Intelligent water quality detection device for medical water

Abstract

The utility model relates to the field of intelligent water quality monitoring equipment, in particular to an intelligent water quality detection device for medical water, which comprises a box body and a hasp, the box body is provided with a cover plate, the box body is fixedly connected with the cover plate through the hasp, a remote control terminal and a colorimeter are arranged in the box body, and the remote control terminal is in wired connection with the colorimeter. A storage battery is arranged in the box body, a sample cup, a purification cup and a sampling assembly are placed in the box body, the sampling assembly is used for extracting a detection sample, an inactivation assembly used for disinfecting and sterilizing the sample cup, the purification cup and the sampling assembly is arranged in the box body, and the storage battery supplies power to the remote control terminal, the colorimeter and the inactivation assembly. The remote control terminal and the colorimeter are integrated, and data are uploaded in real time through the wireless communication module, so that instant analysis and cloud synchronization of detection data are realized, the timeliness is remarkably improved, and the quick response requirement of sudden water quality events is met.

Description

Technical Field

[0001] This utility model relates to the field of intelligent water quality monitoring equipment, and in particular to an intelligent water quality detection device for medical water. Background Technology

[0002] Water quality testing is a core component in ensuring the safety of medical water. By monitoring microorganisms, chemical pollutants, and physicochemical indicators in water bodies, it ensures that medical water meets hygiene standards and avoids the risk of infection or equipment contamination caused by water quality issues. Traditional water quality testing technologies mainly include test strip methods, colorimetric methods, and electrochemical methods: test strip methods achieve rapid qualitative or semi-quantitative detection by comparing the color development of test strips with a standard color chart; colorimetric methods rely on equipment such as spectrophotometers to quantitatively analyze the absorbance of the solution after the color reaction; electrochemical methods directly measure specific parameters in water based on ion-selective electrodes or sensors, which has the characteristics of high sensitivity, but is limited in practical applications due to limitations in the operating environment and equipment size.

[0003] Currently, water quality testing equipment in the medical industry is mostly based on large laboratory instruments. While these instruments offer high accuracy, they require specialized personnel to operate them within a fixed laboratory setting. In practice, routine water quality inspections or emergency water quality monitoring at medical institutions often necessitate staff going out to collect samples and then transporting them to the laboratory for analysis. This process is not only time-consuming and labor-intensive, but samples are also susceptible to environmental factors during transportation, leading to inaccurate test results. Furthermore, some remote medical institutions lack the necessary laboratory facilities to achieve high-frequency, high-precision water quality monitoring, further increasing the risk of nosocomial infections. Utility Model Content

[0004] To overcome the shortcomings of poor timeliness and lack of portability, this utility model provides an intelligent water quality testing device for medical water.

[0005] An intelligent water quality testing device for medical water includes a housing and a latch. The housing is provided with a cover plate, and the housing and the cover plate are fixedly connected by the latch. A remote control terminal and a colorimeter are installed inside the housing, and the remote control terminal and the colorimeter are wired together. A storage battery is provided inside the housing. Sample cups, purification cups, and a sampling component are placed inside the housing. The sampling component is used to extract test samples. An inactivation component is provided inside the housing for disinfecting and sterilizing the sample cups, purification cups, and the sampling component. The storage battery powers the remote control terminal, the colorimeter, and the inactivation component.

[0006] To further explain, the sampling component includes a water cup, which is placed inside the box. A telescopic rod is connected to the side of the water cup, and an operating lever is connected to the top of the telescopic rod.

[0007] To further explain, the inactivation component includes a lifting platform, which is slidably connected to the housing. An electric slide rail is installed inside the housing to drive the lifting platform. The sample cup, the purified cup, and the sampling component are placed inside the lifting platform. A heating coil and an ultraviolet germicidal lamp are installed inside the lifting platform.

[0008] To further explain, it also includes anti-slip feet, with several anti-slip feet provided on the bottom of the box.

[0009] To further explain, it also includes a storage bag, with the storage bag connected to the inner side of the cover plate.

[0010] To further explain, it also includes a sealing plug, which is provided at the charging port of the battery.

[0011] To further explain, it also includes identification cards, which are affixed to the sample cup, the purified cup, and the water cup.

[0012] The beneficial effects of this utility model are as follows:

[0013] 1. By integrating a remote control terminal and a colorimeter, and uploading data in real time via a wireless communication module, the system enables instant analysis and cloud synchronization of detection data, significantly improving timeliness and meeting the needs for rapid response to sudden water quality incidents.

[0014] 2. Through modular design of the box and portable components, an integrated portable testing unit is formed, which can replace large laboratory equipment, support one-handed carrying and mobile testing, and adapt to scenarios such as daily inspections in medical institutions and outdoor emergency response, thus enhancing portability. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the overall structure of this utility model.

[0016] Figure 2 This is a schematic diagram of the installation structure of the cover plate and the buckle of this utility model.

[0017] Figure 3 This is a schematic diagram of the specific structure of the sampling component of this utility model.

[0018] Figure 4 This is a sectional view of the installation structure of the electric slide rail and lifting platform of this utility model.

[0019] The markings in the attached diagram are as follows: 1: Box body, 2: Cover plate, 3: Buckle, 4: Battery, 5: Remote control terminal, 6: Colorimeter, 7: Sample cup, 8: Purified cup, 9: Sampling component, 91: Water cup, 92: Telescopic rod, 93: Operating rod, 10: Electric slide rail, 11: Lifting platform, 12: Heating coil, 13: Ultraviolet germicidal lamp, 14: Anti-slip feet, 15: Placement bag, 16: Sealing plug, 17: Identification card. Detailed Implementation

[0020] The present invention will be further described below with reference to specific embodiments. The illustrative embodiments and descriptions of the present invention are used to explain the present invention, but are not intended to limit the present invention.

[0021] Example: An intelligent water quality testing device for medical water, such as... Figure 1 and Figure 2 As shown, the device includes a housing 1, a cover 2, a latch 3, a battery 4, a remote control terminal 5, a colorimeter 6, a sample cup 7, a purification cup 8, a sampling component 9, and an inactivation component. The housing 1 is fitted with a cover 2, and the housing 1 and cover 2 are fixedly connected by a latch 3. The remote control terminal 5 and the colorimeter 6 are installed inside the housing 1. The remote control terminal 5 and the colorimeter 6 are wired together. The remote control terminal 5 has a built-in wireless communication module, such as 4G / 5G or Wi-Fi, and an embedded processor. The terminal receives absorbance data output by the colorimeter 6 in real time, and combines it with… The preset algorithm converts pollutant concentration values ​​and automatically adds timestamps and geographic location information to generate a structured test report. The housing 1 is equipped with a battery 4 and contains a sample cup 7, a purification cup 8, and a sampling component 9. The sample cup 7 and the purification cup 8 are equipped with knob-type sealing caps on top, which need to be tightened after water samples are dispensed. The sampling component 9 is used to extract test samples. The housing 1 is equipped with an inactivation component for disinfecting and sterilizing the sample cup 7, the purification cup 8, and the sampling component 9. The battery 4 powers the remote control terminal 5, the colorimeter 6, and the inactivation component.

[0022] like Figure 3 As shown, the sampling component 9 includes a water cup 91, a telescopic rod 92, and an operating rod 93. The water cup 91 is placed inside the housing 1. The telescopic rod 92 is connected to the side of the water cup 91. The telescopic rod 92 has a built-in hydraulic damping module located at the connection between adjacent segments. The telescopic speed is controlled by adjusting the oil flow rate. The telescopic rod 92 adopts a multi-section nested design and has three telescopic segments. The telescopic rod 92 has a built-in hydraulic damping module located at the connection between adjacent segments.

[0023] like Figure 4As shown, the inactivation assembly includes an electric slide rail 10, a lifting platform 11, a heating coil 12, and an ultraviolet germicidal lamp 13. The lifting platform 11 is slidably connected to the chamber 1. The electric slide rail 10 is installed inside the chamber 1 and is used to drive the lifting platform 11. The sample cup 7, the pure cup 8, and the sampling assembly 9 are placed inside the lifting platform 11. The heating coil 12 and the ultraviolet germicidal lamp 13 are installed inside the lifting platform 11. The heating coil 12 is made of nickel-chromium alloy wire wound around a ceramic frame and is embedded in the lifting platform 11. The ultraviolet germicidal lamp 13 is a low-pressure mercury lamp tube with a peak wavelength of 265nm. It is installed on the top of the inactivation chamber. The ultraviolet germicidal lamp 13 is linked with the lifting platform 11 and is automatically lit only when the lifting platform 11 descends into the inactivation chamber and the cover 2 is sealed, so as to avoid ultraviolet leakage and harm to the human body.

[0024] like Figure 1 As shown, it also includes anti-slip feet 14. The bottom of the box 1 is provided with four anti-slip feet 14. When the box 1 is placed at the detection point, the silicone contacts of the four anti-slip feet 14 at the bottom contact the ground, increasing the friction to prevent the box 1 from sliding. Especially on wet ground or when the operating table is tilted, the anti-slip feet 14 keep the box 1 level and stable.

[0025] like Figure 2 As shown, it also includes a placement bag 15. The inner side of the cover plate 2 is connected to the placement bag 15. The nylon placement bag 15 inside the cover plate 2 contains a foldable pH test strip pack. Medical staff can directly draw the test strip and immerse it in the water sample to be tested. After 30 seconds, the pH value is read by comparing it with the colorimetric card.

[0026] like Figure 1 As shown, it also includes a sealing plug 16. A sealing plug 16 is provided at the charging port of the battery 4 to ensure that the battery 4 interface is dustproof and waterproof.

[0027] like Figure 3 As shown, it also includes identification cards 17. Identification cards 17 are affixed to sample cup 7, pure cup 8 and water cup 91. The identification cards 17 are made of fluorescent material, and their uses can still be distinguished by the words "sample cup 7", "pure cup 8" and "water cup 91" in a dim environment, thus avoiding cross-contamination.

[0028] After medical staff carry the housing 1 to the testing point, they open the latch 3 and flip up the cover 2, exposing the internal functional modules of the housing 1. When the electric slide rail 10 is activated, the lifting platform 11 rises along the slide rail to the retrieval height, facilitating the removal of the water cup 91. The operating lever 93 is linked with the telescopic rod 92. By manually pressing the button at the end of the operating lever 93, the telescopic rod 92 slowly extends to the water collection point under damping action, and the water cup 91 stably receives the water sample. After sampling, the sample is divided into sample cup 7 and purification cup 8, sealed, and placed in the detection slot of the colorimeter 6. The remote control terminal 5 automatically triggers the analysis program of the colorimeter 6, synchronously recording the detection time, parameters, and results, generating an electronic report, and uploading it to the hospital information platform in real time. The battery 4 provides power to the equipment throughout the process, ensuring continuous operation in the absence of an external power source.

[0029] When the water sampling location is high or difficult to access, medical staff hold the operating lever 93 and control the extension length through the damping adjustment function of the telescopic rod 92, allowing the water cup 91 to accurately reach the target water surface. After sampling, the operating lever 93 retracts to its initial state, and the water cup 91 returns to its fixed position inside the housing 1 along with the telescopic rod 92. During sampling, the damping design of the telescopic rod 92 prevents water spillage due to external force shaking, ensuring water sampling stability.

[0030] After testing, medical staff place the used sample cup 7, purification cup 8, and water cup 91 into the lifting platform 11, triggering the electric slide rail 10 to drive the lifting platform 11 down to the inactivation chamber. The heating coil 12 inside the chamber is energized to generate constant-temperature hot air at 60-80℃ to dry any residual moisture in the cups for 3-5 minutes. After the heating coil 12 dries the cups for 3 minutes, the ultraviolet germicidal lamp 13 is turned on for 5 minutes to sterilize. The ultraviolet germicidal lamp 13 irradiates the inner wall of the cup at a wavelength of 265nm, thoroughly inactivating any remaining microorganisms. After inactivation, the lifting platform 11 automatically rises to the retrieval position, and the cups are dry and sterile, ready for immediate use in the next test.

[0031] It should be understood that the above description is for illustrative purposes only and is not intended to limit the present invention. Those skilled in the art will understand that variations of the present invention will be included within the scope of the claims herein.

Claims

1. A smart water quality detection device for medical water, characterized in that: The device includes a housing (1) and a latch (3). The housing (1) is provided with a cover plate (2). The housing (1) and the cover plate (2) are fixedly connected by the latch (3). A remote control terminal (5) and a colorimeter (6) are installed inside the housing (1). The remote control terminal (5) and the colorimeter (6) are connected by a wire. A storage battery (4) is provided inside the housing (1). A sample cup (7), a pure cup (8), and a sampling component (9) are placed inside the housing (1). The sampling component (9) is used to extract test samples. An inactivation component is provided inside the housing (1) for disinfecting and sterilizing the sample cup (7), the pure cup (8), and the sampling component (9). The storage battery (4) supplies power to the remote control terminal (5), the colorimeter (6), and the inactivation component.

2. The intelligent water quality detection device for medical water according to claim 1, characterized in that: The sampling component (9) includes a water cup (91) placed inside the box (1), a telescopic rod (92) connected to the side of the water cup (91), and an operating rod (93) connected to the top of the telescopic rod (92).

3. The intelligent water quality detection device for medical water of claim 2, characterized in that: The inactivation assembly includes a lifting platform (11) which is slidably connected to the housing (1). An electric slide rail (10) is installed inside the housing (1) to drive the lifting platform (11). The sample cup (7), the pure cup (8), and the sampling assembly (9) are placed inside the lifting platform (11). A heating coil (12) and an ultraviolet germicidal lamp (13) are installed inside the lifting platform (11).

4. The intelligent water quality detection device for medical water of claim 3, characterized in that: It also includes anti-slip feet (14), and the bottom of the box (1) is provided with several anti-slip feet (14).

5. The intelligent water quality detection device for medical water of claim 4, characterized in that: It also includes a placement bag (15), which is connected to the inside of the cover plate (2).

6. The intelligent water quality detection device for medical water of claim 5, characterized in that: It also includes a sealing plug (16), which is provided at the charging port of the battery (4).

7. The intelligent water quality detection device for medical water according to claim 6, characterized in that: It also includes identification cards (17), and the sample cup (7), the clean cup (8) and the water cup (91) are all affixed with identification cards (17).

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