A microbial reaction apparatus

Abstract

The application discloses a kind of microbial reaction equipment, and the application relates to the technical field of microbial reaction equipment.It includes shell, and further includes: partition, the partition is installed in the inside of shell;Control mechanism, the control mechanism is installed in the inside of shell, the control mechanism includes aeration pipe and second push rod, the telescopic end of the second push rod is equipped with sliding block;Processing mechanism, the processing mechanism is connected with control mechanism, the processing mechanism includes shelf, the outside of the shelf is equipped with angle frame, the top of the angle frame is provided with filler groove, and the second push rod is used to drive angle frame and filler groove lifting by sliding block.It also includes: cover plate, the cover plate is installed on the top of shell;Quick connection gas pipe, the quick connection gas pipe penetrates the inside of shell, and the quick connection gas pipe is connected with aeration pipe.The microbial reaction equipment, by setting control mechanism and processing mechanism, reaches the purpose of improving the use efficiency of equipment.

Description

Technical Field

[0001] This invention relates to the field of microbial reaction equipment technology, specifically to a microbial reaction device. Background Technology

[0002] Microbial reactions refer to biological responses caused by the growth and reproduction of microorganisms. Some microorganisms can be transmitted through aerosols in the air. Due to the diversity of microbial species, their survival abilities in the environment vary. Therefore, culturing airborne microorganisms is essential for evaluating their airborne transmission capabilities and studying their physical changes and biological decay in the air.

[0003] A utility model patent with publication number CN207726804U discloses a baffle-type high-efficiency reoxygenation-microbial reactor for river channels. The reactor includes a reactor body installed at the river dredging location, with all four sides (top, bottom, left, and right) being enclosed. A vertical grid is arranged on the front water-facing side of the reactor body, and a water outlet is arranged on the rear back water-facing side. Several staggered baffles are evenly distributed along the length of the front and middle sections of the reactor body, and multiple aeration heads supplied with air via air pipelines are arranged at the bottom of the reactor body between the lower baffles. Multiple grids are evenly distributed within the reactor body after the baffle zone, with microbial packing material pre-placed between the grids. A submersible pump for controlling water flow velocity is built into the rear of the reactor body. However, workers often encounter difficulties aligning the packing material with the pre-set position when pre-setting the packing material. Summary of the Invention

[0004] To overcome the problem that workers often have difficulty aligning the packing material with the preset position when setting the packing material, the present invention provides a microbial reaction device, including a shell, and further comprising: A partition, which is installed inside the housing; A control mechanism is installed inside the housing. The control mechanism includes an aeration pipe and a second push rod, and a slider is installed on the telescopic end of the second push rod. The processing mechanism is connected to the control mechanism. The processing mechanism includes a frame plate, an angle bracket is installed on the outside of the frame plate, and a filling groove is provided on the top of the angle bracket. The second push rod is used to drive the angle bracket and the filling groove to rise and fall through the slider.

[0005] Preferably, it further includes: A cover plate, which is mounted on top of the housing; A quick-connect air hose is provided, which penetrates the interior of the shell and is connected to an aeration pipe. A motor housing is installed outside the partition, and a motor is installed inside the motor housing. Multiple motor housings are provided.

[0006] Preferably, the control mechanism further includes: A slide groove is formed inside the housing, the second push rod is installed inside the slide groove, and the slider is slidably connected inside the slide groove; A magnetic strip, which is mounted on the outside of the partition; A groove, which is formed inside the housing.

[0007] Preferably, the control mechanism further includes: The first through groove is formed inside the slide groove; The first push rod is connected to the output end of the motor. The telescopic end of the first push rod is equipped with a locking plate. The first push rod is used to drive the locking plate to engage with the processing mechanism, and then the motor controls the deflection of the processing mechanism. The second through groove is formed inside the slider; An annular groove is formed inside the slider.

[0008] Preferably, the processing mechanism further includes: A magnetic block is used to attract and fix the magnetic strip, so that the frame is in the initial angle when the frame is not deflected. The magnetic block is installed on the outside of the frame. A rotating drum is rotatably connected inside an annular groove. A limit rod is installed inside the rotating drum. The rotating drum is connected to a frame plate, and a limit assembly is provided on the outside of the frame plate. An adjusting component is installed on the outside of the frame plate, and a scraping assembly is provided on the outside of the adjusting component; An adhesive strip, installed inside the frame plate, is used to adhere filler impurities brought in by the scraping assembly.

[0009] Preferably, the processing mechanism further includes: A limiting groove is formed inside the corner frame; A connecting plate, which is installed on the outside of the corner frame; A lifting rod is installed on the top of a connecting plate. A cross plate is installed on the top of the lifting rod, and a pad is provided on the top of the cross plate. The lifting rod drives the cross plate and the pad to vibrate and collide with the bottom of the filling groove. A connecting frame is installed on the outside of the lifting rod.

[0010] Preferably, the limiting component includes: Card holder, which is installed inside the frame plate; A plug rod, which is installed inside the card slot; The third push rod is installed inside the frame plate; A movable plate is connected to the telescopic end of a third push rod. A fourth through groove is provided inside the movable plate. The third push rod drives the movable plate to limit the position of the filling groove, or drives the filling groove to contact the insert rod.

[0011] Preferably, the scraping assembly includes: A funnel-shaped disc, which is connected to an adjusting component; A flow guide channel is formed at the bottom of the bucket-shaped disc.

[0012] Preferably, the scraping assembly further includes: A bottom frame, which is installed on the outside of the bucket-shaped disc; A limiting block, wherein the limiting block is installed inside the bottom frame; A scraper is installed between the two limiting blocks.

[0013] This invention provides a microbial reaction apparatus. It has the following beneficial effects: 1. This microbial reaction equipment incorporates a control mechanism to control the height of the processing unit, or to control its angle at a specified height. Due to the large size of the packing tank and the depth of the casing, workers often encounter difficulties aligning the packing material with the intended position during pre-filling. Therefore, a control mechanism is installed to regulate the height of the corner brackets, allowing workers to directly install the packing tank into the appropriately sized brackets, thus resolving the aforementioned problem.

[0014] 2. This microbial reaction equipment incorporates a treatment mechanism to limit the position of the packing trough. During prolonged use, the packing material can easily clog the pores at the bottom of the trough, affecting aeration. Therefore, a treatment mechanism using scraping and limiting components treats the bottom of the packing trough to reduce this issue. Simultaneously, the treatment and control mechanisms work together to deflect the packing trough, further preventing clogging.

[0015] 3. This microbial reaction equipment, through the setting of a limiting component, uses two symmetrically arranged third push rods to control the moving plate, thereby limiting the position of the packing trough. Furthermore, by simultaneously adjusting the relative stroke of the two third push rods, the relative position of the packing trough and the bottom microporous aeration pipe can be adjusted, providing different aeration positions for the packing trough. By setting the limiting component, the symmetrically arranged third push rods control the position of the packing trough, ensuring that the packing trough contacts the corresponding insert rod. The insert rod gradually passes through the fourth through hole into the packing trough, pushing the packing material at the bottom of the trough, thus reducing the occurrence of packing material clogging at the bottom of the trough.

[0016] 4. This microbial reaction equipment incorporates a scraping component, where a scraper moves the packing material at the bottom of the packing trough. Most of the easily detached packing material falls into the bottom frame and hopper-shaped disc under the scraper's movement, while most of the packing material impurities on the scraper adhere to the adhesive strips, thus preventing the packing material from falling onto the aeration pipes and affecting aeration. Furthermore, during the movement of the scraping component, multiple guide channels are provided at the bottom of the hopper-shaped disc to promote gas movement within these channels, slowing gas rise and preventing interference with the scraping operation. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic diagram of the internal structure of the present invention; Figure 3 This is a schematic diagram of the control mechanism of the present invention; Figure 4 For the present invention Figure 3 Schematic diagram of the structure at point A; Figure 5 This is a schematic diagram of the processing mechanism of the present invention; Figure 6 This is a schematic diagram of the processing mechanism of the present invention from another perspective; Figure 7 This is a schematic diagram of the corner frame of the present invention; Figure 8 For the present invention Figure 7 Schematic diagram of the structure at point B; Figure 9 This is a schematic diagram of the structure of the limiting component of the present invention; Figure 10 This is a schematic diagram of the scraping component of the present invention; Figure 11 This is a structural schematic diagram of the scraping component of the present invention from another perspective.

[0018] In the diagram: 1. Shell; 2. Cover plate; 3. Quick-connect air pipe; 4. Partition plate; 5. Control mechanism; 501. Slide groove; 502. Magnetic strip; 503. Groove; 504. Aeration pipe; 505. First through groove; 506. First push rod; 507. Positioning plate; 508. Slider; 509. Second through groove; 510. Annular groove; 511. Second push rod; 6. Processing mechanism; 601. Frame plate; 602. Magnetic block; 603. Angle bracket; 604. Limiting component; 6041. Card holder; 6042 6043, Third push rod; 6044, Moving plate; 6045, Fourth through slot; 605, Adjusting component; 606, Scraper assembly; 6061, Base frame; 6062, Bucket-shaped disc; 6063, Limiting block; 6064, Scraper; 6065, Guide channel; 607, Filler trough; 608, Rotary drum; 609, Limiting rod; 610, Adhesive strip; 611, Limiting groove; 612, Connecting plate; 613, Lifting rod; 614, Connecting frame; 615, Cross plate; 7, Motor box. Detailed Implementation

[0019] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments. The embodiments of the present invention are given for illustrative and descriptive purposes only, and are not intended to be exhaustive or to limit the invention to the forms disclosed. Many modifications and variations will be apparent to those skilled in the art. The embodiments were chosen and described to better illustrate the principles and practical application of the invention, and to enable those skilled in the art to understand the invention and design various embodiments with various modifications suitable for a particular purpose.

[0020] like Figures 1-11 As shown, the present invention provides a technical solution: including a housing 1, and further including: Cover plate 2 is installed on the top of housing 1; Quick-connect air tube 3, which penetrates the interior of housing 1; Motor housing 7 is installed outside the partition 4. Motor housing 7 contains multiple motors. Partition 4 is installed inside the housing 1; Control mechanism 5 is installed inside housing 1. Control mechanism 5 includes aeration pipe 504 and second push rod 511. Aeration pipe 504 is configured as a microporous aeration pipe. Second push rod 511 is configured as an electric push rod. A slider 508 is installed on the telescopic end of second push rod 511. Quick-connect air pipe 3 is connected to aeration pipe 504. The interface of quick-connect air pipe 3 extends out of housing 1. The processing mechanism 6 is connected to the control mechanism 5. The processing mechanism 6 includes a frame plate 601, which is set outside the slider 508. An angle bracket 603 is installed outside the frame plate 601. A filling groove 607 is set on the top of the angle bracket 603. The filling groove 607 is a perforated steel plate and is filled with filler. The second push rod 511 is used to drive the angle bracket 603 and the filling groove 607 to rise and fall through the slider 508.

[0021] Before using the equipment, workers remove the cover plate 2 and activate the control mechanism 5. The control mechanism 5 drives the treatment mechanism 6 upward. Workers place the packing trough 607 into the treatment mechanism 6 and simultaneously activate the treatment mechanism 6 to limit the movement of the packing trough 607. Then, the control mechanism 5 is adjusted to its initial state, and the treatment mechanism 6 drives the packing trough 607 into the housing 1. Workers then install the cover plate 2 and drive the housing 1 into the river channel. The microporous aeration pipe is activated, and bottom aeration passes through the packing trough 607 and the gaps before entering the river water, ensuring sufficient dissolved oxygen within the housing 1 while simultaneously increasing dissolved oxygen in the river water. During use, the treatment mechanism 6 is adjusted to regulate the packing trough 607.

[0022] Control mechanism 5 also includes: The slide groove 501 is formed inside the housing 1, the second push rod 511 is installed inside the slide groove 501, and the slider 508 is slidably connected inside the slide groove 501; Magnetic strip 502 is installed on the outside of partition 4; Groove 503, groove 503 is formed inside the housing 1; The first through groove 505 is formed inside the slide groove 501; The first push rod 506 is configured as an electric push rod. The first push rod 506 is connected to the output end of the motor. The telescopic end of the first push rod 506 is equipped with a locking plate 507. The second through groove 509 is formed inside the slider 508; An annular groove 510 is formed inside the slider 508.

[0023] The working process of the lifting and lowering of the processing mechanism 6 is controlled by the control mechanism 5: The second push rod 511 is activated to the specified stroke. The second push rod 511 drives the slider 508 to move in the vertical direction. The slider 508 drives the frame plate 601 and the corner plate to move in the vertical direction.

[0024] When the second push rod 511 is in the initial state, the bracket 603 is in the groove 503; when the second push rod 511 is in the first stroke, the bracket 603 is above the groove 503, and the processing mechanism 6 processes the bottom of the filling groove 607; when the second push rod 511 is in the second stroke, the height of the center of the slider 508 corresponds to the positioning plate 507, and the control mechanism 5 can control the processing mechanism 6 to deflect the filling groove 607; when the second push rod 511 is in the third stroke, the bracket 603 is in the highest position, and the worker can easily install or disassemble the filling groove 607.

[0025] The working process of the deflection of the processing mechanism 6 and the packing trough 607 controlled by the control mechanism 5 is as follows: The first push rod 506 is activated, causing the locking plate 507 to pass through the second through slot 509 in the slider 508 into the processing mechanism 6. The locking plate 507 engages with the processing mechanism 6. The motor in the motor housing 7 is then activated, causing the first push rod 506 and the locking plate 507 to deflect, thereby controlling the deflection of the processing mechanism 6. The processing mechanism 6 then causes the filling groove 607 to deflect. If the filling groove 607 is not present in the processing mechanism 6 at this time, the worker can manually clean the angle bracket 603 in the processing mechanism 6 by adjusting the angle.

[0026] The height of the processing mechanism 6 can be controlled by the control mechanism 5, or the angle of the processing mechanism 6 can be controlled at a specified height. Because the filling trough 607 is relatively large and the housing 1 is relatively deep, workers often encounter difficulties aligning the filling material with the preset position when pre-filling. Therefore, the control mechanism 5 is provided to control the height of the angle bracket 603, allowing workers to directly install the filling trough 607 into the angle bracket 603 at a suitable height, thus solving the aforementioned problem.

[0027] Processing unit 6 also includes: Magnetic block 602 is installed on the outside of the frame plate 601; Rotary cylinder 608 is rotatably connected inside annular groove 510. A limit rod 609 is installed inside the rotary cylinder 608. The rotary cylinder 608 is connected to the frame plate 601. A limit component 604 is provided on the outside of the frame plate 601. Adjusting component 605 is composed of an electric push rod in the horizontal direction and an electric push rod in the vertical direction. Adjusting component 605 is installed on the outside of the frame plate 601. A scraping component 606 is provided on the outside of adjusting component 605. Adhesive strip 610 is installed inside the frame plate 601; The limiting groove 611 is formed inside the corner bracket 603; Connecting plate 612, the connecting plate 612 is installed on the outside of the corner bracket 603; The lifting rod 613 is an electric push rod. The lifting rod 613 is installed on the top of the connecting plate 612. A cross plate 615 is installed on the top of the lifting rod 613. A gasket is provided on the top of the cross plate 615. Connecting bracket 614 is installed on the outside of lifting rod 613.

[0028] The working process of the fixed packing tank 607 of the processing mechanism 6: As the workers place the filling trough 607 on the corner brackets 603 on both sides, the limiting components 604 on both sides are activated, and the position of the filling trough 607 is controlled by the limiting components 604.

[0029] Processing mechanism 6 promotes the uniformity of packing during its working process: The first push rod 506 drives the positioning plate 507 to rotate through the second through slot 509, and the positioning plate 507 contacts the limiting rod 609. The motor controls the deflection of the first push rod 506 and the positioning plate 507, thereby controlling the deflection of the rotating drum 608, the support plate 601, the corner bracket 603 and the filling groove 607, promoting the uniform distribution of the filling in the filling groove 607.

[0030] The working process of processing mechanism 6 in processing the packing below packing tank 607: Adjust the stroke of the electric push rods in the horizontal and vertical directions in the adjusting component 605. The adjusting component 605 drives the scraping component 606 to contact the bottom of the filling groove 607, scraping the filling material that is easy to fall off below the filling groove 607 and using the scraping component 606 to catch it. Then the adjusting component 605 drives the scraping component 606 to move towards the adhesive strip 610. Some of the filling material impurities in the scraping component 606 adhere to the outside of the adhesive strip 610.

[0031] When the lifting rod 613 is switched to reciprocating motion mode, the lifting rod 613 drives the cross plate 615 and the shim to repeatedly strike the bottom of the packing groove 607, promoting the uniform placement of the packing in the packing groove 607 through uniform vibration.

[0032] The position of the packing trough 607 is defined by the processing mechanism 6. During prolonged use of the equipment, the packing material can easily clog the pores at the bottom of the packing trough 607, affecting aeration. Therefore, the processing mechanism 6 is provided, using the scraping component 606 and the limiting component 604 to treat the bottom of the packing trough 607 to reduce the occurrence of the above situation. At the same time, with the cooperation of the processing mechanism 6 and the control mechanism 5, the packing trough 607 is deflected, which also prevents the packing material from clogging the bottom of the packing trough 607.

[0033] Limiting component 604 includes: Card holder 6041, card holder 6041 is installed inside the frame plate 601; Insert rod 6042 is installed inside the card holder 6041. Insert rod 6042 is selectively installed and adjusted by workers according to the filling material. The third push rod 6043 is an electric push rod and is installed inside the frame plate 601. The movable plate 6044 is connected to the telescopic end of the third push rod 6043, and the movable plate 6044 has a fourth through groove 6045 inside.

[0034] The process of using the limiting component 604 to limit the filling groove 607: Open the third push rods 6043 on both sides to their corresponding strokes. The third push rods 6043 drive the moving plate 6044 to move towards the packing trough 607, thereby fixing the packing trough 607 in the two corner brackets 603 from both sides. By simultaneously adjusting the stroke of the third push rods 6043 on both sides, the relative position of the packing trough 607 and the bottom microporous aeration pipe can be adjusted.

[0035] The process of using the limiting component 604 to process the bottom of the filling groove 607: At the same time, the relative stroke of the third push rods 6043 on both sides is adjusted. The third push rods 6043 on both sides clamp the packing groove and move it towards the frame plate 601 on one side. The insertion rod 6042 gradually passes through the fourth through hole and enters the packing groove to push the packing at the bottom of the packing groove, thereby reducing the occurrence of packing clogging at the bottom of the packing groove.

[0036] By setting a limiting component 604, the moving plate 6044 is controlled by two symmetrically arranged third push rods 6043 to restrict the position of the packing trough 607. Furthermore, by simultaneously adjusting the relative stroke of the two third push rods 6043, the relative position of the packing trough 607 and the bottom microporous aeration pipe can be adjusted, providing different aeration positions for the packing trough 607. By setting a limiting component 604, the moving plate 6044 is controlled by two symmetrically arranged third push rods 6043 to control the position of the packing trough 607, ensuring that the packing trough 607 contacts the corresponding insertion rod 6042. The insertion rod 6042 gradually passes through the fourth through hole into the packing trough, pushing the packing at the bottom of the packing trough, thereby reducing the occurrence of packing blockage at the bottom of the packing trough.

[0037] Scraping assembly 606 includes: The hopper-shaped disc 6062 is connected to the adjusting component 605, and the upper surface of the hopper-shaped disc 6062 is made of an adhesive material. A guide channel 6065 is provided at the bottom of the bucket-shaped plate 6062, and several guide channels 6065 are provided. The bottom frame 6061 is installed on the outside of the bucket-shaped plate 6062, and the upper surface of the bottom frame 6061 is made of an adhesive material. Limiting block 6063 is installed inside the bottom frame 6061; Scraper 6064 is installed between two limit blocks 6063.

[0038] The scraping assembly 606 processes the bottom of the packing trough during operation: As the adjusting component 605 moves the base frame 6061 at the bottom of the packing trough 607, the scraper 6064 begins to scrape the packing at the bottom of the packing trough 607 and returns to the position of the adhesive strip 610. Most of the easily detached packing falls into the base frame 6061 and the bucket-shaped disc 6062 under the scraping action of the scraper 6064, while most of the packing impurities on the scraper 6064 eventually adhere to the adhesive strip 610. During the movement of the scraping assembly 606, multiple guide grooves 6065 are provided at the bottom of the bucket-shaped disc 6062 to promote the movement of gas at the bottom within the guide grooves 6065, slowing the gas rise and preventing interference with the scraping operation.

[0039] By setting up the scraping component 606, the scraper 6064 scrapes the packing material at the bottom of the packing trough 607. Most of the easily detached packing material falls into the bottom frame 6061 and the funnel-shaped disc 6062 under the scraping of the scraper 6064. Most of the packing material impurities on the scraper 6064 eventually adhere to the adhesive strip 610, thus preventing the packing material from falling onto the aeration pipe 504 and affecting the aeration process. Furthermore, during the movement of the scraping component 606, multiple guide channels 6065 are provided at the bottom of the funnel-shaped disc 6062 to promote the movement of gas at the bottom within the guide channels 6065, slowing down the gas rise and preventing interference with the scraping operation.

[0040] Working principle: Before using the equipment, the worker removes the cover plate 2 and turns on the control mechanism 5. The control mechanism 5 drives the processing mechanism 6 to move upward. The worker places the filling tank 607 in the processing mechanism 6 and turns on the limiting component 604 in the processing mechanism 6 to limit the filling tank 607.

[0041] When the second push rod 511 is in its third stroke, the corner bracket 603 is at its highest position, and the worker manually places the packing trough 607 into the corner bracket 603. The third push rods 6043 on both sides are then activated to their corresponding strokes. The third push rods 6043 drive the moving plate 6044 towards the packing trough 607, thereby fixing the packing trough 607 into the two corner brackets 603 from both sides. By simultaneously adjusting the stroke of the third push rods 6043 on both sides, the relative position of the packing trough 607 and the bottom microporous aeration pipe can be adjusted.

[0042] Then, the second push rod 511 is adjusted to the initial state, the corner bracket 603 drives the filling groove 607 into the groove 503, the workers install the cover plate 2, and the shell 1 is fixed in the river channel by piling.

[0043] The microporous aeration pipe is turned on, and the bottom aeration passes through the packing trough 607 and the gaps before entering the river water. This ensures sufficient dissolved oxygen within the shell 1 while simultaneously increasing the dissolved oxygen in the river water. During use, the treatment mechanism 6 is adjusted to modify the packing trough 607.

[0044] At the same time, the relative stroke of the third push rods 6043 on both sides is adjusted. The third push rods 6043 on both sides clamp the packing groove and move it towards the frame plate 601 on one side. The insertion rod 6042 gradually passes through the fourth through hole and enters the packing groove to push the packing at the bottom of the packing groove, thereby reducing the occurrence of packing clogging at the bottom of the packing groove.

[0045] When the lifting rod 613 is switched to reciprocating motion mode, the lifting rod 613 drives the cross plate 615 and the shim to repeatedly strike the bottom of the packing groove 607, promoting the uniform placement of the packing in the packing groove 607 through uniform vibration.

[0046] When the second push rod 511 is activated to the first stroke, the bracket 603 is positioned above the groove 503. The stroke of the electric push rod in the horizontal and vertical directions in the adjusting component 605 is adjusted. The adjusting component 605 drives the scraping component 606 to contact the bottom of the filling groove 607, scraping the easily falling filling material below the filling groove 607 and catching it with the scraping component 606. Subsequently, the adjusting component 605 drives the scraping component 606 to move towards the adhesive strip 610, and some of the filling impurities in the scraping component 606 adhere to the outside of the adhesive strip 610.

[0047] As the adjusting component 605 moves the base frame 6061 at the bottom of the packing trough 607, the scraper 6064 begins to scrape the packing at the bottom of the packing trough 607 and returns to the position of the adhesive strip 610. Most of the easily detached packing falls into the base frame 6061 and the bucket-shaped disc 6062 under the scraping action of the scraper 6064, while most of the packing impurities on the scraper 6064 eventually adhere to the adhesive strip 610. During the movement of the scraping assembly 606, multiple guide grooves 6065 are provided at the bottom of the bucket-shaped disc 6062 to promote the movement of gas at the bottom within the guide grooves 6065, slowing the gas rise and preventing interference with the scraping operation.

[0048] When the second push rod 511 is activated to its second stroke, the center height of the slider 508 corresponds to that of the positioning plate 507. The first push rod 506 drives the positioning plate 507 to rotate through the second through slot 509, and the positioning plate 507 contacts the limit rod 609. The motor controls the deflection of the first push rod 506 and the positioning plate 507, thereby controlling the deflection of the rotating drum 608, the support plate 601, the corner bracket 603, and the filling groove 607, promoting the uniform distribution of the filling in the filling groove 607.

[0049] Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. All other embodiments obtained by those skilled in the art and related fields based on the embodiments of the present invention without inventive effort should fall within the scope of protection of the present invention. Structures, devices, and operating methods not specifically described and explained in the present invention, unless otherwise specified or limited, shall be implemented according to conventional means in the art.

Claims

1. A microbial reaction device, comprising a housing (1), characterized in that, Also includes: Partition (4), said partition (4) is installed inside the housing (1); The control mechanism (5) is installed inside the housing (1). The control mechanism (5) includes an aeration pipe (504) and a second push rod (511). The telescopic end of the second push rod (511) is equipped with a slider (508). The processing mechanism (6) is connected to the control mechanism (5). The processing mechanism (6) includes a frame plate (601). An angle bracket (603) is installed on the outside of the frame plate (601). A filling groove (607) is provided on the top of the angle bracket (603). The second push rod (511) is used to drive the angle bracket (603) and the filling groove (607) to rise and fall through the slider (508). The control mechanism (5) further includes: The slide groove (501) is formed inside the housing (1), the second push rod (511) is installed inside the slide groove (501), and the slider (508) is slidably connected inside the slide groove (501); The groove (503) is formed inside the housing (1). When the second push rod (511) is in the initial state, the corner bracket (603) is in the groove (503). The first through groove (505) is formed inside the slide groove (501); The first push rod (506) is connected to the output end of the motor, and the telescopic end of the first push rod (506) is equipped with a locking plate (507). The second through groove (509) is formed inside the slider (508); An annular groove (510) is formed inside the slider (508). When the first push rod (506) is activated, the first push rod (506) drives the positioning plate (507) to enter the processing mechanism (6) through the second through groove (509) in the slider (508). The positioning plate (507) engages with the processing mechanism (6). The motor drives the first push rod (506) and the positioning plate (507) to deflect, thereby controlling the deflection of the processing mechanism (6). The processing mechanism (6) drives the filling groove (607) to deflect. The frame plate (601) is provided with a limit component (604) inside. The limiting component (604) includes: Card holder (6041), said card holder (6041) is installed inside the frame plate (601); Insert rod (6042), said insert rod (6042) is installed inside the card holder (6041); The third push rod (6043) is installed inside the frame plate (601); A movable plate (6044) is connected to the telescopic end of a third push rod (6043). A fourth through groove (6045) is provided inside the movable plate (6044). Two symmetrically arranged third push rods (6043) control the movable plate (6044) to restrict and control the position of the filling groove (607). At the same time, the relative stroke of the third push rods (6043) on both sides is adjusted. The third push rods (6043) on both sides clamp the filling groove (607) and move it to one side of the frame plate (601). The insertion rod (6042) gradually passes through the fourth through groove (6045) and enters the filling groove (607).

2. The microbial reaction equipment according to claim 1, characterized in that: Also includes: Cover plate (2), said cover plate (2) is installed on top of housing (1); Quick-connect air pipe (3) penetrates the interior of the shell (1) and is connected to the aeration pipe (504); Motor housing (7), the motor housing (7) is installed outside the partition (4), the motor housing (7) is equipped with a motor, and multiple motor housings (7) are provided.

3. The microbial reaction equipment according to claim 2, characterized in that: The control mechanism (5) further includes: Magnetic strip (502) is installed on the outside of the partition (4).

4. The microbial reaction equipment according to claim 3, characterized in that: The processing mechanism (6) further includes: A magnetic block (602) is installed on the outside of the frame plate (601). The magnetic block (602) is used to attract and fix the magnetic strip (502). When the frame plate (601) is not deflected, the frame plate (601) is at the initial angle. Rotary cylinder (608) is rotatably connected inside an annular groove (510). A limit rod (609) is installed inside the rotary cylinder (608). The rotary cylinder (608) is connected to the frame plate (601). The positioning plate (507) contacts the limit rod (609).

5. The microbial reaction apparatus according to claim 4, characterized in that: The processing mechanism (6) further includes: Adjusting component (605), the adjusting component (605) is installed on the outside of the frame plate (601), and a scraping assembly (606) is provided on the outside of the adjusting component (605). The adjusting component (605) is composed of an electric push rod in the horizontal direction and an electric push rod in the vertical direction. An adhesive strip (610) is installed inside the frame plate (601); A limiting groove (611) is provided inside the corner bracket (603); A connecting plate (612) is mounted on the outside of the corner bracket (603); A lifting rod (613) is installed on the top of a connecting plate (612). A cross plate (615) is installed on the top of the lifting rod (613), and a gasket is provided on the top of the cross plate (615). The connecting frame (614) is installed on the outside of the lifting rod (613). When the lifting rod (613) is turned on to the reciprocating motion mode, the lifting rod (613) drives the cross plate (615) and the shim to repeatedly hit the bottom of the filling groove (607). The stroke of the electric push rod in the horizontal direction and the vertical direction in the adjusting component (605) is adjusted, and the adjusting component (605) drives the scraping component (606) to contact the bottom of the filling groove (607).

6. The microbial reaction apparatus according to claim 5, characterized in that: The scraping assembly (606) includes: A funnel-shaped disc (6062) is connected to an adjusting member (605); A flow guide channel (6065) is provided at the bottom of the bucket-shaped plate (6062).

7. The microbial reaction apparatus according to claim 6, characterized in that: The scraping assembly (606) further includes: A base frame (6061) is installed on the outside of the bucket-shaped plate (6062); A limiting block (6063) is installed inside the bottom frame (6061); The scraper (6064) is installed between the two limiting blocks (6063). The adjusting component (605) drives the bottom frame (6061) to move at the bottom of the filling groove (607). The scraper (6064) begins to scrape the filling at the bottom of the filling groove (607) and returns to the position of the adhesive strip (610). Most of the easily detached filling falls into the bottom frame (6061) and the hopper-shaped plate (6062) under the scraping of the scraper (6064).

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