Structure for sampling mixed raw materials for terrace material production

Abstract

The invention discloses a sampling structure for mixed raw materials for terrace material production, which is applied to the technical field of sampling, and can cooperate with a stirring assembly, a pointing assembly and a conveying assembly by arranging a conveying mechanism and a storage assembly, and terrace material raw materials and mixed materials are stored through the storage assembly; the stirring assembly can be driven by the collecting mechanism to drive the pointing assembly to mix and stir raw materials and mixed materials, the stirring assembly can directionally collect the raw materials in the center of the storage assembly through negative pressure of the collecting mechanism, and the pointing assembly can directionally collect the raw materials in the storage assembly in multiple directions. And the conveying assembly can convey the samples subjected to directive collection in the directive assembly into the collection mechanism for storage, so that the flexibility of collecting the mixed raw material samples is improved.

Description

Technical Field

[0001] The present invention belongs to the technical field of sampling, and particularly relates to a sampling structure for the mixture of raw materials used in the production of floor materials. Background Art

[0002] In the field of floor material production, the quality inspection of the mixture of raw materials is crucial for the performance of the finished product, and its core depends on the sampling structure. The existing sampling structures generally include two types: pipeline type and stirring kettle type. The pipeline type obtains samples by setting multiple sampling ports in the conveying pipeline and cooperating with an inserted sampling device and a sealed collection device; the stirring kettle type opens sampling ports at different heights of the kettle body, and uses manual tools or piston sampling devices to transport the samples to a special collection container. These structures provide a basic guarantee for the quality control of floor material raw materials.

[0003] Currently, a Chinese invention with the publication number: CN118817966B discloses a sampling device for the production of waterborne polyurethane ink resin, including a housing, a sampling assembly, a blocking plate, a first elastic member, an air extraction hood, an extrusion assembly, a vibration assembly, etc.; a sampling assembly for sampling is connected to the housing; a blocking plate for blocking the resin is connected to the sampling assembly, and the blocking plate is made of metal material; a first elastic member is connected to the sampling assembly; the first elastic member is connected to the blocking plate; an air extraction hood for eliminating bubbles in the resin is slidably connected to the housing; an air chamber is provided in the air extraction hood; a transmission pipe is connected to the housing; the transmission pipe is communicated with the air chamber; an extrusion assembly is connected to the sampling assembly; a vibration assembly for vibrating the resin in the housing is connected to the air extraction hood. By sucking the upper side of the resin liquid surface between the push plate and the extrusion plate through the air extraction hood, it is beneficial to enhance the precipitation effect of bubbles in the resin between the push plate and the extrusion plate, and further reduce the bubble content in the sample resin.

[0004] The existing sampling structure for the mixture of raw materials used in the production of floor materials has the following disadvantages during sampling: Since there is no structure for directional sampling at various positions in the tank after mixing, it is impossible to perform directional sampling at various positions in the tank, reducing the flexibility during sampling of the mixture of raw materials. Summary of the Invention

[0005] The purpose of the present invention is directed to an existing sampling structure for the mixture of raw materials used in the production of floor materials, and its advantages are: Since there is no structure for directional sampling at various positions in the tank after mixing, it is impossible to perform directional sampling at various positions in the tank, reducing the flexibility during sampling of the mixture of raw materials.

[0006] The above technical object of the present invention is achieved by the following technical solutions: A sampling structure for raw material mixing in the production of floor materials, including a collection mechanism and a conveying mechanism. The conveying mechanism is arranged at the bottom of the collection mechanism. The collection mechanism includes a guiding component, a transmission component, a concentration component, a sampling component, and a quantitative component. The transmission component is arranged on the top of the guiding component, the concentration component is arranged at the bottom of the transmission component, the sampling component is arranged on the surface of the concentration component, and the quantitative component is arranged inside the sampling component. The conveying mechanism includes a storage component, a stirring component, a pointing component, and a transporting component. The storage component is arranged at the bottom of the guiding component, the stirring component is arranged at the bottom of the storage component, the pointing component is arranged on the surface of the stirring component, and the transporting component is arranged inside the pointing component.

[0007] By adopting the above technical solutions, by setting the collection mechanism and the conveying mechanism, the collection mechanism can provide the power required for mixing and stirring for the conveying mechanism, and can provide the required negative pressure adsorption force for the conveying mechanism to collect the samples of the mixed floor material raw materials in the directional area, so that the samples collected by the conveying mechanism can be independently separated and stored, which is convenient for subsequent multi-directional directional detection of the mixing degree of the raw materials. The conveying mechanism can collect the mixed floor material raw materials in multiple directions, improving the flexibility during the sampling of the mixed floor material samples.

[0008] The present invention is further configured as: The guiding component includes a positioning bottom plate, a sample tank, and a guiding groove. The sample tank is fixedly connected to the top of the positioning bottom plate, and the guiding groove is opened at the bottom of the positioning bottom plate.

[0009] By adopting the above technical solutions, by setting the guiding component, the positioning bottom plate can cooperate with the sample tank and the guiding groove to support the sample tank through the positioning bottom plate. The guiding groove can guide and limit the rotation of the stirring component, and the sample tank can store the samples collected by the stirring component separately.

[0010] The present invention is further configured as: The transmission component includes a positioning top plate, an air extraction pump, and a servo motor. The positioning top plate is fixedly connected to the top of the sample tank, the air extraction pump is connected to the top of the positioning top plate, and the servo motor is fixedly connected to the top of the positioning top plate.

[0011] By adopting the above technical solutions, by setting the guiding component, the positioning bottom plate can cooperate with the sample tank and the guiding groove to support the sample tank through the positioning bottom plate. The guiding groove can guide and limit the rotation of the stirring component, and the sample tank can store the samples collected by the stirring component separately.

[0012] The present invention is further configured such that: the centralized component includes a centralized pipe, a pointing port, and a discharging port. The centralized pipe is fixedly connected to the output end at the bottom of the servo motor. The pointing port is opened on the surface of the centralized pipe, and the discharging port is opened at the bottom of the surface of the centralized pipe.

[0013] With the above technical solution, by providing the centralized component, the centralized pipe can cooperate with the pointing port and the discharging port. As the centralized pipe rotates driven by the servo motor, it can provide the force required for the mixing and stirring of the stirring component. The pointing port can convey the mixed raw materials transported by the conveying component into the sampling component for storage. The discharging port can, along with the negative pressure environment in the sample tank, convey the raw materials pumped into the stirring component into the sample tank for storage.

[0014] The present invention is further configured such that: the sampling component includes a material extraction valve, a sampling pipe, and a positioning ring. The material extraction valve is connected to the surface of the pointing port. The sampling pipe is connected to the side of the material extraction valve away from the centralized pipe. The positioning ring is fixedly connected to the side of the inner side of the sampling pipe away from the centralized pipe.

[0015] With the above technical solution, by providing the sampling component, the material extraction valve can cooperate with the sampling pipe and the positioning ring. By controlling the conveyance of the mixed raw materials transported by the conveying component through the material extraction valve, the mixed raw material samples can be conveyed into the sampling pipe for storage. The positioning ring can guide and limit the movement of the metering component.

[0016] The present invention is further configured such that: the metering component includes a guiding rod, a sealing piston, and a handle. The guiding rod is slidably connected to the inner side of the positioning ring. The sealing piston is fixedly connected to the side of the guiding rod close to the centralized pipe. The handle is fixedly connected to the side of the guiding rod away from the sealing piston. The surface of the sealing piston contacts the inner side of the sampling pipe.

[0017] With the above technical solution, by providing the metering component, the guiding rod can cooperate with the sealing piston and the handle. As the sealing piston is gradually extruded by the increasing amount of mixed raw material samples in the sampling pipe, it can move outward along the positioning ring with the sealing piston, so that the sampling pipe can be blocked after being filled with the mixed raw material samples, achieving the effect of quantitatively storing the mixed raw material samples. The handle can facilitate the user to push the guiding rod to drive the sealing piston to take out the raw materials in the sampling pipe.

[0018] The present invention is further configured such that: the storage component includes a storage base, a storage tank, and a delivery pump. The storage tank is fixedly connected to the bottom of the surface of the sample tank. The storage base is fixedly connected to the bottom of the storage tank. The delivery pump is connected to the top of the storage tank.

[0019] With the above technical solution, by setting up a storage component, the storage base can cooperate with the storage tank and the delivery pump. The delivery pump is an existing fluid delivery device. After being externally connected to the floor material raw material delivery device, it can deliver the floor material raw materials into the storage tank. By supporting and positioning the storage tank through the storage base, the storage tank can temporarily store the floor material raw materials.

[0020] The present invention is further configured as follows: The stirring component includes a guiding rotating ring, a guiding rotating tube, and a sampling port. The guiding rotating ring is rotatably connected to the inner side of the guiding groove. The top of the guiding rotating ring is fixedly connected to the bottom of the centralized tube. The guiding rotating tube is communicated with the bottom of the guiding rotating ring. The bottom of the guiding rotating tube is rotatably connected to the bottom inside the storage tank. The sampling port is opened on the surface of the guiding rotating tube.

[0021] With the above technical solution, by setting up a stirring component, the guiding rotating ring can cooperate with the guiding rotating tube and the sampling port. By the guiding rotating ring rotating along the guiding groove with the centralized tube, it can drive the guiding rotating tube to rotate, so that the guiding rotating tube drives the pointing component to rotate together to mix and stir the floor material raw materials. Through the sampling port, the mixed raw materials are delivered into the guiding rotating tube, and the guiding rotating tube can deliver the mixed raw material samples into the sample tank for storage.

[0022] The present invention is further configured as follows: The pointing component includes a stirring tube, a sealing sleeve, and a collection port. The stirring tube is communicated with the surface of the guiding rotating tube. The sealing sleeve is fixedly connected to the side of the stirring tube away from the guiding rotating tube. The collection port is opened on the surface of the stirring tube.

[0023] With the above technical solution, by setting up a pointing component, the stirring tube can cooperate with the sealing sleeve and the collection port. The stirring tube can mix and stir the raw materials along with the guiding rotating tube. By sealing the stirring tube with the sealing sleeve, it can prevent a large amount of the mixed material from accidentally entering the transportation component from the stirring tube. Since the stirring tube is on the surface of the guiding rotating tube, the stirring tube can be in multiple positions inside the storage tank, so that the collection port can collect the targeted raw materials inside the storage tank through the negative pressure pumped by the transportation component.

[0024] The present invention is further configured as follows: The transportation component includes a discharge pipe, a drainage pipe, and an inlet pipe. Four discharge pipes are respectively communicated with the front side, the rear side, and the two sides inside the pointing port. The drainage pipe is communicated with the bottom of the discharge pipe. The inlet pipe is communicated with the surface of the drainage pipe. The side of the inlet pipe close to the stirring tube is communicated with the stirring tube.

[0025] With the above technical solution, by setting up the conveying component, the outlet pipe can cooperate with the drainage pipe and the inlet pipe. Through negative pressure, the air in the outlet pipe, the drainage pipe and the inlet pipe can be pumped out. Each inlet pipe can transport the raw materials in the corresponding stirring pipe to the outlet of the drainage pipe through the drainage pipe, and then the outlet pipe can transport the raw materials to the corresponding sampling pipe for storage.

[0026] In summary, the present invention has the following beneficial effects:

[0027] 1. By setting up the collection mechanism, the guiding component can cooperate with the transmission component, the concentration component, the sampling component and the metering component. Through the guiding component and the transmission component, a closed environment can be formed. The transmission component can provide the required power for the concentration component and pump out the air in the closed environment to form a negative pressure environment. The concentration component can support the sampling component and drive the conveying mechanism to rotate together to achieve the effect of mixing and stirring. The sampling component can gradually store the mixed raw material samples transported in the conveying mechanism with the negative pressure. The metering component can block the sampling component to form a closed space, and when sampling later, it is convenient for the user to take out the samples in the sampling component by pushing the metering component, improving the flexibility of storing and taking out the samples;

[0028] 2. By setting up the conveying mechanism, the storage component can cooperate with the stirring component, the pointing component and the conveying component. By storing the floor material raw materials and the mixture through the storage component, when the stirring component is driven by the collection mechanism, it can drive the pointing component to mix and stir the raw materials and the mixture. The stirring component can collect the raw materials at the central part of the storage component in a directional manner through the negative pressure of the collection mechanism. The pointing component can collect the raw materials in multiple directions in the storage component in a directional manner. The conveying component can transport the samples collected in a directional manner in the pointing component to the collection mechanism for storage, improving the flexibility of collecting the mixed raw material samples. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 is the overall structural schematic diagram of the present invention;

[0030] Figure 2 is the structural schematic diagram of the collection mechanism of the present invention;

[0031] Figure 3 is the structural schematic diagram of the guiding component and the transmission component of the present invention;

[0032] Figure 4 is the structural schematic diagram of the concentration component of the present invention;

[0033] Figure 5 is the structural schematic diagram of the sampling component and the metering component of the present invention;

[0034] Figure 6It is a schematic structural diagram of the conveying mechanism of the present invention;

[0035] Figure 7 It is a schematic structural diagram of the storage component of the present invention;

[0036] Figure 8 It is a schematic structural diagram of the stirring component and the pointing component of the present invention;

[0037] Figure 9 It is a schematic structural diagram of the transporting component of the present invention.

[0038] Reference numerals: 1, collection mechanism; 11, guiding component; 111, positioning base plate; 112, sample tank; 113, guiding groove; 12, transmission component; 121, positioning top plate; 122, air extraction pump; 123, servo motor; 13, concentration component; 131, concentration pipe; 132, pointing port; 133, discharge port; 14, sampling component; 141, pumping valve; 142, sampling pipe; 143, positioning ring; 15, metering component; 151, guiding rod; 152, sealing piston; 153, handle; 2, conveying mechanism; 21, storage component; 211, storage base; 212, storage tank; 213, delivery pump; 22, stirring component; 221, guiding swivel ring; 222, guiding swivel pipe; 223, sampling port; 23, pointing component; 231, stirring pipe; 232, sealing sleeve; 233, collection port; 24, transporting component; 241, outlet pipe; 242, drainage pipe; 243, inlet pipe. Detailed implementation manners

[0039] The present invention will be further described in detail below with reference to the accompanying drawings.

[0040] Embodiment 1:

[0041] Reference Figures 1-5, a sampling structure for raw material mixing in floor material production, including a collection mechanism 1. The collection mechanism 1 includes a guiding component 11, a transmission component 12, a concentration component 13, a sampling component 14, and a quantitative component 15. The transmission component 12 is arranged on the top of the guiding component 11, the concentration component 13 is arranged on the bottom of the transmission component 12, the sampling component 14 is arranged on the surface of the concentration component 13, and the quantitative component 15 is arranged inside the sampling component 14. By setting the collection mechanism 1, the guiding component 11 can cooperate with the transmission component 12, the concentration component 13, the sampling component 14, and the quantitative component 15. Through the cooperation of the guiding component 11 and the transmission component 12, a closed environment can be formed. The transmission component 12 can provide the required power for the concentration component 13 and extract the air in the closed environment to form a negative pressure environment. The concentration component 13 can support the sampling component 14 and drive the conveying mechanism 2 to rotate together to achieve the effect of mixing and stirring. The sampling component 14 can gradually store the mixed raw material samples conveyed in the conveying mechanism 2 along with the negative pressure. The quantitative component 15 can block the sampling component 14 to form a closed space, and when sampling subsequently, it is convenient for the user to push the quantitative component 15 to take out the samples in the sampling component 14, improving the flexibility of sample storage and extraction.

[0042] As Figure 3 shown, the guiding component 11 includes a positioning bottom plate 111, a sample tank 112, and a guiding groove 113. The sample tank 112 is fixedly connected to the top of the positioning bottom plate 111, and the guiding groove 113 is opened at the bottom of the positioning bottom plate 111. By setting the guiding component 11, the positioning bottom plate 111 can cooperate with the sample tank 112 and the guiding groove 113. The positioning bottom plate 111 can support the sample tank 112, and the guiding groove 113 can guide and limit the rotation of the stirring component 22. The sample tank 112 can store the samples collected by the stirring component 22 separately.

[0043] As Figure 3 shown, the transmission component 12 includes a positioning top plate 121, an air extraction pump 122, and a servo motor 123. The positioning top plate 121 is fixedly connected to the top of the sample tank 112, the air extraction pump 122 is connected to the top of the positioning top plate 121, and the servo motor 123 is fixedly connected to the top of the positioning top plate 121. By setting the guiding component 11, the positioning bottom plate 111 can cooperate with the sample tank 112 and the guiding groove 113. The positioning bottom plate 111 can support the sample tank 112, and the guiding groove 113 can guide and limit the rotation of the stirring component 22. The sample tank 112 can store the samples collected by the stirring component 22 separately.

[0044] As Figure 4As shown in the figure, the centralized component 13 includes a centralized pipe 131, a pointing port 132, and a discharging port 133. The centralized pipe 131 is fixedly connected to the output end at the bottom of the servo motor 123. The pointing port 132 is opened on the surface of the centralized pipe 131, and the discharging port 133 is opened at the bottom of the surface of the centralized pipe 131. By setting the centralized component 13, the centralized pipe 131 can cooperate with the pointing port 132 and the discharging port 133. As the centralized pipe 131 rotates driven by the servo motor 123, it can provide the force required for the mixing and stirring of the stirring component 22. The pointing port 132 can convey the mixed raw materials conveyed by the conveying component 24 into the sampling component 14 for storage. The discharging port 133 can convey the raw materials pumped into the stirring component 22 into the sample tank 112 for storage under the negative pressure environment in the sample tank 112.

[0045] As Figure 5 shown in the figure, the sampling component 14 includes a material extraction valve 141, a sampling pipe 142, and a positioning ring 143. The material extraction valve 141 is connected to the surface of the pointing port 132. The sampling pipe 142 is connected to the side of the material extraction valve 141 away from the centralized pipe 131. The positioning ring 143 is fixedly connected to the side of the inner side of the sampling pipe 142 away from the centralized pipe 131. By setting the sampling component 14, the material extraction valve 141 can cooperate with the sampling pipe 142 and the positioning ring 143. By controlling the conveyance of the mixed raw materials conveyed by the conveying component 24 through the material extraction valve 141, the mixed raw material samples can be conveyed into the sampling pipe 142 for storage. The positioning ring 143 can guide and limit the movement of the metering component 15.

[0046] As Figure 5 shown in the figure, the metering component 15 includes a guiding rod 151, a sealing piston 152, and a handle 153. The guiding rod 151 is slidably connected to the inside of the positioning ring 143. The sealing piston 152 is fixedly connected to the side of the guiding rod 151 close to the centralized pipe 131. The handle 153 is fixedly connected to the side of the guiding rod 151 away from the sealing piston 152. The surface of the sealing piston 152 is in contact with the inside of the sampling pipe 142. By setting the metering component 15, the guiding rod 151 can cooperate with the sealing piston 152 and the handle 153. As the sealing piston 152 is extruded by the gradually increasing mixed raw material samples in the sampling pipe 142, it can move outward along the positioning ring 143 with the sealing piston 152, so as to block the sampling pipe 142 after the sampling pipe 142 is filled with the mixed raw material samples, achieving the effect of quantitatively storing the mixed raw material samples. The handle 153 can facilitate the user to push the guiding rod 151 to drive the sealing piston 152 to take out the raw materials in the sampling pipe 142.

[0047] Brief description of the usage process: First, connect the collection mechanism 1 to a remote control terminal, then power it on and start it. After that, the user operates the collection mechanism 1 by controlling the remote control terminal. At this time, turn on the servo motor 123, and the servo motor 123 will drive the central pipe 131 to rotate the conveying mechanism 2. After the floor materials in the conveying mechanism 2 are mixed, start the air extraction pump 122. The air extraction pump 122 will extract the air in the sample tank 112, creating a negative pressure in the sample tank 112. At this time, the conveying mechanism 2 will transport the raw materials to the pointing port 132 and the discharge port 133 respectively due to the negative pressure. The raw materials at the discharge port 133 will flow into the sample tank 112, and the raw material sample at the pointing port 132 will flow into the pumping valve 141. At this time, open the pumping valve 141, and the raw material sample will enter the sampling pipe 142. As the raw material sample increases, it will gradually push the sealing piston 152, causing the guiding rod 151 to move along the positioning ring 143 until the sealing piston 152 contacts the positioning ring 143. At this time, turn off the air extraction pump 122, remove the sample tank 112 from the conveying mechanism 2, and then remove the corresponding sampling pipe 142. After that, by pushing the handle 153, the handle 153 drives the guiding rod 151 and the sealing piston 152 to take out the sample in the sampling pipe 142.

[0048] Embodiment 2:

[0049] Reference Figures 6-9 , a sampling structure for raw materials after mixing in the production of floor materials, including a conveying mechanism 2. The conveying mechanism 2 is arranged at the bottom of the collection mechanism 1. The conveying mechanism 2 includes a storage component 21, a stirring component 22, a pointing component 23, and a transporting component 24. The storage component 21 is arranged at the bottom of the guiding component 11. The stirring component 22 is arranged at the bottom of the storage component 21. The pointing component 23 is arranged on the surface of the stirring component 22. The transporting component 24 is arranged inside the pointing component 23. By setting the conveying mechanism 2, the storage component 21 can cooperate with the stirring component 22, the pointing component 23, and the transporting component 24. The storage component 21 can store the floor material raw materials and the mixed materials. When the stirring component 22 is driven by the collection mechanism 1, it can drive the pointing component 23 to mix and stir the raw materials and the mixed materials. The stirring component 22 can collect the raw materials at the central part of the storage component 21 directionally through the negative pressure of the collection mechanism 1. The pointing component 23 can collect the materials in multiple directions in the storage component 21 directionally. The transporting component 24 can transport the samples collected directionally in the pointing component 23 to the inside of the collection mechanism 1 for storage, improving the flexibility of collecting the raw material samples after mixing.

[0050] Such as Figure 7As shown, the storage assembly 21 includes a storage base 211, a storage tank 212, and a delivery pump 213. The storage tank 212 is fixedly connected to the bottom of the surface of the sample tank 112. The storage base 211 is fixedly connected to the bottom of the storage tank 212. The delivery pump 213 is connected to the top of the storage tank 212. By setting up the storage assembly 21, the storage base 211 can cooperate with the storage tank 212 and the delivery pump 213. The delivery pump 213 is an existing fluid delivery device. After being externally connected to the floor material raw material delivery device, it can deliver the floor material raw materials into the storage tank 212. By using the storage base 211 to support and position the storage tank 212, the storage tank 212 can temporarily store the floor material raw materials.

[0051] As Figure 8 shown, the stirring assembly 22 includes a guiding rotating ring 221, a guiding rotating tube 222, and a sampling port 223. The guiding rotating ring 221 is rotatably connected to the inside of the guiding groove 113. The top of the guiding rotating ring 221 is fixedly connected to the bottom of the central tube 131. The guiding rotating tube 222 is connected to the bottom of the guiding rotating ring 221. The bottom of the guiding rotating tube 222 is rotatably connected to the bottom inside the storage tank 212. The sampling port 223 is opened on the surface of the guiding rotating tube 222. By setting up the stirring assembly 22, the guiding rotating ring 221 can cooperate with the guiding rotating tube 222 and the sampling port 223. By rotating the guiding rotating ring 221 along the guiding groove 113 with the central tube 131, the guiding rotating tube 222 can be driven to rotate, so that the guiding rotating tube 222 drives the pointing assembly 23 to rotate together to mix and stir the floor material raw materials. Through the sampling port 223, the mixed raw materials are delivered into the guiding rotating tube 222, and the guiding rotating tube 222 can store the mixed raw material samples in the sample tank 112.

[0052] As Figure 8 shown, the pointing assembly 23 includes a stirring tube 231, a sealing sleeve 232, and a collection port 233. The stirring tube 231 is connected to the surface of the guiding rotating tube 222. The sealing sleeve 232 is fixedly connected to the side of the stirring tube 231 away from the guiding rotating tube 222. The collection port 233 is opened on the surface of the stirring tube 231. By setting up the pointing assembly 23, the stirring tube 231 can cooperate with the sealing sleeve 232 and the collection port 233. The stirring tube 231 can mix and stir the raw materials along with the guiding rotating tube 222. By sealing the stirring tube 231 with the sealing sleeve 232, it can prevent a large amount of the mixed material from accidentally entering the transportation assembly 24 from the stirring tube 231. Since the stirring tube 231 is on the surface of the guiding rotating tube 222, the stirring tube 231 can be in multiple positions in the storage tank 212. Thus, the collection port 233 can collect the targeted raw materials in the storage tank 212 through the negative pressure pumped by the transportation assembly 24.

[0053] As Figure 9As shown in the figure, the conveying assembly 24 includes a discharge pipe 241, a drainage pipe 242, and an inlet pipe 243. The four discharge pipes 241 are respectively connected to the front side, the rear side of the inner side, and the two sides of the inner side of the pointing port 132. The drainage pipe 242 is connected to the bottom of the discharge pipe 241. The inlet pipe 243 is connected to the surface of the drainage pipe 242. The side of the inlet pipe 243 close to the stirring pipe 231 is connected to the stirring pipe 231. By setting the conveying assembly 24, the discharge pipe 241 can cooperate with the drainage pipe 242 and the inlet pipe 243 to extract the air in the discharge pipe 241, the drainage pipe 242, and the inlet pipe 243 through negative pressure, so that each inlet pipe 243 can convey the raw materials in the corresponding stirring pipe 231 to the discharge pipe 241 through the drainage pipe 242, and then the discharge pipe 241 conveys the raw materials to the corresponding sampling pipe 142 for storage.

[0054] Brief description of the usage process: First, connect the delivery pump 213 to the floor material raw material delivery device outside the ground. After connecting the conveying mechanism 2 to the remote control terminal and powering it on and starting it, the user operates the conveying mechanism 2 by controlling the remote control terminal. At this time, start the delivery pump 213 to inject the floor material raw materials into the storage tank 212 until it is full and then close it. Then, driven by the collection mechanism 1, the guiding rotating ring 221 will rotate accordingly, and at the same time drive the stirring pipe 231 to mix and stir the raw materials and additives. After the stirring is completed, through the negative pressure generated by the collection mechanism 1, the guiding transfer pipe 222 will convey the raw materials at the central position inside the storage tank 212 to the collection mechanism 1 through the sampling port 223. The stirring pipe 231 will convey the raw materials at the directional position inside the storage tank 212 to the inlet pipe 243 through the collection port 233, and then convey them to the collection mechanism 1 through the drainage pipe 242 by the discharge pipe 241.

[0055] This specific embodiment is only an interpretation of the present invention, and it is not a limitation of the present invention. Those skilled in the art can make modifications without creative contributions to this embodiment according to needs after reading this specification, but as long as it is within the scope of the claims of the present invention, it is protected by the patent law.

Claims

1. A sampling structure for mixing raw materials for floor material production, comprising a collection mechanism (1) and a conveying mechanism (2), characterized in that: The conveying mechanism (2) is arranged at the bottom of the collecting mechanism (1). The collecting mechanism (1) comprises a guiding component (11), a transmission component (12), a concentrating component (13), a sampling component (14) and a quantitative component (15). The transmission component (12) is arranged at the top of the guiding component (11), the concentrating component (13) is arranged at the bottom of the transmission component (12), the sampling component (14) is arranged on the surface of the concentrating component (13), and the quantitative component (15) is arranged on the inner side of the sampling component (14). The conveying mechanism (2) comprises a storage component (21), a stirring component (22), a pointing component (23) and a transporting component (24). The storage component (21) is arranged at the bottom of the guiding component (11), the stirring component (22) is arranged at the bottom of the storage component (21), the pointing component (23) is arranged on the surface of the stirring component (22), and the transporting component (24) is arranged on the inner side of the pointing component (23).

2. The structure for sampling raw materials after mixing for floor material production according to claim 1, characterized in that: The guide assembly (11) comprises a positioning base plate (111), a sample tank (112) and a guide groove (113); the sample tank (112) is fixedly connected to the top of the positioning base plate (111); and the guide groove (113) is opened at the bottom of the positioning base plate (111).

3. The structure for sampling raw materials after mixing for floor material production according to claim 2, characterized in that: The transmission assembly (12) comprises a positioning top plate (121), an air pump (122) and a servo motor (123); the positioning top plate (121) is fixedly connected to the top of the sample tank (112); the air pump (122) is connected to the top of the positioning top plate (121); and the servo motor (123) is fixedly connected to the top of the positioning top plate (121).

4. A sampling structure for mixing raw materials for floor material production according to claim 3, characterized in that: The centralizing component (13) comprises a centralizing tube (131), a pointing port (132) and a discharge port (133); the centralizing tube (131) is fixedly connected to the output end at the bottom of the servo motor (123); the pointing port (132) is provided on the surface of the centralizing tube (131); and the discharge port (133) is provided at the bottom of the surface of the centralizing tube (131).

5. The structure for sampling raw materials after mixing for floor material production according to claim 4, characterized in that: The sampling assembly (14) comprises a drawing valve (141), a sampling tube (142) and a positioning ring (143); the drawing valve (141) is connected to the surface of the pointing port (132); the sampling tube (142) is connected to a side of the drawing valve (141) away from the central tube (131); and the positioning ring (143) is fixedly connected to a side of the inner side of the sampling tube (142) away from the central tube (131).

6. The structure for sampling raw materials after mixing for floor material production according to claim 5, characterized in that: The quantitative assembly (15) comprises a guide rod (151), a sealing piston (152) and a handle (153); the guide rod (151) is slidably connected to the inner side of the positioning ring (143); the sealing piston (152) is fixedly connected to a side of the guide rod (151) close to the central tube (131); the handle (153) is fixedly connected to a side of the guide rod (151) away from the sealing piston (152); and the surface of the sealing piston (152) contacts the inner side of the sampling tube (142).

7. The structure for sampling raw materials after mixing for floor material production according to claim 4, characterized in that: The storage assembly (21) comprises a storage base (211), a storage tank (212) and a delivery pump (213); the storage tank (212) is fixedly connected to the bottom of the surface of the sample tank (112); the storage base (211) is fixedly connected to the bottom of the storage tank (212); and the delivery pump (213) is connected to the top of the storage tank (212).

8. The structure for sampling raw materials after mixing for floor material production according to claim 7, characterized in that: The stirring assembly (22) comprises a guide rotating ring (221), a guide rotating tube (222) and a sampling port (223); the guide rotating ring (221) is rotatably connected to the inner side of the guide groove (113); the top of the guide rotating ring (221) is fixedly connected to the bottom of the central pipe (131); the guide rotating tube (222) is connected to the bottom of the guide rotating ring (221); the bottom of the guide rotating tube (222) is rotatably connected to the bottom of the inner side of the storage tank (212); and the sampling port (223) is provided on the surface of the guide rotating tube (222).

9. A sampling structure for mixing raw materials for floor material production according to claim 8, characterized in that: The pointing assembly (23) comprises a stirring tube (231), a sealing sleeve (232) and a collection port (233); the stirring tube (231) is connected to the surface of the guide rotating tube (222); the sealing sleeve (232) is fixedly connected to a side of the stirring tube (231) away from the guide rotating tube (222); and the collection port (233) is opened on the surface of the stirring tube (231).

10. The structure for sampling raw materials after mixing for floor material production according to claim 9, characterized in that: The transport assembly (24) comprises an outlet pipe (241), a drainage pipe (242) and an inlet pipe (243); the four outlet pipes (241) are respectively connected to the front side of the inner side of the pointing port (132), the rear side of the inner side and both sides of the inner side; the drainage pipe (242) is connected to the bottom of the outlet pipe (241); the inlet pipe (243) is connected to the surface of the drainage pipe (242); and the inlet pipe (243) is connected to the stirring pipe (231) at a side close to the stirring pipe (231).

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