod made of metal. The actuating element 14 is used by the operator to apply force, assisting in moving the device.

[0032] like Figure 6 As shown, the slurry propulsion unit 20 includes a second support element 21, two second moving elements 22, two first transmission elements 23, a second transmission element 24, at least one first connecting element 25, and a first driving element 26. The second support element 21 is disposed at the top of the base unit 10, and a coating propulsion unit 50 is disposed at the front end of the outer side of the second support element 21, and is connected to both the base unit 10 and the coating propulsion unit 50. The two second moving elements 22 are symmetrically disposed inside the second support element 21, and a slurry pouring unit 30 is disposed between the two second moving elements 22 and is slidably connected to the second support element 21, for driving the slurry pouring unit 30 to reciprocate horizontally. The two first transmission elements 23 are symmetrically disposed inside the second support element 21 and are connected to the second support element 24. The first component 21 is rotatably connected and is used to rotate along its own circumference; the second transmission element 24 is connected to the two first transmission elements 23 respectively; the first connecting element 25 is disposed at the top of a second moving element 22 and is connected to the second moving element 22 and the second transmission element 24 respectively, and is used to drive the second moving element 22 to reciprocate in the horizontal direction under the action of the second transmission element 24; the first driving element 26 is disposed at the rear end of the second support element 21 and is connected to the first transmission element 23, and is used to drive the first transmission element 23 to rotate along its own circumference.

[0033] Specifically, the second support element 21 is disposed on the top of a plurality of first support elements 13 and is connected to the plurality of first support elements 13 respectively.

[0034] The second support element 21 is a frame structure.

[0035] The dimensions of the second support element 21 are matched with the dimensions of the base element 11. Generally, the outer length of the second support element 21 is greater than the length of the base element 11, and the outer width of the second support element 21 is less than the width of the base element 11.

[0036] The dimensions of the second support element 21 are matched with the dimensions of the first support element 13. Generally, the inner wall thickness of the second support element 21 is equal to the width of the first support element 13.

[0037] In some embodiments, the second support element 21 is fixedly connected to the first support element 13, including but not limited to bolt connections.

[0038] In some embodiments, the second support element 21 is a frame made of metal. The second support element 21 serves as the main frame of the slurry propulsion unit 20, providing installation and operating space for internal components, and also connects to the coating propulsion unit 50.

[0039] The cross-section of the second moving element 22 is rectangular.

[0040] The dimensions of the second movable element 22 are matched with the dimensions of the second support element 21. Generally, the length of the second movable element 22 is less than the inner length of the second support element 21, the width of the second movable element 22 is less than the inner width of the second support element 21, and the height of the second movable element 22 is less than the height of the second support element 21.

[0041] In some embodiments, the second moving element 22 is slidably connected to the second support element 21. For example, the second moving element 22 and the second support element 21 slide together via a slide rail and a slider.

[0042] In some embodiments, the second moving element 22 is a first moving plate made of metal. The second moving element 22 slides inside the second support element 21, driving the slurry pouring unit 30 to move horizontally back and forth, thus achieving mechanized transfer of the slurry bucket.

[0043] The cross-section of the first transmission element 23 is circular.

[0044] The dimensions of the first transmission element 23 are matched with the dimensions of the second support element 21. Generally, the radial dimension of the first transmission element 23 is smaller than the height of the second support element 21, the radial dimension of the first transmission element 23 is smaller than the inner length of the second support element 21, and the axial dimension of the first transmission element 23 is smaller than the inner width of the second support element 21.

[0045] In some embodiments, the first transmission element 23 and the second support element 21 are rotatably connected without separation. For example, the first transmission element 23 and the second support element 21 are connected via a bearing housing.

[0046] In some embodiments, the first transmission element 23 is a first transmission gear made of metal. The first transmission element 23 receives power and rotates circumferentially, cooperating with the second transmission element 24 to complete power transmission.

[0047] In some embodiments, the second transmission element 24 is drive-connected to the first transmission element 23. For example, the second transmission element 24 engages with the first transmission element 23.

[0048] In some embodiments, the second transmission element 24 is a first transmission toothed belt made of rubber. The second transmission element 24 connects two first transmission elements 23, synchronously transmitting power to drive a second moving element 22 to operate smoothly.

[0049] The cross-section of the first connecting element 25 is rectangular.

[0050] The dimensions of the first connecting element 25 are matched with the dimensions of the second moving element 22. Generally, the length of the first connecting element 25 is less than the length of the second moving element 22, the width of the first connecting element 25 is greater than the width of the second moving element 22, and the height of the first connecting element 25 is less than the height of the second moving element 22.

[0051] In some embodiments, the first connecting element 25 is fixedly connected to the second moving element 22 and the second transmission element 24, respectively, including but not limited to bolt connections.

[0052] In some embodiments, the first connecting element 25 is a first adapter plate made of metal. The first connecting element 25 connects the second transmission element 24 and the second moving element 22, converting transmission power into linear displacement power.

[0053] In some embodiments, the first drive element 26 is fixedly connected to the second support element 21, including but not limited to bolt connections.

[0054] In some embodiments, the first drive element 26 is drively connected to a first transmission element 23. For example, the first drive element 26 and the first transmission element 23 are connected via a coupling.

[0055] In some embodiments, the first driving element 26 is a first driving motor. The first driving element 26 serves as the power source for the slurry propulsion unit 20, driving a first transmission element 23 to operate and providing power for the horizontal movement of the slurry tank.

[0056] like Figure 7 , Figure 8As shown, the slurry pouring unit 30 includes a third support element 31, two fourth support elements 32, two fifth support elements 33, two first linkage elements 34, two second drive elements 35, two sixth support elements 36, two second linkage elements 37, a placement element 38, at least one first sliding element 39, and at least one second connecting element 310. The third support element 31 is located at the top of the slurry propulsion unit 20 and connected to the output end of the slurry propulsion unit 20. It reciprocates horizontally under the action of the slurry propulsion unit 20. Two fourth support elements 32 are symmetrically located at the bottom of the interior of the third support element 31 and are connected to the third support element 31. Two fifth support elements 33 are symmetrically located at the bottom of the interior of the third support element 31 and are located at the rear end of the corresponding fourth support element 32, and are connected to the third support element 31. The first ends of the two first linkage elements 34 are rotatably connected to the corresponding fifth support elements 33. Two second drive elements 35 are respectively located between the corresponding fourth support element 32 and the corresponding first linkage element 34, and are rotatably connected to the corresponding fourth support element 32 and the corresponding first linkage element 34, respectively, to drive the first linkage element 34 to rotate circumferentially along its first end. Two sixth support elements 36 are symmetrically located between the two first linkage elements 34 and are respectively connected to the two fifth support elements 33. The second end of the first linkage element 34 is rotatably connected and is used to tilt vertically under the action of the first linkage element 34; the first ends of the two second linkage elements 37 are rotatably connected to the corresponding fifth support element 33, and the second ends of the two second linkage elements 37 are rotatably connected to the corresponding sixth support element 36, and are located on the outside of the two first linkage elements 34 respectively; the placement element 38 is disposed between the two sixth support elements 36 and is connected to the two sixth support elements 36 respectively, and is used to place the slurry tank A, drive the slurry tank A to tilt vertically under the action of the sixth support element 36, and reciprocate horizontally under the action of the third support element 31 so that the slurry in the slurry tank A is spread on the ground; the first sliding element 39 is disposed at the top of a sixth support element 36 and is slidably connected to the locking unit 40, and is used to allow the locking unit 40 to reciprocate along the height direction of the first sliding element 39; the second connecting element 310 is disposed at the bottom of the interior of the first sliding element 39 and is rotatably connected to the locking unit 40.

[0057] Specifically, the third support element 31 is disposed between the two second moving elements 22 and is connected to the two second moving elements 22 respectively.

[0058] In some embodiments, the third support element 31 has a U-shaped cross-section. Specifically, the third support element 31 includes a second support plate and a first mounting cavity. The second support plate is disposed between the two second moving elements 22 and is connected to the two second moving elements 22, the two fourth support elements 32, and the two fifth support elements 33, respectively. The first mounting cavity is disposed at the top of the second support plate, and the bottom of the first mounting cavity is symmetrically provided with the two fourth support elements 32 and the two fifth support elements 33.

[0059] The dimensions of the second support plate are matched with the dimensions of the second moving element 22. Generally, the length of the second support plate is greater than the length of the second moving element 22, the width of the second support plate is greater than the width of the second moving element 22, and the height of the second support plate is greater than the height of the second moving element 22.

[0060] The dimensions of the first mounting cavity are matched with the dimensions of the second support plate. Generally, the length of the first mounting cavity is equal to the length of the second support plate, the width of the first mounting cavity is less than the width of the second support plate, and the height of the first mounting cavity is less than the height of the second support plate.

[0061] In some embodiments, the third support element 31 is fixedly connected to the second movable element 22, including but not limited to bolted connections.

[0062] In some embodiments, the third support element 31 is made of metal. The third support element 31 provides a mounting base for the components of the slurry pouring unit 30 and moves synchronously with the second moving element 22.

[0063] The cross-section of the fourth support element 32 is a right-angled triangle. Specifically, the long right-angled side of the fourth support element 32 is located at the bottom of the first mounting cavity and is connected to the second support plate; the short right-angled side of the fourth support element 32 is located at the front end of the corresponding fifth support element 33 and is connected to the corresponding fifth support element 33.

[0064] The dimensions of the fourth support element 32 are matched with those of the third support element 31. Generally, the longer right-angled side of the fourth support element 32 is smaller than the width of the first mounting cavity, the shorter right-angled side of the fourth support element 32 is smaller than the height of the first mounting cavity, and the thickness of the fourth support element 32 is smaller than the length of the first mounting cavity.

[0065] In some embodiments, the fourth support element 32 is fixedly connected to the third support element 31, including but not limited to bolted connections.

[0066] In some embodiments, the fourth support element 32 is a third support plate made of metal. The fourth support element 32 provides a mounting and rotation fulcrum for the second drive element 35.

[0067] The fifth support element 33 has a rectangular cross-section.

[0068] The dimensions of the fifth support element 33 are matched with those of the third support element 31. Generally, the length of the fifth support element 33 is less than the width of the first mounting cavity, the width of the fifth support element 33 is less than the length of the first mounting cavity, and the height of the fifth support element 33 is greater than the height of the first mounting cavity.

[0069] In some embodiments, the fifth support element 33 is fixedly connected to the third support element 31, including but not limited to bolted connections.

[0070] In some embodiments, the fifth support element 33 is a fourth support plate made of metal. The fifth support element 33 serves as a rotating base for the first linkage element 34 and the second linkage element 37.

[0071] The cross-section of the first linkage element 34 is rectangular.

[0072] The dimensions of the first linkage element 34 are matched with the dimensions of the fifth support element 33. Generally, the thickness of the first linkage element 34 is less than the thickness of the fifth support element 33.

[0073] In some embodiments, the first linkage element 34 is a first linkage plate made of metal. The first linkage element 34, driven by the second drive element 35, performs a swinging motion, causing the sixth support element 36 to tilt.

[0074] In some embodiments, the second drive element 35 is the first cylinder. The second drive element 35 outputs extension and retraction power to drive the first linkage element 34 to swing, providing power for the slurry bucket to tip over.

[0075] The sixth support element 36 has a rectangular cross-section.

[0076] The dimensions of the sixth support element 36 are matched with the dimensions of the first linkage element 34. Generally, the thickness of the sixth support element 36 is greater than the thickness of the first linkage element 34.

[0077] In some embodiments, the sixth support element 36 is a fifth support plate made of metal. The sixth support element 36 supports the first linkage element 34, the second linkage element 37 and the placement element 38, and tilts with the movement of the first linkage element 34, causing the slurry tank to flip and discharge.

[0078] The cross-section of the second linkage element 37 is rectangular.

[0079] The dimensions of the second linkage element 37 are matched with the dimensions of the first linkage element 34. Generally, the length of the second linkage element 37 is greater than the length of the first linkage element 34, the width (thickness) of the second linkage element 37 is equal to the width (thickness) of the first linkage element 34, and the height of the second linkage element 37 is equal to the height of the first linkage element 34.

[0080] The dimensions of the second linkage element 37 are matched with the dimensions of the sixth support element 36. Generally, the thickness of the second linkage element 37 is less than the thickness of the sixth support element 36.

[0081] In some embodiments, the second linkage element 37 is a second linkage plate made of metal. The second linkage element 37, together with the first linkage element 34, forms a double-link structure, improving the stability of the sixth support element 36 during tilting.

[0082] The placement element 38 has a structure with an open top and a closed bottom.

[0083] The dimensions of the placement element 38 are matched with the dimensions of the sixth support element 36. Generally, the outer radial dimension (e.g., outer length, outer width) of the placement element 38 is greater than the radial dimension (e.g., length, width) of the sixth support element 36, and the outer axial dimension (e.g., outer height) of the placement element 38 is less than the axial dimension (e.g., height) of the sixth support element 36.

[0084] In some embodiments, placement element 38 is fixedly connected to the sixth support element 36, including but not limited to bolted connections.

[0085] In some embodiments, the placement element 38 is a placement frame made of metal. The placement element 38 is used to place the slurry bucket and tilts synchronously with the sixth support element 36 to complete the slurry pouring operation.

[0086] The cross-section of the first sliding element 39 is rectangular.

[0087] The dimensions of the first sliding element 39 are matched with the dimensions of the sixth support element 36. Generally, the length of the first sliding element 39 is less than the length of the sixth support element 36, the width of the first sliding element 39 is less than the width of the sixth support element 36, and the height of the first sliding element 39 is less than the height of the sixth support element 36.

[0088] The number of first sliding elements 39 matches the number of sixth support elements 36 (locking units 40). Generally, the number of first sliding elements 39 is equal to the number of sixth support elements 36 (locking units 40).

[0089] In some embodiments, the first sliding element 39 is a sliding groove. Specifically, the first sliding element 39 has a sliding track to guide the vertical movement of the locking unit 40.

[0090] The second connecting element 310 has a circular cross-section. Its inner edge surface has an internal thread (not shown in the figure) for threaded connection with the locking unit 40. The dimensions of the second connecting element 310 are matched with the dimensions of the first sliding element 39. Generally, the radial dimension of the second connecting element 310 is smaller than the length and width of the first sliding element 39.

[0091] The dimensions of the second connecting element 310 are matched with the dimensions of the sixth support element 36. Generally, the axial dimension of the second connecting element 310 is smaller than the height of the sixth support element 36.

[0092] The sum of the axial dimension of the second connecting element 310 and the height of the first sliding element 39 is less than the height of the sixth support element 36.

[0093] The number of second connecting elements 310 matches the number of first sliding elements 39 (locking units 40). Generally, the number of second connecting elements 310 is equal to the number of first sliding elements 39 (locking units 40).

[0094] In some embodiments, the second connecting element 310 is a threaded hole. The second connecting element 310 enables the threaded connection and positioning of the locking unit 40 and the slurry pouring unit 30.

[0095] Furthermore, the slurry pouring unit 30 also includes two first rotating elements 311, two second rotating elements 312, two third rotating elements 313, two fourth rotating elements 314, two fifth rotating elements 315, and two sixth rotating elements 316. The two first rotating elements 311 are respectively disposed at the bottom end of the corresponding second driving element 35 and rotatably connected to the corresponding fourth support element 32, allowing the bottom end of the second driving element 35 to rotate circumferentially along the first rotating element 311; the two second rotating elements 312 are respectively connected to the output end of the corresponding second driving element 35 and rotatably connected to the middle part of the corresponding first linkage element 34, allowing the output end of the second driving element 35 to rotate circumferentially along the second rotating element 312; the two third rotating elements 313 are respectively disposed at the end of the corresponding fifth support element 33 and rotatably connected to the first end of the corresponding first linkage element 34, allowing the first end of the first linkage element 34 to rotate circumferentially along the third rotating element 313; the two fourth rotating elements 314 are respectively disposed at the corresponding sixth support element. The side of element 36 is rotatably connected to the second end of the corresponding first linkage element 34, so that the second end of the first linkage element 34 can rotate around the circumference of the fourth rotation element 314; two fifth rotation elements 315 are respectively disposed at the ends of the corresponding fifth support element 33 and are respectively located at the top of the corresponding third rotation element 313, and are respectively rotatably connected to the first end of the corresponding second linkage element 37, so that the first end of the second linkage element 37 can rotate around the circumference of the fifth rotation element 315; two sixth rotation elements 316 are respectively disposed on the side of the corresponding sixth support element 36 and are respectively located at the bottom of the corresponding fourth rotation element 314, and are respectively rotatably connected to the second end of the corresponding second linkage element 37, so that the second end of the second linkage element 37 can rotate around the circumference of the sixth rotation element 316.

[0096] In some embodiments, the first rotating element 311 has a U-shaped cross-section. Specifically, the first rotating element 311 includes a first connecting plate and a first cavity. The first connecting plate is disposed at the bottom end of the corresponding second driving element 35 and is rotatably connected to the corresponding fourth support element 32. The first cavity is disposed at the bottom end of the first connecting plate, and the fourth support element 32 is disposed inside the first cavity for accommodating the fourth support element 32.

[0097] The dimensions of the first cavity are matched with the dimensions of the fourth support element 32. Generally, the width of the first cavity is not less than the thickness of the fourth support element 32.

[0098] The dimensions of the first cavity are matched with the dimensions of the first connecting plate. Generally, the length of the first cavity is equal to the length of the first connecting plate, the width of the first cavity is less than the width of the first connecting plate, and the height of the first cavity is less than the height of the first connecting plate.

[0099] In some embodiments, the first rotating element 311 is fixedly connected to the second driving element 35, including but not limited to bolt connection.

[0100] In some embodiments, the first rotating element 311 and the fourth support element 32 are rotatably connected without separation. For example, the first rotating element 311 and the fourth support element 32 rotate through a rotating shaft and a rotating hole.

[0101] In some embodiments, the first rotating element 311 is made of metal. The first rotating element 311 provides a pivot point for the bottom of the second driving element 35, ensuring its smooth operation.

[0102] In some embodiments, the cross-section of the second rotating element 312 is U-shaped. Specifically, the first rotating element 311 includes a second connecting plate and a second cavity. The second connecting plate is disposed at the output end of the second driving element 35 and is rotatably connected to the middle of the corresponding first linkage element 34; the second cavity is disposed at the top of the second connecting plate, and the first linkage element 34 is disposed inside the second cavity for accommodating the first linkage element 34.

[0103] The dimensions of the second cavity match the dimensions of the first linkage element 34. Generally, the width of the second cavity is not less than the thickness of the first linkage element 34.

[0104] The dimensions of the second cavity are matched with the dimensions of the second connecting plate. Generally, the length of the second cavity is equal to the length of the second connecting plate, the width of the second cavity is less than the width of the second connecting plate, and the height of the second cavity is less than the height of the second connecting plate.

[0105] In some embodiments, the second rotating element 312 is fixedly connected to the output end of the second driving element 35, including but not limited to bolt connection.

[0106] In some embodiments, the second rotating element 312 and the first linkage element 34 are rotatably connected without separation. For example, the second rotating element 312 and the first linkage element 34 rotate through a rotating shaft and a rotating hole.

[0107] In some embodiments, the second rotating element 312 is made of metal. The second rotating element 312 connects the output of the second driving element 35 to the first linkage element 34 to achieve power transmission.

[0108] The cross-section of the third rotating element 313 is an isosceles triangle. The base of the third rotating element 313 is located at the front end of the corresponding fifth support element 33.

[0109] In some embodiments, the bottom edge of the third rotating element 313 is parallel to the height direction of the corresponding fifth support element 33.

[0110] The dimensions of the third rotating element 313 are matched with the dimensions of the fifth support element 33. Generally, the thickness of the third rotating element 313 is less than the thickness of the fifth support element 33, and the height of the third rotating element 313 is less than the height of the fifth support element 33.

[0111] In some embodiments, the third rotating element 313 is fixedly connected to the fifth support element 33, including but not limited to bolt connection.

[0112] In some embodiments, the third rotating element 313 and the first linkage element 34 are rotatably connected without separation. For example, the third rotating element 313 and the first linkage element 34 rotate through a rotating shaft and a rotating hole.

[0113] In some embodiments, the third rotating element 313 is a third connecting plate made of metal. The third rotating element 313 is mounted on the fifth support element 33, providing a rotation fulcrum for the first end of the first linkage element 34.

[0114] The cross-section of the fourth rotating element 314 is circular.

[0115] The dimensions of the fourth rotating element 314 are matched with the dimensions of the sixth support element 36. Generally, the radial dimension of the fourth rotating element 314 is smaller than the length and height of the sixth support element 36.

[0116] The dimensions of the fourth rotating element 314 are matched with the dimensions of the first linkage element 34. Generally, the radial dimension of the fourth rotating element 314 is smaller than the length and height of the first linkage element 34.

[0117] In some embodiments, the fourth rotating element 314 is fixedly connected to the sixth support element 36, including but not limited to bolted connections.

[0118] In some embodiments, the fourth rotating element 314 and the first linkage element 34 are rotatably connected without separation. For example, the fourth rotating element 314 and the first linkage element 34 rotate in conjunction with a rotating shaft and a rotating hole.

[0119] In some embodiments, the fourth rotating element 314 is a first connecting rod made of metal. The fourth rotating element 314 is mounted on the side of the sixth support element 36, providing a fulcrum for the second end of the first linkage element 34.

[0120] The fifth rotating element 315 has an isosceles triangle cross-section. The base of the fifth rotating element 315 is located at the front end of the corresponding fifth support element 33.

[0121] In some embodiments, the bottom edge of the fifth rotating element 315 is parallel to the height direction of the corresponding fifth support element 33.

[0122] The dimensions of the fifth rotating element 315 are matched with the dimensions of the fifth support element 33. Generally, the thickness of the fifth rotating element 315 is less than the thickness of the fifth support element 33, and the height of the fifth rotating element 315 is less than the height of the fifth support element 33.

[0123] The dimensions of the fifth rotating element 315 match those of the third rotating element 313. Generally, the length of the fifth rotating element 315 is greater than the length of the third rotating element 313, and the thickness of the fifth rotating element 315 is equal to the thickness of the third rotating element 313.

[0124] In some embodiments, the fifth rotating element 315 is fixedly connected to the fifth support element 33, including but not limited to bolt connection.

[0125] In some embodiments, the fifth rotating element 315 and the second linkage element 37 are rotatably connected without separation. For example, the fifth rotating element 315 and the second linkage element 37 rotate through a rotating shaft and a rotating hole.

[0126] In some embodiments, the fifth rotating element 315 is a fourth connecting plate made of metal. The fifth rotating element 315 is mounted on the fifth support element 33, providing a rotation fulcrum for the first end of the second linkage element 37.

[0127] The cross-section of the sixth rotating element 316 is circular.

[0128] The dimensions of the sixth rotating element 316 are matched with the dimensions of the sixth support element 36. Generally, the radial dimension of the sixth rotating element 316 is smaller than the length and height of the sixth support element 36.

[0129] The dimensions of the sixth rotating element 316 are matched with the dimensions of the first linkage element 34. Generally, the radial dimension of the sixth rotating element 316 is smaller than the length and height of the first linkage element 34.

[0130] The dimensions of the sixth rotating element 316 are matched with those of the fourth rotating element 314. Generally, the radial dimension of the sixth rotating element 316 is equal to the radial dimension of the fourth rotating element 314, and the axial dimension of the sixth rotating element 316 is greater than the axial dimension of the fourth rotating element 314.

[0131] In some embodiments, the sixth rotating element 316 is fixedly connected to the sixth support element 36, including but not limited to bolted connections.

[0132] In some embodiments, the sixth rotating element 316 and the second linkage element 37 are rotatably connected without separation. For example, the sixth rotating element 316 and the second linkage element 37 rotate through a rotating shaft and a rotating hole.

[0133] In some embodiments, the sixth rotating element 316 is a second connecting rod made of metal. The sixth rotating element 316 is located on the side of the sixth support element 36, providing a rotation fulcrum for the second end of the second linkage element 37.

[0134] like Figure 9 , Figure 10 , Figure 11 As shown, the locking unit 40 includes a second sliding element 41, a locking element 42, a cavity element 43, and a third connecting element 44. The second sliding element 41 is slidably disposed at the top of the slurry pouring unit 30 and is used for reciprocating movement in the vertical direction. The locking element 42 is disposed at the end of the second sliding element 41 and abuts against the slurry tank A, used to follow the movement of the second sliding element 41 to secure the slurry tank A to the slurry pouring unit 30. The cavity element 43 is disposed through the second sliding element 41. The third connecting element 44 is movably disposed inside the cavity element 43 and rotatably connected to the slurry pouring unit 30, used to drive the second sliding element 41 to reciprocate in the vertical direction.

[0135] Specifically, the second sliding element 41 is slidably disposed inside the first sliding element 39; the third connecting element 44 is threadedly connected to the second connecting element 310.

[0136] The cross-section of the second sliding element 41 is rectangular.

[0137] The dimensions of the second sliding element 41 match those of the first sliding element 39. Generally, the length of the second sliding element 41 is equal to the length of the first sliding element 39, the width of the second sliding element 41 is equal to the width of the first sliding element 39, and the height of the second sliding element 41 is greater than the height of the first sliding element 39.

[0138] In some embodiments, the second sliding element 41 is a sliding plate made of metal. The second sliding element 41 slides vertically along the first sliding element 39, causing the locking element 42 to complete the lifting and lowering action.

[0139] The locking element 42 has a rectangular cross-section. A rubber gasket (not shown in the figure) is provided at the bottom end of the locking element 42 to contact the slurry tank A, thereby improving stability.

[0140] The dimensions of the locking element 42 are matched with the dimensions of the second sliding element 41. Generally, the length of the locking element 42 is equal to the length of the second sliding element 41, the width of the locking element 42 is greater than the width of the second sliding element 41, and the height of the locking element 42 is less than the height of the second sliding element 41.

[0141] In some embodiments, the locking element 42 is fixedly connected to the second sliding element 41, including but not limited to being integrally formed.

[0142] In some embodiments, the locking element 42 is a locking plate made of metal. The locking element 42 moves with the second sliding element 41 to press against the top of the slurry bucket, thereby locking the slurry bucket and preventing slippage or tipping during operation.

[0143] The cross-section of the cavity element 43 is circular.

[0144] The dimensions of the cavity element 43 are matched with the dimensions of the second sliding element 41. Generally, the radial dimension of the cavity element 43 is smaller than the length and width of the second sliding element 41, and the axial dimension of the cavity element 43 is equal to the height of the second sliding element 41.

[0145] In some embodiments, the cavity element 43 is a cavity. The cavity element 43 is used to accommodate the third connecting element 44 and serves a guiding function.

[0146] The third connecting element 44 has a circular cross-section. The outer edge of the third connecting element 44 is provided with an external thread (not shown in the figure) for threaded connection with the second connecting element 310.

[0147] The dimensions of the third connecting element 44 are matched with the dimensions of the cavity element 43. Generally, the radial dimension of the third connecting element 44 is equal to the radial dimension of the cavity element 43, and the axial dimension of the third connecting element 44 is greater than the axial dimension of the cavity element 43.

[0148] The dimensions of the third connecting element 44 match those of the second connecting element 310. Generally, the radial dimension of the third connecting element 44 is equal to the radial dimension of the second connecting element 310.

[0149] In some embodiments, the third connecting element 44 is a threaded rod. The third connecting element 44 transmits the rotational force of the control element 47, causing the second sliding element 41 to move vertically.

[0150] Furthermore, the locking unit 40 also includes a first limiting element 45, a second limiting element 46, and a control element 47. The first limiting element 45 is disposed inside the cavity element 43; the second limiting element 46 is disposed on the third connecting element 44 and is connected to the first limiting element 45 to limit its movement, thus preventing the third connecting element 44 from disengaging from the cavity element 43; the control element 47 is disposed at the top of the third connecting element 44 and is connected to the third connecting element 44 to drive the third connecting element 44 to move circumferentially.

[0151] The cross-section of the first limiting element 45 is circular.

[0152] The dimensions of the first limiting element 45 are matched with the dimensions of the cavity element 43. Generally, the radial dimension of the first limiting element 45 is larger than the radial dimension of the cavity element 43, and the axial dimension of the first limiting element 45 is smaller than the axial dimension of the cavity element 43.

[0153] The dimensions of the first limiting element 45 are matched with the dimensions of the second sliding element 41. Generally, the radial dimension of the first limiting element 45 is smaller than the length and width of the second sliding element 41.

[0154] In some embodiments, the first limiting element 45 is a limiting hole. The first limiting element 45, in conjunction with the second limiting element 46, serves to limit axial movement.

[0155] The cross-section of the second limiting element 46 is circular.

[0156] The dimensions of the second limiting element 46 are matched with the dimensions of the third connecting element 44. Generally, the inner diameter of the second limiting element 46 is equal to the radial dimension of the third connecting element 44, and the axial dimension of the second limiting element 46 is smaller than the axial dimension of the third connecting element 44.

[0157] The dimensions of the second limiting element 46 are matched with the dimensions of the first limiting element 45. Generally, the outer diameter of the second limiting element 46 is equal to the radial dimension of the first limiting element 45, and the axial dimension of the second limiting element 46 is equal to the axial dimension of the first limiting element 45.

[0158] In some embodiments, the second limiting element 46 is fixedly connected to the third connecting element 44, including but not limited to welding.

[0159] In some embodiments, the second limiting element 46 is a limiting block made of metal. The second limiting element 46 cooperates with the first limiting element 45 to prevent the third connecting element 44 from disengaging from the cavity element 43.

[0160] In some embodiments, the control element 47 is fixedly connected to the third connecting element 44, including but not limited to welding.

[0161] In some embodiments, the control element 47 is a control handle made of metal. The control element 47 is manually operated to drive the third connecting element 44 to rotate around its circumference, thereby raising, lowering, locking, and unlocking the locking element 42.

[0162] like Figure 12 As shown, the painting propulsion unit 50 includes a seventh support element 51, a third moving element 52, two third transmission elements 53, a fourth transmission element 54, a fourth connecting element 55, and a third driving element 56. The seventh support element 51 is located at the front end of the slurry propulsion unit 20 and connected to it. The third moving element 52 is slidably located at the front end of the seventh support element 51, and a coating unit 60 is located at the front end of the third moving element 52, which is used to drive the coating unit 60 to reciprocate in the horizontal direction. Two third transmission elements 53 are symmetrically located at the front end of the seventh support element 51 and are rotatably connected to the seventh support element 51, respectively, for rotating in their own circumference. The fourth transmission element 54 is connected to the two third transmission elements 53 respectively. The fourth connecting element 55 is located at the bottom end of the third moving element 52 and is connected to the third moving element 52 and the fourth transmission element 54 respectively, for driving the third moving element 52 to reciprocate in the horizontal direction under the action of the fourth transmission element 54. The third driving element 56 is located at the rear end of the seventh support element 51 and is connected to a third transmission element 53, for driving the third transmission element 53 to rotate in its own circumference.

[0163] Specifically, the seventh support element 51 is disposed at the front end of the second support element 21 and is connected to the second support element 21.

[0164] The seventh support element 51 is a frame structure.

[0165] The dimensions of the seventh support element 51 match those of the second support element 21. Generally, the length of the seventh support element 51 is greater than the outer length of the second support element 21, the width of the seventh support element 51 is less than the outer width of the second support element 21, and the height of the seventh support element 51 is greater than the height of the second support element 21.

[0166] In some embodiments, the seventh support element 51 is fixedly connected to the second support element 21, including but not limited to bolt connections.

[0167] In some embodiments, the seventh support element 51 is a sixth support plate made of metal. The seventh support element 51 serves as a support frame for the coating propulsion unit 50 and is fixed to the front end of the slurry propulsion unit 20.

[0168] The cross-section of the third moving element 52 is rectangular.

[0169] The dimensions of the third moving element 52 are matched with the dimensions of the seventh support element 51. Generally, the length of the third moving element 52 is less than the length of the seventh support element 51, and the height of the third moving element 52 is less than the height of the seventh support element 51.

[0170] In some embodiments, the third moving element 52 is slidably connected to the seventh support element 51. For example, the third moving element 52 and the seventh support element 51 slide together via a slide rail and a slider.

[0171] In some embodiments, the third moving element 52 is a second moving plate made of metal. The third moving element 52 slides horizontally along the seventh support element 51, causing the coating unit 60 to move synchronously.

[0172] The cross-section of the third transmission element 53 is circular.

[0173] The dimensions of the third transmission element 53 are matched with the dimensions of the seventh support element 51. Generally, the radial dimension of the third transmission element 53 is smaller than the length and height of the seventh support element 51.

[0174] In some embodiments, the third transmission element 53 and the seventh support element 51 are rotatably connected without separation. For example, the third transmission element 53 and the seventh support element 51 are connected via a bearing housing.

[0175] In some embodiments, the third transmission element 53 is a second transmission gear made of metal. The third transmission element 53 receives power and rotates circumferentially, cooperating with the fourth transmission element 54 to transmit power.

[0176] In some embodiments, the fourth transmission element 54 is drive-connected to the third transmission element 53. For example, the fourth transmission element 54 engages with the third transmission element 53.

[0177] In some embodiments, the fourth transmission element 54 is a second transmission toothed belt made of rubber. The fourth transmission element 54 connects to two third transmission elements 53, synchronously transmitting power to drive the third moving element 52.

[0178] The cross-section of the fourth connecting element 55 is rectangular.

[0179] The dimensions of the fourth connecting element 55 are matched with the dimensions of the third moving element 52. Generally, the length of the fourth connecting element 55 is equal to the length of the third moving element 52, the width of the fourth connecting element 55 is greater than the width of the third moving element 52, and the height of the fourth connecting element 55 is less than the height of the third moving element 52.

[0180] In some embodiments, the fourth connecting element 55 is fixedly connected to the third moving element 52 and the fourth transmission element 54, including but not limited to bolt connections.

[0181] In some embodiments, the fourth connecting element 55 is a second adapter plate made of metal. The fourth connecting element 55 connects the fourth transmission element 54 and the third moving element 52, converting transmission power into linear displacement power.

[0182] In some embodiments, the third drive element 56 is fixedly connected to the seventh support element 51, including but not limited to bolt connections.

[0183] In some embodiments, the third drive element 56 is drively connected to a third transmission element 53. For example, the third drive element 56 and the third transmission element 53 are connected via a coupling.

[0184] In some embodiments, the third drive element 56 is a second drive motor. The third drive element 56 serves as the power source for the coating propulsion unit 50, driving a third transmission element 53 to operate and providing movement power for slurry scraping and defoaming.

[0185] like Figure 13 As shown, the coating unit 60 includes an eighth support element 61, a fourth drive element 62, a first mounting element 63, a first coating element 64, and two second coating elements 65. The eighth support element 61 is located at the front end of the coating propulsion unit 50 and connected to the output end of the coating propulsion unit 50. It is used to reciprocate horizontally under the action of the coating propulsion unit 50. The fourth drive element 62 is located on the side of the eighth support element 61 and connected to the eighth support element 61. It is used to follow the eighth support element 61 in movement. The first mounting element 63 is removably connected to the output end of the fourth drive element 62. It is used to reciprocate vertically under the action of the fourth drive element 62 and follow the eighth support element 61 in movement. The first coating element 64 is located at the bottom end of the first mounting element 63 and connected to the first mounting element 63. It is used to follow the first mounting element 63 in movement to scrape the slurry. Two second coating elements 65 are symmetrically located at the front end of the first coating element 64 and connected to the first coating element 64 respectively. They are used to follow the first coating element 64 in movement to scrape the slurry.

[0186] Specifically, the eighth support element 61 is disposed at the front end of the third moving element 52 and is connected to the third moving element 52.

[0187] The cross-section of the eighth support element 61 is rectangular.

[0188] The dimensions of the eighth support element 61 are matched with the dimensions of the third moving element 52. Generally, the length of the eighth support element 61 is greater than the width of the third moving element 52, the width of the eighth support element 61 is less than the length of the third moving element 52, and the height of the eighth support element 61 is equal to the height of the third moving element 52.

[0189] In some embodiments, the eighth support element 61 is fixedly connected to the third movable element 52, including but not limited to bolted connections.

[0190] In some embodiments, the eighth support element 61 is a seventh support plate made of metal. The eighth support element 61 carries all components of the coating unit 60 and moves synchronously with the third moving element 52.

[0191] In some embodiments, the fourth drive element 62 is fixedly connected to the eighth support element 61, including but not limited to bolted connections.

[0192] In some embodiments, the fourth drive element 62 is a first electric cylinder. The fourth drive element 62 drives the first mounting element 63 to move vertically, adjusting the working height of the first coating element 64 and the second coating element 65.

[0193] In some embodiments, the first mounting element 63 has a U-shaped cross-section. Specifically, the first mounting element 63 includes a first mounting plate and a second mounting cavity. The first mounting plate is removably connected to the output end of the fourth driving element 62; the second mounting cavity is disposed at the bottom end of the first mounting plate, and a first coating element 64 is disposed inside the second mounting cavity.

[0194] The dimensions of the second mounting cavity match the dimensions of the first mounting plate. Generally, the length of the second mounting cavity is equal to the length of the first mounting plate, the width of the second mounting cavity is less than the width of the first mounting plate, and the height of the second mounting cavity is less than the height of the first mounting plate.

[0195] In some embodiments, the first mounting element 63 and the fourth drive element 62 are removably connected. For example, the first mounting element 63 and the fourth drive element 62 are connected via a quick-connect coupling.

[0196] In some embodiments, the first mounting element 63 is made of metal. The first mounting element 63 connects the fourth driving element 62 and the first coating element 64, transmitting vertical displacement power. The first mounting element 63 and the fourth driving element 62 form a detachable connection, facilitating the disassembly, maintenance, and replacement of the first coating element 64 and the second coating element 65.

[0197] The first coated element 64 has a rectangular cross-section.

[0198] The dimensions of the first coating element 64 are matched with the dimensions of the first mounting element 63. Generally, the length of the first coating element 64 is greater than the length of the second mounting cavity, the width of the first coating element 64 is equal to the width of the second mounting cavity, and the height of the first coating element 64 is greater than the height of the second mounting cavity.

[0199] In some embodiments, the first coating element 64 is fixedly connected to the first mounting element 63, including but not limited to bolt connections.

[0200] In some embodiments, the first coating element 64 is a first coating plate made of plastic. The first coating element 64 is the main scraping component, working in conjunction with the second coating element 65 to smooth the surface slurry.

[0201] The cross-section of the second coating element 65 is arc-shaped.

[0202] The dimensions of the second coating element 65 are matched with the dimensions of the first coating element 64. Generally, the width (thickness) of the second coating element 65 is smaller than the width (thickness) of the first coating element 64, and the height of the second coating element 65 is equal to the height of the first coating element 64.

[0203] In some embodiments, the second coating element 65 is fixedly connected to the first coating element 64, including but not limited to integral molding.

[0204] In some embodiments, the second coating element 65 is a second coating plate made of plastic. The second coating element 65 assists the first coating element 64 in completing the coating operation.

[0205] like Figure 14 , Figure 15As shown, the defoaming unit 70 includes a ninth support element 71, a tenth support element 72, two eleventh support elements 73, a twelfth support element 74, two third linkage elements 75, two fourth linkage elements 76, a fifth linkage element 77, a fifth drive element 78, a sixth drive element 79, a second mounting element 710, and a defoaming element 711. The ninth support element 71 is disposed on the side of the coating unit 60 and connected to the coating unit 60, for moving with the coating unit 60; the tenth support element 72 is disposed at the first end of the ninth support element 71 and connected to the ninth support element 71; two eleventh support elements 73 are symmetrically disposed at the second end of the ninth support element 71 and are respectively connected to the ninth support element 71; the first end of the twelfth support element 74 is rotatably disposed between the two eleventh support elements 73, for horizontal rotation along its own first end; the first ends of two third linkage elements 75 are symmetrically disposed at the first end of the twelfth support element 74 and are respectively rotatably connected to the twelfth support element 74; the first ends of two fourth linkage elements 76 are symmetrically disposed outside the two eleventh support elements 73, the first ends of the two fourth linkage elements 76 are respectively rotatably connected to the corresponding eleventh support element 73, and the second ends of the two fourth linkage elements 76 are respectively rotatably connected to the second ends of the corresponding third linkage elements 75; a fifth linkage element 77 is disposed on... A fifth drive element 78 is rotatably connected to the second end of the tenth support element 72 between the two third linkage elements 75, and is used to cooperate with the third linkage elements 75 and the fourth linkage element 76 to drive the twelfth support element 74 to rotate horizontally along its first end; the fifth drive element 78 is rotatably disposed inside the tenth support element 72, and the output end of the fifth drive element 78 is connected to the fifth linkage element 77, and is used to drive the fifth linkage element 77 to reciprocate along the axial direction of the fifth drive element 78; the sixth drive element 79 is disposed on the side of the twelfth support element 74 and is connected to the twelfth support element 74, and is used to follow the twelfth support element 74 to move; the second mounting element 710 is removably connected to the output end of the sixth drive element 79, and is used to reciprocate in the vertical direction under the action of the sixth drive element 79; the defoaming element 711 is disposed at the bottom end of the second mounting element 710 and is rotatably connected to the second mounting element 710, and is used to follow the second mounting element 710 to defoam the slurry after scraping.

[0206] Specifically, the ninth support element 71 is disposed on the side of the eighth support element 61 and is connected to the eighth support element 61.

[0207] The cross-section of the ninth support element 71 is rectangular.

[0208] The dimensions of the ninth support element 71 are matched with those of the eighth support element 61. Generally, the length of the ninth support element 71 is greater than the length of the eighth support element 61, the width of the ninth support element 71 is equal to the width of the eighth support element 61, and the height of the ninth support element 71 is not greater than the height of the eighth support element 61.

[0209] In some embodiments, the ninth support element 71 is fixedly connected to the eighth support element 61, including but not limited to bolted connections.

[0210] In some embodiments, the ninth support element 71 is an eighth support plate made of metal. The ninth support element 71 connects the coating unit 60 and the defoaming unit 70, allowing the defoaming unit 70 to move synchronously with the coating unit 60.

[0211] In some embodiments, the tenth support element 72 has a U-shaped cross-section. Specifically, the tenth support element 72 includes a ninth support plate and a third mounting cavity. The ninth support plate is disposed at the first end of the ninth support element 71 and connected to the ninth support element 71; the third mounting cavity is disposed on the side of the ninth support plate, and a fifth drive element 78 is disposed inside the third mounting cavity.

[0212] The dimensions of the ninth support plate match the dimensions of the ninth support element 71. Generally, the width of the ninth support plate is less than the length of the ninth support element 71, the length of the ninth support plate is greater than the width of the ninth support element 71, and the height of the ninth support plate is less than the height of the ninth support element 71.

[0213] The dimensions of the third mounting cavity are matched with the dimensions of the ninth support plate. Generally, the length of the third mounting cavity is less than the length of the ninth support plate, the width of the third mounting cavity is equal to the width of the ninth support plate, and the height of the third mounting cavity is less than the height of the ninth support plate.

[0214] In some embodiments, the tenth support element 72 is fixedly connected to the ninth support element 71, including but not limited to bolt connections.

[0215] In some embodiments, the tenth support element 72 is made of metal. The tenth support element 72 provides a mounting location for the fifth drive element 78.

[0216] The cross-section of the eleventh support element 73 is rectangular.

[0217] The dimensions of the eleventh support element 73 match those of the ninth support element 71. Generally, the length of the eleventh support element 73 is less than the length of the ninth support element 71, the width of the eleventh support element 73 is greater than the width of the ninth support element 71, and the height of the eleventh support element 73 is less than the height of the ninth support element 71.

[0218] In some embodiments, the eleventh support element 73 is fixedly connected to the ninth support element 71, including but not limited to welding.

[0219] In some embodiments, the eleventh support element 73 is a tenth support plate made of metal. The eleventh support element 73 serves as the rotating base for the twelfth support element 74 and the fourth linkage element 76.

[0220] In some embodiments, the twelfth support element 74 has an L-shaped cross-section. Specifically, the twelfth support element 74 includes an eleventh support plate and a twelfth support plate. The eleventh support plate is rotatably disposed between the two eleventh support elements 73, and corresponding fourth linkage elements 76 are respectively disposed at the top and bottom ends of the eleventh support plate; the twelfth support plate is disposed at the end of the eleventh support plate, and a sixth driving element 79 is disposed on the side of the twelfth support plate, and is connected to the eleventh support plate and the sixth driving element 79 respectively.

[0221] The dimensions of the eleventh support plate match the dimensions of the eleventh support element 73. Generally, the length of the eleventh support plate is less than the width of the eleventh support element 73, the width of the eleventh support plate is less than the length of the eleventh support element 73, and the height of the eleventh support plate is less than the distance between the two eleventh support elements 73.

[0222] The dimensions of the twelfth support plate are matched with those of the eleventh support plate. Generally, the length of the twelfth support plate is greater than the width of the eleventh support plate, the width of the twelfth support plate is less than the length of the eleventh support plate, and the height of the twelfth support plate is equal to the height of the eleventh support plate.

[0223] In some embodiments, the twelfth support element 74 and the eleventh support element 73 are rotatably connected without separation. For example, the twelfth support element 74 and the eleventh support element 73 rotate through a rotating shaft and a rotating hole.

[0224] In some embodiments, the twelfth support element 74 is made of metal. The twelfth support element 74 rotates horizontally in coordination with the third linkage element 75, the fourth linkage element 76, and the fifth linkage element 77 to adjust the working position of the defoaming element 711.

[0225] In some embodiments, the third linkage element 75 and the twelfth support element 74 are rotatably connected without separation. For example, the third linkage element 75 and the twelfth support element 74 rotate through a rotating shaft and a rotating hole.

[0226] In some of the embodiments, the third linkage element 75 is a third linkage plate made of metal.

[0227] In some embodiments, the fourth linkage element 76 and the eleventh support element 73 are rotatably connected without separation. For example, the fourth linkage element 76 and the eleventh support element 73 rotate through a rotating shaft and a rotating hole.

[0228] In some embodiments, the fourth linkage element 76 and the third linkage element 75 are rotatably connected without separation. For example, the fourth linkage element 76 and the third linkage element 75 rotate through a rotating shaft and a rotating hole.

[0229] In some embodiments, the fourth linkage element 76 is a fourth linkage plate made of metal. The fourth linkage element 76 and the third linkage element 75 cooperate to form a linkage mechanism, driving the twelfth support element 74 to complete angular rotation.

[0230] In some embodiments, the fifth linkage element 77 and the third linkage element 75 are rotatably connected without separation. For example, the fifth linkage element 77 and the third linkage element 75 rotate through a rotating shaft and a rotating hole.

[0231] In some embodiments, the fifth linkage element 77 is a fifth linkage plate made of metal. The fifth linkage element 77 receives power from the fifth driving element 78, driving the third linkage element 75 and the fourth linkage element 76 to move.

[0232] In some embodiments, the fifth drive element 78 and the tenth support element 72 are rotatably connected without separation. For example, the fifth drive element 78 and the tenth support element 72 rotate through a rotating shaft and a rotating hole.

[0233] In some embodiments, the output of the fifth drive element 78 is fixedly connected to the fifth linkage element 77, including but not limited to bolt connection.

[0234] In some embodiments, the fifth drive element 78 is a second cylinder. The fifth drive element 78 outputs reciprocating power to drive the fifth linkage element 77 to move, thereby adjusting the defoaming position.

[0235] In some embodiments, the sixth drive element 79 is fixedly connected to the twelfth support element 74, including but not limited to bolted connections.

[0236] In some embodiments, the sixth driving element 79 is a second electric cylinder. The sixth driving element 79 drives the second mounting element 710 to move vertically, controlling the defoaming element 711 to rise and fall to adhere to the slurry surface.

[0237] In some embodiments, the second mounting element 710 has a U-shaped cross-section. Specifically, the second mounting element 710 includes a second mounting plate and a fourth mounting cavity. The second mounting plate is removably connected to the output end of the sixth driving element 79; the fourth mounting cavity is disposed at the bottom end of the second mounting plate, and an anti-foaming element 711 is rotatably disposed inside the fourth mounting cavity.

[0238] The dimensions of the fourth mounting cavity match the dimensions of the second mounting plate. Generally, the length of the fourth mounting cavity is less than the length of the second mounting plate, the width of the fourth mounting cavity is equal to the width of the second mounting plate, and the height of the fourth mounting cavity is less than the height of the second mounting plate.

[0239] In some embodiments, the second mounting element 710 is removably connected to the sixth drive element 79. For example, the second mounting element 710 and the sixth drive element 79 are connected via a quick-connect coupling.

[0240] In some embodiments, the second mounting element 710 is made of metal. The second mounting element 710 connects the sixth driving element 79 and the defoaming element 711, transmitting vertical displacement power. The second mounting element 710 and the sixth driving element 79 form a detachable connection, facilitating the disassembly, maintenance, and replacement of the defoaming element 711.

[0241] In some embodiments, the defoaming element 711 and the second mounting element 710 are rotatably connected without separation. For example, the defoaming element 711 and the second mounting element 710 rotate through a rotating shaft and a rotating hole.

[0242] In some embodiments, the defoaming element 711 is a defoaming roller made of plastic. The defoaming element 711 breaks up air bubbles on the surface of the slurry, preventing pinholes and depressions in the floor.

[0243] The method of using this invention is as follows: (a) Equipment positioning and fixing of slurry tank A The equipment is moved to the construction start position by the first moving element 12 at the bottom of the base element 11; Twist the control element 47 to drive the third connecting element 44 to rotate along the circumference of the corresponding second connecting element 310 and move it away from the sixth bracket element 36 along the circumference of the second connecting element 310. The third connecting element 44 drives the second sliding element 41 to move upward along the height direction of the first sliding element 39. The second sliding element 41 lifts the locking element 42. Place the slurry container A containing the floor slurry on the placement unit; Twist the control element 47 to make the third connecting element 44 rotate along the circumference of the corresponding second connecting element 310 and move towards the sixth support element 36 along the circumference of the second connecting element 310. The third connecting element 44 drives the second sliding element 41 to move downward along the height direction of the first sliding element 39. The second sliding element 41 causes the locking element 42 to move downward until the bottom end of the locking element 42 presses against the top of the slurry tank A, thus completing the locking and fixing of the slurry tank A.

[0244] (ii) Slurry spreading operation The second drive element 35 is activated, causing the first end of the corresponding first linkage element 34 to rotate (counterclockwise) along the circumference of the third rotating element 313 toward the fifth support element 33. The first linkage element 34 drives the corresponding sixth support element 36 to rotate vertically (counterclockwise). The sixth support element 36 drives the slurry tank A to rotate vertically (counterclockwise) through the placement element 38, thereby tilting the slurry tank A so that the slurry in the slurry tank A flows to the ground (at this time, the second drive element 35 stops working). During the process, when the slurry tank A tilts, the positions of the second linkage element 37 and the second drive element 35 will change accordingly, so that the first end of the second linkage element 37 changes angle along the circumference of the fifth rotation element 315, and the second end of the second linkage element 37 changes angle along the circumference of the sixth rotation element 316. So that the bottom end of the second driving element 35 changes angle along the circumference of the first rotating element 311, and the output end of the second driving element 35 changes angle along the circumference of the second rotating element 312; The second end of the first linkage element 34 changes angle along the circumference of the fourth rotation element 314; When the slurry tank A tilts so that the slurry in the slurry tank A flows to the ground, the first drive element 26 is activated, so that it drives a second moving element 22 to move along the length direction (horizontal direction) of the second support element 21 through the transmission cooperation of the first transmission element 23 and the second transmission element 24. The second moving element 22 drives the slurry bucket A on the placement element 38 to move synchronously through the third support element 31, thereby causing the slurry in the slurry bucket A to be spread along the length direction.

[0245] (III) Slurry application The fourth drive element 62 is activated, causing it to drive the first coating element 64 and the second coating element 65 to move vertically toward the ground (slurry) via the first mounting element 63 until the first coating element 64 and the second coating element 65 come into contact with the slurry, at which point the fourth drive element 62 stops working. During the process, the third drive element 56 is activated, which drives the third moving element 52 to move along the length direction (horizontal direction) of the seventh support element 51 through the transmission cooperation between the third transmission element 53 and the fourth transmission element 54. The third moving element 52 drives the first coating element 64 and the second coating element 65 to move synchronously through the eighth support element 61, thereby smoothing the slurry spread on the ground.

[0246] (iv) Defoaming of slurry During the scraping process, the fifth drive element 78 is activated, which drives the first end of the twelfth support element 74 to rotate horizontally through the cooperation between the fifth linkage element 77, the third linkage element 75, and the fourth linkage element 76. The twelfth support element 74 drives the defoaming element 711 to rotate synchronously through the second mounting element 710 until the defoaming element 711 is deployed and then the fifth drive element 78 stops working. Start the sixth drive element 79 to work, so that it drives the defoaming element 711 to move vertically towards the ground (the slurry after scraping) through the second mounting element 710 until the defoaming element 711 comes into contact with the slurry after scraping, then stop the sixth drive element 79 from working. The defoaming element 711 is moved along the length (horizontal direction) of the seventh support element 51 by the cooperation between the eighth support element 61 and the ninth support element 71, thereby continuously breaking the air bubbles in the coated slurry.

[0247] (v) Finishing and resetting of work After the construction of a single area is completed, the first coating element 64, the second coating element 65, and the defoaming element 711 are lifted and reset. Return slurry bucket A to its vertical position; Twist the control element 47 to raise the locking element 42, thereby releasing the locking element 42 from fixing the slurry tank A. Remove the empty slurry tank A, and then move the equipment to the next construction area. Repeat the above process to carry out continuous construction.

[0248] The advantages of this invention are as follows: It utilizes a base unit as the load-bearing structure of the entire machine, allowing for movable positioning and providing stable support for the entire flooring construction process; it uses a slurry propulsion unit to drive the slurry pouring unit horizontally, achieving mechanized transport of the slurry bucket and reducing the labor intensity of manual pouring; it uses a locking unit to lock and limit the slurry bucket, preventing slippage and tipping during operation and improving equipment safety; it uses a coating propulsion unit to drive the coating unit to reciprocate, automating the slurry leveling operation, eliminating differences in manual operation, and ensuring uniform flatness over large areas; it uses a defoaming unit to work synchronously with the coating unit, promptly and comprehensively eliminating air bubbles on the slurry surface, preventing defects such as pinholes and depressions in the flooring, and meeting the cleanliness standards of food workshops; the entire machine integrates multiple construction processes with smooth process connections, adaptable to continuous and standardized construction of large-area floors in large food factories, improving overall construction efficiency.

[0249] The above description is merely a preferred embodiment of the present invention and does not limit the implementation and protection scope of the present invention. Those skilled in the art should realize that any equivalent substitutions and obvious changes made based on the description and illustrations of the present invention should be included within the protection scope of the present invention.

Claims

1. A food factory flooring construction equipment, characterized in that, include: Base unit; A slurry propulsion unit is disposed at the top of the base unit and connected to the base unit; A slurry pouring unit is located at the top of the slurry propulsion unit and connected to the output end of the slurry propulsion unit. It is used to place the slurry bucket, tilt the slurry bucket vertically, and reciprocate horizontally under the action of the slurry propulsion unit so that the slurry in the slurry bucket is spread on the ground. At least one locking unit is movably disposed at the top of the slurry pouring unit for reciprocating movement in the vertical direction to secure the slurry bucket to the slurry pouring unit; A coating propulsion unit is disposed at the front end of the slurry propulsion unit and connected to the slurry propulsion unit; A coating unit is disposed at the front end of the coating propulsion unit and connected to the output end of the coating propulsion unit. It is used to reciprocate in the horizontal direction under the action of the coating propulsion unit to scrape the slurry. A defoaming unit is disposed on the side of the coating unit and connected to the coating unit, and is used to move with the coating unit to defoam the slurry after it is coated.

2. The food factory flooring construction equipment according to claim 1, characterized in that, The base unit includes: Base element; A plurality of first moving elements are distributed at the bottom end of the base element and are respectively connected to the base element to drive the base element to move; A plurality of first support elements are distributed on the top of the base element, and the top of the plurality of first support elements is provided with the slurry propulsion unit and is respectively connected to the base element and the slurry propulsion unit; A pushing element is disposed at the top of the base element and located at the rear end of the slurry propulsion unit, and is connected to the base element for pushing the base element.

3. The food factory flooring construction equipment according to claim 1, characterized in that, The slurry propulsion unit includes: The second support element is disposed at the top of the base unit, and the coating propulsion unit is disposed at the front end of the exterior of the second support element and is connected to the base unit and the coating propulsion unit respectively. Two second moving elements are symmetrically arranged inside the second support element, and the slurry pouring unit is arranged between the two second moving elements and is slidably connected to the second support element respectively, for driving the slurry pouring unit to reciprocate in the horizontal direction; Two first transmission elements are symmetrically arranged inside the second support element and are rotatably connected to the second support element respectively, for rotating along their own circumference; The second transmission element is connected to the two first transmission elements respectively. At least one first connecting element is disposed at the top end of a second moving element and is connected to the second moving element and the second transmission element respectively, for driving the second moving element to reciprocate in the horizontal direction under the action of the second transmission element; A first driving element is disposed at the rear end of the second support element and is connected to a first transmission element for driving the first transmission element to rotate around its own circumference.

4. The food factory flooring construction equipment according to claim 1, characterized in that, The slurry pouring unit includes: The third support element is disposed at the top of the slurry propulsion unit and connected to the output end of the slurry propulsion unit, and moves reciprocally in the horizontal direction under the action of the slurry propulsion unit; Two fourth support elements are symmetrically arranged at the bottom of the interior of the third support element and are respectively connected to the third support element; Two fifth support elements are symmetrically arranged at the bottom of the interior of the third support element, and are respectively located at the rear end of the corresponding fourth support element, and are respectively connected to the third support element; Two first linkage elements, the first ends of the two first linkage elements are respectively rotatably connected to the corresponding fifth bracket element; Two second driving elements are respectively disposed between the corresponding fourth support element and the corresponding first linkage element, and are rotatably connected to the corresponding fourth support element and the corresponding first linkage element, respectively, for driving the first linkage element to rotate circumferentially along its first end; Two sixth support elements are symmetrically arranged between two first linkage elements and are rotatably connected to the second ends of the two first linkage elements respectively, for tilting in the vertical direction under the action of the first linkage elements; Two second linkage elements, the first ends of the two second linkage elements are respectively rotatably connected to the corresponding fifth bracket element, and the second ends of the two second linkage elements are respectively rotatably connected to the corresponding sixth bracket element, and are respectively located outside the two first linkage elements; A placement element is disposed between the two sixth support elements and connected to the two sixth support elements respectively. It is used to place the slurry bucket, tilt the slurry bucket vertically under the action of the sixth support elements, and reciprocate horizontally under the action of the third support element so that the slurry in the slurry bucket is spread on the ground. At least one first sliding element is disposed at the top of the sixth support element and slidably connected to the locking unit, for the locking unit to reciprocate along the height direction of the first sliding element; At least one second connecting element is disposed at the bottom end inside the first sliding element and is rotatably connected to the locking unit.

5. The food factory flooring construction equipment according to claim 4, characterized in that, The slurry pouring unit also includes: Two first rotating elements are respectively disposed at the bottom end of the corresponding second driving element and respectively rotatably connected to the corresponding fourth support element, for the bottom end of the second driving element to rotate along the circumference of the first rotating element; Two second rotating elements are respectively connected to the output end of the corresponding second driving element and respectively rotatably connected to the middle part of the corresponding first linkage element, so as to allow the output end of the second driving element to rotate along the circumference of the second rotating element; Two third rotating elements are respectively disposed at the ends of the corresponding fifth bracket elements and respectively rotatably connected to the first end of the corresponding first linkage element, for the first end of the first linkage element to rotate along the circumference of the third rotating element; Two fourth rotating elements are respectively disposed on the side of the corresponding sixth bracket element and respectively rotatably connected to the second end of the corresponding first linkage element, for the second end of the first linkage element to rotate along the circumference of the fourth rotating element; Two fifth rotating elements are respectively disposed at the ends of the corresponding fifth support elements and respectively located at the top of the corresponding third rotating elements, and respectively rotatably connected to the first end of the corresponding second linkage element, for the first end of the second linkage element to rotate along the circumference of the fifth rotating element; Two sixth rotating elements are respectively disposed on the side of the corresponding sixth support element and located at the bottom of the corresponding fourth rotating element, and respectively rotatably connected to the second end of the corresponding second linkage element, for the second end of the second linkage element to rotate along the circumference of the sixth rotating element.

6. The food factory flooring construction equipment according to claim 1, characterized in that, The locking unit includes: The second sliding element is slidably disposed at the top of the slurry pouring unit and is used for reciprocating movement in the vertical direction; A locking element is disposed at the end of the second sliding element and abuts against the slurry bucket, for moving with the second sliding element to secure the slurry bucket to the slurry pouring unit; A cavity element, wherein the cavity element extends through the second sliding element; The third connecting element is movably disposed inside the cavity element and rotatably connected to the slurry pouring unit, and is used to drive the second sliding element to reciprocate in the vertical direction.

7. The food factory flooring construction equipment according to claim 6, characterized in that, The locking unit further includes: A first limiting element is disposed inside the cavity element; The second limiting element is disposed on the third connecting element and is limitedly connected with the first limiting element, and is used to cooperate with the first limiting element to prevent the third connecting element from detaching from the cavity element; A control element is disposed at the top of the third connecting element and connected to the third connecting element, for driving the third connecting element to move along its own circumference.

8. The food factory flooring construction equipment according to claim 1, characterized in that, The coating propulsion unit includes: A seventh support element is disposed at the front end of the slurry propulsion unit and connected to the slurry propulsion unit; The third moving element is slidably disposed at the front end of the seventh support element, and the coating unit is disposed at the front end of the third moving element for driving the coating unit to reciprocate in the horizontal direction. Two third transmission elements are symmetrically arranged at the front end of the seventh support element and are rotatably connected to the seventh support element respectively, for rotating along their own circumference; The fourth transmission element is connected to both of the third transmission elements in a transmission manner. A fourth connecting element is disposed at the bottom end of the third moving element and is connected to the third moving element and the fourth transmission element respectively, and is used to drive the third moving element to reciprocate in the horizontal direction under the action of the fourth transmission element; The third driving element is disposed at the rear end of the seventh support element and is connected to the third transmission element for driving the third transmission element to rotate along its own circumference.

9. The food factory flooring construction equipment according to claim 1, characterized in that, The coating unit includes: The eighth support element is disposed at the front end of the coating propulsion unit and connected to the output end of the coating propulsion unit, and is used to reciprocate in the horizontal direction under the action of the coating propulsion unit; A fourth driving element is disposed on the side of the eighth support element and connected to the eighth support element, for moving along with the eighth support element; The first mounting element is removably connected to the output end of the fourth driving element and is used to reciprocate vertically under the action of the fourth driving element and move in accordance with the eighth support element. A first coating element is disposed at the bottom end of the first mounting element and connected to the first mounting element, and is used to move with the first mounting element to scrape the slurry. Two second coating elements are symmetrically disposed at the front end of the first coating element and connected to the first coating element respectively, for moving with the first coating element to scrape the slurry.

10. The food factory flooring construction equipment according to claim 1, characterized in that, The defoaming unit includes: A ninth support element is disposed on the side of the coating unit and connected to the coating unit for moving with the coating unit; A tenth support element is disposed at the first end of the ninth support element and connected to the ninth support element. Two eleventh support elements are symmetrically arranged at the second end of the ninth support element and are respectively connected to the ninth support element; The twelfth support element, the first end of which is rotatably disposed between the two eleventh support elements, is used to rotate horizontally along its own first end; Two third linkage elements, the first ends of the two third linkage elements are symmetrically arranged at the first end of the twelfth support element, and are respectively rotatably connected to the twelfth support element; Two fourth linkage elements, the first ends of the two fourth linkage elements are symmetrically arranged on the outside of the two eleventh bracket elements, the first ends of the two fourth linkage elements are respectively rotatably connected to the corresponding eleventh bracket elements, and the second ends of the two fourth linkage elements are respectively rotatably connected to the second ends of the corresponding third linkage elements. The fifth linkage element is disposed between the two third linkage elements and is rotatably connected to the second end of the two third linkage elements respectively, and is used to cooperate with the third linkage element and the fourth linkage element to drive the twelfth support element to rotate horizontally along its own first end; The fifth driving element is rotatably disposed inside the tenth bracket element, and the output end of the fifth driving element is connected to the fifth linkage element to drive the fifth linkage element to reciprocate along the axial direction of the fifth driving element. A sixth driving element is disposed on the side of the twelfth support element and connected to the twelfth support element, for moving along with the twelfth support element; The second mounting element is removably connected to the output end of the sixth driving element and is used to reciprocate in the vertical direction under the action of the sixth driving element. A defoaming element is disposed at the bottom end of the second mounting element and is rotatably connected to the second mounting element, for moving with the second mounting element to defoam the slurry after scraping.

Images