Intelligent disease-resistant poultry breeding water supply system

Abstract

The invention discloses an intelligent disease-resistant water supply system for poultry farming, and relates to the field of poultry farming, the intelligent disease-resistant water supply system comprises two support frames, a water supply pipe horizontally penetrates through the two support frames, the water supply pipe is fixedly connected with the two support frames, the right end of the water supply pipe is sealed, and the left end of the water supply pipe is communicated with a water inlet pipe; each water feeding mechanism comprises a buffer cylinder fixedly connected to the lower end of the water supply pipe, the front side of each buffer cylinder is fixedly connected with a first connecting plate and a second connecting plate, each second connecting plate is located below the corresponding first connecting plate, and a rotating shaft is vertically arranged on each second connecting plate in a penetrating mode; and the rotating shaft is rotationally connected with the second connecting plate through a bearing. According to the breeding system, through automatic water supply and water change operation, the cleanliness of a water body is guaranteed, the influence of an unclean water body on poultry is avoided, in addition, the pipeline part further has good protection performance, and the situation that the pipeline is damaged due to the water hammer effect is avoided.

Description

Technical Field

[0001] This invention relates to the field of poultry farming, and more particularly to an intelligent water supply system for disease-resistant poultry farming. Background Technology

[0002] In the traditional poultry farming industry, the water supply system is a crucial element in ensuring the healthy growth of poultry. However, existing poultry farming water supply methods have many drawbacks; On the one hand, most farms still use manual water supply. Manual operation is not only labor-intensive and inefficient, but also makes it difficult to change the water in a timely and accurate manner, and cannot guarantee that the water is always clean. Unclean water is prone to breeding pathogens such as bacteria, viruses and parasites. Poultry that drink it are very likely to develop various diseases, such as intestinal infections and respiratory diseases, which seriously affect the growth, development and health of poultry, and thus reduce the efficiency of farming. On the other hand, there is a lack of effective protective measures in the design of water supply pipelines. When the water supply system starts or stops, the rapid change in water flow velocity will generate a water hammer effect. The huge pressure impact generated by the water hammer effect can cause serious damage to the pipelines, leading to frequent problems such as pipeline rupture and leakage. This not only wastes water resources and increases breeding costs, but also affects the continuity and stability of the water supply, causing great inconvenience to poultry farming. Summary of the Invention

[0003] The purpose of this invention is to address the shortcomings of existing technologies by proposing an intelligent disease-resistant poultry farming water supply system. This system ensures the cleanliness of the water through automated water supply and exchange operations, preventing unclean water from affecting the poultry. In addition, the pipeline section has good protection to prevent water hammer effects from causing pipeline damage.

[0004] To achieve the above objectives, the present invention adopts the following technical solution: An intelligent disease-resistant poultry farming water supply system includes two support frames, with a water supply pipe horizontally running through both support frames. The water supply pipe is fixedly connected to both support frames. The right end of the water supply pipe is sealed, and the left end of the water supply pipe is connected to an inlet pipe. Several feeding mechanisms are included, each comprising a buffer cylinder fixedly connected to the lower end of the water supply pipe. A first connecting plate and a second connecting plate are fixedly connected to the front of the buffer cylinder. The second connecting plate is located below the first connecting plate. A rotating shaft is vertically running through the second connecting plate and rotatably connected to the second connecting plate via a bearing. A support plate is fixedly connected to the upper end of the second connecting plate. The upper end of the device passes through a support plate and is fixedly connected to a rotating plate. The lower end of the rotating plate contacts and is slidably connected to the support plate. Three water storage channels are fixedly connected at equal intervals in a circular shape at the upper end of the rotating plate. A rotating pipe is vertically installed through the first connecting plate and is rotatably connected to the first connecting plate. The lower end of the rotating pipe is sealed. An L-shaped drain pipe is connected to the outer side of the lower end of the rotating pipe. A rotary joint is installed at the upper end of the rotating pipe, and the other end of the rotary joint is connected to the water supply pipe through a connecting pipe. Multiple buffer mechanisms are used to reduce the impact of water hammer on the pipeline. Multiple adjustment mechanisms are used to realize automatic water replacement.

[0005] Preferably, a support plate is fixedly connected between the two support frames, and a wastewater tank is fixedly connected to the upper end of the support plate.

[0006] Preferably, each of the rotating disks is fixedly connected to a vertical rod at its upper end, and each of the vertical rods is fixedly connected to a magnetic block at its upper end. Each rotating pipe is connected to an L-shaped drain pipe with a first solenoid valve installed at the connection point. Each first solenoid valve is matched with a corresponding magnetic block. Each of the first connecting plates is fixedly connected to a torsion spring at its upper end, and the other end of each torsion spring is fixedly connected to the outside of the rotating pipe.

[0007] Preferably, a rubber sealing ring is installed on the inner side of each water storage channel where it contacts the support plate, and a circular opening is provided on each support plate, with each circular opening cooperating with the corresponding water storage channel.

[0008] Preferably, the buffer mechanism includes a first piston plate slidably connected inside the buffer cylinder, the lower end of the first piston plate being elastically connected to the inner bottom of the buffer cylinder via a first spring, and the buffer cylinder being connected to the water supply pipe via a connecting port.

[0009] Preferably, the adjusting mechanism includes an adjusting cylinder fixedly connected to the lower end of the second connecting plate. A second piston plate that can slide back and forth is provided inside the adjusting cylinder. The rear side of the second piston plate is elastically connected to the rear side wall of the adjusting cylinder through a second spring. The inner bottom space of the buffer cylinder is connected to the outside through a one-way port. The inner bottom space of the buffer cylinder is connected to the rear space of the adjusting cylinder through a one-way tube. A rack is fixedly connected to the front side of the second piston plate. A gear is rotatably connected to the lower end of the rotating shaft through a one-way bearing. The rack meshes with the gear. A U-shaped guide strip is fixedly connected to the front side of the rack. A guide groove is opened on the front side of the adjusting cylinder. The other end of the U-shaped guide strip extends into the guide groove and is slidably connected.

[0010] Preferably, both the one-way port and the one-way pipe are equipped with one-way valves. The one-way valve inside the one-way port allows the flow to enter the bottom space of the buffer cylinder from the outside in one direction, and the one-way valve inside the one-way pipe allows the flow to enter the rear space of the regulating cylinder from the buffer cylinder in one direction.

[0011] Preferably, the lower end of the adjusting cylinder is connected to a release tube, and the other end of the release tube is fixedly connected to a temporary storage cylinder. The release tube is connected to the temporary storage cylinder, and a third piston plate that can slide up and down is provided inside the temporary storage cylinder. The lower end of the third piston plate is elastically connected to the inner bottom of the temporary storage cylinder through a third spring. The inner bottom of the temporary storage cylinder is connected to the outside through an air hole. A hollow ring is fixedly connected to the inner side of the circular opening, and an annular through groove is provided on the inner side of the hollow ring. The top space of the temporary storage cylinder is connected to the hollow ring through a release tube.

[0012] Preferably, the stiffness coefficient of the second spring is greater than that of the third spring, and a second solenoid valve is installed inside the release tube, the second solenoid valve opening and closing synchronously with the first solenoid valve.

[0013] Compared with the prior art, the beneficial effects of this invention are as follows: 1. During water supply, clean water is accurately introduced into the water storage trough for poultry to drink, while residual contaminated water from the previous supply is promptly discharged. Regularly supplying fresh water and removing wastewater ensures that poultry always have access to clean water, reducing disease incidence and improving farming efficiency.

[0014] 2. When the first solenoid valve is activated, its internal electromagnet and magnetic block attract each other, causing the rotating pipe to rotate with the rotating disc, and the torsion spring ensures reset. This design ensures that the L-shaped drain pipe accurately aligns with the water storage channel during water supply, resulting in stable and reliable water supply operation and improving the accuracy of system operation.

[0015] 3. Utilizing the small stiffness coefficient of the second spring and the thinness of the release tube, the gas in the regulating cylinder accumulates and pushes the third piston plate downward. The gas is slowly released through the release tube to the hollow ring to form an airflow, which can dry the residual water in the round opening and the inner wall of the water storage trough, effectively preventing bacterial growth and improving the breeding environment.

[0016] 4. When the first solenoid valve closes and generates a water hammer effect, the first piston plate inside the buffer cylinder reciprocates under the action of the first spring, buffering the force generated by the water hammer and reducing the possibility of pipeline damage. At the same time, the downward movement of the first piston plate can also force gas into the regulating cylinder, preparing for the next operation and extending the service life of the pipeline.

[0017] In summary, all components of the entire system work together in an orderly and repetitive manner, from water supply and water exchange to rotation coordination, airflow drying, and water hammer buffering. This eliminates the need for excessive human intervention, enabling timed and intelligent water supply, reducing labor intensity, and improving the level of intelligence and efficiency in poultry farming. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the structure of an intelligent disease-resistant poultry farming water supply system proposed in this invention; Figure 2 for Figure 1 Front view; Figure 3 This is a schematic diagram of one of the water feeding mechanisms; Figure 4 for Figure 3 A cross-sectional schematic diagram; Figure 5 for Figure 4 Enlarged view of point A; Figure 6 for Figure 3 A bottom view; Figure 7 for Figure 4 The diagram on the left.

[0019] In the diagram: 1. Support frame; 2. Water supply pipe; 3. Inlet pipe; 4. Support plate; 5. Wastewater tank; 6. Buffer cylinder; 7. Connecting port; 8. First connecting plate; 9. Connecting pipe; 10. Rotary joint; 11. Second connecting plate; 12. Support plate; 13. Rotating plate; 14. Water storage channel; 15. L-shaped drain pipe; 16. First piston plate; 17. First spring; 18. One-way port; 19. One-way pipe; 20. Torque. 21. Force spring; 22. Rotating tube; 23. Temporary storage tube; 24. Release thick tube; 25. Adjusting tube; 26. Second piston plate; 27. Rack; 28. Rotating shaft; 29. ​​Gear; 30. U-shaped guide bar; 31. Second spring; 32. Third piston plate; 33. Third spring; 34. Release thin tube; 35. Round opening; 36. Air hole; 37. Vertical rod; 38. Magnetic block; 39. Rubber sealing ring; 30. Hollow ring. Detailed Implementation

[0020] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention.

[0021] Reference Figures 1-7 An intelligent disease-resistant poultry farming water supply system includes two support frames 1, with a water supply pipe 2 horizontally running through both support frames 1. The water supply pipe 2 is fixedly connected to both support frames 1. The right end of the water supply pipe 2 is sealed, and the left end of the water supply pipe 2 is connected to an inlet pipe 3, which is connected to an external water supply system. Subsequently, water supply can be performed when multiple first solenoid valves are activated. A support plate 4 is fixedly connected between the two support frames 1, and a wastewater tank 5 is fixedly connected to the upper end of the support plate 4. Furthermore, a wastewater pipe can be connected to the bottom of the wastewater tank 5, which can conveniently discharge wastewater directly to the subsequent wastewater treatment plant. In one embodiment of the present invention, several water feeding mechanisms are also included. Each water feeding mechanism includes a buffer cylinder 6 fixedly connected to the lower end of the water supply pipe 2. A first connecting plate 8 and a second connecting plate 11 are fixedly connected to the front side of the buffer cylinder 6. The second connecting plate 11 is located below the first connecting plate 8. A rotating shaft 27 is vertically inserted through the second connecting plate 11. The rotating shaft 27 is rotatably connected to the second connecting plate 11 via a bearing. A support plate 12 is fixedly connected to the upper end of the second connecting plate 11. The upper end of the rotating shaft 27 passes through the support plate 12 and is fixedly connected to a rotating disk 13. The lower end of the rotating disk 13 contacts and is slidably connected to the support plate 12, allowing rotation... The upper end of the plate 13 is fixedly connected with three water storage channels 14 at equal intervals in a circular shape. The water storage channel 14 at the front is used for feeding water, and the water storage channel 14 at the right rear is used to drain the water remaining from the previous use. A rotating pipe 21 is vertically installed through the first connecting plate 8. The rotating pipe 21 is rotatably connected to the first connecting plate 8. The lower end of the rotating pipe 21 is sealed. An L-shaped drain pipe 15 is connected to the outside of the lower end of the rotating pipe 21. In the initial state, the lower end of the L-shaped drain pipe 15 corresponds to the water storage channel 14 at the left rear. A rotary joint 10 is installed at the upper end of the rotating pipe 21. The other end of the rotary joint 10 is connected to the water supply pipe 2 through the connecting pipe 9.

[0022] As one embodiment of the present invention, it also includes several buffer mechanisms. The buffer mechanisms are used to reduce the impact of water hammer on the pipeline. The buffer mechanism includes a first piston plate 16 slidably connected inside the buffer cylinder 6. The lower end of the first piston plate 16 is elastically connected to the inner bottom of the buffer cylinder 6 through a first spring 17. The buffer cylinder 6 is connected to the water supply pipe 2 through a connecting port 7. When multiple first solenoid valves are closed, under the action of water hammer, the inertial force of the water will cause multiple first piston plates 16 to move down and compress the first spring 17. Then, under the elastic action of the first spring 17, it will return to its original position. In this way, the force generated by the water hammer effect can be buffered, reducing the possibility of pipeline damage.

[0023] In one embodiment of the present invention, a vertical rod 36 is fixedly connected to the upper end of each rotating disk 13, and a magnetic block 37 is fixedly connected to the upper end of each vertical rod 36. A first solenoid valve is installed at the connection between each rotating pipe 21 and the L-shaped drain pipe 15. Each first solenoid valve cooperates with the corresponding magnetic block 37. When the first solenoid valve is activated, the electromagnet inside it attracts the adjacent surfaces of the magnetic block 37 with opposite polarities, causing it to rotate while remaining stationary. A torsion spring 20 is fixedly connected to the upper end of each first connecting plate 8, and the other end of each torsion spring 20 is fixedly connected to the outer side of the rotating pipe 21.

[0024] In one embodiment of the present invention, several adjustment mechanisms are also included. These adjustment mechanisms are used to achieve automatic water replacement. Each adjustment mechanism includes an adjustment cylinder 24 fixedly connected to the lower end of the second connecting plate 11. A second piston plate 25, which can slide back and forth, is disposed inside the adjustment cylinder 24. The rear side of the second piston plate 25 is elastically connected to the rear wall of the adjustment cylinder 24 via a second spring 30. The inner bottom space of the buffer cylinder 6 is connected to the outside through a one-way port 18, and the inner bottom space of the buffer cylinder 6 is connected to the rear space of the adjustment cylinder 24 through a one-way pipe 19. A rack 26 is fixedly connected to the front side of the second piston plate 25. A gear 28 is rotatably connected to the lower end of the rotating shaft 27 via a one-way bearing. 26 meshes with gear 28. A U-shaped guide bar 29 is fixedly connected to the front side of rack 26. A guide groove is opened on the front side of adjusting cylinder 24. The other end of U-shaped guide bar 29 extends into the guide groove and is slidably connected. With the setting of one-way bearing, when rack 26 moves forward, it drives gear 28 to rotate, but does not allow shaft 27 to rotate. When rack 26 moves backward, shaft 27 can rotate. The rotation angle is 120°. One-way valves are installed inside one-way port 18 and one-way pipe 19. The one-way valve inside one-way port 18 allows the outside to enter the bottom space inside buffer cylinder 6 in one direction. The one-way valve inside one-way pipe 19 allows the buffer cylinder 6 to enter the rear space of adjusting cylinder 24 in one direction.

[0025] In one embodiment of the present invention, the lower end of the regulating cylinder 24 is connected to a release thick pipe 23, and the other end of the release thick pipe 23 is fixedly connected to a temporary storage cylinder 22. The release thick pipe 23 is connected to the temporary storage cylinder 22. A third piston plate 31 that can slide up and down is provided inside the temporary storage cylinder 22. The lower end of the third piston plate 31 is elastically connected to the inner bottom of the temporary storage cylinder 22 through a third spring 32. The inner bottom of the temporary storage cylinder 22 is connected to the outside through an air hole 35. A hollow ring 39 is fixedly connected to the inner side of the round opening 34. An annular through groove is provided on the inner side of the hollow ring 39. The top space of the temporary storage cylinder 22 is connected to the hollow ring 39 through a release thin pipe 33. The stiffness coefficient of the second spring 30 is greater than that of the third spring 32. A second solenoid valve is installed inside the release thick pipe 23. The second solenoid valve opens and closes synchronously with the first solenoid valve.

[0026] As one embodiment of the present invention, a rubber sealing ring 38 is installed on the inner side of the contact point between each water storage channel 14 and the support plate 12. Each support plate 12 has a circular opening 34, and each circular opening 34 cooperates with the corresponding water storage channel 14. A controller (not shown) is also provided, which can be used to control the synchronous opening and closing of multiple first solenoid valves and second solenoid valves at timed intervals.

[0027] In the initial state, the space behind the regulating cylinder 24 contains gas, the second piston plate 25 is in a forward-moving state, the second spring 30 is in a stretched state, and the water inlet pipe 3 is connected to the external water supply system. When multiple first solenoid valves are activated, water from the external water supply system enters the water supply pipe 2 through the water inlet pipe 3, and then enters the rotating pipe 21 through the connecting pipe 9 and the rotary joint 10. In the initial state, the lower end of the L-shaped drain pipe 15 corresponds to the water storage channel 14 on the left rear, and the water enters the water storage channel 14.

[0028] At this time, multiple second solenoid valves are also energized, releasing the thick pipe 23 to conduct. Under the elastic action of the second spring 30, the second piston plate 25 will move backward. When the rack 26 moves backward, it drives the rotating shaft 27 to rotate 120°. During this rotation, the water storage channel 14 on the left rear can be rotated to the front, while the water storage channel 14 originally located on the front can be rotated to the right rear. The water that was left over last time (the water that was drunk and contaminated) will rotate to the round opening 34 and fall out. Clean water will be rotated to the front again, making it convenient for poultry to drink clean water. When each first solenoid valve is activated, its electromagnet and the magnetic block 37 at the upper end of the vertical rod 36 on the corresponding rotating disk 13 are attracted by opposite polarities. Therefore, as the rotating shaft 27 drives the rotating disk 13 to rotate, the rotating pipe 21 will also rotate. At the same time, the torsion spring 20 deforms, so that the L-shaped drain pipe 15 will also move during the water supply operation, ensuring that water can be supplied into the required water storage channel 14.

[0029] Meanwhile, since the third spring 32 has a small stiffness coefficient and the release tube 33 is thin, when the gas in the space behind the regulating cylinder 24 is released quickly, a large amount of gas will accumulate in the space at the top of the regulating cylinder 24, causing the third piston plate 31 to move down and compress the third spring 32. The release tube 33 will slowly release the gas, eventually releasing it completely. The gas is released into the hollow ring 39 and discharged from the annular groove, which can generate a flowing airflow. This airflow can dry the water remaining on the inner wall of the round opening 34 and the corresponding water storage groove 14 (i.e., the water storage groove 14 that has just finished discharging wastewater), preventing the growth of bacteria.

[0030] After the water supply is completed and the first solenoid valve is closed, the rotating pipe 21 rotates in the opposite direction to reset under the action of the torsion spring 20, which facilitates the next operation. In addition, when multiple first solenoid valves are closed, under the action of water hammer, the inertial force of the water causes the first piston plate 16 in the buffer cylinder 6 to move downward and compress the first spring 17. Subsequently, under the elastic action of the first spring 17, the first piston plate 16 resets, thereby buffering the force generated by the water hammer effect and reducing the possibility of pipeline damage. During the downward movement of multiple first piston plates 16, gas will be forced into the rear space of the regulating cylinder 24 through the one-way pipe 19. At this time, since the second solenoid valve is also closed and the seal of the thick pipe 23 is released, the gas will accumulate in the regulating cylinder 24, causing the second piston plate 25 to move forward and stretch the second spring 30, which facilitates the next operation of the system.

[0031] The above actions are repeated to achieve timed supply of fresh water and discharge the water that the poultry drank last time (water with a lot of impurities such as mud and rice husks), thus realizing automated timed and intelligent water supply.

[0032] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. An intelligent water supply system for disease-resistant poultry farming, characterized in that, include: Two support frames (1) are provided with a water supply pipe (2) that runs horizontally through both support frames (1). The water supply pipe (2) is fixedly connected to both support frames (1). The right end of the water supply pipe (2) is sealed, and the left end of the water supply pipe (2) is connected to an inlet pipe (3). Several water feeding mechanisms are provided, each including a buffer cylinder (6) fixedly connected to the lower end of a water supply pipe (2). A first connecting plate (8) and a second connecting plate (11) are fixedly connected to the front side of the buffer cylinder (6). The second connecting plate (11) is located below the first connecting plate (8). A rotating shaft (27) is vertically installed through the second connecting plate (11). The rotating shaft (27) is rotatably connected to the second connecting plate (11) via a bearing. A support plate (12) is fixedly connected to the upper end of the second connecting plate (11). The upper end of the rotating shaft (27) passes through the support plate (12) and is fixedly connected to a rotating disk (13). The lower end of the rotating disk (13) is in contact with and slidably connected to the support disk (12). The upper end of the rotating disk (13) is fixedly connected with three water storage channels (14) at equal intervals in a circular shape. A rotating pipe (21) is vertically installed through the first connecting plate (8). The rotating pipe (21) is rotatably connected to the first connecting plate (8). The lower end of the rotating pipe (21) is sealed. An L-shaped drain pipe (15) is connected to the outer side of the lower end of the rotating pipe (21). A rotary joint (10) is installed at the upper end of the rotating pipe (21). The other end of the rotary joint (10) is connected to the water supply pipe (2) through the connecting pipe (9). Several buffer mechanisms are used to reduce the impact of water hammer on the pipeline; Several regulating mechanisms are provided to enable automatic water replacement.

2. The intelligent disease-resistant poultry farming water supply system according to claim 1, characterized in that, A support plate (4) is fixedly connected between the two support frames (1), and a wastewater tank (5) is fixedly connected to the upper end of the support plate (4).

3. The intelligent disease-resistant poultry farming water supply system according to claim 1, characterized in that, Each of the rotating disks (13) is fixedly connected to a vertical rod (36) at its upper end, and a magnetic block (37) is fixedly connected to the upper end of each vertical rod (36). A first solenoid valve is installed at the connection between each rotating pipe (21) and the L-shaped drain pipe (15). Each first solenoid valve is matched with a corresponding magnetic block (37). A torsion spring (20) is fixedly connected to the upper end of each first connecting plate (8). The other end of each torsion spring (20) is fixedly connected to the outside of the rotating pipe (21).

4. The intelligent disease-resistant poultry farming water supply system according to claim 1, characterized in that, A rubber sealing ring (38) is installed on the inner side of the contact point between each water storage channel (14) and the support plate (12). Each support plate (12) has a round opening (34), and each round opening (34) is matched with the corresponding water storage channel (14).

5. The intelligent disease-resistant poultry farming water supply system according to claim 4, characterized in that, The buffer mechanism includes a first piston plate (16) slidably connected inside the buffer cylinder (6). The lower end of the first piston plate (16) is elastically connected to the inner bottom of the buffer cylinder (6) through a first spring (17). The buffer cylinder (6) is connected to the water supply pipe (2) through a connecting port (7).

6. The intelligent disease-resistant poultry farming water supply system according to claim 5, characterized in that, The adjustment mechanism includes an adjustment cylinder (24) fixedly connected to the lower end of the second connecting plate (11). A second piston plate (25) that can slide back and forth is provided inside the adjustment cylinder (24). The rear side of the second piston plate (25) is elastically connected to the rear side wall of the adjustment cylinder (24) through a second spring (30). The inner bottom space of the buffer cylinder (6) is connected to the outside through a one-way port (18). The inner bottom space of the buffer cylinder (6) is connected to the rear space of the adjustment cylinder (24) through a one-way pipe (19). A rack (26) is fixedly connected to the front side of the second piston plate (25). A gear (28) is rotatably connected to the lower end of the rotating shaft (27) through a one-way bearing. The rack (26) meshes with the gear (28). A U-shaped guide strip (29) is fixedly connected to the front side of the rack (26). A guide groove is opened on the front side of the adjustment cylinder (24). The other end of the U-shaped guide strip (29) extends into the guide groove and is slidably connected.

7. The intelligent disease-resistant poultry farming water supply system according to claim 6, characterized in that, One-way valves are installed inside both the one-way port (18) and the one-way pipe (19). The flow direction of the one-way valve inside the one-way port (18) is one-way into the bottom space inside the buffer cylinder (6) from the outside. The flow direction of the one-way valve inside the one-way pipe (19) is one-way into the rear space of the regulating cylinder (24) from the buffer cylinder (6).

8. The intelligent disease-resistant poultry farming water supply system according to claim 6, characterized in that, The lower end of the regulating cylinder (24) is connected to a release tube (23), and the other end of the release tube (23) is fixedly connected to a temporary storage cylinder (22). The release tube (23) is connected to the temporary storage cylinder (22). A third piston plate (31) that can slide up and down is provided inside the temporary storage cylinder (22). The lower end of the third piston plate (31) is elastically connected to the inner bottom of the temporary storage cylinder (22) through a third spring (32). The inner bottom of the temporary storage cylinder (22) is connected to the outside through an air hole (35). A hollow ring (39) is fixedly connected to the inner side of the round opening (34). An annular through groove is provided on the inner side of the hollow ring (39). The top space of the temporary storage cylinder (22) is connected to the hollow ring (39) through a release tube (33).

9. The intelligent disease-resistant poultry farming water supply system according to claim 8, characterized in that, The stiffness coefficient of the second spring (30) is greater than that of the third spring (32). A second solenoid valve is installed inside the release tube (23), and the second solenoid valve opens and closes synchronously with the first solenoid valve.

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