An impact-resistant container

Abstract

The present invention discloses an impact-resistant container, belonging to the technical field of hydrometallurgy. An impact-resistant container includes a base, and further includes: a storage tank fixedly connected to the base; a buffer tank fixedly connected to the top of the storage tank, wherein the buffer tank includes a tank body, and a plurality of mounting pipes fixedly connected to the tank body and communicating with the inside of the tank body are provided on the tank body, and a buffer column is slidably connected in the mounting pipe; a sealing cavity is arranged between the buffer column and the mounting pipe, and a plurality of the sealing cavities are communicated with each other through a first pipeline; the plurality of buffer columns are divided into two groups, and the two groups of buffer columns reciprocally expand and contract on the mounting pipe; the present invention converts the energy released when converting high-temperature and high-pressure slurry into normal-temperature and normal-pressure slurry into kinetic energy to drive the buffer column to slide, eliminates the impact of the slurry on the inner wall of the tank body, and further reduces the damage to the container when the pressurized leaching slurry changes its state.

Description

Technical Field

[0001] The present invention relates to the technical field of hydrometallurgy, and particularly to an impact-proof container. Background Art

[0002] With the continuous improvement of process technology, the requirements for equipment are getting higher and higher to meet the process requirements. In hydrometallurgy, a large number of leaching processes are adopted to recover valuable metals. During the leaching process, due to the limitations of atmospheric pressure leaching, neither the leaching rate nor the leaching efficiency of metals can meet the process requirements. Therefore, in the current hydrometallurgy process, pressure leaching is generally used to extract valuable metals. After the pressure leaching is completed, the slurry needs to be adjusted from a high-pressure state to an atmospheric pressure state, and generally, a tank body is used for storage when the slurry is in the conversion state.

[0003] In the prior art, when the slurry is converted from a high-temperature and high-pressure state to an atmospheric pressure and normal temperature state, a large amount of the solution in the slurry will be vaporized, resulting in a sharp expansion of the volume of the slurry, a rapid increase in the flow rate of the slurry, and the formation of a high-speed fluid beam, which causes a strong impact on the container wall of the slurry container. Since there are still some solid substances in the slurry after the leaching process, it will exacerbate the wear of the slurry on the container wall, thereby causing damage to the container. In order to reduce the wear of the slurry on the container, an impact-proof container needs to be designed. Summary of the Invention

[0004] The purpose of the present invention is to solve the problem that the container is easily damaged during the conversion of the slurry state in the prior art, and to propose an impact-proof container.

[0005] In order to achieve the above purpose, the present invention adopts the following technical solutions:

[0006] An impact-proof container includes a base, and further includes: a storage tank fixedly connected to the base; a buffer tank fixedly connected to the top of the storage tank, wherein the buffer tank includes a tank body, and a plurality of mounting pipes fixedly connected to the tank body and communicating with the inside of the tank body are provided. A buffer column is slidably connected in the mounting pipe; a sealing cavity is provided between the buffer column and the mounting pipe, and a plurality of the sealing cavities are communicated with each other through a first pipeline; the plurality of buffer columns are divided into two groups, and the two groups of buffer columns reciprocally expand and contract on the mounting pipe; a guide pipe is fixedly connected to the tank body, and a first discharge pipe which is obliquely arranged is fixedly connected to the bottom of the guide pipe, and the pipe orifice of the first discharge pipe faces the buffer column; a control assembly is arranged on the guide pipe and is used for controlling the slurry to spray onto the corresponding buffer column.

[0007] To facilitate the control of the reciprocating telescoping of the two groups of buffer columns, preferably, the control assembly includes a first mounting shaft rotatably connected inside the material guiding pipe. A turbine is fixedly connected to the first mounting shaft. Cavities are provided at the joints of the multiple first discharge pipes and the material guiding pipe. The first mounting shaft extends into the cavity and is fixedly connected with a ball valve.

[0008] To prevent the solid materials from jamming the turbine, preferably, it further includes a feed pipe. The feed pipe includes a "U"-shaped pipe and a second pipe. The second pipe is fixedly connected to the "U"-shaped pipe. The first mounting shaft is fixedly connected with a first vane and a second vane in sequence from top to bottom. The first vane and the second vane are arranged at the upper and lower ends of the turbine. A filter screen is arranged in the upper horizontal pipe of the "U"-shaped pipe. A buffer block is fixedly connected inside the "U"-shaped pipe.

[0009] To facilitate solid-liquid separation, preferably, a storage cavity and an installation cavity are provided inside the storage tank. The installation cavity is located above the storage cavity. A discharge pipe is fixedly connected to the bottom of the tank body. A centrifugal pipe is rotatably connected inside the installation cavity. The centrifugal pipe is fixedly connected to the first mounting shaft. The top of the centrifugal pipe is communicated with the discharge pipe. A second discharge pipe is fixedly connected inside the storage cavity. The second discharge pipe is rotatably connected to the centrifugal pipe. An extrusion block is slidably connected inside the second discharge pipe. A rotating shaft is rotatably connected inside the installation cavity. The rotating shaft and the centrifugal pipe rotate synchronously through a sprocket assembly. A crankshaft is fixedly connected to the rotating shaft. A crank is rotatably connected to the crankshaft. The crank is rotatably connected to the extrusion block. Drain holes are provided on the side wall of a section of the centrifugal pipe extending into the storage cavity and on the vertical pipe of the second discharge pipe located inside the storage cavity.

[0010] To facilitate cooling, preferably, a cooling water cavity and a heat dissipation cavity are provided inside the storage tank. The heat dissipation cavity is located above the cooling water cavity. It further includes: a condenser. The pipe body of the condenser penetrates through the cooling water cavity and the heat dissipation cavity. A second air pipe is fixedly connected to a position on the upper side of the side wall of the tank body. The second air pipe is connected to the input end of the condenser. The output end of the condenser is connected to the storage cavity.

[0011] To improve the cooling efficiency, preferably, a heat dissipation cavity is provided inside the storage tank. A third mounting shaft is rotatably connected inside the heat dissipation cavity. A fan blade is fixedly connected to the third mounting shaft. A first air pipe is fixedly connected to the top of the heat dissipation cavity.

[0012] To improve the energy utilization rate, preferably, an impeller box is fixedly connected to the top of the storage tank. The impeller box is communicated with the second air pipe. A second mounting shaft is rotatably connected to the impeller box. The second mounting shaft extends into the impeller box and is fixedly connected with a third vane. A transmission shaft is rotatably connected to the storage tank. The transmission shaft and the second mounting shaft are synchronously rotated through a first bevel gear set. The transmission shaft and the third mounting shaft are synchronously rotated through a second bevel gear set.

[0013] To improve the cooling efficiency, further, a piston cylinder is fixedly connected to the installation pipe. A sealing slide rod extending into the piston cylinder is fixedly connected to the buffer column. A piston plate fixedly connected to the sealing slide rod is slidably connected in the piston cylinder. The input end of the piston cylinder is fixedly connected with a fourth pipe extending into the storage cavity. The output end of the piston cylinder is connected to the input end of the condenser through a third pipe.

[0014] Preferably, a spring is sleeved on the sealing slide rod. Two ends of the spring respectively abut against the buffer column and the inner wall of the installation pipe.

[0015] Compared with the prior art, the present invention provides an impact-proof container, which has the following beneficial effects:

[0016] 1. For this impact-proof container, when converting high-temperature and high-pressure slurry into normal-temperature and normal-pressure slurry, the released energy is converted into kinetic energy to drive the buffer column to slide, eliminating the impact of the slurry on the inner wall of the tank body, thereby reducing the damage to the container when the pressurized leaching slurry changes its state;

[0017] 2. For this impact-proof container, when converting high-temperature and high-pressure slurry into normal-temperature and normal-pressure slurry, the released energy drives the fan blades to rotate, generating an air flow that blows towards the condenser and exchanges heat with the steam inside the condenser to form hot air, and the hot air is blown towards the separated solid substances, improving the overall cooling efficiency of the slurry while improving the energy utilization rate and reducing energy loss;

[0018] 3. For this impact-proof container, when converting high-temperature and high-pressure slurry into normal-temperature and normal-pressure slurry, the released energy is converted into kinetic energy to drive the piston plate to reciprocate inside the piston cylinder, sucking the steam inside the storage cavity, so that the steam inside the storage cavity enters the condenser for cooling and liquefaction, thereby reducing the pressure inside the storage cavity, enabling it to store more slurry, and further improving the overall cooling speed of the slurry and the efficiency of slurry state conversion. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 is the main sectional view of an impact-proof container proposed by the present invention;

[0020] Figure 2 is the top view of an impact-proof container proposed by the present invention;

[0021] Figure 3 Structural schematic diagram of a shock-proof container buffer tank proposed by the present invention Figure 1 ;

[0022] Figure 4 Structural schematic diagram of a shock-proof container storage tank proposed by the present invention;

[0023] Figure 5 Structural schematic diagram of a shock-proof container impeller box proposed by the present invention;

[0024] Figure 6 Structural schematic diagram of a shock-proof container turbine proposed by the present invention;

[0025] Figure 7 Structural schematic diagram of a shock-proof container buffer tank proposed by the present invention Figure 2 ;

[0026] Figure 8 Structural schematic diagram of a shock-proof container guide pipe proposed by the present invention.

[0027] In the figure: 1, base; 2, storage tank; 201, storage cavity; 202, cooling water cavity; 203, heat dissipation cavity; 2031, first air pipe; 204, installation cavity; 3, buffer tank; 301, tank body; 302, guide pipe; 303, first discharge pipe; 3031, cavity; 304, installation pipe; 305, buffer column; 306, sealing cavity; 307, first pipeline; 308, spring; 309, blanking pipe; 4, feed pipe; 401, "U" - shaped pipe; 402, second pipeline; 403, filter screen; 404, buffer block; 5, first installation shaft; 501, first blade; 502, turbine; 503, second blade; 504, ball valve; 6, piston cylinder; 601, sealing slide bar; 602, piston plate; 603, third pipeline; 604, fourth pipeline; 7, centrifugal pipe; 701, second discharge pipe; 702, extrusion block; 703, rotating shaft; 7031, crankshaft; 704, crank; 705, sprocket assembly; 706, drain hole; 801, second air pipe; 802, impeller box; 8021, second installation shaft; 8022, third blade; 8023, transmission shaft; 8024, first bevel gear set; 8025, second bevel gear set; 8026, third installation shaft; 8027, fan blade; 803, condenser. Specific embodiments

[0028] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments.

[0029] In the description of the present invention, it should be understood that the orientation or positional relationship indicated by the terms "upper", "lower", "front", "rear", "left", "right", "top", "bottom", "inner", "outer", etc. is based on the orientation or positional relationship shown in the drawings. It is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation to the present invention.

[0030] Embodiment:

[0031] Refer to Figures 1 - 8 , an impact-resistant container, including a base 1, further including: a storage tank 2 fixedly connected to the base 1; a buffer tank 3 fixedly connected to the top of the storage tank 2. Among them, the buffer tank 3 includes a tank body 301, and a plurality of mounting pipes 304 fixedly connected to the tank body 301 and communicating with the inside of the tank body 301 are provided. A buffer column 305 is slidably connected in the mounting pipe 304; a sealing cavity 306 is provided between the buffer column 305 and the mounting pipe 304, and a plurality of sealing cavities 306 communicate with each other through a first pipe 307; the plurality of buffer columns 305 are divided into two groups, and the two groups of buffer columns 305 reciprocally expand and contract on the mounting pipe 304; a material guiding pipe 302 is fixedly connected to the tank body 301, and a first discharge pipe 303 which is obliquely arranged is fixedly connected to the bottom of the material guiding pipe 302, and the pipe orifice of the first discharge pipe 303 faces the buffer column 305; a control assembly is arranged on the material guiding pipe 302 and is used for controlling the slurry to spray onto the corresponding buffer column 305.

[0032] The slurry after pressure leaching is fed into the material guiding pipe 302. The slurry entering the material guiding pipe 302 is sprayed out through the first discharge pipe 303. The first discharge pipe 303 can be set to four groups, and two symmetrically arranged first discharge pipes 303 are a group. Controlled by the control assembly, the slurry reciprocally sprays out from the two groups of first discharge pipes 303, that is, reciprocally sprays onto the two groups of buffer columns 305 of the first discharge pipe 303. The number of buffer columns 305 is the same as that of the first discharge pipe 303. For the convenience of description, here the two groups of buffer columns 305 and their corresponding first discharge pipes 303 and sealing cavities 306 are divided into group A and group B. When the slurry is sprayed out from the first discharge pipe 303 of group A, the sprayed slurry impacts the corresponding buffer column 305 of group A. The impacted buffer column 305 of group A slides into the mounting pipe 304 of group A. At this time, the space inside the sealing cavity 306 of group A shrinks, and the fluid inside the sealing cavity 306 of group A is discharged into the sealing cavity 306 of group B through the first pipe 307. The pressure inside the sealing cavity 306 of group B increases, and the buffer column 305 of group B is pushed out of the mounting pipe 304 of group B, causing the buffer column 305 of group B to slide into the tank body 301. In this way, by converting the energy released when the high-temperature and high-pressure slurry is converted into normal-temperature and normal-pressure slurry into kinetic energy to drive the buffer column 305 to slide, the impact of the slurry on the inner wall of the tank body 301 is eliminated, and thus the loss of the container is reduced.

[0033] Reference Figure 3 Figure 3 , the control component includes a first mounting shaft 5 rotatably connected inside the material guiding pipe 302. A turbine 502 is fixedly connected to the first mounting shaft 5. A cavity 3031 is provided at the connection between a plurality of first discharge pipes 303 and the material guiding pipe 302. The first mounting shaft 5 extends into the cavity 3031 and is fixedly connected with a ball valve 504.

[0034] When the slurry enters the material guiding pipe 302, the slurry drives the turbine 502 to rotate during the flowing process. The turbine 502 drives the first mounting shaft 5 to rotate. The first mounting shaft 5 drives the ball valve 504 to rotate. Two groups of symmetric holes are formed in the ball valve 504. When the holes rotate to the first discharge pipe 303 of the first group, the slurry sprays out from the first discharge pipe 303 of the first group. When the holes rotate to the first discharge pipe 303 of the second group, the slurry sprays out from the first discharge pipe 303 of the second group. Thus, the slurry reciprocally sprays out from the first discharge pipes 303 of the first and second groups.

[0035] Reference Figure 3 Figure 3 , it further includes a feed pipe 4. The feed pipe 4 includes a "U"-shaped pipe 401 and a second pipe 402. The second pipe 402 is fixedly connected to the "U"-shaped pipe 401. The first mounting shaft 5 is fixedly connected with a first vane 501 and a second vane 503 in sequence from top to bottom. The first vane 501 and the second vane 503 are arranged at the upper and lower ends of the turbine 502. A filter screen 403 is arranged in the upper horizontal pipe of the "U"-shaped pipe 401. A buffer block 404 is fixedly connected inside the "U"-shaped pipe 401.

[0036] The slurry after pressure leaching is fed into the feed pipe 4. During the process of the slurry entering, it is shunted by the "U"-shaped pipe 401. Part of the slurry filters out solid objects through the filter screen 403, then enters the material guiding pipe 302, and sprays onto the first vane 501, driving the first vane 501 to rotate, further providing power for the rotation of the first mounting shaft 5. And the remaining part of the solid objects mixed with the rest of the liquid sprays onto the second vane 503 through the horizontal pipe at the bottom of the "U"-shaped pipe 401, driving the first mounting shaft 5 to rotate further through the second vane 503. The energy of the slurry itself after pressure leaching is fully utilized. It is shunted by the "U"-shaped pipe 401 and filtered through the filter screen 403, thus preventing the solid substances from blocking the turbine 502, so that the first mounting shaft 5 can keep normal rotation.

[0037] Reference Figure 3 and Figure 4, a storage cavity 201 and an installation cavity 204 are formed in the storage tank 2. The installation cavity 204 is located above the storage cavity 201. A blanking pipe 309 is fixedly connected to the bottom of the tank body 301. A centrifugal pipe 7 is rotatably connected in the installation cavity 204. The centrifugal pipe 7 is fixedly connected to the first installation shaft 5. The top of the centrifugal pipe 7 is communicated with the blanking pipe 309. A second discharge pipe 701 is fixedly connected in the storage cavity 201. The second discharge pipe 701 is rotatably connected to the centrifugal pipe 7. A pressing block 702 is slidably connected in the second discharge pipe 701. A rotating shaft 703 is rotatably connected in the installation cavity 204. The rotating shaft 703 and the centrifugal pipe 7 are synchronously rotated through a sprocket assembly 705. A crankshaft 7031 is fixedly connected to the rotating shaft 703. A crank 704 is rotatably connected to the crankshaft 7031. The crank 704 is rotatably connected to the pressing block 702. Drain holes 706 are formed in the side wall of the centrifugal pipe 7 extending into the storage cavity 201 and on the vertical pipe of the second discharge pipe 701 located in the storage cavity 201.

[0038] The buffered slurry falls from the buffer column 305 to the bottom of the tank body 301 and flows into the centrifugal pipe 7 through the blanking pipe 309. The first installation shaft 5 drives the centrifugal pipe 7 to rotate. The liquid in the slurry is discharged from the centrifugal pipe 7 through the drain holes 706 on the centrifugal pipe 7, and the solid substances fall into the second discharge pipe 701. At the same time, the centrifugal pipe 7 drives the rotating shaft 703 to rotate through the sprocket assembly 705. The rotating shaft 703 drives the crankshaft 7031 to rotate. The crankshaft 7031 drives the pressing block 702 to reciprocate through the crank 704. The pressing block 702 reciprocates to push and squeeze the solid objects falling into the second discharge pipe 701. As the materials increase, the solid substances gradually flow out of the tank body 301 along the second discharge pipe 701. During the discharge process of the solid objects, since the solid objects are pushed by extrusion, the residual liquid can be squeezed out during their movement. The squeezed liquid is discharged through the drain holes 706, directly completing the separation of solids and liquids.

[0039] In addition, the second discharge pipe 701 can be set as a straight pipe tilted upward at a certain angle, and drain holes 706 are still formed on the pipe wall. Then, a set of electric augers is installed on the discharge pipe, and the electric augers are used to discharge the solid objects, which will not be elaborated here.

[0040] Refer to Figures 1 - 4 , a cooling water cavity 202 and a heat dissipation cavity 203 are formed in the storage tank 2. The heat dissipation cavity 203 is located above the cooling water cavity 202. It further includes: a condenser 803. The pipe body of the condenser 803 penetrates through the cooling water cavity 202 and the heat dissipation cavity 203. A second air pipe 801 is fixedly connected to a position on the upper side of the side wall of the tank body 301. The second air pipe 801 is connected to the input end of the condenser 803. The output end of the condenser 803 is connected to the storage cavity 201.

[0041] When the slurry after leaching first enters the tank body 301, due to its relatively high temperature and pressure, it is initially depressurized inside the tank body 301 to form high-temperature gas and maintain a relatively large pressure. The air pressure inside the tank body 301 is greater than that inside the condenser 803. Therefore, the high-temperature gas inside the tank body 301 enters the second air pipe 801 and then enters the condenser 803 for heat exchange. The high-temperature gas exchanges heat with the cooling water in the cooling water chamber 202 of the condenser 803, re-liquefies into a liquid, and then flows into the storage chamber 201.

[0042] Refer to Figures 1 - 3 , a heat dissipation chamber 203 is provided inside the storage tank 2. A third mounting shaft 8026 is rotatably connected inside the heat dissipation chamber 203. A fan blade 8027 is fixedly connected to the third mounting shaft 8026. A first air pipe 2031 is fixedly connected to the top of the heat dissipation chamber 203. An impeller box 802 is fixedly connected to the top of the storage tank 2. The impeller box 802 is communicated with the second air pipe 801. A second mounting shaft 8021 is rotatably connected to the impeller box 802. The second mounting shaft 8021 extends into the impeller box 802 and is fixedly connected with a third vane 8022. A transmission shaft 8023 is rotatably connected to the storage tank 2. The transmission shaft 8023 and the second mounting shaft 8021 are synchronously rotated through a first bevel gear set 8024. The transmission shaft 8023 and the third mounting shaft 8026 are synchronously rotated through a second bevel gear set 8025.

[0043] Before the high-temperature and high-pressure gas enters the condenser 803, it passes through the impeller box 802, pushes the third vane 8022 to rotate, and then drives the second mounting shaft 8021 to rotate. The second mounting shaft 8021 drives the transmission shaft 8023 to rotate through the first bevel gear set 8024. The transmission shaft 8023 drives the third mounting shaft 8026 to rotate through the second bevel gear set 8025, and then drives the fan blade 8027 to rotate, so that it blows air to the pipeline of the condenser 803 located inside the heat dissipation chamber 203, forming hot air that is discharged into the first air pipe 2031. The air outlet of the first air pipe 2031 can be connected to a blower used to dry solid objects, using it to accelerate the drying of solid objects, improve the energy utilization rate while increasing the drying speed of solid objects, and improve the cooling efficiency of the gas, or introduce the hot air into the slurry to be pressure-leached for preheating, thereby improving the efficiency of pressure leaching.

[0044] Refer to Figures 1 - 4, a piston cylinder 6 is fixedly connected to the installation pipe 304, a sealing slide rod 601 extending into the piston cylinder 6 is fixedly connected to the buffer column 305, a piston plate 602 fixedly connected to the sealing slide rod 601 is slidably connected in the piston cylinder 6, an input end of the piston cylinder 6 is fixedly connected to a fourth pipe 604 extending into the storage chamber 201, an output end of the piston cylinder 6 is connected to an input end of a condenser 803 through a third pipe 603, a spring 308 is sleeved on the sealing slide rod 601, and two ends of the spring 308 are respectively abutted against the buffer column 305 and an inner wall of the installation pipe 304.

[0045] When the buffer column 305 reciprocates, the buffer column 305 drives the sealing slide rod 601 to slide, and the sealing slide rod 601 drives the piston plate 602 to reciprocate inside the piston cylinder 6. One-way valves are arranged at both the output end and the input end of the piston cylinder 6. When the piston plate 602 slides obliquely upward, the piston cylinder 6 sucks the steam scattered in the storage chamber 201 through the fourth pipe 604. When the piston plate 602 slides obliquely downward, the steam sucked into the piston cylinder 6 is pressed into the condenser 803 through the third pipe 603, so that it is cooled and liquefied inside the condenser 803, the pressure inside the storage chamber 201 is reduced, the storage capacity is increased, the overall cooling speed of the slurry is accelerated, and the efficiency of converting the slurry from a high-temperature and high-pressure dynamic state to a normal-temperature and normal-pressure static state is improved.

[0046] The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution of the present invention and its inventive concept, makes equivalent substitutions or changes, and should be covered by the protection scope of the present invention.

Claims

1. An impact-resistant container, comprising a base (1), characterized in that, It further includes: A storage tank (2) fixedly connected to the base (1); A buffer tank (3) fixedly connected to the top of the storage tank (2), wherein, the buffer tank (3) includes a tank body (301), and a plurality of mounting pipes (304) fixedly connected to the tank body (301) and communicating with the inside of the tank body (301) are provided, and a buffer column (305) is slidably connected in the mounting pipe (304); A sealing cavity (306) is provided between the buffer column (305) and the mounting pipe (304), and a plurality of the sealing cavities (306) are communicated with each other through a first pipeline (307); A plurality of the buffer columns (305) are divided into two groups, and the two groups of buffer columns (305) reciprocally expand and contract on the mounting pipe (304); A material guiding pipe (302) is fixedly connected to the tank body (301), and a first discharge pipe (303) which is obliquely arranged is fixedly connected to the bottom of the material guiding pipe (302), and the pipe orifice of the first discharge pipe (303) faces the buffer column (305); A control assembly, which is arranged on the material guiding pipe (302) and is used for controlling the slurry to spray onto the corresponding buffer column (305).

2. The impact-resistant container according to claim 1, characterized in that, The control assembly includes a first mounting shaft (5) rotatably connected in the material guiding pipe (302), a turbine (502) is fixedly connected to the first mounting shaft (5), a cavity (3031) is provided at the connection of a plurality of the first discharge pipes (303) and the material guiding pipe (302), and the first mounting shaft (5) extends into the cavity (3031) and is fixedly connected with a ball valve (504).

3. The impact-resistant container according to claim 2, characterized in that, It further includes a feed pipe (4), the feed pipe (4) includes a "U"-shaped pipe (401) and a second pipeline (402), the second pipeline (402) is fixedly connected to the "U"-shaped pipe (401), the first mounting shaft (5) is fixedly connected with a first vane (501) and a second vane (503) in sequence from top to bottom, the first vane (501) and the second vane (503) are arranged at the upper and lower ends of the turbine (502), a filter screen (403) is arranged in the upper horizontal pipe of the "U"-shaped pipe (401), and a buffer block (404) is fixedly connected in the "U"-shaped pipe (401).

4. The impact-resistant container according to claim 3, wherein, A storage cavity (201) and an installation cavity (204) are formed in the storage tank (2). The installation cavity (204) is located above the storage cavity (201). A blanking pipe (309) is fixedly connected to the bottom of the tank body (301). A centrifugal pipe (7) is rotatably connected in the installation cavity (204). The centrifugal pipe (7) is fixedly connected to the first installation shaft (5). The top of the centrifugal pipe (7) is communicated with the blanking pipe (309). A second discharge pipe (701) is fixedly connected in the storage cavity (201). The second discharge pipe (701) is rotatably connected to the centrifugal pipe (7). A pressing block (702) is slidably connected in the second discharge pipe (701). A rotating shaft (703) is rotatably connected in the installation cavity (204). The rotating shaft (703) and the centrifugal pipe (7) are synchronously rotated through a sprocket assembly (705). A crankshaft (7031) is fixedly connected to the rotating shaft (703). A crank (704) is rotatably connected to the crankshaft (7031). The crank (704) is rotatably connected to the pressing block (702). Drain holes (706) are formed in the side wall of a section of the centrifugal pipe (7) extending into the storage cavity (201) and on the vertical pipe of the second discharge pipe (701) located in the storage cavity (201).

5. A shock-proof container according to claim 4, characterized in that, A cooling water cavity (202) and a heat dissipation cavity (203) are formed in the storage tank (2). The heat dissipation cavity (203) is located above the cooling water cavity (202). Further included are: A condenser (803). The pipe body of the condenser (803) penetrates through the cooling water cavity (202) and the heat dissipation cavity (203). A second air pipe (801) is fixedly connected to a position on the upper side of the side wall of the tank body (301). The second air pipe (801) is connected to the input end of the condenser (803). The output end of the condenser (803) is connected to the storage cavity (201).

6. The impact-resistant container according to claim 5, characterized in that, A heat dissipation cavity (203) is formed in the storage tank (2). A third installation shaft (8026) is rotatably connected in the heat dissipation cavity (203). A fan blade (8027) is fixedly connected to the third installation shaft (8026). A first air pipe (2031) is fixedly connected to the top of the heat dissipation cavity (203).

7. The impact-resistant container according to claim 6, characterized in that, An impeller box (802) is fixedly connected to the top of the storage tank (2). The impeller box (802) is communicated with the second air pipe (801). A second installation shaft (8021) is rotatably connected to the impeller box (802). The second installation shaft (8021) extends into the impeller box (802) and is fixedly connected with a third vane (8022). A transmission shaft (8023) is rotatably connected to the storage tank (2). The transmission shaft (8023) and the second installation shaft (8021) are synchronously rotated through a first bevel gear set (8024). The transmission shaft (8023) and the third installation shaft (8026) are synchronously rotated through a second bevel gear set (8025).

8. The impact-resistant container according to claim 5, characterized in that, A piston cylinder (6) is fixedly connected to the installation pipe (304), a sealing slide bar (601) extending into the piston cylinder (6) is fixedly connected to the buffer column (305), a piston plate (602) fixedly connected to the sealing slide bar (601) is slidably connected in the piston cylinder (6), an input end of the piston cylinder (6) is fixedly connected to a fourth pipe (604) extending into the storage cavity (201), and an output end of the piston cylinder (6) is connected to an input end of the condenser (803) through a third pipe (603).

9. The impact-resistant container according to claim 8, wherein, A spring (308) is sleeved on the sealing slide bar (601), and two ends of the spring (308) respectively abut against the buffer column (305) and the inner wall of the installation pipe (304).

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