A motion physiological parameter cooperative detection circuit

Abstract

This invention discloses a coordinated detection circuit for exercise physiological parameters, including a physiological parameter power supply, a physical parameter power supply, a memory power supply, a skin conductance sensor, a photoelectric sensor, an attitude sensor, a memory, a communication module, and a battery charging module.

Description

Technical Field

[0001] This invention relates to the field of physiological parameter measurement, specifically a collaborative detection circuit for exercise physiological parameters. Background Technology

[0002] Currently, early screening for childhood mental health primarily relies on single-modal data models constructed using commercially available triaxial motion sensors for analysis and assessment. These devices, by collecting motion data from children's daily activities, indirectly assess their behavioral patterns and psychological state, and have become common auxiliary tools in this field. However, existing wearable devices still have significant shortcomings in the practical application of childhood mental health screening, mainly in the following aspects:

[0003] First, existing equipment primarily focuses on single-parameter monitoring, typically collecting data only on exercise intensity or simple heart rate, lacking comprehensive and simultaneous monitoring of multiple physiological indicators and exercise status. Mental health is influenced by a variety of physiological factors, and relying solely on single exercise data cannot comprehensively and accurately reflect key dimensions such as children's emotional state, stress response, and psychological fatigue, thus limiting the accuracy and reliability of screening models.

[0004] Secondly, the data accuracy of existing equipment often fails to meet the requirements of professional scenarios (such as refined sports training and clinical medical auxiliary diagnosis). Due to limitations in sensor performance, signal interference, and algorithms, the collected physiological parameters suffer from large errors and insufficient stability, leading to reduced reliability of subsequent data analysis and making it difficult to support accurate early warning and intervention.

[0005] Therefore, there is an urgent need for a wearable device that can simultaneously, accurately, and comfortably monitor multiple physiological parameters and movement status of children, in order to overcome the shortcomings of existing technologies and provide a more comprehensive and reliable data foundation for the early identification and intervention of children's mental health. Summary of the Invention

[0006] The purpose of this invention is to provide a coordinated detection circuit for exercise physiological parameters, including a physiological parameter power supply, a Bluetooth power supply, an attitude and memory power supply, a skin conductance sensor, a photoelectric sensor, an attitude sensor, a memory, a Bluetooth communication module, a battery charging module, and a built-in battery.

[0007] Among them, the physiological parameter power supply powers the skin conductance sensor and the photoelectric sensor;

[0008] The attitude and memory power supply provides power to the attitude sensor and memory.

[0009] The skin conductance sensor is used to monitor the user's skin conductance signal;

[0010] The photoelectric sensor is used to monitor the user's physiological parameters;

[0011] The attitude sensor is used to monitor the user's attitude signal;

[0012] The memory stores data from the skin conductance sensor, photoelectric sensor, and attitude sensor, and transmits it externally via the Bluetooth communication module.

[0013] The battery charging module is a built-in battery charger;

[0014] The built-in battery provides power for physiological parameters, attitude and memory, and Bluetooth.

[0015] Furthermore, the circuit topology of the skin conductance sensor is shown below:

[0016] The VP line probe is connected to the auxiliary power supply VCC after connecting to resistor R12.

[0017] The skin probe RR is connected to resistor R13 and then grounded, forming a half-bridge arm circuit;

[0018] The skin probe RR is connected to resistor R14 and then to a low-pass filter circuit.

[0019] Capacitors C10 and C9, and inductor L1 form a low-pass filter circuit.

[0020] Furthermore, the skin conduction probes VP and RR are in contact with the user's skin on the same side.

[0021] Furthermore, the conductive probes VP and RR are gold-plated planar contact conductive probes.

[0022] Furthermore, the circuit topology of the low-pass filter circuit is as follows: one end of capacitor C9 is grounded, and the other end is connected to inductor L1 and then connected to one end of capacitor C10.

[0023] The other end of capacitor C10 is grounded;

[0024] The ungrounded end of capacitor C9 serves as the signal output terminal of the medical-grade skin conductance sensor.

[0025] The signal output terminal of the medical-grade skin conductance sensor is connected to an external chip via a signal wire to transmit skin conductance signals to the external chip.

[0026] Furthermore, the VP and RR sensors monitor the user's skin conductance signals.

[0027] Furthermore, the physiological parameters monitored by the photoelectric sensor include pulse, blood pressure, heart rate, and blood oxygen.

[0028] Furthermore, the circuit topology of the photoelectric sensor is shown below:

[0029] Terminal 1 of chip J1 is connected to the VCC auxiliary power supply;

[0030] Terminals 2 and 5 of chip J1 are left floating;

[0031] Connect terminal 3 of chip J1 to U1 via series resistor R8.

[0032] Connect terminal 4 of chip J1 to U1 via series resistor R9;

[0033] Terminals 6, 7, and 8 of chip J1 are grounded;

[0034] Terminals 6, 7, and 8 of chip J1 are connected in series with capacitor C23 and then connected to the VCC auxiliary power supply.

[0035] Furthermore, the circuit topology of the attitude sensor is shown below:

[0036] The VDD terminal of chip U4 is connected to the auxiliary power supply VCC1;

[0037] The VDIO terminal of chip U4 is connected to ground after capacitor C8 is connected.

[0038] The VDIO terminal of chip U4 is connected to the VO terminal of chip U10; the VIN terminal of chip U10 is connected to the VCC1 auxiliary power supply.

[0039] The SDO, SDI, CLK, nCS, and INT terminals of chip U4 are connected to chip U1;

[0040] The REGOUT terminal of chip U4 is connected to ground after capacitor C7 is connected.

[0041] The RESV and FSYNC terminals of chip U4 are grounded.

[0042] The technical effectiveness of this invention is undeniable. This invention integrates multiple sensors, enabling the measurement and recording of certain physiological parameters and daily activity levels in children and adolescents. Among them, the integrated photoelectric sensor monitors the wearer's subcutaneous capillary microcirculation to acquire multiple physiological parameters such as pulse waveform, blood pressure, heart rate, and blood oxygenation. Furthermore, through the analysis platform, it can also obtain heart rate variability (HRV), fatigue index, arrhythmia, heart rate scatter plot, and respiratory rate from the basic data. The skin conductance sensor can collect and record the wearer's skin conductance changes in real time. The six-axis posture sensor records the wearer's three-axis real-time posture angles and three-axis acceleration parameters, facilitating the assessment of the wearer's movement and activity intensity. Attached Figure Description

[0043] Figure 1 The circuit topology diagram of the collaborative detection circuit;

[0044] Figure 2 This is a circuit topology diagram of a skin conductance sensor;

[0045] Figure 3 This is a circuit topology diagram of a photoelectric sensor;

[0046] Figure 4 This is a circuit topology diagram of an attitude sensor. Detailed Implementation

[0047] The present invention will be further described below with reference to embodiments, but it should not be construed that the scope of the present invention is limited to the following embodiments. Various substitutions and modifications made based on ordinary technical knowledge and common practices in the art without departing from the above-described technical concept of the present invention should be included within the scope of protection of the present invention.

[0048] Example 1:

[0049] See Figures 1 to 4 A collaborative detection circuit for exercise physiological parameters includes a physiological parameter power supply, a Bluetooth power supply, an attitude and memory power supply, a skin conductance sensor, a photoelectric sensor, an attitude sensor, a memory, a Bluetooth communication module, a battery charging module, and a built-in battery.

[0050] Among them, the physiological parameter power supply powers the skin conductance sensor and the photoelectric sensor;

[0051] The attitude and memory power supply provides power to the attitude sensor and memory.

[0052] The skin conductance sensor is used to monitor the user's skin conductance signal;

[0053] The photoelectric sensor is used to monitor the user's physiological parameters;

[0054] The attitude sensor is used to monitor the user's attitude signal;

[0055] The memory stores data from the skin conductance sensor, photoelectric sensor, and attitude sensor, and transmits it externally via the Bluetooth communication module.

[0056] The battery charging module is a built-in battery charger;

[0057] The built-in battery provides power for physiological parameters, attitude and memory, and Bluetooth.

[0058] Example 2:

[0059] A collaborative detection circuit for exercise physiological parameters, with the same technical content as Embodiment 1, further showing the circuit topology of the skin conductance sensor as follows:

[0060] The VP line probe is connected to the auxiliary power supply VCC after connecting to resistor R12.

[0061] The skin probe RR is connected to resistor R13 and then grounded, forming a half-bridge arm circuit;

[0062] The skin probe RR is connected to resistor R14 and then to a low-pass filter circuit.

[0063] Capacitors C10 and C9, and inductor L1 form a low-pass filter circuit.

[0064] Example 3:

[0065] A collaborative detection circuit for exercise physiological parameters, with the same technical content as any one of embodiments 1-2, further wherein the skin conductance probe VP and skin conductance probe RR are in contact with the user's skin on the same side.

[0066] Example 4:

[0067] A collaborative detection circuit for exercise physiological parameters, with the same technical content as any one of embodiments 1-3, further wherein the skin conductance probe VP and skin conductance probe RR are gold-plated planar contact conductive probes.

[0068] Example 5:

[0069] A collaborative detection circuit for exercise physiological parameters, with the same technical content as any one of embodiments 1-4, further wherein the circuit topology of the low-pass filter circuit is as follows: one end of capacitor C9 is grounded, and the other end is connected to inductor L1 and then connected to one end of capacitor C10.

[0070] The other end of capacitor C10 is grounded;

[0071] The ungrounded end of capacitor C9 serves as the signal output terminal of the medical-grade skin conductance sensor.

[0072] The signal output terminal of the medical-grade skin conductance sensor is connected to an external chip via a signal wire to transmit skin conductance signals to the external chip.

[0073] Example 6:

[0074] A collaborative detection circuit for exercise physiological parameters, with the same technical content as any one of embodiments 1-5, further comprising a skin conductance probe VP and a skin conductance probe RR monitoring the user's skin conductance signal.

[0075] Example 7:

[0076] A collaborative detection circuit for exercise physiological parameters, with the same technical content as any one of embodiments 1-6, further wherein the physiological parameters monitored by the photoelectric sensor include pulse, blood pressure, heart rate, and blood oxygen.

[0077] Example 8:

[0078] A collaborative detection circuit for exercise physiological parameters, with the same technical content as any one of embodiments 1-7, further wherein the circuit topology of the photoelectric sensor is as follows:

[0079] Terminal 1 of chip J1 is connected to the VCC auxiliary power supply;

[0080] Terminals 2 and 5 of chip J1 are left floating;

[0081] Connect terminal 3 of chip J1 to U1 via series resistor R8.

[0082] Connect terminal 4 of chip J1 to U1 via series resistor R9;

[0083] Terminals 6, 7, and 8 of chip J1 are grounded;

[0084] Terminals 6, 7, and 8 of chip J1 are connected in series with capacitor C23 and then connected to the VCC auxiliary power supply.

[0085] Example 9:

[0086] A motion physiological parameter co-detection circuit, with the same technical content as any one of embodiments 1-8, further wherein the circuit topology of the attitude sensor is as follows:

[0087] The VDD terminal of chip U4 is connected to the auxiliary power supply VCC1;

[0088] The VDIO terminal of chip U4 is connected to ground after capacitor C8 is connected.

[0089] The VDIO terminal of chip U4 is connected to the VO terminal of chip U10; the VIN terminal of chip U10 is connected to the VCC1 auxiliary power supply.

[0090] The SDO, SDI, CLK, nCS, and INT terminals of chip U4 are connected to chip U1; chip U1 is a microcontroller used to collect sensor data, perform preliminary filtering and fusion, and then send it to the host computer.

[0091] The REGOUT terminal of chip U4 is connected to ground after capacitor C7 is connected.

[0092] The RESV and FSYNC terminals of chip U4 are grounded.

Claims

1. A circuit for coordinated detection of exercise physiological parameters, characterized in that: Includes physiological parameter power supply, Bluetooth power supply, posture and memory power supply, skin conductance sensor, photoelectric sensor, posture sensor, memory, Bluetooth communication module, battery charging module, and built-in battery; Among them, the physiological parameter power supply powers the skin conductance sensor and the photoelectric sensor; The attitude and memory power supply provides power to the attitude sensor and memory. The skin conductance sensor is used to monitor the user's skin conductance signal; The photoelectric sensor is used to monitor the user's physiological parameters; The attitude sensor is used to monitor the user's attitude signal; The memory stores data from the skin conductance sensor, photoelectric sensor, and attitude sensor, and transmits it externally via the Bluetooth communication module. The battery charging module is a built-in battery charging module; The built-in battery provides power for physiological parameters, attitude and memory, and Bluetooth.

2. The exercise physiological parameter co-detection circuit according to claim 1, characterized in that: The circuit topology of the skin conductance sensor is shown below: The VP line probe is connected to the auxiliary power supply VCC after connecting to resistor R12. The skin probe RR is connected to resistor R13 and then grounded, forming a half-bridge arm circuit; The skin probe RR is connected to resistor R14 and then to a low-pass filter circuit. Capacitors C10 and C9, and inductor L1 form a low-pass filter circuit.

3. The exercise physiological parameter co-detection circuit according to claim 2, characterized in that: The skin conduction probe VP and skin conduction probe RR are in contact with the user's skin on the same side.

4. The exercise physiological parameter co-detection circuit according to claim 2, characterized in that: The VP and RR conductive probes are gold-plated planar contact conductive probes.

5. The exercise physiological parameter co-detection circuit according to claim 2, characterized in that: The circuit topology of the low-pass filter circuit is as follows: one end of capacitor C9 is grounded, and the other end is connected to inductor L1 and then connected to one end of capacitor C10. The other end of capacitor C10 is grounded; The ungrounded end of capacitor C9 serves as the signal output terminal of the medical-grade skin conductance sensor. The signal output terminal of the medical-grade skin conductance sensor is connected to an external chip via a signal wire to transmit skin conductance signals to the external chip.

6. The exercise physiological parameter co-detection circuit according to claim 2, characterized in that: The VP and RR sensors monitor the user's skin conductance signals.

7. The exercise physiological parameter co-detection circuit according to claim 1, characterized in that: The physiological parameters monitored by photoelectric sensors include pulse, blood pressure, heart rate, and blood oxygen.

8. The exercise physiological parameter co-detection circuit according to claim 1, characterized in that: The circuit topology of the photoelectric sensor is shown below: Terminal 1 of chip J1 is connected to the VCC auxiliary power supply; Terminals 2 and 5 of chip J1 are left floating; Connect terminal 3 of chip J1 to U1 via series resistor R8; Connect terminal 4 of chip J1 to U1 via series resistor R9; Terminals 6, 7, and 8 of chip J1 are grounded; The 6th, 7th and 8th terminals of chip J1 are connected in series with capacitor C23 and then connected to the VCC auxiliary power supply.

9. The exercise physiological parameter co-detection circuit according to claim 1, characterized in that: The circuit topology of the attitude sensor is shown below: The VDD terminal of chip U4 is connected to the auxiliary power supply VCC1; The VDIO terminal of chip U4 is connected to ground after capacitor C8 is connected. The VDIO terminal of chip U4 is connected to the VO terminal of chip U10; The VIN terminal of chip U10 is connected to the auxiliary power supply VCC1; The SDO, SDI, CLK, nCS, and INT terminals of chip U4 are connected to chip U1; The REGOUT terminal of chip U4 is connected to ground after capacitor C7 is connected. The RESV and FSYNC terminals of chip U4 are grounded.

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