A spiral flow purification module for a smart hospital water circulation system

Abstract

This invention relates to the field of smart hospital water circulation and purification technology, and in particular to a spiral flow purification module for a smart hospital water circulation system. The module includes a bottom connecting pipe installed at the drain outlet of a smart hospital cleaning water tank, with a spiral-shaped bottom purification water pipe axially sleeved at the lower end of the bottom connecting pipe. This spiral flow purification module for a smart hospital water circulation system, through its spiral structure design, achieves maximum drainage stroke within a smaller space, significantly improving the effectiveness of ultraviolet (UV) irradiation disinfection. An electrically controlled arc-shaped adjustment plate is movably mounted inside a strip-shaped flip-out opening on the outer side of the longitudinally mounted pipe. An electric heating wire for heating and drying is installed on the electrically controlled arc-shaped adjustment plate, allowing free switching between UV sterilization and drying. After UV sterilization, the inside of the bottom purification water pipe can be quickly dried, improving the cleanliness of the pipe body and preventing the growth and spread of pathogens.

Description

Technical Field

[0001] This invention relates to the field of smart hospital circulation and purification technology, and in particular to a spiral flow purification module for a smart hospital water circulation system. Background Technology

[0002] A smart hospital is an innovative type of hospital defined by new standards. It utilizes modern intelligent technologies to integrate medical resources, optimize medical service processes, standardize diagnosis and treatment behaviors, improve diagnostic and treatment efficiency, and assist in clinical and hospital management decisions. One of the most critical requirements for existing smart hospitals is to improve the integration of medical resources, increase the resource recycling rate of medical institutions, and reduce energy consumption and costs. Current hospital wastewater treatment methods simply treat wastewater centrally, but they cannot pre-treat wastewater located in smart medical drainage systems. This leads to the long-term growth of a large number of pathogens in the internal pipe system, greatly increasing the purification pressure and cost of the entire circulation system. However, traditional purification processes require a long time to sterilize and disinfect the impurities inside the wastewater. The long process not only increases the cost of purification equipment but also greatly increases the difficulty of its installation, resulting in high space occupation and the inability to maintain the dryness of the pipe interior, thus limiting the purification effect. Summary of the Invention

[0003] The technical problem to be solved by this invention is that the traditional purification process requires a long time to sterilize and disinfect the impurities inside the sewage. The long process not only increases the cost of the purification equipment, but also greatly increases the difficulty of its installation, resulting in a high space occupation rate. At the same time, it is impossible to maintain the dryness inside the pipe, which limits its purification effect. Furthermore, it is also very inconvenient to clean and adjust the internal filter material later.

[0004] The technical solution adopted by this invention to solve its technical problem is: a spiral flow purification module for a smart hospital water circulation system, including a bottom connecting pipe installed at the drain outlet of a smart hospital cleaning water tank, a spiral-shaped bottom purification water pipe axially sleeved at the lower end of the bottom connecting pipe, a longitudinally mounted assembly pipe fixedly installed inside the bottom purification water pipe, an ultraviolet sterilization lamp for sterilizing and disinfecting the liquid inside the bottom purification water pipe fixedly installed at the center of the longitudinally mounted assembly pipe, a strip-shaped flip-out opening opened on the outer side of the longitudinally mounted assembly pipe, an electrically controlled arc-shaped adjustment plate movably mounted inside the strip-shaped flip-out opening, an electric heating wire for heating and drying the inside of the bottom purification water pipe fixedly installed on the side wall of the electrically controlled arc-shaped adjustment plate, and a humidity sensor controller fixedly mounted on the upper and lower ends of the inner side of the bottom purification water pipe.

[0005] The bottom purification water pipe includes an opaque arc-shaped cover fixed on the outer side and a light-transmitting arc-shaped cover fixed on the inner side. The outer arc-shaped surface of the longitudinally mounted assembly pipe is fixedly connected to the outer arc-shaped surface of the light-transmitting arc-shaped cover.

[0006] The strip-shaped flip-opening has a circular mounting through hole on one side of the inner top and inner bottom surfaces for mounting an electrically controlled arc-shaped adjustment plate. The electrically controlled arc-shaped adjustment plate includes an arc-shaped adjustment plate that is movably connected to the strip-shaped flip-opening by inserting the circular mounting through hole through the upper and lower mounting shafts, an adjustment gear that is axially fixed on the upper mounting shaft, a drive gear ring sleeved on the outside of the adjustment gear, and a top-mounted drive motor that meshes with the drive gear ring for transmission.

[0007] The bottom purified water pipe has annular monitoring slots at both the upper and lower ends of its inner side for mounting a humidity sensor controller.

[0008] A bottom-mounted solid filter device is axially connected to the drain outlet of the bottom purification water pipe.

[0009] The bottom-mounted solid filter device includes an external assembly housing axially sleeved and fixed to the lower end drain outlet of the bottom purified water pipe, a detachable first filter frame, a detachable second electrically controlled filter frame and a detachable third electrically controlled filter frame installed inside the external assembly housing, an arc-shaped loading and unloading port opened on the outer side of the external assembly housing, and a flip-up sealing plate installed on the arc-shaped loading and unloading port.

[0010] The inner side of the external assembly housing is provided with an annular mounting groove for installing a detachable first filter frame, a detachable second electronically controlled filter frame, and a detachable third electronically controlled filter frame.

[0011] An internal positioning block is provided on the inner side of the annular mounting groove. A plurality of lateral positioning holes that cooperate with the internal positioning block are provided on the outer arc-shaped surfaces of the detachable first filter frame, detachable second electronically controlled filter frame and detachable third electronically controlled filter frame. The detachable first filter frame, detachable second electronically controlled filter frame and detachable third electronically controlled filter frame are fixedly assembled with the annular mounting groove by being fitted onto the internal positioning block through the lateral positioning holes.

[0012] The lower end of the longitudinal assembly tube is provided with a bottom loading and unloading port, and the inner side of the bottom loading and unloading port is provided with an internal thread loading and unloading groove. An external thread loading and unloading closing plate is threaded inside the internal thread loading and unloading groove, and the lower surface of the external thread loading and unloading closing plate has a bottom control plate that protrudes downward.

[0013] The upper surface of the arc-shaped adjustment plate has an upwardly protruding top conductive block, and the inner top surface of the strip-shaped flip-out is provided with a lateral conductive groove that cooperates with the top conductive block.

[0014] The beneficial effects of this invention are:

[0015] (1) The spiral flow purification module for a smart hospital water circulation system of the present invention adopts a spiral structure design, which can achieve the maximum drainage stroke in a small space and greatly improve the effect of ultraviolet irradiation disinfection.

[0016] (2) An electrically controlled arc-shaped adjustment plate is installed inside the strip-shaped flip-out on the outer side of the longitudinal assembly pipe. An electric heating wire for heating and drying is installed on the electrically controlled arc-shaped adjustment plate. It can freely switch between ultraviolet sterilization and drying. After ultraviolet sterilization, the bottom purified water pipe can be dried quickly to improve the cleanliness of the pipe body and avoid the growth and spread of limited pathogens.

[0017] (3) By fixing humidity sensor controllers on the upper and lower ends of the inner side of the bottom purification water pipe, the ultraviolet sterilization lamp, the electric arc adjustment plate and the electric heating wire can be controlled according to the actual internal conditions, greatly improving the level of intelligent control and reducing energy consumption.

[0018] (4) By axially connecting a bottom-mounted solid filter device to the drain outlet at the bottom of the bottom purification water pipe, not only can the sewage be coarsely filtered, but the drainage volume can also be reduced, thereby further extending the sterilization and disinfection time and improving the purification effect.

[0019] (5) Using ultraviolet irradiation, electric heating drying and physical filtration to coarsely filter sewage can greatly reduce the purification difficulty and pressure of the entire smart hospital's water circulation system and enhance the smart hospital's resource integration capabilities.

[0020] (6) By adopting a detachable structural design, the internal filter screen of the bottom solid filter device can be easily disassembled and cleaned. Moreover, the angle between the detachable first filter screen frame, the detachable second electronically controlled filter screen frame and the detachable third electronically controlled filter screen frame can be adjusted as needed, so that the size of the filter hole can be adjusted and the filtration method is more diverse. Attached Figure Description

[0021] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0022] Figure 1 This is a schematic diagram of the structure of the present invention.

[0023] Figure 2 This is a schematic diagram of the internal structure of the present invention.

[0024] Figure 3 This is a schematic diagram of the internal structure of the longitudinally arranged assembly tube in this invention.

[0025] Figure 4 This is a schematic diagram of the internal structure of the bottom-mounted solid filter device in this invention. Detailed Implementation

[0026] The present invention will now be described in further detail with reference to the accompanying drawings. These drawings are simplified schematic diagrams, illustrating only the basic structure of the invention, and therefore only show the components relevant to the invention.

[0027] In the description of this invention, it should be noted that, unless otherwise explicitly specified and limited, the terms "connected" and "linked" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances.

[0028] Figure 1 , Figure 2 , Figure 3 and Figure 4 The diagram shows a spiral flow purification module for a smart hospital water circulation system, comprising a bottom connecting pipe 1 installed at the drain outlet of a smart hospital cleaning water tank, a spiral-shaped bottom purification water pipe 2 axially sleeved at the lower end of the bottom connecting pipe 1, a longitudinally mounted assembly pipe 3 fixedly installed inside the bottom purification water pipe 2, an ultraviolet sterilization lamp 4 fixedly mounted at the center of the longitudinally mounted assembly pipe 3 for sterilizing the liquid inside the bottom purification water pipe 2, a strip-shaped flip-out 5 opened on the outer side of the longitudinally mounted assembly pipe 3, an electrically controlled arc-shaped adjustment plate 6 movably mounted inside the strip-shaped flip-out 5, an electric heating wire 7 fixedly installed on the side wall of the electrically controlled arc-shaped adjustment plate 6 for heating and drying the inside of the bottom purification water pipe 2, and humidity sensor controllers 8 fixedly mounted at the upper and lower ends of the inner side of the bottom purification water pipe 2.

[0029] Both the ultraviolet sterilization lamp 4 and the electric heating wire 7 are existing technologies. The ultraviolet sterilization lamp 4 is used to sterilize the inside of the bottom purified water pipe 2 by applying ultraviolet light, while the electric heating wire 7 is used to dry the inside of the bottom purified water pipe 2.

[0030] Operating principle: When wastewater is introduced into the bottom purification water pipe 2 through the upper inlet, the humidity sensor controller 8 controls the electrically controlled arc-shaped adjustment plate 6 to flip inward, activating the ultraviolet sterilization lamp 4. The ultraviolet sterilization lamp 4 emits ultraviolet rays outward through the strip-shaped flip-out port 5, irradiating the inside of the bottom purification water pipe 2. When the humidity sensor controller 8 at the lower end of the inner side of the bottom purification water pipe 2 detects a decrease in humidity and stops, the ultraviolet sterilization lamp 4 is turned off, and the electrically controlled arc-shaped adjustment plate 6 is controlled to flip outward, activating the electric heating wire 7 to heat and dry the bottom purification water pipe 2. When the humidity sensor controller 8 at the upper and lower ends of the inner side of the bottom purification water pipe 2 no longer detects humidity, the electric heating wire 7 is turned off.

[0031] In order to accommodate the bottom purification water pipe 2, which includes an opaque arc-shaped cover 21 fixed on the outer side and a light-transmitting arc-shaped cover 22 fixed on the inner side, the outer arc-shaped surface of the vertically arranged assembly pipe 3 is fixedly connected to the outer arc-shaped surface of the light-transmitting arc-shaped cover 22.

[0032] To facilitate the flipping adjustment, a circular mounting through hole is provided on one side of the inner top and inner bottom surfaces of the strip-shaped flipping opening 5 for mounting the electrically controlled arc-shaped adjustment plate 6. The electrically controlled arc-shaped adjustment plate 6 includes an arc-shaped adjustment plate 61 that is movably connected to the strip-shaped flipping opening 5 by inserting the circular mounting through hole through the upper and lower mounting shafts, an adjustment gear 62 that is axially fixed on the upper mounting shaft, a drive gear ring 63 that is sleeved on the outside of the adjustment gear 62, and a top-mounted drive motor 64 that meshes with the drive gear ring 63 for transmission.

[0033] The top-mounted drive motor 64 is existing technology. It drives the drive gear ring 63 to rotate, thereby controlling the rotation of the adjusting gears 62 in all positions. This, in turn, drives the arc-shaped adjusting plate 61 to flip, thus opening and closing the strip-shaped flip-out port 5. When the strip-shaped flip-out port 5 is open, the ultraviolet sterilization lamp 4 emits ultraviolet light, which is transmitted through the light-transmitting arc-shaped cover 22 to disinfect the sewage inside the bottom purified water pipe 2. When the strip-shaped flip-out port 5 is closed, the electric heating wire 7 on the side wall of the electrically controlled arc-shaped adjusting plate 6 is used to dry the residual water inside the bottom purified water pipe 2.

[0034] To facilitate control, the inner side of the bottom purified water pipe 2 is provided with annular monitoring slots at the top and bottom for mounting the humidity sensor controller 8.

[0035] The humidity sensor controller 8 is existing technology. It is set at the upper water inlet to start the ultraviolet sterilization lamp 4, and at the lower drain outlet to turn off the ultraviolet sterilization lamp 4 and start the top drive motor 64.

[0036] To complement the bottom filtration, a bottom-mounted solid filter device 10 is axially connected to the drain outlet of the bottom purification water pipe 2.

[0037] To facilitate internal filtration and lateral loading / unloading sealing, the bottom-mounted solid filter device 10 includes an external assembly housing 101 axially sleeved and fixed to the lower end drain outlet of the bottom purification water pipe 2, a detachable first filter screen frame 102, a detachable second electrically controlled filter screen frame 103 and a detachable third electrically controlled filter screen frame 104 installed inside the external assembly housing 101, an arc-shaped loading / unloading port opened on the outer side of the external assembly housing 101, and a flip-up sealing plate 105 installed on the arc-shaped loading / unloading port.

[0038] To facilitate internal assembly, an annular mounting groove 11 is provided on the inner side of the external assembly housing 101 for mounting the detachable first filter frame 102, the detachable second electronically controlled filter frame 103, and the detachable third electronically controlled filter frame 104.

[0039] To facilitate angle adjustment, an internal positioning block 12 is provided on the inner side of the annular mounting groove 11. Eleven lateral positioning holes 13 are provided on the outer arc-shaped surfaces of the detachable first filter frame 102, detachable second electronically controlled filter frame 103, and detachable third electronically controlled filter frame 104 to cooperate with the internal positioning block 12. The detachable first filter frame 102, detachable second electronically controlled filter frame 103, and detachable third electronically controlled filter frame 104 are fitted onto the internal positioning block 12 through the lateral positioning holes 13 and fixedly assembled inside the annular mounting groove 11.

[0040] The detachable first filter frame 102, the detachable second electrically controlled filter frame 103, and the detachable third electrically controlled filter frame 104 have notches on one side, and control arms are provided on both sides of the notches. People can disassemble the detachable first filter frame 102, the detachable second electrically controlled filter frame 103, and the detachable third electrically controlled filter frame 104 by pressing the control arms on both sides of the notches. The detachable first filter frame 102, the detachable second electrically controlled filter frame 103, and the detachable third electrically controlled filter frame 104 are all provided with horizontally arranged metal filter wires, which are staggered to form a filter screen.

[0041] To facilitate bottom loading and unloading, a bottom loading and unloading port is provided at the lower end of the vertical assembly tube 3. An internal thread loading and unloading groove is provided on the inner side of the bottom loading and unloading port. An external thread loading and unloading closing plate 14 is threaded inside the internal thread loading and unloading groove. The lower surface of the external thread loading and unloading closing plate 14 has a bottom control plate 15 that protrudes downward.

[0042] By controlling the bottom control plate 15 to rotate the external thread loading and unloading closing plate 14, the external thread loading and unloading closing plate 14 is separated from the bottom loading and unloading port. In this way, the ultraviolet sterilization lamp 4, which is threaded and fastened inside the longitudinal assembly tube 3, can be disassembled. The ultraviolet sterilization lamp 4 and the longitudinal assembly tube 3 are connected in a manner similar to that of a light bulb and a lampshade. An internal thread assembly seat is fixed on the top surface inside the longitudinal assembly tube 3.

[0043] To facilitate the flipping conduction, the upper surface of the arc-shaped adjustment plate 61 has an upwardly protruding top conductive block 16, and the inner top surface of the strip-shaped flipping opening 5 is provided with a lateral conductive groove 17 that cooperates with the top conductive block 16.

[0044] After the arc-shaped adjustment plate 61 flips into the strip-shaped flip opening 5, the top conductive block 16 will be inserted into the side conductive groove 17. Then, the conductive terminal inside the side conductive groove 17, which is connected to the power supply line, will contact the conductive sheet on the outside of the top conductive block 16. Then, the electric heating wire 7 will be activated and start heating, transferring heat to the bottom purified water pipe 2, so that the inner wall of the bottom purified water pipe 2 is quickly dried.

[0045] Based on the above-described preferred embodiments of the present invention, and through the foregoing description, those skilled in the art can make various changes and modifications without departing from the inventive concept. The technical scope of this invention is not limited to the contents of the specification, but must be determined according to the scope of the claims.

Claims

1. A spiral flow purification treatment module for a smart hospital water circulation system, comprising a bottom connecting pipe (1) installed at the bottom of the water outlet position of a smart hospital cleaning sink, characterized in that: The bottom connecting pipe (1) is axially sleeved with a helical bottom purified water pipe (2) at the lower end, the inside of the bottom purified water pipe (2) is fixedly provided with a vertical assembly pipe (3), the inside of the vertical assembly pipe (3) is fixedly provided with an ultraviolet sterilization lamp (4) for sterilizing and disinfecting the liquid in the bottom purified water pipe (2), a strip-shaped turnover opening (5) is formed on the outer side of the vertical assembly pipe (3), an electrically-controlled arc-shaped adjusting plate (6) is movably arranged in the strip-shaped turnover opening (5), an electric heating wire (7) for heating and drying the inside of the bottom purified water pipe (2) is fixedly installed on the side wall of the electrically-controlled arc-shaped adjusting plate (6), and a humidity sensing controller (8) is fixedly arranged on the inner side of the bottom purified water pipe (2).

2. The spiral flow purification module for a smart hospital water circulation system according to claim 1, characterized in that: The bottom purified water pipe (2) comprises a light-proof arc-shaped cover (21) fixed on the outer side and a light-transmitting arc-shaped cover (22) fixed on the inner side, and the outer arc-shaped surface of the vertical assembly pipe (3) is fixedly connected with the outer arc-shaped surface of the light-transmitting arc-shaped cover (22).

3. The spiral flow purification module for a smart hospital water circulation system according to claim 1, characterized in that: The inner top surface and the inner bottom surface of the strip-shaped turnover opening (5) are provided with circular assembly through holes for assembling the electrically-controlled arc-shaped adjusting plate (6), the electrically-controlled arc-shaped adjusting plate (6) comprises an arc-shaped adjusting plate (61) movably connected with the strip-shaped turnover opening (5) by being inserted into the circular assembly through holes through upper and lower end assembly shafts, an adjusting gear (62) fixedly arranged on the upper end assembly shaft in an axial direction, a driving gear ring (63) sleeved on the outer side of the adjusting gear (62), and a top-mounted driving motor (64) in meshing transmission with the driving gear ring (63).

4. The spiral flow purification module for a smart hospital water circulation system according to claim 1, characterized in that: The inner side of the bottom purified water pipe (2) is provided with annular monitoring grooves for assembling the humidity sensing controller (8) at the upper and lower ends.

5. The helical flow purification module for a smart hospital water circulation system according to claim 1, characterized in that: The lower end of the bottom purified water pipe (2) is axially sleeved with a bottom solid-state filtering device (10) at the water outlet position.

6. The spiral flow purification module for a smart hospital water circulation system according to claim 5, characterized in that: The bottom solid-state filtering device (10) comprises an external assembly shell (101) axially sleeved and fixed on the lower end of the bottom purified water pipe (2), a detachable first filter screen frame (102), a detachable second electrically-controlled filter screen frame (103) and a detachable third electrically-controlled filter screen frame (104) arranged in the external assembly shell (101), an arc-shaped loading and unloading opening formed on the outer side of the external assembly shell (101), and a turnover sealing plate (105) arranged on the arc-shaped loading and unloading opening.

7. The spiral flow purification module for a smart hospital water circulation system according to claim 6, characterized in that: The inner side of the external assembly shell (101) is provided with annular mounting grooves (11) for mounting the detachable first filter screen frame (102), the detachable second electrically-controlled filter screen frame (103) and the detachable third electrically-controlled filter screen frame (104).

8. The spiral flow purification module for a smart hospital water circulation system according to claim 7, characterized in that: The inside surface of the annular mounting groove (11) is provided with an internal positioning block (12), the outer side arc surface of the detachable first filter screen frame (102), the detachable second electric control filter screen frame (103) and the detachable third electric control filter screen frame (104) are provided with a plurality of lateral positioning holes (13) matched with the internal positioning block (12), and the detachable first filter screen frame (102), the detachable second electric control filter screen frame (103) and the detachable third electric control filter screen frame (104) are fixedly assembled with the annular mounting groove (11) by being sleeved on the internal positioning block (12) through the lateral positioning holes (13).

9. The spiral flow purification module for a smart hospital water circulation system according to claim 1, characterized in that: The lower end of the vertically arranged assembly pipe (3) is provided with a bottom loading and unloading opening, the inner side surface of the bottom loading and unloading opening is provided with an internal thread loading and unloading groove, and the internal thread loading and unloading groove is internally threadedly assembled with an external thread loading and unloading closure plate (14), and the lower surface of the external thread loading and unloading closure plate (14) is provided with a downwardly protruding bottom control plate (15).

10. The spiral flow purification module for a smart hospital water circulation system according to claim 3, characterized in that: The upper surface of the arc-shaped adjusting plate (61) is provided with an upwardly protruding top conductive block (16), and the inner top surface of the strip-shaped overturning opening (5) is provided with a lateral conductive groove (17) matched with the top conductive block (16).

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