Method and device for manufacturing antibacterial microporous ceramic

Abstract

The invention relates to the technical field of ceramic manufacturing, in particular to a bacteriostatic microporous ceramic manufacturing method and device.The bacteriostatic microporous ceramic manufacturing device comprises a screening main box, an inner screening drum and a filtering assembly, and the inner screening drum is slidably mounted in the screening main box; the filter assembly comprises an assembling filter screen, a clamping support, a downward pressing clamping plate, a downward pressing air cylinder, an adjusting component and a locking and pressing component, the assembling filter screen is installed in the inner screen drum through the locking and pressing component, the clamping support is connected with the screening main box through the adjusting component, and the downward pressing clamping plate is installed on the clamping support in a sliding mode; the output end of the downward-pressing air cylinder is connected with the downward-pressing clamping plate, and the downward-pressing air cylinder is fixedly installed on the clamping support. The adjusting component is connected with the screening main box, the locking and pressing component is connected with the inner screen drum, the model of the filter screen can be automatically replaced and adjusted through the arranged components according to the actual operation condition and the type of screened raw materials, and actual operation is more convenient.

Description

Technical Field

[0001] The invention relates to the technical field of ceramic manufacturing, and in particular to a method and a device for manufacturing antibacterial microporous ceramics. Background Art

[0002] Antibacterial microporous ceramics are a new type of functional ceramic material that combines porous structure with antibacterial function. These micropores make it highly adsorbable and breathable. Its main raw materials include environmentally friendly materials such as diatomaceous earth and barren clay. These materials are made by grouting and high-temperature sintering. The antibacterial components (such as silver ions) are loaded into the micropores of the ceramics, killing bacteria by releasing antibacterial ions or active oxygen, and the microporous structure itself also helps to prevent the growth and spread of bacteria.

[0003] Antibacterial microporous ceramics are widely used in many fields due to their unique antibacterial properties and porous structure. For example, as core filter materials, they can remove 99.99% of bacteria (such as E. coli), heavy metal ions and organic pollutants in water, while retaining minerals to achieve safe direct drinking. Compared with activated carbon, microporous ceramic filter elements can withstand high temperature disinfection, have a long regeneration cycle, a service life of 3-5 years, and have strong anti-clogging properties, adapting to poor water quality. At the same time, in the biomedical field, the porous structure of antibacterial microporous ceramics promotes uniform cell attachment and proliferation, and is used in tissue engineering and stem cell research.

[0004] Existing antibacterial microporous ceramics need to filter and screen the collected raw materials during manufacturing and production in order to remove impurities in the raw materials. In order to ensure the quality of the raw materials, it is often necessary to set up multiple screens of different specifications for filtering and screening. Moreover, the specifications of the multi-stage screens selected will also be different based on the different types of raw materials. Therefore, when filtering and screening a variety of raw materials, it is often necessary to manually replace the screens or even replace the entire screening equipment, which makes it extremely inconvenient in actual operation. Summary of the invention

[0005] The purpose of the present invention is to provide a method and device for manufacturing antibacterial microporous ceramics, which can automatically replace and adjust the filter model according to the actual operating conditions and the type of raw materials to be screened through the provided components, making it more convenient in actual operation.

[0006] To achieve the above object, the present invention provides a method for manufacturing antibacterial microporous ceramics, comprising the following steps:

[0007] Select raw materials and perform preliminary mixing;

[0008] The mixture is finely filtered through an antibacterial microporous ceramic manufacturing device;

[0009] The filtered materials are sintered and formed;

[0010] After sintering and forming, a microporous ceramic product with antibacterial properties is obtained.

[0011] Among them, an antibacterial microporous ceramic manufacturing device, which is applied to the antibacterial microporous ceramic manufacturing method, includes a screening main box and an inner screening cylinder. The inner screening cylinder is slidably installed in the screening main box, and further includes a filtering component;

[0012] The filtering component includes an assembly filter screen, a clamping bracket, a pressing lower plate, a pressing cylinder, an adjusting component and a locking and pressing component. The assembly filter screen is installed in the inner screening cylinder through the locking and pressing component. The clamping bracket is connected to the screening main box through the adjusting component. The pressing lower plate is slidably installed on the clamping bracket; the output end of the pressing cylinder is connected to the pressing lower plate, and the pressing cylinder is fixedly installed on the clamping bracket; the adjusting component is connected to the screening main box and is used to control the clamping position of the clamping bracket; the locking and pressing component is connected to the inner screening cylinder and is used to press and limit the installed assembly filter screen.

[0013] Among them, the adjusting component includes a fixed bracket, a moving bracket, a lifting bracket and a driving component. The fixed bracket is fixedly installed on one side of the screening main box; the moving bracket is slidably installed on the fixed bracket; the lifting bracket is slidably connected to the clamping bracket and is slidably installed on the moving bracket; the driving component is connected to the moving bracket and is used to complete the driving control of the corresponding bracket.

[0014] Among them, the locking and pressing component includes a bottom plate, a locking and pressing plate and a pressing component. The bottom plate is fixedly installed in the inner screening cylinder; the locking and pressing plate is slidably installed on one side of the inner screening cylinder close to the bottom plate; the pressing component is connected to the inner screening cylinder and is used to drive the locking and pressing plate to move down for locking and pressing.

[0015] Among them, the driving component includes a moving screw driving mechanism, a lifting screw driving mechanism and a side-moving screw driving mechanism. The moving screw driving mechanism is connected to the moving bracket and is used to drive the moving bracket; the lifting screw driving mechanism is connected to the lifting bracket and is used to drive the lifting bracket; the side-moving screw driving mechanism is connected to the clamping bracket and is used to drive the clamping bracket.

[0016] Among them, the pressing component includes a locking screw, a driving bevel gear, a double-headed bevel gear shaft, a driving bevel gear, a driving shaft and a driving motor. The locking screw is in threaded connection with the locking pressure plate and is rotatably installed in the inner sieve cylinder; the driving bevel gear is fixedly installed at the top of the locking screw; the shaft rod at both ends of the double-headed bevel gear shaft is provided with the same bevel gear. The double-headed bevel gear shaft is rotatably installed in the inner sieve cylinder. The bevel gear on one side of the double-headed bevel gear shaft meshes with the driving bevel gear, and the bevel gear on the other side of the double-headed bevel gear shaft meshes with the driving bevel gear shaft; the driving bevel gear is fixedly sleeved on the driving shaft; the driving shaft is rotatably installed in the inner sieve cylinder; the output shaft of the driving motor is connected to the driving shaft, and the driving motor is fixedly installed on one side of the inner sieve cylinder.

[0017] Among them, the filtering component further includes a damper, a vibration spring, a vibrator, a locking component and a placing component. The damper is connected to the inner sieve cylinder and is installed in the main screening box; both sides of the vibration spring are respectively connected to the inner sieve cylinder and the main screening box; the vibrator is installed on one side of the inner sieve cylinder; the locking component is connected to the main screening box and is used for limiting the inner sieve cylinder; the placing component is connected to the main screening box and is used for placing the assembled filter screen.

[0018] Among them, the locking component includes a guiding bracket, a blocking plug-in bracket and a propulsion cylinder. The guiding bracket is fixedly installed in the main screening box; the blocking plug-in bracket is slidably installed on the guiding bracket; the output end of the propulsion cylinder is connected to the guiding bracket, and the propulsion cylinder is fixedly installed on one side of the guiding bracket.

[0019] Among them, the placing component includes an embedded information board, a scanner and a positioning bracket. The embedded information board is fixedly installed on the assembled filter screen; the scanner is fixedly installed on the fixed bracket; the positioning bracket is fixedly installed in the main screening box.

[0020] The present invention provides an antibacterial microporous ceramic manufacturing device. In actual operation, the inner screen cylinder completes the installation of multiple assembly filters through multiple groups of locking components, and then multiple assembly filters are used to achieve multiple screening and filtration of raw materials. When the user needs to change the size of the assembly filter due to different types of raw materials, the clamping bracket can be moved to the position of the side slot platform of the assembly filter that needs to be replaced under the action of the adjusting component, and then the pressing cylinder drives the pressing clamp to cooperate with the clamping bracket to clamp the slot platform on the side of the specified assembly filter. After that, the locking component cooperates with the adjusting component to achieve the disassembly of the corresponding assembly filter and the installation of the assembly filter that needs to be replaced, so that the filter model can be automatically replaced and adjusted according to the actual operating conditions and the type of raw materials to be screened through the provided components, making it more convenient in actual operation. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art are briefly introduced below.

[0022] Figure 1 The present invention is a flow chart of the method for manufacturing antibacterial microporous ceramics.

[0023] Figure 2 It is a schematic diagram of the overall structure of the antibacterial microporous ceramic manufacturing device of the present invention.

[0024] Figure 3 It is a schematic structural diagram of a cutaway screening main box of the present invention.

[0025] Figure 4 It is a schematic diagram of the installation structure of the damper of the present invention.

[0026] Figure 5 It is a schematic structural diagram of the inner screen cylinder of the present invention when it is cut open.

[0027] Figure 6 The present invention Figure 5 Enlarged view of point A.

[0028] Figure 7 It is a schematic structural diagram of the present invention in which the screening main box is cut open and the filter screen is assembled and pulled out.

[0029] Figure 8 It is a structural schematic diagram of the inner screen cylinder of the present invention after being cut open and the filter screen is assembled and pulled out.

[0030] Figure 9 The present invention Figure 8 Enlarged view of point B.

[0031] Figure 10It is a schematic structural diagram of the opening of the lower pressing clamp plate of the present invention.

[0032] Figure 11 is the Figure 10 magnified view at position C of

[0033] In the figure: 101 - main screening box, 102 - inner screening cylinder, 103 - assembled filter screen, 104 - clamping bracket, 105 - lower pressing clamp plate, 106 - lower pressing cylinder, 201 - fixed bracket, 202 - moving bracket, 203 - lifting bracket, 204 - moving screw drive mechanism, 205 - lifting screw drive mechanism, 206 - side shift screw drive mechanism, 301 - bottom plate, 302 - locking pressure plate, 303 - locking screw, 304 - driving bevel gear, 305 - double-headed bevel gear shaft, 306 - driving bevel gear, 307 - driving shaft, 308 - driving motor, 401 - damper, 402 - vibration spring, 403 - vibrator, 501 - guiding bracket, 502 - gear position inserting bracket, 503 - propulsion cylinder, 601 - embedded information board, 602 - scanner, 603 - positioning bracket. Specific embodiments

[0034] The following details the embodiments of the present invention. The examples of the embodiments are shown in the accompanying drawings, where the same or similar reference numerals represent the same or similar elements or elements with the same or similar functions throughout. The embodiments described below by referring to the accompanying drawings are exemplary and are intended to explain the present invention, and should not be construed as a limitation to the present invention.

[0035] In the description of the present invention, it should be understood that the meaning of "a plurality of" is two or more, unless otherwise specifically defined.

[0036] Please refer to Figure 1 , the present invention provides a method for manufacturing antibacterial microporous ceramics, including the following steps;

[0037] S1: Select raw materials and conduct preliminary mixing;

[0038] S2: Fine-filter the mixture through an antibacterial microporous ceramic manufacturing device;

[0039] S3: Sinter and form the filtered material;

[0040] S4: After the sintering and forming are completed, obtain a microporous ceramic product with antibacterial properties;

[0041] Please refer to Figures 2 to 11, A method and device for manufacturing antibacterial microporous ceramics: including a screening main box 101, an inner screening cylinder 102 and a filtering component. The filtering component includes an assembled filter screen 103, a clamping bracket 104, a pressing lower plate 105, a pressing cylinder 106, an adjusting component and a locking and pressing component. The adjusting component includes a fixed bracket 201, a moving bracket 202, a lifting bracket 203 and a driving component. The locking and pressing component includes a bottom plate 301, a locking and pressing plate 302 and a pressing component. The driving component includes a moving screw driving mechanism 204, a lifting screw driving mechanism 205 and a side moving screw driving mechanism 206. The pressing component includes a locking screw 303, a driving bevel gear 304, a double-headed bevel gear shaft 305, a driving bevel gear 306, a driving shaft 307 and a driving motor 308. Through the above-mentioned scheme, the problem that in the manufacturing process of existing antibacterial microporous ceramics, the collected raw materials need to be filtered and screened to remove impurities in the raw materials. In order to ensure the quality of the raw materials, multiple sieve meshes of different specifications often need to be set for filtering and screening. Moreover, due to the different types of raw materials, the specifications of the multi-stage sieve meshes selected will also vary. Therefore, when filtering and screening multiple raw materials, manual replacement of the sieve mesh or even replacement of the entire screening equipment is often required, making it extremely inconvenient in actual operation is solved.

[0042] Further, the inner screening cylinder 102 is slidably installed in the screening main box 101. The assembled filter screen 103 is installed in the inner screening cylinder 102 through the locking and pressing component. The clamping bracket 104 is connected to the screening main box 101 through the adjusting component. The pressing lower plate 105 is slidably installed on the clamping bracket 104. The output end of the pressing cylinder 106 is connected to the pressing lower plate 105, and the pressing cylinder 106 is fixedly installed on the clamping bracket 104. The adjusting component is connected to the screening main box 101 and is used to adjust the clamping position of the clamping bracket 104. The locking and pressing component is connected to the inner screening cylinder 102 and is used to tightly limit the assembled filter screen 103 loaded.

[0043] Specifically, corresponding overlapping channels are provided at both the upper and lower ends of the inner screening cylinder 102. Overlapping guide grooves are provided inside the screening main box 101 to cooperate with the upper and lower overlapping channels of the inner screening cylinder 102, so that the inner screening cylinder 102 can slide up and down in the screening main box 101, facilitating subsequent mechanisms to make the inner screening cylinder 102 vibrate during operation, thereby improving the filtering efficiency of the raw materials.

[0044] A plurality of assembly grooves for installing the assembly filter screen 103 and the corresponding locking and pressing members are provided inside the inner screen cylinder 102. Positioning round holes are provided on both sides of the assembly filter screen 103. At the same time, a through groove platform is also provided on one side corresponding to the assembly filter screen 103. The outer convex platform provided on the lower pressing clamping plate 105 is adapted to the through groove of the through groove platform of the assembly filter screen 103.

[0045] The clamping support 104 is arranged in the other area of the screening main box 101 for installing the inner screen cylinder 102 through the adjusting member. The lower pressing clamping plate 105 is slidably arranged on the clamping support 104. The lower pressing clamping plate 105 is driven by the lower pressing air cylinder 106. The lower pressing air cylinder 106 drives the lower pressing clamping plate 105 to move up and down. Then, by cooperating with the position adjustment of the clamping support 104 in the screening main box 101, the clamping of the through groove platform on the side of the assembly filter screen 103 can be realized.

[0046] During actual operation, the inner screen cylinder 102 completes the installation of a plurality of the assembly filter screens 103 through a plurality of groups of locking and pressing members. Then, multiple screenings and filtrations of raw materials are realized through the plurality of provided assembly filter screens 103. When the user needs to change the size of the assembly filter screen 103 due to different types of raw materials, the clamping support 104 can move to the position of the through groove platform on the side of the assembly filter screen 103 that needs to be replaced under the action of the adjusting member. Then, the lower pressing air cylinder 106 drives the lower pressing clamping plate 105 to cooperate with the clamping support 104 to clamp the through groove platform on the side of the specified assembly filter screen 103. After that, the corresponding assembly filter screen 103 is disassembled and the assembly filter screen 103 that needs to be replaced is installed through the cooperation of the locking and pressing members and the adjusting member, realizing the automatic replacement and adjustment of the filter screen model according to the actual operation situation and the types of raw materials to be screened by the provided members, making it more convenient during actual operation.

[0047] Further, the fixed support 201 is fixedly installed on one side of the screening main box 101; the moving support 202 is slidably installed on the fixed support 201; the lifting support 203 is slidably connected to the clamping support 104 and is slidably installed on the moving support 202; the driving component is connected to the moving support 202 for driving and controlling the corresponding support.

[0048] Further, the moving screw driving mechanism 204 is connected to the moving support 202 for driving the moving support 202; the lifting screw driving mechanism 205 is connected to the lifting support 203 for driving the lifting support 203; the side moving screw driving mechanism 206 is connected to the clamping support 104 for driving the clamping support 104.

[0049] When this embodiment is in use, the fixed bracket 201 is fixedly arranged in the other area of the screening main box 101 where the inner sieve cylinder 102 is installed. A moving bracket 202 is slidably arranged on the fixed bracket 201. The moving bracket 202 can move left and right on the fixed bracket 201. A lifting bracket 203 is slidably arranged on the moving bracket 202. The lifting bracket 203 can move up and down on the moving bracket 202. The clamping bracket 104 can move left and right on the lifting bracket 203;

[0050] By the left and right movement of the moving bracket 202 on the fixed bracket 201, the left and right distance between the clamping bracket 104 and the assembly area of the assembly filter screen 103 can be changed. At the same time, the clamping bracket 104 after clamping can pull out the assembly filter screen 103 from the inner sieve cylinder 102;

[0051] By the movement of the lifting bracket 203 on the moving bracket 202, the matching height of the clamping bracket 104 can be changed, so as to complete the disassembly and installation of the assembly filter screen 103 at different height positions. The movement of the clamping bracket 104 on the lifting bracket 203 is used to move the assembly filter screen 103 pulled out from the inner sieve cylinder 102 to the area of the screening main box 101 for placing the assembly filter screen 103, so as to cooperate with the movement between the corresponding brackets to place the assembly filter screen 103, and at the same time clamp and pick up the assembly filter screen 103 placed at the designated position to complete the installation of the assembly filter screen 103 that needs to be replaced;

[0052] The moving screw driving mechanism 204, the lifting screw driving mechanism 205 and the side moving screw driving mechanism 206 are all composed of a screw and a motor for driving the screw to rotate. By driving the corresponding screw to rotate through the motor, the corresponding plate parts and the frame are driven. In this way, the moving bracket 202 can be driven to move on the fixed bracket 201 through the moving screw driving mechanism 204. The lifting screw driving mechanism 205 can drive the lifting bracket 203 to move on the moving bracket 202, and the side moving screw driving mechanism 206 can drive the clamping bracket 104 to move on the lifting bracket 203. In this way, the corresponding driving of the designated frame can be completed through the set corresponding mechanisms.

[0053] Further, the bottom plate 301 is fixedly installed in the inner sieve cylinder 102; the locking pressure plate 302 is slidably installed on one side of the inner sieve cylinder 102 close to the bottom plate 301; the pressing component is connected to the inner sieve cylinder 102 and is used to drive the locking pressure plate 302 to move down and lock.

[0054] Further, the locking screw 303 is threadedly connected to the lock pressing plate 302 and is rotatably installed in the inner sieve cylinder 102; the driving bevel gear 304 is fixedly installed at the top of the locking screw 303; the shaft rod at both ends of the double-headed bevel gear shaft 305 is provided with the same bevel gear. The double-headed bevel gear shaft 305 is rotatably installed in the inner sieve cylinder 102. The bevel gear on one side of the double-headed bevel gear shaft 305 meshes with the driving bevel gear 304, and the bevel gear on the other side of the double-headed bevel gear shaft 305 meshes with the driving bevel gear 306 on the shaft; the driving bevel gear 306 is fixedly sleeved on the driving shaft 307; the driving shaft 307 is rotatably installed in the inner sieve cylinder 102; the output shaft of the driving motor 308 is connected to the driving shaft 307, and the driving motor 308 is fixedly installed on one side of the inner sieve cylinder 102.

[0055] When in use in this embodiment, the bottom plate 301 and the lock pressing plate 302 are assembled in pairs. The bottom plate 301 and the lock pressing plate 302 are provided on both sides of the installation groove provided in the inner sieve cylinder 102 for installing the assembled filter plate. By means of the bottom plate 301 on both sides cooperating with the lock pressing plate 302, the two sides of the assembled filter plate can be pressed and limited, thereby realizing the installation of the assembled filter plate. A corresponding round table is provided at the bottom of the lock pressing plate 302 and is adapted to the positioning round holes provided on both sides of the assembled filter plate. Thus, when the assembled filter plate is inserted into the designated position of the inner sieve cylinder 102, the lock pressing plate 302 can complete the pressing and limiting of both sides of the assembled filter plate by pressing down.

[0056] The two groups of the lock pressing plates 302 provided at each installation position of the assembled filter plate are driven by the corresponding locking screws 303. The driving bevel gear 304 is fixed to the top of each locking screw 303. Each driving bevel gear 304 is provided with a corresponding double-headed bevel gear shaft 305 for cooperation. The double-headed bevel gear shafts 305 provided on both sides of the same installation position cooperate with the two driving bevel gears 306 installed on the same driving shaft 307. The transmission directions of the two driving bevel gears 306 are kept consistent, and the driving shaft 307 is driven by the driving motor 308.

[0057] When the driving motor 308 drives the driving shaft 307 to rotate, the driving shaft 307 can drive the two driving bevel gears 306 installed thereon to drive the double-headed bevel gear shafts 305 on the corresponding two sides to rotate. Furthermore, through the cooperation of the double-headed bevel gear shaft 305 and the driving bevel gear 304, the synchronous driving of the two locking screw rods 303 on both sides is realized, so as to drive the lock pressure plates 302 arranged on both sides of the same installation position at the same time, so as to realize the synchronous cooperation on both sides of the assembled filter plate.

[0058] When the user needs to disassemble the assembled filter plate at the corresponding position, only need to drive the lock pressure plates 302 on both sides of the corresponding installation position to move upward through the driving motor 308, so that the round table at the bottom of the lock pressure plate 302 is disengaged from the positioning round holes on both sides of the assembled filter plate, and then the lock pressure plate 302 can be pulled out through subsequent components. When installing the assembled filter plate, the assembled filter plate only needs to be inserted into the corresponding installation position of the inner sieve cylinder 102 through the corresponding components, and then the driving motor 308 provided correspondingly can drive the lock pressure plates 302 on both sides of the specified installation position to move downward, thus completing the automatic and rapid installation of the assembled filter plate.

[0059] Preferably, the filtering assembly provided by the present invention further includes a damper 401, a vibration spring 402, a vibrator 403, a locking member and a placing member. The locking member includes a guiding bracket 501, a blocking insertion bracket 502 and a propulsion cylinder 503. The placing member includes an embedded information board 601, a scanner 602 and a positioning bracket 603.

[0060] Furthermore, the damper 401 is connected to the inner sieve cylinder 102 and installed in the screening main box 101; both sides of the vibration spring 402 are respectively connected to the inner sieve cylinder 102 and the screening main box 101; the vibrator 403 is installed on one side of the inner sieve cylinder 102; the locking member is connected to the screening main box 101 and is used for limiting the inner sieve cylinder 102; the placing member is connected to the screening main box 101 and is used for placing the assembled filter screen 103.

[0061] During the use of this embodiment, a damper 401 and a vibration spring 402 are arranged in the area where the inner sieve cylinder 102 is slidably connected to the top of the main screening box 101. A vibrator 403 is also arranged below the inner side of the inner sieve cylinder 102. The vibrator 403 is mainly composed of a cam mechanism. By rotating the cam, the center of gravity can be quickly changed, thereby driving the inner sieve cylinder 102 to shake up and down in the main screening box 101. Then, in cooperation with the damper 401 and the vibration spring 402 arranged between the inner sieve cylinder 102 and the matching area of the main screening box 101, vibration screening of the internal filtering structure of the inner sieve cylinder 102 is realized.

[0062] Furthermore, the guiding bracket 501 is fixedly installed in the main screening box 101; the gear inserting bracket 502 is slidably installed on the guiding bracket 501; the output end of the propulsion cylinder 503 is connected to the guiding bracket 501, and the propulsion cylinder 503 is fixedly installed on one side of the guiding bracket 501.

[0063] During the use of this embodiment, the guiding bracket 501 is fixedly arranged in the main screening box 101, the gear inserting bracket 502 is slidably arranged on the guiding bracket 501, the gear inserting bracket 502 is driven by the propulsion cylinder 503, and a corresponding inserting platform is arranged at the end of the gear inserting bracket 502. By matching the arranged inserting platform with the area where the inner sieve cylinder 102 and the main screening box 101 are matched, the inner sieve cylinder 102 is locked and limited, so that the inner sieve cylinder 102 can be fixed at a definite position under the cooperation of the gear inserting bracket 502, facilitating the disassembly and installation of the assembled filter screen 103 arranged inside the inner sieve cylinder 102, and the inner sieve cylinder 102 will not shake up and down in the main screening box 101, thereby ensuring the stability of the disassembly and installation of the assembled filter screen 103.

[0064] Furthermore, the embedded information board 601 is fixedly installed on the assembled filter screen 103; the scanner 602 is fixedly installed on the fixed bracket 201; the positioning bracket 603 is fixedly installed in the main screening box 101.

[0065] During the use of this embodiment, an embedded information board 601 is fixedly embedded on the side of each assembled filter screen 103. A two-dimensional code containing the specified model size data of the assembled filter screen 103 is printed in the embedded information board 601. The scanner 602 is used to scan the two-dimensional code of the embedded information board 601, so as to obtain the model size data of the corresponding assembled filter screen 103, facilitating the determination of the installation position of the corresponding assembled filter screen 103 according to the obtained data;

[0066] The positioning bracket 603 is fixed within the area of the main screening box 101 where the assembled filter screen 103 is placed. A plurality of cylindrical platforms matching the positioning round holes of the assembled filter screen 103 are provided on the positioning bracket 603, so as to facilitate the more rapid and accurate placement of the assembled filter screen 103. The position of the positioning bracket 603 can be matched with the data in the embedded information board 601, so that after the corresponding assembled filter screen 103 is disassembled, the placement position of the assembled filter screen 103 can be quickly determined according to the information data of the embedded information board 601 on the assembled filter screen 103. At the same time, when reselecting, the corresponding type of assembled filter screen 103 can also be quickly clamped and selected according to the corresponding relationship between the positioning bracket 603 and the embedded information board 601.

[0067] The above-disclosed are only one or more preferred embodiments of the present application, and the scope of rights of the present application cannot be limited thereby. Those of ordinary skill in the art can understand all or part of the processes of implementing the above embodiments, and the equivalent changes made according to the claims of the present application still fall within the scope covered by the present application.

Claims

1. A method for manufacturing antibacterial microporous ceramics, characterized in that, It includes the following steps; Select raw materials and conduct preliminary mixing; Fine-filter the mixture through an antibacterial microporous ceramic manufacturing device; Perform sintering and shaping on the filtered material; After the sintering and shaping are completed, a microporous ceramic product with antibacterial properties is obtained.

2. An antibacterial microporous ceramic manufacturing device, applied to the antibacterial microporous ceramic manufacturing method described in claim 1, comprising a main screening box and an inner screening cylinder, the inner screening cylinder is slidably installed in the main screening box, and is characterized in that, It also includes a filtering component; The filtering component includes an assembled filter screen, a clamping bracket, a pressing plate, a pressing cylinder, an adjusting component, and a locking component. The assembled filter screen is installed in the inner sieve cylinder through the locking component. The clamping bracket is connected to the main screening box through the adjusting component. The pressing plate is slidably installed on the clamping bracket. The output end of the pressing cylinder is connected to the pressing plate, and the pressing cylinder is fixedly installed on the clamping bracket; The adjusting component is connected to the main screening box and is used to adjust the clamping position of the clamping bracket; the locking component is connected to the inner sieve cylinder and is used to tightly limit the installed assembled filter screen.

3. The antibacterial microporous ceramic manufacturing device according to claim 2, wherein The adjusting component includes a fixed bracket, a moving bracket, a lifting bracket, and a driving component. The fixed bracket is fixedly installed on one side of the main screening box. The moving bracket is slidably installed on the fixed bracket. The lifting bracket is slidably connected to the clamping bracket and is slidably installed on the moving bracket. The driving component is connected to the moving bracket and is used to complete the driving control of the corresponding bracket.

4. The antibacterial microporous ceramic manufacturing device according to claim 2, wherein The locking component includes a bottom plate, a locking plate, and a pressing component. The bottom plate is fixedly installed in the inner sieve cylinder. The locking plate is slidably installed on one side of the inner sieve cylinder close to the bottom plate. The pressing component is connected to the inner sieve cylinder and is used to drive the locking plate to move downwards for locking.

5. The antibacterial microporous ceramic manufacturing device according to claim 3, wherein The driving component includes a moving screw driving mechanism, a lifting screw driving mechanism, and a lateral movement screw driving mechanism. The moving screw driving mechanism is connected to the moving bracket and is used to drive the moving bracket. The lifting screw driving mechanism is connected to the lifting bracket and is used to drive the lifting bracket. The lateral movement screw driving mechanism is connected to the clamping bracket and is used to drive the clamping bracket.

6. The antibacterial microporous ceramic manufacturing device according to claim 4, wherein The pressing component includes a locking screw, a driving bevel gear, a double-headed bevel gear shaft, a driving bevel gear, a driving shaft and a driving motor. The locking screw is in threaded connection with the locking pressure plate and is rotatably installed in the inner sieve cylinder; the driving bevel gear is fixedly installed at the top of the locking screw; the shaft rod ends of the double-headed bevel gear shaft are provided with the same bevel gears. The double-headed bevel gear shaft is rotatably installed in the inner sieve cylinder. The bevel gear on one side of the double-headed bevel gear shaft meshes with the driving bevel gear, and the bevel gear on the other side of the double-headed bevel gear shaft meshes with the driving bevel gear shaft; the driving bevel gear is fixedly sleeved on the driving shaft; the driving shaft is rotatably installed in the inner sieve cylinder; the output shaft of the driving motor is connected to the driving shaft, and the driving motor is fixedly installed on one side of the inner sieve cylinder.

7. The antibacterial microporous ceramic manufacturing device according to claim 3, wherein The filtering component further includes a damper, a vibration spring, a vibrator, a locking component and a placing component. The damper is connected to the inner sieve cylinder and is installed in the main screening box; both sides of the vibration spring are connected to the inner sieve cylinder and the main screening box respectively; the vibrator is installed on one side of the inner sieve cylinder; the locking component is connected to the main screening box and is used for limiting the inner sieve cylinder; the placing component is connected to the main screening box and is used for placing the assembled filter screen.

8. The antibacterial microporous ceramic manufacturing device according to claim 7, wherein The locking component includes a guiding bracket, a blocking plug-in bracket and a propulsion cylinder. The guiding bracket is fixedly installed in the main screening box; the blocking plug-in bracket is slidably installed on the guiding bracket; the output end of the propulsion cylinder is connected to the guiding bracket, and the propulsion cylinder is fixedly installed on one side of the guiding bracket.

9. The antibacterial microporous ceramic manufacturing device according to claim 7, wherein The placing component includes an embedded information board, a scanner and a positioning bracket. The embedded information board is fixedly installed on the assembled filter screen; the scanner is fixedly installed on the fixed bracket; the positioning bracket is fixedly installed in the main screening box.

Images