Remote pulse feeling system and remote pulse feeling instrument

Abstract

The invention discloses a remote pulse feeling system and a remote pulse feeling instrument, and belongs to the technical field of remote medical treatment. The problem of how to further improve the accuracy of remote pulse feeling is solved. The remote pulse feeling system comprises a patient end and a medical care end, wherein the patient end comprises the following modules: a posture monitoring module, a voice prompt module and a pulse condition acquisition module; the medical care terminal comprises a pulse condition simulation module, a pulse condition amplification module, a pulse condition storage module, a pulse condition analysis module, a medical care terminal man-machine interaction module and a data transmission module. The invention further provides a remote pulse feeling instrument comprising the remote pulse feeling system. According to the method, each stage in the remote pulse feeling process is optimized, so that the precision of remote pulse feeling is greatly improved, and popularization and application of remote pulse feeling are facilitated.

Description

Technical Field

[0001] The invention belongs to the technical field of telemedicine, and in particular relates to a remote pulse diagnosis system and a remote pulse diagnosis instrument. Background Art

[0002] In recent years, with the continuous development of science and technology, telemedicine technology has gradually entered people's lives. As an important part of traditional Chinese medicine, Chinese medicine is also actively exploring the feasibility of telemedicine.

[0003] Pulse diagnosis is an essential procedure for TCM treatment. If pulse diagnosis can be realized remotely, medical resources can be more fully utilized, and it also brings good news to patients who are inconvenient to go to the hospital for pulse diagnosis. In the prior art, CN113951815A discloses a remote pulse diagnosis instrument and a remote pulse diagnosis system, which can help TCM practitioners interactively and remotely sense the pulse of the patient's wrist at the inch, guan, and chi points, collect accurate pulse information, and facilitate remote medical treatment for patients who are inconvenient to travel. On this basis, how to further improve the accuracy of remote pulse diagnosis is a problem that needs to be solved in this field. Summary of the invention

[0004] In view of the problem of how to further improve the accuracy of remote pulse diagnosis in the prior art, the present invention provides a remote pulse diagnosis system and a remote pulse diagnosis instrument.

[0005] The technical solution adopted by the present invention is as follows:

[0006] A remote pulse diagnosis system includes a patient end and a medical end, wherein the patient end includes the following modules:

[0007] The posture monitoring module is used to detect the patient's posture when taking the pulse and determine whether the patient's posture meets the requirements;

[0008] A voice prompt module is used to issue a voice prompt according to the monitoring result of the posture monitoring module to prompt the patient to correct the posture;

[0009] A pulse condition collection module is used to collect the pulse condition of the patient;

[0010] The medical end includes the following modules:

[0011] A pulse simulation module is used to simulate and generate the same pulse according to the pulse collected by the pulse collection module or the pulse stored in the pulse storage module;

[0012] The pulse amplification module is used to amplify the pulse collected by the pulse collection module in equal proportion;

[0013] A pulse condition storage module is used to store pulse condition data;

[0014] The pulse analysis module is used to analyze the pulse collected by the pulse collection module and obtain a diagnosis result based on the patient's personal situation;

[0015] Medical and nursing end human-computer interaction module, used to realize medical and nursing end human-computer interaction;

[0016] The patient side and the medical side interact through the data transmission module.

[0017] After adopting this technical solution, since the patient needs to sit or lie down when taking the pulse, with the arm flat and close to the same level as the heart, with the wrist straight and the palm facing up, and since the medical staff who take the pulse remotely cannot pay attention to the patient's posture, the patient may take the pulse in an incorrect posture, affecting the accuracy of the monitoring result. In order to solve this technical problem, the present invention is provided with a posture monitoring module, which is used to detect the posture of the patient when taking the pulse, and judge whether the patient's posture meets the requirements. If the patient's posture does not meet the requirements, a voice prompt is provided to help the patient adjust the posture, and the remote pulse diagnosis is not officially started until the posture meets the requirements, thereby preliminarily improving the accuracy of pulse diagnosis;

[0018] In order to further improve the accuracy of pulse diagnosis, the present invention is also provided with a pulse storage module, through which the classic conventional pulse and the patient's historical pulse can be stored. When the medical staff diagnoses the pulse, the classic conventional pulse can be called to analyze the similarities and differences between the patient's pulse and the classic conventional pulse, so as to help the medical staff to more accurately judge the patient's condition; and the stored pulse of the patient over time allows the medical staff to call the previous pulse to diagnose the pulse again during the current pulse diagnosis, so as to more clearly understand the difference between the patient's condition this time and the last time, and compared with the prior art in which the medical staff only relies on the memory to judge the patient's recovery condition, the patient's recovery condition can be more clearly understood, so as to adjust the treatment means in time, thereby further improving the accuracy of pulse diagnosis;

[0019] In order to further improve the accuracy of pulse diagnosis, the present invention also provides a pulse amplification module. Since the pulse strength of each patient is different, in order to improve the accuracy of pulse diagnosis, when the medical staff feels that the pulse strength is weak, the pulse amplification module can be used to reproduce the patient's pulse in the pulse simulation module in equal proportion, and the amplification multiple can quantify the degree of the patient's pulse weakness, which can more accurately evaluate the patient's pulse condition, thereby further improving the accuracy of pulse diagnosis;

[0020] In order to further improve the accuracy of pulse diagnosis, the present invention is also provided with a pulse analysis module. Since the pulse storage module stores the classical pulse, the pulse analysis module can compare the pulse collected by the pulse acquisition module with the classical pulse in the pulse storage module one by one, find the closest classical pulse, and feed it back to the medical care end, which can assist medical staff in judging the patient's condition. At the same time, if the medical staff judges that the closest classical pulse found is too different from the actual pulse, the pulse can be added to the pulse storage module, the classical pulse database is updated, and the condition corresponding to the pulse is supplemented, so as to continuously improve the analysis accuracy of the pulse analysis module, thereby further improving the accuracy of pulse diagnosis.

[0021] In summary, the present invention optimizes each stage of the remote pulse diagnosis process, thereby greatly improving the accuracy of remote pulse diagnosis, which is conducive to the promotion and application of remote pulse diagnosis.

[0022] Preferably, the posture monitoring module includes an overall posture monitoring module and a wrist position monitoring module. The overall posture monitoring module is used to detect whether the patient is in a sitting or lying position, and whether the patient's arms are flat and nearly at the same level as the heart; the wrist position monitoring module is used to detect whether the patient's palms are facing up and whether the wrists are aligned with the collection point of the pulse collection module.

[0023] After adopting this technical solution, most patients do not understand what kind of posture they should take when taking their pulse, and it is even more difficult to judge whether the "Cun", "Guan" and "Chi" veins are aligned with the pulse acquisition module. Therefore, the present invention monitors the patient's posture when taking the pulse from two directions: the overall posture and the relative position of the wrist and the pulse acquisition module, and adjusts the posture through the voice prompt module, so that the pulse diagnosis result is more accurate.

[0024] Preferably, the pulse condition storage module stores pulse conditions including each patient's historical pulse condition and various classical pulse conditions classified according to different disease conditions.

[0025] Preferably, the amplification factor in the pulse amplification module is regulated through the medical-end human-computer interaction module.

[0026] A remote pulse diagnosis instrument, comprising the remote pulse diagnosis system, including a pulse condition collection mechanism and a pulse condition diagnosis mechanism;

[0027] The pulse image acquisition mechanism comprises a housing, a first image acquisition mechanism is arranged on the housing, a collection port that passes through the housing is provided, a moving mechanism is arranged in the collection port, a pulse pressure detection mechanism and a second image acquisition mechanism are arranged on the moving mechanism, and a voice playing mechanism is also arranged in the housing;

[0028] The pulse diagnosis mechanism comprises a bionic arm which can simulate different pulses. The bionic arm is electrically connected to a control terminal, and the control terminal is electrically connected to the pulse collection mechanism.

[0029] Preferably, the shell is provided with a mounting groove which passes through from front to back, and first elastic layers are provided at openings on both sides of the mounting groove, and through holes are provided in the middle of the two first elastic layers, and the two first elastic layers are connected by mounting seats arranged in the through holes, and the collection port is opened on the mounting seat, and an adjustment mechanism which can drive the mounting seat to move up, down, left and right is also provided in the mounting groove, and the adjustment mechanism is located between the two first elastic layers.

[0030] After adopting this technical solution, if the patient adjusts his or her posture according to the voice prompt to adapt to the position of the pulse pressure detection mechanism, it may take a long time and easily cause the patient to be afraid of difficulty. In order to solve this problem, the present invention detects whether the patient is in a sitting position according to the first image detection mechanism, and judges whether the patient's arm is nearly at the same level as the heart. If it is judged that the patient is not in a sitting position, the patient is first made to sit through voice prompts, and then the image is analyzed to determine whether the patient's arm is at the same level as the heart. If not, the mounting seat is driven to move through the adjustment mechanism, thereby driving the patient's arm to move to the same level as the heart.

[0031] Preferably, the adjustment mechanism comprises a linear module arranged along the width direction of the shell, and a sliding member of the linear module is provided with an electric telescopic column which can be extended and retracted along the height direction of the shell, and the electric telescopic column is connected to the mounting seat.

[0032] Preferably, the collection port includes a wrist placement portion and a pulse collection portion, the pulse collection portion is located directly above the wrist placement portion, the wrist placement portion is an arc-shaped structure, the moving mechanism is arranged in the pulse collection portion, the moving mechanism includes a second elastic layer, the second elastic layer and the groove wall of the mounting groove form a closed chamber, the closed chamber is connected to an inflation and deflation mechanism, the pulse pressure detection mechanism is arranged on the side of the second elastic layer close to the wrist placement portion, and the pulse pressure detection mechanism includes a pulse pressure sensor array composed of a plurality of pressure sensors.

[0033] After adopting this technical solution, the second elastic layer can be expanded or contracted through the inflation and deflation mechanism, so that the pulse pressure sensor array can fit the patient's wrist. Since the second elastic layer is made of flexible material, after the pulse pressure sensor array is set on the second elastic layer, no matter how large the patient's arm is, it can also ensure that the pulse pressure sensor array can fit the patient's wrist, so as to realize the detection of the pulse of patients with different body shapes, thereby improving practicality.

[0034] Preferably, the first image acquisition mechanism and the second image acquisition mechanism are both arranged in the pulse acquisition part, and the first image acquisition mechanism and the second image acquisition mechanism are respectively located at two ends of the acquisition port, the first image acquisition mechanism faces the front of the pulse acquisition mechanism, and the second image acquisition mechanism faces the wrist placement part.

[0035] In summary, due to the adoption of the above technical solution, the beneficial effects of the present invention are:

[0036] The present invention is provided with a posture monitoring module, which is used to detect the posture of the patient during pulse diagnosis and judge whether the patient's posture meets the requirements. If the patient's posture does not meet the requirements, a voice prompt is provided to help the patient adjust the posture, and the remote pulse diagnosis is not formally started until the posture meets the requirements, thereby preliminarily improving the accuracy of pulse diagnosis; by setting the pulse image storage module, the classic conventional pulse image and the patient's historical pulse image can be stored, which can help medical staff to more accurately judge the patient's condition and recovery status, so as to adjust the treatment means in time, thereby further improving the accuracy of pulse diagnosis; at the same time, by setting the pulse image magnification module Large module, when the medical staff feels that the pulse strength is weak, the pulse amplification module can be used to proportionally amplify the patient's pulse in the pulse simulation module to reproduce it, and the amplification multiple can quantify the degree of weakness of the patient's pulse, which can more accurately evaluate the patient's pulse condition, thereby further improving the accuracy of pulse diagnosis; by setting up the pulse analysis module, it can assist medical staff in judging the patient's condition, thereby further improving the accuracy of pulse diagnosis; in summary, the present invention optimizes each stage in the remote pulse diagnosis process, so that the accuracy of remote pulse diagnosis is greatly improved, which is conducive to the promotion and application of remote pulse diagnosis. BRIEF DESCRIPTION OF THE DRAWINGS

[0037] Figure 1 It is a front structural schematic diagram of the pulse condition collecting mechanism in the present invention;

[0038] Figure 2 It is a back structural schematic diagram of the pulse condition collecting mechanism in the present invention;

[0039] Among them, 1-first elastic layer, 2-installation groove, 3-shell, 4-first image acquisition mechanism, 5-second elastic layer, 6-acquisition port, 601-pulse acquisition part, 602-wrist placement part, 7-second image acquisition mechanism. DETAILED DESCRIPTION

[0040] To make the purpose, technical scheme and advantages of the embodiments of the present application clearer, the technical scheme in the embodiments of the present application will be clearly and completely described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all of the embodiments. The components of the embodiments of the present application generally described and shown in the drawings here can be arranged and designed in various different configurations. Therefore, the following detailed description of the embodiments of the present application provided in the drawings is not intended to limit the scope of the application claimed for protection, but merely represents the selected embodiments of the present application. Based on the embodiments of the present application, all other embodiments obtained by those skilled in the art without making creative work belong to the scope of protection of the present application.

[0041] In the description of the embodiments of the present application, it should be noted that the terms "upper", "lower", "left", "right", "vertical", "horizontal", "inside", "outside", etc. indicate positions or positional relationships based on the positions or positional relationships shown in the accompanying drawings, or are the positions or positional relationships in which the inventive product is usually placed when in use. They are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation on the present application. In addition, the terms "first", "second", "third", etc. are only used to distinguish the description, and cannot be understood as indicating or implying relative importance.

[0042] A remote pulse diagnosis system includes a patient end and a medical end, wherein the patient end includes the following modules:

[0043] The posture monitoring module is used to detect the posture of the patient when taking the pulse, and to determine whether the patient's posture meets the requirements for taking the pulse; in this embodiment, the posture monitoring module includes an overall posture monitoring module and a wrist position monitoring module, the overall posture monitoring module is used to detect whether the patient is in a sitting position, whether the patient's arm is flat and nearly at the same level as the heart; the wrist position monitoring module is used to detect whether the patient's palm is facing up and whether the wrist is aligned with the collection point of the pulse collection module;

[0044] The voice prompt module is used to issue voice prompts according to the monitoring results of the posture monitoring module to prompt the patient to correct the posture, and the voice prompt module changes the content of the voice prompt in real time according to the real-time detection of the posture monitoring module, such as "Please sit down", "Please keep your palms facing up", "Please put your wrist into the collection port", "Please adjust your breathing and relax" ... until the posture monitoring module analyzes that the patient's current posture meets the requirements of pulse diagnosis. When the patient's posture meets the requirements, the medical and nursing end human-computer interaction module displays "The posture meets the requirements, and pulse diagnosis can begin" to remind medical staff that they can perform pulse diagnosis normally;

[0045] The pulse acquisition module is used to collect the pulse of the patient, convert the collected pulse into a computer-readable form, and then transmit it to the medical care end;

[0046] The medical end includes the following modules:

[0047] The pulse simulation module is used to simulate and generate the same pulse condition according to the pulse condition collected by the pulse condition collection module or the pulse condition stored in the pulse condition storage module, so as to provide medical staff with remote pulse diagnosis;

[0048] The pulse amplification module is used to amplify the pulse collected by the pulse collection module in equal proportion. In this embodiment, the amplification ratio can be 1.1 times, 1.2 times, ... 2 times, so that not only the strength of the patient's pulse can be quantified, but also the quantified data can be stored and recorded for medical staff to view later;

[0049] The pulse storage module is used to store pulse data; the pulse stored in the pulse storage module includes each patient's historical pulse and various classic pulses classified according to different illnesses; initially, medical staff input the patient's personal information through the medical human-computer interaction module to establish the patient's illness database, and each remote pulse diagnosis will be recorded in the pulse acquisition module in the order of the consultation time. The pulse acquisition module also contains various classic pulses classified according to different illnesses, and each classic pulse also corresponds to a text data, which records the illness corresponding to the classic pulse; medical staff can call the classic pulse or the patient's historical pulse as needed and reproduce it in the pulse simulation module;

[0050] The pulse analysis module is used to analyze the pulse collected by the pulse acquisition module and obtain a diagnosis result in combination with the patient's personal situation; the pulse analysis module can compare the pulse collected by the pulse acquisition module with the classic pulse in the pulse storage module one by one, find the closest classic pulse, and feed it back to the medical end, which can assist medical staff in judging the patient's condition; at the same time, if the medical staff judges that the closest classic pulse found is too different from the actual pulse, the pulse can be added to the pulse storage module, the classic pulse database can be updated, and the condition corresponding to the pulse can be supplemented to continuously improve the analysis accuracy of the pulse analysis module; in other embodiments, the deviation threshold between the pulse and the classic pulse can also be set. For example, when the deviation exceeds 10%, the pulse storage module automatically stores it in the pulse storage module, and generates a text task at the same time, and reminds medical staff and patients to fill in the condition corresponding to the pulse through the medical end human-computer interaction module.

[0051] The medical-end human-computer interaction module is used to realize the medical-end human-computer interaction; the medical-end human-computer interaction module is used to realize the regulation of the amplification multiple in the pulse amplification module, the input and query of the patient's personal information, the call of various data, and the setting of various parameters of each module;

[0052] The patient side and the medical side interact through the data transmission module to achieve mutual transmission of information between the patient side and the medical side.

[0053] like Figure 1-2 As shown, a remote pulse diagnosis instrument contains the above remote pulse diagnosis system, including a pulse acquisition mechanism and a pulse diagnosis mechanism;

[0054] The pulse acquisition mechanism includes a shell 3, on which a first image acquisition mechanism 4 is arranged, and a collection port 6 that runs through the front and back is opened on the shell 3, a moving mechanism is arranged in the collection port 6, and a pulse pressure detection mechanism and a second image acquisition mechanism 7 are arranged on the moving mechanism, and a voice playing mechanism is also arranged in the shell 3; in this embodiment, the first image acquisition mechanism 4 and the second image acquisition mechanism 7 both include a high-definition camera and an image analysis and processing module, and the posture image of the patient is collected by the high-definition camera, and the collected posture image is analyzed by the image analysis and processing module to determine whether the posture meets the requirements; for example, the image analysis and processing module may store a standard posture image of the human body, and the standard posture image includes a total of 7 joints of the upper body of the human body; the 7 joints include the neck, left shoulder, left elbow, left wrist, right shoulder, right elbow, and right wrist. During the analysis, the image analysis and processing module also locates the 7 joints in the collected patient image, and determines whether the patient's posture meets the requirements according to the relative positions of the 7 joints.

[0055] The pulse diagnosis mechanism includes a bionic arm that can simulate different pulses. In this embodiment, the bionic arm can be the bionic arm disclosed in CN111671404B; the bionic arm is electrically connected to a control terminal, and the control terminal is electrically connected to the pulse collection mechanism.

[0056] In this embodiment, the shell 3 is provided with a mounting groove 2 which passes through from front to back, and the first elastic layer 1 is provided at the openings on both sides of the mounting groove 2, and the middle parts of the two first elastic layers 1 are provided with through holes, and the two first elastic layers 1 are connected through a mounting seat provided in the through holes, and the collection port 6 is provided on the mounting seat, and the mounting groove 2 is also provided with an adjustment mechanism which can drive the mounting seat to move up, down, left and right, and the adjustment mechanism is located between the two first elastic layers 1. In this embodiment, the first elastic layer 1 and the second elastic layer 5 are both made of rubber; the first image detection mechanism 4 detects whether the patient is in a sitting position, and determines whether the patient's arm is at the same level as the heart. If it is determined that the patient is not in a sitting position, the patient is first made to sit by "please sit down", and then the patient's arm is at the same level as the heart according to the image analysis. If not, the mounting seat is driven to move by the adjustment mechanism, so as to drive the patient's arm to move to the same level as the heart, and the first elastic layer 1 can adapt to the position change of the mounting seat;

[0057] In this embodiment, the adjustment mechanism includes a linear module arranged along the width direction of the housing 3, and a sliding member of the linear module is provided with an electric telescopic column that can be extended and retracted along the height direction of the housing 3, and the electric telescopic column is connected to the mounting seat. The linear module can drive the mounting seat to move left and right, and the electric telescopic column can drive the mounting seat to move up and down, so as to better adjust the position of the patient's arm.

[0058] In this embodiment, the collection port 6 includes a wrist placement portion 602 and a pulse collection portion 601, the pulse collection portion 601 is located directly above the wrist placement portion 602, the wrist placement portion 602 is an arc-shaped structure, the moving mechanism is arranged in the pulse collection portion 601, the moving mechanism includes a second elastic layer 5, the second elastic layer 5 and the groove wall of the mounting groove 2 form a closed chamber, the closed chamber is connected with an air filling and deflation mechanism, in this embodiment, the air filling and deflation mechanism is an air pump, the air pump is connected to the closed chamber through a pipeline, and the air in the closed chamber is filled or discharged through the air pump; the second elastic layer 5 is arranged on one side close to the wrist placement portion 602, and the pulse pressure detection mechanism includes a pulse pressure sensor array composed of a plurality of pressure sensors. When the closed chamber is filled with air, the pulse pressure detection mechanism moves downward and fits with the "Cun", "Guan" and "Chi" veins at the wrist located in the wrist placement portion 602.

[0059] In this embodiment, the first image acquisition mechanism 4 and the second image acquisition mechanism 7 are both arranged in the pulse acquisition part 601, and the first image acquisition mechanism 4 and the second image acquisition mechanism 7 are respectively located at the two ends of the acquisition port 6, the first image acquisition mechanism 4 faces the front of the pulse acquisition mechanism, and the second image acquisition mechanism 7 faces the wrist placement part 602. The second image acquisition mechanism 7 is located on one side of the back of the housing 3, and the relative position of the second image acquisition mechanism 7 and the pulse pressure detection mechanism can be controlled. The second image acquisition mechanism 7 detects whether the junction of the arm and the palm is just located directly below the second image acquisition mechanism 7. If not, the front and rear position of the patient's wrist is adjusted through voice prompts (for example, "please move your wrist forward 1cm", "please move your wrist backward 0.5cm"). If so, it means that the pulse pressure detection mechanism has been aligned with the "Cun", "Guan" and "Chi" veins at the wrist, and pulse diagnosis can be performed at this time. It should be noted that the second image acquisition mechanism 7 can also detect whether the patient's wrist is blocked. If the patient's wrist is blocked by clothing or accessories, the voice prompt module will issue a voice prompt "Please remove the obstruction at the wrist", so that the patient can fully expose his wrist and ensure the accuracy of remote pulse diagnosis.

[0060] In other embodiments, the medical end or the patient end can also be used separately. When the patient end is removed, the remote diagnosis and treatment instrument can be used for teaching and case assessment. When the medical end is removed, the detected pulse can be compared with the classic pulse. If any abnormality is found, the patient can be reminded to seek medical treatment in time.

[0061] The above-mentioned embodiments only express the specific implementation methods of the present application, and the descriptions thereof are relatively specific and detailed, but they cannot be understood as limiting the protection scope of the present application. It should be pointed out that, for ordinary technicians in this field, several variations and improvements can be made without departing from the technical solution concept of the present application, and these all belong to the protection scope of the present application.

Claims

1. A remote pulse diagnosis system, characterized in that: It includes the patient side and the medical side. The patient side includes the following modules: The posture monitoring module is used to detect the patient's posture when taking the pulse and determine whether the patient's posture meets the requirements; A voice prompt module is used to issue a voice prompt according to the monitoring result of the posture monitoring module to prompt the patient to correct the posture; A pulse condition collection module is used to collect the pulse condition of the patient; The medical end includes the following modules: A pulse simulation module is used to simulate and generate the same pulse according to the pulse collected by the pulse collection module or the pulse stored in the pulse storage module; The pulse amplification module is used to amplify the pulse collected by the pulse collection module in equal proportion; A pulse condition storage module is used to store pulse condition data; The pulse analysis module is used to analyze the pulse collected by the pulse collection module and obtain a diagnosis result based on the patient's personal situation; Medical and nursing end human-computer interaction module, used to realize medical and nursing end human-computer interaction; The patient side and the medical side interact through the data transmission module.

2. A remote pulse diagnosis system according to claim 1, characterized in that: The posture monitoring module includes an overall posture monitoring module and a wrist position monitoring module. The overall posture monitoring module is used to detect whether the patient is in a sitting position and whether the patient's arms are flat and nearly at the same level as the heart; the wrist position monitoring module is used to detect whether the patient's palms are facing up and whether the wrists are aligned with the collection point of the pulse collection module.

3. A remote pulse diagnosis system according to claim 1, characterized in that: The pulse conditions stored in the pulse condition storage module include the historical pulse conditions of each patient and various classic pulse conditions classified according to different disease conditions.

4. A remote pulse diagnosis system according to claim 1, characterized in that: The amplification factor in the pulse amplification module can be regulated through the human-computer interaction module on the medical side.

5. A remote pulse diagnosis instrument, characterized in that: A remote pulse diagnosis system comprising any one of claims 1 to 4, comprising a pulse acquisition mechanism and a pulse diagnosis mechanism; The pulse condition acquisition mechanism comprises a housing (3), a first image acquisition mechanism (4) is arranged on the housing (3), a collection port (6) which is through-through from front to back is opened on the housing (3), a moving mechanism is arranged in the collection port (6), a pulse pressure detection mechanism and a second image acquisition mechanism (7) are arranged on the moving mechanism, and a voice playing mechanism is also arranged in the housing (3); The pulse diagnosis mechanism comprises a bionic arm which can simulate different pulses. The bionic arm is electrically connected to a control terminal, and the control terminal is electrically connected to the pulse collection mechanism.

6. A remote pulse diagnosis instrument according to claim 5, characterized in that: The shell (3) is provided with a mounting groove (2) which passes through from front to back, and first elastic layers (1) are provided at openings on both sides of the mounting groove (2). Through holes are provided in the middle of the two first elastic layers (1), and the two first elastic layers (1) are connected via mounting seats provided in the through holes. The collection port (6) is provided on the mounting seat, and an adjustment mechanism which can drive the mounting seat to move up, down, left and right is also provided in the mounting groove (2), and the adjustment mechanism is located between the two first elastic layers (1).

7. A remote pulse diagnosis instrument according to claim 6, characterized in that: The adjustment mechanism comprises a linear module arranged along the width direction of the shell (3), and a sliding member of the linear module is provided with an electric telescopic column that can be telescoped along the height direction of the shell (3), and the electric telescopic column is connected to the mounting seat.

8. A remote pulse diagnosis instrument according to any one of claims 5 to 7, characterized in that: The collection port (6) comprises a wrist placement portion (602) and a pulse collection portion (601), wherein the pulse collection portion (601) is located directly above the wrist placement portion (602), wherein the wrist placement portion (602) is an arc-shaped structure, wherein the moving mechanism is arranged on the pulse collection portion (601), wherein the moving mechanism comprises a second elastic layer (5), wherein the second elastic layer (5) and the groove wall of the mounting groove (2) form a closed chamber, wherein the closed chamber is connected to an air inflation and deflation mechanism, wherein the pulse pressure detection mechanism is arranged on a side of the second elastic layer (5) close to the wrist placement portion (602), wherein the pulse pressure detection mechanism comprises a pulse pressure sensor array composed of a plurality of pressure sensors.

9. A remote pulse diagnosis instrument according to claim 8, characterized in that: The first image acquisition mechanism (4) and the second image acquisition mechanism (7) are both arranged in the pulse condition acquisition part (601), and the first image acquisition mechanism (4) and the second image acquisition mechanism (7) are respectively located at two ends of the acquisition port (6), the first image acquisition mechanism (4) faces the front of the pulse condition acquisition mechanism, and the second image acquisition mechanism (7) faces the wrist placement part (602).

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