Integrated device for recycling of slaughter and beef processing wastewater

Abstract

The present application relates to the technical field of processing wastewater treatment equipment, in particular to a kind of integrated recycling device of slaughter and beef processing wastewater, including feed connection pipe, bottom support, lead-out pipe and filter plate, also including processing assembly;Processing assembly includes multi-cavity reaction cylinder, rotation guide top disc, flat rotation motor, communication guide frame, dosing component, independent discharge component and sensing component, multi-cavity reaction cylinder is fixedly installed on bottom support, rotation guide top disc is rotatably installed on the top of multi-cavity reaction cylinder, the output shaft of flat rotation motor is connected with rotation guide top disc, flat rotation motor is fixedly installed on the top of multi-cavity reaction cylinder, communication guide frame is rotatably connected with the feed port of feed connection pipe, waste water discharged at different time periods and processes can be classified and stored, then specified type and dosage of medicine are added based on the detection data of different batches of waste water, so that the final waste water treatment effect is better.

Description

Technical Field

[0001] This invention relates to the field of wastewater treatment equipment, and in particular to an integrated reuse device for slaughtering and beef processing wastewater. Background Technology

[0002] Existing integrated wastewater reuse systems for slaughtering and beef processing generally adopt an integrated process route of "mixing and homogenizing in an equalization tank - physicochemical flotation - biochemical (anaerobic / aerobic MBR) - disinfection and reuse". These systems reduce instantaneous water quality fluctuations by uniformly collecting wastewater discharged from each time period and process into a large-volume equalization tank for mechanical stirring or aeration. Then, following a fixed procedure, they sequentially complete coagulation and chemical dosing, anaerobic gas generation and degradation, aerobic membrane separation, and terminal disinfection, ultimately producing reclaimed water that meets industrial reuse or miscellaneous water standards. This method highly integrates pretreatment, biochemical, and membrane separation modules, and has the advantages of small footprint and high degree of automation. It effectively solves the problem of rapid purification and reuse of high-concentration organic pollution and suspended solids in conventional slaughtering wastewater.

[0003] However, existing slaughtering and processing lines undergo different processes within the same batch, such as bleeding, evisceration, oil refining and cutting, and workshop rinsing and disinfection. The composition of impurities in the wastewater discharged at different times varies greatly. High blood water, high oil, high suspended solids and disinfectant-containing rinsing water are mixed in a pulsed manner, causing the water quality in the equalization tank to fluctuate drastically. Existing equipment lacks the ability to classify and identify this differentiated incoming water. It can only operate in a "one-size-fits-all" manner according to a uniform formula of coagulants, alkalinity, carbon sources and other chemicals and fixed treatment parameters. This results in incomplete treatment in the high-load shock section and waste of chemicals in the low-load section, frequent membrane fouling and unstable quality of recycled water. Summary of the Invention

[0004] The purpose of this invention is to provide an integrated recycling device for slaughtering and beef processing wastewater, which can classify and collect wastewater from different time periods and processes, and then add drugs of a specified type and dosage based on the test data of different batches of wastewater, thereby treating different batches of wastewater with large water quality variations in a targeted manner, resulting in better final wastewater treatment effect.

[0005] To achieve the above objectives, the present invention provides an integrated reuse device for slaughtering and beef processing wastewater, including a feed pipe, a base frame, an outlet pipe, and a filter plate. The outlet pipe is disposed at the bottom of the base frame, and the filter plate is fixedly installed inside the base frame. The device also includes a processing component. The processing assembly includes a multi-cavity reaction cylinder, a rotating top plate, a rotating motor, a connecting guide, a drug delivery component, an independent discharge component, and a sensing component. The multi-cavity reaction cylinder is fixedly mounted on the base frame. The feed pipe is connected to the extended support platform of the multi-cavity reaction cylinder. The multi-cavity reaction cylinder has multiple fan-shaped inner cavities evenly arranged. The rotating top plate is rotatably mounted on the top of the multi-cavity reaction cylinder. The output shaft of the rotating motor is connected to the rotating top plate, and the rotating motor is fixedly mounted on the top of the multi-cavity reaction cylinder. The connecting guide is fixedly mounted on the rotating top plate and rotatably connected to the feed port of the feed pipe. Each of the multiple fan-shaped inner cavities of the multi-cavity reaction cylinder has an inlet port that cooperates with the connecting guide. The drug delivery component is connected to the multi-cavity reaction cylinder for adding corresponding drugs. The independent discharge component is connected to the multi-cavity reaction cylinder for discharging waste liquid from the corresponding fan-shaped inner cavity. The sensing component is connected to the multi-cavity reaction cylinder for collecting waste liquid data from the designated fan-shaped inner cavity.

[0006] The drug delivery component includes a top ring sleeve, one-way valve heads, a rotating mechanism, a delivery component, and a drug dispensing component. The top ring sleeve is rotatably mounted on the multi-chamber reaction cylinder. Multiple one-way valve heads are mounted on the top ring sleeve via the delivery component. Each of the fan-shaped inner cavities of the multi-chamber reaction cylinder has a corresponding side hole above it to cooperate with the one-way valve head. The rotating mechanism is connected to the multi-chamber reaction cylinder and drives the top ring sleeve to rotate. The delivery component corresponds to each one-way valve head and controls the extension and retraction of the one-way valve head. The drug dispensing component corresponds to each one-way valve head and completes the dispensing of the corresponding drug solution.

[0007] The independent discharge component includes a sliding section plate and a screw sliding mechanism. The sliding section plate is slidably installed at the bottom of the fan-shaped inner cavity of the multi-cavity reaction cylinder. The screw sliding mechanism is arranged in a one-to-one correspondence with the sliding section plate and is installed at the bottom of the multi-cavity reaction cylinder to drive the corresponding sliding section plate to move.

[0008] The sensing components include a filter frame, a positioning float, and a water quality measuring component. The filter frames are fixedly installed inside the fan-shaped inner cavities of the multi-cavity reaction cylinder. Each filter frame contains a positioning float, which has a corresponding positioning module embedded inside. The water quality measuring component corresponds one-to-one with the fan-shaped inner cavities of the multi-cavity reaction cylinder and is used to detect the wastewater inside the corresponding fan-shaped inner cavities.

[0009] The delivery component includes a side guide and a push cylinder. Each one-way valve head is provided with a side guide, which is slidably connected to the top ring frame. Each side guide is provided with a corresponding push cylinder for driving, and the push cylinder is fixedly installed on the top ring frame.

[0010] The dispensing component includes a liquid medicine storage cylinder, a connecting conduit, and an extrusion mechanism. The liquid medicine storage cylinder is arranged in a one-to-one correspondence with the one-way valve head, and the liquid medicine storage cylinder is installed on the top ring frame. Each liquid medicine storage cylinder is connected to the corresponding one-way valve head through the connecting conduit. Each liquid medicine storage cylinder is provided with the extrusion mechanism for extruding the liquid medicine in the liquid medicine storage cylinder.

[0011] The water quality measuring component includes an outlet guide, a movable plug, a drive cylinder, and a water quality sensor. The outlet guide is fixedly installed on the outer side of the fan-shaped inner cavity of the multi-cavity reaction cylinder. The movable plug is slidably installed on each outlet guide. Each movable plug is driven by a corresponding drive cylinder, which is fixedly installed on the corresponding outlet guide. The water quality sensor is installed at the bottom of each outlet guide, and the sensing probe of the water quality sensor is located inside the outlet guide.

[0012] The water quality measuring component further includes an embedded bend, a flushing fluid outlet pipe, and a control valve. Each movable plug is fixedly equipped with the embedded bend. Each lead-out guide is equipped with the flushing fluid outlet pipe at its bottom. Each flushing fluid outlet pipe is equipped with the control valve, which is used to adjust the flow of the flushing fluid outlet pipe.

[0013] The processing assembly further includes a mounting box, stirring rods, driving bevel gears, drive gear shafts, and a synchronous reciprocating drive component. The mounting box is fixedly mounted on the top of each of the fan-shaped inner cavities of the multi-cavity reaction cylinder. Two stirring rods are rotatably mounted on each mounting box. The driving bevel gear is fixedly mounted on the top of each stirring rod. The drive gear shaft is rotatably mounted inside each mounting box, and the drive gear shaft has two bevel gears, which mesh with the two driving bevel gears respectively. The synchronous reciprocating drive component is connected to the multi-cavity reaction cylinder and is used to drive all the drive gear shafts to rotate back and forth.

[0014] The synchronous reciprocating drive component includes a rotating gear, a drive belt, a guide frame, a slider, a rotating arm, a connecting rod, and a rotating motor. The guide frame is fixedly mounted on the multi-cavity reaction cylinder; the slider is slidably mounted on the guide frame; each drive gear shaft has a rotating gear fixedly mounted on its side; each rotating gear is driven by a corresponding drive belt, and multiple drive belts are fixedly connected to the same slider; the rotating arm is rotatably mounted on the multi-cavity reaction cylinder; one side of the connecting rod is rotatably connected to the slider, and the other side of the connecting rod is rotatably connected to the rotating arm; the output shaft of the rotating motor is connected to the rotating arm, and the rotating motor is fixedly mounted on the multi-cavity reaction cylinder.

[0015] This invention discloses an integrated wastewater recycling device for slaughtering and beef processing. In actual operation, wastewater enters the connecting guide frame from the feed pipe through a corresponding transmission device. The connecting guide frame then guides the wastewater to the corresponding sector-shaped inner cavity of the multi-cavity reaction cylinder. After the first batch of wastewater is introduced, the rotating top plate rotates under the drive of the rotating motor. The rotating top plate then drives the connecting guide frame to rotate, thereby introducing the second batch of wastewater into another sector-shaped inner cavity. The sector-shaped inner cavity where wastewater has been introduced can then be treated by the corresponding sensing component in conjunction with the drug delivery component. When the wastewater in the designated sector-shaped inner cavity... After treatment, the wastewater inside the corresponding fan-shaped inner cavity is discharged through the corresponding independent discharge component. The discharged wastewater is filtered by the filter plate set on the base frame and finally discharged through the outlet pipe. The wastewater inside multiple fan-shaped inner cavities can be independently prepared according to the data sensed by the corresponding sensing component. Then, the corresponding type and dosage of the agent is added through the drug delivery component. This enables the classification and collection of wastewater discharged from different time periods and processes. Then, based on the detection data of different batches of wastewater, the specified type and dosage of the drug are added, thereby providing targeted treatment for different batches of wastewater with large water quality variations, resulting in better final wastewater treatment effect. Attached Figure Description

[0016] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the accompanying drawings used in the description of the embodiments or the prior art will be briefly introduced below.

[0017] Figure 1 This is a schematic diagram of the overall structure of the integrated wastewater reuse device for slaughtering and beef processing of the present invention.

[0018] Figure 2 This is a schematic diagram of the multi-chamber reaction cylinder of the present invention with its side section cut open.

[0019] Figure 3 This is the invention Figure 2 Enlarged view of point A.

[0020] Figure 4 This is a schematic diagram of the mounting structure of the rotating arm of the present invention.

[0021] Figure 5 This is the invention Figure 4 Enlarged view of point B.

[0022] Figure 6 This is a schematic diagram of the multi-chamber reaction cylinder and top ring sleeve structure of the present invention, cut open from the side.

[0023] Figure 7 This is the invention Figure 6 Enlarged view of point C.

[0024] Figure 8 This is a structural schematic diagram of the installation box of the present invention cut open from the side.

[0025] Figure 9 This is the invention Figure 8 Enlarged view of point D.

[0026] Figure 10 This is a schematic diagram of the structure of the lead-out guide frame of the present invention cut out from the side.

[0027] Figure 11 This is the invention Figure 10 Enlarged view of point E.

[0028] Figure 12 This is a schematic diagram of the structure of the lead-out guide and movable plug of the present invention, cut along the side. In the diagram: 101-Feed pipe, 102-Base support frame, 103-Outlet pipe, 104-Filter plate, 105-Multi-chamber reaction cylinder, 106-Rotating guide plate, 107-Horizontal rotating motor, 108-Connecting guide frame, 201-Top ring sleeve, 202-One-way valve head, 203-Rotating mechanism, 301-Sliding section plate, 302-Screw sliding mechanism, 401-Filter screen frame, 402-Positioning float, 501-Side guide frame, 502-Pushing cylinder, 601-Medicine storage cylinder, 602- Connecting conduit, 603-extrusion mechanism, 701-lead guide, 702-movable plug, 703-drive control cylinder, 704-water quality sensor, 705-embedded bend, 706-rinse fluid outlet pipe, 707-control valve, 801-mounting box, 802-stirring rod, 803-drive bevel gear, 804-drive gear shaft, 901-with rotating gear, 902-drive gear belt, 903-guide frame, 904-with slider, 905-rotating arm, 906-connecting rod, 907-rotating motor. Detailed Implementation

[0029] Embodiments of the present invention are described in detail below, examples of which are illustrated in the accompanying drawings, wherein the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the accompanying drawings are exemplary and intended to explain the present invention, and should not be construed as limiting the present invention.

[0030] In the description of this invention, it should be understood that "a plurality of" means two or more, unless otherwise explicitly specified.

[0031] Please see Figures 1 to 12 This invention provides an integrated reuse device for slaughtering and beef processing wastewater: It includes an inlet pipe 101, a base frame 102, an outlet pipe 103, a filter plate 104, and a treatment assembly. The treatment assembly includes a multi-chamber reaction cylinder 105, a rotating top plate 106, a horizontal rotating motor 107, a connecting guide frame 108, a drug delivery component, an independent discharge component, and a sensing component. The drug delivery component includes a top ring frame 201, a one-way valve head 202, a rotating mechanism 203, a delivery component, and a drug dispensing component. The independent discharge component includes a sliding cut-off plate 301 and a lead screw sliding mechanism 302. The sensing component includes a filter screen frame 401, a positioning float 402, and a water quality measuring component. The delivery component includes a side guide frame 501 and a pushing cylinder 502. The drug dispensing component includes a drug storage cylinder 601, a connecting conduit 602, and an extrusion mechanism 603. The water quality measuring component includes… The system includes a guide frame 701, a movable plug 702, a drive control cylinder 703, and a water quality sensor 704. The water quality measurement components also include an embedded bend 705, a flushing fluid outlet pipe 706, and a control valve 707. The aforementioned solution addresses the problem that existing slaughtering and processing lines undergo different processes such as bleeding, viscera treatment, oil refining and cutting, and workshop rinsing and disinfection within the same batch. The composition of impurities in the wastewater discharged at different times varies greatly. High-blood water, high-oil water, high-suspended solids water, and flushing water containing disinfectants are mixed in a pulsed manner, causing the water quality in the equalization tank to fluctuate drastically. Existing devices lack the ability to classify and identify this differentiated incoming water. They can only operate in a "one-size-fits-all" manner according to a uniform formula of coagulants, alkalinity, carbon sources, and other chemicals and fixed treatment parameters. This results in incomplete treatment in the high-load impact section and waste of chemicals in the low-load section, frequent membrane fouling, and unstable recycled water quality.

[0032] Furthermore, the outlet pipe 103 is disposed at the bottom of the base frame 102, the filter plate 104 is fixedly installed inside the base frame 102, the multi-chamber reaction cylinder 105 is fixedly installed on the base frame 102, the feed pipe 101 is connected to the extended support platform provided on the multi-chamber reaction cylinder 105, the multi-chamber reaction cylinder 105 has a plurality of fan-shaped inner cavities evenly arranged, the rotating guide plate 106 is rotatably installed on the top of the multi-chamber reaction cylinder 105, the output shaft of the horizontal rotating motor 107 is connected to the rotating guide plate 106, and the horizontal rotating motor 107 is fixedly installed on the top of the multi-chamber reaction cylinder 105. The connecting guide 108 is fixedly installed on the rotating guide plate 106. The connecting guide 108 is rotatably connected to the feed port of the feed pipe 101. Each of the multiple fan-shaped inner cavities of the multi-cavity reaction cylinder 105 is provided with an inlet that cooperates with the connecting guide 108. The drug delivery component is connected to the multi-cavity reaction cylinder 105 and is used to add the corresponding drug. The independent discharge component is connected to the multi-cavity reaction cylinder 105 and is used to discharge the waste liquid inside the corresponding fan-shaped inner cavity. The sensing component is connected to the multi-cavity reaction cylinder 105 and is used to collect the waste liquid data inside the designated fan-shaped inner cavity.

[0033] In this embodiment, the feed pipe 101 is used in conjunction with the corresponding waste liquid introduction equipment to introduce the processing wastewater that needs to be treated. The multi-cavity reaction cylinder 105 can be set with multiple evenly arranged fan-shaped inner cavities according to the actual processing situation and design requirements. In this solution, the multi-cavity reaction cylinder 105 is set with a total of nine fan-shaped inner cavities, so the introduced liquid can be divided into nine portions according to the introduction time, and then the corresponding subsequent treatment can be carried out based on the wastewater condition inside the different fan-shaped inner cavities.

[0034] The bottom of the fan-shaped inner cavity of the multi-cavity reaction cylinder 105 is provided with a corresponding discharge port. The waste liquid discharged from the bottom of the multiple fan-shaped inner cavities will flow into the base frame 102, and then be filtered by the filter plate 104 provided inside the base frame 102, and then discharged through the outlet pipe 103.

[0035] The feed pipe 101 introduces waste liquid through the connecting guide 108. When the connecting guide 108 guides the waste liquid into the fan-shaped inner cavity of the multi-cavity reaction cylinder 105, the connecting guide 108 can change the corresponding outlet position by rotating the rotating top plate 106. The rotating top plate 106 is driven by the horizontal rotating motor 107, so that the introduced waste liquid can be guided to different fan-shaped inner cavities. Each fan-shaped inner cavity also has a corresponding inlet at the top to cooperate with the connecting guide 108. Moreover, since the connection between the connecting guide 108 and the feed pipe 101 can rotate, the wastewater transmission between the feed pipe 101 and the connecting guide 108 will not be interfered with when the connecting guide 108 rotates with the rotating top plate 106.

[0036] In actual operation, wastewater enters the connecting guide 108 from the feed pipe 101 through a corresponding transmission device. The connecting guide 108 then guides the wastewater to the corresponding fan-shaped inner cavity of the multi-cavity reaction cylinder 105. After the first batch of wastewater is introduced, the rotating top plate 106 rotates under the drive of the horizontal rotating motor 107. The rotating top plate 106 then drives the connecting guide 108 to rotate, thereby introducing the second batch of wastewater into another fan-shaped inner cavity. The fan-shaped inner cavity where wastewater has been introduced can then be treated by the corresponding sensing component in conjunction with the drug delivery component. Once the wastewater in the designated fan-shaped inner cavity has been treated... Wastewater from the corresponding fan-shaped inner cavity is discharged through the corresponding independent discharge component. The discharged wastewater is filtered by the filter plate 104 set on the base frame 102 and finally discharged through the outlet pipe 103. Wastewater from multiple fan-shaped inner cavities can be independently treated according to the data sensed by the corresponding sensing component. Then, the corresponding type and dosage of the drug is added through the drug delivery component. This enables the classification and collection of wastewater discharged from different time periods and processes. Based on the detection data of different batches of wastewater, the specified type and dosage of the drug are added, thereby providing targeted treatment for different batches of wastewater with large water quality variations, resulting in better final wastewater treatment effect.

[0037] Furthermore, the top ring sleeve 201 is rotatably sleeved on the multi-chamber reaction cylinder 105; multiple one-way valve heads 202 are mounted on the top ring sleeve 201 via the delivery component; each of the fan-shaped inner cavities of the multi-chamber reaction cylinder 105 has a corresponding side hole above it to cooperate with the one-way valve head 202; the rotating mechanism 203 is connected to the multi-chamber reaction cylinder 105 and is used to drive the top ring sleeve 201 to rotate; the delivery component is arranged one-to-one with the one-way valve head 202 and is used to control the extension and retraction of the one-way valve head 202; the drug dispensing component is arranged one-to-one with the one-way valve head 202 and is used to complete the dispensing of the corresponding drug solution.

[0038] Furthermore, each of the one-way valve heads 202 is provided with a side guide 501 on its side, and the side guide 501 is slidably connected to the top ring sleeve 201; each of the side guides 501 is provided with a corresponding push cylinder 502 for driving, and the push cylinder 502 is fixedly installed on the top ring sleeve 201.

[0039] Furthermore, the medicine storage cylinder 601 is provided in a one-to-one correspondence with the one-way valve head 202, and the medicine storage cylinder 601 is installed on the top ring sleeve 201; each medicine storage cylinder 601 is connected to the corresponding one-way valve head 202 through the connecting conduit 602; each medicine storage cylinder 601 is provided with the extrusion mechanism 603 for extruding the medicine in the medicine storage cylinder 601.

[0040] In this embodiment, the top ring sleeve 201 is provided with multiple internal through grooves for mounting the one-way valve head 202. The top ring sleeve 201 is driven by the rotating mechanism 203. The rotating mechanism 203 mainly consists of a corresponding gear ring, corresponding gears, and a motor. The gear ring is fixedly installed on the top of the top ring sleeve 201 so that the motor drives the gear to rotate, and then the gear drives the gear ring to rotate, ultimately driving the top ring sleeve 201.

[0041] The side guide 501 on the side of the one-way valve head 202 is driven by the corresponding push cylinder 502, thereby driving the one-way valve head 202. The one-way valve head 202 has a corresponding one-way conduction structure inside, which can realize the one-way extrusion of the liquid medicine. At the same time, each sector-shaped inner cavity is also provided with a corresponding side hole for the one-way valve head 202 to move back and forth. The number of one-way valve heads 202 and their corresponding structures is related to the type of liquid medicine. Multiple one-way valve heads 202 are evenly distributed on the top ring frame 201. By rotating the top ring frame 201, the matching position of the corresponding one-way valve head 202 can be adjusted, thereby enabling the addition of different liquid medicines to the same sector-shaped inner cavity.

[0042] Each of the one-way valve heads 202 is connected to the corresponding medicine storage cylinder 601 through the connecting conduit 602. Each medicine storage cylinder 601 is provided with an extrusion mechanism 603. The extrusion mechanism 603 mainly consists of a corresponding inner plug and a cylinder that drives the inner plug to move. The cylinder drives the corresponding inner plug to move, thereby extruding the medicine in the medicine storage cylinder 601. In this way, the dosage of medicine can be controlled by the movement range of the corresponding inner plug.

[0043] After the waste liquid is introduced into the corresponding sector-shaped inner cavity, the sensing component detects the waste liquid in the designated sector-shaped inner cavity. Based on the detection data, it determines a corresponding type and dosage of medicine to be added. Then, according to the determined medicine addition scheme, the top ring frame 201 is rotated by the belt rotation mechanism 203, so that the corresponding one-way valve head 202 engages with the corresponding sector-shaped inner cavity. Then, the push cylinder 502 drives the corresponding side guide 501 to move, so as to push the corresponding one-way valve head 202 into the designated sector-shaped inner cavity. Finally, the medicine in the designated medicine storage cylinder 601 is squeezed out by the extrusion mechanism 603. After the addition of one medicine is completed, the corresponding one-way valve head 202 will retract back into the top ring frame 201, so that when adding another medicine, the top ring frame 201 can be adjusted in subsequent engagement positions by the belt rotation mechanism 203.

[0044] Furthermore, each of the fan-shaped inner cavities of the multi-cavity reaction cylinder 105 is slidably mounted with a sliding section plate 301; the lead screw sliding mechanism 302 is arranged in a one-to-one correspondence with the sliding section plate 301, and the lead screw sliding mechanism 302 is installed at the bottom of the multi-cavity reaction cylinder 105 to drive the corresponding sliding section plate 301 to move.

[0045] In this embodiment, a sliding section plate 301 is slidably installed at the discharge port at the bottom of each sector-shaped inner cavity. The sliding section plate 301 is driven by a corresponding lead screw sliding mechanism 302. The lead screw sliding mechanism 302 mainly consists of a lead screw and a motor that drives the lead screw to rotate. By moving the corresponding sliding section plate 301, the opening and closing state of the discharge port at the bottom of the specified sector-shaped inner cavity can be controlled. The sliding section plate 301 and the lead screw sliding mechanism 302 at the bottom of each sector-shaped inner cavity are independently controlled. Because the chemical solution combination of the wastewater inside each sector-shaped inner cavity is different, the reaction time will also be different. Therefore, the appropriate discharge of wastewater at the bottom of each sector-shaped inner cavity needs to be judged according to the reaction of the corresponding wastewater inside, so as to ensure the overall treatment effect of multiple batches of wastewater.

[0046] Furthermore, the filter screen frame 401 is fixedly installed inside each of the fan-shaped inner cavities of the multi-cavity reaction cylinder 105; each filter screen frame 401 is equipped with a positioning float 402, and the positioning float 402 is embedded with a corresponding positioning module; the water quality measuring component corresponds one-to-one with the fan-shaped inner cavities of the multi-cavity reaction cylinder 105, and is used to detect the wastewater inside the corresponding fan-shaped inner cavity.

[0047] Furthermore, the multi-chamber reaction cylinder 105 has an outlet guide 701 fixedly installed on the outer side of the fan-shaped inner cavity; each outlet guide 701 has a movable plug 702 slidably installed on it; each movable plug 702 is provided with a corresponding drive cylinder 703 for driving, and the drive cylinder is fixedly installed on the corresponding outlet guide 701; each outlet guide 701 has a water quality sensor 704 at its bottom, and the sensing probe of the water quality sensor 704 is located inside the outlet guide 701.

[0048] In this embodiment, each sector-shaped inner cavity is equipped with a corresponding filter frame 401. A positioning float 402 is installed inside the filter frame 401. A positioning module inside the positioning float 402 can detect its height, allowing for estimation of the dosage of wastewater introduced into the specified sector-shaped inner cavity based on the height of the float. The filter frame 401 prevents large impurities from affecting the suspension state of the positioning float 402 and also limits its floating range to a certain extent, thus influencing the subsequent mixing of wastewater and medicine. It is important to note that the positioning float 402 has a maximum measurement point, which must be lower than the inlet point of the one-way valve head 202. This ensures that when the one-way valve head 202 extrudes the corresponding medicine, wastewater will not flow into the top ring frame 201 through the inner channel of the corresponding sector-shaped inner cavity.

[0049] Each sector-shaped inner cavity is also fitted with a corresponding lead-out guide 701 on its outer wall. The lead-out guide 701 is a "T"-shaped box structure. The movable plug 702 is slidably arranged inside the lead-out guide 701. The movable plug 702 is driven by the corresponding drive cylinder. The water quality sensor 704 is arranged below the lead-out guide 701. The water quality sensor 704 is an existing instrument for measuring water quality data. The sensor measurement probe of the water quality sensor 704 is located in the storage cavity below the lead-out guide 701.

[0050] The movable plug 702 is also provided with the embedded bend 705, and the flushing fluid outlet pipe 706 is provided below the bottom storage cavity of the outlet guide 701. The opening and closing state of the flushing fluid outlet pipe 706 is regulated by the control valve 707.

[0051] When it is necessary to measure the wastewater inside a specified sector-shaped inner cavity, the movable plug 702 will move away from the multi-cavity reaction cylinder 105 via the drive cylinder. At this time, the movable plug 702 is in the pushed-out state, and the wastewater inside the corresponding sector-shaped inner cavity will flow into the outlet guide 701 and finally into the storage cavity of the outlet guide 701, so that the introduced wastewater can be detected by the water quality sensor 704. After the detection is completed, the movable plug 702 will move closer to the multi-cavity reaction cylinder 105. At this time, the movable plug 702 is in the pushed-in state, so as to block the storage cavity at the bottom of the outlet guide 701 from the sector-shaped inner cavity. After the movable plug 702 is fully pushed in, the interface of the embedded bend 705 will be connected to the storage cavity of the outlet guide 701.

[0052] The external interface of the embedded bend 705 is connected to the external flushing device, and the bottom of the flushing fluid outlet pipe 706 is connected to the external flushing fluid collection structure. After the movable plug 702 is fully pushed in, the control valve 707 will open so that the wastewater stored in the storage chamber can be discharged through the flushing fluid outlet pipe 706. At the same time, the embedded bend 705 can also work with the corresponding flushing device to flush the sensing probe of the water quality sensor 704, so that the subsequent detection of the water quality sensor 704 will not be affected by the previous wastewater, thus ensuring the accuracy of the detection data.

[0053] Preferably, the processing component provided by the present invention further includes a mounting box 801, a stirring rod 802, a driving bevel gear 803, a driving gear shaft 804, and a synchronous reciprocating drive component. The synchronous reciprocating drive component includes a rotating gear 901, a driving gear belt 902, a guide frame 903, a slider 904, a rotating arm 905, a connecting rod 906, and a rotating motor 907.

[0054] Furthermore, the top of each fan-shaped inner cavity of the multi-cavity reaction cylinder 105 is fixedly mounted with a mounting box 801; two stirring rods 802 are rotatably mounted on each mounting box 801; a driving bevel gear 803 is fixedly mounted on the top of each stirring rod 802; a driving gear shaft 804 is rotatably mounted inside each mounting box 801, and the driving gear shaft 804 is provided with two bevel gears, which mesh with the two driving bevel gears 803 respectively; the synchronous reciprocating drive component is connected to the multi-cavity reaction cylinder 105 and is used to drive all the driving gear shafts 804 to rotate back and forth.

[0055] In this embodiment, the two stirring rods 802 provided in the installation box 801 can stir the wastewater inside the designated fan-shaped inner cavity, ensuring the consistency of the overall quality of the wastewater. This allows for more accurate subsequent detection of the wastewater and also ensures sufficient reaction and contact between the added medicine and the wastewater.

[0056] The two stirring rods 802 provided on each of the mounting boxes 801 are connected to the corresponding bevel gear on the same drive gear shaft 804 via the corresponding drive bevel gear 803. Therefore, when the corresponding drive gear shaft 804 rotates, the two stirring rods 802 will rotate synchronously, thereby achieving uniform stirring of the wastewater inside the corresponding sector-shaped inner cavity. At the same time, the stirring blades of the stirring rods 802 are inclined downward to prevent waste liquid from adhering to the stirring blades of the corresponding stirring rods 802.

[0057] Furthermore, the guide frame 903 is fixedly mounted on the multi-chamber reaction cylinder 105; the slider 904 is slidably mounted on the guide frame 903; each drive gear shaft 804 has a rotating gear 901 fixedly mounted on its side; each rotating gear 901 is provided with a corresponding drive belt 902 for driving, and multiple drive belts 902 are fixedly connected to the same slider 904; the rotating arm 905 is rotatably mounted on the multi-chamber reaction cylinder 105; one side of the connecting rod 906 is rotatably connected to the slider 904, and the other side of the connecting rod 906 is rotatably connected to the rotating arm 905; the output shaft of the rotating motor 907 is connected to the rotating arm 905, and the rotating motor 907 is fixedly mounted on the multi-chamber reaction cylinder 105.

[0058] In this embodiment, each drive gear 901 on the side of the drive gear shaft 804 is equipped with a corresponding drive belt 902 for driving. All drive belts 902 are connected to the same belt slider 904. The belt slider 904 is slidably mounted on the guide frame 903. At the same time, the belt slider 904 is connected to the rotating arm 905 through the connecting rod 906. The rotating arm 905 is driven by the rotating motor 907.

[0059] When the rotating motor 907 drives the rotating arm 905 to rotate, the connecting rod 906 can cooperate with the rotation of the rotating arm 905 to drive the slider 904 to move up and down on the guide frame 903, thereby realizing the up and down reciprocating drive of all the driving toothed belts 902. When the driving toothed belts 902 move up and down, all the driving toothed shafts 804 can drive the stirring rod 802 to rotate left and right through the corresponding bevel gear transmission mechanism.

[0060] The reciprocating rotation of the stirring rod 802 can better achieve uniform mixing of the wastewater inside the corresponding fan-shaped inner cavity, and at the same time ensure that the added medicine solution and the wastewater inside the fan-shaped inner cavity can have more sufficient contact and reaction.

[0061] The above-disclosed embodiments are merely one or more preferred embodiments of this application and should not be construed as limiting the scope of this application. Those skilled in the art can understand that all or part of the processes for implementing the above embodiments and equivalent changes made in accordance with the claims of this application still fall within the scope of this application.

Claims

1. An integrated reuse device for slaughtering and beef processing wastewater, comprising an inlet pipe, a base frame, an outlet pipe, and filter plates, wherein the outlet pipe is disposed at the bottom of the base frame, and the filter plates are fixedly installed inside the base frame, characterized in that, It also includes processing components; The processing assembly includes a multi-cavity reaction cylinder, a rotating top plate, a horizontal rotating motor, a connecting guide frame, a drug delivery component, an independent discharge component, and a sensing component. The multi-cavity reaction cylinder is fixedly mounted on the base frame. The feed pipe is connected to the extended support platform provided on the multi-cavity reaction cylinder. The multi-cavity reaction cylinder has multiple fan-shaped inner cavities evenly arranged. The rotating top plate is rotatably mounted on the top of the multi-cavity reaction cylinder. The output shaft of the horizontal rotating motor is connected to the rotating top plate, and the horizontal rotating motor is fixedly mounted on the top of the multi-cavity reaction cylinder. The connecting guide frame is fixedly mounted on the rotating top plate and is rotatably connected to the feed port of the feed pipe. Each of the multiple fan-shaped inner cavities of the multi-cavity reaction cylinder has an inlet port that cooperates with the connecting guide frame. The drug delivery component is connected to the multi-cavity reaction cylinder for adding corresponding drugs. The independent discharge component is connected to the multi-cavity reaction cylinder for discharging waste liquid from the corresponding fan-shaped inner cavity. The sensing component is connected to the multi-cavity reaction cylinder for collecting waste liquid data from the designated fan-shaped inner cavity.

2. The integrated wastewater reuse device for slaughtering and beef processing as described in claim 1, characterized in that, The drug delivery component includes a top ring sleeve, one-way valve heads, a rotating mechanism, a delivery component, and a drug dispensing component. The top ring sleeve is rotatably mounted on the multi-chamber reaction cylinder. Multiple one-way valve heads are mounted on the top ring sleeve via the delivery component. Each of the fan-shaped inner cavities of the multi-chamber reaction cylinder has a corresponding side hole above it to cooperate with the one-way valve head. The rotating mechanism is connected to the multi-chamber reaction cylinder and drives the top ring sleeve to rotate. The delivery component corresponds to each one-way valve head and controls the extension and retraction of the one-way valve head. The drug dispensing component corresponds to each one-way valve head and completes the dispensing of the corresponding drug solution.

3. The integrated wastewater reuse device for slaughtering and beef processing as described in claim 1, characterized in that, The independent emission component includes a sliding section plate and a screw sliding mechanism. The sliding section plate is slidably installed at the bottom of the fan-shaped inner cavity of the multi-cavity reaction cylinder. The screw sliding mechanism is arranged in a one-to-one correspondence with the sliding section plate and is installed at the bottom of the multi-cavity reaction cylinder to drive the corresponding sliding section plate to move.

4. The integrated wastewater reuse device for slaughtering and beef processing as described in claim 1, characterized in that, The sensing components include a filter frame, a positioning float, and a water quality measuring component. The filter frames are fixedly installed inside the fan-shaped inner cavities of the multi-cavity reaction cylinder. Each filter frame contains a positioning float, which has a corresponding positioning module embedded inside. The water quality measuring component corresponds one-to-one with the fan-shaped inner cavities of the multi-cavity reaction cylinder and is used to detect the wastewater inside the corresponding fan-shaped inner cavities.

5. The integrated wastewater reuse device for slaughtering and beef processing as described in claim 2, characterized in that, The delivery component includes a side guide and a push cylinder. Each one-way valve head is provided with a side guide, which is slidably connected to the top ring frame. Each side guide is provided with a corresponding push cylinder for driving, and the push cylinder is fixedly installed on the top ring frame.

6. The integrated wastewater reuse device for slaughtering and beef processing as described in claim 2, characterized in that, The dispensing component includes a liquid medicine storage cylinder, a connecting conduit, and an extrusion mechanism. The liquid medicine storage cylinder is arranged in a one-to-one correspondence with the one-way valve head, and the liquid medicine storage cylinder is installed on the top ring frame. Each liquid medicine storage cylinder is connected to the corresponding one-way valve head through the connecting conduit. Each liquid medicine storage cylinder is provided with the extrusion mechanism for extruding the liquid medicine in the liquid medicine storage cylinder.

7. The integrated wastewater reuse device for slaughtering and beef processing as described in claim 4, characterized in that, The water quality measuring component includes an outlet guide, a movable plug, a drive cylinder, and a water quality sensor. The outlet guide is fixedly installed on the outer side of the fan-shaped inner cavity of the multi-cavity reaction cylinder. The movable plug is slidably installed on each outlet guide. Each movable plug is driven by a corresponding drive cylinder, which is fixedly installed on the corresponding outlet guide. The water quality sensor is installed at the bottom of each outlet guide, and the sensing probe of the water quality sensor is located inside the outlet guide.

8. The integrated wastewater reuse device for slaughtering and beef processing as described in claim 7, characterized in that, The water quality measuring component also includes an embedded bend, a flushing fluid outlet pipe, and a control valve. Each movable plug is fixedly equipped with the embedded bend. Each lead-out guide is equipped with the flushing fluid outlet pipe at its bottom. Each flushing fluid outlet pipe is equipped with the control valve, which is used to adjust the flow of the flushing fluid outlet pipe.

9. The integrated wastewater reuse device for slaughtering and beef processing as described in claim 1, characterized in that, The processing assembly further includes a mounting box, stirring rods, driving bevel gears, drive gear shafts, and a synchronous reciprocating drive component. The mounting box is fixedly mounted on the top of each of the fan-shaped inner cavities of the multi-cavity reaction cylinder. Two stirring rods are rotatably mounted on each mounting box. The driving bevel gear is fixedly mounted on the top of each stirring rod. The drive gear shaft is rotatably mounted inside each mounting box, and the drive gear shaft has two bevel gears, which mesh with the two driving bevel gears respectively. The synchronous reciprocating drive component is connected to the multi-cavity reaction cylinder and is used to drive all the drive gear shafts to rotate back and forth.

10. The integrated wastewater reuse device for slaughtering and beef processing as described in claim 9, characterized in that, The synchronous reciprocating drive component includes a rotating gear, a drive belt, a guide frame, a slider, a rotating arm, a connecting rod, and a rotating motor. The guide frame is fixedly mounted on the multi-cavity reaction cylinder; the slider is slidably mounted on the guide frame; each drive gear shaft has a rotating gear fixedly mounted on its side; each rotating gear is driven by a corresponding drive belt, and multiple drive belts are fixedly connected to the same slider; the rotating arm is rotatably mounted on the multi-cavity reaction cylinder; one side of the connecting rod is rotatably connected to the slider, and the other side of the connecting rod is rotatably connected to the rotating arm; the output shaft of the rotating motor is connected to the rotating arm, and the rotating motor is fixedly mounted on the multi-cavity reaction cylinder.

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