Epidemic disease prevention and control device for sika deer

Abstract

The invention provides an epidemic disease prevention and control device for sika deer. The epidemic disease prevention and control device structurally comprises a guide box, a host, a water absorption part, a detector and a sterilization structure, and the guide box is embedded into the side edge of the upper end of the host; according to the invention, after the disinfecting and killing structure is further improved, the position of a single sika deer can be limited under the cooperation of two groups of extension plates on a connecting plate and a limiting plate of a heightening block, so that after the sika deer is driven into a dead angle area, a sprayer works and can simultaneously spray corresponding disinfecting and killing liquid through a spraying groove I and a spraying groove II; the trunk of the sika deer can be disinfected and killed, and then the sprayer can avoid the shaking phenomenon according to the operation parallelism of the balance plate, so that the prevention and control device can disinfect and kill the trunk of the sika deer while disinfecting and killing the trunk of the sika deer regionally, and the situation that germs remain in the trunk of the sika deer is prevented; further, residual germs can be prevented from being transferred to a new environment for secondary diffusion when the sika deer is further detected subsequently.

Description

Technical Field

[0001] This invention relates to the field of animal disease prevention and control technology, and more specifically to a disease prevention and control device for sika deer. Background Technology

[0002] Sika deer are mammals belonging to the genus Cervidae in the order Artiodactyla. Mammals are susceptible to diseases caused by various bacteria and pathogens in nature during their daily lives. Therefore, when sika deer become ill due to bacterial infections, in addition to artificial treatment, a control device is needed to disinfect the deer's body. This allows the pathogens remaining in the corners and edges of the deer's fur to be treated. Thus, with the cooperation of the control device, secondary infections can be avoided after treatment, thereby improving the survival rate of sika deer and replacing manual disinfection, thus improving the efficiency of disinfection. In summary, the inventors found the following through their research: Firstly, the "A Device for Animal Disease Prevention and Control" with application number "CN202320737358.7" is designed to accommodate animals of different sizes passing under the top cover, preventing animals from stepping on other animals and thus avoiding them from being sprayed with disinfectant from the disinfection nozzle. When the disinfection device is not in use, the height between the top cover and the base can be adjusted to the minimum distance, so that the disinfection device will not occupy a lot of space when placed. Secondly, the "Automatic Monitoring and Control Device for Animal Diseases" with application number "CN202222070525.5" can monitor the situation inside the breeding house through the design of the top plate, bottom plate and camera body, ensuring real-time monitoring of the sheep, so as to observe the sheep's eating situation in real time, thereby controlling diseases. Moreover, the staff only need to upload the video through the camera body, which reflects the practicality of the design. However, the following drawbacks still exist: In order to improve the effectiveness of the control device, it is necessary to improve the device to be remotely controlled and to be able to move within the sika deer's habitat. However, when disinfecting the sika deer's habitat, it is also necessary to treat the sika deer's fur. As a result, the sika deer may become uncooperative and escape from the disinfection range due to the noise of the device's operation, which will reduce the accuracy and efficiency of the control device in disinfecting the sika deer. Furthermore, the need for manual intervention will reduce the effectiveness of the device. Summary of the Invention

[0003] The technical solution adopted by the present invention to achieve the technical objective is: a disease prevention and control device for sika deer, the structure of which includes: a guide box, a main unit, a water-absorbing component, a detector, a disinfection structure, and moving wheels. The guide box is embedded in the upper side of the main unit. The surface of the main unit is fixedly connected to the water-absorbing component, and the side of the water-absorbing component is spaced to fit the guide box. The detector is set on the upper end of the water-absorbing component and electrically connected to the main unit. The disinfection structure is installed on the upper front end of the main unit and its rear side is connected to the front edge of the water-absorbing component. At the same time, the detector is set on the upper rear side of the disinfection structure to form a non-obstructive shape. The moving wheels are embedded in the four sides of the edge of the main unit.

[0004] As a further improvement of the present invention, the disinfection structure includes a connecting groove, a connecting plate, an extension plate, a heightening block, a limiting plate, and a sprayer. The connecting groove extends through the surface area of ​​the connecting plate. Extension plates are installed inside both sides of the connecting plate and are in contact with each other. The heightening block is fixed to the upper ends of both sides of the connecting plate and its front edge is connected to the limiting plate. The limiting plate is located above the extension plate. The sprayer is vertically installed in the inner area of ​​the connecting plate through the connecting groove. The sprayer is connected to the front end of the water-absorbing component through the connecting groove of the connecting plate. The connecting groove is square in shape and has three openings on the connecting plate, the number of which matches the number of sprayers. The extension plate and the limiting plate both have sliding characteristics, and their surfaces are finely polished. The extension plate and the heightening block both have telescopic sliding tracks.

[0005] As a further improvement of the present invention, the sprayer is provided with a receiving block, a dispersing plate, a first spray channel, a connecting layer, a balancing plate, and a second spray channel. The receiving block and the center of the back of the dispersing plate are perpendicular to each other. The first spray channel is formed on the surface of the dispersing plate. The connecting layer and both sides of the dispersing plate are integrally formed. The balancing plate is connected to both sides of the dispersing plate through the connecting layer. The second spray channel is integrally formed with the balancing plate. The dispersing plate is connected to the connecting plate through the connecting groove of the receiving block. The other end of the balancing plate is connected to the center of the side of the other two sets of sprayers. Both the dispersing plate and the balancing plate contain multiple small pipes. The first spray channel and the second spray channel are the same, but their positions are different. The connecting layer is flattened, and the balancing plate has one set on each side of the dispersing plate.

[0006] As a further improvement of the present invention, the main unit is provided with a guide block, a flow box, a parallel plate, a sound insulation component, an ice-fire plate, and a through groove. The guide block is connected to the side of the flow box. The upper layer of the flow box overlaps with the lower layer of the parallel plate. The sound insulation component is embedded in the surface layer of the parallel plate. The ice-fire plate covers the upper layer of the sound insulation component. The through groove passes through the center of the surface layers of the ice-fire plate, the sound insulation component, the parallel plate, and the flow box. The sound insulation component is positioned at the lower end of the water-absorbing component through the flow box and the ice-fire plate. The guide block is rectangular in shape. The flow box is made of stainless steel. The area of ​​the parallel plate is the same as that of the sound insulation component and the ice-fire plate.

[0007] As a further improvement of the present invention, the sound insulation component includes a sewn end, a polyester fiber fabric, a PVC sound insulation felt, and a metal plate. The sewn end and the polyester fiber fabric are an integrated structure, and the polyester fiber fabric is connected to the surface of the PVC sound insulation felt through the sewn end. The metal plate is installed at the lower end of the PVC sound insulation felt, and the PVC sound insulation felt covers the upper layer of the circulation box through the metal plate. The sewn end is provided on each of the left and right sides of the polyester fiber fabric. The polyester fiber fabric and the PVC sound insulation felt are assembled by hand sewing. The area of ​​the metal plate is the same as the area of ​​the PVC sound insulation felt.

[0008] As a further improvement of the present invention, the detector is provided with a positioning frame, a contact plate, a slide rail, a slide plate, a central restraint rail, an anti-detachment block, and a scanning component. The inner layer of the positioning frame overlaps with the edge of the contact plate. The surface of the contact plate has a slide rail. The slide plate communicates with the slide rail. The central restraint rail and the slide plate are an integrated structure. The anti-detachment block is positioned on the left and right sides of the slide plate. The scanning component is embedded in the slide rail and the central restraint rail and contacts the slide plate. The scanning component is electrically connected to the host. The positioning frame is rectangular in shape. There are two slide rails on the contact plate. The central restraint rail of the slide plate is set in a horizontal straight line. There is one anti-detachment block on each side of the slide plate.

[0009] As a further improvement of the present invention, the back of the scanning device is provided with pulleys, a support plate, a support rod, a central protrusion, and a data storage device. The pulleys are embedded in the upper and lower ends of the support plate. The inner layer of the support plate is connected to the support rod. The central protrusion is located in the middle part of the support plate and is connected to the support rod. The data storage device is positioned on the upper and lower middle surfaces of the support plate and is electrically connected to the host. The pulleys are in the form of electric spheres. The support plate contains four vertical support rods. The central protrusion is rectangular in shape.

[0010] Compared with the prior art, the present invention has the following beneficial effects: 1. This invention, with further improvements to the disinfection structure, utilizes two sets of extension plates on the connecting plate and the limiting plate of the heightening block to restrict the position of a single sika deer. Once the sika deer is forced into a dead zone, the sprayer operates, simultaneously spraying the corresponding disinfectant through spray trough one and spray trough two. This ensures that the sika deer's torso is disinfected. Furthermore, the sprayer operates parallel to the balance plate, preventing swaying. This allows the control device to disinfect the sika deer's torso while simultaneously disinfecting the area, preventing any residual pathogens from spreading to a new environment during subsequent testing of the sika deer.

[0011] 2. With further improvements to the main unit, the parallel plate on the circulation box can be covered by sound insulation components and fireproof plates. As a result, the polyester fiber fabric and PVC sound insulation felt used in the sound insulation components can achieve a completely environmentally friendly and odorless effect, thus completely isolating the noise of the water-absorbing components pumping water inside the circulation box. Therefore, the noise elimination effect can be achieved, thereby avoiding the continuous noise from aggravating the distress of the sika deer being forced into a corner, and further improving the stability of the disinfection of the sika deer's body.

[0012] 3. With further improvements to the detector, the present invention allows the scanning component to move stably left and right via the contact plate, slide rail, slide plate, central restraint rail, and anti-detachment block on the positioning frame. This displacement of the scanning component enables infrared scanning of the sika deer's torso, marking any missed disinfection locations for secondary disinfection, thus improving the completeness of disinfection of the sika deer's torso. Simultaneously, the data storage component of the scanning component can record the number of sika deer disinfected, enabling rapid counting of sika deer and replacing the manual recording process, thereby enhancing the intelligent characteristics of the device. Attached Figure Description

[0013] Figure 1 A schematic diagram of a disease control device for a type of sika deer.

[0014] Figure 2 This is a three-dimensional structural diagram of an improved disinfection structure.

[0015] Figure 3 This is a three-dimensional structural diagram of an improved sprayer.

[0016] Figure 4 This is a three-dimensional structural diagram of an improved host computer.

[0017] Figure 5 This is a three-dimensional structural diagram of an improved sound insulation component.

[0018] Figure 6 This is a cross-sectional structural diagram of an improved detector.

[0019] Figure 7 This is a schematic diagram of the front view of an improved back section of a scanned document.

[0020] In the diagram: Guide box-1, Main unit-2, Water absorption component-3, Detector-4, Disinfection structure-5, Moving wheels-6, Connecting channel-51, Connecting plate-52, Extension plate-53, Heightening block-54, Limiting plate-55, Sprayer-56, Receiving block-561, Dispersing plate-562, Spray trough one-563, Connecting layer-564, Balance plate-565, Spray trough two-566, Guide block-21, Circulation box-22, Parallel plate-23 24. Sound insulation component - 25. Ice and fire plate - 26. Through groove - 241. Sewn end - 242. Polyester fiber fabric - 243. PVC sound insulation felt - 244. Metal plate - 244. Positioning frame - 41. Contact plate - 42. Slide rail - 43. Slide plate - 44. Central restraint rail - 45. Anti-detachment block - 46. Scanning component - 47. Pulley - 471. Bearing plate - 472. Support rod - 473. Central protrusion - 474. Data storage component - 475. Detailed Implementation

[0021] The present invention will be further described below with reference to the accompanying drawings: Example

[0022] Figures 1 to 3 As shown: This invention provides a disease prevention and control device for sika deer. Its structure includes a guide box 1, a main unit 2, a water-absorbing component 3, a detector 4, a disinfection structure 5, and moving wheels 6. The guide box 1 is embedded in the upper side of the main unit 2. The surface of the main unit 2 is fixedly connected to the water-absorbing component 3, and the side of the water-absorbing component 3 is spaced to fit the guide box 1. The detector 4 is set on the upper end of the water-absorbing component 3 and is electrically connected to the main unit 2. The disinfection structure 5 is installed on the upper front end of the main unit 2 and its rear side is connected to the front edge of the water-absorbing component 3. At the same time, the detector 4 is set on the upper rear side of the disinfection structure 5 to form a non-obstructive shape. The moving wheels 6 are embedded in the four sides of the edge of the main unit 2.

[0023] The disinfection structure 5 includes a connecting groove 51, a connecting plate 52, an extension plate 53, a heightening block 54, a limiting plate 55, and a sprayer 56. The connecting groove 51 extends through the surface area of ​​the connecting plate 52. Extension plates 53 are installed inside both sides of the connecting plate 52 and are in contact with each other. The heightening block 54 is fixed to the upper ends of both sides of the connecting plate 52 and its front edge is connected to the limiting plate 55. The limiting plate 55 is located above the extension plate 53. The sprayer 56 is vertically installed in the inner area of ​​the connecting plate 52 through the connecting groove 51. The sprayer 56 is connected to the front end of the water-absorbing component 3 through the connecting groove 51 of the connecting plate 52. The connecting groove 51 is square in shape and has three openings on the connecting plate 52, the number of which matches the number of sprayers 56. The extension plate 53 and the limiting plate 55 both have sliding characteristics, and their surfaces are finely polished. The connecting plate 52 and the heightening block 54 both have telescopic sliding tracks. The connecting groove 51, through its shape and the number on the connecting plate 52, can improve the connection between the connecting plate 52 and the component, thereby quickly introducing the disinfectant into the three sets of sprayers 56. The extension plate 53 and the limiting plate 55, through their slidable form, can move smoothly between the connecting plate 52 and the raising block 54, avoiding jamming when extending and using.

[0024] The sprayer includes a receiving block 561, a dispersing plate 562, a first spray channel 563, a connecting layer 564, a balancing plate 565, and a second spray channel 566. The receiving block 561 is perpendicular to the back center of the dispersing plate 562. The first spray channel 563 is formed on the surface of the dispersing plate 562. The connecting layer 564 is integrated with both sides of the dispersing plate 562. The balancing plate 565 is connected to both sides of the dispersing plate 562 through the connecting layer 564. The second spray channel 566 is connected to the balancing plate 562. 65 is an integrated structure. The dispersing plate 562 is connected to the connecting groove 51 of the connecting plate 52 through the receiving block 561. The other end of the balancing plate 565 is connected to the center of the side of the other two sets of sprayers 56. Both the dispersing plate 562 and the balancing plate 565 contain multiple small pipes. The first spray groove 563 and the second spray groove 566 are the same, but their positions are different. The connecting layer 564 is flattened and the balancing plate 565 is provided on the left and right sides of the dispersing plate 562. The multiple small pipes built into the dispersion plate 562 and the balance plate 565 can stably input the disinfectant into the component, preventing the edge areas from failing to receive the disinfectant. The spray trough 1 563 and spray trough 2 566 can quickly disinfect the torso or breeding area of ​​the sika deer over a wide area according to their own positions. The connecting layer 564, with its flattened shape, can prevent tilting after the balance plate 565 is installed. Then, the balance plate 565, with two sets of quantities, can increase the density of disinfection and maintain the verticality of the component.

[0025] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The main unit 2 of the disease prevention and control device for sika deer can be remotely controlled to move the four peripheral wheels 6. With the cooperation of these wheels 6, the positions of the guide box 1, water-absorbing component 3, detector 4, and disinfection structure 5 of the main unit 2 can be quickly changed. Then, with the cooperation of the guide box 1, the disinfection liquid can be introduced into the water-absorbing component 3. Finally, the water-absorbing component 3 draws out the disinfection liquid, so that the disinfection liquid enters the disinfection structure 5. The disinfection structure 5 sprays out the disinfection liquid to purify the living area of ​​the sika deer. At the same time, it can stop the sika deer in the corner and disinfect their bodies. Finally, the detector 4 is used to detect the number of sika deer and the degree of disinfection, which improves the effectiveness of disease prevention and control. Second: The connecting plate 52 of the disinfection structure 5 can be positioned at the upper front edge of the main unit 2, and then connected to the water-absorbing component 3 through the connecting groove 51. After the water-absorbing component 3 leads the disinfection liquid into the three sets of sprayers 56 of the connecting plate 52, the sprayers 56 atomize the disinfection liquid and spray it out to complete the disinfection. When disinfecting the torso of the sika deer, the extension plates 53 on both sides of the connecting plate 52 will extend, and then force the sika deer to stop in the corner. Then one end of the extension plate 53 contacts the wall to complete the position limitation. At the same time, the limiting plate 55 of the heightening block 54 on both sides of the connecting plate 52 extends again to increase the height of the position limitation, so as to avoid the sika deer jumping out directly due to the low height. This improves the convenience of the device for disinfecting the torso of the sika deer and replaces the original manual intervention process. Third: The receiving block 561 of the sprayer 56 can connect with the connecting groove 51 of the connecting plate 52. After the receiving block 561 introduces the disinfectant into the dispersing plate 562, the small pipes in the dispersing plate 562 and the balance plate 565 can evenly guide the disinfectant to all areas of the spray slot 1 563 and spray slot 2 566, thereby avoiding the situation where the edge areas cannot receive the disinfectant. The flattened connecting layer 564 on both sides of the dispersing plate 562 allows the balance plate 565 to be installed in a mutually perpendicular state, so that the balance plate 565 can connect with the sides of the sprayers 56 on both sides, ensuring that the three sets of sprayers 56 can maintain verticality during operation and prevent tilting caused by excessive shaking. In addition, with the cooperation of the spray slot 2 566 of the balance plate 565, the integrity of the disinfection range of the device can be improved and its disinfection density can be increased. Example

[0026] Figures 4 to 5 As shown: This invention provides a disease prevention and control device for sika deer. Its structure includes: the main unit 2 is provided with a guide block 21, a flow box 22, a parallel plate 23, a sound insulation component 24, an ice-fire plate 25, and a through groove 26; the guide block 21 is connected to the side of the flow box 22; the upper layer of the flow box 22 overlaps with the lower layer of the parallel plate 23; the sound insulation component 24 is embedded in the surface of the parallel plate 23; the ice-fire plate 25 covers the upper layer of the sound insulation component 24; the through groove 26 passes through the center of the surface of the ice-fire plate 25, the sound insulation component 24, the parallel plate 23, and the flow box 22; the sound insulation component 24 is positioned at the lower end of the water-absorbing component 3 through the flow box 22 and the ice-fire plate 25; the guide block 21 is rectangular; the flow box 22 is made of stainless steel; and the parallel plate 23 has the same area as the sound insulation component 24 and the ice-fire plate 25. The guide block 21, with its cuboid shape, can increase the speed of guiding the disinfectant liquid. The flow box 22, with its rust-proof design, can prevent rust caused by frequent use. The parallel plate 23, based on its own area, allows the sound insulation component 24 and the fireproof plate 25 to be installed in a parallel and stable state, achieving a complete sound insulation effect.

[0027] The sound insulation component 24 includes a sewing end 241, a polyester fiber fabric 242, a PVC sound insulation felt 243, and a metal plate 244. The sewing end 241 and the polyester fiber fabric 242 are integrated, and the polyester fiber fabric 242 is connected to the surface of the PVC sound insulation felt 243 through the sewing end 241. The metal plate 244 is installed at the lower end of the PVC sound insulation felt 243, and the PVC sound insulation felt 243 covers the upper layer of the circulation box 22 through the metal plate 244. The sewing end 241 is provided on each of the left and right sides of the polyester fiber fabric 242. The polyester fiber fabric 242 and the PVC sound insulation felt 243 are assembled by hand sewing. The area of ​​the metal plate 244 is the same as the area of ​​the PVC sound insulation felt 243. The number of sewn ends 241 on the left and right sides of the polyester fiber fabric 242 can improve the connection strength with the PVC sound insulation felt 243. The polyester fiber fabric 242 and the PVC sound insulation felt 243 can retain their original state to the greatest extent by hand sewing, avoiding damage to the shape of the polyester fiber fabric 242 and the PVC sound insulation felt 243 caused by fusion or other fixation. Then, the two can be separated again by the unstitching process to form a detachable effect. The metal plate 244 allows the PVC sound insulation felt 243 to be inserted horizontally by its own area.

[0028] The specific functions and operation procedures of this embodiment are as follows: First: The guide block 21 on the side of the main unit 2 can be stably and fixedly connected to the guide box 1, so that the disinfectant entering the guide block 21 through the guide box 1 can flow into the interior of the circulation box 22. Then, the parallel plate 23 at the top of the circulation box 22 can increase its thickness by stacking the sound insulation component 24 and the fire-ice plate 25. After the components of the water absorption component 3 enter the interior of the circulation box 22 through the through groove 26, when the water absorption component 3 is performing water absorption, the sound insulation component 24 and the fire-ice plate 25 can isolate the noise inside the circulation box 22, achieving a silent operation effect. This avoids the adverse reactions caused by forcing the sika deer to stop in one place and being continuously affected by noise. At the same time, the sound insulation component 24 and the fire-ice plate 25 are both environmentally friendly materials and have no odor, which can prevent the sika deer from being uncomfortable due to odor. Second: The metal plate 244 of the sound insulation component 24 will overlap with the surface of the parallel plate 23. Then, the PVC sound insulation felt 243 on the metal plate 244 can overlap with the polyester fiber fabric 242. Finally, it is fixed by hand sewing through the sewing end 241, so as to preserve the integrity of the polyester fiber fabric 242 and the PVC sound insulation felt 243 to the greatest extent and avoid other methods of fusion that would damage the surface of the polyester fiber fabric 242 and the PVC sound insulation felt 243. This extends its service life and allows the polyester fiber fabric 242 and the PVC sound insulation felt 243 to be separated again by manual untying. Example

[0029] Figures 6 to 7 As shown: This invention provides a disease prevention and control device for sika deer. Its structure includes: the detector 4 is provided with a positioning frame 41, a contact plate 42, a slide rail 43, a slide plate 44, a central restraint rail 45, an anti-detachment block 46, and a scanning element 47. The inner layer of the positioning frame 41 overlaps with the edge of the contact plate 42. The surface of the contact plate 42 has a slide rail 43. The slide plate 44 communicates with the slide rail 43. The central restraint rail 45 and the slide plate 44 are an integrated structure. The anti-detachment block 46 is positioned on the left and right sides of the slide plate 44. The scanning element 47 is embedded in the slide rail 43 and the central restraint rail 45 and contacts the slide plate 44. The scanning element 47 is electrically connected to the host 2. The positioning frame 41 is rectangular. There are two slide rails 43 on the contact plate 42. The central restraint rail 45 of the slide plate 44 is set in a horizontal straight line. There is one anti-detachment block 46 on each side of the slide plate 44. The positioning frame 41, with its rectangular shape, can form a perpendicular shape to the component. The slide rail 43, through two rails on the contact plate 42, can move stably in the lateral left and right directions in conjunction with the central restraint rail 45 of the slide plate 44 and the anti-scanning component 47. The anti-detachment block 46, located on both sides of the slide plate 44, can prevent the scanning component 47 from falling off due to excessive movement.

[0030] The scanning component 47 has a pulley 471, a support plate 472, a support rod 473, a central protrusion 474, and a data storage component 475 on its back. The pulley 471 is embedded in the upper and lower ends of the support plate 472. The inner layer of the support plate 472 is connected to the support rod 473. The central protrusion 474 is located in the middle part of the support plate 472 and is connected to the support rod 473. The data storage component 475 is positioned on the upper and lower middle surfaces of the support plate 472 and is electrically connected to the host 2. The pulley 471 is in the form of an electric ball. The support plate 472 contains four vertical support rods 473. The central protrusion 474 is rectangular. The pulley 471, through its electric ball shape, can improve the displacement effect of components such as the bearing plate 472. The support rod 473 built into the bearing plate 472 can determine the position of the central protrusion 474, ensuring that the central protrusion 474 can be used in a horizontal straight line. The central protrusion 474, based on its rectangular shape, can be adapted to the shape of the component.

[0031] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The positioning frame 41 of the detector 4 can carry the contact plate 42 and fix it vertically to the upper front edge of the water-absorbing component 3. Then, the contact plate 42 can limit the movement range of the scanning component 47 through the slide rail 43, the slide plate 44, the central restraint rail 45 and the anti-detachment blocks 46 on both sides, so that the scanning component 47 can move left and right through the slide rail 43, the slide plate 44 and the central restraint rail 45. In this way, the anti-detachment blocks 46 on both sides can prevent the detachment caused by excessive movement. Afterwards, the scanning component 47 can perform infrared scanning on the torso of a sika deer after the disinfection structure 5 has finished disinfecting the torso, so that the area missed in the disinfection of the torso can be clearly reflected, and the disinfection structure 5 can be quickly restarted to disinfect the remaining area, thereby improving the disinfection integrity of the sika deer. Second: The carrier plate 472 of the scanning component 47 can move laterally within the slide rail 43 via the electric ball pulley 471. After the support rod 473 of the carrier plate 472 determines the position of the central protrusion 474, the central protrusion 474 can be installed in the central restraint rail 45 to achieve a stable lateral movement effect and avoid tilting. Subsequently, the scanning component 47 can use the data storage component 475 on the carrier plate 472 to record the number of sika deer one by one. The number can be recorded after the disinfection of a single sika deer is completed, replacing the original manual counting process, which can improve the intelligent effect of the device. With the infrared scanning of the body disinfection liquid of the scanning component 47, the situation of repeated recording can be avoided.

[0032] Any technical solution that achieves the above-mentioned technical effects by utilizing the technical solutions described in this invention, or by designing similar technical solutions by those skilled in the art under the inspiration of the technical solutions described in this invention, falls within the protection scope of this invention.

Claims

1. A disease prevention and control device for sika deer, comprising: The guide box (1), main unit (2), water-absorbing component (3), detector (4), disinfection structure (5), and moving wheels (6) are characterized in that: the guide box (1) is embedded in the upper side of the main unit (2), the surface of the main unit (2) is fixedly connected to the water-absorbing component (3) and the side of the water-absorbing component (3) is spaced together with the guide box (1), the detector (4) is set on the upper end of the water-absorbing component (3) and electrically connected to the main unit (2), the disinfection structure (5) is installed on the upper front end of the main unit (2) and its rear side is connected to the front edge of the water-absorbing component (3), and the detector (4) is set on the upper rear side of the disinfection structure (5) to form a non-obstructive form, and the moving wheels (6) are embedded in the four sides of the edge of the main unit (2).

2. The disease prevention and control device for sika deer according to claim 1, characterized in that: The disinfection structure (5) is provided with a connecting groove (51), a connecting plate (52), an extension plate (53), a heightening block (54), a limiting plate (55), and a sprayer (56). The connecting groove (51) penetrates the surface area of ​​the connecting plate (52). The extension plates (53) are installed inside both sides of the connecting plate (52) and are in contact with each other. The heightening block (54) is fixed to the upper ends of both sides of the connecting plate (52) and its front edge is connected to the limiting plate (55). The limiting plate (55) is set in the area above the extension plate (53). The sprayer (56) is vertically installed in the inner area of ​​the connecting plate (52) through the connecting groove (51). The sprayer (56) is connected to the front end of the water-absorbing component (3) through the connecting groove (51) of the connecting plate (52).

3. The disease prevention and control device for sika deer according to claim 2, characterized in that: The sprayer (56) is provided with a receiving block (561), a dispersing plate (562), a first spray channel (563), a connecting layer (564), a balancing plate (565), and a second spray channel (566). The receiving block (561) and the center of the back of the dispersing plate (562) are perpendicular to each other. The first spray channel (563) is opened on the surface of the dispersing plate (562). The connecting layer (564) and both sides of the dispersing plate (562) are an integrated structure. The balancing plate (565) is connected to both sides of the dispersing plate (562) through the connecting layer (564). The second spray channel (566) and the balancing plate (565) are an integrated structure. The dispersing plate (562) is connected to the connecting groove (51) of the connecting plate (52) through the receiving block (561). The other end of the balancing plate (565) is connected to the center of the side of the other two sets of sprayers (56).

4. The disease prevention and control device for sika deer according to claim 1, characterized in that: The main unit (2) is provided with a guide block (21), a flow box (22), a parallel plate (23), a sound insulation component (24), an ice and fire plate (25), and a through groove (26). The guide block (21) is connected to the side of the flow box (22). The upper layer of the flow box (22) overlaps with the lower layer of the parallel plate (23). The sound insulation component (24) is embedded in the surface of the parallel plate (23). The ice and fire plate (25) covers the upper layer of the sound insulation component (24). The through groove (26) passes through the center of the surface of the ice and fire plate (25), the sound insulation component (24), the parallel plate (23), and the flow box (22). The sound insulation component (24) is positioned at the lower end of the water absorption component (3) through the flow box (22) and the ice and fire plate (25).

5. The disease prevention and control device for sika deer according to claim 4, characterized in that: The sound insulation component (24) is provided with a sewn end (241), a polyester fiber fabric (242), a PVC sound insulation felt (243), and a metal plate (244). The sewn end (241) and the polyester fiber fabric (242) are an integrated structure, and the polyester fiber fabric (242) is connected to the surface of the PVC sound insulation felt (243) through the sewn end (241). The metal plate (244) is installed at the lower end of the PVC sound insulation felt (243), and the PVC sound insulation felt (243) is covered on the upper layer of the circulation box (22) through the metal plate (244).

6. The disease prevention and control device for sika deer according to claim 1, characterized in that: The detector (4) is provided with a positioning frame (41), a contact plate (42), a slide rail (43), a slide plate (44), a central restraint rail (45), an anti-detachment block (46), and a scanning element (47). The inner layer of the positioning frame (41) overlaps with the edge of the contact plate (42). The surface of the contact plate (42) has a slide rail (43). The slide plate (44) is connected to the slide rail (43). The central restraint rail (45) and the slide plate (44) are an integrated structure. The anti-detachment block (46) is positioned on the left and right sides of the slide plate (44). The scanning element (47) is embedded in the slide rail (43) and the central restraint rail (45) and is in contact with the slide plate (44). The scanning element (47) is electrically connected to the host (2).

7. The disease prevention and control device for sika deer according to claim 6, characterized in that: The back of the scanning component (47) is provided with a pulley (471), a support plate (472), a support rod (473), a central protrusion (474), and a data storage component (475). The pulley (471) is embedded in the upper and lower ends of the support plate (472). The inner layer of the support plate (472) is connected to the support rod (473). The central protrusion (474) is located in the middle part of the support plate (472) and is connected to the support rod (473). The data storage component (475) is positioned in the upper and lower middle surface of the support plate (472) and is electrically connected to the host (2).

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