Disinfecting and drying device for predatory mite feeding bottle

Abstract

The utility model relates to a predatory mite feeding bottle disinfecting and drying device, and belongs to the technical field of predatory mite feeding. According to the feeding bottle disinfection device, the tray with the limiting function is used for placing the inverted feeding bottles, the stability in the disinfection process is improved, the interior of each inverted feeding bottle is fully cleaned and disinfected through the disinfection assembly, the disinfection effect of the feeding bottles is enhanced, and the disinfection efficiency is improved. The hot air assembly is arranged in the disinfection box and used for blowing hot air into the disinfection box, the cleaned and disinfected feeding bottles are dried, the drying efficiency is high, the functions of disinfecting and drying the feeding bottles are achieved, the feeding bottles do not need to be vibrated and disinfected manually, the labor intensity of workers is greatly relieved, and the working efficiency is improved.

Description

Technical Field

[0001] The utility model belongs to the technical field of predatory mite breeding, and in particular relates to a device for disinfecting and drying a predatory mite breeding bottle. Background Art

[0002] Predatory mites are a beneficial biological control tool and are widely used in agriculture, gardening and other fields. Before bottling the predatory mites, they need to be disinfected, cleaned and dried in advance to ensure the cleanliness of the breeding bottles. However, traditional predatory mite breeding bottle disinfection mostly uses manual shaking methods. This method is to pour the disinfectant into the breeding bottle, and then shake it repeatedly by hand. Not only is the work efficiency low, but it also consumes manpower and increases the labor intensity of workers. Most of the existing disinfection devices have the problems of single function and incomplete disinfection. During the disinfection process, the bottle mouth is placed upwards, and impurities are likely to remain in the breeding bottle after cleaning and disinfection, affecting the disinfection effect. Summary of the invention

[0003] In order to overcome the problem that traditional predatory mite breeding bottles are mostly disinfected by artificial oscillation in the background technology, which not only has low work efficiency, but also consumes manpower and increases the labor intensity of workers, most of the existing disinfection devices have the problems of single function, incomplete disinfection and poor disinfection effect. The utility model provides a predatory mite breeding bottle disinfection and drying device; by arranging a tray with a limiting function for placing inverted breeding bottles, the stability during the disinfection process is improved, and the inside of each inverted breeding bottle is fully cleaned and disinfected by a disinfection component, thereby enhancing the disinfection effect of the breeding bottle, and a hot air component is arranged in the disinfection box for blowing hot air into the disinfection box to dry the cleaned and disinfected breeding bottles, with high drying efficiency, realizing the disinfection and drying functions of the breeding bottles, without the need for manual oscillation disinfection of the breeding bottles, greatly reducing the manual labor intensity and improving work efficiency.

[0004] To achieve the above-mentioned purpose, the utility model is realized through the following technical scheme: a predatory mite breeding bottle disinfection and drying device mainly includes a chassis, a disinfection box, a tray, a hot air component, a disinfection component, a mesh plate, a tray rack, a limit grid rack, a hot air chamber, a controller, a water pump, a drain pipe, and a box door. The chassis is hinged with a box door, and a vent hole is opened on the side of the chassis. The disinfection box is installed inside the chassis, and a mesh plate for water vapor circulation is provided on the top of the disinfection box. The disinfection box includes an outer shell and an inner shell, and a hot air chamber is formed between the outer shell and the inner shell. The bottom of the inner shell is provided with a mesh for the circulation of disinfectant water, and the bottom of the outer shell is provided with a drain pipe for discharging disinfectant water. A plurality of sets of tray racks are equidistantly installed on the inner shell of the poison box along the vertical direction, and trays are placed on the tray racks accordingly. A plurality of limiting rings for supporting the bottle mouths of the predatory mite breeding bottles are equidistantly arranged in the horizontal and vertical directions on the bottom of the trays, and the limiting rings are fixedly connected to adjacent limiting rings by connecting rods. A limiting grid frame for fixing the bottom of the predatory mite breeding bottles is hinged on the tray; the disinfection component is installed inside the inner shell through the tray rack, and is located below the tray. Hot air components for heating cold air are respectively installed on both sides of the chassis, and the controller and the water pump are installed on the outer wall of the chassis. The water pump is connected to the disinfection component, and the controller is electrically connected to the water pump and the hot air component respectively.

[0005] The disinfection assembly includes a main pipe, an annular diversion pipe, a first branch pipe, a disinfection nozzle, and a second branch pipe. The annular diversion pipe is installed on a tray rack. The annular diversion pipe is connected to the main pipe through the first branch pipe. The main pipe is connected to a water pump. A plurality of second branch pipes are equidistantly installed on the annular diversion pipe. A plurality of disinfection nozzles corresponding to the center of a limiting ring are equidistantly installed on the second branch pipe of the annular diversion pipe along the axial direction, and the nozzle ends of the disinfection nozzles face directly upwards.

[0006] The hot air assembly includes a shell, an electric heating pipe, and a fan. The shell is installed on the side of the chassis and is connected to the hot air chamber. The fan, electric heating pipe and filter cotton are installed in the shell from the outside to the inside. The fan and the electric heating pipe are electrically connected to the controller respectively.

[0007] Beneficial effects of the utility model:

[0008] The utility model provides a tray with a limiting function for placing inverted feeding bottles, thereby improving the stability during the disinfection process, and fully cleans and disinfects the inside of each inverted feeding bottle through a disinfection component, thereby enhancing the disinfection effect of the feeding bottles, and a hot air component is provided in the disinfection box for blowing hot air into the disinfection box to dry the cleaned and disinfected feeding bottles with high drying efficiency, thereby realizing the disinfection and drying functions of the feeding bottles, and there is no need for manual oscillation disinfection of the feeding bottles, thereby greatly reducing the manual labor intensity and improving the work efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0009] Figure 1 It is a three-dimensional schematic diagram of the utility model.

[0010] Figure 2 yes Figure 1 A partial enlarged view of point A in the middle.

[0011] Figure 3 It is a three-dimensional schematic diagram of the installation status of the hot air component.

[0012] Figure 4 It is a sectional stereoscopic schematic diagram of the utility model.

[0013] Figure 5 It is a front sectional view of the utility model.

[0014] Figure 6 It is a top plan view of the utility model.

[0015] Figure 7 yes Figure 6 A partial enlarged view of point B in the middle.

[0016] Figure 8 It is a three-dimensional schematic diagram of a pallet.

[0017] Fig. 9 It is a three-dimensional schematic diagram of the installation status of the disinfection component.

[0018] Fig.10 It is a three-dimensional schematic diagram of the disinfection component. DETAILED DESCRIPTION

[0019] In order to make the purpose, technical solution and beneficial effects of the present invention clearer, the preferred embodiments of the present invention will be described in detail below in conjunction with the accompanying drawings to facilitate understanding by technicians.

[0020] The utility model discloses a sterilizing and drying device for predatory mite breeding bottles. The sterilizing and drying device for predatory mite breeding bottles mainly comprises a machine case 1, a sterilizing box 2, a tray 3, a hot air component 4, a sterilizing component 5, a mesh plate 6, a tray frame 7, a limit grid frame 8, a hot air cavity 9, a controller 10, a water pump 11, a drain pipe 12, and a box door 13. The machine case 1 is hinged with the box door 13, a vent hole 101 is provided on the side of the machine case 1, the sterilizing box 2 is installed inside the machine case 1, a mesh plate 6 for water vapor circulation is provided on the top of the sterilizing box 2, the sterilizing box 2 comprises an outer shell 201 and an inner shell 202, a hot air cavity 9 is formed between the outer shell 201 and the inner shell 202, a mesh for sterilizing water circulation is provided at the bottom of the inner shell 202, and a drain pipe for discharging sterilizing water is provided at the bottom of the outer shell 201 12. A plurality of tray racks 7 are equidistantly installed on the inner shell 202 of the disinfection box 2 along the vertical direction, and trays 3 are placed on the tray racks 7 accordingly. A plurality of limiting rings 301 for supporting the bottle mouths of the predatory mite breeding bottles are equidistantly arranged in the horizontal and vertical directions on the bottom of the tray 3, and the limiting rings 301 are fixedly connected to adjacent limiting rings 301 by connecting rods 302. A limiting grid 8 for fixing the bottom of the predatory mite breeding bottle is hinged on the tray 3; the disinfection component 5 is installed inside the inner shell 202 through the tray rack 7 and is located below the tray 3. Hot air components 4 for heating cold air are respectively installed on both sides of the chassis 1. The controller 10 and the water pump 11 are installed on the outer wall of the chassis 1, and the water pump 11 is connected to the disinfection component 5. The controller 10 is electrically connected to the water pump 11 and the hot air component 4, respectively.

[0021] During use, the operator places the predatory mite breeding bottles upside down on the limiting rings 301 in the tray 3. After placement, the limiting grid frame 8 is tightly covered, and the bottom of the predatory mite breeding bottles is limited and fixed by the limiting grid frame 8, so as to improve the stability of the predatory mite breeding bottles during cleaning and disinfection. Then the tray 3 with the breeding bottles is placed in the disinfection box 2. After each layer is placed, the box door 13 is closed, and the disinfection and drying time are set respectively by the controller 10. Disinfection water is sprayed into the disinfection box 2 through the disinfection component 5, and the inside of the predatory mite breeding bottles is fully cleaned, thereby enhancing the disinfection effect of the predatory mite breeding bottles. The disinfectant water after cleaning and disinfection flows along the inner shell 20 2 flows to the bottom of the outer shell 201 through the mesh holes at the bottom, and is discharged through the drain pipe 12; after cleaning and disinfection, the hot air component 4 is started to heat the air and blow the hot air into the inner shell 202 along the mesh holes at the bottom of the inner shell 202 of the disinfection box 2, so as to dry the predatory mite breeding bottles after cleaning and disinfection, and further improve the drying efficiency. During the drying process, the generated water vapor is discharged in turn along the mesh plate 6 at the top of the disinfection box 2 and the air vents 101 on the side of the chassis 1; the utility model realizes the disinfection and drying functions of the predatory mite breeding bottles, and there is no need to manually oscillate and disinfect the breeding bottles, which greatly reduces the labor intensity and improves the work efficiency.

[0022] The disinfection assembly 5 comprises a main pipe 501, an annular shunt pipe 502, a first branch pipe 503, a disinfection nozzle 504, and a second branch pipe 505. The annular shunt pipe 502 is installed on the tray rack 7. The annular shunt pipe 502 is connected to the main pipe 501 through the first branch pipe 503. The main pipe 501 is connected to the water pump 11. A plurality of second branch pipes 505 are equidistantly installed on the annular shunt pipe 502. A plurality of disinfection nozzles 504 corresponding to the center of the limiting ring 301 are equidistantly installed on the annular shunt pipe 502 and the second branch pipe 505 along the axial direction, and the nozzle ends of the disinfection nozzles 504 face directly upwards. When working, the water pump 11 is started to draw disinfection water into the annular shunt pipe 502 and the second branch pipe 505 along the main pipe 501 and the first branch pipe 503, and spray it through the disinfection nozzle 504 to fully clean the inside of the predatory mite breeding bottle, further enhancing the disinfection effect of the predatory mite breeding bottle, and the disinfection efficiency is high.

[0023] The hot air component 4 includes a shell cover 401, an electric heating pipe 402, and a fan 403. The shell cover 401 is installed on the side of the chassis 1 and is connected to the hot air chamber 9. The fan 403, the electric heating pipe 402 and the filter cotton are installed in the shell cover 401 from the outside to the inside. The fan 403 and the electric heating pipe 402 are electrically connected to the controller 10 respectively; when working, the fan 403 and the electric heating pipe 402 are started, and the air is heated by the electric heating pipe 402. The fan 403 blows the heated hot air into the disinfection box 2 to dry the predatory mite breeding bottles after cleaning and disinfection, thereby increasing the drying speed of the predatory mite breeding bottles and further improving the drying efficiency; the filter cotton can filter impurities in the air to ensure the disinfection effect of the predatory mite breeding bottles.

[0024] Working process:

[0025] During use, the operator places the predatory mite breeding bottles upside down on the limiting rings 301 in the tray 3. After placement, the limiting grid frame 8 is covered tightly, and the bottom of the predatory mite breeding bottles is limited and fixed by the limiting grid frame 8, so as to improve the stability of the predatory mite breeding bottles during cleaning and disinfection. Then the tray 3 with the breeding bottles is placed in the disinfection box 2. After each layer is placed, the box door 13 is closed, and the disinfection and drying time are set respectively by the controller 10, and the water pump 11 is started to draw disinfectant water along the main pipe 501 and the first branch pipe 503 into the annular shunt pipe 502 and the second branch pipe 505, and spray it through the disinfection nozzle 504 to fully clean the inside of the predatory mite breeding bottle, further enhancing the disinfection effect of the predatory mite breeding bottle, and the disinfection efficiency is high. The disinfectant water after cleaning and disinfection flows along the mesh holes at the bottom of the inner shell 202 Flows to the bottom of the shell 201 and is discharged through the drain pipe 12; after cleaning and disinfection, the fan 403 and the electric heating tube 402 are started, and the air is heated by the electric heating tube 402. The fan 403 blows the hot air into the inner shell 202 along the mesh holes at the bottom of the inner shell 202 of the disinfection box 2 to dry the predatory mite breeding bottles after cleaning and disinfection, thereby improving the drying speed of the predatory mite breeding bottles and further improving the drying efficiency; the filter cotton can filter impurities in the air to ensure the disinfection effect of the predatory mite breeding bottles; during the drying process, the generated water vapor is discharged in turn along the mesh plate 6 on the top of the disinfection box 2 and the air vents 101 on the side of the chassis 1; the utility model realizes the disinfection and drying functions of the predatory mite breeding bottles, and there is no need to manually oscillate and disinfect the breeding bottles, which greatly reduces the labor intensity and improves the work efficiency.

[0026] Finally, it should be noted that the above preferred embodiments are only used to illustrate the technical solution of the utility model rather than to limit it. Although the utility model has been described in detail through the above preferred embodiments, those skilled in the art should understand that various changes can be made in form and details without departing from the scope defined by the claims of the utility model.

Claims

1. A sterilizing and drying device for predatory mite breeding bottles, characterized in that: The disinfection and drying device for predatory mite breeding bottles comprises a machine box (1), a disinfection box (2), a tray (3), a hot air component (4), a disinfection component (5), a mesh plate (6), a tray frame (7), a limit mesh frame (8), a hot air chamber (9), a controller (10), a water pump (11), a drain pipe (12), and a door (13). The machine box (1) is hinged with the door (13). The machine box (1) is provided with a vent hole (101) on the side of the machine box (1). The disinfection box (2) is installed inside the machine box (1). The top of the disinfection box (2) is provided with a mesh plate (6) for water vapor circulation. The disinfection box (2) comprises an outer shell (201) and an inner shell (202). A hot air chamber (9) is formed between the outer shell (201) and the inner shell (202). The bottom of the inner shell (202) is provided with a mesh hole for disinfection water circulation. The bottom of the outer shell (201) is provided with a drain pipe (12) for discharging disinfection water. A plurality of groups of tray racks (7) are equidistantly mounted on the inner shell (202) along the vertical direction, and trays (3) are placed on the tray racks (7) accordingly. A plurality of limiting rings (301) for supporting the bottle mouths of the predatory mite breeding bottles are equidistantly mounted on the bottom of the tray (3) along the horizontal and vertical directions, respectively. The limiting rings (301) are fixedly connected to adjacent limiting rings (301) via connecting rods (302). A limiting grid (8) for fixing the bottom of the predatory mite breeding bottles is hingedly mounted on the tray (3). The disinfection assembly (5) is mounted inside the inner shell (202) via the tray racks (7) and is located below the tray (3). Hot air assemblies (4) for heating cold air are mounted on both sides of the chassis (1). The controller (10) and the water pump (11) are mounted on the outer wall of the chassis (1). The water pump (11) is connected to the disinfection assembly (5), and the controller (10) is electrically connected to the water pump (11) and the hot air assembly (4) respectively.

2. A predatory mite breeding bottle disinfection and drying device as claimed in claim 1, characterized in that: The disinfection assembly (5) comprises a main pipe (501), an annular diverter pipe (502), a first branch pipe (503), a disinfection nozzle (504), and a second branch pipe (505). The annular diverter pipe (502) is installed on a tray frame (7). The annular diverter pipe (502) is connected to the main pipe (501) via the first branch pipe (503). The main pipe (501) is connected to a water pump (11). A plurality of second branch pipes (505) are equidistantly installed on the annular diverter pipe (502). A plurality of disinfection nozzles (504) corresponding to the center of a limiting ring (301) are equidistantly installed on the annular diverter pipe (502) and the second branch pipe (505) along the axial direction, and the nozzle ends of the disinfection nozzles (504) face upward.

3. A predatory mite breeding bottle disinfection and drying device as claimed in claim 1 or 2, characterized in that: The hot air assembly (4) comprises a shell (401), an electric heating pipe (402), and a fan (403); the shell (401) is mounted on the side of the chassis (1) and is connected to the hot air chamber (9); a fan (403), an electric heating pipe (402), and filter cotton are installed in the shell (401) from the outside to the inside; the fan (403) and the electric heating pipe (402) are electrically connected to the controller (10) respectively.

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