Multifunctional stirring circulation system

Abstract

The utility model discloses a multifunctional stirring circulation system, including stirring mechanism, filter mechanism and circulation mechanism, stirring mechanism and filter mechanism are connected through circulation mechanism, stirring mechanism includes driving component and lift stirring component, lift stirring component is connected with the output end of driving component. The rotating speed of the stirring shaft and the working height of the dispersion disc are adjusted to adapt to the working environment under multiple scenes and multiple conditions, so that the possibility that materials are accumulated and settled at the bottom can be reduced; the stirring barrel and the vibrating barrel are connected through the circulating pump, when stirred materials are not prone to dispersion and high in viscosity, the materials can be scattered and sieved through the vibrating screen, the material dispersion time can be greatly shortened through sieving treatment, and stirring and dispersion uniformity is improved; the circulating pump and the stirring barrel can be quickly detached, a control valve is mounted on the stirring barrel, and universal wheels are arranged at the bottom of the stirring barrel, so that materials are conveniently transferred and discharged, and the use convenience of the equipment is improved.

Description

Technical Field

[0001] This utility model belongs to the field of stirring technology, and in particular relates to a multifunctional stirring and circulation system. Background Technology

[0002] A mixing device is a mechanical device used to mix, stir, or homogenize liquids, slurries, or other fluid materials. They are widely used in various industries such as chemical, food, pharmaceutical, and water treatment.

[0003] Currently, commonly used mixing devices use a drive motor to power the mixing rod and blades for mixing operations.

[0004] However, existing mixing equipment still has the following problems:

[0005] 1. The height of the stirring rod is fixed. You need to estimate the height before use and replace the parts accordingly. Otherwise, the material at the bottom will not be stirred properly as the rod grows taller during use.

[0006] 2. The equipment has simple functions and can only be used as a standalone device; it cannot be linked with other commonly used devices.

[0007] 3. As the stirring time increases, the viscosity of the slurry increases and the material temperature rises, making it impossible to monitor and judge the material condition through system data.

[0008] 4. Most existing mixing devices are stationary, making it difficult to transfer the liquid after mixing.

[0009] Therefore, we need to design a multifunctional stirring and circulation system to solve these problems. Utility Model Content

[0010] The problem to be solved by this utility model is to provide a multifunctional stirring and circulation system.

[0011] To solve the above-mentioned technical problems, the technical solution adopted by this utility model is as follows:

[0012] A multifunctional stirring and circulating system includes a stirring mechanism, a filtering mechanism, and a circulating mechanism. The stirring mechanism and the filtering mechanism are connected through the circulating mechanism. The stirring mechanism includes a driving component and a lifting stirring component, and the lifting stirring component is connected to the output end of the driving component.

[0013] Preferably, the stirring mechanism further includes a stirring tank, the top of which is provided with a top cover, the driving component and the lifting stirring component are both disposed on the top cover, and the lifting stirring component is located inside the stirring tank.

[0014] Furthermore, the drive assembly includes a transmission box, on which a stirring motor and a lifting motor are fixedly mounted. The transmission box contains a driven stirring gear and a driving stirring gear. The driving stirring gear is connected to the output end of the stirring motor and meshes with the driven stirring gear. The transmission box also contains a lifting driving gear, a lifting transmission gear, and a lifting driven gear. The lifting driven gear is located above the driven stirring gear and is coaxial with it. The lifting driving gear is connected to the output end of the lifting motor. A damping seat is rotatably mounted on the lifting driving gear. A linkage frame is mounted on the damping seat, and a lifting transmission gear is rotatably mounted on the linkage frame. The lifting transmission gear and the lifting driving gear are always meshed. When the lifting driving gear rotates, the lifting transmission gear will mesh with or disengage from the lifting driven gear.

[0015] This setup ensures stable power transmission and also allows for adjustment and control of the mixing rack.

[0016] Furthermore, the lifting and stirring assembly includes a rotating tube, a stirring shaft, and a lifting screw. One end of the rotating tube is fixedly connected to the stirring driven gear, and a limiting post is provided through the side wall of the rotating tube. One end of the stirring shaft is inserted from the other end of the rotating tube, and a dispersing disc is fixedly provided at the other end of the stirring shaft. A limiting groove is provided on the outer wall of the stirring shaft, and the end of the limiting post on the inner side of the rotating tube is located in the limiting groove. The lifting screw is located inside the rotating tube, and one end is fixedly connected to the lifting driven gear, while the other end cooperates with the stirring shaft.

[0017] This design, through reasonable improvements to the structure of the mixing rack, adds a lifting function without losing its original mixing function, and the mixing and lifting functions do not interfere with each other, making it more widely applicable.

[0018] Preferably, a level gauge is also provided on the outer wall of the mixing tank, and heat dissipation holes are provided on the side wall of the mixing tank above the level gauge. At least three casters are provided at the bottom of the mixing tank.

[0019] With this setup, the liquid level gauge allows for observation of the solution level in the mixing tank, the heat dissipation holes dissipate heat from the mixing tank to prevent the material from exceeding the reaction temperature and causing failure, and the three casters provide stable support for the mixing tank and facilitate its movement, making material transfer more convenient.

[0020] Preferably, the filtration mechanism includes a vibrating drum, with a plurality of damping springs fixedly installed at the bottom of the vibrating drum, and a nylon plate fixedly installed on the top of the damping springs. The nylon plate slides against the inner wall of the vibrating drum. A spiral material trough is fixedly installed on the inner wall of the vibrating drum above the nylon plate. A cooling channel is provided on the spiral material trough. A vibrating screen is installed on the top of the vibrating drum, and a material collection hopper is provided on the vibrating screen. The output end of the material collection hopper is located above the spiral material trough.

[0021] Furthermore, a vibration controller is also provided on one side of the vibrating barrel, and a pressure sensor is fixedly installed at the bottom of the vibrating barrel below the nylon plate. The input end of the pressure sensor is connected to the nylon plate. A temperature sensor is fixedly installed on the side wall of the vibrating screen, and both the temperature sensor and the pressure sensor are electrically connected to the vibration controller.

[0022] Furthermore, the vibrating screen and the vibrating barrel are connected by a shock-absorbing pad, which is made of rubber. The top of the vibrating screen is also provided with a top cover, and a screen plate is fixedly installed inside the vibrating screen, with the collection hopper located below the screen plate.

[0023] With this setup, the material flowability can be detected through the cooperation of nylon plates, damping springs, and pressure sensors. The temperature of the material can be detected by temperature sensors. When the material temperature is too high, the material in the spiral feed trough can be cooled through cooling channels to prevent the material from exceeding the reaction temperature and causing failure. The vibrating screen, together with the screen plate, can disperse and screen the material, which can greatly reduce the material dispersion time.

[0024] Preferably, the circulation mechanism includes a circulation pump, which is equipped with a stirring discharge pipe, a stirring feed pipe, a filter discharge pipe, and a filter feed pipe. The free ends of the stirring discharge pipe and the stirring feed pipe are both connected to the stirring tank, and the stirring feed pipe is located above the stirring discharge pipe. The free end of the filter feed pipe is connected to the vibrating screen, and the free end of the filter discharge pipe is connected to the vibrating tank. The stirring discharge pipe and the filter feed pipe are connected through the circulation pump.

[0025] This setup allows for the circulation of materials within the mixing tank and vibrating tank.

[0026] Preferably, a feed control valve is provided at the connection between the mixing feed pipe and the mixing tank, and the mixing feed pipe and the feed control valve are detachably connected. A discharge control valve is provided at the connection between the mixing discharge pipe and the mixing tank, and the mixing discharge pipe and the discharge control valve are detachably connected.

[0027] This setup allows for quick connection and separation of the circulating pump and the mixing tank, and the control valve prevents material from flowing out of the mixing tank during transfer.

[0028] The advantages and positive effects of this utility model are:

[0029] 1. This utility model can adapt to working environments under various conditions and scenarios by adjusting the rotation speed of the stirring shaft and the working height of the dispersing disc, thereby reducing the possibility of material accumulation and settling at the bottom.

[0030] 2. In this utility model, a circulating pump is used to connect the mixing tank and the vibrating tank. When the material is difficult to disperse and has a high viscosity, it can be dispersed and sieved by a vibrating screen. After the vibrating screen and circulating mixing process, the material dispersion time can be greatly reduced and the uniformity of mixing and dispersion can be improved.

[0031] 3. In this utility model, a temperature measuring device is provided on the vibrating screen to monitor the material temperature in real time and prevent the material from exceeding the reaction temperature and causing failure. When the temperature exceeds the alarm value, the vibration controller will sound an alarm. The pressure sensor at the bottom of the vibrating drum can reflect the material viscosity by monitoring the pressure. When the material viscosity is too high, the pressure applied to the pressure sensor will increase when the material accumulates too high on the top of the nylon plate. When the pressure exceeds the alarm value, the vibration controller will sound an alarm.

[0032] 4. The circulating pump and the mixing tank in this utility model can be quickly disassembled, and a control valve is installed on the mixing tank. At the same time, casters are provided at the bottom of the mixing tank to facilitate the transfer and discharge of materials, thereby improving the convenience of using the equipment. Attached Figure Description

[0033] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0034] Figure 1 This is a schematic diagram of the overall connection structure of this utility model;

[0035] Figure 2 This is a schematic diagram of the internal structure of this utility model;

[0036] Figure 3 This is a schematic diagram of the gear set structure inside the transmission box of this utility model;

[0037] Figure 4This is a schematic diagram showing the positional relationship between the lifting transmission gear and the lifting driven gear when the lifting drive gear rotates forward according to this utility model;

[0038] Figure 5 This is a schematic diagram showing the positional relationship between the lifting transmission gear and the lifting driven gear when the lifting drive gear of this utility model reverses.

[0039] The annotations in the attached figures are explained as follows:

[0040] 101. Mixing tank; 102. Top cover; 103. Transmission box; 104. Mixing motor; 105. Lifting motor; 106. Rotating tube; 107. Mixing driven gear; 108. Mixing drive gear; 109. Mixing shaft; 110. Limiting groove; 111. Limiting post; 112. Casters; 113. Lifting drive gear; 114. Lifting transmission gear; 115. Lifting driven gear; 116. Lifting screw; 117. Linkage frame; 118. Damping seat; 119. Dispersion disc; 120. Level gauge; 121. Heat dissipation hole; 201. Circulating pump; 202. Support frame; 203. Mixing discharge pipe; 204. Filter feed pipe; 205. Filter discharge pipe; 206. Mixing feed pipe; 207. Mixing discharge valve; 208. Mixing feed valve; 301. Vibrating drum; 302. Shock-absorbing pad; 303. Spiral trough; 304. Cooling channel; 305. Nylon plate; 306. Damping spring; 307. Pressure sensor; 308. Vibrating screen; 309. Top cover; 310. Temperature sensor; 311. Screen plate; 312. Collection hopper; 313. Vibration controller; 314. Water inlet pipe; 315. Water outlet pipe. Detailed Implementation

[0041] In the description of this utility model, it should be understood that the terms "center," "longitudinal," "lateral," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," and "outer," etc., indicating orientation or positional relationships based on the orientation or positional relationships shown in the accompanying drawings, are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this utility model. Furthermore, the terms "first," "second," etc., are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of indicated technical features. Thus, features defined with "first," "second," etc., may explicitly or implicitly include one or more of that feature. In the description of this utility model, unless otherwise stated, "a plurality of" means two or more.

[0042] In the description of this utility model, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "joining" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection of two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model based on the specific circumstances.

[0043] The present invention will be further described below with reference to the accompanying drawings:

[0044] like Figures 1-5 As shown, a multifunctional stirring and circulating system includes a stirring mechanism, a filtering mechanism, and a circulating mechanism. The stirring mechanism and the filtering mechanism are connected through the circulating mechanism. The stirring mechanism includes a driving component and a lifting stirring component, and the lifting stirring component is connected to the output end of the driving component.

[0045] Specifically, the stirring mechanism also includes a stirring tank 101, with a top cover 102 on the top of the stirring tank 101. This design facilitates cleaning and maintenance of the stirring tank 101. The drive assembly and the lifting stirring assembly are both mounted on the top cover 102, with the lifting stirring assembly located inside the stirring tank 101. A level gauge 120 is also mounted on the outer wall of the stirring tank 101, allowing for observation of the liquid level inside the stirring tank 101. A heat dissipation hole 121 is provided on the side wall of the stirring tank 101 above the level gauge 120, allowing for the dissipation of heat inside the stirring tank 101 and preventing the material from exceeding the reaction temperature and causing failure. At least three casters 112 are provided at the bottom of the stirring tank 101, providing stable support for the stirring tank 101 and facilitating its movement, making material transfer more convenient.

[0046] Furthermore, the drive assembly includes a transmission housing 103, on which a stirring motor 104 and a lifting motor 105 are fixedly mounted. A stirring driven gear 107 and a stirring drive gear 108 are disposed within the transmission housing 103. The stirring drive gear 108 is connected to the output end of the stirring motor 104 and meshes with the stirring driven gear 107. The transmission housing 103 also contains a lifting drive gear 113, a lifting transmission gear 114, and a lifting driven gear 115. The lifting driven gear 115 is located above the stirring driven gear 107 and meshes with the stirring driven gear 105. The driving gear 107 is coaxial, and the lifting drive gear 113 is connected to the output end of the lifting motor 105. A damping seat 118 is rotatably mounted on the lifting drive gear 113, and a linkage frame 117 is mounted on the damping seat 118. A lifting transmission gear 114 is rotatably mounted on the linkage frame 117. The lifting transmission gear 114 and the lifting drive gear 113 are always meshed. When the lifting drive gear 113 rotates, the lifting transmission gear 114 will mesh or disengage with the lifting driven gear 115. This arrangement can ensure the stable transmission of power and also realize the adjustment and control of stirring and lifting.

[0047] Furthermore, the lifting and stirring assembly includes a rotating tube 106, a stirring shaft 109, and a lifting screw 116. One end of the rotating tube 106 is fixedly connected to the stirring driven gear 107, and a limiting post 111 is provided through the side wall of the rotating tube 106. The limiting post 111 is bolted and installed on the rotating tube 106 through threaded engagement. One end of the stirring shaft 109 is inserted from the other end of the rotating tube 106, and a dispersing disc 119 is fixedly provided at the other end of the stirring shaft 109. A limiting groove 110 is provided on the outer wall of the stirring shaft 109. The end of the limiting post 111 on the inner side of the rotating tube 106 is located in the limiting groove 110. The lifting screw 116 is located inside the rotating tube 106, and one end is fixedly connected to the lifting driven gear 115, while the other end cooperates with the stirring shaft 109. In this way, by reasonably improving the structure of the stirring frame, the stirring frame adds a lifting function without losing the original stirring function, and the stirring and lifting functions do not interfere with each other, thus expanding the application range.

[0048] Specifically, the filtration mechanism includes a vibrating drum 301. A vibration controller 313 is also installed on one side of the vibrating drum 301. Several damping springs 306 are fixedly installed at the bottom inside the vibrating drum 301. A nylon plate 305 is fixedly installed on the top of the damping springs 306. The nylon plate 305 is inclined inside the vibrating drum 301 and slides against the inner wall of the vibrating drum 301. A pressure sensor 307 is fixedly installed at the bottom of the vibrating drum 301 below the nylon plate 305. The flowability of the material can be detected through the interaction of the nylon plate 305, the damping springs 306, and the pressure sensor 307. The pressure sensor 307's input end is connected to the nylon plate 305. A spiral feed trough 303 is fixedly installed on the inner wall of the vibrating drum 301 above the nylon plate 305. A cooling channel 304 is provided on the spiral feed trough 303. An inlet pipe 314 and an outlet pipe 315 are also installed on the drum wall of the vibrating drum 301, and both the inlet pipe 314 and the outlet pipe 315 are connected to the cooling channel 304 on the spiral feed trough 303. Furthermore, to ensure efficient cooling, the inlet pipe 314 is connected to the cooling channel 304 at the outlet end of the spiral feed trough 303, and the outlet pipe 315 is connected to the cooling channel 304 at the inlet end of the spiral feed trough 303. The four sections are connected, so the water entering the cooling channel 304 needs to flow upwards to completely fill the cooling channel 304, ensuring the cooling effect of the cooling channel 304 on the material in the spiral feed trough 303. A vibrating screen 308 is installed on the top of the vibrating barrel 301. The vibrating screen 308 is connected to the vibrating barrel 301 through a shock-absorbing pad 302, which is made of rubber. A top cover 309 is installed on the top of the vibrating screen 308. A screen plate 311 is also fixedly installed inside the vibrating screen 308. A temperature sensor 310 is fixedly installed on the side wall of the vibrating screen 308 to detect the temperature of the material. When the material temperature is too high, the material in the spiral feed trough 303 can be cooled through the cooling channel 304 to prevent the material from exceeding the reaction temperature and causing failure. The temperature sensor 310 and the pressure sensor 307 are both electrically connected to the vibration controller 313. The vibration controller 313 can process the material according to the material temperature and the pressure fed back by the nylon plate 305. The vibrating screen 308 is equipped with a collection hopper 312, which is located between the screen plate 311 and the spiral feed trough 303. The vibrating screen 308, together with the screen plate 311, can disperse and screen the material, which can greatly reduce the material dispersion time.

[0049] Specifically, the circulation mechanism includes a circulation pump 201. A bracket 202 is mounted on the pump body of the circulation pump 201 to support it. The circulation pump 201 is equipped with a stirring discharge pipe 203, a stirring feed pipe 206, a filter discharge pipe 205, and a filter feed pipe 204. The free ends of the stirring discharge pipe 203 and the stirring feed pipe 206 are both connected to the stirring tank 101, with the stirring feed pipe 206 located above the stirring discharge pipe 203. A feed control valve 208 is installed at the connection between the stirring feed pipe 206 and the stirring tank 101, and the stirring feed pipe 206 is detachably connected to the feed control valve 208. A discharge control valve 207 is installed at the connection between the stirring discharge pipe 203 and the stirring tank 101, similarly for stirring discharge... Pipe 203 is detachably connected to discharge control valve 207. This configuration enables quick connection and separation of circulation pump 201 and mixing tank 101. The control valve prevents material from flowing out of mixing tank 101 during transfer. The free end of filter feed pipe 204 is connected to vibrating screen 308, and the free end of filter discharge pipe 205 is connected to vibrating tank 301. The lowest end of the inclined nylon plate 305 is close to and located below the connection point between filter discharge pipe 205 and vibrating tank 301. Mixing discharge pipe 203 and filter feed pipe 204 are connected through circulation pump 201, and filter discharge pipe 205 and mixing feed pipe 206 are connected through circulation pump 201. This configuration enables the circulation of material in mixing tank 101 and vibrating tank 301.

[0050] The working process of this embodiment is as follows: First, open the top cover 102 of the mixing tank 101, add the material to be mixed into the mixing tank 101, and then close the top cover 102.

[0051] Next, the power supply of the stirring motor 104 is turned on. With the cooperation of the stirring drive gear 108 and the stirring driven gear 107, the stirring motor 104 will drive the rotating tube 106 to rotate. After the rotating tube 106 rotates, it will drive the stirring shaft 109 to rotate with the cooperation of the limiting post 111 and the limiting groove 110. The material is stirred by the dispersing disk 119 at the end of the stirring shaft 109.

[0052] When the height of the dispersing disc 119 needs to be adjusted, the lifting motor 105 is started. The rotation of the lifting motor 105 drives the lifting drive gear 113 to rotate. The linkage frame 117 is connected to the lifting drive gear 113 via the damping seat 118. The lifting transmission gear 114 on the linkage frame 117 is always engaged with the lifting drive gear 113. Therefore, after the lifting drive gear 113 rotates, the linkage frame 117 will first rotate along with it. When the lifting transmission gear 114 contacts the lifting driven gear 115, the linkage frame 117 will stop rotating, while the lifting drive gear 113 continues to rotate. Driven by the lifting motor 105, the lifting transmission gear 114, which meshes with the lifting drive gear 113 on the linkage frame 117, will also start to rotate. After the lifting transmission gear 114 rotates, it will mesh with the lifting driven gear 115 and start to drive the lifting driven gear 115 to rotate. After the lifting driven gear 115 rotates, it will drive the lifting screw 116 to rotate. Through the cooperation between the lifting screw 116 and the stirring shaft 109, the stirring shaft 109 will be lifted and lowered, thereby adjusting the height of the dispersing disc 119 on the stirring shaft 109 in the mixing tank 101. This can reduce the accumulation and settling of materials at the bottom of the mixing tank 101.

[0053] If the material in the mixing tank 101 is difficult to disperse and has high viscosity during the mixing process, connect the mixing tank 101 to the circulating pump 201. When connecting, make sure to quickly connect the mixing discharge pipe 203 on the circulating pump 201 to the discharge control valve 207 using fasteners, and quickly connect the mixing feed pipe 206 to the feed control valve 208 using fasteners. Then open the discharge control valve 207 and the feed control valve 208, and then turn on the power to the circulating pump 201. At the same time, control the vibrating tank 301 and the vibrating screen 308 to start vibrating through the vibration controller 313.

[0054] After the circulating pump 201 is powered on, it will draw out the material in the mixing tank 101 through the mixing discharge pipe 203, and then transport it to the vibrating screen 308 through the filter feed pipe 204. After entering the vibrating screen 308, the material will fall on the screen plate 311. Under the vibration effect of the vibrating screen 308, it will pass through the screen plate 311 and enter the collection hopper 312. It will then flow from the discharge port of the collection hopper 312 to the spiral trough 303. It will then flow down along the spiral trough 303 and finally flow onto the nylon plate 305. The nylon plate 305 is inclined. After the material flows onto the nylon plate 305, it will flow down along the inclined direction of the nylon plate 305 and finally flow out from the water filter discharge pipe 205. After passing through the circulating pump 201, it will flow back into the mixing tank 101 through the mixing feed pipe 206.

[0055] Throughout the entire cycle, after the material enters the vibrating screen 308, the temperature sensor 310 inside the vibrating screen 308 detects the temperature of the material. If the material temperature is too high, it sends a signal to the vibration controller 313, which then issues an alarm, reminding the operator to inject water into the cooling channel 304 on the spiral feed chute 303 through the water inlet pipe 314. The water flows along the cooling channel 304 and eventually exits from the water outlet pipe 315 connected to the cooling channel 304. During the flow of the flow channel 304, the material on the spiral feed trough 303 will be cooled. After the cooled material returns to the mixing tank 101, it will be mixed with the material in the mixing tank 101 to cool the material in the mixing tank 101. The cooled material will then be pumped out by the circulation pump 201 and transported to the vibrating screen 308. If the temperature sensor 310 in the vibrating screen 308 detects that the temperature of the material has dropped below the set threshold, the vibration controller 313 will stop the alarm, and the cooling water in the cooling flow channel 304 will also stop circulating.

[0056] Similarly, if the material falling onto the nylon plate 305 can quickly flow down the slope of the nylon plate 305, it proves that the viscosity of the material is low. Conversely, if the viscosity of the material flowing from the spiral feed trough 303 onto the nylon plate 305 is too high, it will not flow quickly down the slope of the nylon plate 305. Therefore, as the material on the spiral feed trough 303 continuously flows onto the nylon plate 305, it will accumulate on the nylon plate 305, thereby increasing the weight of the nylon plate 305 and compressing the damping spring 306. At the same time, the pressure sensor 307 will also send a signal to the vibration controller 313, causing the vibration controller 313 to tighten and reminding the operator to add a diluent to the material to reduce the viscosity of the material.

[0057] When the material is mixed to the required level, the operator first closes the discharge control valve 207. After the circulating pump 201 has transported all the material in the vibrating tank 301 back to the mixing tank 101, the feed control valve 208 is closed. Then, the fasteners that fix the feed control valve 208 and the mixing feed pipe 206 are opened, and the mixing feed pipe 206 is separated from the feed control valve 208. Similarly, the mixing discharge pipe 203 is separated from the discharge control valve 207. Finally, the mixing tank 101 can be moved by the casters 112 at the bottom of the mixing tank 101 to transfer the material. After the material is transferred to the storage position, the discharge control valve 207 can be opened to discharge all the material in the mixing tank 101.

[0058] The above description provides a detailed account of one embodiment of the present invention. However, this description is merely a preferred embodiment and should not be construed as limiting the scope of the present invention. All equivalent variations and improvements made within the scope of the present invention should still fall within the patent coverage of the present invention.

Claims

1. A multifunctional stirring and circulating system, characterized in that: It includes a stirring mechanism, a filtering mechanism, and a circulation mechanism. The stirring mechanism and the filtering mechanism are connected through the circulation mechanism. The stirring mechanism includes a driving component and a lifting stirring component. The lifting stirring component is connected to the output end of the driving component. The filtration mechanism includes a vibrating drum (301), a plurality of damping springs (306) are fixedly installed at the bottom of the vibrating drum (301), a nylon plate (305) is fixedly installed on the top of the damping springs (306), the nylon plate (305) slides against the inner wall of the vibrating drum (301), a spiral material trough (303) is fixedly installed on the inner wall of the vibrating drum (301) above the nylon plate (305), a cooling channel (304) is provided on the spiral material trough (303), a vibrating screen (308) is provided on the top of the vibrating drum (301), a material collection hopper (312) is provided on the vibrating screen (308), and the output end of the material collection hopper (312) is located above the spiral material trough (303); A vibration controller (313) is also provided on one side of the vibrating barrel (301). A pressure sensor (307) is fixedly provided at the bottom of the vibrating barrel (301) below the nylon plate (305). The input end of the pressure sensor (307) is connected to the nylon plate (305). A temperature sensor (310) is fixedly provided on the side wall of the vibrating screen (308). Both the temperature sensor (310) and the pressure sensor (307) are electrically connected to the vibration controller (313). The vibrating screen (308) is connected to the vibrating drum (301) through a shock-absorbing pad (302), which is made of rubber. The top of the vibrating screen (308) is also provided with a top cover (309). A screen plate (311) is also fixedly installed inside the vibrating screen (308), and the collection hopper (312) is located below the screen plate (311).

2. The multifunctional stirring and circulating system according to claim 1, characterized in that: The stirring mechanism also includes a stirring tank (101), the top of which is provided with a top cover (102). The driving component and the lifting stirring component are both provided on the top cover (102), and the lifting stirring component is located inside the stirring tank (101).

3. The multifunctional stirring and circulating system according to claim 1, characterized in that: The drive assembly includes a transmission box (103), on which a stirring motor (104) and a lifting motor (105) are fixedly mounted. The transmission box (103) contains a driven stirring gear (107) and a driving stirring gear (108). The driving stirring gear (108) is connected to the output end of the stirring motor (104), and the driving stirring gear (108) meshes with the driven stirring gear (107). The transmission box (103) also contains a lifting driving gear (113), a lifting transmission gear (114), and a lifting driven gear (115). The lifting driven gear (115) is located at the stirring... Above the driven gear (107) and coaxial with the stirring driven gear (107), the lifting drive gear (113) is connected to the output end of the lifting motor (105). A damping seat (118) is rotatably mounted on the lifting drive gear (113). A linkage frame (117) is mounted on the damping seat (118). A lifting transmission gear (114) is rotatably mounted on the linkage frame (117). The lifting transmission gear (114) is always meshed with the lifting drive gear (113). When the lifting drive gear (113) rotates, the lifting transmission gear (114) will mesh or disengage with the lifting driven gear (115).

4. The multifunctional stirring and circulating system according to claim 3, characterized in that: The lifting and stirring assembly includes a rotating tube (106), a stirring shaft (109), and a lifting screw (116). One end of the rotating tube (106) is fixedly connected to the stirring driven gear (107), and a limiting post (111) is provided through the side wall of the rotating tube (106). One end of the stirring shaft (109) is inserted from the other end of the rotating tube (106), and a dispersing disc (119) is fixedly provided at the other end of the stirring shaft (109). A limiting groove (110) is provided on the outer wall of the stirring shaft (109). The end of the limiting post (111) on the inner side of the rotating tube (106) is located in the limiting groove (110). The lifting screw (116) is located inside the rotating tube (106), and one end is fixedly connected to the lifting driven gear (115), while the other end cooperates with the stirring shaft (109).

5. A multifunctional stirring and circulating system according to claim 2, characterized in that: A level gauge (120) is also provided on the outer wall of the mixing tank (101), and a heat dissipation hole (121) is provided on the side wall of the mixing tank (101) above the level gauge (120). At least three casters (112) are provided at the bottom of the mixing tank (101).

6. A multifunctional stirring and circulating system according to claim 2, characterized in that: The circulation mechanism includes a circulation pump (201), which is equipped with a stirring discharge pipe (203), a stirring feed pipe (206), a filter discharge pipe (205), and a filter feed pipe (204). The free ends of the stirring discharge pipe (203) and the stirring feed pipe (206) are connected to the stirring tank (101), and the stirring feed pipe (206) is located above the stirring discharge pipe (203). The free end of the filter feed pipe (204) is connected to the vibrating screen (308), and the free end of the filter discharge pipe (205) is connected to the vibrating tank (301). The stirring discharge pipe (203) and the filter feed pipe (204) are connected through the circulation pump (201), and the filter discharge pipe (205) and the stirring feed pipe (206) are connected through the circulation pump (201).

7. A multifunctional stirring and circulating system according to claim 6, characterized in that: A feed control valve (208) is provided at the connection between the mixing feed pipe (206) and the mixing tank (101), and the mixing feed pipe (206) and the feed control valve (208) are detachably connected. A discharge control valve (207) is provided at the connection between the mixing discharge pipe (203) and the mixing tank (101), and the mixing discharge pipe (203) and the discharge control valve (207) are detachably connected.

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