A heavy metal contaminated soil conditioning device

Abstract

The present invention discloses a heavy metal contaminated soil conditioning device, the structure of which includes a reagent tank, a conveyor, a base plate, and a treatment box. The reagent tank is installed on the treatment box, the treatment box is movably connected to the reagent tank, the conveyor is arranged on the treatment box, the treatment box is embedded with the conveyor, the base plate is provided with the treatment box, and the treatment box is connected to the base plate. The material guide of the present invention is a straight tube structure, the straight tube structure is not provided with a vertical bending section, when the device guides the material, it avoids the situation that the soil is accumulated in the bending section of the material guide pipe, and the flip plate on the rotating shaft rotates and tilts along the movable shaft to a certain amplitude, which can further guide the guiding of the soil. After the device has completed the guiding of all the soil, the rotation angle of the flip plate is expanded, so that the soil engaged at the angle between the flip plate and the rotating shaft can fall off.

Description

Technical Field

[0001] The invention relates to the technical field of heavy metal pollution treatment, and in particular to a heavy metal polluted soil conditioning device. Background Art

[0002] Soil conditioning, as the name implies, means soil improvement, which mainly refers to the action of improving soil through physical, chemical or microbial means. The heavy metal contaminated soil conditioning device introduces the contaminated soil into the conditioning box, and then adds conditioners and repair agents to mix with the soil to achieve soil conditioning;

[0003] The pipe body of the soil guide pipe of the soil conditioning device is generally set as an L-shaped structural pipe, so that the sealing shaft in the device passes through the pipe body of the guide pipe and blocks the guide port of the column pipe body. However, a vertical bending section is provided on the L-shaped guide pipe. When the device is guiding soil, if the impact force of the soil falling during guiding is too small, the soil will stay and accumulate in the bending section of the L-shaped structure. As the amount of soil accumulation increases, it will gradually block the guide port of the pipe body. Summary of the invention

[0004] In view of the shortcomings of the prior art, the present invention is achieved through the following technical solutions: a heavy metal contaminated soil conditioning device, the structure of which includes a reagent tank, a transmission body, a bottom plate, and a treatment box, the reagent tank is installed on the treatment box, the treatment box is movably connected to the reagent tank, the transmission body is arranged on the treatment box, the treatment box is embedded with the transmission body, the bottom plate is provided with a treatment box, and the treatment box is connected to the bottom plate;

[0005] The processing box is provided with an operator, a circulation pipe, a tilting body, a conditioning box, a processor, and a box body. The box body is provided with a tilting body inside, and the tilting body is movably connected to the box body. The tilting body is installed with a conditioning box, and the conditioning box is connected to the tilting body. The circulation pipe is provided inside the box body, and the box body is engaged with the circulation pipe. The processor is provided on the box body, and the box body is connected to the processor. The operator is installed on the box body, and the box body is movably engaged with the operator. The box body is provided with a medicine tank, and the medicine tank is movably connected.

[0006] As a further optimization of the present technical solution, the processor is provided with a shell, a material guide, a movable shaft, a closing block, and a movable path. Moving paths are provided on both sides of the shell, and the movable path is movably connected to the shell. A movable shaft is installed on the movable path, and the movable shaft is slidably connected to the movable path. The closing block is installed on the movable shaft, and the movable shaft is movably connected to the closing block. The material guide is arranged inside the shell, and the shell is connected to the material guide. The shell is arranged on a box body, and the box body is movably engaged with the shell.

[0007] As a further optimization of the present technical solution, the movable shaft is an L-shaped connecting shaft, a connecting column is provided on the movable shaft, a spherical connecting shaft is provided on the connecting column of the movable shaft, the connecting column of the movable shaft is movably connected to the L-shaped connecting shaft of the movable shaft through a movable shaft, a movable wheel is provided at one end of the movable shaft, the closing block is a semicircular connecting plate, the radius of the semicircular connecting plate of the closing block is smaller than the radius of the assembly groove of the material guide, a notch is provided on the movable shaft, a movable rod is provided on the semicircular connecting plate of the closing block, the closing block is movably engaged in the notch of the movable shaft through the movable rod, a movable cavity is provided on the closing block, a movable block is provided inside the movable cavity of the closing block, the movable block of the closing block is slidably connected to the movable cavity, and an assembly groove is provided on another semicircular connecting plate of the closing block.

[0008] As a further optimization of the present technical solution, the material guide is provided with a flip plate, a material guide tube, a processing tube, and a rotating shaft. The processing tube is provided with a rotating shaft, and the rotating shaft and the processing tube are loosely matched. The rotating shaft is provided with a flip plate, and the flip plate is movably connected to the rotating shaft. The outer edge of the material guide tube is installed with a rotating shaft, and the rotating shaft is embedded in the material guide tube. The processing tube is installed on a shell, and the shell is connected to the processing tube. A placement notch is provided on the rotating shaft, and the width of the placement notch of the flip plate matches the width of the contact end of the flip plate. The material guide tube is provided with a material guide movable groove, and the material guide tube is provided with a movable groove. The processing tube is provided with a protruding slider, and the protruding slider of the processing tube is embedded in the movable groove of the material guide tube.

[0009] As a further optimization of the present technical solution, the rotating shaft is an annular connecting shaft, the rotating shaft is provided with an annular protrusion block, the processing tube is provided with an annular slide rail, the annular protrusion block of the rotating shaft is embedded in the annular slide rail of the processing tube, and the flip plate is an arc-shaped connecting plate, and the arc-shaped connecting plate of the flip plate is movably connected to the rotating shaft through a movable shaft.

[0010] As a further optimization of the present technical solution, the operator is provided with a displacement block, a rotating block, an adjuster, a device body, a mounting rod, and a displacement shaft. The rotating block is installed inside the device body, and the rotating block is movably connected to the device body. The displacement shaft is provided with a displacement block, and the displacement block is slidingly connected to the displacement shaft. A mounting rod is installed on the displacement block, and the mounting rod is movably connected to the displacement block. The adjuster is installed inside the device body, and the device body is connected to the adjuster. The device body is provided on a box body, and the box body is movably connected to the device body. A threaded groove is provided at one end of the displacement block, and the mounting rod is a triangular pyramid connecting shaft, and a threaded cylinder is provided at one end of the mounting rod.

[0011] As a further optimization of the present technical solution, the rotating block is a circular connecting block, a connecting groove is provided at the center position of the rotating block, a connecting column is provided on the device body, a rotating notch is provided on the connecting column of the device body, the connecting column of the device body and the connecting groove of the rotating block are loosely matched, a notch is provided at one end of the rotating block, the displacement shaft is installed on the notch of the rotating block, and a slide is provided on the displacement shaft.

[0012] As a further optimization of the present technical solution, the regulator is provided with an offset rod, an assembly column, an assembly block, an extension block, an adjustment body, an extension column, and an offset body, the assembly column is provided with an assembly block, the assembly block and the assembly column are clearance-matched, the offset rod is installed with an offset body, the offset body is slidably connected to the offset rod, an extension block is provided inside the offset body, the extension block is embedded in the offset body, an adjustment body is provided on the extension column, the adjustment body and the extension column are movably connected through a movable shaft, a slide rail is provided inside the offset body, a slide plate is provided on the extension block, the slide plate of the extension block is slidably connected to the slide rail inside the offset body, a slide column is provided on the extension block, and the extension column is slidably connected to the slide column of the extension block through a slider, the assembly block is a movable shaft structure, a movable shaft body of the assembly block is provided with a movable track, the offset rod is embedded in the movable track of the movable shaft body of the assembly block through a connecting block, the movable shaft body of the assembly block passes through the assembly column, the assembly column is provided with a slide rail, the assembly column is a long-axis connecting rod, the assembly column and the assembly block are perpendicular to each other, and a triangular pyramid connecting block is provided on the adjustment body.

[0013] Beneficial Effects

[0014] Compared with the prior art, the heavy metal contaminated soil conditioning device of the present invention has the following advantages:

[0015] 1. The material guide of the present invention is a straight tube structure, which is not provided with a vertical bending section. When the device is used for guiding materials, it avoids the situation where soil accumulates in the bending section of the material guide tube, and the flip plate on the rotating shaft rotates and tilts along the movable shaft to a certain extent, which can further guide the guiding of the soil. After the device has guided all the soil, the rotation angle of the flip plate is expanded, so that the soil engaged at the angle between the flip plate and the rotating shaft can fall off.

[0016] 2. The displacement block of the present invention slides and extends on the displacement shaft, pushing the installation rod to contact one end of the material guide pipe wall, and then through the rotation of the rotating block, the installation rod is driven to scrape the wall of the material guide pipe, scraping off the soil adhered to the wall of the material guide pipe, preventing excessive soil from adhering to the material guide pipe and reducing the diameter of the material guide pipe opening. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Other features, objects and advantages of the present invention will become more apparent from the detailed description of non-limiting embodiments made with reference to the following drawings:

[0018] Figure 1 The figure is a schematic diagram of the overall structure of a heavy metal contaminated soil conditioning device according to the present invention.

[0019] Figure 2 It is a schematic diagram of the structure of the processing box of the present invention.

[0020] Figure 3 It is a schematic diagram of the processor structure of the present invention.

[0021] Figure 4 It is a schematic structural diagram of the material guide of the present invention.

[0022] Figure 5 It is a schematic diagram of the structure of the operator of the present invention.

[0023] Figure 6 It is a schematic diagram of the structure of the regulator of the present invention.

[0024] In the figure: medicine tank 1, conveyor body 2, base plate 3, processing box 4, operator 4a, circulation pipe 4b, tilting body 4c, conditioning box 4d, processor 4e, box body 4f, shell e1, material guide e2, moving shaft e3, closing block e4, moving path e5, flip plate e21, material guide tube e22, processing tube e23, rotating shaft e24, displacement block a1, rotating block a2, regulator a3, device body a4, mounting rod a5, displacement shaft a6, offset rod a31, assembly column a32, assembly block a33, extension block a34, regulating body a35, extension column a36, offset body a37. DETAILED DESCRIPTION

[0025] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the preferred implementation scheme of the present invention is further described below in conjunction with specific implementation schemes and accompanying drawings.

[0026] Embodiment 1

[0027] See also Figure 1-Figure 5 A heavy metal contaminated soil conditioning device, the structure of which includes a reagent tank 1, a conveyor 2, a bottom plate 3, and a treatment box 4, wherein the reagent tank 1 is installed on the treatment box 4, and the treatment box 4 is movably connected to the reagent tank 1, the conveyor 2 is arranged on the treatment box 4, and the treatment box 4 is embedded with the conveyor 2, and the bottom plate 3 is provided with the treatment box 4, and the treatment box 4 is connected to the bottom plate 3;

[0028] The processing box 4 is provided with an operator 4a, a circulation pipe 4b, a tilting body 4c, a conditioning box 4d, a processor 4e, and a box 4f. The box 4f is provided with a tilting body 4c inside, and the tilting body 4c is movably connected to the box 4f. A conditioning box 4d is installed on the tilting body 4c, and the conditioning box 4d is connected to the tilting body 4c. The circulation pipe 4b is arranged inside the box 4f, and the box 4f is engaged with the circulation pipe 4b. The processor 4e is arranged on the box 4f, and the box 4f is connected to the processor 4e. The operator 4a is installed on the box 4f, and the box 4f is movably engaged with the operator 4a. A medicine tank 1 is provided on the box 4f, and the medicine tank 1 is movably connected to realize the conditioning of heavy metal soil pollution.

[0029] The processor 4e is provided with a shell e1, a material guide e2, a movable shaft e3, a closing block e4, and a movable path e5. The movable paths e5 are provided on both sides of the shell e1, and the movable paths e5 are movably connected with the shell e1. The movable shaft e3 is installed on the movable path e5, and the movable shaft e3 is slidably connected with the movable path e5. The closing block e4 is installed on the movable shaft e3, and the movable shaft e3 is movably connected with the closing block e4. The material guide e2 is arranged inside the shell e1, and the shell e1 is connected with the material guide e2. The shell e1 is arranged on the box body 4f, and the box body 4f is movably engaged with the shell e1 to realize the assembly of the closed structure.

[0030] The movable shaft e3 is an L-shaped connecting shaft, and a connecting column is provided on the movable shaft e3. A spherical connecting shaft is provided on the connecting column of the movable shaft e3. The connecting column of the movable shaft e3 is movably connected to the L-shaped connecting shaft of the movable shaft e3 through a movable shaft. A movable wheel is provided at one end of the movable shaft e3. The closing block e4 is a semicircular connecting plate. The radius of the semicircular connecting plate of the closing block e4 is smaller than the radius of the assembly notch of the material guide e2. A notch is provided on the movable shaft e3. A movable rod is provided on the semicircular connecting plate of the closing block e4. The closing block e4 is movably engaged in the notch of the movable shaft e3 through the movable rod. A movable cavity is provided on the closing block e4. A movable block is provided inside the movable cavity of the closing block e4. The movable block of the closing block e4 is slidably connected to the movable cavity. An assembly notch is provided on the other semicircular connecting plate of the closing block e4 to realize the adjustment of the closed structure.

[0031] The material guide e2 is provided with a flip plate e21, a material guide tube e22, a processing tube e23, and a rotating shaft e24. The processing tube e23 is provided with a rotating shaft e24, and the rotating shaft e24 is clearance-matched with the processing tube e23. The rotating shaft e24 is provided with a flip plate e21, and the flip plate e21 is movably connected with the rotating shaft e24. The outer edge of the material guide tube e22 is provided with a rotating shaft e24, and the rotating shaft e24 is engaged with the material guide tube e22. It is installed on the shell e1, and the shell e1 is connected to the processing tube e23. The rotating shaft e24 is provided with a placement notch. The width of the placement notch of the flip plate e21 is consistent with the width of the contact end of the flip plate e21. The material guide tube e22 is provided with a material guide movable groove, and the material guide tube e22 is provided with a movable groove. The processing tube e23 is provided with a raised slider, and the raised slider of the processing tube e23 is embedded in the movable groove of the material guide tube e22 to realize the extension of the material guide structure.

[0032] The rotating shaft e24 is an annular connecting shaft, and an annular protrusion block is provided on the rotating shaft e24. The processing tube e23 is provided with an annular slide rail. The annular protrusion block of the rotating shaft e24 is embedded in the annular slide rail of the processing tube e23. The flip plate e21 is an arc-shaped connecting plate. The arc-shaped connecting plate of the flip plate e21 is movably connected to the rotating shaft e24 through a movable shaft to realize the material guiding of the device.

[0033] The conditioning box 4d rotates through the inclined body 4c, so that the feed port on the conditioning box 4d rotates to the bottom of the processor 4e, and at the same time, the distance between the diameter of the processor 4e and the feed port of the conditioning box 4d is enlarged, and the movable block of the closing block e4 slides into the movable cavity, and the movable rod of the closing block e4 rotates at the notch of the movable shaft e3, so that the closing block e4 is separated from the guide pipe port of the guide device e2. Before this, the flip plate e21 and the rotating shaft e24 are perpendicular to each other, and the flip plate e21 blocks a part of the notch of the processing pipe e23. The rotating shaft e24 rotates on the annular slide rail of the processing pipe e23, so that the notch of the processing pipe e23 is facing the feed port on the conditioning box 4d. After the tube body of the guide device e2 is opened, the processing pipe e23 slides on the movable groove of the guide pipe e22, extending the tube body structure of the guide device e2, so that the tube body structure of the guide is closer to the feed port of the conditioning box 4d, so as to facilitate the guiding of the soil. The flip plate e21 rotates along the movable axis connected to the rotating shaft e24, and the tilting movement amplitude guides the soil along the tilted slope of the flip plate e21 to guide the material into the conditioning box 4d. The connecting column on the movable axis e3 rotates along the movable axis to hit the material guide e2. The vibration force generated by the material guide e2 during the hitting shakes the guided soil, promotes the soil discharge, and prevents the soil from being clamped in the material guide e2. The movable axis e3 in the shell e1 slides on the moving path e5 to switch the hitting position. When all the soil of the device is guided, the flip plate e21 is rotated with the help of the rotating shaft e24 to make the flip plate e21 face the feed port of the conditioning box 4d. The flip plate e21 rotates back and forth along the movable axis with the rotating shaft e24 to expand the angle between the flip plate e21 and the rotating shaft e24, so that the soil clamped between the flip plate e21 and the rotating shaft e24 falls off, thereby realizing the material guiding of the equipment.

[0034] Embodiment 2

[0035] See also Figure 1-Figure 6 A heavy metal contaminated soil conditioning device, the structure of which includes a reagent tank 1, a conveyor 2, a bottom plate 3, and a treatment box 4, wherein the reagent tank 1 is installed on the treatment box 4, and the treatment box 4 is movably connected to the reagent tank 1, the conveyor 2 is arranged on the treatment box 4, and the treatment box 4 is embedded with the conveyor 2, and the bottom plate 3 is provided with the treatment box 4, and the treatment box 4 is connected to the bottom plate 3;

[0036] The processing box 4 is provided with an operator 4a, a circulation pipe 4b, a tilting body 4c, a conditioning box 4d, a processor 4e, and a box 4f. The box 4f is provided with a tilting body 4c inside, and the tilting body 4c is movably connected to the box 4f. A conditioning box 4d is installed on the tilting body 4c, and the conditioning box 4d is connected to the tilting body 4c. The circulation pipe 4b is arranged inside the box 4f, and the box 4f is engaged with the circulation pipe 4b. The processor 4e is arranged on the box 4f, and the box 4f is connected to the processor 4e. The operator 4a is installed on the box 4f, and the box 4f is movably engaged with the operator 4a. A medicine tank 1 is provided on the box 4f, and the medicine tank 1 is movably connected to realize the conditioning of heavy metal soil pollution.

[0037] The processor 4e is provided with a shell e1, a material guide e2, a movable shaft e3, a closing block e4, and a movable path e5. The movable paths e5 are provided on both sides of the shell e1, and the movable paths e5 are movably connected with the shell e1. The movable shaft e3 is installed on the movable path e5, and the movable shaft e3 is slidably connected with the movable path e5. The closing block e4 is installed on the movable shaft e3, and the movable shaft e3 is movably connected with the closing block e4. The material guide e2 is arranged inside the shell e1, and the shell e1 is connected with the material guide e2. The shell e1 is arranged on the box body 4f, and the box body 4f is movably engaged with the shell e1 to realize the assembly of the closed structure.

[0038] The movable shaft e3 is an L-shaped connecting shaft, and a connecting column is provided on the movable shaft e3. A spherical connecting shaft is provided on the connecting column of the movable shaft e3. The connecting column of the movable shaft e3 is movably connected to the L-shaped connecting shaft of the movable shaft e3 through a movable shaft. A movable wheel is provided at one end of the movable shaft e3. The closing block e4 is a semicircular connecting plate. The radius of the semicircular connecting plate of the closing block e4 is smaller than the radius of the assembly notch of the material guide e2. A notch is provided on the movable shaft e3. A movable rod is provided on the semicircular connecting plate of the closing block e4. The closing block e4 is movably engaged in the notch of the movable shaft e3 through the movable rod. A movable cavity is provided on the closing block e4. A movable block is provided inside the movable cavity of the closing block e4. The movable block of the closing block e4 is slidably connected to the movable cavity. An assembly notch is provided on the other semicircular connecting plate of the closing block e4 to realize the adjustment of the closed structure.

[0039] The material guide e2 is provided with a flip plate e21, a material guide tube e22, a processing tube e23, and a rotating shaft e24. The processing tube e23 is provided with a rotating shaft e24, and the rotating shaft e24 is clearance-matched with the processing tube e23. The rotating shaft e24 is provided with a flip plate e21, and the flip plate e21 is movably connected with the rotating shaft e24. The outer edge of the material guide tube e22 is provided with a rotating shaft e24, and the rotating shaft e24 is engaged with the material guide tube e22. It is installed on the shell e1, and the shell e1 is connected to the processing tube e23. The rotating shaft e24 is provided with a placement notch. The width of the placement notch of the flip plate e21 is consistent with the width of the contact end of the flip plate e21. The material guide tube e22 is provided with a material guide movable groove, and the material guide tube e22 is provided with a movable groove. The processing tube e23 is provided with a raised slider, and the raised slider of the processing tube e23 is embedded in the movable groove of the material guide tube e22 to realize the extension of the material guide structure.

[0040] The rotating shaft e24 is an annular connecting shaft, and an annular protrusion block is provided on the rotating shaft e24. The processing tube e23 is provided with an annular slide rail. The annular protrusion block of the rotating shaft e24 is embedded in the annular slide rail of the processing tube e23. The flip plate e21 is an arc-shaped connecting plate. The arc-shaped connecting plate of the flip plate e21 is movably connected to the rotating shaft e24 through a movable shaft to realize the material guiding of the device.

[0041] The operator 4a is provided with a displacement block a1, a rotating block a2, an adjuster a3, a body a4, a mounting rod a5, and a displacement shaft a6. The rotating block a2 is installed inside the body a4, and the rotating block a2 is movably connected to the body a4. The displacement shaft a6 is provided with a displacement block a1, and the displacement block a1 is slidably connected to the displacement shaft a6. A mounting rod a5 is installed on the displacement block a1, and the mounting rod a5 is movably connected to the displacement block a1. The adjuster a3 is installed inside the body a4, and the body a4 is connected to the adjuster a3. The body a4 is provided on a box body 4f, and the box body 4f is movably connected to the body a4. A threaded groove is provided at one end of the displacement block a1, and the mounting rod a5 is a triangular pyramid connecting shaft. A threaded cylinder is provided at one end of the mounting rod a5 to realize the cleaning of the material guide structure cavity.

[0042] The rotating block a2 is a circular connecting block, a connecting groove is provided at the center of the rotating block a2, a connecting column is provided on the device body a4, a rotating notch is provided on the connecting column of the device body a4, the connecting column of the device body a4 and the connecting groove of the rotating block a2 are loosely matched, a notch is provided at one end of the rotating block a2, the displacement shaft a6 is installed on the notch of the rotating block a2, and a slideway is provided on the displacement shaft a6 to realize the cleaning of the material guide pipe.

[0043] The regulator a3 is provided with an offset rod a31, an assembly column a32, an assembly block a33, an extension block a34, an adjustment body a35, an extension column a36, and an offset body a37. The assembly block a33 is provided on the assembly column a32, and the assembly block a33 is clearance-matched with the assembly column a32. The offset rod a31 is installed with an offset body a37, and the offset body a37 is slidably connected with the offset rod a31. The offset body a37 is provided with an extension block a34 inside, and the extension block a34 is engaged with the offset body a37. The extension column a36 is provided with an adjustment body a35, and the adjustment body a35 is movably connected with the extension column a36 through a movable shaft. The offset body a37 is provided with a slide rail inside, and the extension block a34 is provided with a slide plate. The slide plate of the extension block a34 is slidably connected to the slide rail inside the offset body a37, the extension block a34 is provided with a slide column, the extension column a36 is slidably connected to the slide column of the extension block a34 through a slider, the assembly block a33 is a movable shaft structure, the movable shaft of the assembly block a33 is provided with a movable track, the offset rod a31 is embedded in the movable track of the movable shaft of the assembly block a33 through a connecting block, the movable shaft of the assembly block a33 passes through the assembly column a32, the assembly column a32 is provided with a slide rail, the assembly column a32 is a long-axis connecting rod, the assembly column a32 and the assembly block a33 are perpendicular to each other, and the adjusting body a35 is provided with a triangular pyramid connecting block, which scrapes the attached soil in the material guide structure cavity through the adjusting structure.

[0044] On the basis of the first embodiment, the displacement block a1 is installed. Some devices need to condition the soil, which will dig the soil deeper in the ground. The soil in the deeper ground has higher moisture and certain adhesion, and is easy to adhere to the guide tube e22 and the device body a4. Before this, the installation rod a5 is screwed into the displacement block a1, and the displacement block a1 slides on the displacement shaft a6 to push the installation rod a5 into the guide tube e22 and fit with the wall of the guide tube e22. The rotating block a2 rotates on the connecting column of the device body a4, so that the installation rod a5 does not scratch the wall of the guide tube e22, preventing the soil from adhering to the wall of the guide tube e22. At the same time, the installation rod a5 can also push the soil guide to promote the extraction of soil. The displacement body a37 is on the displacement rod a31 The sliding plate of the extension block a34 slides inside the offset body a37, the extension column a36 slides on the sliding column of the extension block a34, and the adjusting body a35 is extended. The adjusting body a35 rotates along the movable axis connected to the extension column a36, and the triangular pyramid of the adjusting body a35 is directed toward the wall of the device body a4 by adjusting the extension structure and the adjusting structure. When the offset body a37 moves, the soil adhering to the wall of the device body a4 is continuously scratched and the soil is pushed. The offset rod a31 slides on the movable axis of the assembling block a33, which can further extend the assembly structure of the adjusting body a35. The assembling block a33 slides on the assembling column a32 to adjust the active position of the adjusting body a35, so that the soil in the device body a4 can be guided out of the cavity of the operator 4a.

[0045] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for illustrating the principles of the present invention. Without departing from the spirit or basic features of the present invention, the present invention can be implemented in other specific forms and various changes and improvements can be made. These changes and improvements all fall within the scope of the present invention to be protected. Therefore, the scope of protection of the present invention is defined by the attached claims and their equivalents, rather than the above description.

[0046] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. A heavy metal contaminated soil conditioning device, characterized in that: The structure comprises a medicine tank (1), a conveyor (2), a bottom plate (3), and a processing box (4); the medicine tank (1) is mounted on the processing box (4); the processing box (4) is engaged with the conveyor (2); and the bottom plate (3) is provided with the processing box (4); The processing box (4) is provided with an operator (4a), a circulation pipe (4b), a tilting body (4c), a conditioning box (4d), a processor (4e), and a box body (4f); the tilting body (4c) is provided inside the box body (4f); the conditioning box (4d) is connected to the tilting body (4c); the circulation pipe (4b) is provided inside the box body (4f); the box body (4f) is connected to the processor (4e); the operator (4a) is installed on the box body (4f); the processing box (4) is movably connected to the medicine tank (1); The processor (4e) is provided with a shell (e1), a material guide (e2), a movable shaft (e3), a closing block (e4), and a movable path (e5); movable paths (e5) are provided on both sides of the shell (e1); the movable shaft (e3) is slidably connected to the movable path (e5); the closing block (e4) is mounted on the movable shaft (e3); the shell (e1) is connected to the material guide (e2); and the shell (e1) is arranged on the box body (4f); The movable shaft (e3) is an L-shaped connecting shaft, and a connecting column is provided on the movable shaft (e3); The material guide (e2) is provided with a flip plate (e21), a material guide tube (e22), a processing tube (e23), and a rotating shaft (e24); the processing tube (e23) is provided with a rotating shaft (e24); the flip plate (e21) is movably connected to the rotating shaft (e24); the outer edge of the material guide tube (e22) is provided with a rotating shaft (e24); the shell (e1) is connected to the processing tube (e23); the rotating shaft (e24) is an annular connecting shaft, and an annular protrusion is provided on the rotating shaft (e24); The operator (4a) is provided with a displacement block (a1), a rotating block (a2), an adjuster (a3), a device body (a4), a mounting rod (a5), and a displacement shaft (a6); the rotating block (a2) is mounted inside the device body (a4); the displacement block (a1) is slidably connected to the displacement shaft (a6); the displacement block (a1) is mounted with a mounting rod (a5); the device body (a4) is connected to the adjuster (a3); and the device body (a4) is arranged on a box body (4f); The rotating block (a2) is a circular connecting block, and a connecting groove is provided at the center of the rotating block (a2); The regulator (a3) ​​is provided with an offset rod (a31), an assembly column (a32), an assembly block (a33), an extension block (a34), an adjustment body (a35), an extension column (a36), and an offset body (a37); the assembly block (a33) is provided on the assembly column (a32); the offset body (a37) is slidably connected to the offset rod (a31); an extension block (a34) is provided inside the offset body (a37); the adjustment body (a35) is movably connected to the extension column (a36); a slide rail is provided inside the offset body (a37); a slide plate is provided on the extension block (a34); the slide plate of the extension block (a34) is slidably connected to the slide rail inside the offset body (a37); The extension block (a34) is provided with a sliding column, the extension column (a36) is slidably connected to the sliding column of the extension block (a34) through a slider, the assembly block (a33) is a movable shaft structure, the movable shaft of the assembly block (a33) is provided with a movable track, the offset rod (a31) is engaged with the movable track of the movable shaft of the assembly block (a33) through a connecting block, the movable shaft of the assembly block (a33) passes through the assembly column (a32), the assembly column (a32) is provided with a sliding rail, the assembly column (a32) is a long-axis connecting rod, the assembly column (a32) and the assembly block (a33) are perpendicular to each other, and the adjusting body (a35) is provided with a triangular pyramid connecting block.

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