Breast milk sodium ion detection service system

Abstract

The invention relates to the technical field of health management systems, and particularly discloses a breast milk sodium ion detection service system, which comprises a portable detector, a cloud server, a user terminal and a doctor terminal, and is characterized in that the portable detector is used for detecting the sodium ion concentration of breast milk and transmitting detection data to the cloud server; the cloud server is used for storing the detection data; the user terminal is used for displaying the detection data and processing the detection data to form a data table; the user terminal is in two-way communication with the cloud server, and the user terminal is used for applying for identity verification from the cloud server and can download a data table through the cloud; and the doctor terminal is used for receiving the abnormal data table pushed by the cloud server and adding comment guidance suggestions to the data table, so that the technical problem that a user is difficult to intuitively master the concentration change trend due to the technical defects that the portable breast milk sodium ion detector only displays instantaneous numerical values and cannot integrate and visualize historical and current data is solved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of health management systems, and specifically discloses a breast milk sodium ion detection service system. BACKGROUND

[0002] Breast milk composition analysis has important value in infant health management and lactation period mother nutrition monitoring. As a key indicator for measuring breast milk osmotic pressure, electrolyte balance, and lactation initiation and mammary gland function, sodium ion concentration has been widely used in clinical evaluation. Clinical studies have shown that in the early postpartum period, breast milk sodium ion is an important biological marker for lactation initiation, and a decrease in sodium ion concentration can be a good predictor of lactation initiation. In addition, abnormal increase in breast milk sodium ion is closely related to pathological conditions such as mastitis and mammary duct obstruction, and early detection can guide lactating mothers to intervene in time. Current medical institutions have gradually included breast milk composition detection in postpartum care system to provide data support for scientific breastfeeding and help improve infant nutrition and health level.

[0003] The existing portable detector can only display the value in real time during a single detection, and lacks means to integrate and visualize historical and current detection data, making it difficult for users to intuitively and continuously grasp the trend of changes in their breast milk sodium ion content. SUMMARY

[0004] Therefore, the present application aims to provide a breast milk sodium ion detection service system to solve the technical defects of the portable breast milk sodium ion detector, which only displays instantaneous values and cannot integrate and visualize historical and current data, making it difficult for users to intuitively grasp the concentration trend.

[0005] To achieve the above-mentioned purpose, the present application provides the following technical solution: a breast milk sodium ion detection service system, comprising a portable detector, a cloud server, a user terminal and a doctor terminal, The portable detector is used to detect the sodium ion concentration of breast milk and transmit the detection data to the cloud server. The cloud server is used to store the detection data. The user terminal is used to display the detection data. The cloud server is also used to process the detection data to form a data table. The user terminal and the cloud server communicate bidirectionally, and the user terminal is used to apply for identity verification to the cloud server and download the data table from the cloud after identity verification. The doctor terminal is used to receive the abnormal data table pushed by the cloud server and add comments and guidance to the data table.

[0006] The cloud server includes a storage unit, an analysis unit, an authentication unit, and an annotation unit. The storage unit is used to encrypt and store the detection data transmitted from the portable detector to the cloud server. The storage unit stores the standard concentration range threshold of sodium ions in breast milk. The analysis unit is used to analyze the sodium ion concentration data and historical sodium ion concentration data in the detection data and generate the data table. The analysis unit can retrieve the standard concentration range threshold of breast milk sodium ion in the storage unit and compare it with the standard concentration range of breast milk sodium ion in the data table. When the detection data exceeds the standard concentration range threshold of breast milk sodium ion, the analysis unit simultaneously sends a prompt message to the user terminal and the doctor terminal. The authentication unit is used to authenticate the user terminal accessing the cloud server. The annotation unit is used to support the exchange of annotations on the test data between the doctor's terminal and the user terminal. It allows the doctor's terminal to add annotations to the test data and synchronize them to the storage unit. The user terminal can access the storage unit to view the test data and annotations. At the same time, the user terminal can view the annotations of the doctor's terminal and initiate additional annotations based on the annotations. The user terminal can only add new annotation layers and cannot modify the original annotations of the doctor's terminal. When the analysis unit detects that the detection data exceeds the threshold of the standard concentration range of breast milk sodium ions in a single instance, it simultaneously sends a prompt message to both the user terminal and the doctor terminal. At this time, the doctor terminal can use the annotation unit to provide brief feedback annotations on the detection data. When the detection data exceeds the threshold of the standard concentration range of breast milk sodium ions multiple times, the doctor terminal can use the annotation unit to provide detailed feedback and guidance annotations on the detection data.

[0007] The user terminal includes a visualization unit, an information prompting unit, and an interaction unit. The visualization unit is used to convert the data table of the cloud server into charts and historical data curves; The information prompting unit 1 is used to receive the alarm issued by the annotation unit; The interaction unit is used to respond to user operation instructions, initiate an annotation request to the annotation unit of the cloud server, and at the same time prohibit the user interface from modifying any annotations on the data table of the original doctor terminal. The interaction unit is also used to directly obtain the data table generated by the analysis unit from the cloud server.

[0008] The doctor's terminal includes an annotation execution unit and an information prompting unit. The annotation execution unit is used to load the data table and locate the abnormal detection point of the data table. Doctors can make annotations based on the abnormal points of the data table, and the annotations are synchronized to the cloud server for storage. The second information prompting unit is used to receive information prompts issued by the annotation unit.

[0009] The cloud server also includes a rental management module, which includes a binding unit, a billing unit, and an access control unit. The binding unit is used to associate the rental user with the unique QR code on the portable detector; The billing unit is used to perform rental fee calculation; The access control unit is used to remotely lock the device after the rental period expires. The billing unit includes a single-use billing mode and a continuous billing mode. When the user terminal selects the single-use billing mode, the user terminal can directly set the single-use billing duration and complete the payment. When the time is exhausted, the access control unit directly locks the portable detector. When the user terminal selects the continuous billing mode, the fee is accumulated in real time according to the user terminal's usage time. The billing is automatically settled after the use ends. The portable detector can be used until the user terminal actively terminates the use or the account balance is insufficient.

[0010] The user terminal further includes a QR code recognition unit, which is used to scan and recognize the QR code on the binding unit and associate it.

[0011] The portable detector further includes a bearing, two moving devices, a first solution storage device, and a second solution storage device. The portable detector is equipped with a bearing, and the bearing is equipped with two moving devices that can drive the bearing to move. The bearing is equipped with a first solution storage device for storing 150ppm calibration solution, and the bearing is also equipped with a second solution storage device for storing 200ppm calibration solution.

[0012] Both of the aforementioned mobile devices include a slide rail, a slider, and a reset mechanism. The portable detector is fixedly connected to the slide rail, and a slidable slider is provided on the slide rail. The side of the slider away from the slide rail is fixedly connected to the inner wall of the bearing. The portable detector is provided with a reset mechanism for driving the slider to reset.

[0013] The working principle and beneficial effects of this solution are as follows: The QR code recognition unit and binding unit work together to achieve QR code binding, eliminating the tedious manual input of serial numbers and preventing human error. After binding, the cloud server is associated with the user terminal. The billing unit of the rental management module provides two modes: single and continuous. The former is prepaid and locked upon arrival, with transparent fees and no subsequent deductions; the latter is accumulated in real time by minute, with payment based on usage, accommodating both temporary needs and long-term monitoring. The access control unit remotely locks the device instantly at the rental period or balance threshold to prevent abuse due to overdue payments. The storage unit encrypts the detection data to prevent information theft and stores the standard concentration range threshold of breast milk sodium ions in the same database as historical data, ensuring that the analysis unit can retrieve the latest benchmark for comparison at any time without requiring manual updates by the user. The analysis unit triggers a minor alert upon the first exceedance of the standard and upgrades to a deep alert upon continuous exceedances, achieving "early reminders for minor anomalies and early intervention for serious anomalies." Real-time values ​​and historical data curves are packaged into a data table at once to eliminate data fragmentation. Information prompt unit one and information prompt unit two simultaneously monitor the user terminal. The doctor's terminal provides information prompts, ensuring zero-latency synchronization between both ends. The visualization unit automatically renders dry numerical values ​​into dynamic curves, interval bands, and abnormal high-brightness points, allowing users to easily identify fluctuation patterns without specialized knowledge. The interaction unit is designed to only allow adding annotation layers and prohibits modification of the original annotations on the doctor's terminal, ensuring the authority of medical orders while supporting user follow-up questions, forming a traceable doctor-patient dialogue chain. The annotation execution unit automatically jumps to abnormal data points on the doctor's terminal. After viewing the abnormal points, the doctor's terminal can quickly generate guidance based on the abnormality, and the annotation unit immediately writes back to the cloud and pushes updates. The first and second solution storage devices achieve efficient switching between 150ppm and 200ppm calibration solutions on the portable detector through the coordinated control of bearing rotation switching and slide rail translation docking, improving the calibration efficiency before using the portable detector. The bearing carries the dual solution device and rotates 180° around the axis to complete the calibration solution switching, while the slide rail in the moving device provides high-precision linear guidance for the slider. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of a breast milk sodium ion detection service system as an example. Figure 2 This is a schematic diagram of the structure of the portable detector in the embodiment; Figure 3 An exploded view of the mobile device in the embodiment; Figure 4 This is a partial cross-sectional view of the first solution storage device and the second solution storage device in the embodiment.

[0015] The components in the attached diagram are labeled as follows: Portable detector 1, Cloud server 2, Storage unit 3, Analysis unit 4, Identity verification unit 5, Annotation unit 6, User terminal 7, Visualization unit 8, Information prompt unit one 9, Interaction unit 10, QR code recognition unit 11, Doctor terminal 12, Annotation execution unit 13, Information prompt unit two 14, Rental management module 15, Binding unit 16, Billing unit 17, Access control unit 18, Bearing 19, Rotary cylinder 20, Slide rail 21, Slider 22, First support block 23, Fixing cylinder 24. Round rod; 25. Spring; 26. First solution storage tank; 27. First fixing plug; 28. First outlet pipe; 29. ​​First hydraulic quick connector male; 30. First fixing block; 31. Second outlet pipe; 32. First hydraulic quick connector female; 33. First feeding port; 34. Second solution storage tank; 35. Second fixing plug; 36. Third outlet pipe; 37. Second hydraulic quick connector male; 38. Second fixing block; 39. Fourth outlet pipe; 40. Second hydraulic quick connector female; 41. Second feeding port; 42. Portable detector detection port; 43. Detailed Implementation

[0016] The following detailed description illustrates the specific implementation method: Example

[0017] like Figures 1 to 4 As shown, a breast milk sodium ion detection service system is disclosed, including a portable detector 1, characterized by: a cloud server 2, a user terminal 7, and a doctor terminal 12. The portable detector 1 is used to detect the sodium ion concentration of breast milk and transmit the detection data to the cloud server 2; the cloud server 2 is used to store the detection data; the user terminal 7 is used to display the detection data; the cloud server 2 is also used to process the detection data to form a data table; the user terminal 7 communicates bidirectionally with the cloud server 2, and the user terminal 7 is used to apply for identity verification from the cloud server 2, and after successful identity verification, it can download the data table from the cloud; the doctor terminal 12 is used to receive abnormal data tables pushed by the cloud server 2, and can add annotations and guidance to the data tables.

[0018] In this embodiment, the portable detector 1 accurately collects breast milk sodium ion concentration data and uploads it to the cloud server 2 in real time. The cloud server 2 performs encrypted storage and intelligent processing on the detection data. Existing portable detectors 1 can usually only display the instantaneous value of a single test and cannot store historical data or establish a long-term monitoring database. Users can only obtain isolated values ​​after each test, and cannot form a continuous data chain. This makes it difficult for breastfeeding mothers to grasp the dynamic trend of breast milk sodium ion concentration. The cloud server 2 automatically generates a structured data table and establishes an identity verification barrier to ensure data security. After identity verification, the user terminal 7 downloads the data table from the cloud server 2 and transforms the professional test values ​​into a visual interface, allowing users to intuitively grasp the status of breast milk sodium ions. The doctor terminal 12 receives the abnormal data table actively pushed by the cloud server 2. The cloud server 2 pushes the abnormal data to the doctor terminal 12 to eliminate the time-consuming problem of doctors manually screening test data. At the same time, the doctor terminal 12 can view the abnormal data table to make secondary judgments on the data to ensure diagnostic accuracy. Medical intervention can be realized through the annotation and guidance function, allowing users to more intuitively grasp their own sodium ion concentration and make timely adjustments based on doctor's suggestions.

[0019] Furthermore, such as Figure 1 As shown, cloud server 2 includes storage unit 3, analysis unit 4, authentication unit 5, and annotation unit 6; Storage unit 3 is used to encrypt and store the detection data transmitted from portable detector 1 to cloud server 2. Storage unit 3 stores the threshold range of standard concentration of sodium ions in breast milk. Analysis unit 4 is used to analyze the sodium ion concentration data and historical sodium ion concentration data in the test data and generate a data table. Analysis unit 4 can retrieve the standard concentration range threshold of breast milk sodium ion on storage unit 3 and compare it with the standard concentration range of breast milk sodium ion in the data table. When the test data exceeds the standard concentration range threshold of breast milk sodium ion, the analysis unit 4 simultaneously sends a prompt message to user terminal 7 and doctor terminal 12. Authentication unit 5 is used to authenticate the user terminal 7 that accesses the cloud server 2; The annotation unit 6 is used to support the exchange of test data annotations between the doctor terminal 12 and the user terminal 7. It allows the doctor terminal 12 to add annotations to the test data and synchronize them to the storage unit 3. The user terminal 7 can view the test data and annotations by accessing the storage unit 3. At the same time, the user terminal 7 can view the annotations of the doctor terminal 12 and initiate additional annotations based on the annotations. The user terminal 7 can only add new annotation layers and cannot modify the original annotations of the doctor terminal 12. When the analysis unit 4 detects that the test data exceeds the threshold of the standard concentration range of breast milk sodium ions in a single instance, it simultaneously sends a prompt message to the user terminal 7 and the doctor terminal 12. At this time, the doctor terminal 12 can make a brief feedback annotation on the test data through the annotation unit 6. When the test data is detected to exceed the threshold of the standard concentration range of breast milk sodium ions multiple times, the doctor terminal 12 can make a detailed feedback and guidance annotation on the test data through the annotation unit 6.

[0020] In this embodiment, the storage unit 3 of the cloud server 2 establishes a data security foundation and medical judgment benchmark by encrypting and storing the detection data and setting a threshold for the standard concentration range of breast milk sodium ions. The analysis unit 4 dynamically compares the historical sodium ion concentration data in the storage unit 3 with the current detection data in real time. When the detection data exceeds the threshold, it immediately pushes a prompt message to the user terminal 7 and the doctor terminal 12, forming a rapid anomaly response mechanism. The identity verification unit 5 strictly verifies the access request to ensure the legality and security of the data retrieval permission. The annotation unit 6 opens up the doctor-patient interaction channel. The doctor terminal 12 synchronizes the annotation content to the storage unit 3 according to the frequency classification rules triggered by the analysis unit 4 (a brief feedback is submitted through the annotation unit 6 when there is a single exceedance, and detailed guidance is generated when there are multiple exceedances). When the user terminal 7 accesses the storage unit 3, it can view the original doctor annotations and add new annotation layers through the annotation unit 6 (modification of the original content is prohibited). This constructs a complete closed loop of detection → analysis → early warning → annotation → feedback.

[0021] Furthermore, such as Figure 1 As shown, the user terminal 7 includes a visualization unit 8, an information prompting unit 9, and an interaction unit 10; Visualization unit 8 is used to convert the data tables of cloud server 2 into charts and historical data curves; Information prompting unit 9 is used to receive alarms issued by annotation unit 6; Interaction unit 10 is used to respond to user operation commands, send annotation requests to annotation unit 6 of cloud server 2, and at the same time prohibit the user interface from modifying any annotations on the data table of the original doctor terminal 12. The interaction unit 10 is also used to directly obtain the data table generated by the analysis unit 4 from the cloud server 2.

[0022] In this embodiment, the user terminal 7 uses the visualization unit 8 to convert the data table generated by the cloud server 2 into dynamic charts and historical data curves in real time, allowing users to intuitively track the evolution of sodium ion concentration in breast milk. The information prompt unit 9 accurately captures the abnormal alarms issued by the annotation unit 6 of the cloud server 2, ensuring that users receive risk warnings immediately. The interaction unit 10, while ensuring that the original annotations on the doctor's terminal 12 cannot be tampered with, supports users in initiating annotation requests to the annotation unit 6 of the cloud server 2 and directly obtaining the data table generated by the analysis unit 4, thus constructing a closed-loop operation link of "data visualization - abnormal perception - doctor-patient interaction". The three units work closely together within the user terminal 7: the charts analyzed by the visualization unit 8 provide an operational reference plane for the interaction unit 10, the alarms triggered by the information prompt unit 9 are automatically associated with the abnormal point markings of the visualization unit 8, and the annotation requests initiated by the interaction unit 10 drive the cloud server 2 to update the data table for the visualization unit 8 to refresh dynamically. This module-level collaboration changes the fragmented mode of traditional devices that only support single value display.

[0023] Furthermore, such as Figure 1 As shown, the doctor terminal 12 includes an annotation execution unit 13 and an information prompting unit 14; The annotation execution unit 13 is used to load the data table and locate the abnormal detection point of the data table. Doctors can make annotations based on the abnormal points of the data table. The annotations are synchronized to the cloud server 2 for storage. Information prompting unit 2 14 is used to receive information prompts issued by annotation unit 6.

[0024] In this embodiment, the doctor terminal 12 receives abnormal prompts from the annotation unit 6 of the cloud server 2 in real time through the information prompt unit 2 14, ensuring that the doctor can quickly receive abnormal warnings. The annotation execution unit 13 then automatically loads the data table generated by the analysis unit 4 of the cloud server 2 and accurately locates the abnormal data points. The doctor can directly input annotation comments at the abnormal points in the data table. For a single abnormality, a shorthand command can be submitted (such as "stop high-sodium diet for 24 hours and retest"). For multiple abnormalities, a structured treatment plan (including medication, breastfeeding, and follow-up visit suggestions) is generated. The annotation content is encrypted and synchronized to the storage unit 3 of the cloud server 2 by the annotation unit 6. The interaction unit 10 of the user terminal 7 immediately retrieves the updated data table. The user can view the original doctor annotations and initiate follow-up questions by adding new annotation layers.

[0025] Furthermore, such as Figure 1 As shown, the cloud server 2 also includes a rental management module 15, which includes a binding unit 16, a billing unit 17, and an access control unit 18. Binding unit 16 is used to associate rental users with a unique QR code on portable detector 1; Billing unit 17 is used to perform rental fee calculation; The access control unit 18 is used to remotely lock the device after the rental period expires. The billing unit 17 includes a single billing mode and a continuous billing mode. When the user terminal 7 selects the single billing mode, the user terminal 7 can directly set the single billing duration and complete the payment. When the time is exhausted, the portable detector 1 is directly locked through the access control unit 18. When the user terminal 7 selects the continuous billing mode, the fee is accumulated in real time according to the usage time of the user terminal 7. The billing is automatically settled after the use ends. The portable detector 1 can be used until the user terminal 7 actively terminates the use or the account balance is insufficient.

[0026] In this embodiment, the rental management module 15 of the cloud server 2 achieves precise association between the portable detector 1 and the user terminal 7 through the binding unit 16. The user completes the device binding by scanning the unique QR code. The billing unit 17 dynamically executes differentiated billing strategies based on the single billing mode (activation after payment of preset duration) or continuous billing mode (real-time cumulative cost) selected by the user terminal 7. The access control unit 18 implements device status control according to the instructions of the billing unit 17: in the single mode, the device is remotely locked immediately when the duration is exhausted; in the continuous mode, the service continues until the user terminal 7 actively terminates the service or the account balance is insufficient to trigger automatic settlement and locking.

[0027] Furthermore, such as Figure 1 As shown, the user terminal 7 also includes a QR code recognition unit 11, which is used to scan and recognize the QR code on the binding unit 16 and associate it.

[0028] In this embodiment, the QR code recognition unit 11 of the user terminal 7 scans the unique identification QR code of the portable detector 1 and directly links with the binding unit 16 of the rental management module 15 of the cloud server 2 to complete the association between the device and the user identity, realizing one-click binding with zero manual input and completely avoiding the risk of association errors caused by traditional manual entry of serial numbers.

[0029] Furthermore, such as Figure 2 As shown, it also includes a portable detector 1, two moving devices, a bearing 19, a rotating drum 20, a first solution storage device, and a second solution storage device. Two moving devices are provided on both sides of the portable detector 1. The bearing 19 is mounted on the two moving devices and is used to move the bearing 19. The rotating drum 20 is mounted on the outside of the bearing 19. The first solution storage device is provided on the outer wall of the rotating drum 20. The first solution storage device is used to store 150ppm calibration solution. The second solution storage device is provided on the outer wall of the rotating drum 20. The second solution storage device is used to store 200ppm calibration solution.

[0030] In this embodiment, the portable detector 1 fundamentally solves the operational oversight problem caused by the separate storage of calibration solutions in existing portable testing devices by directly integrating the first and second solution storage devices into the outer wall of the rotating drum 20 and fixing them to the portable detector 1. Specifically, when the two moving devices drive the bearing 19 to rotate the rotating drum 20, the user does not need to prepare or search for the 150ppm and 200ppm calibration solutions separately. Since the first and second solution storage devices are always physically bound to the portable detector 1, the defects of traditional separate calibration solution bottles that are easily lost, confused, or forgotten in mobile testing scenarios are avoided. When calibration is required, the rotating drum 20 can be instantly positioned to the corresponding solution storage location by the bearing 19, ensuring that the calibration process is seamlessly connected to the testing task. Existing devices usually require the operator to carry multiple calibration solution bottles separately, which not only increases the burden of equipment management but also makes it easy for the testing to be interrupted or the data to be inaccurate due to the lack of solution. Calibration can be started immediately upon powering on, significantly shortening the preparation time and reducing the operational error rate.

[0031] Furthermore, such as Figure 3 As shown, both moving devices include a slide rail 21, a slider 22, and a reset mechanism. The slide rail 21 is fixedly connected to the side wall of the portable detector 1. The slider 22 is slidably mounted on the slide rail 21. The end of the slider 22 away from the slide rail 21 is fixedly connected to the inner wall of the bearing 19. The portable detector 1 is provided with a reset mechanism, which is used to drive the slider 22 to reset.

[0032] In this embodiment, the portable detector 1 achieves efficient switching of calibration solutions through the precise cooperation of the slide rail 21 and the slider 22. The slide rail 21, fixed to the side wall of the portable detector 1, provides a stable guiding path for the slider 22. When the slider 22 slides on the slide rail 21, it directly drives the inner wall of the bearing 19, which is fixedly connected to it, to move synchronously. This, in turn, drives the rotating cylinder 20 and the first and second solution storage devices integrated on its outer wall to move laterally, ensuring precise docking of the calibration interface. Furthermore, such as Figure 3 As shown, the reset mechanism includes a first support block 23, a fixed cylinder 24, a round rod 25, and a spring 26. The first support block 23 is fixedly connected to the side wall of the portable detector 1. The fixed cylinder 24 is fixedly connected to the first support block 23. A slidable round rod 25 is provided inside the fixed cylinder 24. One end of the round rod 25 away from the fixed cylinder 24 is fixedly connected to the slider 22. A spring 26 is provided inside the fixed cylinder 24. One end of the spring 26 is fixedly connected to the inner wall of the fixed cylinder 24, and the other end of the spring 26 is fixedly connected to the round rod 25.

[0033] In this embodiment, the reset mechanism is stably supported by the first support block 23 fixedly connected to the side wall of the portable detector 1. The round rod 25 slidably disposed inside the fixed cylinder 24 is directly fixedly connected to the slider 22. When the moving device drives the slider 22 to move, the spring 26 is stretched and stores energy. After the external force is released, the spring 26 immediately rebounds and pushes the round rod 25 to drive the slider 22 to accurately reset to the initial position, thereby locking the rotating cylinder 20 and the first solution storage device and the second solution storage device integrated on its outer wall, preventing the first solution storage device and the second solution storage device from moving at will when not in use.

[0034] Furthermore, such as Figure 4 As shown, the first solution storage device includes a first solution storage tank 27, a first fixing plug 28, a first outlet pipe 29, a first hydraulic quick connector male 30, a first fixing block 31, a second outlet pipe 32, and a first hydraulic quick connector female 33. The first solution storage tank 27 is fixedly connected to the outside of the rotating drum 20. The first solution storage tank 27 is used to store 150ppm calibration solution. A first feeding port 34 is opened on the first solution storage tank 27, and a detachable first fixing plug 28 is provided on the first feeding port 34. The first outlet pipe 29 is arranged below the first solution storage tank 27, and the first outlet pipe 29 is connected to the first solution storage tank 27. The storage tank 27 is internally connected. A first hydraulic quick connector male 30 is installed at the end of the first outlet pipe 29 away from the first solution storage tank 27. A first fixing block 31 is fixedly connected to the portable detector 1. A second outlet pipe 32 is fixedly connected to the first fixing block 31. A first hydraulic quick connector female 33 is installed at the end of the second outlet pipe 32 near the first outlet pipe 29. The first hydraulic quick connector male 30 can be adapted to the first hydraulic quick connector female 33. The end of the second outlet pipe 32 away from the first hydraulic quick connector female 33 is located above the detection port 43 of the portable detector. The hydraulic quick connector is existing technology.

[0035] In this embodiment, the first solution storage device integrates a 150ppm calibration solution storage function through a first solution storage box 27 fixedly connected to the outside of the rotating drum 20. It achieves instantaneous establishment of a calibration solution delivery channel by precisely matching the male connector 30 of the first hydraulic quick connector installed at the end of the first outlet pipe 29 with the female connector 33 of the first hydraulic quick connector at the end of the second outlet pipe 32 fixed to the first fixing block 31 on the portable detector 1. When the moving device drives the slider 22 to move the rotating drum 20 laterally to the calibration station, the male connector 30 and the female connector 33 of the first hydraulic quick connector automatically connect to form a sealed flow path, allowing the 150ppm calibration solution to be directly delivered to the detection port 43 of the portable detector through the second outlet pipe 32 without manual intervention. Compared to the traditional external calibration method that requires separate bottle removal, manual alignment, is prone to leakage, and is time-consuming, this device avoids carrying out omissions while also optimizing calibration efficiency.

[0036] Furthermore, such as Figure 4 As shown, the second solution storage device includes a second solution storage tank 35, a second fixing plug 36, a third outlet pipe 37, a second hydraulic quick connector male 38, a second fixing block 39, a fourth outlet pipe 40, and a second hydraulic quick connector female 41. The second solution storage tank 35 is fixedly connected to the end of the rotating drum 20 furthest from the first solution storage tank 27. The second solution storage tank 35 is used to store 200ppm calibration solution. A second feeding port 42 is provided on the second solution storage tank 35, and a removable second fixing plug 36 is provided on the second feeding port 42. A third fixing plug 36 is provided below the second solution storage tank 35. The third outlet pipe 37 is connected to the interior of the second solution storage tank 35. A second hydraulic quick connector male 38 is installed at the end of the third outlet pipe 37 away from the second solution storage tank 35. A second fixing block 39 is fixedly connected to the portable detector 1. A fourth outlet pipe 40 is fixedly connected to the second fixing block 39. A second hydraulic quick connector female 41 is installed on the fourth outlet pipe 40. The second hydraulic quick connector male 38 can be adapted to the second hydraulic quick connector female 41. The end of the fourth outlet pipe 40 away from the second hydraulic quick connector female 41 is located above the detection port 43 of the portable detector.

[0037] In this embodiment, the second solution storage device integrates a 200ppm calibration solution storage function through a second solution storage tank 35 fixedly connected to the outside of the rotating drum 20 at the end furthest from the first solution storage tank 27. Furthermore, by precisely matching the male connector 38 of the second hydraulic quick connector installed at the end of the third outlet pipe 37 with the female connector 41 of the second hydraulic quick connector at the end of the fourth outlet pipe 40 fixed to the second fixing block 39 on the portable detector 1, the operator only needs to rotate the rotating drum 20 180° to achieve automatic sealing and connection between the male and female connectors of the second hydraulic quick connector 38. Without any manual intervention, the 200ppm calibration solution can be directly delivered through the fourth outlet pipe 40 to the detection port 43 of the portable detector, thus initiating the second calibration process. Compared to existing technologies that commonly use two separate bottles of calibration solution, requiring manual opening, pouring, or resealing of each bottle, which is time-consuming and prone to leakage, concentration confusion, or operational interruption due to loose bottle connections, this device... The ppm and 200ppm calibration solutions are respectively encapsulated in the first solution storage tank 27 and the second solution storage tank 35 on the outer wall of the rotating drum 20. Lateral translation is achieved through the slide rail 21-slider 22-reset mechanism. Rotating the rotating drum 20 can make the corresponding hydraulic quick connector male and female heads instantly self-lock and connect. There is no need to tighten the cap, transfer liquid, or reseal. The switching of different calibration solutions and the connection of the liquid circuit are completed in one step, avoiding the risk of leakage and eliminating the problem of operation interruption.

[0038] In practice: The user first scans the unique QR code on the portable detector 1 through the QR code recognition unit 11 of the user terminal 7. The binding unit 16 of the rental management module 15 of the cloud server 2 completes the association between the device and the user terminal 7. Then, the user selects a single billing mode (sets the single usage duration and completes the payment) or a continuous billing mode (accumulates the fee in real time according to the usage duration) on the user terminal 7. The billing unit 17 starts the billing process, and the access control unit 18 keeps the device in an unlocked state for use. The user uses a portable testing device 1 to collect breast milk samples for sodium ion concentration testing. The test data is encrypted and transmitted to storage unit 3 of cloud server 2 for storage. Simultaneously, the user terminal 7 submits an authentication request to the authentication unit 5. After successful authentication, it requests to download the data table generated by the analysis unit 4 from the cloud server 2. Upon receiving the test data, the analysis unit 4 automatically retrieves the standard concentration range threshold of breast milk sodium ions in storage unit 3 for real-time comparison. When the test data exceeds the threshold for the first time, an anomaly alert mechanism is immediately triggered. The analysis unit 4 simultaneously sends alarm information to information alert unit 9 of user terminal 7 and information alert unit 14 of doctor terminal 12, and generates a data table containing historical data curves. The user terminal 7 uses the visualization unit 8 to convert the downloaded data table into charts and historical data. The data curves are dynamically displayed. The interaction unit 10 allows users to view the annotations added by the doctor's terminal 12 through the annotation execution unit 13 and initiate additional annotation operations based on these annotations (only adding annotation layers is supported, and the original doctor's annotations cannot be modified). After the doctor's terminal 12 receives the abnormal data table, the annotation execution unit 13 automatically locates the data point that exceeds the standard. The doctor decides to add brief feedback (single exceedance) or detailed guidance (multiple continuous exceedances) based on the frequency of the abnormality. The annotation content is synchronized to the storage unit 3 by the annotation unit 6 for the user terminal 7 to view in real time. When the single billing set duration is exhausted, the user actively terminates the service. In the continuous billing mode, the service is terminated when the account balance is insufficient. The permission control unit 18 automatically remotely locks the portable detector 1 to terminate the service. At the same time, the billing unit 17 completes the final fee settlement.

[0039] Before activating the portable detector 1, a system calibration must be performed using the matching calibration solution to ensure the accuracy of subsequent breast milk sodium ion detection results. When calibration is required, first open the detection port 43 of the portable detector, then rotate the first solution storage tank 27 via the bearing 19 inside the rotating drum 20. Rotate the first solution storage tank 27 to one end located at the female end of the first hydraulic quick connector 33. At this time, directly push the first solution storage tank 27 to move on the slide rail 21 via the slider 22, connecting the male end 30 of the first hydraulic quick connector on the first solution storage tank 27 with the female end 33 of the first hydraulic quick connector on the second outlet pipe 32. At this time, the 150ppm calibration solution in the first solution storage tank 27 will flow out through the first outlet pipe 29, and then sequentially through the first The male hydraulic quick connector 30, the female first hydraulic quick connector 33, and the second outlet pipe 32 flow into the detection port 43 of the portable detector. When the required dosage is reached, the first solution storage tank 27 is moved away from the female first hydraulic quick connector 33 until the male first hydraulic quick connector 30 and the female first hydraulic quick connector 33 are separated. At this time, the round rod 25 is reset by the spring 26, and the round rod 25 moves in the fixed cylinder 24. The fixed cylinder 24 is fixedly installed by the first support block 23. When the male first hydraulic quick connector 30 and the female first hydraulic quick connector 33 are connected, the spring 26 is in a stretched state. After the male first hydraulic quick connector 30 and the female first hydraulic quick connector 33 are separated, the spring 26 returns to its original position.

[0040] After calibrating the portable detector 1 with a 150ppm calibration solution, the first solution storage tank 27 is rotated 180°. At this point, the second solution storage tank 35 will be positioned near the second hydraulic quick-connect female connector 41. The second solution storage tank 35 is then moved along the slide rail 21 via the slider 22, aligning the second hydraulic quick-connect male connector 38 on the second solution storage tank 35 with the second hydraulic quick-connect female connector 41. The 200ppm calibration solution in the second solution storage tank 35 will then flow out through the third outlet pipe 37, sequentially flowing through the second hydraulic quick-connect male connector 38, the second hydraulic quick-connect female connector 41, and the fourth outlet pipe 40 into the portable detector. When the required dosage is reached in the detection port 43 of the detector, the second hydraulic quick connector male 38 is moved directly through the second solution storage tank 35 to separate the second hydraulic quick connector male 38 from the second hydraulic quick connector female 41. When the 200ppm calibration solution in the second solution storage tank 35 is used up, the second fixing plug 36 is pulled out from the second feeding port 42. At this time, 200ppm calibration solution can be added through the second feeding port 42. When the 150ppm calibration solution in the first solution storage tank 27 is used up, the first fixing plug 28 at the first feeding port 34 is pulled out to add 150ppm calibration solution.

[0041] The above descriptions are merely embodiments of the present invention, and common knowledge regarding specific structures and characteristics in the solutions is not described in detail here. It should be noted that those skilled in the art can make various modifications and improvements without departing from the structure of the present invention, and these should also be considered within the scope of protection of the present invention. These modifications and improvements will not affect the effectiveness of the implementation of the present invention or its practicality.

Claims

1. A breast milk sodium ion detection service system, comprising a portable detector, a cloud server, a user terminal and a doctor terminal, the portable detector is configured to detect the sodium ion concentration of breast milk and transmit the detection data to the cloud server; the cloud server is configured to store the detection data; the user terminal is configured to display the detection data; the cloud server is further configured to process the detection data to form a data table; the user terminal and the cloud server are in bidirectional communication, the user terminal is configured to apply for identity verification to the cloud server, and after the identity verification is passed, the user terminal can download the data table from the cloud; the doctor terminal is configured to receive the abnormal data table pushed by the cloud server and add comments and guidance to the data table. 2.The breast milk sodium ion detection service system according to claim 1, wherein: the cloud server comprises a storage unit, an analysis unit, an identity verification unit and a comment unit; the storage unit is configured to store the detection data transmitted by the portable detector to the cloud server in an encrypted manner, and the storage unit stores a breast milk sodium ion standard concentration range threshold value; the analysis unit is configured to analyze the sodium ion concentration data in the detection data and historical sodium ion concentration data to generate the data table, the analysis unit can compare the breast milk sodium ion standard concentration range threshold value on the storage unit with the breast milk sodium ion standard concentration range in the data table, and when the detection data exceeds the breast milk sodium ion standard concentration range threshold value, the analysis unit sends a prompt message to the user terminal and the doctor terminal at the same time; the identity verification unit is configured to verify the identity of the user terminal accessing the cloud server; the comment unit is configured to support the exchange of comments on the detection data between the doctor terminal and the user terminal, support the doctor terminal to add comments to the detection data and synchronize to the storage unit, and support the user terminal to view the detection data and comments by accessing the storage unit, and support the user terminal to view the comments of the doctor terminal and initiate additional comments based on the comments, wherein the user terminal can only add new comment layers and cannot modify the original comments of the doctor terminal; when the analysis unit detects that the detection data exceeds the breast milk sodium ion standard concentration range threshold value once, the analysis unit sends a prompt message to the user terminal and the doctor terminal at the same time, and at this time the doctor terminal can add a brief feedback comment to the detection data through the comment unit, and when the analysis unit detects that the detection data exceeds the breast milk sodium ion standard concentration range threshold value multiple times, the doctor terminal can add a detailed feedback guidance comment to the detection data through the comment unit. 3.The breast milk sodium ion detection service system according to claim 1, wherein: the user terminal comprises a visualization unit, an information prompt unit and an interaction unit. The visualization unit is configured to convert the data table of the cloud server into a chart and a historical data curve. The information prompting unit one is configured to receive an alarm issued by the comment unit. The interaction unit is configured to initiate a comment request to the comment unit of the cloud server in response to a user operation instruction, while prohibiting any modification of the original comment of the doctor terminal on the data table. The interaction unit is further configured to directly obtain the data table generated by the analysis unit from the cloud server.

4. The breast milk sodium ion detection service system according to claim 2, wherein: The doctor terminal comprises a comment execution unit and an information prompting unit two. The comment execution unit is configured to load the data table and locate to the abnormal detection point of the data table, and the doctor can comment according to the abnormal point of the data table, and the comment is synchronized to the cloud server for storage. The information prompting unit two is configured to receive information prompts issued by the comment unit.

5. The breast milk sodium ion detection service system according to claim 1, wherein: The cloud server further comprises a lease management module, and the lease management module comprises a binding unit, a charging unit and a permission control unit. The binding unit is configured to associate a lease user through a unique two-dimensional code on the portable detector. The charging unit is configured to perform lease cost calculation. The permission control unit is configured to remotely lock the device after the lease period expires, and the charging unit comprises a single charging mode and a continuous charging mode. When the user terminal selects the single charging mode, the user terminal can directly set the single charging duration and complete the payment, and after the time is consumed, the portable detector is directly locked by the permission control unit. When the user terminal selects the continuous charging mode, the cost is accumulated in real time according to the use duration of the user terminal. After use, the portable detector can be used until the user terminal actively terminates use or the account balance is insufficient.

6. The breast milk sodium ion detection service system according to claim 3, wherein: The user terminal further comprises a two-dimensional code recognition unit configured to scan and recognize the two-dimensional code on the binding unit and perform association.

7. The breast milk sodium ion detection service system according to claim 1, wherein: The portable detector further comprises a bearing, two moving devices, a first solution storage device and a second solution storage device. The portable detector is provided with a bearing, and the bearing is provided with two moving devices that can drive the bearing to move. The bearing is provided with a first solution storage device for storing 150ppm calibration solution. The bearing is further provided with a second solution storage device for storing 200ppm calibration solution.

8. The breast milk sodium ion detection service system according to claim 7, wherein: Both the mobile devices comprise slide rail, slide block and reset structure, the portable detector is fixedly connected with the slide rail, the slide rail is provided with the slide block which can slide, the slide block is fixedly connected with the inner wall of the bearing away from the slide rail, the portable detector is provided with the reset mechanism for driving the reset of the slide block.

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