Pain map drawing system for diagnosing pelvic floor pain through low-energy extracorporeal shock waves

Abstract

The invention relates to the field of low-energy shock waves, in particular to a pain map drawing system for diagnosing pelvic floor pain through low-energy extracorporeal shock waves, which comprises a low-energy extracorporeal shock wave generating device, and is characterized in that the low-energy extracorporeal shock wave generating device comprises a host end of an equipment main body; a display panel, a shock wave generating device, a shock wave positioning system and a shock wave energy monitoring system are arranged on the host end, and the display panel is used for displaying a pain map. According to the pelvic floor pain diagnosis system, the pain map is generated by combining data of in-vitro shock waves and pain sensing signals, and auxiliary dynamic diagnosis is realized by matching with intervention of physiological signals, so that pelvic floor pain can be positioned more accurately, and doctors can be helped to better judge the pelvic floor pain.

Description

Technical Field

[0001] The present invention relates to the technical field of low-energy shock waves, and particularly to a pain mapping system for diagnosing pelvic floor pain using low-energy extracorporeal shock waves. Background Art

[0002] Low-energy electromagnetic shock waves are mechanical waves generated by electromagnetic effects and have certain characteristics of acoustics, mechanics, and optics. They are conducted through a physical mechanism medium (such as gas or liquid) to generate a mechanical wave that can penetrate human tissues and focus on specific parts of the human body. The shock waves after focusing have a series of effects on human tissue cells, thereby achieving the treatment purpose.

[0003] Current shock wave devices are mainly used for treating diseases in orthopedics, pain medicine, etc., but they are mainly for treatment rather than diagnosis. The causes of current pelvic floor pain are complex, mostly relying on the description of patients to judge, and there is a lack of other judgment criteria. Low-energy shock waves can be combined with pain feedback and spatial positioning technology for dynamic diagnosis of pain areas. Summary of the Invention

[0004] The purpose of the present invention is to solve the deficiencies in the prior art and propose a pain mapping system for diagnosing pelvic floor pain using low-energy extracorporeal shock waves.

[0005] To achieve the above purpose, the present invention adopts the following technical solutions:

[0006] A pain mapping system for diagnosing pelvic floor pain using low-energy extracorporeal shock waves, including a low-energy extracorporeal shock wave generating device. The low-energy extracorporeal shock wave generating device includes a host end of the device main body, and a display panel, a shock wave generating device, a shock wave positioning system, and a shock wave energy monitoring system are provided on the host end;

[0007] The display panel is used to display the pain map and control the shock wave generating device, the shock wave positioning system, and the shock wave energy monitoring system;

[0008] The display panel is provided with a data processing unit for processing various data, a user end for user operation, and a data transmission unit for data transmission;

[0009] The user end includes a user interface module, and the user interface module is divided into a host end and a mobile phone end. The host end is used for users to log in and use on the low-energy extracorporeal shock wave generating device, and the mobile phone end is used for users to log in and use on the mobile phone. And the mobile phone end is used by hospitals and patients respectively.

[0010] In addition, a preferred structure is that the shock wave generating device adopts an energy-adjustable electromagnetic shock wave source, and the adjustment accuracy of the shock wave generating device reaches ±0.02 mJ / mm 2 , the adjustable range of the shock wave frequency of the shock wave generating device is 1 HZ - 18 HZ, and the adjustable range of the pulse width of the shock wave generating device is 3 μs - 20 μs.

[0011] In addition, a preferred structure is that the shock wave positioning system adopts ultrasonic imaging technology to real-time feedback the structure after pelvic floor anatomy and feedback the structure to the display panel to assist the user in quickly positioning the shock wave action area.

[0012] In addition, a preferred structure is that the shock wave energy monitoring system is connected with a shock wave feedback system. The shock wave energy monitoring system is used to real-time monitor the shock wave energy output and display the data on the display panel in real time. The shock wave feedback system is used to receive the data monitored by the shock wave energy monitoring system and automatically perform feedback adjustment when the monitored energy fluctuates.

[0013] In addition, a preferred structure is that the data transmission unit is connected with a sensor unit. The data transmission unit includes a data collector, a wireless transmission module, and a data classification module;

[0014] The data collector uses multiple data acquisition cards to perform data conversion on the signals sent by the sensor unit;

[0015] The wireless transmission module uses wireless communication technology and is provided with Bluetooth 5.0 and wi-fi6 to transmit data to the mobile phone;

[0016] The data classification module is used to automatically classify the received data and incorporate it into different categories.

[0017] In addition, a preferred structure is that the sensor unit includes a skin sensor and a physiological detection sensor;

[0018] The skin sensor adopts a pain perception sensor. The skin sensor is respectively attached to the skin surface of the patient's detection part. The skin sensor is used to real-time detect the frequency and amplitude of the pain signal, and the skin sensor transmits the real-time detected data to the data collector for data conversion;

[0019] The physiological detection sensor is used to real-time detect the user's heart rate, blood pressure, and skin electrical response, and is used to real-time feedback the physiological response of the patient under shock wave stimulation. The feedback signal is used as auxiliary reference data for pain assessment, and the data is real-time transmitted to the data transmission unit and the data conversion is completed through the data collector.

[0020] In addition, a preferred structure is that the data processing unit includes a data storage module, a pain map algorithm processing module, a data analysis module, and a diagnostic report generation module;

[0021] The data storage module is used to collect various data collected from patients during detection and generate a patient profile;

[0022] The pain map algorithm processing module uses machine learning algorithms to establish a quantitative relationship between pain levels and physiological signals, combines the shock wave stimulation position and the corresponding pain response to generate a pain map. The pain map is displayed in the form of a two-dimensional plan or a three-dimensional solid figure, with different pain intensities shown in different colors, and the pain map is displayed on the display panel;

[0023] The data analysis module is used to analyze the collected data, combine pain signals, and provide users with whether there are lesions in the tissue. Then, through manual intervention, the final analysis result is determined;

[0024] The diagnostic report generation module is used to generate a report based on the results of the data analysis module, and through manual intervention, write the final treatment diagnosis report for the patient, and send the diagnostic report to the patient's mobile phone.

[0025] In addition, a preferred structure is that both the host end and the mobile phone end are provided with a user login module for users to log in. The user login module is used for users to log in through the mobile phone;

[0026] The host end includes a patient information retrieval system, an operating system, and a data viewing and retrieval system;

[0027] The patient information retrieval system includes a patient medical history module and a patient treatment plan. The patient medical history module is used for users to retrieve the historical diagnostic reports and pain maps stored in the data storage module according to the patient's name and age. The patient treatment plan is used to provide users with the ability to write the patient's treatment plan and send the treatment plan to the patient's mobile phone;

[0028] The operating system includes permission management, data management, and remote monitoring. Permission management is used to change the permissions of users and manage the patient's mobile phone end. Data management is used for deleting and restoring various data. Remote monitoring is used for real-time monitoring of other devices;

[0029] The data viewing and retrieval system includes a historical record retrieval module, a pain map retrieval module, and a report log filling module;

[0030] The historical record calling module is used for users to retrieve the operation records after the device is powered on. The pain map calling module is used for users to retrieve and view the pain map of patients. The report log filling module is used for users to fill in logs and medical reports.

[0031] In addition, preferably, the mobile phone terminal is provided for patients and hospitals respectively. The mobile phone terminal is provided with an operating system, a personal information modification system, a treatment plan viewing system, and a diagnosis and treatment information viewing system.

[0032] The personal information modification system is used for users to fill in identity information. The treatment plan viewing system is used for patients to view the treatment plans sent by the hospital. The diagnosis and treatment information viewing system is used for patients to view the diagnosis and treatment information given by the hospital.

[0033] The hospital terminal has a patient terminal management system, a patient information modification system, and a patient information viewing system more than the patient side. The patient terminal management system is used to modify the accounts of patients. The patient information modification system is used to modify the diagnosis and treatment information and treatment plans of patients in real time and synchronously update them to the mobile phone terminals of patients. The patient information viewing system is used for users to search for information according to the names of patients and view it.

[0034] The operating system includes account management, and the account management is used for account cancellation and password modification.

[0035] The beneficial effects of the present invention are as follows: In the present invention, by using low-energy extracorporeal shock waves to generate a map of the pain points in the pelvic floor of patients, combining the data of extracorporeal shock waves and pain perception signals to generate a pain map, and then cooperating with the intervention of physiological signals to achieve auxiliary dynamic diagnosis, so that the pelvic floor pain can be more accurately located, helping doctors to make better judgments. BRIEF DESCRIPTION OF THE DRAWINGS

[0036] Figure 1 It is a system diagram of a low-energy extracorporeal shock wave generating device;

[0037] Figure 2 It is a system diagram of the sensor unit;

[0038] Figure 3 It is a system diagram of the data transmission unit;

[0039] Figure 4 It is a system diagram of the data processing unit;

[0040] Figure 5 It is a system diagram of the user terminal. DETAILED DESCRIPTION OF THE INVENTION

[0041] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments.

[0042] Referring to Figures 1-5 , a pain mapping system for diagnosing pelvic floor pain with low-energy extracorporeal shock waves, including a low-energy extracorporeal shock wave generating device. The low-energy extracorporeal shock wave generating device includes a host end of the device main body. A display panel, a shock wave generating device, a shock wave positioning system, and a shock wave energy monitoring system are provided on the host end. The display panel is used to display the pain map and control the shock wave generating device, the shock wave positioning system, and the shock wave energy monitoring system. The display panel is provided with a data processing unit for processing various data, a user end for user operation, and a data transmission unit for data transmission.

[0043] Among them, the user end includes a user interface module. The user interface module is divided into a host end and a mobile phone end. The host end is used for users to log in and use on the low-energy extracorporeal shock wave generating device, and the mobile phone end is used for users to log in and use on the mobile phone. And the mobile phone end is used by hospitals and patients respectively. The shock wave generating device adopts an energy-adjustable electromagnetic shock wave source, and the adjustment accuracy of the shock wave generating device reaches ±0.02 mJ / mm 2 , the adjustable range of the shock wave frequency of the shock wave generating device is 1 HZ - 18 HZ, and the adjustable range of the pulse width of the shock wave generating device is 3 μs - 20 μs.

[0044] In addition, the shock wave positioning system adopts ultrasonic imaging technology to real-time feedback the structure after pelvic floor anatomy and feedback the structure to the display panel to assist users in quickly positioning the shock wave action area. For the shock wave energy monitoring system, the shock wave energy monitoring system is connected with a shock wave feedback system. The shock wave energy monitoring system is used to real-time monitor the shock wave energy output and display the data on the display panel in real time. The shock wave feedback system is used to receive the data monitored by the shock wave energy monitoring system and automatically perform feedback adjustment when the monitored energy fluctuates.

[0045] Moreover, the data transmission unit is connected with a sensor unit. The data transmission unit includes a data collector, a wireless transmission module, and a data classification module. The data collector uses multiple data acquisition cards to perform data conversion on the signals sent by the sensor unit. The wireless transmission module adopts wireless communication technology and is provided with Bluetooth 5.0 and wi-fi6 to transmit data to the mobile phone end. The data classification module is used to automatically classify the received data and incorporate it into different categories.

[0046] The sensor unit includes a skin sensor and a physiological detection sensor;

[0047] Meanwhile, the skin sensor adopts a pain perception sensor, which is respectively attached to the skin surface of the patient's detection site. The skin sensor is used to detect the frequency and amplitude of pain signals in real time, and transmits the data detected in real time to the data collector for data conversion. The physiological detection sensor is used to detect the user's heart rate, blood pressure, and skin electrical response in real time, and is used to feedback and reflect the physiological response of the patient under shock wave stimulation. The feedback signal is used as auxiliary reference data for pain assessment, and the data is transmitted to the data transmission unit in real time, and the data conversion is completed through the data collector.

[0048] The data processing unit includes a data storage module, a pain map algorithm processing module, a data analysis module, and a diagnostic report generation module;

[0049] The data storage module is used to collect various data collected by the patient during the detection and generate a patient file;

[0050] The pain map algorithm processing module uses machine learning algorithms to establish a quantitative relationship between the pain level and physiological signals, combines the shock wave stimulation position and the corresponding pain response, and generates a pain map. The pain map is displayed in the form of a two-dimensional plan and a three-dimensional stereogram, with different pain intensities displayed in different colors, and the pain map is displayed on the display panel;

[0051] The data analysis module is used to analyze the collected data, combine the pain signals, and propose whether there is a lesion in the tissue to the user. Then, through manual intervention, the final analysis result is determined;

[0052] The diagnostic report generation module is used to generate a report based on the results of the data analysis module, and through manual intervention, to write the final treatment diagnosis report for the patient. The diagnostic report generation module then sends the diagnostic report to the patient's mobile phone.

[0053] Both the host end and the mobile phone end are provided with a user login module for users to log in. The user login module is used for users to log in through the mobile phone;

[0054] The host end includes a patient information calling system, an operating system, and a data viewing and retrieving system;

[0055] The patient information calling system includes a patient medical history module and a patient treatment plan. The patient medical history module is used for users to retrieve the historical diagnostic reports and pain maps stored in the data storage module according to the patient's name and age. The patient treatment plan is used to provide users with the ability to write the patient's treatment plan and send the treatment plan to the patient's mobile phone;

[0056] The operating system includes permission management, data management, and remote monitoring. Permission management is used to change the permissions of users and manage the patient's mobile terminal. Data management is used to delete and restore various data. Remote monitoring is used to perform real-time monitoring of other devices.

[0057] The data viewing and retrieval system includes a historical record retrieval module, a pain map retrieval module, and a report log filling module.

[0058] The historical record retrieval module is used for users to retrieve the operation records after the device is powered on. The pain map retrieval module is used for users to retrieve and view the patient's pain map. The report log filling module is used for users to fill in logs and medical reports.

[0059] The mobile terminal is provided for patients and hospitals respectively. The mobile terminal is equipped with an operating system, a personal information modification system, a treatment plan viewing system, and a diagnosis and treatment information viewing system.

[0060] The personal information modification system is used for users to fill in identity information. The treatment plan viewing system is used for patients to view the treatment plans sent by the hospital. The diagnosis and treatment information viewing system is used for patients to view the diagnosis and treatment information given by the hospital.

[0061] The hospital terminal has a patient terminal management system, a patient information modification system, and a patient information viewing system more than the patient terminal. The patient terminal management system is used to modify the patient's account. The patient information modification system is used to modify the patient's diagnosis and treatment information and treatment plan in real time and synchronously update it to the patient's mobile terminal. The patient information viewing system is used for users to search for information by patient name and view it.

[0062] The operating system includes account management, which is used for account cancellation and password modification.

[0063] In this embodiment, after the patient lies on the treatment bed, the user uses the host terminal to generate the patient's file, then wears the skin sensor and physiological detection sensor of the sensor unit on the patient, then uses the shock wave generating device to emit low-energy shock waves towards the patient's pelvic floor, sweep different areas of the patient's pelvic floor, and then the data transmission unit transmits the collected data to the data processing unit for analysis by the data analysis module. Then, the pain map algorithm processing module performs synchronous modeling and generation. After all scans are completed, the patient's pain map is generated. Then, the user makes a judgment based on the report given by the diagnosis report generation module combined with the pain map to finally determine the patient's pain location and its cause, and then gives a medical plan and sends it to the patient's mobile terminal.

[0064] In the present invention, a map of the pelvic floor pain points of a patient is generated by using low-energy extracorporeal shock waves. A pain map is generated through the combination of data of extracorporeal shock waves and pain perception signals, and then with the intervention of physiological signals, an assisted dynamic diagnosis is achieved, so that the pelvic floor pain can be more accurately located, helping doctors to make better judgments.

[0065] The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, makes equivalent substitutions or changes, and should be covered within the protection scope of the present invention.

Claims

1. A pain mapping system for diagnosing pelvic floor pain using low-energy extracorporeal shock waves, comprising a low-energy extracorporeal shock wave generator, characterized in that: The low-energy extracorporeal shock wave generating device comprises a host end of the device body, and the host end is provided with a display panel, a shock wave generating device, a shock wave positioning system, and a shock wave energy monitoring system; The display panel is used to display the pain map, and the display panel is used to control the shock wave generating device, the shock wave positioning system, and the shock wave energy monitoring system; The display panel is provided with a data processing unit for processing various data, a user terminal for user operation, and a data transmission unit for data transmission; The user terminal includes a user interface module, which is divided into a host terminal and a mobile terminal. The host terminal is used for users to log in and use the low-energy extracorporeal impact generating device, and the mobile terminal is used for users to log in and use the mobile terminal, and the mobile terminals are used by hospitals and patients respectively.

2. The pain mapping system for low-energy extracorporeal shock wave diagnosis of pelvic floor pain according to claim 1, characterized in that: The shock wave generating device adopts an energy-adjustable electromagnetic shock wave source, and the adjustment accuracy of the shock wave generating device reaches ±0.02mJ / mm 2 The shock wave frequency of the shock wave generating device can be adjusted in the range of 1HZ-18HZ, and the pulse width of the shock wave generating device can be adjusted in the range of 3μs-20μs.

3. The pain mapping system for low-energy extracorporeal shock wave diagnosis of pelvic floor pain according to claim 1, characterized in that: The shock wave positioning system adopts ultrasonic imaging technology to provide real-time feedback on the anatomical structure of the pelvic floor, and feeds back the structure to a display panel to assist the user in quickly locating the shock wave action area.

4. The pain mapping system for low-energy extracorporeal shock wave diagnosis of pelvic floor pain according to claim 1, characterized in that: The shock wave energy monitoring system is connected to a shock wave feedback system. The shock wave energy monitoring system is used to monitor the shock wave energy output in real time and display the data on a display panel in real time. The shock wave feedback system is used to receive the data monitored by the shock wave energy monitoring system and automatically perform feedback adjustment when energy fluctuations are detected.

5. The pain mapping system for low-energy extracorporeal shock wave diagnosis of pelvic floor pain according to claim 1, characterized in that: The data transmission unit is connected to a sensor unit, and the data transmission unit includes a data collector, a wireless transmission module, and a data classification module; The data collector uses a plurality of data acquisition cards to perform data conversion on the signals sent by the sensor units; The wireless transmission module adopts wireless communication technology and is equipped with Bluetooth 5.0 and Wi-Fi 6 for transmitting data to the mobile phone; The data classification module is used to automatically classify the received data into different categories.

6. The pain mapping system for low-energy extracorporeal shock wave diagnosis of pelvic floor pain according to claim 5, characterized in that: The sensor unit includes a skin sensor and a physiological detection sensor; The skin sensor adopts a pain perception sensor, and the skin sensors are respectively attached to the skin surface of the patient's detection part, and the skin sensor is used to detect the frequency and amplitude of the pain signal in real time, and the skin sensor transmits the real-time detected data to the data collector for data conversion; The physiological detection sensor is used to detect the user's heart rate, blood pressure, and skin electrical response in real time, and to provide real-time feedback on the patient's physiological response to shock wave stimulation. The feedback signal is used as auxiliary reference data for pain assessment, and the data is transmitted to the data transmission unit in real time, and the data conversion is completed through the data collector.

7. The pain mapping system for low-energy extracorporeal shock wave diagnosis of pelvic floor pain according to claim 1, characterized in that: The data processing unit includes a data storage module, a pain map algorithm processing module, a data analysis module, and a diagnosis report generation module; The data storage module is used to collect various data collected from the patient during the test and generate a patient file; The pain map algorithm processing module uses a machine learning algorithm to establish a quantitative relationship between pain levels and physiological signals, and combines the shock wave stimulation position with the corresponding pain response to generate a pain map. The pain map is displayed in the form of a two-dimensional plane map and a three-dimensional stereogram. Different pain intensities are displayed in different colors, and the pain map is displayed on the display panel. The data analysis module is used to analyze the collected data and, in combination with the pain signal, to provide the user with information on whether the tissue has lesions, and then determine the final analysis structure through manual intervention; The diagnosis report generation module is used to generate a report based on the results of the data analysis module, and to write the patient's final treatment diagnosis report generation module through manual intervention, and send the diagnosis report to the patient's mobile phone.

8. The pain mapping system for low-energy extracorporeal shock wave diagnosis of pelvic floor pain according to claim 1, characterized in that: The host end and the mobile phone end are both provided with a user login module for users to log in, and the user login module is used for users to log in through their mobile phones; The host end includes a patient information calling system, an operating system, and a data viewing and retrieving system; The patient information calling system includes a patient medical history module and a patient treatment plan. The patient medical history module is used for users to call up historical diagnosis reports and pain maps stored in the data storage module according to the patient's name and age. The patient treatment plan is used to provide users with a treatment plan for the patient and send the treatment plan to the patient's mobile phone. The operating system includes authority management, data management, and remote monitoring. Authority management is used to change the authority of users and manage the patient's mobile phone. Data management is used to delete and restore various data. Remote monitoring is used to monitor other devices in real time. The data viewing and retrieving system includes a history record calling module, a pain map retrieving module, and a report log filling module; The history record calling module is used by the user to retrieve the operation record after the device is turned on, the pain map retrieving module is used by the user to retrieve the patient's pain map for viewing, and the report log filling module is used by the user to fill in logs and medical reports.

9. The pain mapping system for low-energy extracorporeal shock wave diagnosis of pelvic floor pain according to claim 8, characterized in that: The mobile terminals are provided for use by patients and hospitals respectively, and are equipped with an operating system, a personal information modification system, a treatment plan viewing system, and a diagnosis and treatment information viewing system; The personal information modification system is used by the user to fill in the identity information, the treatment plan viewing system is used by the patient to view the treatment plan sent by the hospital, and the diagnosis and treatment information viewing system is used by the patient to view the diagnosis and treatment information provided by the hospital; Compared with the patient side, the hospital side has a patient side management system, a patient information modification system, and a patient information viewing system. The patient side management system is used to modify the patient's account. The patient information modification system is used to modify the patient's diagnosis and treatment information and treatment plan in real time and update them to the patient's mobile phone side synchronously. The patient information viewing system is used for users to search for information based on the patient's name for viewing; The operating system includes account management, and the account management is used for account cancellation and password modification.

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