Square cabin type patient hospital exit and admission auxiliary terminal

Abstract

The utility model aims to provide a square cabin type patient out-of-hospital and admission auxiliary terminal, which solves the technical problem that a traditional hospital self-service terminal is easy to occupy limited hospitalization space when being used in a hospitalization department, and comprises a closed cabin body formed by a framework and a sealing structure, an air protection system for forming positive pressure, a self-service terminal and ultraviolet disinfection equipment are arranged in the cabin body; the closed cabin body comprises an equipment inlet and a personnel inlet, the equipment inlet is provided with a turning plate, one end of the turning plate is hinged to the cabin body, the other end of the turning plate is a movable end, a sealing strip is arranged on the inner side face of the turning plate, and a structure that the turning plate is combined with the cabin body in a closed mode after the turning plate is closed is formed; the personnel entrance is provided with an entrance door which is smaller than the passing of equipment, and the entrance door is movably connected with the cabin body through a lock; the ultraviolet disinfection equipment comprises a plurality of ultraviolet disinfection lamps, each ultraviolet disinfection lamp is fixedly mounted on the inner surface of the cabin body, and a control circuit of each ultraviolet disinfection lamp is connected with a time relay and an infrared sensor in series.

Description

Technical Field

[0001] The utility model relates to hospital procedure handling assistance equipment, in particular to a cabin-type patient admission and discharge assistance terminal. Background Art

[0002] Hospitals have many businesses and are related to the medical insurance system. The procedures for admission and discharge personnel require rigorous and complicated procedures, involving the filling and signing of multiple forms. The business process roles involve chief doctors, attending doctors, responsible nurses, patients, family members, medical insurance bureaus, etc. At this stage, in order to facilitate patients and simplify hospital business processes, a variety of auxiliary equipment has been configured in hospitals. For example, self-service equipment such as registration / number collection, payment, and film printing. However, the above-mentioned equipment is mainly aimed at the front end such as outpatient clinics and examinations. For inpatients, an auxiliary equipment is more needed to help chief doctors, attending doctors, responsible nurses, patients, and family members complete the procedures during hospitalization or admission and discharge. In fact, the hardware structure of various hospital self-service terminals 300 is not complicated. Its core hardware includes a mainboard, a touch screen, a camera, a password keyboard, a magnetic stripe card reader, a barcode scanner, an ID card reader, a card reader, and a printer. Its data processing and transmission depend on the self-service software system, the internal operating system, and the back-end database.

[0003] For the inpatient department, in fact, most of the inpatient wards are tight, and it is even normal to add beds in the corridor space. In order to take into account the height of the user, the heat dissipation of the body, and the installation of the internal hardware structure, the traditional related intelligent auxiliary equipment is usually as high as the user, and its thickness is often 80-120cm. This makes it difficult to place related intelligent auxiliary equipment in spaces such as corridors like outpatient departments, and the installation of related intelligent auxiliary equipment even occupies limited bed space. On the other hand, epidemics broke out in autumn and winter, and bed resources were tight. There were long queues at medical consultation offices or procedures in autumn and winter. Fixed window-style procedures were limited by space and personnel, and it was difficult to handle the above situation well. Utility Model Content

[0004] In view of the above problems, the purpose of the utility model is to propose a modular patient admission and discharge auxiliary terminal to solve the technical problem that traditional hospital self-service terminals easily occupy limited inpatient space when used in the inpatient department.

[0005] The technical scheme is as follows: it comprises a closed cabin formed by a skeleton and a sealing structure, wherein an air protection system for forming a positive pressure, a self-service terminal and an ultraviolet disinfection equipment are arranged in the cabin; the closed cabin comprises an equipment entrance and a personnel entrance, the equipment entrance is provided with a flap, one end of the flap is hinged to the cabin, the other end of the flap is a movable end, and a sealing strip is arranged on the inner side of the flap, forming a structure which is sealed and combined with the cabin after the flap is closed; the personnel entrance is provided with an entrance door smaller than the passage of the equipment, and the entrance door is movably connected to the cabin through a lock; the ultraviolet disinfection equipment comprises a plurality of ultraviolet disinfection lamps, each of which is fixedly mounted on the inner surface of the cabin, and each of the control circuits of the ultraviolet disinfection lamps is connected in series with a time relay and an infrared sensor.

[0006] In the above or some embodiments, the air protection system includes an air inlet, a filter duct, a fan, and an air outlet. The air inlet, the filter duct, and the air outlet constitute an air flow structure. The fan is located between the filter duct and the air outlet. The air inlet forms a structure for air entry under the action of the fan. The air inlet is fixedly covered with a filter. The filter duct includes a primary filter section and a fine filter section. The primary filter section includes an air channel and also includes a plurality of filter plates that are movably connected to the air channel and are spaced apart from each other. The filter plates include inertial filter plates and melt-blown cloth filter plates. The inertial filter plates include long strip-shaped air holes and non-air-permeable areas. The strip-shaped filter holes of adjacent inertial filter plates are inverted to form a structure through which air passes in a serpentine route.

[0007] In the above or some embodiments, the cabin body is a rectangular parallelepiped structure, one side of the cabin body is an equipment entrance, and the flap is a side of the cabin body.

[0008] In the above or some embodiments, the inertial filter and the meltblown cloth filter respectively include a filter frame, which is made of a rigid material, and also includes a sealing pad layer made of an elastic material that fits the inner wall of the air channel, and the air channel is a transversely arranged pipe structure.

[0009] In the above or some embodiments, the fine filter segment is a transversely arranged tubular structure, and a plurality of filter blocks arranged at intervals are filled in the fine filter segment. The filter blocks include a wrapping surface formed by wire mesh and also include filled PTFE filter material.

[0010] The self-service terminal in this solution is combined with the positive pressure cabin to cope with the sudden shortage of medical resources in autumn and winter. The integrated air protection system, self-service terminal and ultraviolet disinfection equipment can automatically disinfect the cabin, which can solve the sudden queue and prevent cross infection. On the other hand, the positive pressure cabin in this solution can be equipped with equipment entrances to place the corresponding equipment. The equipment can be replaced freely with less restrictions on use. The separate setting of the flap and the personnel entrance also plays a role in protecting the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] Figure 1 It is a three-dimensional diagram of a cabin of the present utility model.

[0012] Figure 2 It is a top view of the cabin of the utility model.

[0013] Figure 3 Schematic diagram of the internal structure of the cabin.

[0014] Figure 4 This is the principle diagram of the air protection system in the utility model.

[0015] Figure 5 It is a schematic diagram of the filtering pipeline principle in the utility model.

[0016] Figure 6 This is a schematic diagram of the principle of the self-service terminal control system in this solution. DETAILED DESCRIPTION

[0017] The embodiments of the present invention are described in detail below, and examples of the embodiments are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar elements or elements having the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to be used to explain the present invention, and should not be construed as limiting the present invention.

[0018] In the description of the present invention, “plurality” means two or more than two, unless otherwise clearly and specifically defined.

[0019] The hardware structure of the hospital self-service terminal 300 includes a control system for integrating various functional modules, and also includes a frame and a housing 100 structure for integrating and fixing functional modules. Each functional module includes a host module, a touch screen module, a display screen module, a camera module, a keyboard input module, a magnetic stripe card reader module, a barcode scanner module, a two-dimensional full scanning module, a social security card module, an ID card reader module, a card reader module, and a printer module. It also includes data processing and transmission that depends on the self-service software system, the internal operating system, and the back-end database, and the power supply circuit supplies power to each functional module. The functional modules are fixedly installed in the housing 100 by purchasing corresponding products and installing a fixing frame. Each functional module is connected to the host module through a network module or a data transmission interface, and the host module runs the internal operating system to display and process the corresponding processing business and processing data.

[0020] The cabin 100 includes a frame and a connecting plate. The frame is formed by a rectangular parallelepiped frame by fixing a profile, a steel profile or an aluminum profile. The connecting plate is a sandwich color steel insulation board. The connecting plate is fixedly connected to the profile and a sealing gasket is crimped. An equipment entrance 101 is provided on one side of the cabin 100. The equipment entrance 101 is provided with a flap 103. One end of the flap 103 is hinged to the cabin 100. The other end of the flap 103 is a movable end. A sealing strip is provided on the inner side of the flap 103 to form a structure in which the flap 103 is sealed and combined with the cabin 100 after closing.

[0021] The air protection system 200 of pressure is provided. In the above or some embodiments, the air protection system 200 includes an air inlet 201, a filter pipe 202, a fan 203, and an air outlet 204. The air inlet 201, the filter pipe 202, and the air outlet 204 constitute an air path flow structure. The fan 203 is located between the filter pipe 202 and the air outlet 204. The air inlet 201 forms a structure for air to enter under the action of the fan 203. The air inlet 201 is fixedly covered with a filter. The filter duct 202 includes a primary filter section and a fine filter section. The primary filter section includes an air channel 205, and also includes a plurality of filter sheets arranged at intervals and movably connected to the air channel 205. The filter sheets include an inertial filter sheet 206 and a melt-blown filter sheet 207. The inertial filter sheet 206 includes a strip-shaped air-permeable hole 208 and a non-air-permeable area 209. The strip-shaped filter holes of adjacent inertial filter sheets 206 are arranged upside down to form a structure through which air passes in a serpentine route. In the above or some embodiments, the inertial filter sheet 206 and the melt-blown filter sheet 207 respectively include a filter frame, and the filter frame is made of a rigid material, and also includes a sealing pad layer made of an elastic material that fits the inner wall of the air channel 205. The air channel 205 is a transversely arranged pipeline structure. In the above or some embodiments, the fine filter segment is a transversely arranged tubular structure, and a plurality of filter blocks 210 arranged at intervals are filled in the fine filter segment. The filter blocks 210 include a wrapping surface formed by wire mesh and also include filled PTFE filter material.

[0022] The function of the inertial filter is that due to the different masses and inertia of impurity particles in the air, when blocked by the non-air-permeable area 209, particles with smaller mass are more likely to change direction and enter the serpentine channel with the air, while particles with larger inertia are more likely to be blocked by the non-air-permeable area 209 and stay on the partition or fall down. When passing through multiple inertial filters, the particles need to be screened by inertia for multiple times, forming a pre-filtration of the particles. The melt-blown filter further filters small particles.

[0023] The invention comprises a closed cabin 100 formed by a skeleton and a sealing structure, wherein the cabin 100 is provided with an air protection system 200 for forming a positive pressure, a self-service terminal 300, and an ultraviolet disinfection device 400; the closed cabin 100 comprises an equipment entrance 101 and a personnel entrance 102, wherein the personnel entrance 102 is provided with an entrance door 104 smaller than the equipment passage, and the entrance door 104 is movably connected to the cabin 100 through a lock; the ultraviolet disinfection device 400 comprises a plurality of ultraviolet disinfection lamps, each of which is fixedly mounted on the inner surface of the cabin 100, and each of which is connected in series with a time relay and an infrared sensor in the control circuit of the ultraviolet disinfection lamp. The time relay in series in the ultraviolet lamp control circuit loop is used to judge the time period when no one enters, and when the set time is met, the condition for starting the disinfection lamp is met, and the infrared sensor is used to sense whether there is anyone in the cabin 100 and whether someone enters, and when there is someone or someone enters, the disinfection lamp is turned off or stopped.

[0024] The self-service terminal in this solution is combined with the positive pressure cabin to cope with the sudden shortage of medical resources in autumn and winter. The integrated air protection system, self-service terminal and ultraviolet disinfection equipment can automatically disinfect the cabin, which can solve the sudden queue and prevent cross infection. On the other hand, the positive pressure cabin in this solution can be equipped with equipment entrances to place the corresponding equipment. The equipment can be replaced freely with less restrictions on use. The separate setting of the flap and the personnel entrance also plays a role in protecting the equipment.

Claims

1. A cabin-type patient admission and discharge auxiliary terminal, comprising a closed cabin body (100) formed by a frame and a sealing structure, characterized in that: An air protection system (200) for forming a positive pressure, a self-service terminal (300), and an ultraviolet disinfection device (400) are arranged in the cabin (100); the closed cabin (100) comprises an equipment entrance (101) and a personnel entrance (102); the equipment entrance (101) is provided with a flap (103); one end of the flap (103) is hinged to the cabin (100); the other end of the flap (103) is a movable end; and an inner side of the flap (103) is provided with The sealing strip forms a structure that is sealed and combined with the cabin (100) after the flap (103) is closed; the personnel entrance (102) is provided with an entrance door (104) that is smaller than the equipment, and the entrance door (104) is movably connected to the cabin (100) via a lock; the ultraviolet disinfection equipment (400) comprises a plurality of ultraviolet disinfection lamps, each of which is fixedly mounted on the inner surface of the cabin (100), and each of the ultraviolet disinfection lamps is connected in series with a time relay and an infrared sensor in a control circuit.

2. The square cabin patient admission and discharge auxiliary terminal according to claim 1 is characterized in that: The air protection system (200) comprises an air inlet (201), a filter duct (202), a fan (203), and an air outlet (204); the air inlet (201), the filter duct (202), and the air outlet (204) constitute an air flow structure; the fan (203) is located between the filter duct (202) and the air outlet (204); the air inlet (201) forms a structure for air to enter under the action of the fan (203); the air inlet (201) is fixedly covered with a filter screen; the filter screen The pipeline (202) includes a primary filter section and a fine filter section. The primary filter section includes an air channel (205) and a plurality of filter sheets arranged at intervals and movably engaged in the air channel (205). The filter sheets include an inertial filter sheet (206) and a melt-blown filter sheet (207). The inertial filter sheet (206) includes long strip-shaped air holes (208) and a non-air-permeable area (209). The strip-shaped filter holes of adjacent inertial filter sheets (206) are arranged inversely to form a structure through which air passes in a serpentine route.

3. The square cabin patient admission and discharge auxiliary terminal according to claim 1, characterized in that: The cabin body (100) is a rectangular parallelepiped structure, one side of the cabin body (100) is an equipment entrance (101), and the flap (103) is a side of the cabin body (100).

4. The square cabin patient admission and discharge auxiliary terminal according to claim 2, characterized in that: The inertial filter (206) and the meltblown filter (207) respectively comprise a filter frame, the filter frame being made of a rigid material, and a sealing cushion layer made of an elastic material that is in contact with the inner wall of the air channel (205), the air channel (205) being a transversely arranged pipe structure.

5. The square cabin patient admission and discharge auxiliary terminal according to claim 4 is characterized in that: The fine filter segment is a transversely arranged tubular structure, and a plurality of filter blocks (210) arranged at intervals are filled in the fine filter segment. The filter blocks (210) include a wrapping surface formed by a wire mesh and also include filled PTFE filter material.

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