Comprehensive management system for processing otology medical data information

Abstract

The invention discloses a comprehensive management system for processing otology medical data information, which comprises an information acquisition module, a data management system, a data transmission module, a medical data storage library, an otology equipment library and a display control panel, and relates to the technical field of data processing. According to the comprehensive management system for processing otology medical data information, the data management system is arranged, data are received, required data are classified and screened, a medical data storage library is matched after processing, searching of hearing-aid equipment is rapidly completed, and a data instruction is generated for feedback transmission; therefore, required data can be found more quickly in the data extraction process, and required equipment information can be better fed back based on the medical information of the user, so that the operation feedback result of information management is applied to actual operation, the operation of information matching is more accurate, and the operation efficiency of information management is higher.

Description

Technical Field

[0001] The present invention relates to the technical field of data processing, and in particular to a comprehensive management system for processing otolaryngology medical data information. Background Art

[0002] The reference patent name is: A hospital information management system (patent publication number: CN108877879A, patent publication date: 2018-11-23), including data acquisition terminals, which are arranged in various departments of the hospital and are used to collect doctors' diagnosis and treatment data; a first-level data management terminal, which is communicated and connected with several data acquisition terminals, and is used to collect data information from the data acquisition terminals and send data information to the data acquisition terminals; a second-level data management terminal, which is communicated and connected with several first-level data management terminals, and is used to collect data information from the first-level data management terminals and send data information to the first-level data management terminals; a database module, which is communicated and connected with the second-level data management terminals, and is used to store data information sent by the second-level data management terminals.

[0003] Based on the description in the above-mentioned documents, in the process of managing the existing otolaryngology medical data information, especially in the process of selecting the user's ear hearing aid device information, it is impossible to process and feedback the user's medical information and provide the hearing aid device information that is adapted to the user and meets the user's current hearing intensity, so that the information management operation is not applied in the actual operation, resulting in deviations in the information matching operation. Therefore, the present invention provides a comprehensive management system for processing otolaryngology medical data information. Summary of the invention

[0004] In view of the deficiencies in the prior art, the present invention provides a comprehensive management system for processing otolaryngology medical data information, which solves the problem that in the process of managing the existing otolaryngology medical data information, especially in the process of selecting the user's ear hearing aid device information, the user's medical information cannot be processed and feedback is made and the hearing aid device information adapted to the user and consistent with the user's current hearing intensity, so that the information management operation is not applied in the actual operation, resulting in deviations in the information matching operation.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: a comprehensive management system for processing otolaryngology medical data information, comprising:

[0006] An information collection module is used to collect the user's medical information and collect data on the user's ear features;

[0007] The data management system receives and sorts the required data, quickly completes the search for hearing aids by processing and matching the medical data repository, and generates data instruction feedback transmission;

[0008] The data screening module aggregates the data and classifies them according to the required information to obtain the image data of the ear and the hearing measurement data;

[0009] The data processing module converts the image data of the ear into a three-dimensional model of the ear through an image conversion algorithm, and obtains the decibel data that the user can receive through the hearing measurement data through an impairment degree evaluation algorithm, and combines the three-dimensional model data and the decibel data with the data in the medical data repository to match, thereby outputting instructions that meet the user's requirements;

[0010] a data transmission module, which transmits the required data instructions to the display control panel and the medical data repository to select the medical device;

[0011] A medical data repository that stores user medical information, otolaryngology equipment information, and processed data;

[0012] The ear equipment library includes hearing aids of different sizes and different decibel levels;

[0013] Display a control panel that shows medical information data about the user and provides feedback on the data results in the form of data and charts.

[0014] Preferably, the operation of the data screening module is:

[0015] A1. First classify the image data into one category and the other data into another category;

[0016] A2. Determine whether the image data contains ear features, classify the images collected in different directions, and group the images in the same direction into one group to form an image data set M;

[0017] A3. The other data are filtered to retain the data about the user's ear hearing test, and a hearing test data set N is formed in parallel.

[0018] Preferably, the specific operation of the image conversion algorithm in the data processing module is:

[0019] B1, performing a proportional scaling operation on the features of the image data subset in the image data set M so that the corresponding parts of the feature parts in the image data subset have the same size;

[0020] B2, determining the edge boundary of the feature based on the processed image data subset, and performing image matching and splicing operations according to the pixel points on the edge boundary;

[0021] B3. Establish a spatial coordinate system, insert the image data subsets into the spatial coordinate system in sequence, and determine the common nodes of the image by combining the multi-directional image data, and sequentially form a three-dimensional model of the outside and inside of the ear.

[0022] Preferably, the operation of scaling the characteristic portion of the image data subset by B1 is:

[0023] b11. Based on the characteristic part of one of the image data subsets, first find the image data subset that has the same characteristic part area as the basic image data subset;

[0024] b12. Determine a sideline between the basic image data subset and the image data subset to be scaled, and perform a feature scaling operation on the image data subset to be scaled according to the ratio of the two sidelines. The ratio formula of the image data subset to be scaled is: And n is the feature scaling factor of the image data subset, L1 is the edge length of the common features in the basic image data subset, and L2 is the edge length of the common features in the image data subset to be scaled;

[0025] b13. The search for the next image data subset needs to be based on the processed feature part that has the same proportion as the basic image data subset.

[0026] Preferably, the operation of forming a three-dimensional model according to the spatial coordinate system in B3 is:

[0027] b31, taking the vertical image data subset in B1 as the base image, taking the bottom boundary of the base image as the X axis, the left boundary of the base image as the Z axis, and the intersection of the X axis and the Z axis as the origin of the coordinate system, and setting the Y axis at a right angle to the X axis and the Z axis to form a spatial coordinate system;

[0028] b32, inserting the collected upper, lower, left and right image subset data into the spatial coordinate system in sequence according to the overlap of common feature parts along the Y-axis direction, and connecting them with the basic image;

[0029] b33. At this time, the node coordinates of the common feature parts in the adjacent image subsets are determined to determine the specific coordinate position of the common feature parts in the space coordinate system, thereby forming a three-dimensional model image of the outside and inside of the ear.

[0030] Preferably, the specific coordinate position of b33 with respect to the characteristic part is determined as follows:

[0031] For example, there are two nodes marked in the front basic image, P1 and Q1, and the coordinates of P1 are marked as (x1, 0, z1), and the coordinates of Q1 are marked as (x2, 0, z2);

[0032] The points corresponding to nodes P1 and Q1 in the left image data adjacent to the front basic image are P2 and Q2, respectively, and the coordinates of P2 are (0, y1, z1), and the coordinates of Q2 are (0, y1, z2);

[0033] The corresponding points in the spatial coordinate system are P3 and Q3, and the coordinates of P3 are (x1, y1, z1), and the coordinates of Q2 are (x2, y1, z2).

[0034] Preferably, the specific operation of the damage degree assessment algorithm in the data processing module is:

[0035] C1. After determining the user's situation of pure tone audiometry, output the user's measurement results using the impaired measurement frequency;

[0036] C2. Based on the hearing clarity feedback from the user, determine the measurement data from the first four times to the last, and calculate the average hearing loss result according to the calculation formula;

[0037] C3. Introducing the average hearing loss degree result into the hearing loss degree grading data for matching, and determining the user's hearing loss degree range.

[0038] Preferably, the calculation formula for the average hearing loss result in C2 is:

[0039]

[0040] Where DB is the average hearing loss result value, k represents the number of data in the measurement operation, and (db) k This is the intensity value after the frequency is heard.

[0041] Preferably, the data matching operation of combining the three-dimensional model data and the decibel data with the medical data repository in the data processing module is:

[0042] D1. Combining the stereo model data with the decibel data to obtain a hearing aid suitable for the user;

[0043] D2. At this time, device data that is close to and smaller than the three-dimensional model data is selected based on the three-dimensional model data, and decibel data is introduced based on the selected device data, and the decibel control range of the device data is selected to include the decibel data;

[0044] D3. Generate the device extraction instruction based on the matched device data and transmit it through the data transmission module.

[0045] Preferably, after completing the matching operation between the user's medical information and the otolaryngology device information in the medical data repository, the information will be bound for data tracing operations. At the same time, the bound otolaryngology device unique information will be presented in subsequent matching operations. When the inventory of products with the same otolaryngology device information is less than the set threshold, the management personnel will be informed through the display control panel to replenish it.

[0046] The present invention provides a comprehensive management system for processing otolaryngology medical data information. Compared with the prior art, it has the following beneficial effects:

[0047] (1) The integrated management system for processing ear medical data information is provided with a data management system, which receives data and classifies and filters the required data, quickly completes the search for hearing aids by matching the medical data repository after processing, and generates data instruction feedback transmission, so as to find the required data more quickly during the data extraction process, and at the same time better feedback the required equipment information based on the user's medical information, so that the operation feedback results of the information management are applied in the actual operation, making the information matching operation more accurate and the information management operation more efficient.

[0048] (2) The integrated management system for processing ear medical data information establishes a spatial coordinate system through the image conversion algorithm in the data processing module, inserts the image data subsets into the spatial coordinate system in sequence, and determines the common nodes of the image by combining the multi-directional image data, and sequentially forms a three-dimensional model of the outside and inside of the ear, so as to match the device information in the database according to the size ratio of the model, so that the matched information is more in line with the user's usage, and avoids the operation of reciprocating replacement of medical personnel in the actual process, and is also convenient for the management operation of the equipment outbound information.

[0049] (3) The integrated management system for processing ear medical data information determines the extraction of measurement data from the first four times that can be heard based on the hearing clarity feedback from the user through the impairment evaluation algorithm in the data processing module, calculates the average hearing loss result based on the calculation formula, introduces the average hearing loss result into the hearing loss degree classification data for matching, determines the user's hearing loss degree range, and matches and combines it with the model data to obtain the required equipment information, thereby completing information management and applying it to practice, and facilitating more convenient information interaction between users and medical facilities. BRIEF DESCRIPTION OF THE DRAWINGS

[0050] Figure 1 It is a principle block diagram of the data management system of the present invention;

[0051] Figure 2 is a flow chart of the image conversion algorithm of the present invention;

[0052] Figure 3 The figure is a flow chart of the damage degree assessment algorithm of the present invention. DETAILED DESCRIPTION

[0053] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0054] See also Figure 1-Figure 3 , the present invention provides two technical solutions:

[0055] Embodiment 1: A comprehensive management system for processing otolaryngology medical data information, comprising:

[0056] An information collection module is used to collect the user's medical information and collect data on the user's ear features;

[0057] The data management system receives and sorts the required data, quickly completes the search for hearing aids by processing and matching the medical data repository, and generates data instruction feedback transmission;

[0058] The data screening module aggregates the data and classifies them according to the required information to obtain the image data of the ear and the hearing measurement data;

[0059] The data processing module converts the image data of the ear into a three-dimensional model of the ear through an image conversion algorithm, and obtains the decibel data that the user can receive through the hearing measurement data through an impairment degree evaluation algorithm, and combines the three-dimensional model data and the decibel data with the data in the medical data repository to match, thereby outputting instructions that meet the user's requirements;

[0060] a data transmission module, which transmits the required data instructions to the display control panel and the medical data repository to select the medical device;

[0061] A medical data repository that stores user medical information, otolaryngology equipment information, and processed data;

[0062] The ear equipment library includes hearing aids of different sizes and different decibel levels;

[0063] Display a control panel that shows medical information data about the user and provides feedback on the data results in the form of data and charts.

[0064] Among them, the ear equipment library will give a unique identification code when the equipment is put into storage, so that the information after subsequent binding is also unique. The information will be recorded and the inventory will be confirmed during the outbound operation to ensure timely replenishment.

[0065] The user's medical information is transmitted through data terminals, while the user's ear features are detected from the outside to the inside by medical staff through ear detection equipment and image collection operations.

[0066] Among them, by setting up a data management system, data is received and the required data is classified and screened, and the hearing aid device is quickly found by matching the medical data repository after processing, and data instruction feedback is generated for transmission, so that the required data can be found more quickly during the data extraction process, and the required equipment information can be better fed back based on the user's medical information, so that the operation feedback results of information management can be applied in actual operations, making the information matching operation more accurate and the information management operation more efficient.

[0067] In the embodiment of the present invention, the operation of the data screening module is:

[0068] A1. First classify the image data into one category and the other data into another category;

[0069] A2. Determine whether the image data contains ear features, classify the images collected in different directions, and group the images in the same direction into one group to form an image data set M;

[0070] A3. The other data are filtered to retain the data about the user's ear hearing test, and a hearing test data set N is formed in parallel.

[0071] In the embodiment of the present invention, the specific operation of the image conversion algorithm in the data processing module is:

[0072] B1, performing a proportional scaling operation on the features of the image data subset in the image data set M so that the corresponding parts of the feature parts in the image data subset have the same size;

[0073] B2, determining the edge boundary of the feature based on the processed image data subset, and performing image matching and splicing operations according to the pixel points on the edge boundary;

[0074] B3. Establish a spatial coordinate system, insert the image data subsets into the spatial coordinate system in sequence, and determine the common nodes of the image by combining the multi-directional image data, and sequentially form a three-dimensional model of the outside and inside of the ear.

[0075] In the embodiment of the present invention, the operation of scaling the characteristic portion of the image data subset by B1 is:

[0076] b11. Based on the characteristic part of one of the image data subsets, first find the image data subset that has the same characteristic part area as the basic image data subset;

[0077] b12. Determine a sideline between the basic image data subset and the image data subset to be scaled, and perform a feature scaling operation on the image data subset to be scaled according to the ratio of the two sidelines. The ratio formula of the image data subset to be scaled is: And n is the feature scaling factor of the image data subset, L1 is the edge length of the common features in the basic image data subset, and L2 is the edge length of the common features in the image data subset to be scaled;

[0078] b13. The search for the next image data subset needs to be based on the processed feature part that has the same proportion as the basic image data subset.

[0079] In the embodiment of the present invention, the operation of forming a three-dimensional model according to the spatial coordinate system in B3 is:

[0080] b31, taking the vertical image data subset in B1 as the base image, taking the bottom boundary of the base image as the X axis, the left boundary of the base image as the Z axis, and the intersection of the X axis and the Z axis as the origin of the coordinate system, and setting the Y axis at a right angle to the X axis and the Z axis to form a spatial coordinate system;

[0081] b32, inserting the collected upper, lower, left and right image subset data into the spatial coordinate system in sequence according to the overlap of common feature parts along the Y-axis direction, and connecting them with the basic image;

[0082] b33. At this time, the node coordinates of the common feature parts in the adjacent image subsets are determined to determine the specific coordinate position of the common feature parts in the space coordinate system, thereby forming a three-dimensional model image of the outside and inside of the ear.

[0083] In the embodiment of the present invention, the specific coordinate position of b33 with respect to the characteristic part is determined as follows:

[0084] For example, there are two nodes marked in the front basic image, P1 and Q1, and the coordinates of P1 are marked as (x1, 0, z1), and the coordinates of Q1 are marked as (x2, 0, z2);

[0085] The points corresponding to nodes P1 and Q1 in the left image data adjacent to the front basic image are P2 and Q2, respectively, and the coordinates of P2 are (0, y1, z1), and the coordinates of Q2 are (0, y1, z2);

[0086] The corresponding points in the spatial coordinate system are P3 and Q3, and the coordinates of P3 are (x1, y1, z1), and the coordinates of Q2 are (x2, y1, z2).

[0087] Among them, a spatial coordinate system is established through the image conversion algorithm in the data processing module, and the image data subsets are inserted into the spatial coordinate system in sequence. The common nodes of the image are determined by combining the multi-directional image data, and three-dimensional models of the outside and inside of the ear are formed in sequence. The size ratio of the model is matched with the equipment information in the database, so that the matched information is more in line with the user's usage, and the operation of reciprocating replacement of medical personnel in the actual process is avoided. At the same time, it is also convenient for the management of equipment outbound information.

[0088] In the embodiment of the present invention, the specific operation of the damage degree evaluation algorithm in the data processing module is:

[0089] C1. After determining the user's situation of pure tone audiometry, output the user's measurement results using the impaired measurement frequency;

[0090] C2. Based on the hearing clarity feedback from the user, determine the measurement data from the first four times to the last, and calculate the average hearing loss result according to the calculation formula;

[0091] C3. Introducing the average hearing loss degree result into the hearing loss degree grading data for matching, and determining the user's hearing loss degree range.

[0092] Among them, when a user is tested, the hearing frequencies (Hz) are: 0.5kHz, 1kHz, 2kHz, 4kHz, and the strength results are: 45, 50, 55, 55, respectively. The average hearing loss value calculated is 51.25dB.

[0093] The hearing loss ranges are:

[0094] Normal hearing: The normal hearing range of a person is between 0-25 decibels (dB);

[0095] Mild hearing loss: 26-40dB; in this case, the patient has no or only a slight hearing loss, which generally does not affect the ability to communicate verbally;

[0096] Moderate hearing loss: 41-55dB; the patient feels hearing loss and needs the other party to repeat or slightly raise the voice in order to hear clearly during verbal communication;

[0097] Moderate to severe hearing loss: 56-70dB; hearing loss is obvious, and the other party needs to speak loudly in order to hear clearly during conversation;

[0098] Severe hearing loss: 71-90dB; when talking, the other party needs to shout loudly and the speaker can roughly understand what the speaker means by looking at the other party's mouth shape;

[0099] Extreme hearing loss: >91dB; if the hearing loss in both ears is long-term, in addition to severe hearing loss, the patient's speech will also be unclear;

[0100] According to the above results, the hearing level is moderate hearing loss.

[0101] In the embodiment of the present invention, the calculation formula of the average hearing loss degree result in C2 is:

[0102]

[0103] Where DB is the average hearing loss result value, k represents the number of data in the measurement operation, and (db) k This is the intensity value after the frequency is heard.

[0104] Among them, through the damage degree judgment algorithm in the data processing module, according to the hearing clarity feedback from the user himself, the measurement data extraction from the first to the last four times is determined, and the average hearing loss degree result is calculated according to the calculation formula. The average hearing loss degree result is introduced into the hearing loss degree grading data for matching, and the user's hearing loss degree range is determined. It is matched and combined with the model data to obtain the required equipment information, thereby completing information management and applying it to practice, while facilitating more convenient information interaction between users and medical facilities.

[0105] Embodiment 2 is different from Embodiment 1 in that: in the embodiment of the present invention, the data matching operation of combining the three-dimensional model data and the decibel data with the medical data repository in the data processing module is:

[0106] D1. Combining the stereo model data with the decibel data to obtain a hearing aid suitable for the user;

[0107] D2. At this time, device data that is close to and smaller than the three-dimensional model data is selected based on the three-dimensional model data, and decibel data is introduced based on the selected device data, and the decibel control range of the device data is selected to include the decibel data;

[0108] D3. Generate the device extraction instruction based on the matched device data and transmit it through the data transmission module.

[0109] In an embodiment of the present invention, after completing the matching operation between the user's medical information and the otolaryngology device information in the medical data repository, the information is bound for data tracing operations. At the same time, the bound unique information of the otolaryngology device will be presented in subsequent matching operations. When the inventory of products with the same otolaryngology device information is less than a set threshold, the management personnel will be informed through the display control panel to replenish it.

[0110] Meanwhile, the contents not described in detail in this specification belong to the prior art known to those skilled in the art.

[0111] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0112] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A comprehensive management system for processing otolaryngology medical data information, characterized by: include: An information collection module is used to collect the user's medical information and collect data on the user's ear features; The data management system receives and sorts the required data, quickly completes the search for hearing aids by processing and matching the medical data repository, and generates data instruction feedback transmission; The data screening module aggregates the data and classifies them according to the required information to obtain the image data of the ear and the hearing measurement data; The data processing module converts the image data of the ear into a three-dimensional model of the ear through an image conversion algorithm, and obtains the decibel data that the user can receive through the hearing measurement data through an impairment degree evaluation algorithm, and combines the three-dimensional model data and the decibel data with the data in the medical data repository to match, thereby outputting instructions that meet the user's requirements; a data transmission module, which transmits the required data instructions to the display control panel and the medical data repository to select the medical device; A medical data repository that stores user medical information, otolaryngology equipment information, and processed data; The ear equipment library includes hearing aids of different sizes and different decibel levels; Display a control panel that shows medical information data about the user and provides feedback on the data results in the form of data and charts.

2. The integrated management system for processing otolaryngology medical data information according to claim 1, characterized in that: The operation of the data screening module is: A1. First classify the image data into one category and the other data into another category; A2. Determine whether the image data contains ear features, classify the images collected in different directions, and group the images in the same direction into one group to form an image data set M; A3. The other data are filtered to retain the data about the user's ear hearing test, and a hearing test data set N is formed in parallel.

3. The integrated management system for processing otolaryngology medical data information according to claim 2, characterized in that: The specific operation of the image conversion algorithm in the data processing module is: B1, performing a proportional scaling operation on the features of the image data subset in the image data set M so that the corresponding parts of the feature parts in the image data subset have the same size; B2, determining the edge boundary of the feature based on the processed image data subset, and performing image matching and splicing operations according to the pixel points on the edge boundary; B3. Establish a spatial coordinate system, insert the image data subsets into the spatial coordinate system in sequence, and determine the common nodes of the image by combining the multi-directional image data, and sequentially form a three-dimensional model of the outside and inside of the ear.

4. The integrated management system for processing otolaryngology medical data information according to claim 3, characterized in that: The operation of B1 for scaling the feature portion of the image data subset is: b11. Based on the characteristic part of one of the image data subsets, first find the image data subset that has the same characteristic part area as the basic image data subset; b12. Determine a sideline between the basic image data subset and the image data subset to be scaled, and perform a feature scaling operation on the image data subset to be scaled according to the ratio of the two sidelines. The ratio formula of the image data subset to be scaled is: And n is the feature scaling factor of the image data subset, L1 is the edge length of the common features in the basic image data subset, and L2 is the edge length of the common features in the image data subset to be scaled; b13. The search for the next image data subset needs to be based on the processed feature part that has the same proportion as the basic image data subset.

5. The integrated management system for processing otolaryngology medical data information according to claim 3, characterized in that: The operation of forming a three-dimensional model according to the spatial coordinate system in B3 is: b31, taking the vertical image data subset in B1 as the base image, taking the bottom boundary of the base image as the X axis, the left boundary of the base image as the Z axis, and the intersection of the X axis and the Z axis as the origin of the coordinate system, and setting the Y axis at a right angle to the X axis and the Z axis to form a spatial coordinate system; b32, inserting the collected upper, lower, left and right image subset data into the spatial coordinate system in sequence according to the overlap of common feature parts along the Y-axis direction, and connecting them with the basic image; b33. At this time, the node coordinates of the common feature parts in the adjacent image subsets are determined to determine the specific coordinate position of the common feature parts in the space coordinate system, thereby forming a three-dimensional model image of the outside and inside of the ear.

6. The integrated management system for processing otolaryngology medical data information according to claim 5, characterized in that: The specific coordinate position determination method of b33 with respect to the characteristic part is: For example, there are two nodes marked in the front basic image, P1 and Q1, and the coordinates of P1 are marked as (x1, 0, z1), and the coordinates of Q1 are marked as (x2, 0, z2); The points corresponding to nodes P1 and Q1 in the left image data adjacent to the front basic image are P2 and Q2, respectively, and the coordinates of P2 are (0, y1, z1), and the coordinates of Q2 are (0, y1, z2); The corresponding points in the spatial coordinate system are P3 and Q3, and the coordinates of P3 are (x1, y1, z1), and the coordinates of Q2 are (x2, y1, z2).

7. The integrated management system for processing otolaryngology medical data information according to claim 1, characterized in that: The specific operation of the damage degree evaluation algorithm in the data processing module is as follows: C1. After determining the user's situation of pure tone audiometry, output the user's measurement results using the impaired measurement frequency; C2. According to the hearing clarity feedback from the user, determine the data from the last four times of hearing, and calculate the average hearing loss result according to the calculation formula; C3. Introducing the average hearing loss degree result into the hearing loss degree grading data for matching, and determining the user's hearing loss degree range.

8. The integrated management system for processing otolaryngology medical data information according to claim 7, characterized in that: The calculation formula for the average hearing loss degree in C2 is: Where DB is the average hearing loss result value, k represents the number of data in the measurement operation, and (db) k This is the intensity value after the frequency is heard.

9. The integrated management system for processing otolaryngology medical data information according to claim 1, characterized in that: The data matching operation in the data processing module combining the stereo model data and the decibel data with the medical data repository is: D1. Combining the stereo model data with the decibel data to obtain a hearing aid suitable for the user; D2. At this time, device data that is close to and smaller than the three-dimensional model data is selected based on the three-dimensional model data, and decibel data is introduced based on the selected device data, and the decibel control range of the device data is selected to include the decibel data; D3. Generate the device extraction instruction based on the matched device data and transmit it through the data transmission module.

10. The integrated management system for processing otolaryngology medical data information according to claim 1, characterized in that: After completing the matching operation between the user's medical information and the otolaryngology equipment information in the medical data repository, the information will be bound for data tracing operations. At the same time, the unique information of the bound otolaryngology equipment will be presented in subsequent matching operations. When the inventory of products with the same otolaryngology equipment information is less than the set threshold, the management personnel will be informed through the display control panel to replenish it.

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