A tinnitus sound therapy music playing system with tinnitus detection function

Abstract

The application discloses a tinnitus sound therapy music playing system with a tinnitus detection function, relates to the technical field of tinnitus sound therapy music treatment, and comprises a tinnitus data acquisition unit, a tinnitus detection unit, a music playing library and a comprehensive matching unit. The tinnitus data acquisition unit, the tinnitus detection unit, the music playing library and the comprehensive matching unit are arranged to construct a perfect tinnitus sound therapy music playing system. The tinnitus data acquisition unit is used to collect tinnitus sound data of simulated patients to generate corresponding data transmission channels. Meanwhile, a positioning encryption module is installed to accurately position the collected simulated tinnitus data, tinnitus models and generated music data, and to simultaneously perform encryption processing, so that the required viewing links for accurate positioning during visualization are facilitated, the overall treatment cycle is shortened, and the intelligent level of tinnitus sound therapy data management is improved through internet cloud management and control.

Description

Technical Field

[0001] This invention relates to the field of tinnitus sound therapy music therapy technology, specifically a tinnitus sound therapy music playback system with tinnitus detection function. Background Technology

[0002] Tinnitus is usually caused by damage to the inner ear, while neurogenic tinnitus is caused by the brain receiving tinnitus signals for a long time. Over time, the brain will develop a memory of the tinnitus sound and establish a neural reflex in the brain. The brain will play the previous tinnitus sound in a loop like a tape recorder, forming "brain tinnitus".

[0003] In existing technologies, treatment can be performed through sound therapy music playback. However, due to the lack of a well-developed playback system, it is impossible to monitor every step of the treatment process, and thus it is impossible to continuously improve the system in response to problems. This prolongs the overall treatment cycle and results in poor overall intelligent management, which affects normal use. Therefore, this invention aims to design a tinnitus sound therapy music playback system with tinnitus detection function to solve the above-mentioned problems. Summary of the Invention:

[0004] The purpose of this invention is to provide a tinnitus sound therapy music playback system with tinnitus detection function in order to solve the above-mentioned problems. This solves the problem mentioned in the background art that treatment can be carried out by playing sound therapy music, but due to the lack of a well-constructed playback system, it is impossible to monitor every aspect of the treatment process, that is, it is impossible to continuously improve the system when problems arise, thus lengthening the overall treatment cycle and resulting in poor overall intelligent management, which affects normal use.

[0005] To address the above problems, the present invention provides a technical solution:

[0006] A tinnitus sound therapy music playback system with tinnitus detection function includes a tinnitus data acquisition unit, a tinnitus detection unit, a music playback library, and a comprehensive matching unit. The tinnitus data acquisition unit maintains real-time data sharing and communication with the tinnitus detection unit, the music playback library, and the comprehensive matching unit via the Internet. The tinnitus data acquisition unit is distributed in different locations.

[0007] The tinnitus data acquisition unit is used to collect tinnitus sound data simulating a patient and generate a corresponding data transmission channel;

[0008] The tinnitus detection unit is used to extract key data from the simulated tinnitus data, including intensity, frequency, and variation curve, to generate a tinnitus model.

[0009] The music playback library is used to search for music that is closest to the sound intensity, frequency and variation curve according to the search requirements, and generate the corresponding music model;

[0010] The integrated matching unit is used to summarize the music model and the integrated model, and to image the best sound therapy music data of the collected tinnitus data through a visualization device.

[0011] Preferably, the output of the tinnitus data acquisition unit is communicatively connected to the input of the tinnitus detection unit, the output of the tinnitus detection unit is communicatively connected to the input of the music playback library, and the output of the music playback library is communicatively connected to the input of the integrated matching unit.

[0012] Preferably, the tinnitus data acquisition unit includes a tinnitus data acquisition module, a real-time synchronization module, and a data transmission module. The output end of the tinnitus data acquisition module is communicatively connected to the input end of the data transmission module, the output end of the data transmission module is communicatively connected to the input end of the tinnitus detection unit, and the real-time synchronization module is bidirectionally communicatively connected to the tinnitus detection unit, the music playback library, and the integrated matching unit.

[0013] Preferably, the tinnitus data acquisition module is used to collect tinnitus data simulating a patient. The tinnitus data includes data from the left ear and data from the right ear. During the acquisition, the average value of multiple sets of data is taken as the simulated tinnitus data for this test.

[0014] The real-time synchronization module is used to maintain real-time data sharing with the tinnitus detection unit, music playback library and comprehensive matching unit;

[0015] The data transmission module is used to receive simulated tinnitus data sent by the tinnitus data acquisition module and generate a data transmission channel. The data transmission module is also used to send the simulated tinnitus data to the tinnitus detection unit for detection.

[0016] Preferably, the tinnitus detection unit includes a tinnitus data center, a feature extraction module, and a brain simulation module. The output of the feature extraction module is communicatively connected to the input of the brain simulation module, and the output of the brain simulation module is communicatively connected to the input of the music playback library.

[0017] Preferably, the tinnitus data center is used to back up the simulated tinnitus data for each detection;

[0018] The feature extraction module is used to receive simulated tinnitus data sent by the tinnitus data acquisition unit, extract key data, including intensity, frequency, and change curve, for generating subsequent matching of the tinnitus model;

[0019] The brain simulation module is used to establish a computer model by simulating the auditory neurons of the human brain. The brain simulation module is also used to receive the tinnitus model sent by the feature extraction module and integrate it with the computer model to form an integrated model.

[0020] Preferably, the music playback library includes a music data center, a music generation module, and a retrieval module. The output of the retrieval module is communicatively connected to the input of the music playback library, and the output of the music playback library is communicatively connected to the input of the integrated matching unit.

[0021] Preferably, the music data center is used to store music from different regions and styles;

[0022] The music generation module is integrated within the music data center. The music generation module is used to receive the retrieval request sent by the retrieval module, search within the music data center for music that is closest to the sound intensity, frequency and variation curve, and generate the corresponding music model.

[0023] The retrieval module is used to receive the integrated model sent by the tinnitus detection unit and to issue music search commands based on the corresponding feature data. The retrieval module is also used to send the issued retrieval command to the music data center for retrieval.

[0024] Preferably, the integrated matching unit includes a visualization module, a tinnitus sound therapy music matching module, and a positioning encryption module, wherein the output end of the tinnitus sound therapy music matching module is communicatively connected to the input end of the visualization module.

[0025] Preferably, the visualization module is used to receive the best sound therapy music data for this tinnitus data collection sent by the tinnitus sound therapy music matching module, perform imaging, and display the entire matching process at the same time.

[0026] The tinnitus sound therapy music matching module is used to receive the music model sent by the music playback library. The tinnitus sound therapy music matching module is used to receive the integrated model sent by the tinnitus detection unit and summarize it into the best sound therapy music data for this collection of tinnitus data. The tinnitus sound therapy music matching module is also used to send the best sound therapy music data for this collection of tinnitus data to the visualization module for imaging.

[0027] The positioning encryption module is integrated into the tinnitus sound therapy music matching module. It accurately locates the collected simulated tinnitus data, tinnitus model, and generated music data, and simultaneously encrypts them.

[0028] The beneficial effects of this invention are as follows: This invention constructs a complete tinnitus sound therapy music playback system by setting up a tinnitus data acquisition unit, a tinnitus detection unit, a music playback library, and a comprehensive matching unit. The tinnitus data acquisition unit collects tinnitus sound data from simulated patients and generates corresponding data transmission channels. The tinnitus detection unit extracts key data from the simulated tinnitus data to generate a tinnitus model. The music playback library searches for music that most closely matches the sound intensity, frequency, and variation curve according to retrieval needs, generating a corresponding music model. The comprehensive matching unit summarizes the music model and the integrated model. A visualization device images the best sound therapy music data from the collected tinnitus data. Simultaneously, a positioning encryption module is installed to accurately locate the collected simulated tinnitus data, tinnitus model, and generated music data, and performs encryption processing. This facilitates precise location of the required viewing points during visualization, shortening the overall treatment cycle. The invention also manages, visualizes, and stores tinnitus sound therapy data and corresponding analysis results, contributing to the intelligent management of tinnitus sound therapy data through internet cloud control, thus improving the level of intelligence in tinnitus sound therapy data management. Attached image description:

[0029] For ease of explanation, the present invention will be described in detail below with reference to specific embodiments and accompanying drawings.

[0030] Figure 1 This is an overall topology diagram of a tinnitus sound therapy music playback system with tinnitus detection function according to the present invention;

[0031] Figure 2 This is a topology diagram of the tinnitus data acquisition unit of a tinnitus sound therapy music playback system with tinnitus detection function according to the present invention.

[0032] Figure 3 This is a topology diagram of the tinnitus detection unit of a tinnitus sound therapy music playback system with tinnitus detection function according to the present invention;

[0033] Figure 4 This is a music playback library topology diagram of a tinnitus sound therapy music playback system with tinnitus detection function according to the present invention;

[0034] Figure 5 This is a topology diagram of the integrated matching unit of a tinnitus sound therapy music playback system with tinnitus detection function according to the present invention. Detailed implementation method:

[0035] like Figure 1 , Figure 2 , Figure 3 , Figure 4 and Figure 5 As shown, the specific implementation adopts the following technical solution:

[0036] A tinnitus sound therapy music playback system with tinnitus detection function includes a tinnitus data acquisition unit, a tinnitus detection unit, a music playback library, and a comprehensive matching unit. The tinnitus data acquisition unit maintains real-time data sharing and communication with the tinnitus detection unit, the music playback library, and the comprehensive matching unit via the Internet. The tinnitus data acquisition unit is distributed in different locations. The output terminal of the tinnitus data acquisition unit is communicatively connected to the input terminal of the tinnitus detection unit, the output terminal of the tinnitus detection unit is communicatively connected to the input terminal of the music playback library, and the output terminal of the music playback library is communicatively connected to the input terminal of the comprehensive matching unit.

[0037] The tinnitus data acquisition unit is used to collect tinnitus sound data simulating a patient and generate a corresponding data transmission channel. The tinnitus data acquisition unit includes a tinnitus data acquisition module, a real-time synchronization module, and a data transmission module. The output of the tinnitus data acquisition module is communicatively connected to the input of the data transmission module, and the output of the data transmission module is communicatively connected to the input of the tinnitus detection unit. The real-time synchronization module is bidirectionally communicatively connected to the tinnitus detection unit, the music playback library, and the comprehensive matching unit. The tinnitus data acquisition module is used to collect tinnitus sound data simulating a patient, including data from the left and right ears. During acquisition, the average value of multiple sets of data is taken as the simulated tinnitus data for this test. The real-time synchronization module is used to maintain real-time data sharing with the tinnitus detection unit, the music playback library, and the comprehensive matching unit. The data transmission module is used to receive the simulated tinnitus data sent by the tinnitus data acquisition module, generate a data transmission channel, and also send the simulated tinnitus data to the tinnitus detection unit for detection.

[0038] The tinnitus detection unit is used to extract key data from simulated tinnitus data, including intensity, frequency, and variation curves, for generating a tinnitus model. The tinnitus detection unit includes a tinnitus data center, a feature extraction module, and a brain simulation module. The output of the feature extraction module is communicatively connected to the input of the brain simulation module, and the output of the brain simulation module is communicatively connected to the input of a music playback library. The tinnitus data center is used to back up simulated tinnitus data from each detection. The feature extraction module receives simulated tinnitus data sent by the tinnitus data acquisition unit and extracts key data, including intensity, frequency, and variation curves, for generating subsequent matching of the tinnitus model. The brain simulation module is used to establish a computer model by simulating auditory neurons in the human brain. The brain simulation module also receives the tinnitus model sent by the feature extraction module and integrates it with the computer model to form a unified model.

[0039] The music playback library is used to search for music that most closely matches the sound intensity, frequency, and variation curve based on retrieval requirements, and generate a corresponding music model. The music playback library includes a music data center, a music generation module, and a retrieval module. The output of the retrieval module is communicatively connected to the input of the music playback library, and the output of the music playback library is communicatively connected to the input of the integrated matching unit. The music data center stores music from different regions and styles. The music generation module is integrated within the music data center and is used to receive retrieval requests from the retrieval module, search for music that most closely matches the sound intensity, frequency, and variation curve within the music data center, and generate a corresponding music model. The retrieval module receives the integrated model from the tinnitus detection unit and issues music searches based on the corresponding feature data. The retrieval module also sends retrieval instructions to the music data center for retrieval.

[0040] The integrated matching unit is used to summarize the music model and the integrated model, and to image the best sound therapy music data of the collected tinnitus data through a visualization device. The integrated matching unit includes a visualization module, a tinnitus sound therapy music matching module, and a positioning encryption module. The output end of the tinnitus sound therapy music matching module is communicatively connected to the input end of the visualization module. The visualization module is used to receive the best sound therapy music data of the collected tinnitus data sent by the tinnitus sound therapy music matching module, image it, and display the entire matching process. The tinnitus sound therapy music matching module is used to receive the music model sent by the music playback library and the integrated model sent by the tinnitus detection unit, and to summarize it into the best sound therapy music data of the collected tinnitus data. The tinnitus sound therapy music matching module is also used to send the best sound therapy music data of the collected tinnitus data to the visualization module for image imaging. The positioning encryption module is integrated inside the tinnitus sound therapy music matching module, and accurately positions the collected simulated tinnitus data, tinnitus model, and generated music data, while also performing encryption processing.

[0041] Example 1

[0042] When the tinnitus sound therapy music playback system is in normal use:

[0043] S1. The tinnitus data acquisition module collects tinnitus data from a simulated patient. The tinnitus data includes data from the left ear and the right ear. During the acquisition, multiple sets of data are collected and their average value is taken as the simulated tinnitus data for this test. The data transmission module generates a data transmission channel.

[0044] S2. The feature extraction module extracts key data from the simulated tinnitus data, including intensity, frequency, and change curves, which are used to generate a tinnitus model for subsequent matching. The brain simulation module establishes a computer model by simulating the auditory neurons of the human brain, and is also used to receive the tinnitus model and integrate it with the computer model to form a model.

[0045] S3. The retrieval module issues a music search for the corresponding feature data. The music generation module receives the retrieval request, searches within the music data center for the music that is closest to the sound intensity, frequency and variation curve, and generates the corresponding music model. The music data center stores music from different regions and styles.

[0046] S4. The tinnitus sound therapy music matching module receives the music model and the integrated model, and summarizes them into the best sound therapy music data for this tinnitus data collection. The positioning and encryption module accurately positions the collected simulated tinnitus data, tinnitus model and generated music data, and performs encryption processing at the same time. The visualization module receives the best sound therapy music data for this tinnitus data collection, performs imaging, and displays the entire matching process.

[0047] Example 2

[0048] When the tinnitus sound therapy music playback system is connected to psychotherapy:

[0049] S1. The psychological data collection module collects psychological data from simulated patients through questionnaires. During the collection process, multiple sets of data are collected and their average value is taken as the simulated psychological data for this test. The data transmission module generates a data transmission channel.

[0050] S2. The feature extraction module extracts key data from the simulated psychological data, including intensity, frequency, and change curves, which are used to generate a psychological model for subsequent matching. The brain simulation module establishes a computer model by simulating the auditory neurons of the human brain, and is also used to receive the psychological model and integrate it with the computer model.

[0051] S3. The retrieval module issues a music search for the corresponding feature data. The music generation module receives the retrieval request, searches within the music data center for the music that is closest to the sound intensity, frequency and variation curve, and generates the corresponding music model. The music data center stores music from different regions and styles.

[0052] S4. The psychological sound therapy music matching module receives the music model and the integrated model, and summarizes them into the best sound therapy music data for this psychological data collection. The positioning and encryption module accurately positions the collected simulated psychological data, psychological model and generated music data, and performs encryption processing at the same time. The visualization module receives the best sound therapy music data for this psychological data collection, performs imaging, and displays the entire matching process.

[0053] Specifically: In practical applications, multiple tinnitus data acquisition units are used in conjunction with the tinnitus detection unit, music playback library, and comprehensive matching unit. These multiple tinnitus data acquisition units are located in different geographical locations. The tinnitus data acquisition module collects tinnitus sound data simulating a patient's ear, including data from the left and right ears. During acquisition, the average value of multiple data sets is used as the simulated tinnitus data for this detection. The data transmission module generates a data transmission channel. The feature extraction module extracts key data from the simulated tinnitus data, including intensity, frequency, and variation curves, for use in generating the tinnitus model for subsequent matching. The brain simulation module establishes a computer model based on the auditory neurons of the human brain, and simultaneously receives the tinnitus model, integrating it with the computer model to form a unified model. The retrieval module issues music searches based on corresponding feature data. The music generation module receives the search request, searches within the music data center for music that most closely matches the sound intensity, frequency, and variation curve, and generates a corresponding music model. The music data center stores music from different regions and styles. The tinnitus sound therapy music matching module receives the music model and the integrated model, summarizing them into the optimal sound therapy music data for this tinnitus data collection. The location encryption module encrypted the collected simulated tinnitus data, tinnitus model, and generated music. The music data is precisely located and encrypted. The visualization module receives the optimal sound therapy music data from the collected tinnitus data, performs imaging, and displays the entire matching process. This invention constructs a complete tinnitus sound therapy music playback system by setting up a tinnitus data acquisition unit, a tinnitus detection unit, a music playback library, and a comprehensive matching unit. The tinnitus data acquisition unit collects tinnitus sound data from simulated patients and generates corresponding data transmission channels. The tinnitus detection unit extracts key data from the simulated tinnitus data to generate a tinnitus model. The music playback library searches for the closest sound intensity, frequency, and variation curve according to the search requirements. The system generates corresponding music models from music. These music models and integrated models are then combined using a comprehensive matching unit. The optimal sound therapy music data from the collected tinnitus data is then imaged using a visualization device. Simultaneously, a positioning encryption module accurately locates and encrypts the collected simulated tinnitus data, tinnitus models, and generated music data during visualization, shortening the overall treatment cycle. This system also manages, visualizes, and stores tinnitus sound therapy data and corresponding analysis results, facilitating intelligent management of tinnitus sound therapy data through internet cloud control.

[0054] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A tinnitus sound therapy music playback system with tinnitus detection function, characterized in that, It includes a tinnitus data acquisition unit, a tinnitus detection unit, a music playback library, and a comprehensive matching unit. The tinnitus data acquisition unit maintains real-time data sharing and communication with the tinnitus detection unit, the music playback library, and the comprehensive matching unit via the Internet. The tinnitus data acquisition unit is distributed in different locations. The tinnitus data acquisition unit is used to collect tinnitus sound data simulating a patient and generate a corresponding data transmission channel; The tinnitus detection unit is used to extract key data from the simulated tinnitus data, including intensity, frequency, and variation curve, to generate a tinnitus model. The tinnitus detection unit includes a tinnitus data center, a feature extraction module, and a brain simulation module. The output of the feature extraction module is communicatively connected to the input of the brain simulation module, and the output of the brain simulation module is communicatively connected to the input of the music playback library. The tinnitus data center is used to back up the simulated tinnitus data from each test. The feature extraction module is used to receive simulated tinnitus data sent by the tinnitus data acquisition unit, extract key data, including intensity, frequency, and change curve, for generating subsequent matching of the tinnitus model; The brain simulation module is used to establish a computer model by simulating the auditory neurons of the human brain. The brain simulation module is also used to receive the tinnitus model sent by the feature extraction module and integrate it with the computer model to form an integrated model. The music playback library is used to search for music that is closest to the sound intensity, frequency and variation curve according to the search requirements, and generate the corresponding music model; The music playback library includes a music data center, a music generation module, and a retrieval module. The output of the retrieval module is communicatively connected to the input of the music playback library, and the output of the music playback library is communicatively connected to the input of the integrated matching unit. The music data center is used to store music from different regions and styles. The music generation module is integrated within the music data center. The music generation module is used to receive the retrieval request sent by the retrieval module, search within the music data center for music that is closest to the sound intensity, frequency and variation curve, and generate the corresponding music model. The retrieval module is used to receive the integrated model sent by the tinnitus detection unit, and to issue a music search corresponding to the feature data. The retrieval module is also used to send the issued retrieval command to the music data center for retrieval. The integrated matching unit is used to summarize the music model and the integrated model, and to image the best sound therapy music data of the collected tinnitus data through a visualization device; The integrated matching unit includes a visualization module, a tinnitus sound therapy music matching module, and a positioning encryption module. The output end of the tinnitus sound therapy music matching module is communicatively connected to the input end of the visualization module. The visualization module is used to receive the best sound therapy music data for this tinnitus data collection sent by the tinnitus sound therapy music matching module, perform imaging, and display the entire matching process. The tinnitus sound therapy music matching module is used to receive the music model sent by the music playback library. The tinnitus sound therapy music matching module is used to receive the integrated model sent by the tinnitus detection unit and summarize it into the best sound therapy music data for this collection of tinnitus data. The tinnitus sound therapy music matching module is also used to send the best sound therapy music data for this collection of tinnitus data to the visualization module for imaging. The positioning encryption module is integrated into the tinnitus sound therapy music matching module. It accurately locates the collected simulated tinnitus data, tinnitus model, and generated music data, and simultaneously encrypts them.

2. The tinnitus sound therapy music playback system with tinnitus detection function according to claim 1, characterized in that: The output of the tinnitus data acquisition unit is communicatively connected to the input of the tinnitus detection unit, the output of the tinnitus detection unit is communicatively connected to the input of the music playback library, and the output of the music playback library is communicatively connected to the input of the integrated matching unit.

3. The tinnitus sound therapy music playback system with tinnitus detection function according to claim 1, characterized in that: The tinnitus data acquisition unit includes a tinnitus data acquisition module, a real-time synchronization module, and a data transmission module. The output end of the tinnitus data acquisition module is communicatively connected to the input end of the data transmission module. The output end of the data transmission module is communicatively connected to the input end of the tinnitus detection unit. The real-time synchronization module is bidirectionally communicatively connected to the tinnitus detection unit, the music playback library, and the integrated matching unit.

4. A tinnitus sound therapy music playback system with tinnitus detection function according to claim 3, characterized in that: The tinnitus data acquisition module is used to collect tinnitus data simulating a patient. The tinnitus data includes data from the left ear and data from the right ear. During the acquisition, multiple sets of data are collected and their average value is taken as the simulated tinnitus data for this test. The real-time synchronization module is used to maintain real-time data sharing with the tinnitus detection unit, music playback library and comprehensive matching unit; The data transmission module is used to receive simulated tinnitus data sent by the tinnitus data acquisition module and generate a data transmission channel. The data transmission module is also used to send the simulated tinnitus data to the tinnitus detection unit for detection.

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