A honeycomb activated carbon production device and working method thereof

Abstract

The present invention relates to a honeycomb activated carbon production device and a working method thereof, belonging to the technical field of activated carbon production, comprising a cleaning tank with a hollow interior, a moving unit, a quantitative unit and hydraulic oil, wherein the moving unit comprises a moving plate, which is arranged in a liftable manner in the cleaning tank, and the quantitative unit comprises a quantitative tank, which is arranged outside the cleaning tank in a liftable manner; a sealed rectangular sealing groove is arranged in the side wall of the cleaning tank, the hydraulic oil is filled in the rectangular sealing groove, and the volume of the hydraulic oil is half of the volume of the rectangular sealing groove; such an arrangement enables, when the hydraulic oil is filled in the rectangular sealing groove, the liquid levels of the hydraulic oil at both ends of the rectangular sealing groove are flush and the hydraulic oil level is located in the middle of the rectangular sealing groove; the moving plate is sealingly slidably arranged at one end of the rectangular sealing groove, the quantitative tank is slidably arranged at the other end of the rectangular sealing groove, and the moving plate and the quantitative tank realize lifting and lowering movement in the rectangular sealing groove through weight changes.

Description

Technical Field

[0001] The invention belongs to the technical field of activated carbon production, and in particular relates to honeycomb activated carbon production equipment and a working method thereof. Background Art

[0002] During the production and processing of activated carbon, it is necessary to carry out necessary rinsing steps on the activated carbon before it is made into finished products, in order to reduce various impurities in the activated carbon from the raw materials or impurities generated due to production process reasons, so that the chloride, sulfide, ash and other impurities and pH value in the activated carbon meet the specified standards.

[0003] For example, the utility model patent with patent authorization announcement number: CN214976253U discloses a wet activated carbon processing device, including a water purification device for purifying tap water and an activated carbon cleaning container for mixing activated carbon with purified water. The water purification device supplies purified water to the activated carbon cleaning container, and a sealed water storage tank for storing purified water is provided between the water purification device and the activated carbon cleaning container. A transmission cylinder for transporting activated carbon is provided at the discharge port of the activated carbon cleaning container.

[0004] Based on the search of the above patent authorization announcement number and the shortcomings found therein:

[0005] When the existing processing equipment for activated carbon needs to perform a rinsing step on the activated carbon, the activated carbon is placed in a cleaning container and purified water is then added to the cleaning container. Since the existing equipment cannot adjust the amount of purified water added to the cleaning container according to the weight of the activated carbon, in order to ensure that the activated carbon in the cleaning container can complete the rinsing process, an excess amount of purified water is often added to the cleaning container. This setting method will waste purified water. Summary of the invention

[0006] In order to solve the problem that the existing processing equipment for activated carbon needs to perform a rinsing step on the activated carbon, the activated carbon is placed in a cleaning container and then purified water is added to the cleaning container. Since the existing equipment cannot adjust the amount of purified water added to the cleaning container according to the weight of the activated carbon, in order to ensure that the activated carbon in the cleaning container can complete the rinsing process, an excess amount of purified water is often added to the cleaning container. This setting method will waste the purified water. The present invention provides a honeycomb activated carbon production equipment and a working method thereof.

[0007] The purpose of the present invention can be achieved through the following technical solutions:

[0008] A honeycomb activated carbon production device, comprising a cleaning tank with a hollow interior, a moving unit, a quantitative unit and hydraulic oil, wherein the moving unit comprises a moving plate, which is movably arranged in the cleaning tank, and the quantitative unit comprises a quantitative tank, which is movably arranged outside the cleaning tank;

[0009] A sealed rectangular sealing groove is arranged in the side wall of the cleaning tank, the hydraulic oil is filled in the rectangular sealing groove, and the volume of the hydraulic oil is half of the volume of the rectangular sealing groove; the movable plate is sealingly slidably arranged at one end of the rectangular sealing groove, and the quantitative tank is slidably arranged at the other end of the rectangular sealing groove, and the movable plate and the quantitative tank realize lifting and lowering movement in the rectangular sealing groove through weight change;

[0010] The side wall of the cleaning tank is also provided with a sealing hole, and the sealing hole is located at the top of the movable plate. The quantitative tank can lock or release its communication relationship with the sealing hole.

[0011] As a preferred technical solution of the present invention, the moving unit further includes a moving sealing ring and a moving block, the inner side wall of the cleaning tank is provided with a first rectangular groove, one end of the first rectangular groove is overlapped and communicated with one end of the moving plate located in the rectangular sealing groove, the moving sealing ring is slidably arranged in the first rectangular groove, the moving sealing ring is provided with a first sealing hole, the moving block is slidably arranged in the rectangular sealing groove, the moving block is located at the overlapping and communicating part of the first rectangular groove and the rectangular sealing groove, the first sealing hole is sealed and connected to the moving block, and one end of the moving block is connected to the moving plate;

[0012] The end surface of the other end of the moving block is sealed with the end surface in the rectangular sealing groove, and the two side walls of the other end of the moving block are sealed with the two side walls in the rectangular sealing groove respectively.

[0013] As a preferred technical solution of the present invention, the quantitative unit further includes a quantitative sealing ring and a quantitative block, the outer side wall of the cleaning tank is provided with a second rectangular groove, one end of the second rectangular groove is overlapped and communicated with one end of the quantitative tank located in the rectangular sealing groove, the quantitative sealing ring is slidably arranged in the second rectangular groove, the quantitative sealing ring is provided with a second sealing hole, the quantitative block is slidably arranged in the rectangular sealing groove, the quantitative block is located at the overlapping and communicating part of the second rectangular groove and the rectangular sealing groove, the second sealing hole is sealed and connected with the quantitative block, and one end of the quantitative block is connected with the quantitative tank;

[0014] The other end surface of the quantitative block is sealed with the end surface in the rectangular sealing groove, and the two side walls of the other end of the quantitative block are sealed with the two side walls in the rectangular sealing groove respectively.

[0015] As a preferred technical solution of the present invention, it also includes a delay component, which is sealingly slidably arranged in the quantitative tank at one end of the rectangular sealing groove, and the delay component is located in the oil circuit between the mobile unit and the quantitative unit. The delay component includes a top plate, a connecting spring and a bottom plate from top to bottom, and the top plate and the bottom plate are sealingly slid in the rectangular sealing groove, and a sealed space is formed between the top plate and the bottom plate. The connecting spring is arranged in the sealed space, and the two ends of the connecting spring are respectively connected to the top plate and the bottom plate.

[0016] As a preferred technical solution of the present invention, the top plate includes a top shell, a top spring and a top block, one end of the top shell is provided with a top slot, the top block is slidably arranged in the top slot, the top block and the top shell together form the top plate seal sliding in the rectangular sealing groove, the top spring is arranged in the top slot, and the two ends of the top spring are respectively connected to the top shell and the top block;

[0017] The bottom plate includes a bottom shell, a bottom spring and a bottom block. A bottom slot is opened at one end of the bottom shell. The bottom block is slidably arranged in the bottom slot. The bottom block and the bottom shell together form the bottom plate seal sliding in the rectangular sealing groove. The bottom spring is arranged in the bottom slot. The two ends of the bottom spring are respectively connected to the bottom shell and the bottom block.

[0018] As a preferred technical solution of the present invention, the elastic modulus of the top spring is greater than the elastic modulus of the bottom spring.

[0019] As a preferred technical solution of the present invention, the quantitative unit also includes a quantitative valve, the quantitative tank is provided with a quantitative slot hole, the quantitative slot hole can lock or release its connection relationship with the sealing hole, one end of the quantitative valve is hinged to the quantitative tank, and the quantitative valve can lock or release its sealing cooperation relationship with the quantitative slot hole.

[0020] As a preferred technical solution of the present invention, it also includes a pressing component, which includes a pressing rod, a pressing spring and a pressing unit. The cleaning tank is provided with a pressing slot hole, and the pressing rod can be slidably arranged in the pressing slot hole. One end of the pressing rod extends into the cleaning tank, and the pressing spring is arranged in the pressing slot hole. Both ends of the pressing spring are respectively connected to the pressing rod and the cleaning tank. One end of the pressing rod can lock or release its pressing fit relationship with the movable plate, and the other end of the pressing rod can lock or release its pressing fit relationship with the pressing unit.

[0021] As a preferred technical solution of the present invention, the pressing unit includes an output rod, and the pressing unit has a structural function that the output rod extends after the initial pressing; and the output rod contracts after the pressing unit is pressed for the second time; the quantitative tank is also provided with a connecting slot hole, and the quantitative valve can lock or release its sealing cooperation relationship with the connecting slot hole. When the output rod is extended, it can be sealed with the connecting slot hole and the sealing cooperation relationship between the quantitative valve and the quantitative slot hole can be released.

[0022] A working method of a honeycomb activated carbon production device comprises the following steps:

[0023] S1: adding a certain amount of honeycomb activated carbon into the cleaning tank. At this time, due to the change in the weight of the moving plate, the height of the moving plate and the quantitative tank will change;

[0024] S2: adding purified water into the quantitative tank until the height of the quantitative tank is reset;

[0025] S3: The purified water in the quantitative tank flows into the cleaning tank;

[0026] S4: rinsing the honeycomb activated carbon in the cleaning tank;

[0027] S5: After the treatment is completed, the honeycomb activated carbon is taken out and the purified water in the cleaning tank is disposed of.

[0028] The beneficial effects of the present invention are:

[0029] The scheme includes a cleaning tank with a hollow interior, a moving unit, a quantitative unit and hydraulic oil. The moving unit includes a moving plate, which can be lifted and lowered in the cleaning tank. The quantitative unit includes a quantitative tank, which can be lifted and lowered outside the cleaning tank. A sealed rectangular sealing groove is provided in the side wall of the cleaning tank. The hydraulic oil is filled in the rectangular sealing groove, and the volume of the hydraulic oil is half of the volume of the rectangular sealing groove. Such a configuration enables the hydraulic oil liquid levels at both ends of the rectangular sealing groove to be flush and the hydraulic oil liquid level to be located in the middle of the rectangular sealing groove when the hydraulic oil is filled in the rectangular sealing groove. The moving plate is sealingly slidably provided at one end of the rectangular sealing groove, and the quantitative tank is slidably provided at the other end of the rectangular sealing groove. The moving plate and the quantitative tank realize lifting and lowering movement in the rectangular sealing groove through weight changes. Specifically, when the operator adds a certain amount of honeycomb activated carbon into the cleaning tank, the moving plate and the quantitative tank are lifted and lowered. As the weight of the moving plate increases, the moving plate will move toward the bottom, and then the moving plate will compress the hydraulic oil at one end of the rectangular sealing groove to drop, so that the hydraulic oil at the other end of the rectangular sealing groove rises, and the quantitative tank moves toward the top of the cleaning tank; then the operator will add purified water to the quantitative tank. As the weight of the quantitative tank continues to increase, the height of the quantitative tank will continue to decrease, while the height of the moving plate will continue to rise until the hydraulic oil levels at both ends of the rectangular sealing groove are the same, and the operator stops adding purified water; it should be noted that the side wall of the cleaning tank is also provided with a sealing hole, which is located at the top of the moving plate. When the hydraulic oil levels at both ends of the rectangular sealing groove are the same, the quantitative tank can lock its connection with the sealing hole; when the hydraulic oil levels at both ends of the rectangular sealing groove are different, the quantitative tank can release its connection with the sealing hole. Through such a setting, when the purified water introduced into the quantitative tank reaches a specified amount, the purified water in the quantitative tank will move toward the cleaning tank through the sealing hole, realizing the function of adding a certain amount of purified water to a certain amount of honeycomb activated carbon. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] In order to facilitate understanding by those skilled in the art, the present invention is further described below with reference to the accompanying drawings.

[0031] Figure 1 This is a diagram of the interior of a cleaning tank of a honeycomb activated carbon production device of the present invention;

[0032] Figure 2 This is an external view of a cleaning tank of a honeycomb activated carbon production equipment of the present invention;

[0033] Figure 3 A cross-sectional view of a cleaning tank of a honeycomb activated carbon production device of the present invention;

[0034] Figure 4 This is a time-delay component diagram of a honeycomb activated carbon production device of the present invention;

[0035] Figure 5It is a front view of a quantitative tank of a honeycomb activated carbon production equipment of the present invention;

[0036] Figure 6 This is a diagram of a pressing component of a honeycomb activated carbon production device of the present invention.

[0037] Description of main symbols

[0038] In the figure: 1, cleaning tank; 101, rectangular sealing groove; 102, sealing hole; 103, pressing slot; 2, moving unit; 201, moving plate; 202, moving sealing ring; 203, moving block; 3, quantitative unit; 301, quantitative tank; 3011, quantitative slot; 302, quantitative sealing ring; 303, quantitative valve; 304, quantitative block; 305, connecting slot; 4, hydraulic oil; 5, delay component; 501, top plate; 5011, top shell; 5012, top spring; 5013, top block; 502, connecting spring; 503, bottom plate; 5031, bottom shell; 5032, bottom spring; 5033, bottom block; 6, pressing component; 601, pressing rod; 602, pressing spring; 603, pressing unit; 604, output rod. DETAILED DESCRIPTION

[0039] In order to further explain the technical means and effects adopted by the present invention to achieve the predetermined invention purpose, the specific implementation methods, structures, features and effects of the present invention are described in detail below in conjunction with the accompanying drawings and preferred embodiments.

[0040] See also Figure 1-6The present embodiment provides a honeycomb activated carbon production device, including a cleaning tank 1 with a hollow interior, a moving unit 2, a quantitative unit 3 and a hydraulic oil 4, wherein the moving unit 2 includes a moving plate 201, which is arranged in a liftable manner in the cleaning tank 1, and the quantitative unit 3 includes a quantitative tank 301, which is arranged in a liftable manner outside the cleaning tank 1; a sealed rectangular sealing groove 101 is arranged in the side wall of the cleaning tank 1, and the hydraulic oil 4 is filled in the rectangular sealing groove 101, and the volume of the hydraulic oil 4 is half of the volume of the rectangular sealing groove 101 ; Such a configuration enables, when the hydraulic oil 4 is filled in the rectangular sealing groove 101, the liquid levels of the hydraulic oil 4 at both ends of the rectangular sealing groove 101 are flush and the liquid level of the hydraulic oil 4 is located in the middle of the rectangular sealing groove 101; the movable plate 201 is sealingly slidably disposed at one end of the rectangular sealing groove 101, and the quantitative tank 301 is slidably disposed at the other end of the rectangular sealing groove 101, and the movable plate 201 and the quantitative tank 301 realize the lifting and lowering movement in the rectangular sealing groove 101 through weight changes; specifically, when the operator adds a certain amount of hydraulic oil 4 into the cleaning tank 1 When the honeycomb activated carbon is added, the weight of the moving plate 201 increases, and the moving plate 201 will move toward the bottom, and then the moving plate 201 will compress the hydraulic oil 4 at one end of the rectangular sealing groove 101 to descend, so that the hydraulic oil 4 at the other end of the rectangular sealing groove 101 rises, and the quantitative tank 301 moves toward the top of the cleaning tank 1; then the operator will add purified water into the quantitative tank 301. Due to the continuous increase in the weight of the quantitative tank 301, the height of the quantitative tank 301 will continue to decrease, while the height of the moving plate 201 will continue to rise until it is located at the top of the rectangular sealing groove 101. After the liquid levels of the hydraulic oil 4 at both ends of the rectangular sealing groove 101 are the same, the operator stops adding purified water; it should be noted that the side wall of the cleaning tank 1 is also provided with a sealing hole 102, and the sealing hole 102 is located at the top of the movable plate 201. When the liquid levels of the hydraulic oil 4 at both ends of the rectangular sealing groove 101 are the same, the quantitative tank 301 can lock its connection with the sealing hole 102; when the liquid levels of the hydraulic oil 4 at both ends of the rectangular sealing groove 101 are different, the quantitative tank 301 can release its connection with the sealing hole 102. Through such a setting, when the purified water introduced into the quantitative tank 301 reaches a specified amount, the purified water in the quantitative tank 301 will move toward the cleaning tank 1 through the sealing hole 102, realizing the function of adding a certain amount of purified water to a certain amount of honeycomb activated carbon.

[0041] Specifically, in order to ensure that the hydraulic oil 4 in the rectangular sealing groove 101 does not leak, the mobile unit 2 of the present solution also includes a mobile sealing ring 202 and a mobile block 203. The inner wall of the cleaning tank 1 is provided with a first rectangular groove, one end of the first rectangular groove overlaps and communicates with one end of the moving plate 201 located in the rectangular sealing groove 101, the mobile sealing ring 202 is slidably arranged in the first rectangular groove, the mobile sealing ring 202 is provided with a first sealing hole 102, the mobile block 203 is slidably arranged in the rectangular sealing groove 101, and the mobile block 203 is located in the first rectangular groove. The groove is an overlapping connecting part with the rectangular sealing groove 101, and the first sealing hole 102 is sealed and connected to the moving block 203, and one end of the moving block 203 is connected to the moving plate 201; in addition, in order to ensure the normal sliding of the moving plate 201, the end face of the other end of the moving block 203 is sealed and fitted with the end face in the rectangular sealing groove 101, and the two side walls of the other end of the moving block 203 are respectively sealed and fitted with the two side walls in the rectangular sealing groove 101. Such an arrangement ensures that the hydraulic oil 4 in the rectangular sealing groove 101 will not leak, thereby affecting the normal operation of the device of this scheme.

[0042] Specifically, in order to further ensure that the hydraulic oil 4 in the rectangular sealing groove 101 will not leak, the quantitative unit 3 of the present solution also includes a quantitative sealing ring 302 and a quantitative block 304. The outer wall of the cleaning tank 1 is provided with a second rectangular groove, one end of the second rectangular groove overlaps and communicates with one end of the quantitative tank 301 located in the rectangular sealing groove 101, the quantitative sealing ring 302 is slidably arranged in the second rectangular groove, the quantitative sealing ring 302 is provided with a second sealing hole 102, the quantitative block 304 is slidably arranged in the rectangular sealing groove 101, and the quantitative block 304 is located in the second rectangular groove. The overlapping connecting part of the rectangular groove and the rectangular sealing groove 101, the second sealing hole 102 is sealed and connected to the quantitative block 304, and one end of the quantitative block 304 is connected to the quantitative tank 301; in addition, in order to ensure the normal sliding of the quantitative tank 301, the end face of the other end of the quantitative block 304 is sealed and fitted with the end face in the rectangular sealing groove 101, and the two side walls of the other end of the quantitative block 304 are respectively sealed and fitted with the two side walls in the rectangular sealing groove 101. Such an arrangement ensures that the hydraulic oil 4 in the rectangular sealing groove 101 will not leak, thereby affecting the normal operation of the device of this scheme.

[0043] Furthermore, the present invention further provides a delay component 5, which is sealingly and slidably arranged in one end of the quantitative tank 301 located in the rectangular sealing groove 101, and the delay component 5 is located in the oil path between the mobile unit 2 and the quantitative unit 3. The delay component 5 includes a top plate 501, a connecting spring 502 and a bottom plate 503 from top to bottom, and the top plate 501 and the bottom plate 503 are sealingly and slidably arranged in the rectangular sealing groove 101, and a sealed space is formed between the top plate 501 and the bottom plate 503, and the connecting spring 502 is arranged in the sealed space, and the two ends of the connecting spring 502 are connected to each other. The top plate 501 and the bottom plate 503 are connected at the ends thereof respectively; in addition, the top plate 501 of the present solution comprises a top shell 5011, a top spring 5012 and a top block 5013, one end of the top shell 5011 is provided with a top slot, the top block 5013 is slidably disposed in the top slot, the top block 5013 and the top shell 5011 together form a top plate 501 that is sealed and slides in the rectangular sealing groove 101, the top spring 5012 is disposed in the top slot, and the two ends of the top spring 5012 are connected to the top shell 5011 and the top block 5013 respectively;

[0044] In addition, the bottom plate 503 includes a bottom shell 5031, a bottom spring 5032 and a bottom block 5033. A bottom slot is opened at one end of the bottom shell 5031. The bottom block 5033 can be slidably arranged in the bottom slot. The bottom block 5033 and the bottom shell 5031 together form a bottom plate 503 that slides sealed in the rectangular sealing groove 101. The bottom spring 5032 is arranged in the bottom slot. The two ends of the bottom spring 5032 are respectively connected to the bottom shell 5031 and the bottom block 5033. It is worth noting that the elastic modulus of the top spring 5012 of this scheme is greater than the elastic modulus of the bottom spring 5032.

[0045] Such a setting makes it possible for the quantitative tank 301 of the present solution to start moving toward the bottom of the cleaning tank 1 after a sufficient amount of purified water is added to the quantitative tank 301. Due to the connection spring 502, the top plate 501 will first move toward the bottom, compressing the connection spring 502, and then the connection spring 502 will transfer the force to the bottom plate 503, and then the bottom plate 503 will press the hydraulic oil 4 to move the moving plate 201 toward the top of the cleaning tank 1, thereby achieving that the quantitative tank 301 first reaches the specified position, and the moving plate 201 then reaches the same height position. Here, it is explained that the elastic modulus of the top spring 5012 of the present solution is greater than the elastic modulus of the bottom spring 5032. Such a setting, on the one hand, ensures that as the weight of the quantitative tank 301 gradually increases, the height of the quantitative tank 301 will slowly change. Such a setting can improve the accuracy of introducing quantitative purified water; on the other hand, it further ensures that the quantitative tank 301 can first reach the specified position, and the moving plate 201 then reaches the same height position. Another reason is that a certain amount of purified water is used to rinse a certain amount of honeycomb activated carbon. The weight of the original certain amount of purified water will be heavier than the certain amount of honeycomb activated carbon. In order to ensure that the hydraulic oil 4 at both ends of the rectangular sealing groove 101 will be level with each other after the two reach a certain amount, the elastic modulus of the top spring 5012 of this scheme is greater than the elastic modulus of the bottom spring 5032.

[0046] Furthermore, the quantitative unit 3 of the present solution further includes a quantitative valve 303, and the quantitative tank 301 is provided with a quantitative slot 3011, which can lock or release its connection relationship with the sealing hole 102. When the hydraulic oil 4 at both ends of the rectangular sealing groove 101 is equal to each other, and the quantitative valve 303 releases its sealing matching relationship with the quantitative slot 3011, the quantitative slot 3011 of the quantitative tank 301 and the sealing hole 102 are locked in a relationship of mutual connection; when the hydraulic oil 4 at both ends of the rectangular sealing groove 101 is not equal to each other, even if the quantitative valve 303 releases its sealing matching relationship with the quantitative slot 3011, the quantitative slot 3011 of the quantitative tank 301 cannot be locked in a relationship of mutual connection with the sealing hole 102. One end of the quantitative valve 303 is hingedly arranged with the quantitative tank 301, and the quantitative valve 303 can lock or release its sealing matching relationship with the quantitative slot 3011.

[0047] Furthermore, the present invention further comprises a pressing assembly 6, which comprises a pressing rod 601, a pressing spring 602 and a pressing unit 603. The cleaning tank 1 is provided with a pressing slot 103, the pressing rod 601 is slidably arranged in the pressing slot 103, one end of the pressing rod 601 extends into the cleaning tank 1, the pressing spring 602 is arranged in the pressing slot 103, the two ends of the pressing spring 602 are respectively connected to the pressing rod 601 and the cleaning tank 1, one end of the pressing rod 601 can lock or release its pressing cooperation relationship with the moving plate 201, and the pressing rod 601 is provided with a pressing slot 103. The other end of 01 can lock or release its pressing fit relationship with the pressing unit 603; it should be noted that the pressing rod 601 of the present scheme extends into the cleaning tank 1, and the vertical height of the pressing rod 601 extending into the cleaning tank 1 gradually increases from the vertical center axis close to the cleaning tank 1 to the direction away from the vertical center axis of the cleaning tank 1. Such a setting ensures that when the movable plate 201 and the pressing rod 601 are pressed together, the pressing rod 601 will extend into the pressing slot 103, and the pressing rod 601 locks its pressing relationship with the pressing unit 603.

[0048] In addition, it should be noted that the pressing unit 603 includes an output rod 604, and the pressing unit 603 has a structural function that the output rod 604 extends after the initial pressing; and the output rod 604 contracts after the pressing unit 603 is pressed for the second time; the quantitative tank 301 is also provided with a connecting slot 305, when the quantitative valve 303 locks its sealing cooperation relationship with the quantitative slot 3011, the quantitative valve 303 also locks its sealing cooperation relationship with the connecting slot 305, when the output rod 604 is extended, it can be slidably sealed with the connecting slot 305, and the output rod 604 continues to extend, unlocking the sealing cooperation relationship between the quantitative valve 303 and the quantitative slot 3011, so that the purified water located in the quantitative tank 301 flows into the cleaning tank 1. Since the pressing unit 603 is in the initial pressing state at this time, the output rod 604 is sealed with the connecting slot 305, that is, the output rod 604 limits the movement of the quantitative tank 301, so the quantitative tank 301 will not move due to the weight change, but the moving plate 201 compresses the connecting spring 502 due to the increase in weight and moves toward the bottom of the cleaning tank 1. After the honeycomb activated carbon in the cleaning tank 1 is rinsed, the honeycomb activated carbon is taken out and the purified water in the cleaning tank 1 is removed. At this time, the moving plate 201 returns to its original position due to the weight change, which causes the moving plate 201 to re-press the pressing rod 601 of this solution, so that the pressing rod 601 of this solution presses the pressing unit 603 for the second time, so that the pressing unit 603 is in the second pressing state. When new honeycomb activated carbon is put into the cleaning tank 1 again, the movable plate 201 will drop due to the change in weight. It should be noted that due to the existence of the pressing spring 602, when the movable plate 201 no longer presses the pressing rod 601 of this solution, a part of the pressing rod 601 will re-extend into the cleaning tank 1; since the pressing unit 603 is in a secondary pressing state at this time, the output rod 604 will shrink in structure, and at this time the output rod 604 will release its matching relationship with the connecting slot 305, so that the quantitative tank 301 can normally rise and fall with the rise and fall of the movable plate 201. It is worth noting that the quantitative valve 303 of this solution has a reset function. When the output rod 604 releases its abutting matching relationship with the quantitative valve 303, the quantitative valve 303 will re-establish a sealing matching relationship with the quantitative slot 3011 and the connecting slot.

[0049] Furthermore, a working method of a honeycomb activated carbon production device comprises the following steps:

[0050] S1: Add a certain amount of honeycomb activated carbon into the cleaning tank 1. At this time, due to the change in the weight of the moving plate 201, the heights of the moving plate 201 and the quantitative tank 301 will change;

[0051] S2: Add purified water into the quantitative tank 301 until the height of the quantitative tank 301 is reset;

[0052] S3: The purified water in the quantitative tank 301 will flow into the cleaning tank 1;

[0053] S4: rinsing the honeycomb activated carbon in the cleaning tank 1;

[0054] S5: After the treatment is completed, the honeycomb activated carbon is taken out and the purified water in the cleaning tank 1 is disposed of.

[0055] The above description is only a preferred embodiment of the present invention and does not limit the present invention in any form. Although the present invention has been disclosed as a preferred embodiment as above, it is not used to limit the present invention. Any technical personnel in this field can make some changes or modify the technical contents disclosed above into equivalent embodiments without departing from the scope of the technical solution of the present invention. However, any brief modifications, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention without departing from the content of the technical solution of the present invention are still within the scope of the technical solution of the present invention.

Claims

1. A honeycomb activated carbon production equipment, characterized in that: It comprises a cleaning tank with a hollow interior, a moving unit, a quantitative unit and hydraulic oil, wherein the moving unit comprises a moving plate, which is escalably arranged in the cleaning tank, and the quantitative unit comprises a quantitative tank, which is escalably arranged outside the cleaning tank; A sealed rectangular sealing groove is arranged in the side wall of the cleaning tank, the hydraulic oil is filled in the rectangular sealing groove, and the volume of the hydraulic oil is half of the volume of the rectangular sealing groove; the movable plate is sealingly slidably arranged at one end of the rectangular sealing groove, and the quantitative tank is slidably arranged at the other end of the rectangular sealing groove, and the movable plate and the quantitative tank realize lifting and lowering movement in the rectangular sealing groove through weight change; The side wall of the cleaning tank is also provided with a sealing hole, and the sealing hole is located at the top of the movable plate. The quantitative tank can lock or release its communication relationship with the sealing hole.

2. A honeycomb activated carbon production equipment according to claim 1, characterized in that: The moving unit further comprises a moving sealing ring and a moving block, the inner side wall of the cleaning tank is provided with a first rectangular groove, one end of the first rectangular groove is overlapped and communicated with one end of the moving plate located in the rectangular sealing groove, the moving sealing ring is slidably arranged in the first rectangular groove, the moving sealing ring is provided with a first sealing hole, the moving block is slidably arranged in the rectangular sealing groove, the moving block is located at the overlapping and communicating part of the first rectangular groove and the rectangular sealing groove, the first sealing hole is sealed and connected with the moving block, and one end of the moving block is connected with the moving plate; The end surface of the other end of the moving block is sealed with the end surface in the rectangular sealing groove, and the two side walls of the other end of the moving block are sealed with the two side walls in the rectangular sealing groove respectively.

3. A honeycomb activated carbon production equipment according to claim 1, characterized in that: The quantitative unit further comprises a quantitative sealing ring and a quantitative block, the outer side wall of the cleaning tank is provided with a second rectangular groove, one end of the second rectangular groove is overlapped and communicated with one end of the quantitative tank located in the rectangular sealing groove, the quantitative sealing ring is slidably arranged in the second rectangular groove, the quantitative sealing ring is provided with a second sealing hole, the quantitative block is slidably arranged in the rectangular sealing groove, the quantitative block is located at the overlapping and communicating part of the second rectangular groove and the rectangular sealing groove, the second sealing hole is sealed and connected with the quantitative block, and one end of the quantitative block is connected with the quantitative tank; The other end surface of the quantitative block is sealed with the end surface in the rectangular sealing groove, and the two side walls of the other end of the quantitative block are sealed with the two side walls in the rectangular sealing groove respectively.

4. The honeycomb activated carbon production equipment according to claim 1, characterized in that: It also includes a delay component, which is sealingly slidably arranged in the quantitative tank at one end of the rectangular sealing groove, and the delay component is located in the oil circuit between the mobile unit and the quantitative unit. The delay component includes a top plate, a connecting spring and a bottom plate from top to bottom, and the top plate and the bottom plate are sealingly slid in the rectangular sealing groove, and a sealed space is formed between the top plate and the bottom plate. The connecting spring is arranged in the sealed space, and the two ends of the connecting spring are respectively connected to the top plate and the bottom plate.

5. A honeycomb activated carbon production equipment according to claim 4, characterized in that: The top plate comprises a top shell, a top spring and a top block, one end of the top shell is provided with a top slot, the top block is slidably arranged in the top slot, the top block and the top shell together form the top plate seal sliding in the rectangular sealing groove, the top spring is arranged in the top slot, and the two ends of the top spring are respectively connected to the top shell and the top block; The bottom plate includes a bottom shell, a bottom spring and a bottom block. A bottom slot is opened at one end of the bottom shell. The bottom block is slidably arranged in the bottom slot. The bottom block and the bottom shell together form the bottom plate seal sliding in the rectangular sealing groove. The bottom spring is arranged in the bottom slot. The two ends of the bottom spring are respectively connected to the bottom shell and the bottom block.

6. A honeycomb activated carbon production equipment according to claim 5, characterized in that: The elastic modulus of the top spring is greater than the elastic modulus of the bottom spring.

7. The honeycomb activated carbon production equipment according to claim 1, characterized in that: The quantitative unit also includes a quantitative valve. The quantitative tank is provided with a quantitative slot hole, and the quantitative slot hole can lock or release its connection relationship with the sealing hole. One end of the quantitative valve is hinged to the quantitative tank, and the quantitative valve can lock or release its sealing cooperation relationship with the quantitative slot hole.

8. The honeycomb activated carbon production equipment according to claim 7, characterized in that: It also includes a pressing assembly, which includes a pressing rod, a pressing spring and a pressing unit. The cleaning tank is provided with a pressing slot, and the pressing rod can be slidably arranged in the pressing slot. One end of the pressing rod extends into the cleaning tank, and the pressing spring is arranged in the pressing slot. Both ends of the pressing spring are respectively connected to the pressing rod and the cleaning tank. One end of the pressing rod can lock or release its pressing fitting relationship with the movable plate, and the other end of the pressing rod can lock or release its pressing fitting relationship with the pressing unit.

9. A honeycomb activated carbon production equipment according to claim 8, characterized in that: The pressing unit includes an output rod, and the output rod has a structural function that after the pressing unit is pressed for the first time, the output rod extends; after the pressing unit is pressed for the second time, the output rod contracts; the quantitative tank is also provided with a connecting slot hole, and the quantitative valve can lock or release its sealing cooperation relationship with the connecting slot hole. When the output rod is extended, it is sealed and cooperated with the connecting slot hole, and the sealing cooperation relationship between the quantitative valve and the quantitative slot hole is released.

10. A working method of a honeycomb activated carbon production device, applicable to the honeycomb activated carbon production device according to any one of claims 2 to 9, characterized in that: The following steps are involved: S1: adding a certain amount of honeycomb activated carbon into the cleaning tank. At this time, due to the change in the weight of the moving plate, the height of the moving plate and the quantitative tank will change; S2: adding purified water into the quantitative tank until the height of the quantitative tank is reset; S3: The purified water in the quantitative tank flows into the cleaning tank; S4: rinsing the honeycomb activated carbon in the cleaning tank; S5: After the treatment is completed, the honeycomb activated carbon is taken out and the purified water in the cleaning tank is disposed of.

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