Remote pulse condition detection and application system based on Internet and analog-to-digital conversion technology

Abstract

The invention relates to a remote pulse condition detection and application system based on the Internet and an analog-to-digital conversion technology, and aims to solve the problems that traditional Tibetan medicine pulse condition diagnosis depends on hand feeling and lacks objectivity and remote transmission. According to the system, components such as the pulse condition information acquisition instrument, the wireless transmission module, the internet server, the doctor end APP and the simulator are integrated, so that remote acquisition, encrypted transmission, storage, visual analysis and simulation presentation of pulse condition information are realized. The pulse condition information acquisition instrument adopts piezoelectric and photoelectric sensors to accurately capture pulse condition signals, and the pulse condition signals are filtered and amplified through a signal processing module. And the wireless transmission module has a data encryption function, so that the safety and privacy protection of the pulse condition information in the transmission process are ensured. The doctor end APP provides a data visualization function, and the pulse condition information is displayed in a graphical mode, so that a doctor can quickly analyze and diagnose the pulse condition information. The simulator visually presents pulse characteristics through a simulation hose mechanism, and provides real-time feedback for doctors.

Description

Technical Field

[0001] The invention relates to the technical field of telemedicine, in particular to a remote pulse detection and application system based on the Internet and analog-to-digital conversion technology. Background Art

[0002] In the Tibetan medicine diagnosis system, pulse has always occupied a pivotal position as an important basis for judging the health status of the human body. However, traditional pulse diagnosis is highly dependent on the doctor's touch and experience, which not only limits the accuracy and objectivity of the diagnosis, but also increases the subjectivity and uncertainty of the diagnosis. With the rapid development of information technology, especially the widespread application of the Internet, the Internet of Things and big data technology, telemedicine has gradually become possible, providing a new opportunity for the modernization of Tibetan medicine pulse diagnosis.

[0003] However, to realize remote pulse diagnosis, we first need to solve the problem of remote collection, transmission and presentation of pulse information. Traditional pulse collection methods often use manual touch, which makes it difficult to convert pulse information into digital signals for remote transmission. At the same time, how to ensure the security and privacy of pulse information during the transmission process is also an urgent problem to be solved.

[0004] In addition, even if pulse information can be transmitted remotely, how to accurately and intuitively present this information on the doctor's side so that the doctor can perform remote diagnosis and analysis is also a major challenge facing the current telemedicine field. Although traditional pulse waveforms can reflect the basic characteristics of pulses, they often lack intuitiveness and interactivity, and are difficult to meet the needs of modern medical diagnosis.

[0005] Therefore, there is an urgent need for a system that can remotely collect, transmit, store and present pulse information. Summary of the invention

[0006] In order to solve the problems of the prior art, the present invention provides a remote pulse detection and application system based on the Internet and analog-to-digital conversion technology. The system needs to have the characteristics of high accuracy, high stability, high security and high intuitiveness to support doctors in remote diagnosis and analysis and improve the efficiency and accuracy of medical services.

[0007] In order to solve the above-mentioned technical problems, the present invention is achieved through the following technical solutions: a kind of remote pulse detection and application system based on the Internet and analog-to-digital conversion technology, comprising:

[0008] The pulse information collector is equipped with a pulse sensor for collecting the pulse signal of the patient;

[0009] A wireless transmission module is connected to the pulse information collector and is used to transmit the collected pulse signal to an Internet server via WiFi;

[0010] An Internet server receives and stores the pulse signal from the wireless transmission module, and can send the pulse signal to the doctor's APP via WiFi;

[0011] The doctor-side APP is configured on the doctor's mobile device and is used to receive and display the pulse signal for the doctor to perform remote diagnosis;

[0012] The simulator is connected to the Internet server or the wireless transmission module, receives the pulse signal, and presents the pulse characteristics through a simulated hose mechanism so that the doctor can perform pulse detection by touch.

[0013] In this embodiment, the working process and principle can be described in detail as follows:

[0014] Workflow

[0015] Pulse information collection:

[0016] The patient uses a pulse information collector, which has a built-in pulse sensor.

[0017] The pulse sensor collects the patient's pulse signals by contacting the patient's skin. These signals may include characteristics such as the strength, frequency, and rhythm of the pulse.

[0018] Signal conversion and transmission:

[0019] The collected pulse signal is first converted into digital form (although it is not mentioned directly in the text, the signal output by the pulse sensor usually needs to be converted into a digital signal for subsequent processing).

[0020] The converted digital pulse signal is sent to an Internet server via a wireless transmission module (such as WiFi).

[0021] Server Processing and Storage:

[0022] The Internet server receives the pulse signal from the wireless transmission module and stores it.

[0023] The server can also send pulse signals to the doctor's APP via the WiFi network for the doctor to perform remote diagnosis.

[0024] Doctor-side APP receives and displays:

[0025] The doctor uses the doctor APP on the mobile device to receive the pulse signal sent from the server.

[0026] The APP displays these signals in graphical, numerical or other intuitive ways to help doctors analyze the patient's pulse characteristics.

[0027] Remote diagnosis and pulse detection (optional):

[0028] Doctors make remote diagnoses based on the pulse signals displayed on the APP.

[0029] If a more intuitive pulse feeling is needed, the doctor can perform pulse detection through a simulator. The simulator receives pulse signals from an Internet server or a wireless transmission module and presents pulse characteristics through a simulated hose mechanism.

[0030] Its principle and function are as follows:

[0031] Pulse information collector and sensor: Utilize sensor technology to collect the patient's pulse information in a non-invasive manner and provide basic data for telemedicine.

[0032] Wireless transmission module and Internet server: realize digital transmission and remote storage of pulse signals, breaking the geographical and time limitations of traditional medicine, allowing doctors to obtain patients' pulse information anytime and anywhere.

[0033] Doctor-side APP: Serves as a bridge between doctors and pulse information, providing an intuitive and easy-to-use interface to help doctors perform remote diagnosis and analysis.

[0034] Simulator: Through physical simulation, the pulse signal is converted into pulse characteristics that doctors can directly touch and feel, enhancing the intuitiveness and credibility of telemedicine.

[0035] In some specific implementations, the pulse information collector further includes a signal processing module for filtering and amplifying the collected pulse signal to improve the accuracy and stability of the signal.

[0036] In some specific implementations, the wireless transmission module also has a data encryption function, which is used to encrypt the pulse signal during the transmission process to ensure data security and privacy protection.

[0037] In some specific embodiments, the doctor-side APP also includes a data visualization module for displaying the received pulse signal in a graphical manner, including but not limited to a pulse waveform diagram and a parameter list, so that the doctor can analyze the pulse information more intuitively.

[0038] In some specific embodiments, the simulator further includes a feedback module for providing the doctor with real-time feedback of pulse characteristics, including changes in pulse intensity and frequency parameters, based on the doctor's touch operation.

[0039] In some specific embodiments, a patient information management module is also included to store and manage the patient's personal information and medical history records for the doctor's reference during the diagnosis process.

[0040] In some specific implementations, the system supports concurrent access by multiple users, allowing multiple doctors to view pulse information of different patients at the same time, so as to improve the efficiency of medical services.

[0041] In some specific embodiments, the pulse sensor is detected by using a piezoelectric sensor and a photoelectric sensor;

[0042] Piezoelectric sensors use the characteristics of piezoelectric materials to convert the pressure signal of the pulse into an electrical signal;

[0043] Photoelectric sensors use infrared rays of a specific wavelength to detect changes in blood oxygen protein content, thereby indirectly reflecting the pulsation of the pulse and assisting in the detection of related auxiliary data.

[0044] In some specific embodiments, a simulated hose mechanism is provided inside the simulator, which presents the pulse condition through the operation modes of fluid filling and sealing, pressure change and transmission, hose deformation and recovery, fluid flow and presentation, and touch perception and feedback;

[0045] Fluid filling and sealing: The simulation hose is filled with fluid (such as water, blood simulation fluid, etc.), and both ends of the hose are sealed to ensure that the fluid does not leak. In this way, the hose forms a closed fluid system that can simulate the blood flow in human blood vessels.

[0046] Pressure change and transmission: When the pulse sensor detects the patient's pulse signal, this signal will be converted into a certain pressure change. This pressure change is sent to the Internet server through the wireless transmission module and finally transmitted to the simulator. The mechanism inside the simulator will apply corresponding external pressure to the simulation hose according to the received pressure change signal.

[0047] Hose deformation and recovery: Under the action of external pressure, the simulated hose will undergo elastic deformation. This deformation simulates the expansion and contraction of human blood vessels during pulse pulsation. When the external pressure disappears, the hose will return to its original shape, thus forming a complete pulse pulsation cycle.

[0048] Fluid flow and presentation: As the hose deforms and recovers, the fluid inside it will also flow accordingly. This flow can be presented by observing the waveform changes on the outside of the hose, the changes in fluid velocity or the changes in flow rate. These changes can intuitively reflect the strength, frequency and rhythm of the pulse.

[0049] Touch perception and feedback: Doctors can feel the pulse by touching the simulated hose. Since the fluid flow inside the hose and the deformation outside are synchronized, doctors can feel the pulse characteristics by touching the outside of the hose. This touch perception method provides a more intuitive and realistic pulse experience, which helps doctors make more accurate remote diagnoses.

[0050] The beneficial effects of the present invention are:

[0051] 1. The present invention integrates advanced pulse information collection, processing and transmission technology. This patent can capture the patient's pulse information in real time and accurately, and transmit it remotely to the doctor's end, so that the doctor can make a remote diagnosis based on detailed data, thereby significantly improving the accuracy and reliability of telemedicine services. Patients do not need to go to the hospital in person, but can receive remote pulse detection through this system, which greatly saves time and energy. At the same time, the real-time feedback function provided by the simulator enables doctors to understand the patient's pulse characteristics more accurately and provide patients with more personalized treatment plans;

[0052] 2. This system supports concurrent access by multiple users, allowing multiple doctors to view the pulse information of different patients at the same time, greatly improving the efficiency of medical services. At the same time, the data visualization function provided by the doctor-side APP makes the pulse information presented in an intuitive and easy-to-understand way, which is convenient for doctors to quickly analyze and diagnose;

[0053] 3. This patent combines traditional Tibetan medicine pulse diagnosis with modern information technology, realizes the objective and quantitative analysis of pulse information, and provides strong support for the modernization and standardization of Tibetan medicine diagnosis. BRIEF DESCRIPTION OF THE DRAWINGS

[0054] Figure 1 It is a schematic diagram of the system structure connection of the present invention. DETAILED DESCRIPTION

[0055] The following will be combined with the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0056] like Figure 1The remote pulse detection and application system based on the Internet and analog-to-digital conversion technology shown in the figure includes: a pulse information collector, which is equipped with a pulse sensor and is used to collect the patient's pulse signal; a wireless transmission module, which is connected to the pulse information collector and is used to transmit the collected pulse signal to an Internet server via WiFi; an Internet server, which receives and stores the pulse signal from the wireless transmission module and can send the pulse signal to a doctor-side APP via WiFi; a doctor-side APP, which is configured on the doctor's mobile device and is used to receive and display the pulse signal for the doctor to perform remote diagnosis; a simulator, which is connected to the Internet server or the wireless transmission module, receives the pulse signal, and presents the pulse characteristics through a simulated hose mechanism, so that the doctor can perform pulse detection by touch.

[0057] The pulse information collector also includes a signal processing module for filtering and amplifying the collected pulse signals to improve the accuracy and stability of the signals. The wireless transmission module also has a data encryption function for encrypting the pulse signals during transmission to ensure data security and privacy protection. The doctor-side APP also includes a data visualization module for displaying the received pulse signals in a graphical manner, including but not limited to pulse waveforms and parameter lists, so that doctors can analyze pulse information more intuitively.

[0058] The simulator also includes a feedback module, which is used to provide doctors with real-time feedback on pulse characteristics, including changes in pulse strength and frequency parameters, based on the doctor's touch operation. It also includes a patient information management module, which is used to store and manage the patient's personal information and medical history records for the doctor's reference during the diagnosis process. The system supports multi-user concurrent access, allowing multiple doctors to view the pulse information of different patients at the same time to improve the efficiency of medical services.

[0059] The pulse sensor uses piezoelectric sensors and photoelectric sensors for detection; the piezoelectric sensor uses the characteristics of piezoelectric materials to convert the pulse pressure signal into an electrical signal; the photoelectric sensor uses infrared rays of a specific wavelength to detect changes in the blood oxygen protein content, thereby indirectly reflecting the pulsation of the pulse and assisting in the detection of related auxiliary data.

[0060] The simulator is equipped with a simulated hose mechanism inside, which presents the pulse condition through the operations of fluid filling and sealing, pressure change and transmission, hose deformation and recovery, fluid flow and presentation, and touch perception and feedback.

[0061] Embodiment: The specific operations are as follows;

[0062] Pulse information collection: The patient places his wrist on the pulse information collector, and the pulse sensor starts to collect pulse signals. The signal processing module filters and amplifies the collected signals to improve the accuracy and stability of the signals.

[0063] Signal transmission and encryption: The processed pulse signal is sent to the Internet server through the wireless transmission module. During the transmission process, the wireless transmission module encrypts the pulse signal to ensure data security and privacy protection.

[0064] Data storage and distribution: The Internet server receives and stores pulse signals, and sends the pulse signals to the doctor's APP based on the doctor's request.

[0065] Doctor-side APP display and analysis: Doctors open the doctor-side APP on their mobile devices to receive and view pulse signals. The data visualization module displays pulse signals in a graphical way to help doctors analyze pulse information more intuitively.

[0066] Simulator presentation and feedback: The doctor receives the pulse signal through the simulator and feels the pulse characteristics by touching the simulated hose mechanism. The simulator provides real-time feedback on the pulse characteristics based on the doctor's touch operation.

[0067] Diagnosis and Recording: The doctor makes a diagnosis based on the pulse information and feedback from the simulator, and records the diagnosis results and patient information.

[0068] In summary, this application proposes a remote pulse detection and application system based on the Internet and analog-to-digital conversion technology. The system integrates functions such as pulse information collection, wireless encrypted transmission, Internet storage and distribution, doctor-side APP visualization analysis, and simulator real-time feedback. It accurately collects pulse signals through piezoelectric and photoelectric sensors, and uses an analog hose mechanism to intuitively present pulse characteristics, thereby realizing remote, accurate, and secure transmission and diagnosis of pulse information, greatly improving the efficiency and accuracy of telemedicine services.

[0069] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A remote pulse detection and application system based on the Internet and analog-to-digital conversion technology, characterized in that: include: The pulse information collector is equipped with a pulse sensor for collecting the pulse signal of the patient; A wireless transmission module is connected to the pulse information collector and is used to transmit the collected pulse signal to an Internet server via WiFi; An Internet server receives and stores the pulse signal from the wireless transmission module, and can send the pulse signal to the doctor's APP via WiFi; The doctor-side APP is configured on the doctor's mobile device and is used to receive and display the pulse signal for the doctor to perform remote diagnosis; The simulator is connected to the Internet server or the wireless transmission module, receives the pulse signal, and presents the pulse characteristics through a simulated hose mechanism so that the doctor can perform pulse detection by touch.

2. a kind of long-range pulse detection and application system based on the Internet and analog-to-digital conversion technology according to claim 1, it is characterized in that: The pulse information collector also includes a signal processing module for filtering and amplifying the collected pulse signal to improve the accuracy and stability of the signal.

3. a kind of long-range pulse detection and application system based on the Internet and analog-to-digital conversion technology according to claim 1, it is characterized in that: The wireless transmission module also has a data encryption function, which is used to encrypt the pulse signal during the transmission process to ensure the security and privacy protection of the data.

4. a kind of long-range pulse detection and application system based on the Internet and analog-to-digital conversion technology according to claim 1, it is characterized in that: The doctor-side APP also includes a data visualization module for displaying the received pulse signal in a graphical manner, including but not limited to a pulse waveform diagram and a parameter list, so that the doctor can analyze the pulse information more intuitively.

5. a kind of long-range pulse detection and application system based on the Internet and analog-to-digital conversion technology according to claim 1, it is characterized in that: The simulator also includes a feedback module for providing the doctor with real-time feedback of pulse characteristics, including changes in pulse intensity and frequency parameters, according to the doctor's touch operation.

6. a kind of long-range pulse condition detection and application system based on the Internet and analog-to-digital conversion technology according to claim 1, it is characterized in that: It also includes a patient information management module for storing and managing the patient's personal information and medical history records for the doctor's reference during the diagnosis process.

7. a kind of long-range pulse detection and application system based on the Internet and analog-to-digital conversion technology according to claim 1, it is characterized in that: The system further supports concurrent access by multiple users, allowing multiple doctors to view the pulse information of different patients at the same time to improve the efficiency of medical services.

8. a kind of long-range pulse condition detection and application system based on the Internet and analog-to-digital conversion technology according to claim 1, it is characterized in that: The pulse condition sensor is detected by using a piezoelectric sensor and a photoelectric sensor; Piezoelectric sensors use the characteristics of piezoelectric materials to convert the pressure signal of the pulse into an electrical signal; Photoelectric sensors use infrared rays of a specific wavelength to detect changes in blood oxygen protein content, thereby indirectly reflecting the pulsation of the pulse and assisting in the detection of related auxiliary data.

9. a kind of long-range pulse detection and application system based on the Internet and analog-to-digital conversion technology according to claim 1, it is characterized in that: The simulator is provided with a simulated hose mechanism inside, which presents the pulse condition through the operation modes of fluid filling and sealing, pressure change and transmission, hose deformation and recovery, fluid flow and presentation, and touch perception and feedback.

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