Embedded oxygen inhalator placing box

Abstract

The invention provides an embedded oxygen inhalator placing box which comprises a placing box body, the interior of the placing box body is sequentially connected with a first-layer disinfection frame, a second-layer disinfection frame and a third-layer placing frame in a separated mode from bottom to top, and a disinfection box is arranged on the portion, located on the outer wall of the placing box body, of one side of the first-layer disinfection frame; disinfection pipes which are arranged at equal intervals are arranged under the second-layer disinfection frame, a disinfection opening in the bottom of the disinfection box is communicated with the disinfection pipes, and top spraying assemblies which are arranged at equal intervals are arranged in the disinfection pipes; by means of the design of the three layers of frame bodies in the containing box body, the embedded oxygen inhalator can be automatically disinfected and sterilized, meanwhile, comprehensive dead-corner-free disinfection and sterilization are achieved through ultraviolet rays and disinfectant spray, treatment of the oxygen inhalator can be rapidly completed, after cleaning is completed, the oxygen inhalator can be stored, and meanwhile the ventilation performance of storage is guaranteed.

Description

Technical Field

[0001] The present invention relates to the field of disinfection of medical devices, and more particularly to an embedded oxygen inhaler placement box. Background Art

[0002] An embedded oxygen inhaler is a medical device for oxygen flow measurement, and its main function is to supply oxygen to emergency patients and hypoxic patients at an appropriate flow rate. It mainly consists of a pressure gauge, a pressure reducing valve, a safety valve, a flow meter, a flow control valve, and a humidifying bottle. High-pressure oxygen is reduced in pressure by a pressure reducing valve, changing from the original high-pressure oxygen to low-pressure oxygen, and then entering the humidifying bottle through a flow meter. After humidification treatment, it is output from the low-pressure oxygen outlet at a constant flow rate for the patient to inhale oxygen, and the size of the flow rate value is adjusted by a flow controller.

[0003] After the embedded oxygen inhaler is used, it must be disinfected before it can be used again. The traditional disinfection method is to manually dip medical alcohol with a cotton swab and apply it for disinfection, and then uniformly store it inside the placement box. However, the manual disinfection speed is very slow, and there are certain sanitary dead corners when using cotton swabs for disinfection, making it difficult to disinfect comprehensively.

[0004] Therefore, we have made improvements in this regard and proposed an embedded oxygen inhaler placement box. Summary of the Invention

[0005] The purpose of the present invention is to address the current low efficiency of manual disinfection and the existence of sanitary dead corners that cannot be disinfected comprehensively and efficiently.

[0006] In order to achieve the above-mentioned invention purpose, the present invention provides an embedded oxygen inhaler placement box to improve the above problems.

[0007] Specifically, this application is as follows:

[0008] An embedded oxygen inhaler placement box, comprising:

[0009] A placement box body, inside which there are sequentially separated and connected with a first-layer disinfection rack, a second-layer disinfection rack, and a third-layer placement rack from bottom to top. On one side of the first-layer disinfection rack and outside the placement box body, there is a disinfection box. Below the second-layer disinfection rack, there are equally spaced disinfection pipes. The disinfection outlet at the bottom of the disinfection box is communicated with the disinfection pipes. Inside the disinfection pipes, there are equally spaced top spray components. The top spray components slide up and down inside the disinfection pipes. When the disinfection box is in the start state, it drives the disinfection pipes and the top spray components to extend into the second-layer disinfection rack. Above the third-layer placement rack and inside the top of the placement box body, there is a ventilation component.

[0010] As a preferred technical solution of the present application, a sensing sealing door is hinged to the front of the placement box body, an operation panel is arranged on the surface of the placement box body above the sensing sealing door, and the disinfection box, the ventilation component and the sensing sealing door are electrically connected to the operation panel.

[0011] As a preferred technical solution of the present application, symmetric rail seats are fixed at the positions where the placement box body is connected to the first-layer disinfection rack, the second-layer disinfection rack, and the third-layer placement rack. Slide rails are fixed on both sides of the outer walls of the first-layer disinfection rack, the second-layer disinfection rack, and the third-layer placement rack, and the slide rails slide inside the rail seats. A prompt box is arranged in the middle of the front of the first-layer disinfection rack, the second-layer disinfection rack, and the third-layer placement rack. A prompt piece is slidably connected inside the prompt box. Elastic clamping seats are fixedly arranged in a distributed and arranged manner inside the first-layer disinfection rack, the second-layer disinfection rack, and the third-layer placement rack. A gravity sensing seat is arranged at the bottom of the elastic clamping seat, and the elastic clamping seat is fixed on the top surface of the gravity sensing seat. An inhaler body is clamped inside the elastic clamping seat. Ultraviolet lamps are arranged in an equidistant manner above the first-layer disinfection rack, and the ultraviolet lamps are fixed on the inner surface of the placement box body.

[0012] As a preferred technical solution of the present application, equidistantly arranged avoidance grooves are formed inside the second-layer disinfection rack, and a disinfection area is formed between the avoidance grooves. The gravity sensing seat is fixed inside the disinfection area.

[0013] As a preferred technical solution of the present application, a liquid level gauge is connected to the middle of the outer wall of the disinfection box, a liquid level alarm lamp is arranged at the top of the liquid level gauge, a fogging drain pipe is connected to the center of the bottom surface of the disinfection box, a fogging box is arranged at the connection of the fogging drain pipe and the fogging box, a ceramic fogging sheet is arranged inside the fogging box, an air pump is arranged below the fogging drain pipe, an air pipe is connected to the output port of the air pump, the other end of the air pipe is communicated with the inside of the fogging box, a shunt pipe is connected to the end of the fogging drain pipe far away from the disinfection box, and the disinfection pipe is communicated with the inside of the shunt pipe.

[0014] As a preferred technical solution of the present application, a fog liquid communication port is opened at the bottom of the end of the disinfection pipe connected to the shunt pipe, a positioning frame is fixed at the inner bottom of the disinfection pipe, a sealing sliding seat is attached to the top surface of the positioning frame, the outer wall of the sealing sliding seat is slidably attached to the inner wall of the disinfection pipe, a spray pipe is arranged on the top surface of the sealing sliding seat, a plurality of fog inlet ports are arranged at equal intervals on the bottom surface of the spray pipe, the spray pipe is communicated with the inside of the disinfection pipe through the fog inlet ports, and a plurality of spray micropores are arranged at equal intervals on both sides of the outer wall of the spray pipe.

[0015] As a preferred technical solution of the present application, a vertical pipe is fixed inside the spray pipe above the fog inlet port, symmetric fog pipe communication ports are opened on both sides of the vertical pipe, the outside of the fog pipe communication ports is communicated with the inside of the spray pipe, and the inside of the fog pipe communication ports is communicated with the inside of the disinfection pipe through the vertical pipe.

[0016] As a preferred technical solution of the present application, the top spray assembly includes a secondary extension pipe, the outer wall of the secondary extension pipe is hermetically and slidably attached to the inner wall of the vertical pipe, symmetric limiting blocks are fixed on both sides of the bottom of the outer wall of the secondary extension pipe, symmetric sealing chutes are provided on both sides of the inner wall of the vertical pipe, the limiting blocks slide on the inner wall of the sealing chutes, a vertical pipe communication hole is provided at the center of the bottom surface of the secondary extension pipe, a sealing piece is hermetically and embedded on the inner side of the vertical pipe communication hole, symmetric cross bars are fixed at both ends of the sealing piece, the cross bars are embedded inside the bottom surface of the secondary extension pipe, symmetric separation transmission rods are vertically fixed on the top surfaces of both ends of the cross bars, and openings are provided inside the limiting blocks, and the separation transmission rods are hermetically slidable inside.

[0017] As a preferred technical solution of the present application, a rotation assembly is provided on the top surface of the secondary extension pipe, the rotation assembly includes a rotation seal box, symmetric double through holes are provided on both sides of the inner bottom surface of the rotation seal box, the bottom of the double through holes communicates with the inside of the secondary extension pipe, a cross fixing frame is fixed in the middle of the rotation seal box, a pneumatic impeller is rotatably connected below the center of the cross fixing frame, a rotation seal seat is connected above the top of the pneumatic impeller and is located above the cross fixing frame, the top surface of the rotation seal seat extends to the outside of the rotation seal box, a spray pipe is connected to the top surface of the rotation seal seat in an annular and equally spaced arrangement, a spray pipe communication port is provided at the position where the rotation seal seat is connected to the spray pipe, the bottom of the spray pipe communication port communicates with the inside of the rotation seal box, a sealing slot is provided at the position where the rotation seal seat is connected to the rotation seal box, and the rotation seal seat is hermetically rotatable on the inner side of the outer wall of the rotation seal box through the sealing slot.

[0018] As a preferred technical solution of the present application, the ventilation assembly includes a ventilation cavity, the ventilation cavity is provided at the position where the placement box body is connected to the three-layer placement rack, the bottom of the ventilation cavity communicates with the lower part of the three-layer placement rack, a filter layer is provided inside the ventilation cavity, air intake net openings are provided on both sides of the top of the outer wall of the placement box body, the air intake net openings communicate with the upper side inside the ventilation cavity, a drive chamber is provided inside the top of the placement box body, a drive motor is provided at the center of the inside of the drive chamber, a ventilation blade is connected to the output end of the drive motor, an air extraction net opening is provided at the bottom of the drive chamber, the bottom of the air extraction net opening communicates with the upper part of the three-layer placement rack, an air outlet net opening is provided at the top of the drive chamber, the top of the air outlet net opening communicates with the outside of the placement box body, a heating plate is provided on the bottom surface at the position where the inside of the placement box body is connected to the three-layer placement rack, and the heating plate is electrically connected to the control panel.

[0019] Compared with the prior art, the beneficial effects of the present invention are:

[0020] In the solution of this application: Through the design of the three-layer rack inside the placement box, it can automatically disinfect and sterilize the embedded oxygen inhaler, and at the same time has comprehensive dead-angle-free disinfection and sterilization with ultraviolet light and disinfectant spray, which can quickly complete the treatment of the oxygen inhaler. After the cleaning is completed, it can also store the oxygen inhaler while ensuring the ventilation of the storage.

[0021] 1. In the present invention, elastic clamping seats are provided inside the first-layer disinfection rack, the second-layer disinfection rack, and the third-layer placement rack, and are connected through gravity sensing seats. It can detect the oxygen inhalers placed inside the disinfection rack and the placement rack through the gravity sensing seats, so as to realize the automatic detection work inside the placement box. At the same time, in cooperation with the sensing sealing door, it can automatically carry out disinfection and sterilization work after the door body is closed.

[0022] 2. In the present invention, a disinfection box is provided on one side of the second-layer disinfection rack, and a disinfection pipe is provided at the bottom of the second-layer disinfection rack and connected to the disinfection box. After the oxygen inhaler is placed, the atomized disinfectant can enter the inside of the disinfection pipe through the disinfection box, and the disinfection pipe can be extended and lifted upward by high-pressure gas to realize multi-angle disinfection of the oxygen inhaler. The top spraying assembly inside the disinfection pipe can be extended a second time to realize the top covering and spraying of the disinfectant on the oxygen inhaler, completing the comprehensive disinfection of the oxygen inhaler.

[0023] 3. In the present invention, a ventilation component is provided at the position of the third-layer placement rack. When the disinfected oxygen inhaler is placed, the ventilation blades can be used to circulate and discharge the air in the area of the third-layer placement rack to complete the air replacement and ensure the cleanliness of the placement space. The filter layer inside the ventilation cavity can filter dust impurities and bacteria in the air to ensure the sanitary condition inside the third-layer placement rack. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 It is a schematic diagram of the overall structure of a placement box for an embedded oxygen inhaler provided by the present invention;

[0025] Figure 2 is Figure 1 a schematic diagram of the structure with the sensing sealing door opened as shown;

[0026] Figure 3 is Figure 2 a schematic diagram of the unfolded structure inside the placement box as shown;

[0027] Figure 4 is Figure 3 a schematic diagram of the structural decomposition of the middle cross-section of the disinfection box as shown;

[0028] Figure 5 is Figure 4 a schematic diagram of the structure at the position of the second-layer disinfection rack as shown;

[0029] Figure 6 isFigure 5 Exploded enlarged schematic diagram of the internal structure of the two-layer disinfection rack shown

[0030] Figure 7 For Figure 5 Exploded enlarged schematic diagram of the bottom structure of the disinfection box shown

[0031] Figure 8 For Figure 7 Schematic diagram of the structure of the position of the disinfection pipe shown

[0032] Figure 9 For Figure 8 Sectional exploded schematic diagram of the internal structure of the disinfection pipe shown

[0033] Figure 10 For Figure 9 Sectional exploded enlarged schematic diagram of the internal connection between the top spray assembly and the disinfection pipe shown

[0034] Figure 11 For Figure 10 Exploded enlarged schematic diagram of the structure of the rotating assembly shown

[0035] Figure 12 For Figure 2 Sectional exploded schematic diagram of the structure of the ventilation assembly shown

[0036] Markings in the figure:

[0037] 1. Placing box body; 11. Sensing and sealing door; 12. Control panel

[0038] 2. First-layer disinfection rack; 21. Rail seat; 211. Slide rail; 22. Prompt box; 23. Prompt piece; 24. Elastic clamping seat; 25. Gravity induction seat; 26. Inhaler body; 27. Ultraviolet lamp tube

[0039] 3. Second-layer disinfection rack; 31. Avoidance groove; 32. Disinfection area

[0040] 4. Third-layer placing rack

[0041] 5. Disinfection box; 51. Liquid level gauge; 52. Liquid level alarm lamp; 53. Atomizing drain pipe; 54. Atomizing box; 55. Ceramic atomizing sheet; 56. Air pump; 57. Air pipe; 58. Shunt pipe

[0042] 6. Disinfection pipe; 61. Mist liquid connection port; 62. Positioning frame; 63. Sealed sliding seat; 64. Spray pipe; 65. Mist inlet; 66. Spray micropores; 67. Vertical pipe; 68. Mist pipe connection port

[0043] 7. Top spray assembly; 71. Secondary extension pipe; 72. Limit block; 73. Sealed sliding groove; 74. Vertical pipe communication hole; 75. Sealing piece; 76. Cross bar; 77. Separation transmission rod

[0044] 78. Rotating assembly; 781. Rotating seal box; 782. Double through-hole; 783. Cross fixing frame; 784. Pneumatic impeller; 785. Rotating seal seat; 786. Nozzle; 787. Nozzle communication port; 788. Sealing card slot; 79. Square groove

[0045] 8. Ventilation assembly; 81. Ventilation cavity; 82. Filter layer; 83. Intake air mesh opening; 84. Drive chamber; 85. Drive motor; 86. Ventilation blade; 87. Exhaust air mesh opening; 88. Outlet air mesh opening, 89. Heating plate Detailed implementation manners

[0046] In order to enable those skilled in the art of the present technology to better understand the solution of the present invention, the following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0047] As described in the background art, manual disinfection has low efficiency, and there are hygiene dead corners where comprehensive and high-efficiency disinfection and sterilization cannot be achieved.

[0048] To solve this technical problem, the present invention provides an embedded oxygen inhaler placement box, which is applied to the automatic and comprehensive disinfection of embedded oxygen inhalers. The three-layer disinfectant spraying method can quickly complete the comprehensive coverage and zero-dead-corner disinfection of embedded oxygen inhalers, and at the same time can disinfect and place multiple oxygen inhalers.

[0049] Specifically, please refer to Figures 1 - 12 , the embedded oxygen inhaler placement box specifically includes:

[0050] A placement box body 1, inside which there are sequentially separated and connected with a first-layer disinfection rack 2, a second-layer disinfection rack 3, and a third-layer placement rack 4 from bottom to top. On one side of the first-layer disinfection rack 2 and outside the wall of the placement box body 1, there is a disinfection box 5. Right below the second-layer disinfection rack 3, there are equally spaced disinfection pipes 6 arranged. The bottom disinfection port of the disinfection box 5 is communicated with the disinfection pipes 6. Inside the disinfection pipes 6, there are equally spaced top spraying components 7 arranged. The top spraying components 7 slide up and down inside the disinfection pipes 6. When the disinfection box 5 is in the starting state, it drives the disinfection pipes 6 and the top spraying components 7 to extend into the second-layer disinfection rack 3. Above the third-layer placement rack 4 and inside the top of the placement box body 1, there is a ventilation assembly 8.

[0051] An embedded oxygen inhaler placement box provided by the present invention can automatically disinfect and sterilize the embedded oxygen inhaler through the design of three-layer shelves inside the placement box body 1, and at the same time has comprehensive dead-angle-free disinfection and sterilization by ultraviolet rays and disinfectant spray, can quickly complete the treatment of the oxygen inhaler, and after the cleaning is completed, can also store the oxygen inhaler while ensuring the ventilation of the storage.

[0052] In order to enable those skilled in the art to better understand the solution of the present invention, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings.

[0053] It should be noted that, without conflict, the embodiments in the present invention and the features and technical solutions in the embodiments can be combined with each other.

[0054] It should be noted that similar reference numerals and letters indicate similar items in the following drawings. Therefore, once an item is defined in one drawing, it does not need to be further defined and explained in subsequent drawings.

[0055] Embodiment 1

[0056] Please refer to Figures 1 - 12 , an embedded oxygen inhaler placement box, a sensing sealing door 11 is hinged to the front of the placement box body 1, a control panel 12 is arranged on the surface of the placement box body 1 above the sensing sealing door 11, and the disinfection box 5, the ventilation component 8 and the sensing sealing door 11 are electrically connected to the control panel 12.

[0057] Symmetric rail seats 21 are fixed at the positions where the placement box body 1 is connected to the first-layer disinfection shelf 2, the second-layer disinfection shelf 3, and the third-layer placement shelf 4. Slide rails 211 are fixed on both sides of the outer walls of the first-layer disinfection shelf 2, the second-layer disinfection shelf 3, and the third-layer placement shelf 4. The slide rails 211 slide inside the rail seats 21. A prompt box 22 is arranged in the middle of the front of the first-layer disinfection shelf 2, the second-layer disinfection shelf 3, and the third-layer placement shelf 4. A prompt piece 23 is slidably connected inside the prompt box 22. Elastic clamping seats 24 are fixedly arranged in a distributed and arranged manner inside the first-layer disinfection shelf 2, the second-layer disinfection shelf 3, and the third-layer placement shelf 4. A gravity sensing seat 25 is arranged at the bottom of the elastic clamping seat 24. The elastic clamping seat 24 is fixed on the top surface of the gravity sensing seat 25. An inhaler body 26 is clamped inside the elastic clamping seat 24. Ultraviolet lamps 27 are arranged in an equidistant manner above the first-layer disinfection shelf 2. The ultraviolet lamps 27 are fixed on the inner surface of the placement box body 1.

[0058] Avoidance grooves 31 are arranged in an equidistant manner inside the second-layer disinfection shelf 3. A disinfection area 32 is formed between the avoidance grooves 31. The gravity sensing seat 25 is fixed inside the disinfection area 32.

[0059] Inside the first - layer disinfection rack 2, the second - layer disinfection rack 3, and the third - layer placement rack 4, there is an elastic clamping seat 24, which is connected through a gravity - sensing seat 25. It can detect the oxygen inhalers placed inside the disinfection rack and the placement rack through the gravity - sensing seat 25, thus realizing the automatic detection work inside the placement box 1. At the same time, in cooperation with the sensing sealing door 11, it can automatically carry out disinfection and sterilization work after closing the door body.

[0060] Embodiment 2

[0061] Further optimize the embedded oxygen inhaler placement box provided in Embodiment 1. Specifically, as Figures 1 - 12 , in the middle of the outer wall of the disinfection box 5, there is a liquid level gauge 51. At the top of the liquid level gauge 51, there is a liquid level alarm lamp 52. At the center of the bottom surface of the disinfection box 5, there is a mist - atomizing drain pipe 53. At the connection of the mist - atomizing drain pipe 53 and the atomizing box 54, there is an atomizing box 54. Inside the atomizing box 54, there is a ceramic atomizing sheet 55. Below the mist - atomizing drain pipe 53, there is an air pump 56. The output port of the air pump 56 is connected to an air pipe 57, and the other end of the air pipe 57 is communicated with the inside of the atomizing box 54. The end of the mist - atomizing drain pipe 53 far away from the disinfection box 5 is connected to a shunt pipe 58, and the disinfection pipe 6 is communicated with the inside of the shunt pipe 58.

[0062] At the bottom of the end of the disinfection pipe 6 connected to the shunt pipe 58, there is a mist - liquid communication port 61. At the inner bottom of the disinfection pipe 6, there is a positioning frame 62. The top surface of the positioning frame 62 is attached to a sealing sliding seat 63. The outer wall of the sealing sliding seat 63 slides in contact with the inner wall of the disinfection pipe 6. On the top surface of the sealing sliding seat 63, there is a spray pipe 64. On the bottom surface of the spray pipe 64, there are equally - spaced arranged mist - inlet openings 65. The spray pipe 64 is communicated with the inside of the disinfection pipe 6 through the mist - inlet openings 65. On both sides of the outer wall of the spray pipe 64, there are equally - spaced arranged spray micro - holes 66.

[0063] Inside the spray pipe 64, above the mist - inlet openings 65, there is a vertical pipe 67. On both sides of the vertical pipe 67, there are symmetrically arranged mist - pipe communication ports 68. The outside of the mist - pipe communication ports 68 is communicated with the inside of the spray pipe 64, and the inside of the mist - pipe communication ports 68 is communicated with the inside of the disinfection pipe 6 through the vertical pipe 67.

[0064] The top spray assembly 7 includes a secondary extension pipe 71. The outer wall of the secondary extension pipe 71 is hermetically and slidably attached to the inner wall of the vertical pipe 67. On both sides of the bottom of the outer wall of the secondary extension pipe 71, symmetrically arranged limit blocks 72 are fixed. On both sides of the inner wall of the vertical pipe 67, symmetrically arranged sealed sliding grooves 73 are provided. The limit blocks 72 slide inside the inner wall of the sealed sliding grooves 73. At the center of the bottom surface of the secondary extension pipe 71, a vertical pipe communication hole 74 is provided. Inside the vertical pipe communication hole 74, a sealing sheet 75 is hermetically embedded. At both ends of the sealing sheet 75, symmetrically arranged cross bars 76 are fixed. The cross bars 76 are embedded inside the bottom surface of the secondary extension pipe 71. Vertically fixed to the top surfaces of both ends of the cross bars 76 are separating transmission rods 77. Inside the limit blocks 72, square grooves 79 are provided. The separating transmission rods 77 are hermetically slidable inside the square grooves 79.

[0065] On the top surface of the secondary extension pipe 71, a rotation assembly 78 is provided. The rotation assembly 78 includes a rotation sealing box 781. On both sides of the inner bottom surface of the rotation sealing box 781, symmetrically arranged double through holes 782 are provided. The bottoms of the double through holes 782 communicate with the inside of the secondary extension pipe 71. In the middle of the rotation sealing box 781, a cross fixing frame 783 is fixed. Below the center of the cross fixing frame 783, a pneumatic impeller 784 is rotatably connected. Above the cross fixing frame 783 at the top of the pneumatic impeller 784, a rotation sealing seat 785 is connected. The top surface of the rotation sealing seat 785 extends to the outside of the rotation sealing box 781. The top surface of the rotation sealing seat 785 is connected with spray pipes 786 arranged in an annular and equally spaced manner. At the position where the rotation sealing seat 785 is connected with the spray pipes 786, spray pipe communication ports 787 are provided. The bottoms of the spray pipe communication ports 787 communicate with the inside of the rotation sealing box 781. At the position where the rotation sealing seat 785 is connected with the rotation sealing box 781, a sealing card slot 788 is provided. The rotation sealing seat 785 is hermetically rotatable inside the inner side of the outer wall of the rotation sealing box 781 through the sealing card slot 788.

[0066] On one side of the second - layer disinfection rack 3, a disinfection box 5 is provided, and at the bottom of the second - layer disinfection rack 3, a disinfection pipe 6 is connected to the disinfection box 5. After the oxygen inhaler is placed, the disinfection liquid can be atomized by the disinfection box 5 and enter the inside of the disinfection pipe 6. Driven by high - pressure gas, the disinfection pipe 6 can extend and move upward, realizing multi - angle disinfection of the oxygen inhaler. And the top spray assembly 7 inside the disinfection pipe 6 can perform secondary extension, realizing the top - covering spraying of the disinfection liquid on the oxygen inhaler and completing the comprehensive disinfection of the oxygen inhaler.

[0067] Embodiment 3

[0068] Further optimize the embedded oxygen inhaler placement box provided in Embodiment 1 or 2. Specifically, as Figures 1 - 12As shown in the figure, the ventilation component 8 includes a ventilation chamber 81, which is opened at the position where the placement box 1 is connected to the three-layer placement rack 4. The bottom of the ventilation chamber 81 communicates with the lower part of the three-layer placement rack 4. A filter layer 82 is provided inside the ventilation chamber 81. Air intake openings 83 are opened on both sides of the top of the outer wall of the placement box 1, and the air intake openings 83 communicate with the upper side inside the ventilation chamber 81. A drive chamber 84 is opened inside the top of the placement box 1. A drive motor 85 is provided at the center of the inner side of the drive chamber 84. The output end of the drive motor 85 is connected with a ventilation blade 86. An air extraction opening 87 is opened on the bottom surface of the drive chamber 84, and the bottom of the air extraction opening 87 communicates with the upper part of the three-layer placement rack 4. An air outlet opening 88 is opened on the top surface of the drive chamber 84, and the top of the air outlet opening 88 communicates with the outside of the placement box 1. A heating plate 89 is provided on the bottom surface at the position where the three-layer placement rack 4 is connected inside the placement box 1, and the heating plate 89 is electrically connected to the control panel 12.

[0069] At the position of the three-layer placement rack 4, a ventilation component 8 is provided, which can, when placing the oxygen inhaler after disinfection, use the ventilation blade 86 to circulate and discharge the air in the area of the three-layer placement rack 4 to complete the replacement of the air and ensure the cleanliness of the placement space. The filter layer 82 inside the ventilation chamber 81 can filter dust impurities and bacteria in the air to ensure the hygiene condition inside the three-layer placement rack 4.

[0070] The usage process of an embedded oxygen inhaler placement box provided by the present invention is as follows:

[0071] Ultraviolet disinfection process: Open the sensing sealing door 11, place the used oxygen inhaler inside the first-layer disinfection rack 2. When placing, pull the first-layer disinfection rack 2 to the outside, and then buckle the oxygen inhaler inside the elastic clamping seat 24. At this time, the oxygen inhaler will apply pressure to the gravity sensing seat 25 through its own gravity, and the gravity sensing seat 25 will transmit the signal of the received pressure to the central system inside the placement box.

[0072] After the oxygen inhaler is placed, push the prompt piece 23 to slide to the disinfection state, then push the first-layer disinfection rack 2 back to its original position, and close the sensing sealing door 11. When the sensing sealing door 11 is closed, the central system inside the placement box 1 will be connected and started. At this time, input the disinfection instruction through the control panel 12, and the central control system will turn on the ultraviolet lamp tube 27 to disinfect the oxygen inhaler. When the set disinfection time ends, the sensing sealing door 11 can be opened again, and the disinfected oxygen inhaler can be placed inside the three-layer placement rack 4 for standby.

[0073] Disinfection process of the disinfectant solution: Open the sensing and sealing door 11, pull the second-layer disinfection rack 3 to the outside, then fix the used oxygen inhaler inside the disinfection area 32 through the elastic clamping seat 24. After that, push the second-layer disinfection rack 3 into the placement box body 1, close the sensing and sealing door 11, and input the second-layer disinfection instruction through the control panel 12 to start the simultaneous operation of the disinfection box 5 and the air pump 56.

[0074] When the disinfection box 5 works, it will start the ceramic atomizing sheet 55 to atomize the disinfectant solution inside the disinfection box 5, and the air pump 56 will deliver high-pressure air into the atomizing box 54 (the inside of the disinfection box 5 is in a sealed state, and the high-pressure control can only flow through the atomizing drain pipe 53). The high-pressure air will transport the atomized disinfectant solution to the inner side of the atomizing box 54 through the atomizing drain pipe 53. The disinfectant solution entering the atomizing box 54 will enter the bottom of the disinfection pipe 6 through the fog-liquid communication port 61. The atomized disinfectant solution is evenly dispersed to the inner side of each mist inlet 65 through the disinfection pipe 6. As the pressure inside the disinfection pipe 6 gradually increases, the gas and atomized disinfectant solution entering the mist inlet 65 will exert a thrust on the sealing piece 75 and the secondary extension pipe 71. The secondary extension pipe 71 will slide upward inside the vertical pipe 67 under the thrust. When the secondary extension pipe 71 slides to the position of the fog pipe communication port 68, the high-pressure gas and atomized disinfectant solution will enter the inner side of the spray pipe 64.

[0075] At this time, the spray pipe 64 is inside the disinfection pipe 6, and the high-pressure air and atomized disinfectant solution entering the spray pipe 64 cannot be discharged, so the pressure will accumulate inside the vertical pipe 67. As the vertical pipe 67 is pushed upward again by the pressure, the separation transmission rod 77 will abut against the inner top surface of the sealing chute 73. At this time, the sealing piece 75 will be separated from the communication hole of the vertical pipe 67 due to the resistance, and the high-pressure air and atomized disinfectant solution will enter the inside of the secondary extension pipe 71 through the communication hole of the vertical pipe 67.

[0076] The high-pressure air and disinfectant solution entering the secondary extension pipe 71 will enter the inner side of the rotary sealing box 781 through the double through-hole 782. Since the pneumatic impeller 784 is rotatably connected inside the rotary sealing box 781, the pneumatic impeller 784 will rotate under the drive of the high-pressure air carrying the atomized disinfectant solution, and the atomized disinfectant solution will move above the pneumatic impeller 784 and enter the spray pipe 786 through the communication port of the spray pipe 786, and then be discharged (at this time, due to the upward movement and expansion of the secondary extension pipe 71, the spray pipe 786 has moved to the upper part of the second-layer disinfection rack 3, and the spray pipe 786 will rotate driven by the rotary sealing seat 785 to spray the disinfectant solution at multiple positions).

[0077] During the upward movement of the secondary extension tube 71, when the pressure inside the vertical tube 67 is greater than the pressure required for the upward movement of the secondary extension tube 71, the pressure accumulated at the bottom of the disinfection tube 6 will push the sealing sliding seat 63 upward, causing the spray tube 64 fixed above the sealing sliding seat 63 to extend and move upward into the interior of the disinfection rack. When the spray tube 64 moves into the interior of the second-layer disinfection rack 3, the spray micro-holes 66 opened on both sides of the outer wall of the spray tube 64 will discharge the high-pressure atomized disinfectant flowing through the vertical tube 67 inside the disinfection tube 6. At this time, the disinfectant can just be sprayed on the bottom and middle positions of the oxygen inhaler.

[0078] As the spray tube 64 moves upward, the secondary extension tube 71 extending inside the spray tube 64 will spray the disinfectant sprayed inside the spray pipe 786 above the oxygen inhaler, achieving a full spray of the oxygen inhaler and completing a thorough disinfection and sterilization without dead ends.

[0079] When the second-layer disinfection rack 3 finishes disinfecting and sterilizing the oxygen inhaler, the disinfection box 5 and the air pump 56 are turned off, and the secondary extension tube 71 and the spray tube 64 will slowly move downward and contract under their own gravity. When the contraction inside the disinfection tube 6 is completed, the secondary extension tube 71 and the spray tube 64 will contract below the second-layer disinfection rack 3. At this time, pulling out the second-layer disinfection rack 3 will not cause any impact on the disinfection tube 6. After the second-layer disinfection rack 3 is pulled out, the disinfected oxygen inhaler can be taken out and used directly, or placed inside the third-layer placement rack 4.

[0080] Double disinfection process: When the oxygen inhaler is disinfected by the ultraviolet lamp tube 27 of the first-layer disinfection rack 2, it is taken out and placed inside the second-layer disinfection rack 3, and is disinfected with atomized disinfectant by the disinfection box 5 and the disinfection tube 6 of the second-layer disinfection rack 3, then double disinfection can be achieved, and then it can be taken out and used.

[0081] When the oxygen inhaler disinfected by the first-layer disinfection rack 2 and the second-layer disinfection rack 3 is placed inside the third-layer placement rack 4, the ventilation component 8 above the third-layer placement rack 4 will be activated, driving the ventilation blades 86 to rotate through the driving motor 85, exhausting the air inside the third-layer placement rack 4 and inhaling the external air into the interior, completing the air replacement and ensuring the hygiene of the storage environment (when an oxygen inhaler is placed inside the third-layer placement rack 4, the gravity sensing seat 25 senses the placed weight and will transmit a signal to the central system, thereby completing the start of ventilation).

[0082] It should be noted that: There is a door motion sensor inside the sensing sealing door 11 connected to the internal system of the control panel 12. Through the door motion sensor, it is possible to automatically close the work inside the placement box 1 when opening the door, and automatically start working when closing the door.

[0083] It should be noted that: The use of the present invention can input a timing instruction into the internal system of the device through the operation buttons on the control panel 12 to achieve the timed disinfection and sterilization work inside the two-layer disinfection rack inside the device. When the timed time is completed, the two-layer disinfection rack will automatically turn off the disinfection components.

[0084] In the present invention, unless otherwise clearly defined and limited, the terms "installed", "connected", "connected", "fixed", etc. shall be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or integrated; it can be a mechanical connection, an electrical connection, or communicable with each other; it can be directly connected, or indirectly connected through an intermediate medium, and can be the communication inside two components or the interaction relationship between two components, unless otherwise clearly limited. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0085] Obviously, the embodiments described above are only part of the embodiments of the present invention, rather than all embodiments. The drawings show preferred embodiments of the present invention, but do not limit the patent scope of the present invention. The present invention can be implemented in many different forms. On the contrary, the purpose of providing these embodiments is to make the understanding of the disclosed content of the present invention more thorough and comprehensive. Although the present invention has been described in detail with reference to the foregoing embodiments, for those skilled in the art, they can still modify the technical solutions described in the foregoing specific embodiments, or perform equivalent replacements for some of the technical features. Any equivalent structure directly or indirectly using the content of the specification and drawings of the present invention in other related technical fields is equally within the scope of the patent protection of the present invention.

Claims

1. An embedded oxygen inhaler placement box, characterized in that, Including: A placement box body (1), inside which there are sequentially separated and connected with a first-layer disinfection rack (2), a second-layer disinfection rack (3), and a third-layer placement rack (4) from bottom to top. On one side of the first-layer disinfection rack (2) and located on the outer wall of the placement box body (1), there is a disinfection box (5). Below the second-layer disinfection rack (3), there are equidistantly arranged disinfection pipes (6). The disinfection outlet at the bottom of the disinfection box (5) is communicated with the disinfection pipes (6). Inside the disinfection pipes (6), there are equidistantly arranged top spray components (7). The top spray components (7) move up and down and slide inside the disinfection pipes (6). When the disinfection box (5) is in the startup state, it drives the disinfection pipes (6) and the top spray components (7) to extend and expand into the second-layer disinfection rack (3). Above the third-layer placement rack (4) and located at the inner top of the placement box body (1), there is a ventilation component (8).

2. The embedded oxygen inhaler placement box according to claim 1, characterized in that, On the front of the placement box body (1), there is a sensor-sealed door (11) hinged. Above the sensor-sealed door (11) and located on the surface of the placement box body (1), there is an operation panel (12). The disinfection box (5), the ventilation component (8), and the sensor-sealed door (11) are electrically connected to the operation panel (12).

3. The embedded oxygen inhaler placement box according to claim 2, characterized in that, At the positions where the placement box body (1) is connected to the first-layer disinfection rack (2), the second-layer disinfection rack (3), and the third-layer placement rack (4), there are symmetric rail seats (21) fixed. On both sides of the outer walls of the first-layer disinfection rack (2), the second-layer disinfection rack (3), and the third-layer placement rack (4), there are slide rails (211) fixed. The slide rails (211) slide inside the rail seats (21). In the middle of the front of the first-layer disinfection rack (2), the second-layer disinfection rack (3), and the third-layer placement rack (4), there is a prompt box (22). Inside the prompt box (22), there is a prompt piece (23) slidably connected. Inside the first-layer disinfection rack (2), the second-layer disinfection rack (3), and the third-layer placement rack (4), there are distributed and arranged elastic clamping seats (24) fixed. At the bottom of the elastic clamping seats (24), there are gravity sensing seats (25). The elastic clamping seats (24) are fixed on the top surface of the gravity sensing seats (25). Inside the elastic clamping seats (24), there is an inhaler body (26) clamped. Above the first-layer disinfection rack (2), there are equidistantly arranged ultraviolet lamp tubes (27) fixed on the inner surface of the placement box body (1).

4. An embedded oxygen inhaler placement box according to claim 3, characterized in that, Inside the second-layer disinfection rack (3), there are equidistantly arranged avoidance slots (31) opened. Between the avoidance slots (31), there is a disinfection area (32) formed. The gravity sensing seats (25) are fixed inside the disinfection area (32).

5. An embedded oxygen inhaler placement box according to claim 1, characterized in that, In the middle of the outer wall of the disinfection box (5), a liquid level gauge (51) is connected. At the top of the liquid level gauge (51), a liquid level alarm lamp (52) is provided. At the center of the bottom surface of the disinfection box (5), an atomizing drain pipe (53) is connected. At the connection between the atomizing drain pipe (53) and the atomizing box (54), there is an atomizing box (54). Inside the atomizing box (54), a ceramic atomizing sheet (55) is provided. Below the atomizing drain pipe (53), an air pump (56) is provided. The output port of the air pump (56) is connected to an air pipe (57). The other end of the air pipe (57) communicates with the inside of the atomizing box (54). One end of the atomizing drain pipe (53) far from the disinfection box (5) is connected to a shunt pipe (58). The disinfection pipe (6) communicates with the inside of the shunt pipe (58).

6. The embedded oxygen inhaler placement box according to claim 5, characterized in that, At the bottom of one end of the disinfection pipe (6) connected to the shunt pipe (58), a mist-liquid communication port (61) is opened. At the inner bottom of the disinfection pipe (6), a positioning frame (62) is fixed. On the top surface of the positioning frame (62), a sealing sliding seat (63) is attached. The outer wall of the sealing sliding seat (63) slides in contact with the inner wall of the disinfection pipe (6). On the top surface of the sealing sliding seat (63), a spray pipe (64) is provided. On the bottom surface of the spray pipe (64), fog inlet openings (65) arranged at equal intervals are opened. The spray pipe (64) communicates with the inside of the disinfection pipe (6) through the fog inlet openings (65). On both sides of the outer wall of the spray pipe (64), spray micro holes (66) arranged at equal intervals are opened.

7. An embedded oxygen inhaler placement box according to claim 6, characterized in that, Inside the spray pipe (64) and above the fog inlet openings (65), a vertical pipe (67) is fixed. On both sides of the vertical pipe (67), symmetrical fog pipe communication ports (68) are opened. The outside of the fog pipe communication ports (68) communicates with the inside of the spray pipe (64). The inside of the fog pipe communication ports (68) communicates with the inside of the disinfection pipe (6) through the vertical pipe (67).

8. An embedded oxygen inhaler placement box according to claim 7, characterized in that, The top spray assembly (7) includes a secondary extension pipe (71). The outer wall of the secondary extension pipe (71) slides in contact and is sealed with the inner wall of the vertical pipe (67). On both sides of the bottom of the outer wall of the secondary extension pipe (71), symmetrical limit blocks (72) are fixed. On both sides of the inner wall of the vertical pipe (67), symmetrical sealing chutes (73) are opened. The limit blocks (72) slide in the inner walls of the sealing chutes (73). At the center of the bottom surface of the secondary extension pipe (71), a vertical pipe communication hole (74) is opened. Inside the vertical pipe communication hole (74), a sealing piece (75) is fitted and embedded. At both ends of the sealing piece (75), symmetrical cross bars (76) are fixed. The cross bars (76) are embedded in the inner part of the bottom surface of the secondary extension pipe (71). At the top surfaces of both ends of the cross bars (76), separation transmission rods (77) are vertically fixed. Inside the limit blocks (72), square grooves (79) are opened. The separation transmission rods (77) slide in contact and are sealed with the inside of the square grooves (79).

9. An embedded oxygen inhaler placement box according to claim 8, characterized in that, The top surface of the secondary extension pipe (71) is provided with a rotating assembly (78). The rotating assembly (78) includes a rotating seal box (781). On both sides of the inner bottom surface of the rotating seal box (781), symmetric double through-holes (782) are opened. The bottom of the double through-holes (782) communicates with the inside of the secondary extension pipe (71). A cross-shaped fixing frame (783) is fixed in the middle of the rotating seal box (781). Below the center of the cross-shaped fixing frame (783), a pneumatic impeller (784) is rotatably connected. Above the cross-shaped fixing frame (783) at the top of the pneumatic impeller (784), a rotating seal seat (785) is connected. The top surface of the rotating seal seat (785) extends to the outside of the rotating seal box (781). The top surface of the rotating seal seat (785) is connected with spray pipes (786) arranged in an annular and equally spaced manner. At the position where the rotating seal seat (785) is connected with the spray pipes (786), a spray pipe communication port (787) is opened. The bottom of the spray pipe communication port (787) communicates with the inside of the rotating seal box (781). At the position where the rotating seal seat (785) is connected with the rotating seal box (781), a seal clamping groove (788) is opened. The rotating seal seat (785) is rotationally sealed on the inner side of the outer wall of the rotating seal box (781) through the seal clamping groove (788).

10. An embedded oxygen inhaler placement box according to claim 2, characterized in that, The ventilation assembly (8) includes a ventilation chamber (81). The ventilation chamber (81) is opened at the position where the placing box body (1) is connected to the three-layer placing rack (4). The bottom of the ventilation chamber (81) communicates with the lower part of the three-layer placing rack (4). A filter layer (82) is arranged inside the ventilation chamber (81). On both sides of the top of the outer wall of the placing box body (1), air inlet mesh openings (83) are opened. The air inlet mesh openings (83) communicate with the upper side inside the ventilation chamber (81). A driving chamber (84) is opened inside the top of the placing box body (1). At the center of the inner side of the driving chamber (84), a driving motor (85) is arranged. The output end of the driving motor (85) is connected with a ventilation blade (86). An air extraction mesh opening (87) is opened at the bottom surface of the driving chamber (84). The bottom of the air extraction mesh opening (87) communicates with the upper part of the three-layer placing rack (4). An air outlet mesh opening (88) is opened at the top surface of the driving chamber (84). The top of the air outlet mesh opening (88) communicates with the outside of the placing box body (1). At the bottom surface of the position where the placing box body (1) is internally connected with the three-layer placing rack (4), a heating plate (89) is arranged. The heating plate (89) is electrically connected to the control panel (12).

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