Material flowing structure for horizontal action screening of quartz sand

Abstract

The utility model relates to a material flowing structure for horizontal action screening of quartz sand, which comprises a screening box, a feeding square pipe, an upper feeding hopper and a lower feeding hopper, and the upper feeding hopper and the lower feeding hopper are arranged on the right side of the screening box. An upper screen structure and a lower screen structure are arranged in the screen box, the upper feeding hopper and the lower feeding hopper are installed on the outer side of an upper feeding port and the outer side of a lower feeding port in the right side of the screen box respectively, and the upper feeding hopper and the lower feeding hopper are matched with the upper screen structure and the lower screen structure respectively, so that materials can correspondingly fall into the upper feeding hopper and the lower feeding hopper through the upper feeding hopper and the lower feeding hopper. The feeding device has the advantages of being beneficial to uniform feeding of materials, beneficial to avoiding large-amplitude shaking of equipment, and convenient to disassemble, assemble and maintain.

Description

Technical Field

[0001] The utility model relates to the technical field of quartz sand screening, in particular to a material flow structure for horizontal action screening of quartz sand. Background Art

[0002] Quartz sand is quartz particles made by crushing quartz stone. Quartz stone is a non-metallic mineral, a hard, wear-resistant, chemically stable silicate mineral. Its main mineral component is SiO2. Quartz sand is an important industrial mineral raw material, a non-chemical hazardous product, and is widely used in glass, casting, ceramics and fireproof materials, smelting ferrosilicon, metallurgical flux, metallurgy, construction, chemical industry, plastics, rubber, abrasives, filter materials and other industries.

[0003] The existing quartz sand screening equipment is equipped with a double-layer screening structure. The double-layer screening structure is correspondingly provided with an upper and a lower feed port, and the upper and lower feed ports are respectively connected to a feed pipe to transport the material to be screened into the equipment. Since the feed pipes of the upper and lower feed ports are respectively independently arranged, the disassembly, assembly and maintenance thereof are more complicated, and if the two feed pipes are connected to the same feeding equipment, uneven material distribution is prone to occur.

[0004] At the same time, the researchers of this program have developed a quartz sand screening equipment with a new double-layer screening structure. The double-layer screening structure inside the equipment is swingably connected to the inner wall of the box of the equipment and driven to swing by a driving mechanism. Therefore, if too much material is transported in the upper screening structure and less material is transported in the lower screening structure, it is easy to cause the equipment to swing more significantly.

[0005] Therefore, a material flow structure for horizontal action screening of quartz sand is proposed, which can be conducive to uniform feeding of materials, avoid large-scale shaking of equipment, and facilitate disassembly and maintenance. Utility Model Content

[0006] The utility model aims to overcome the deficiencies of the prior art and provide a material flow structure for horizontal action screening of quartz sand, which can be beneficial to uniform feeding of materials, avoid large-scale shaking of equipment, and facilitate disassembly, assembly and maintenance.

[0007] The purpose of this utility model is achieved through the following technical solutions:

[0008] The material flow structure for horizontal action screening of quartz sand comprises a screen box, a feed square pipe, and an upper feed hopper and a lower feed hopper arranged on the right side of the screen box; the screen box is provided with an upper screen structure and a lower screen structure, and the upper feed hopper and the lower feed hopper are respectively installed on the outer sides of the upper feed port and the lower feed port on the right side of the screen box, and the upper feed hopper and the lower feed hopper are respectively matched with the upper screen structure and the lower screen structure, so that the material can fall into the upper feed hopper and the lower feed hopper respectively through the upper feed hopper and the lower feed hopper; a feed circular pipe connected to the upper feed hopper and the lower feed hopper is respectively arranged vertically on the right side; the feed square pipe is provided with a plurality of adjacent upper and lower feed hoppers. There are adjustable baffles and vertical baffles, so that the feed square tube can be divided into an inner channel and an outer channel through the adjustable baffles and the vertical baffles; the outer channel extends downward for a distance so that the bottom end of the outer channel is located vertically between the upper feed hopper and the lower feed hopper; the two ends of the bottom of the adjustable baffle are rotatably connected to the left and right side walls of the feed square tube respectively, so that the adjustable baffle can rotate perpendicular to the left and right side walls of the feed square tube; the bottom end of the inner channel and the bottom end of the outer channel are respectively connected to the feed circular tube of the upper feed hopper or the lower feed hopper through an inclined tube; the top of the feed square tube can be connected to the material feed pipe.

[0009] In a preferred embodiment of the present scheme, the material flow structure also includes a cylindrical tube; a circular plate is provided at the bottom of the cylindrical tube, and a plurality of leakage holes are evenly distributed on the circular plate; the bottom of the cylindrical tube and the top of the feeding square tube respectively have outer edges extending outward, so that the bottom of the cylindrical tube and the top of the feeding square tube can be fixedly connected by bolts.

[0010] In a preferred embodiment of the present scheme, a rotating shaft is provided at the bottom of the adjustable baffle, and both ends of the rotating shaft pass through and are clamped in circular grooves on the left and right side walls of the feed square tube. The circular groove extends to the upper left to form a fan-shaped opening, and fan-shaped baffles are vertically connected to the two sides of the adjustable baffle after passing through the two fan-shaped openings respectively, and the inner surfaces of the fan-shaped baffles are respectively in contact with the left and right side walls of the feed square tube.

[0011] In a preferred embodiment of the present scheme, the bottom of the upper feed hopper and the lower feed hopper are respectively inclined feed bottom plates, and the feed bottom plates of the upper feed hopper and the lower feed hopper extend leftward to the upper right part of the upper screen structure and the lower screen structure, respectively, so that the material can fall into the screen through the upper feed hopper and the lower feed hopper.

[0012] It should be noted that the width of the feed bottom plate is smaller than the screen width of the upper feed hopper and the lower feed hopper, and the screen can always catch the falling material on the feed bottom plate during the swinging process.

[0013] In a preferred embodiment of the present scheme, an upper discharge port and a lower discharge port are arranged on the upper and lower left sides of the screen box, and the upper screen structure and the lower screen structure respectively include a bottom plate and a multi-layer screen plate arranged above the bottom plate; an upper discharge hopper and a lower discharge hopper are respectively installed on the outer sides of the upper discharge port and the lower discharge port, and the upper discharge hopper and the lower discharge hopper are respectively provided with multi-layer discharge bottom plates corresponding to the bottom plate and the screen plate; a discharge port is provided at the left end of the upper discharge hopper and the left end of the lower discharge hopper corresponding to each layer of the discharge bottom plate; the bottom plate and the screen plate respectively extend to the left to the upper right part of the corresponding discharge bottom plate, and the width of the discharge bottom plate is greater than the width of the left end of the bottom plate or the screen plate, so that the material in the bottom plate or the screen plate can fall into the discharge bottom plate and be discharged to the left along the discharge bottom plate.

[0014] In a preferred embodiment of this scheme, a reinforcing plate is welded on the top of the feed square tube, and the reinforcing plate is detachably connected to the top of the screen box, which is convenient for disassembly and assembly, and the installation is more stable.

[0015] In a preferred embodiment of the present scheme, the bottom end of the inclined tube is connected to the large end of the conical tube, and the small end of the conical tube is connected to a docking tube. The docking tube can be inserted into the feed circular tube of the upper feed hopper or the lower feed hopper to achieve the docking of the inner channel, the outer channel with the upper feed hopper and the lower feed hopper.

[0016] In a preferred embodiment of the present scheme, a group of hanging buckle assemblies are respectively provided on the right side surface of the screen box corresponding to the upper feed hopper and the lower feed hopper to temporarily support the upper feed hopper or the lower feed hopper during the installation process; the hanging buckle assembly includes a mounting seat perpendicular to the right side surface of the box body, and a locking plate is hinged at the right end of the mounting seat.

[0017] In a preferred embodiment of the present scheme, the top plate of the screen box is detachable; an observation port is provided on the right side wall of the screen box between the upper feed port and the lower feed port, a plate is detachably installed outside the observation port, and a handle is provided on the outer wall of the plate. The observation port is conducive to observing and inspecting the internal structure of the box, and the provision of the handle makes it easy for the staff to disassemble and install the plate.

[0018] The beneficial effects of the utility model are as follows: compared with the traditional feeding pipe, the present scheme connects the upper feeding hopper and the lower feeding hopper through the feeding square pipe, so as to realize the simultaneous feeding of the upper feeding hopper and the lower feeding hopper, and the structure is simple and convenient for overall disassembly and assembly; in addition, a cylindrical pipe fitting is arranged on the top of the square pipe, and a circular plate with a leakage hole is arranged at the joint between the cylindrical pipe fitting and the feeding square pipe, so that the quartz sand material falls into the feeding square pipe after passing through the leakage hole at the bottom of the cylindrical pipe fitting, which is conducive to the uniform falling of the quartz sand material, and the upper and lower parts of the feeding square pipe are provided with adjustable baffles and vertical baffles. The bottom ends of the adjustable baffle are rotatably connected to the left and right side walls of the feed square tube respectively, so that the adjustable baffle can be rotated to adjust the top opening size of the inner channel and the outer channel. The inner channel and the outer channel are connected to the upper feed hopper and the lower feed hopper respectively. Therefore, the scheme can adjust the proportion of quartz sand material entering the upper screen structure and the lower screen structure, and then increase the material entering the lower screen structure and reduce the material entering the upper screen structure, so as to avoid excessive quartz sand material in the upper screen structure, so as to make the overall operation of the equipment more stable. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a structural schematic diagram of the utility model;

[0020] Figure 2 This is a structural schematic diagram of the feed square tube of the utility model;

[0021] Figure 3 It is a structural schematic diagram of the cylindrical pipe fitting of the utility model;

[0022] Figure 4 It is a schematic diagram of an enlarged view of the panel of the utility model;

[0023] Figure 5 It is a schematic diagram of the top shell of the feeding square tube of the utility model;

[0024] Figure 6 It is a structural schematic diagram of the conical pipe of the utility model;

[0025] Figure 7 This is a schematic diagram of the drive structure of the utility model;

[0026] Figure 8 This is the left side schematic diagram of the screen box of the utility model

[0027] Fig. 9 It is a structural schematic diagram of the screen of the utility model. DETAILED DESCRIPTION

[0028] The technical solution of the present utility model is further described in detail below in conjunction with the accompanying drawings, but the protection scope of the present utility model is not limited to the following.

[0029] like Figure 1As shown, the material flow structure for horizontal action screening of quartz sand includes a feed square pipe 05 and a cylindrical pipe 06 installed at the feed end of the screen box 2, and the screen box 2 is set on the base 1.

[0030] Specifically, refer to Figure 1 , Figure 7 As shown, in this embodiment, an upper feed port and a lower feed port are provided on the right side of the screen box 2, and an upper feed hopper 01 and a lower feed hopper 02 are provided on the outer sides of the upper feed port and the lower feed port; an upper screen structure 31 and a lower screen structure 32 are provided inside the screen box 2, and the upper screen structure 31 and the lower screen structure 32 can swing under the drive of the driving mechanism; the upper feed hopper 01 and the lower feed hopper 02 are respectively matched with the upper screen structure 31 and the lower screen structure 32, so that the material can fall into the upper feed hopper 01 and the lower feed hopper 02 correspondingly through the upper feed hopper 01 and the lower feed hopper 02; a feed circular pipe 010 is vertically provided on the right side of the upper feed hopper 01 and the lower feed hopper 02.

[0031] At the same time, reference Figure 2 As shown, in this embodiment, an adjustable baffle 08 and a vertical baffle 09 are adjacently arranged inside the feed square tube 05, and the top of the adjustable baffle 08 is adjacent to the top of the feed square tube 05, so that the feed square tube 05 can be divided into an inner channel 051 and an outer channel 052 by the adjustable baffle 08 and the vertical baffle 09; the outer channel 052 extends downward for a distance so that the bottom end of the outer channel 052 is located vertically between the upper feed hopper 01 and the lower feed hopper 02; the two ends of the bottom of the adjustable baffle 08 are respectively rotated with the left and right side walls of the feed square tube 05 The connection is such that the adjustable baffle 08 can rotate perpendicular to the left and right side walls of the feed square tube 05 to adjust the top opening size of the inner channel 051 and the outer channel 052; the bottom end of the inner channel 051 and the bottom end of the outer channel 052 are respectively connected to the feed circular tube 010 of the upper feed hopper 01 or the lower feed hopper 02 via an inclined tube 020; thereby, during the quartz sand screening process, the quartz sand in the material feed pipe can be respectively input into the upper feed hopper 01 and the lower feed hopper 02 through the feed square tube 05, so as to realize simultaneous feeding of the upper feed hopper 01 and the lower feed hopper 02.

[0032] Further, refer to Figure 3 As shown, in this solution, a circular plate 061 is provided at the bottom of the cylindrical tube 06, and a plurality of leakage holes are evenly arranged on the circular plate 061; the bottom of the cylindrical tube 06 and the top of the feeding square tube 05 respectively extend outward with outer edges, so that the bottom of the cylindrical tube 06 and the top of the feeding square tube 05 can be fixedly connected by bolts. The design of the circular plate can make the material fall more evenly into the feeding square tube 05 after passing through the leakage holes.

[0033] In order to adjust the adjustable baffle 08, optionally, in this embodiment, refer to Figure 2 , Figure 5As shown, a rotating shaft 011 is provided at the bottom of the adjustable baffle 08, and both ends of the rotating shaft 011 pass through and are clamped in the circular grooves 012 on the left and right side walls of the feed square tube 05. The circular groove 012 extends to the upper left to form a fan-shaped opening 013. The two sides of the adjustable baffle 08 correspond to the two fan-shaped openings 013 and are vertically connected with fan-shaped baffles 014. The inner surfaces of the fan-shaped baffles 014 are respectively in contact with the left and right side walls of the feed square tube 05.

[0034] Further, in this solution, a reinforcing plate 018 is welded on the top of the feed square tube 05, and the reinforcing plate 018 is detachably connected to the top of the screen box 2. Preferably, in this embodiment, a shock-absorbing pad is also provided at the bottom of the base 1.

[0035] refer to Figure 1 , Figure 4 As shown, in this embodiment, in order to facilitate the observation, installation and maintenance of the screen, the top plate of the screen box 2 is designed to be detachable; on the right side wall of the screen box 2, an observation port is also opened between the upper feed port and the lower feed port, and a plate 024 is detachably installed on the outside of the observation port, and a handle 025 is provided on the outer wall of the plate 024.

[0036] Furthermore, in the present scheme, the bottom of the upper feed hopper 01 and the lower feed hopper 02 are respectively inclined feed bottom plates 03, and the feed bottom plates 03 of the upper feed hopper 01 and the lower feed hopper 02 extend leftward to the upper right part of the upper screen structure 31 and the lower screen structure 32, respectively, so that the material can fall into the screen through the upper feed hopper 01 and the lower feed hopper 02; the width of the feed bottom plate 03 is smaller than the screen width of the upper feed hopper 01 and the lower feed hopper 02, and the screen can always catch the falling material on the feed bottom plate 03 during the swinging process.

[0037] In this embodiment, an upper discharge port and a lower discharge port are provided on the left side of the screen box 2. The external structures of the upper screen structure 31 and the lower screen structure 32 are respectively a frame structure, which includes a bottom plate 312 at the bottom, four layers of screen plates 311 above the bottom plate 312, and the mesh numbers of the four layers of screen plates 311 increase downward in sequence; an upper discharge hopper 015 and a lower discharge hopper 016 are respectively installed on the outer sides of the upper discharge port and the lower discharge port, and the upper discharge hopper 015 and the lower discharge hopper 016 correspond to the bottom plate 312 respectively. , the sieve plate 311 is provided with five layers of discharge bottom plates 017; the left end of the upper discharge hopper 015 and the left end of the lower discharge hopper 016 are provided with a discharge port corresponding to each layer of the discharge bottom plate 017; the bottom plate 312 and the sieve plate 311 extend to the left to the upper right part of the corresponding discharge bottom plate 017, respectively, and the width of the discharge bottom plate 017 is greater than the width of the left end of the bottom plate 312 or the sieve plate 311, so that the materials in the bottom plate 312 or the sieve plate 311 can fall into the discharge bottom plate 017 and be discharged to the left along the discharge bottom plate 017, refer to Fig. 9 shown.

[0038] Further, in this scheme, reference Figure 6As shown, the bottom end of the inclined tube 020 is connected to the large end of the conical tube 019, and the small end of the conical tube 019 is connected to the docking tube 021. The docking tube 021 can be inserted into the feed circular tube 010 of the upper feed hopper 01 or the lower feed hopper 02 to achieve the docking of the inner channel 051, the outer channel 052 with the upper feed hopper 01 and the lower feed hopper 02.

[0039] In order to facilitate the installation of the feed hopper, in this embodiment, reference Figure 4 As shown, on the right side surface of the screen box 2, a group of hanging buckle components are respectively provided corresponding to the upper feed hopper 01 and the lower feed hopper 02. During the installation process, the upper feed hopper 01 or the lower feed hopper 02 can be temporarily supported by the hanging buckle components; the hanging buckle components include a mounting seat 022 perpendicular to the right side surface of the box body 1, and a positioning plate 023 is hinged at the right end of the mounting seat 022. The width of the mounting seat 022 is wider than the width of the mounting wall panel 0101 of the upper feed hopper 01 or the lower feed hopper 02, and the positioning plate 023 can limit the mounting wall panel 0101.

[0040] Furthermore, in this solution, the upper screen structure 31 and the lower screen structure 32 are driven by a driving mechanism to perform swing screening.

[0041] Specifically, refer to Figure 7 , Figure 8 As shown, the driving mechanism includes a driving motor 41, a lifting component, a main transmission shaft 42, a transmission cross bar 45, a transmission vertical rod 46, and a transmission disk 47, and the transmission disk 47 is driven to rotate by the driving motor 41; the lifting component includes a screen end fixing piece 52, and a wall end fixing piece 51 whose one end is vertically fixed to the inner wall of the box body; the left and right side walls of the screen 1 31 and the left and right side walls of the screen 2 32 are respectively provided with hinge blocks 53 and blocks 43, and the setting orientation of the hinge blocks 53 and blocks 43 on the screen 1 31 is opposite to that of the screen 2 32; the other end of the wall end fixing piece 51 is universally hinged to the top end of the screen end fixing piece 52, and the bottom end of the screen end fixing piece 52 is universally hinged to the screen The hinge blocks 53 on the first 31 or the second screen 32 are hinged; the block 43 is sleeved on the upper part of the main transmission shaft 42 and fixedly connected to the main transmission shaft 42, and the bottom of the main transmission shaft 42 can be slidably installed in the base 2 48, and a plurality of ball bearings are installed at the bottom of the base 2 48; one end of the transmission cross bar 45 is sleeved on the main transmission shaft 42 through a sleeve structure, and the other end of the transmission cross bar 45 passes through the opening on the box body 2 and is sleeved on the transmission vertical rod 46 through another sleeve structure; the sleeve at the outer end of the transmission cross bar 45 can rotate horizontally on the transmission vertical rod 46, and the sleeve at the inner end of the transmission cross bar 45 can rotate and can be relatively moved up and down and sleeved on the main transmission shaft 42.

[0042] In this embodiment, the transmission vertical rod 46 is fixed on the transmission disk 47, and the drive motor 41 is started. The transmission disk 47 rotates to drive the transmission cross rod 45 to move. The movement of the transmission cross rod 45 then drives the main transmission shaft 42 and the screen 1 31 or the screen 2 32 to move; thereby realizing the swing screening of the screen 1 31 and the screen 2 32.

[0043] Furthermore, in this solution, an abutment block is provided in the middle of the main transmission shaft 42 , and a spring 49 is sleeved on the main transmission shaft 42 , and the spring 49 abuts between the abutment block and the upper surface of the second base 48 .

[0044] Further optionally, in the present embodiment, a toggle block is provided on the side of the fan-shaped baffle 014 for facilitating the toggle of the adjustable baffle 08, and a threaded hole is also provided on the fan-shaped baffle 014, by screwing screws in the threaded hole to tighten the feed square tube 05, thereby ensuring that the fan-shaped baffle 014 is fixed after being toggled to any angle.

[0045] The above is only a preferred embodiment of the utility model. It should be understood that the utility model is not limited to the form disclosed herein, and should not be regarded as excluding other embodiments, but can be used in various other combinations, modifications and environments, and can be modified within the scope of the concept described herein through the above teachings or the technology or knowledge of the relevant field. The changes and modifications made by those skilled in the art do not deviate from the spirit and scope of the utility model, and should be within the scope of protection of the claims attached to the utility model.

Claims

1. A material flow structure for horizontal screening of quartz sand, characterized by: It comprises a screen box (2), a square feed pipe (05), an upper feed hopper (01) and a lower feed hopper (02) arranged on the right side of the screen box (2); The screen box (2) is provided with an upper screen structure (31) and a lower screen structure (32); an upper feed hopper (01) and a lower feed hopper (02) are respectively installed on the outer sides of an upper feed opening and a lower feed opening on the right side of the screen box (2); and the upper feed hopper (01) and the lower feed hopper (02) are respectively matched with the upper screen structure (31) and the lower screen structure (32), so that materials can fall into the upper feed hopper (01) and the lower feed hopper (02) respectively through the upper feed hopper (01) and the lower feed hopper (02); A circular feeding pipe (010) connected to the upper feeding hopper (01) and the lower feeding hopper (02) is vertically disposed on the right side thereof; An adjustable baffle (08) and a vertical baffle (09) are disposed adjacent to each other in the upper and lower parts of the feeding square tube (05), so that the feeding square tube (05) can be divided into an inner channel (051) and an outer channel (052) by the adjustable baffle (08) and the vertical baffle (09); The outer channel (052) extends downward for a distance so that the bottom end of the outer channel (052) is located vertically between the upper feed hopper (01) and the lower feed hopper (02); The two ends of the bottom of the adjustable baffle (08) are rotatably connected to the left and right side walls of the feeding square tube (05) respectively, so that the adjustable baffle (08) can rotate perpendicular to the left and right side walls of the feeding square tube (05); The bottom end of the inner channel (051) and the bottom end of the outer channel (052) are respectively connected to the feeding circular tube (010) of the upper feeding hopper (01) or the lower feeding hopper (02) through an inclined tube (020); The top of the square feed pipe (05) can be connected to the material feed pipe.

2. The material flow structure for horizontal action screening of quartz sand according to claim 1, characterized in that: The material flow structure also includes a cylindrical pipe (06); A circular plate (061) is provided at the bottom of the cylindrical pipe (06), and a plurality of material leakage holes are evenly arranged on the circular plate (061); The bottom of the cylindrical tube (06) and the top of the feeding square tube (05) respectively have outer edges extending outwards, so that the bottom of the cylindrical tube (06) and the top of the feeding square tube (05) can be fixedly connected by bolts.

3. The material flow structure for horizontal action screening of quartz sand according to claim 2, characterized in that: The adjustable baffle (08) is provided with a rotating shaft (011) at the bottom, and the two ends of the rotating shaft (011) pass through and are clamped in the circular grooves (012) on the left and right side walls of the feeding square tube (05), and the circular groove (012) extends to the upper left to form a fan-shaped opening (013), and the two sides of the adjustable baffle (08) respectively pass through the two fan-shaped openings (013) and are vertically connected with fan-shaped baffles (014), and the inner surfaces of the fan-shaped baffles (014) are respectively in contact with the left and right side walls of the feeding square tube (05).

4. The material flow structure for horizontal action screening of quartz sand according to claim 3 is characterized in that: The bottoms of the upper feed hopper (01) and the lower feed hopper (02) are respectively inclined feed bottom plates (03), and the feed bottom plates (03) of the upper feed hopper (01) and the lower feed hopper (02) extend leftward to the upper right part of the upper screen structure (31) and the lower screen structure (32), respectively, so that the material can fall into the screen through the upper feed hopper (01) and the lower feed hopper (02).

5. The material flow structure for horizontal action screening of quartz sand according to claim 4, characterized in that: The left side of the screen box (2) is provided with an upper discharge port and a lower discharge port, and the upper screen structure (31) and the lower screen structure (32) respectively include a bottom plate (312) and a multi-layer screen plate (311) arranged above the bottom plate (312); An upper discharge hopper (015) and a lower discharge hopper (016) are respectively installed on the outer sides of the upper discharge port and the lower discharge port. The upper discharge hopper (015) and the lower discharge hopper (016) are respectively provided with a multi-layer discharge bottom plate (017) corresponding to the bottom plate (312) and the sieve plate (311); The left end of the upper discharge hopper (015) and the left end of the lower discharge hopper (016) are provided with a discharge port corresponding to each layer of the discharge bottom plate (017); The bottom plate (312) and the sieve plate (311) respectively extend leftward to the upper right portion of the corresponding discharge bottom plate (017), and the width of the discharge bottom plate (017) is greater than the width of the left end of the bottom plate (312) or the sieve plate (311), so that the materials in the bottom plate (312) or the sieve plate (311) can fall into the discharge bottom plate (017) and be discharged to the left along the discharge bottom plate (017).

6. The material flow structure for horizontal action screening of quartz sand according to claim 3, characterized in that: A reinforcing plate (018) is welded to the top of the feed square tube (05), and the reinforcing plate (018) is detachably connected to the top of the screen box (2).

7. The material flow structure for horizontal action screening of quartz sand according to claim 3, characterized in that: The bottom end of the inclined tube (020) is connected to the large end of the conical tube (019), and the small end of the conical tube (019) is connected to a butt joint tube (021). The butt joint tube (021) can be inserted into the feed circular tube (010) of the upper feed hopper (01) or the lower feed hopper (02) to achieve the butt joint of the inner channel (051), the outer channel (052) and the upper feed hopper (01) and the lower feed hopper (02).

8. The material flow structure for horizontal action screening of quartz sand according to claim 7, characterized in that: On the right side of the screen box (2), a group of hook components are respectively provided corresponding to the upper feed hopper (01) and the lower feed hopper (02) to temporarily support the upper feed hopper (01) or the lower feed hopper (02) during the installation process; The hook assembly comprises a mounting seat (022) perpendicular to the right side of the box body (1), and a locking plate (023) is hingedly connected to the right end of the mounting seat (022).

9. The material flow structure for horizontal action screening of quartz sand according to any one of claims 1 to 8, characterized in that: The top plate of the screen box (2) is of detachable design; An observation port is also provided on the right side wall of the screen box (2) between the upper feed port and the lower feed port, a plate (024) is detachably mounted on the outside of the observation port, and a handle (025) is provided on the outer side wall of the plate (024).

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