Physiological index monitoring equipment with intelligent voice interaction function

Abstract

The utility model discloses a physiological index monitoring device with an intelligent voice interaction function, which belongs to the technical field of medical equipment and comprises a processing unit I, a processing unit II, a selection unit, a server unit, a related sensor, a display unit, a microphone and a loudspeaker which are mutually independent. The processing unit I is connected with the sensor and the display unit, the processing unit II is connected with the microphone and the loudspeaker, and the two processing units are connected with each other and are connected with the selection unit and the server unit. By adopting a double-hardware processing unit discrete structure and cooperating with the sensor, the voice input and output assembly and the external server, the system is stable in structure, clear in labor division and suitable for monitoring physiological indexes such as blood pressure and blood sugar.

Description

Technical Field

[0001] This utility model relates to the field of medical equipment technology, and in particular to a physiological indicator monitoring device with intelligent voice interaction function. Background Technology

[0002] Home medical devices for monitoring indicators such as blood pressure, blood sugar, uric acid, blood lipids, body temperature, and electrocardiogram (ECG) for early screening or treatment of chronic diseases are becoming increasingly common. With the mature development of home medical device technology, they not only offer advantages such as accurate measurement results and shorter measurement time, but also significantly reduce the burden on hospitals.

[0003] Typically, home medical devices cannot provide further medical advice or dietary guidance based on measurement results, and consultation with a doctor or professional is still necessary. For chronic diseases, common illnesses, and emergency measures, where consultation with a doctor or professional is unnecessary or impossible, home medical devices can provide corresponding health guidance or emergency guidance based on historical data or emergency measures. With the aging trend, home medical devices with intelligent voice interaction functions that monitor physiological indicators can provide relevant information or suggestions based on test results, and can provide emergency guidance in case of emergencies, reducing the possibility of serious consequences, which is of practical significance.

[0004] The above content is only used to help understand the technical solution of this application and does not represent an admission that the above content is prior art. Utility Model Content

[0005] The main purpose of this utility model is to provide a physiological indicator monitoring device with intelligent voice interaction function. It adopts a dual hardware processing unit separate structure, and works with sensors, voice input and output components and external server. The structure is stable and the division of labor is clear. It is suitable for monitoring physiological indicators such as blood pressure and blood sugar.

[0006] To achieve the above objectives, this application provides a physiological indicator monitoring device with intelligent voice interaction function, specifically including:

[0007] Processing unit I, processing unit II, selection unit, server unit, related sensor components, display unit, microphone and speaker;

[0008] The processing unit I is electrically connected to the relevant sensor assembly, the display unit, and the selection unit, respectively;

[0009] The processing unit II is electrically connected to the microphone, the speaker, and the selection unit, respectively;

[0010] The processing unit I and the processing unit II are electrically connected;

[0011] Both processing unit I and processing unit II are communicatively connected to the server unit.

[0012] The processing unit I and the processing unit II are two independent hardware processing modules;

[0013] The processing unit I and the processing unit II include at least one core board that integrates an ARM core, storage device, registers and pins.

[0014] Preferably, the server unit is located outside the monitoring device, and the processing unit I and the processing unit II communicate with each other via a wireless or wired network.

[0015] Preferably, the relevant sensors include a pressure sensor, an air pump, and a valve, which work in conjunction with an arm cuff for pressure measurement to complete blood pressure and pulse measurements.

[0016] Preferably, the relevant sensors include a blood glucose measurement component and a temperature sensor. The blood glucose measurement component includes a test strip holder for inserting the test strip and a test strip signal detection. When the processing unit I senses the signal of the test strip being inserted into the test strip holder, it sends a start-up signal to the processing unit II, and a speaker connected to the processing unit II emits a voice prompt to start working.

[0017] Preferably, the selection unit is a physical button.

[0018] The physiological indicator monitoring device with intelligent voice interaction function according to this application includes two independent processing units: processing unit I, processing unit II, selection unit, server unit, related sensors, display unit, microphone, and speaker. Processing unit I is connected to the sensor and display unit, and processing unit II is connected to the microphone and speaker. The two processing units are interconnected and each is connected to the selection unit and server unit. This utility model adopts a dual hardware processing unit discrete structure, combined with sensors, voice input / output components, and an external server. The structure is stable and the division of labor is clear, making it suitable for monitoring physiological indicators such as blood pressure and blood sugar. Attached Figure Description

[0019] Figure 1 This is a schematic diagram illustrating the functional configuration of the monitoring equipment involved in the embodiments of this utility model.

[0020] Figure 2 This is a functional configuration diagram of a monitoring device according to another embodiment of the present invention.

[0021] Figure 3 This is a functional configuration diagram of the server unit involved in the embodiment of this utility model.

[0022] Figure 4This is a functional configuration diagram of the processing unit I involved in the embodiment of this utility model.

[0023] Figure 5 This is a functional configuration diagram of the processing unit II involved in the embodiment of this utility model.

[0024] Figure 6 This is a functional configuration diagram of processing unit I according to another embodiment of the present invention.

[0025] Attached icon numbers and names:

[0026] 10. Monitoring equipment;

[0027] 101. Processing Unit I; 1011. Display Unit; 1012. Button Assembly; 1013. Power Management Unit; 101a. Pressure Sensor; 101a1. Air Pump; 101a2. Valve; 101b. Blood Glucose Measurement Assembly; 101b1. Temperature Sensor;

[0028] 102. Processing Unit II; 1021. Microphone; 1022. Speaker;

[0029] 103. Select unit;

[0030] 104. Server Unit; 1041. User Management Unit; 1042. Intelligent Voice Module; 10421. Voice Recognition Unit; 10422. Voice Synthesis Unit; 10423. Health Dialogue Unit; 10424. Emergency Guidance Unit.

[0031] The realization of the purpose, functional features and advantages of this utility model will be further explained in conjunction with the embodiments and with reference to the accompanying drawings. Detailed Implementation

[0032] The technical solutions of the embodiments of this disclosure will be clearly and completely described below with reference to the accompanying drawings. The monitoring devices involved in the embodiments of this utility model refer to devices with intelligent voice interaction functions that can monitor physiological indicators such as blood pressure, blood glucose, uric acid, blood lipids, body temperature, and electrocardiogram, including home medical devices or specialized medical devices such as blood pressure monitors, blood glucose meters, uric acid meters, blood lipid meters, electrocardiogram monitors, thermometers, and pulse oximeters.

[0033] Please see Figure 1 According to the embodiments of the present invention, the monitoring device 10 includes at least a processing unit I 101, a processing unit II 102, a selection unit 103, and a server unit 104.

[0034] The processing unit I 101 is used to drive the relevant sensors to perform physiological index measurement operations and acquire the measurement data of the physiological index detected by the relevant sensors; and to drive the corresponding display unit to display the measurement data of the relevant sensors. The display unit includes a display with good display effect, such as a liquid crystal display, an LED display, an OLED display or a plasma display.

[0035] Related sensors refer to instruments or components that can detect physiological indicators such as blood pressure, blood sugar, uric acid, blood lipids, body temperature or electrocardiogram, and can be controlled by the processing unit I 101.

[0036] Processing unit II 102 is used to perform voice interaction functions, including voice acquisition, voice playback, and command execution; and to drive microphone 1021 and speaker 1022 to work.

[0037] In the monitoring device 10, the performance (including operating speed and processing capacity) of processing unit II 102 is higher than that of processing unit I 101. Processing unit II 102 typically performs operations with large amounts of data and complex calculations, requiring high performance, while processing unit I 101 typically performs operations that do not require complex calculations and processing, thus requiring lower performance.

[0038] Selection unit 103 connects processing unit I 101 and processing unit II 102. Selection unit 103 selects to operate with processing unit I 101, processing unit II 102, or both, according to pre-selected conditions. For example: selecting processing unit I 101 to perform physiological indicator measurement; selecting processing unit II 102 to activate the voice interaction function; selecting processing unit I 101 and processing unit II 102, and activating the voice interaction function after performing physiological indicator measurement.

[0039] The above pre-selection criteria include: measuring physiological indicators; health dialogue and emergency guidance; measuring physiological indicators and conducting dialogue.

[0040] Server unit 104 is communicatively connected to processing unit I 101 and / or processing unit II 102, and specifically includes user management unit 1041 and intelligent voice module 1042. User management unit 1041 and intelligent voice module 1042 are deployed on server unit 104, reducing the performance requirements of processing unit I 101 and processing unit II 102 and improving their response and processing speed. Processing unit I 101 transmits measurement data of relevant sensor-detected physiological indicators and data requests to server unit 104. Processing unit II 102 converts user speech into voice signals, requests a response from server unit 104, and returns the response to the user. Server unit 104 uniformly manages user management information and external devices (including processing unit I 101 and processing unit II 102), receives user requests, and communicates data with processing unit I 101 and processing unit II 102.

[0041] It should be noted that when server unit 104 is only connected to processing unit II 102, processing unit I 101 communicates with server unit 104 through processing unit II 102. This architecture further reduces the performance requirements of processing unit I 101 to ensure that processing unit I 101 can fully perform the physiological indicator measurement tasks.

[0042] It should be noted that the server unit 104 can be located outside the monitoring device 10, and the monitoring device 10 and the server unit 104 communicate via a wired network or a wireless network, such as... Figure 2 As shown, this structure improves the flexibility and convenience of using the monitoring device 10, without being limited by space or time.

[0043] Specifically, the user management unit 1041 is responsible for managing user identification and information and data management, and ensuring the privacy and security of user information and data.

[0044] Specifically, the intelligent voice module 1042 is responsible for answering questions raised by the user and providing feedback on commands issued by the user during the use of the monitoring device 10. For example... Figure 3 As shown, the intelligent voice module 1042 includes at least a voice recognition unit 10421, a voice synthesis unit 10422, a health dialogue unit 10423, and an emergency guidance unit 10424.

[0045] The speech recognition unit 10421 extracts and processes speech features from the acquired speech signal to obtain a specific parameter model (including an acoustic model and a language model) that reflects the speech features. The extracted speech feature parameters are then matched with this parameter model to obtain the correct recognition result. Finally, the speech signal is converted into text or instructions that can be understood by a machine or device.

[0046] The speech synthesis unit 10422, also known as text-to-speech conversion, converts text or instructions from a machine or device into speech signals. The processing unit II 102 receives the speech signals generated by the speech synthesis unit 10422, processes them into speech signals through encoding / decoding, and plays them out through a player to realize the voice interaction function with the user.

[0047] The health dialogue unit 10423 and the emergency guidance unit 10424 have corresponding corpora and knowledge bases. By calling the speech recognition unit 10421 and the speech synthesis unit 10422, combined with the localized model platform and artificial intelligence model, health data analysis and emergency guidance suggestions can be performed.

[0048] In the above embodiments, the processing unit I 101 of the monitoring device 10 is used to drive relevant sensors to perform physiological index measurement operations and acquire the measurement data of the physiological index detected by the relevant sensors, and to drive the corresponding display unit to display the measurement data of the relevant sensors. It does not need to perform complex calculations and processing operations, so the performance requirements of the processing unit I 101 are not high. A general processor can meet the requirements, which can reduce the cost of the device while ensuring the working performance of the device. The processing unit II 102 is used to perform voice interaction operations, which requires complex calculations and processing operations. Therefore, the performance requirements of the processing unit II 102 are high. It needs to have a high-performance processor to improve computing power and ensure the stability of the device operation. The distributed structure design maximizes the use of the processor's processing power, so that the reliability of the intelligent voice interaction function and the working stability of the device are guaranteed.

[0049] In some embodiments, the relevant sensor is a component with blood pressure measurement functionality. See also Figure 4 and Figure 5 The processing unit I 101 is connected to a display unit 1011, a button assembly 1012 and a power management unit 1013. The related sensors include a pressure sensor 101a, an air pump 101a1 and a valve 101a2.

[0050] Processing unit I 101 drives relevant sensors to perform physiological index measurements, acquires the measurement data of the physiological indexes detected by the relevant sensors, and drives the corresponding display unit to display the measurement data of the relevant sensors. In this embodiment, display unit 1011 includes a display with good display effect for displaying blood pressure and pulse detection data; button assembly 1012 includes power button, function selection button, historical data viewing button, etc.; power management unit 1013 is responsible for providing operating voltage to processing unit I 101 and processing unit II 102 and ensuring their normal operation; pressure sensor 101a, air pump 101a1 and valve 101a2 work together with arm cuff for pressure measurement to complete the blood pressure measurement of the user.

[0051] Specifically, to enable users to measure blood pressure via voice commands, processing unit I 101 and processing unit II 102 are communicatively connected. Processing unit I 101 and processing unit II 102 are also communicatively connected to server unit 104. Users can activate the intelligent voice module 1042 by selecting unit 103. After the user puts on the arm cuff for measuring blood pressure, server unit 104 outputs the blood pressure measurement signal to processing unit I 101 to send signals to control the pressure sensor 101a, air pump 101a1, and valve 101a2 to work together. Processing unit I 101 obtains the user's blood pressure and pulse physiological data according to the algorithm and drives display unit 1011 to display the detection data. At the same time, the detection data is transmitted to server unit 104 and stored in user management unit 1041.

[0052] Users can transmit blood pressure and pulse data stored in server unit 104 to processing unit II 102 via voice commands, and the data will be played out through speaker 1022 connected to it.

[0053] In the above embodiments, processing unit I 101 is used to drive relevant sensors to perform physiological index measurement operations and acquire the measurement data of the physiological index detected by the relevant sensors, and drive the corresponding display unit to display the measurement data of the relevant sensors. Processing unit II 102 is used for voice interaction and data communication with server unit 104 to achieve the purpose of automatically measuring blood pressure. The distributed structure design of processing unit I 101 and processing unit II 102 has the characteristics of fast response speed, intelligence, and easy cost control.

[0054] In some embodiments, the monitoring device 10 can perform a health dialogue function. After a user is bound to the monitoring device 10, the user management unit 1041 in the server unit 104 assigns a unique user information identification code to the user. When in use, the user can be identified through identity information, mobile phone number, email information, voice information, fingerprint information, etc.

[0055] In some embodiments, the monitoring device 10 can also be directly connected to an external device, such as a blood pressure monitor. It is known that the user management unit 1041 in the server unit 104 binds user information with external devices (such as product serial numbers) to generate a unique user information identification code, thereby achieving privacy protection of user information and preventing the leakage of user personal information and physiological indicator data.

[0056] The health dialogue in the above embodiments specifically includes the following steps (taking a blood pressure monitor as an example):

[0057] S101. Start the monitoring equipment, and the processing unit I and processing unit II communicate with the server unit.

[0058] The monitoring device is the same as the device described in the above embodiments. When the relevant sensors have blood pressure measurement functions, it is used as a blood pressure monitor. In this case, processing unit I is used to drive the relevant sensors to measure blood pressure and acquire the corresponding blood pressure physiological data, and to drive the corresponding display unit to display the corresponding blood pressure physiological data. Processing unit II is used for voice interaction and data communication with server unit 104.

[0059] S102, triggering the user management unit and intelligent voice module of the server unit.

[0060] Processing unit I obtains the unique identifier (such as product serial number) of the blood pressure monitor (with related sensors having blood pressure measurement function) and user information, and initiates a health dialogue request to the server unit. The user management unit in the server unit will confirm whether the blood pressure monitor and user information are consistent with the information stored in the user management unit. If they are consistent, the health dialogue unit in the server unit starts working. If not, the server unit sends an instruction to processing unit II to play a voice reminder message of "device not bound" or "user information not bound" through the speaker connected to processing unit II.

[0061] S103. After completing user information identification, the processing unit II receives the signal sent from the health dialogue unit to the monitoring device and plays voice information through the speaker.

[0062] Complete user information recognition means that the user management unit in the server unit confirms that the blood pressure monitor and user information are consistent with the information stored in the user management unit. The health dialogue unit sends a signal to the monitoring device and plays the voice message "What's wrong?" through the speaker, thus activating the health dialogue function. Next, the user interacts with the health dialogue unit in the server unit through the microphone connected to the processing unit II.

[0063] It should be noted that the microphone receives the user's voice, converts it into a digital signal through encoding / decoding, and transmits it to the health dialogue unit within the server unit. Since the health dialogue unit stores a corpus and knowledge base and can access the user's historical data, it performs analysis, dialogue, and response based on the locally deployed model platform and artificial intelligence model, and converts the results into digital voice signals, which are then played through the speaker.

[0064] S104. After the health dialogue unit completes the dialogue, it sends a voice message to drive the user to continue the dialogue.

[0065] For example, asking a question like "Do you have any other questions?" can encourage the conversation to continue.

[0066] S105. Repeat steps S103 and S104 until the dialogue ends.

[0067] Users can end a health conversation via voice or button operation. Specifically, when a user utters negative semantic words such as "no more," "end conversation," or "stop conversation," the health conversation unit will end the conversation.

[0068] In some embodiments, the monitoring device 10 can provide emergency guidance. After a user is bound to the monitoring device 10, the user management unit 1041 in the server unit 104 assigns a unique user information identification code to the user. When in use, user information can be identified through identity information, mobile phone number, email information, voice information, fingerprint information, etc.

[0069] In some embodiments, the monitoring device 10 can also be connected to external devices, such as a blood pressure monitor. It is known that the user management unit 1041 in the server unit 104 binds user information with external devices (such as product serial numbers) to generate a unique user information identification code, thereby achieving privacy protection of user information and preventing the leakage of user personal information and physiological indicator data.

[0070] The emergency guidance in the above embodiments specifically includes the following steps (taking a blood pressure monitor as an example):

[0071] S201. Start the monitoring equipment, and the processing unit I and processing unit II communicate with the server unit.

[0072] The monitoring device is the same as the device described in the above embodiment. It includes sensors that measure blood pressure (and other physiological indicators) and are used as a blood pressure monitor (corresponding measuring device). Processing unit I drives the relevant sensors (blood pressure monitor) to measure blood pressure and acquire the corresponding blood pressure data, and drives the corresponding display unit to display the blood pressure data. Processing unit II is used for voice interaction and data communication with server unit 104.

[0073] S202, triggering the user management unit and intelligent voice module of the server unit.

[0074] Processing unit I obtains the unique identifier (such as product serial number) of the blood pressure monitor (or related sensor with blood pressure measurement function) and user information, and initiates an emergency guidance request to the server unit. The user management unit in the server unit will confirm whether the blood pressure monitor (or related sensor) and user information are consistent with the information stored in the user management unit. If they are consistent, the emergency guidance unit in the server unit starts working. If not, the server unit sends an instruction to processing unit II to play a voice reminder message of "Device not bound" or "User information not bound" through the speaker connected to processing unit II.

[0075] S203. After completing user information identification, the processing unit II receives the signal sent from the emergency guidance unit to the monitoring equipment and plays voice information through the speaker.

[0076] User information identification is completed when the user management unit in the server unit confirms that the blood pressure monitor and user information match the information stored in the user management unit. The emergency guidance unit sends a signal to the monitoring device and plays the voice message "Where do you feel unwell?" through the speaker, thus activating the emergency guidance function. Next, the user interacts with the emergency guidance unit in the server unit through the microphone connected to the processing unit II.

[0077] It should be noted that the microphone receives the user's voice, converts it into a digital signal through encoding / decoding, and transmits it to the health dialogue unit within the server unit. Since the emergency guidance unit stores an emergency corpus and an emergency-related knowledge base, and can call up the user's historical data, it performs analysis, dialogue, and response based on the locally deployed model platform and artificial intelligence model, and converts the results into a digital voice signal, which is then played through the speaker.

[0078] S204. Obtain key voice information from the user, generate emergency guidance text, convert it into a voice signal, and play it through a speaker.

[0079] Specifically, when a user sends an emergency call for help, the microphone connected to processing unit II records the voice, which is then encoded / decoded into a digital voice signal and transmitted to the server unit. The voice recognition unit in the server unit recognizes the digital voice signal, obtains text content containing specific semantics, and transmits it to the emergency guidance unit. The emergency guidance unit extracts keywords such as "chest pain," "palpitation," "headache," and "dizziness," and the model analyzes and generates corresponding emergency guidance text. It then calls the voice synthesis unit to synthesize a digital voice signal, which is transmitted to processing unit II via wired or wireless means. After encoding / decoding, the digital voice signal is converted into an analog audio signal and played out by a speaker.

[0080] S205. After completing the dialogue, issue a voice message to drive the dialogue to continue.

[0081] For example, sending a "Did you know?" message can encourage the user to continue the conversation.

[0082] S206. Repeat steps S204-S205 until the dialogue ends.

[0083] After the emergency guidance unit completes the dialogue, it sends a request to continue the dialogue, such as "Do you understand?" or "Is there anything else that can help you?". If the user responds with a dialogue termination instruction, such as "I understand", "No", or "Let's end it", the emergency guidance unit ends the dialogue. The dialogue can also be ended by pressing a button. If the user continues the dialogue, the emergency guidance unit repeats steps S204 and S205 until the user issues a dialogue termination instruction.

[0084] It should be noted that the emergency guidance function can also be activated without user information identification to provide services to users seeking emergency guidance. For example, emergency guidance consultation services can be provided using a temporary user identity. The emergency guidance unit starts directly from step S204.

[0085] In some embodiments, the relevant sensor is a component with blood glucose measurement functionality. See also Figure 6 The processing unit I101 is connected to a display unit 1011, a button assembly 1012, and a power management unit 1013; the related sensors include a blood glucose measurement assembly 101b and a temperature sensor 101b1.

[0086] The processing unit 1 101 drives the blood glucose meter (related sensors) to perform blood glucose measurement operations, acquires the corresponding blood glucose data, and drives the corresponding display unit to display the corresponding blood glucose data. In this embodiment, the functions of the display unit 1011, the button assembly 1012, and the power management unit 1013 are similar to those in the embodiment with blood pressure measurement function described above, and will not be repeated here.

[0087] The blood glucose measurement component 101b is used to measure the user's blood glucose signal, specifically including the test strip holder and test strip signal detection. The user uses the corresponding model of blood glucose test strip to measure blood glucose concentration. The temperature sensor 101b1 is used to measure the ambient temperature and to monitor the temperature coefficient compensation and data correction of the device 10, so that the blood glucose measurement results are more accurate.

[0088] Specifically, processing unit I 101 and processing unit II 102 are communicatively connected, for example, through a parallel bus for data communication. Processing unit I 101 and processing unit II 102 are respectively communicatively connected to server unit 104. The user can activate the intelligent voice module 1042 via voice, button, or selection unit 103. When the user inserts the test strip into the test strip holder, processing unit I 101 senses the signal and sends a start signal to processing unit II 102, and a voice prompt to start working is emitted by speaker 1022. The user can then insert a blood sample into the blood sample intake port of the test strip. Processing unit I 101 detects that the blood sample is fully absorbed and automatically begins measurement. For example, during the measurement process, processing unit I... The embedded software inside unit 101 applies an excitation voltage (approximately 0.4V) to the working electrode of the test strip. Simultaneously, the test strip signal detection unit detects the minute current on the working electrode of the test strip (blood glucose measurement uses an electrochemical method; when a blood sample enters the reaction chamber of the test strip, it reacts with the enzymes attached to the surface of the chamber to generate a minute current). During the measurement process, the magnitude of the current is continuously collected, and the current value after 6 seconds of reaction is obtained. Then, the blood glucose concentration is calculated by the algorithm inside the embedded software, and the blood glucose measurement data is displayed on the display unit 1011.

[0089] Processing unit 1 101 transmits blood glucose data to server unit 104, where user management unit 1041 stores the data. User management unit 1041 manages user information and measurement data, and protects data security. It should be noted that identity information and device information (if any) are verified for consistency before blood glucose measurement.

[0090] Users can activate the intelligent voice module 1042 by voice, button, or selection unit 103, and control the speaker 1022 of processing unit II 102 to play the measurement results.

[0091] It should be noted that users can also have health conversations and emergency guidance conversations regarding blood sugar, similar to the above embodiments, and will not be repeated here.

[0092] When the relevant sensor has the function of measuring physiological indicators such as uric acid, blood lipids, body temperature or electrocardiogram, it is used as the corresponding uric acid meter, blood lipid meter, electrocardiogram meter, and has intelligent voice interaction function.

[0093] It should be noted that processing unit I 101 or processing unit II 102 can communicate with server unit 104 via wireless networks such as 4G, 5G, Bluetooth, WiFi, etc.; for example, processing unit I 101 or processing unit II 102 includes at least one core board integrating an ARM core, storage device, registers and pins to realize business processing capabilities; server unit 104 can also communicate with mobile terminals such as smartphones, iPads and laptops.

[0094] The server unit 104 can also be connected to the software application via an API interface, allowing users to access measurement data through the software port.

[0095] It should be noted that the selection unit 103 can be a physical button, which allows users to activate health dialogue or emergency guidance functions.

[0096] This application connects a microphone and speaker to processing unit II 102, and performs embedded software development on processing unit II 102 to realize the functions of recording and broadcasting voice signals and communicating with server unit 104. Processing unit I 101, as a measurement module, connects to corresponding sensor components for measuring physiological indicators such as blood pressure, blood glucose, uric acid, blood lipids, body temperature, and electrocardiogram. The performance requirements for processing unit I 101 are low, and it does not require complex calculations. Processing unit I 101 and processing unit II 102 are distributed, with processing unit II 102 communicating directly with server unit 104. Utilizing the computing resources within server unit 104 improves the data transmission efficiency between the monitoring device 10 and server unit 104, and enhances voice interaction efficiency.

Claims

1. A physiological indicator monitoring device with intelligent voice interaction function, characterized in that, include: Processing unit I, processing unit II, selection unit, server unit, related sensor components, display unit, microphone and speaker; The processing unit I is electrically connected to the relevant sensor assembly, the display unit, and the selection unit, respectively; The processing unit II is electrically connected to the microphone, the speaker, and the selection unit, respectively; The processing unit I and the processing unit II are electrically connected; Both processing unit I and processing unit II are communicatively connected to the server unit. The processing unit I and the processing unit II are two independent hardware processing modules; The processing unit I and the processing unit II include at least one core board that integrates an ARM core, storage device, registers and pins.

2. The monitoring device according to claim 1, characterized in that, The server unit is located outside the monitoring device, and the processing unit I and the processing unit II communicate with each other via wireless or wired networks.

3. The monitoring device according to claim 2, characterized in that, The relevant sensors include a pressure sensor, an air pump, and a valve, which work in conjunction with an arm cuff for pressure measurement to complete blood pressure and pulse measurements.

4. The monitoring device according to claim 2, characterized in that, The relevant sensors include a blood glucose measurement component and a temperature sensor. The blood glucose measurement component includes a test strip holder for inserting the test strip and a test strip signal detection. When the processing unit I senses the signal of the test strip being inserted into the test strip holder, it sends a start-up signal to the processing unit II. A speaker connected to the processing unit II emits a voice prompt to start working.

5. The monitoring device according to any one of claims 1-4, characterized in that, The selection unit is a physical button.

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