Conveying device for production of granular activated carbon for water treatment

Abstract

The invention provides a conveying device for producing granular activated carbon for water treatment, which comprises a shell assembly, a cover plate arranged at the top of the shell assembly, heat dissipation components at least partially embedded at two sides of the shell assembly, a conveying driving piece embedded at the top of the shell assembly, and a conveying component connected with the conveying driving piece, the conveying assembly is driven by the conveying driving part to convey along a preset track, the preset track of the conveying assembly comprises that the opening of the conveying assembly faces upwards and the conveying assembly moves in parallel with the cover plate, so that redundant granular activated carbon in the conveying assembly is discharged, quantitative filling of the granular activated carbon is achieved, and the conveying assembly turns around the axial direction of the turning auxiliary part at the position of the turning auxiliary part. And the opening of the conveying assembly at the lower conveying groove faces the direction close to the feeding groove, so that the conveying assembly completes filling of the internal granular activated carbon in the moving process, the trouble of manual filling of operators is avoided, and the subsequent granular activated carbon packaging efficiency is improved.

Description

Technical Field

[0001] The invention relates to the technical field of granular activated carbon production, and in particular to a conveying device for producing granular activated carbon for water treatment. Background Art

[0002] Granular activated carbon is a black granular substance made of high-quality coconut shells, walnut shells, apricot shells, peach shells, coal, etc., which is refined through a series of production processes. It has the advantages of developed pore structure, large specific surface area, strong adsorption performance, small reservoir resistance, stable chemical properties, and easy regeneration. Application scenarios include water treatment: domestic water, industrial water, pure water, etc., which are used after artificial treatment. Granular activated carbon can remove dissolved organic matter in water, reduce UV absorption value, reduce total organic carbon (TOC), chemical oxygen demand and chlorine content in water, etc., and also has removal effects on chromaticity, iron, manganese, phenol, etc. Sewage treatment: such as domestic polluted water, industrial sewage, etc. Granular activated carbon can treat industrial waste gas polluted water containing methylmercury, and can also treat wastewater containing dichloroethane. It can also treat wastewater generated by refineries, petrochemical plants, chemical plants, printing and dyeing plants, electroplating plants, paper mills, etc., including oily wastewater, phenolic wastewater, organic wastewater, explosive chemical wastewater, truck washing wastewater, etc.

[0003] The production process of granular activated carbon mainly includes the steps of raw material selection, carbonization, activation, crushing, screening, packaging, etc., including the screening of raw materials for high-quality coal, wood chips, fruit shells (such as coconut shells, walnut shells, etc.), and agricultural waste. After that, the screened raw materials are sent to the carbonization furnace for carbonization treatment. The carbonization temperature is usually between 350~600℃. The specific temperature depends on the type of raw material and the carbonization equipment. During the carbonization process, most of the non-carbon elements such as hydrogen and oxygen in the raw materials are discharged in the form of gas to form a preliminary pore structure. The carbonized product is called carbonized material. Then, activation of the carbonized raw materials is a key step in the production of granular activated carbon. The purpose is to further open and expand the pore structure in the carbonized material and improve the adsorption performance. Then, the activated product is crushed by a crusher to obtain granular activated carbon of appropriate particle size. The crushed material is screened through a vibrating screen to separate activated carbon of different particle sizes to meet the needs of different application fields. Finally, the activated carbon with qualified particle size after screening is packaged. Commonly used packaging methods include ton bags (such as 500kg / ton bags) and bags (such as 25kg / bag bags). The packaged activated carbon should be stored in a dry, ventilated, and light-proof place to prevent moisture and deterioration.

[0004] In the implementation of granular activated carbon packaging, a conveying device is usually used to convey and package the activated carbon after crushing and screening. The current conveying device usually adopts a conventional conveyor belt or a spiral transfer cylinder with a spiral shaft for transmission, and is also limited to a single conveying. During the conveying process, it is impossible to achieve pre-treatment operations such as cooling, external isolation and quantitative conveying of the granular activated carbon. As a result, the granular activated carbon itself has just been completed. The temperature is still relatively high, and it needs to be cooled before subsequent packaging. The packaging affects the subsequent packaging efficiency. At the same time, the conveying by the conveyor belt will increase the contact area between the granular activated carbon and the external environment, which reduces the adsorption effect of the granular activated carbon. In addition, the single conveying operation of the existing conveying device cannot guarantee the quantitative delivery of the granular activated carbon, so that in the subsequent packaging process, the tooling personnel still need to perform the packaging operation according to the preset weight, which reduces the packaging efficiency. Due to the extended packaging time, the granular activated carbon will be exposed to the external environment for a long time, which affects the subsequent adsorption effect of the activated carbon and reduces the quality of use. Summary of the invention

[0005] Based on this, the purpose of the present invention is to provide a conveying device for the production of granular activated carbon for water treatment, so as to fundamentally solve the problem that the current conveying device has a single conveying mode, lacks pre-treatment operations for the granular activated carbon, and reduces the subsequent granular activated carbon packaging efficiency.

[0006] A conveying device for producing granular activated carbon for water treatment according to an embodiment of the present invention comprises a housing assembly, a cover plate arranged on the top of the housing assembly, a heat dissipation assembly at least partially embedded on both sides of the housing assembly, a conveying drive member embedded on the top of the housing assembly, and a conveying assembly connected to the conveying drive member; The housing assembly comprises at least two conveying racks arranged in parallel, a feed trough connected to one side of the two conveying racks, and a discharge port connected to one side of the two conveying racks away from the feed trough, a mounting groove for accommodating the heat dissipation component is provided on the top of the conveying rack, the conveying drive member is embedded in the top of the conveying rack around the mounting groove, the cover plate is overlapped between the two conveying racks, a flip auxiliary member for assisting the conveying assembly to flip is provided on one side of the mounting groove close to the discharge port, a thickened portion is provided at the bottom of the conveying rack, and a lower conveying groove for connecting the feed trough and the discharge port is provided between the thickened portion and the mounting groove; The conveying component is driven by the conveying driving member to convey along a preset trajectory, and the preset trajectory of the conveying component includes the conveying component opening upward and moving in parallel with the cover plate to discharge excess granular activated carbon in the conveying component, the conveying component flipping around its axial direction at the flipping auxiliary member to dump the granular activated carbon, and the conveying component opening at the lower conveying trough towards the direction close to the feed trough, so that the conveying component can complete the internal granular activated carbon filling during the movement.

[0007] Furthermore, a receiving groove group for receiving the conveying driving member is provided on the top of the conveying frame.

[0008] Furthermore, the accommodating groove group includes a slide rail arranged around the assembly groove, and a motor groove that passes through the conveying frame and is connected to the slide rail near the side of the feed groove, and the conveying component slides along the slide rail track.

[0009] Furthermore, the turning auxiliary component includes a fixing frame fixedly arranged in the assembly groove, and the auxiliary roller overlapped between two oppositely arranged fixing frames.

[0010] Furthermore, the heat dissipation component includes an assembly shell at least partially embedded in the assembly groove, a first motor fixedly arranged on the side of the assembly shell close to the discharge port, a heat dissipation fan movably arranged in the assembly shell, and a transmission chain connecting the first motor and multiple heat dissipation fans in series.

[0011] Furthermore, the conveying drive member includes a second motor at least partially embedded in the motor slot, a driving gear arranged at an output end of the second motor, and a driving chain wound in the slide rail and connected to the driving gear.

[0012] Furthermore, the conveying assembly includes a conveying bucket, a filter screen embedded in the conveying bucket, and a transmission member movably arranged on one side of the conveying bucket.

[0013] Furthermore, the transmission member includes a movable shaft fixedly connected to the conveying bucket, and a driving roller penetrating the movable shaft and movably connected thereto, and both ends of the driving roller are connected to the driving chain.

[0014] Compared with the prior art: the conveying device for producing granular activated carbon for water treatment in the above-mentioned embodiment of the present invention drives the conveying component to convey along a preset trajectory through a conveying drive member. The preset trajectory of the conveying component includes the conveying component opening facing upward and moving in parallel with the cover plate to discharge excess granular activated carbon in the conveying component, always keeping the granular activated carbon and the internal accommodating space of the conveying component in a saturated state, and this operation realizes quantitative filling of the granular activated carbon. The conveying component is flipped around its axial direction at the flipping auxiliary member to dump the granular activated carbon near the discharge port, and the conveying component opens at the lower conveying trough towards the direction close to the feed trough to allow the conveyor to The conveying component completes the internal granular activated carbon filling during the activity, realizes automatic material filling, eliminates the trouble of manual filling by operators, and realizes quantitative filling and the final material dumping and discharging operation, thereby improving the subsequent granular activated carbon packaging efficiency. Based on the above-mentioned conveying operation of the granular activated carbon by the conveying component, the heat dissipation component can implement suction heat dissipation of the granular activated carbon in the outer shell assembly through the assembly groove, thereby reducing the contact between the activated carbon and the ambient air to a certain extent, ensuring the activated carbon adsorption quality, and solving the problem that the current conveying device has a single conveying mode, lacks pre-treatment operations on the granular activated carbon, and reduces the subsequent granular activated carbon packaging efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the structure of a conveying device for producing granular activated carbon for water treatment according to an embodiment of the present invention; Figure 2 It is a partial structural schematic diagram of a housing assembly and a heat dissipation component in a conveying device for producing granular activated carbon for water treatment according to an embodiment of the present invention; Figure 3 It is a partial structural schematic diagram of a housing assembly and a conveying component in a conveying device for producing granular activated carbon for water treatment according to an embodiment of the present invention; Figure 4 It is a partial cross-sectional structural schematic diagram of a heat dissipation component in a conveying device for producing granular activated carbon for water treatment according to an embodiment of the present invention; Figure 5 It is a partial planar structural schematic diagram of a housing assembly and a conveying drive member in a conveying device for producing granular activated carbon for water treatment according to an embodiment of the present invention; Figure 6 It is a structural schematic diagram of a portion of the working states of the housing assembly and the conveying components in the conveying device for producing granular activated carbon for water treatment according to an embodiment of the present invention; Figure 7 It is a partial structural schematic diagram of the conveying components in the conveying device for producing granular activated carbon for water treatment in an embodiment of the present invention.

[0016] Description of main component symbols:

[0017] The following specific implementations will further illustrate the present invention in conjunction with the above-mentioned drawings. DETAILED DESCRIPTION

[0018] In order to facilitate the understanding of the present invention, the present invention will be described more fully below with reference to the relevant drawings. Several embodiments of the present invention are given in the drawings. However, the present invention can be implemented in many different forms and is not limited to the embodiments described herein. On the contrary, the purpose of providing these embodiments is to make the disclosure of the present invention more thorough and comprehensive.

[0019] It should be noted that when an element is referred to as being "fixed to" another element, it may be directly on the other element or there may be a central element. When an element is considered to be "connected to" another element, it may be directly connected to the other element or there may be a central element at the same time. The terms "vertical", "horizontal", "left", "right" and similar expressions used herein are for illustrative purposes only.

[0020] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as those commonly understood by those skilled in the art to which the present invention belongs. The terms used herein in the specification of the present invention are only for the purpose of describing specific embodiments and are not intended to limit the present invention. The term "and / or" used herein includes any and all combinations of one or more of the related listed items.

[0021] See also Figures 1 to 7, shown is a conveying device for producing granular activated carbon for water treatment in an embodiment of the present invention, comprising a shell assembly 1, a cover plate 2 arranged on the top of the shell assembly 1, a heat dissipation component 3 at least partially embedded in both sides of the shell assembly 1, a conveying drive member 4 embedded in the top of the shell assembly 1, and a conveying component 5 connected to the conveying drive member 4, the shell assembly comprises at least two conveying frames 11 arranged in parallel, a feed trough 12 connected to one side of the two conveying frames 11, and a discharge port 13 connected to the side of the two conveying frames 11 away from the feed trough 12, an assembly groove 15 for accommodating the heat dissipation component 3 is opened on the top of the conveying frame 11, the conveying drive member 4 is embedded in the top of the conveying frame 11 around the assembly groove 15, the cover plate 2 is overlapped between the two conveying frames 11, and the assembly groove 15 is close to the discharge port 13. A turning auxiliary part for assisting the conveying assembly 5 to turn over is provided on one side of the conveying frame 11, a thickened part 110 is provided at the bottom of the conveying frame 11, and a lower conveying groove 19 for connecting the feed groove 12 and the discharge port 13 is vacantly provided between the thickened part 110 and the assembly groove 15, wherein the conveying assembly 5 is driven by the conveying driving member 4 to convey along a preset track, and the preset track of the conveying assembly 5 includes the conveying assembly 5 opening upward and moving in parallel with the cover plate 2 to discharge the excess granular activated carbon in the conveying assembly 5, the conveying assembly 5 turning around its axial direction at the turning auxiliary part to dump the granular activated carbon near the discharge port 13, and the conveying assembly 5 opening at the lower conveying groove 19 toward the direction close to the feed groove 12, so that the conveying assembly 5 completes the internal granular activated carbon filling during the activity.

[0022] Furthermore, a receiving groove group for accommodating the conveying drive member 4 is provided on the top of the conveying frame 11, and the receiving groove group includes a slide rail 16 arranged around the assembly groove 15, and a motor groove 14 that penetrates the conveying frame 11 and is connected to the slide rail 16 near the side of the feed groove 12, and the conveying component 5 slides along the track of the slide rail 16, and the flip auxiliary member includes a fixed frame 17 fixedly arranged in the assembly groove 15, and an auxiliary roller 18 overlapped between two oppositely arranged fixed frames 17, and the heat dissipation component 3 includes an assembly housing 31 at least partially embedded in the assembly groove 15, a first motor 32 fixedly arranged on the side of the assembly housing 31 near the discharge port 13, and a heat dissipation fan 34 movably arranged in the assembly housing 31, and the first motor 32 and a plurality of heat dissipation fans 34 are connected. The transmission chain 33 is connected in series, and the conveying drive member 4 includes a second motor 41 at least partially embedded in the motor groove 14, a driving gear 42 arranged at the output end of the second motor 41, and a driving chain 43 wound in the slide rail 16 and connected to the driving gear 42. The conveying assembly 5 includes a conveying bucket 51, a filter screen 52 embedded in the conveying bucket 51, it should be noted that the filter screen 52 is arranged at a position opposite to the assembly groove 15, and a transmission member movably arranged on one side of the conveying bucket 51, the transmission member includes a movable shaft 53 fixedly connected to the conveying bucket 51, and a driving roller 54 that passes through the movable shaft 53 and is movably connected to the movable shaft 53, wherein the maximum movable angle between the movable shaft 53 and the driving roller 54 is 90°, and both ends of the driving roller 54 are connected to the driving chain 43.

[0023] It should be noted that the shell assembly 1 cooperates with the cover plate 2 to enclose and form a basic isolation space, the purpose of which is to minimize the contact of the granular activated carbon with the external environment during transportation in the shell assembly 1 and the adsorption of pollutants in the environment, to ensure the adsorption effect of the granular activated carbon to a certain extent and improve its adsorption quality. In the specific implementation, the operator can add the granulated activated carbon into the shell assembly 1 along the feed trough 12. In some optional embodiments, the feed trough 12 can also be directly set at the discharge of the granulation equipment to connect the feed trough 12 with the discharge of the granulation equipment, so as to realize the direct transportation of the granulated activated carbon and improve the production efficiency of the granulated activated carbon. After that, the operator can control the start of the conveying device for the production of granular activated carbon for water treatment through the controller. In some optional embodiments of the present invention, the controller can be set at any position on the conveying device for the production of granular activated carbon for water treatment that is convenient for the operator to operate, wherein the controller can be an MCU (Microcontroller Unit; microcontroller unit) chip, so as to realize the control of the conveying device for producing granular activated carbon for water treatment through the MCU chip, and the controller is electrically connected to the conveying device for producing granular activated carbon for water treatment, and the electrical connection includes wired connection and wireless connection, and the wireless connection method includes but is not limited to Bluetooth connection, WiFi, IF radio frequency, zigbee, and the wired connection method includes but is not limited to a USB line connecting the conveying device for producing granular activated carbon for water treatment to the controller, and then the controller first controls the conveying drive member 4 to start, and the conveying drive member 4 drives the conveying component 5 to move along the track of the slide rail 16. Specifically, the second motor 41 drives the driving gear 42 at its output end in turn, and the driving chain 43 on the driving gear 42 to move in accordance with the track of the slide rail 16. During the process, the driving chain 43 drives the driving roller 54 to make the conveying component 5 follow the track of the slide rail 16 as a whole. It should be noted that transmission gears adapted to the driving chain 43 are assembled at both ends of the driving roller 54, and during the following activity of the conveying component 5, such as Figure 6As shown, first, the conveying assembly 5 located at the bottom of the slide rail 16 is described. Under the transmission of the conveying drive 4, the conveying assembly 5 will move along the trajectory of the lower conveying trough 19. During this process, the opening of the conveying bucket 51 is oriented toward the direction of the feed trough 12, and it should be noted that the feed trough 12 and the lower conveying trough 19 are connected. It can be understood that when the granular activated carbon enters the feed trough 12, some of the granular activated carbon is in the lower trough 19. Therefore, in order to avoid material leakage in the lower conveying trough 19, during the movement of the conveying assembly 5 along the trajectory of the lower conveying trough 19, the conveying bucket 51 can act as a shovel to realize the shoveling and collection of the granular activated carbon remaining in the lower conveying trough 19 toward the feed trough 12. After that, the conveying assembly 5 It moves continuously along the track of the slide rail 16, and is flipped and lifted at the leftmost position of the lower conveying trough 19 near the feed trough 12. It should be noted that the leftmost side of the lower conveying trough 19 is designed in an arc shape, and the space design fits the design of the conveying component 5, and cooperates with the angle limit between the movable shaft 53 and the driving roller 54, so that the conveying bucket 51 can be lifted up in accordance with the leftmost arc of the lower conveying trough 19 during the lifting process, and the granular activated carbon accumulated at this position is scooped up to realize material filling, and the arc scooping effect can make the granular activated carbon slide into the conveying bucket 51 in a sloped manner, while ensuring that the granular activated carbon fully fills the internal space of the conveying bucket 51, ensuring the flexible contact between the conveying bucket 51 and the granular activated carbon, reducing the granular activated carbon in The damage during the shoveling process is further ensured to ensure the quality of the granular activated carbon. Then, according to the current granular characteristics of the activated carbon, it will be in a "sand pile" state on the top of the conveying bucket 51 after being shoveled. Then, the conveying bucket 51 is flipped toward the cover plate 2 during continuous transportation until the opening of the conveying bucket 51 is in contact with the cover plate 2. During the process, the excess activated carbon in the "sand pile" state on the top of the conveying bucket 51 can be scraped off, and the granular activated carbon and the internal accommodating space of the conveying bucket 51 are always kept in a saturated state, and this operation realizes the quantitative filling of the granular activated carbon. It can be understood that the reserves of granular activated carbon in each conveying bucket 51 are basically the same. In addition, it should be noted that the scraped activated carbon will fall into the space of the lower conveying trough 19 to wait for its subsequent The remaining conveying bucket 51 scoops it up and conveys it again, and then, the conveying bucket 51 is opened at the top and is in a state of being in contact with the cover plate 2, and continues to convey it toward the discharge port 13 until the conveying bucket 51 abuts against the auxiliary roller 18, and the driving roller 54 is continuously transmitted along the track of the slide rail 16, so that the conveying bucket 51 is axially flipped around the auxiliary roller 18, so that the conveying bucket 51 opens downward and finally completes the material dumping operation at the discharge port 13, completing a conveying operation of the granular activated carbon. In some optional embodiments of the present invention, in order to improve the subsequent granular activated carbon packaging efficiency, the discharge port 13 can be connected to the packaging equipment, so that the granular activated carbon discharged through the discharge port 13 each time can be directly loaded by the packaging equipment, so as to improve the production efficiency of the granular activated carbon.

[0024] In addition, in some optional embodiments of the present invention, in order to achieve adjustable storage space in the conveying bucket 51, a card slot can be added to the inner wall of the conveying bucket 51, and the operator can install partitions from bottom to top in the conveying bucket 51 according to the conveying amount of the granular activated carbon, and connect the partitions to the card slots to complete the assembly, so that the storage space in the conveying bucket 51 is limited by the partition to meet the conveying amount requirement of the granular activated carbon and is convenient for the operator to use.

[0025] Furthermore, when the conveying component 5 slides along the track of the slide rail 16, the operator can wake up the heat dissipation component 3 through the controller to dissipate heat to the granular activated carbon during the conveying process. Specifically, the first motor 32 is turned on, and the transmission chain 33 is driven in sequence by the first motor 32 to drive multiple heat dissipation fans 34 to rotate. The heat dissipation fans 34 can dissipate heat to the granular activated carbon between the conveying racks 11 through the assembly slots 15. It should be noted that the heat dissipation method of the heat dissipation fans 34 is suction heat dissipation. It can be understood that the heat of the granular activated carbon in the conveying rack 11 is extracted to the outside to achieve the purpose of heat dissipation. The advantage is that when the conveying rack 11 is subjected to blast heat dissipation, the outside air will be avoided from being introduced into the conveying rack 11. Although the heat dissipation effect is achieved, the granular activated carbon will be in contact with a large amount of outside air, resulting in a decrease in the adsorption effect of the granular activated carbon. In addition, based on the position design of the filter screen 52 on the conveying bucket 51 corresponding to the assembly groove 15, the filter screen 52 can be directly opposite to the suction position of the heat dissipation fan 34 during the conveying process of the conveying bucket 51, and then the granular activated carbon in the conveying bucket 51 can be efficiently dissipated through the filter screen 52. The cooling of the granular activated carbon can ensure the structural stability of the activated carbon itself, and the suction cooling adopted in the present application also reduces the contact between the activated carbon and the ambient air to a certain extent, thereby ensuring the adsorption quality of the activated carbon. At the same time, it also saves a certain amount of time for the subsequent packaging of the granular activated carbon, that is, the packaging operation is currently carried out after the granular activated carbon is cooled. In addition, in some optional embodiments of the present invention, in order to further improve the heat dissipation effect of the heat dissipation component 3, a condenser or a water cooling pipeline can be further provided in the shell assembly 1 to cooperate with the heat dissipation component 3 to improve the heat dissipation quality.

[0026] In summary, the conveying device for producing granular activated carbon for water treatment in the above-mentioned embodiment of the present invention drives the conveying component 5 to convey along a preset trajectory through the conveying driving member 4. The preset trajectory of the conveying component 5 includes the conveying component 5 opening upward and moving in parallel with the cover plate 2 to discharge the excess granular activated carbon in the conveying component 5, always keeping the granular activated carbon and the internal accommodating space of the conveying component 5 in a saturated state, and this operation realizes the quantitative filling of the granular activated carbon. The conveying component 5 is flipped around its axial direction at the flipping auxiliary part to dump the granular activated carbon near the discharge port 13, and the conveying component 5 opens at the lower conveying trough 19 towards the direction near the feed trough 12, so as to The conveying component 5 can complete the internal granular activated carbon filling during the activity, realize automatic material filling, save the operator the trouble of manual filling, and realize quantitative filling and the final material dumping and discharging operation, thereby improving the subsequent granular activated carbon packaging efficiency. Based on the above-mentioned conveying operation of the granular activated carbon by the conveying component 5, the heat dissipation component 3 can implement suction heat dissipation of the granular activated carbon in the outer shell assembly 1 through the assembly groove 15, thereby reducing the contact between the activated carbon and the ambient air to a certain extent, ensuring the activated carbon adsorption quality, and solving the problem that the current conveying device has a single conveying mode, lacks pre-treatment operations on the granular activated carbon, and reduces the subsequent granular activated carbon packaging efficiency.

[0027] In the description of this specification, the description with reference to the terms "one embodiment", "some embodiments", "example", "specific example", or "some examples" means that the specific features, structures, materials or characteristics described in conjunction with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic representation of the above terms does not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any one or more embodiments or examples in a suitable manner.

[0028] The above-mentioned embodiments only express several implementation methods of the present invention, and the description thereof is relatively specific and detailed, but it cannot be understood as limiting the scope of the patent of the present invention. It should be pointed out that, for ordinary technicians in this field, several variations and improvements can be made without departing from the concept of the present invention, which all belong to the protection scope of the present invention. Therefore, the protection scope of the patent of the present invention shall be subject to the attached claims.

Claims

1. A conveying device for producing granular activated carbon for water treatment, characterized in that: It includes a housing assembly, a cover plate arranged on the top of the housing assembly, a heat dissipation assembly at least partially embedded on both sides of the housing assembly, a conveying drive member embedded on the top of the housing assembly, and a conveying assembly connected to the conveying drive member; The housing assembly comprises at least two conveying racks arranged in parallel, a feed trough connected to one side of the two conveying racks, and a discharge port connected to one side of the two conveying racks away from the feed trough, a mounting groove for accommodating the heat dissipation component is provided on the top of the conveying rack, the conveying drive member is embedded in the top of the conveying rack around the mounting groove, the cover plate is overlapped between the two conveying racks, a flip auxiliary member for assisting the conveying assembly to flip is provided on one side of the mounting groove close to the discharge port, a thickened portion is provided at the bottom of the conveying rack, and a lower conveying groove for connecting the feed trough and the discharge port is provided between the thickened portion and the mounting groove; Wherein, the conveying component is driven by the conveying driving member to convey along a preset trajectory, and the preset trajectory of the conveying component includes the conveying component opening upward and moving in parallel with the cover plate to discharge excess granular activated carbon in the conveying component, the conveying component flipping around its axial direction at the flipping auxiliary member to dump the granular activated carbon at xx, and the conveying component opening at the lower conveying trough towards the direction close to the feed trough, so that the conveying component can complete the internal granular activated carbon filling during the movement.

2. The conveying device for producing granular activated carbon for water treatment according to claim 1, characterized in that: The top of the conveying frame is provided with a receiving groove group for receiving the conveying driving member.

3. The conveying device for producing granular activated carbon for water treatment according to claim 2, characterized in that: The accommodating slot group includes a slide rail arranged around the assembly slot, and a motor slot penetrating the conveying frame and communicating with the slide rail near one side of the feed slot, and the conveying assembly slides along the slide rail track.

4. The conveying device for producing granular activated carbon for water treatment according to claim 1, characterized in that: The turning auxiliary component comprises a fixing frame fixedly arranged in the assembly groove, and the auxiliary roller overlapped between two oppositely arranged fixing frames.

5. The conveying device for producing granular activated carbon for water treatment according to claim 1, characterized in that: The heat dissipation component includes an assembly housing at least partially embedded in the assembly groove, a first motor fixedly arranged on a side of the assembly housing close to the discharge port, a heat dissipation fan movably arranged in the assembly housing, and a transmission chain connecting the first motor and multiple heat dissipation fans in series.

6. The conveying device for producing granular activated carbon for water treatment according to claim 3, characterized in that: The conveying driving member includes a second motor at least partially embedded in the motor slot, a driving gear arranged at an output end of the second motor, and a driving chain wound in the slide rail and connected to the driving gear.

7. The conveying device for producing granular activated carbon for water treatment according to claim 6, characterized in that: The conveying assembly comprises a conveying bucket, a filter screen embedded in the conveying bucket, and a transmission member movably arranged on one side of the conveying bucket.

8. The conveying device for producing granular activated carbon for water treatment according to claim 7, characterized in that: The transmission member comprises a movable shaft fixedly connected to the conveying bucket, and a driving roller penetrating the movable shaft and movably connected thereto, wherein both ends of the driving roller are connected to the driving chain.

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