An intelligent epidemic prevention and disinfection device based on aquaculture and a disinfection method thereof

Abstract

The invention provides an intelligent epidemic prevention and disinfection device based on the breeding industry and a disinfection method thereof. Disinfectant is input through a disinfectant inlet pipe, and is input into a filter tank through a C-type connecting pipe to filter the disinfectant. During the filtering process, impurities in the disinfectant can be filtered through a filter net arranged in the filter tank, and the added disinfectant can be dispersed through a disinfectant dispersion dense net arranged in a disinfectant adding tank. After being dispersed in the disinfectant dispersion dense net, the disinfectant is dispersed to the bottom through a disinfectant dispersion loose net, which effectively improves the addition effect of the disinfectant additive. The disinfectant in the disinfectant adding tank is transported to an output pipe through an L-type connecting pipe, transported to a disinfectant spray buffer tank through the output pipe, transported to a disinfectant spray pipe through the disinfectant spray buffer tank, and transported to a spray nozzle through the disinfectant spray pipe to automatically atomize and spray disinfect the breeding livestock pens.

Description

Technical Field

[0001] The present invention relates to the field of aquaculture, and in particular to an intelligent epidemic prevention and disinfection device based on aquaculture and a disinfection method thereof. Background Art

[0002] The breeding industry is a production sector that obtains livestock products such as meat, eggs, milk, wool and medicinal materials by artificially raising and breeding livestock and poultry, converting plant energy such as forage and feed into animal energy. For example, in livestock breeding, during the breeding process, especially in summer, livestock and poultry are prone to disease outbreaks. At this time, breeders need to disinfect the livestock and poultry pens regularly.

[0003] However, the existing disinfection devices for aquaculture have some shortcomings in the disinfection process that need to be improved. First of all, the existing disinfection devices require farmers to spray and disinfect one by one. The spraying efficiency is relatively low, and intelligent automatic epidemic prevention and disinfection cannot be achieved. Secondly, the existing disinfection devices are not convenient for adding different disinfectants according to different species of livestock and poultry, and cannot accurately disinfect livestock and poultry of different species. Moreover, the existing epidemic prevention and disinfection devices lack filtering mechanisms during use, which makes it easy for impurities in the disinfectant to clog the disinfection nozzle, thereby affecting the service life of the disinfection device. Therefore, we have made improvements to this and proposed an intelligent epidemic prevention and disinfection device based on the aquaculture industry and a disinfection method thereof. Summary of the invention

[0004] The purpose of the present invention is to address the problems raised by the existing background technology. In order to achieve the above invention purpose, the present invention provides the following technical solutions: an intelligent epidemic prevention and disinfection device based on aquaculture, comprising a supporting chassis and a tank support frame arranged above the supporting chassis, a disinfectant adding tank and a filter tank are placed at the left and right ends of the tank support frame, a disinfectant dispersion dense net is provided at the top of the disinfectant adding tank, and a disinfectant dispersion loose net is connected to the bottom, a disinfectant filler feed pipe is embedded in the upper inlet of the disinfectant adding tank, a disinfectant sedimentation drain pipe is provided at the bottom outlet of the disinfectant adding tank, and a drain pipe valve is provided on the outer pipe of the disinfectant sedimentation drain pipe.

[0005] As a preferred technical solution of the present invention, a filter screen is installed inside the filter tank, and the filter screen is in the shape of a honeycomb screen.

[0006] As a preferred technical solution of the present invention, a C-shaped connecting pipe is embedded in the top inlet of the filter tank, and a corner connecting pipe is provided on the bottom outlet flow channel. The other end of the C-shaped connecting pipe is connected to a disinfectant inlet pipe, a pipe valve is provided on the outer tube of the disinfectant inlet pipe, and a support rod is embedded under the disinfectant inlet pipe.

[0007] As a preferred technical solution of the present invention, a delivery pipe is provided at the flow opening of the corner connecting pipe, and the other end of the delivery pipe is embedded in the disinfectant adding tank to provide disinfectant liquid to the inside of the disinfectant adding tank.

[0008] As a preferred technical solution of the present invention, a blockage inspection pipe is provided on the outer pipe at the center end of the delivery pipe, and an inspection pipe valve is connected to the outer pipe of the blockage inspection pipe.

[0009] As a preferred technical solution of the present invention, the right side pipe of the disinfectant adding tank is connected to an L-shaped connecting pipe, the flow outlet of the L-shaped connecting pipe is embedded with an output pipe, the other end of the output pipe is embedded with a disinfectant spray pipe, and the disinfectant spray pipe has a horizontal "L" shape, and a disinfectant spray buffer tank is arranged at the longitudinal pipe of the disinfectant spray pipe.

[0010] As a preferred technical solution of the present invention, a spray nozzle is embedded in the transverse pipe of the disinfectant spray pipe, and there are five spray nozzles, which are arranged in a linear array below the disinfectant spray pipe, and a spray head cover is nested at each spray nozzle.

[0011] An intelligent epidemic prevention and disinfection method based on aquaculture includes the following steps: Step 1: When performing epidemic prevention and disinfection on a breeding shed of the aquaculture industry, firstly install the device in the breeding shed, and install the spray nozzle pair provided on the disinfectant spray pipe above each breeding animal pen, input disinfectant through the disinfectant liquid inlet pipe, and control the valve switch through the pipe valve provided on the outer pipe;

[0012] Step 2: The disinfectant is transported to the C-type connecting pipe through the disinfectant inlet pipe, and then input into the filter tank through the C-type connecting pipe to filter the disinfectant. During the filtering process, impurities in the disinfectant can be filtered through the filter screen provided in the filter tank;

[0013] Step three, transport it to the delivery pipe through the corner connecting pipe, and then transport it to the disinfectant adding tank through the delivery pipe. The added disinfectant can be dispersed through the disinfectant dispersion dense net set in the disinfectant adding tank. After being dispersed in the disinfectant dispersion dense net, it is dispersed to the bottom through the disinfectant dispersion loose net, which effectively improves the adding effect of the disinfectant additive.

[0014] As a preferred technical solution of the present invention, step four, the disinfectant in the disinfectant addition tank is transported to the output pipe through an L-shaped connecting pipe, and then transported to the disinfectant spray buffer tank through the output pipe, and then transported to the disinfectant spray pipe through the disinfectant spray buffer tank, and then transported to the spray nozzle through the disinfectant spray pipe for automatic atomization spray disinfection of the breeding livestock pens.

[0015] As a preferred technical solution of the present invention, step five, a blockage inspection tube is provided on the outer tube at the center end of the conveying pipe. When the pipeline is blocked, the blockage inspection tube valve is opened to see if there is water leakage to determine whether the front half of the pipeline or the back half of the pipeline is blocked. When unblocking, high-pressure water can be input into the blockage inspection tube to flush and clean the pipeline.

[0016] Compared with the prior art, the present invention has the following beneficial effects:

[0017] In the scheme of the present invention:

[0018] 1. The disinfectant is input through the disinfectant inlet pipe, and the valve switch is controlled by the pipe valve provided on the outer tube. The disinfectant is input into the filter tank through the C-type connecting pipe to filter the disinfectant. During the filtering process, impurities in the disinfectant can be filtered through the filter net provided in the filter tank, thereby preventing impurities in the disinfectant from clogging the disinfection nozzle and improving the service life of the disinfection device.

[0019] 2. It is transported to the delivery pipe through the corner connecting pipe, and then transported to the disinfectant adding tank through the delivery pipe. The added disinfectant can be dispersed through the disinfectant dispersion dense net set in the disinfectant adding tank. After being dispersed in the disinfectant dispersion dense net, it is dispersed to the bottom through the disinfectant dispersion loose net, which effectively improves the adding effect of the disinfectant additive and can accurately disinfect livestock and poultry of different species.

[0020] 3. When carrying out epidemic prevention and disinfection on breeding sheds of the breeding industry, the device is installed in the breeding shed, and the spray nozzle arranged on the disinfectant spray pipe is installed above each breeding animal pen. The disinfectant is sprayed through the disinfectant spray buffer tank and then transported to the disinfectant spray pipe, and then transported to the spray nozzle through the disinfectant spray pipe for automatic atomization spray disinfection of the breeding animal pen. Multiple breeding animal pens can be sprayed and disinfected at the same time, thereby improving the efficiency of spraying disinfection.

[0021] 4. A blockage inspection tube is provided on the outer tube at the center end of the delivery pipe. When the pipeline is blocked, the valve of the blockage inspection tube can be opened to see if there is water leakage to determine whether the front half of the pipeline or the back half of the pipeline is blocked. When unblocking, high-pressure water can be input into the blockage inspection tube to flush and clean the pipeline. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 A schematic diagram of the structure provided by the present invention;

[0023] Figure 2 A schematic diagram of a local structure provided by the present invention;

[0024] Figure 3 A schematic diagram of the structure of the disinfectant spray pipe provided by the present invention;

[0025] Figure 4 This is a schematic diagram of the structure of the spray nozzle provided by the present invention.

[0026] Indicated in the figure:

[0027] 1. Support chassis; 2. Tank support frame; 3. Disinfectant adding tank; 4. Disinfectant dispersion dense net; 5. Disinfectant dispersion loose net; 6. Disinfectant filler feed pipe; 7. Disinfectant sedimentation drain pipe; 8. Drain pipe valve; 9. Filter tank; 10. Filter net; 11. C-type connecting pipe; 12. Corner connecting pipe; 13. Disinfectant inlet pipe; 14. Pipe valve; 15. Support rod; 16. Delivery pipe; 17. Blockage inspection pipe; 18. Inspection pipe valve; 19. L-type connecting pipe; 20. Output pipe; 21. Disinfectant spray pipe; 22. Disinfectant spray buffer tank; 23. Spray nozzle; 24. Nozzle cover. DETAILED DESCRIPTION

[0028] To make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be described clearly and completely in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of them.

[0029] Therefore, the following detailed description of the embodiments of the present invention is not intended to limit the scope of the claimed invention, but merely represents some embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention. It should be noted that the embodiments of the present invention and the features and technical solutions in the embodiments can be combined with each other without conflict. It should be noted that similar numbers and letters represent similar items in the following drawings. Therefore, once an item is defined in one drawing, it does not need to be further defined and explained in subsequent drawings.

[0030] Example 1: Please refer to Figure 1-4 , an intelligent epidemic prevention and disinfection method based on aquaculture, comprising the following steps: Step 1, when performing epidemic prevention and disinfection on a breeding shed of the aquaculture industry, firstly install the device in the breeding shed, and install the spray nozzles 23 arranged on the disinfectant spray pipe 21 above each breeding animal pen, input the disinfectant through the disinfectant inlet pipe 13, and control the valve switch through the pipe valve 14 arranged on the outer pipe;

[0031] Step 2: The disinfectant is transported to the C-type connecting pipe 11 through the disinfectant inlet pipe 13, and then input into the filter tank 9 through the C-type connecting pipe 11 to filter the disinfectant. During the filtering process, the impurities in the disinfectant can be filtered through the filter screen 10 provided in the filter tank 9;

[0032] Step three, transport it to the delivery pipe 16 through the corner connecting pipe 12, and then transport it to the disinfectant adding tank 3 through the delivery pipe 16. The added disinfectant can be dispersed through the disinfectant dispersion dense net 4 set in the disinfectant adding tank 3. After being dispersed in the disinfectant dispersion dense net 4, it is dispersed to the bottom through the disinfectant dispersion loose net 5, which effectively improves the adding effect of the disinfectant additive.

[0033] Step 4: The disinfectant in the disinfectant adding tank 3 is transported to the output pipe 20 through the L-shaped connecting pipe 19, and then transported to the disinfectant spray buffer tank 22 through the output pipe 20, and then transported to the disinfectant spray pipe 21 through the disinfectant spray buffer tank 22, and then transported to the spray nozzle 23 through the disinfectant spray pipe 21 to automatically atomize and spray disinfect the breeding livestock pens.

[0034] Step 5. When the pipeline is blocked, a blockage inspection tube 17 is provided on the outer tube at the center end of the delivery pipe 16. By opening the blockage inspection tube 17 and checking the pipe valve 18 to see if there is water leakage, it can be determined whether the front half of the pipeline or the back half of the pipeline is blocked. When unblocking, high-pressure water can be input into the blockage inspection tube 17 to flush and clean the pipeline.

[0035] An intelligent epidemic prevention and disinfection device based on aquaculture comprises a supporting chassis 1 and a tank support frame 2 arranged above the supporting chassis 1, a disinfectant adding tank 3 and a filter tank 9 are respectively placed at the left and right ends of the tank support frame 2, a disinfectant dispersion dense net 4 is arranged at the top of the disinfectant adding tank 3, and a disinfectant dispersion loose net 5 is connected to the bottom, a disinfectant filler feed pipe 6 is embedded in the upper inlet of the disinfectant adding tank 3, a disinfectant sedimentation drain pipe 7 is arranged at the outlet of the bottom surface of the disinfectant adding tank 3, and a drain pipe valve 8 is arranged on the outer pipe of the disinfectant sedimentation drain pipe 7.

[0036] A filter screen 10 is installed inside the filter tank 9, and the filter screen 10 is in the shape of a honeycomb net. A C-shaped connecting pipe 11 is embedded in the top inlet of the filter tank 9, and a corner connecting pipe 12 is arranged on the bottom outlet flow channel. The other end of the C-shaped connecting pipe 11 is connected to a disinfectant liquid inlet pipe 13, and a pipe valve 14 is arranged on the outer pipe of the disinfectant liquid inlet pipe 13. A support rod 15 is embedded below the disinfectant liquid inlet pipe 13.

[0037] The flow port of the corner connecting pipe 12 is provided with a delivery pipe 16, and the other end of the delivery pipe 16 is embedded in the disinfectant adding tank 3 to provide disinfectant for the disinfectant adding tank 3. A blockage inspection pipe 17 is provided on the outer pipe at the center end of the delivery pipe 16, and a check pipe valve 18 is connected to the outer pipe of the blockage inspection pipe 17. An L-shaped connecting pipe 19 is connected to the right pipeline of the disinfectant adding tank 3, and an output pipe 20 is embedded in the flow outlet of the L-shaped connecting pipe 19, and a disinfectant spraying pipe 21 is embedded in the other end of the output pipe 20, and the shape of the disinfectant spraying pipe 21 is a horizontal "L" shape, and a disinfectant spraying buffer tank 22 is provided at the longitudinal pipeline of the disinfectant spraying pipe 21.

[0038] A spray nozzle 23 is embedded in the transverse pipe of the disinfectant spray pipe 21, and there are five spray nozzles 23, which are arranged in a linear array below the disinfectant spray pipe 21, and a spray head cover 24 is nested at the nozzle of each spray nozzle 23.

[0039] During the use of the present invention, when the breeding greenhouse of the breeding industry is disinfected for epidemic prevention, the device is first installed in the breeding greenhouse, and the spray nozzles 23 arranged on the disinfectant spray pipe 21 are installed above each breeding animal pen, the disinfectant is input through the disinfectant inlet pipe 13, and the valve switch is controlled by the pipe valve 14 arranged on the outer pipe; the disinfectant is transported to the C-type connecting pipe 11 through the disinfectant inlet pipe 13, and is input into the filter tank 9 through the C-type connecting pipe 11 to filter the disinfectant. During the filtering process, impurities in the disinfectant can be filtered through the filter net 10 arranged in the filter tank 9; it is transported to the delivery pipe 16 through the corner connecting pipe 12, and is transported to the disinfectant adding tank 3 through the delivery pipe 16. The added disinfectant can be dispersed through the disinfectant dispersion dense net 4 arranged in the disinfectant adding tank 3. After being dispersed in the disinfectant dispersion dense net 4, it is dispersed to the bottom through the disinfectant dispersion loose net 5, which effectively improves the adding effect of the disinfectant additive. The disinfectant in the disinfectant adding tank 3 is then transported to the output pipe 20 through the L-shaped connecting pipe 19, and then transported to the disinfectant spray buffer tank 22 through the output pipe 20, and then transported to the disinfectant spray pipe 21 through the disinfectant spray buffer tank 22, and then transported to the spray nozzle 23 through the disinfectant spray pipe 21 to automatically spray and disinfect the breeding livestock pen. When the pipeline is blocked, the blockage inspection pipe 17 is provided on the outer pipe at the center end of the delivery pipe 16. By opening the blockage inspection pipe 17 to check whether the pipe valve 18 is leaking, it can be judged whether the front half of the pipeline is blocked or the back half of the pipeline is blocked. When unblocking, high-pressure water can be input into the blockage inspection pipe 17 to flush and clean the pipeline.

[0040] The above embodiments are only used to illustrate the present invention and are not intended to limit the technical solutions described in the present invention. Although the present invention has been described in detail with reference to the above embodiments, the present invention is not limited to the above specific implementation methods. Therefore, any modification or equivalent replacement of the present invention; and all technical solutions and improvements thereof that do not depart from the spirit and scope of the invention are included in the scope of the claims of the present invention.

Claims

1. An intelligent epidemic prevention and disinfection device based on the aquaculture industry, comprising a supporting chassis (1), and a tank support frame (2) arranged above the supporting chassis (1), characterized in that: A disinfectant adding tank (3) and a filter tank (9) are respectively placed at the left and right ends of the tank support frame (2); a disinfectant dispersing dense net (4) is provided at the top of the disinfectant adding tank (3), and a disinfectant dispersing loose net (5) is connected at the bottom; a disinfectant filler feeding pipe (6) is embedded in the upper inlet of the disinfectant adding tank (3); a disinfectant sedimentation drain pipe (7) is provided at the bottom outlet of the disinfectant adding tank (3), and a drain pipe valve (8) is provided on the outer pipe of the disinfectant sedimentation drain pipe (7); A filter screen (10) is installed inside the filter tank (9), and the filter screen (10) is in the shape of a honeycomb screen; The top inlet of the filter tank (9) is embedded with a C-shaped connecting pipe (11), and the bottom outlet flow channel is provided with a corner connecting pipe (12); the other end of the C-shaped connecting pipe (11) is connected to a disinfectant liquid inlet pipe (13); a pipe valve (14) is provided on the outer pipe of the disinfectant liquid inlet pipe (13); and a support rod (15) is embedded below the disinfectant liquid inlet pipe (13); The flow opening of the corner connecting pipe (12) is provided with a delivery pipe (16), and the other end of the delivery pipe (16) is embedded in the disinfectant adding tank (3); A blockage inspection pipe (17) is provided on the outer pipe at the central end of the delivery pipe (16), and an inspection pipe valve (18) is connected to the outer pipe of the blockage inspection pipe (17); The right side pipeline of the disinfectant adding tank (3) is connected to an L-shaped connecting pipe (19), the flow outlet of the L-shaped connecting pipe (19) is embedded with an output pipe (20), the other end of the output pipe (20) is embedded with a disinfectant spraying pipe (21), and the disinfectant spraying pipe (21) is lateral "L" shaped, and a disinfectant spraying buffer tank (22) is arranged at the longitudinal pipeline of the disinfectant spraying pipe (21).

2. According to claim 1, the intelligent epidemic prevention and disinfection device based on aquaculture is characterized in that: A spray nozzle (23) is embedded in the transverse pipe of the disinfectant spray pipe (21), and five spray nozzles (23) are provided, which are arranged in a linear array below the disinfectant spray pipe (21), and a spray nozzle cover (24) is embedded in the nozzle of each spray nozzle (23).

3. An intelligent epidemic prevention and disinfection method based on an intelligent epidemic prevention and disinfection device for aquaculture according to claim 1, characterized in that: The following steps are involved: Step 1: When disinfecting a breeding shed for epidemic prevention, the device is first installed in the breeding shed, and the spray nozzle (23) provided on the disinfectant spray pipe (21) is installed above each breeding animal pen, and the disinfectant is input through the disinfectant inlet pipe (13), and the valve switch is controlled by the pipe valve (14) provided on the outer pipe; Step 2: The disinfectant is transported to the C-shaped connecting pipe (11) through the disinfectant inlet pipe (13), and is input into the filter tank (9) through the C-shaped connecting pipe (11) to filter the disinfectant. During the filtering process, impurities in the disinfectant are filtered through the filter screen (10) provided in the filter tank (9); Step 3: transporting the disinfectant to the delivery pipe (16) through the corner connecting pipe (12), and then transporting the disinfectant to the disinfectant adding tank (3) through the delivery pipe (16); the added disinfectant can be dispersed through the disinfectant dispersion dense net (4) provided in the disinfectant adding tank (3); after being dispersed in the disinfectant dispersion dense net (4), the disinfectant is dispersed to the bottom through the disinfectant dispersion loose net (5); Step 4: The disinfectant in the disinfectant adding tank (3) is transported to the output pipe (20) through the L-shaped connecting pipe (19), transported to the disinfectant spray buffer tank (22) through the output pipe (20), transported to the disinfectant spray pipe (21) through the disinfectant spray buffer tank (22), and transported to the spray nozzle (23) through the disinfectant spray pipe (21) to automatically spray and disinfect the breeding livestock pens; Step 5: When the pipeline is blocked, a blockage inspection pipe (17) is provided on the outer pipe at the center end of the delivery pipe (16). By opening the blockage inspection pipe (17) and checking the pipe valve (18) to see if there is water leakage, it can be determined whether the front half of the pipeline is blocked or the back half of the pipeline is blocked. When unblocking, high-pressure water can be input into the blockage inspection pipe (17) to flush and clean the pipeline.

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