Treatment system for tinnitus

By using middleware to connect the connecting rod and sleeve in the tinnitus therapy device, and using structures such as guide port and beryllium copper plate, the problem of the connecting rod of the tinnitus therapy device falling off is solved, achieving a more reliable connection.

CN110302008BActive Publication Date: 2024-12-27LUAN ANSHUO HEMODIALYSIS CENTER CO LTD
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Patent Information

Application Number
CN201910724222.0
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2019-08-07
Publication Date
2024-12-27
Estimated Expiration
2039-08-07

AI Technical Summary

Technical Problem

The connecting rod of the existing tinnitus therapy device is still movable after being plugged into the sleeve strip profile with the structure of the moving groove, resulting in a unreliable structure and prone to the problem of the connecting rod falling off.

Method used

The middleware is used to connect one end of the connecting rod away from the shell and the sleeve strip profile, and through the guide port, guide strip, limit port and beryllium copper plate, the connection is ensured to be more secure and prevent particulate impurities from entering.

Benefits of technology

It effectively avoids the problem of falling off between the connecting rod and the sleeve, and improves the stability and reliability of the structure.

✦ Generated by Eureka AI based on patent content.

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Abstract

A treatment system for tinnitus, including a connecting rod of a tinnitus treatment device, one end of which is away from a shell and fixedly connected to a sleeve; the structure of the connecting rod being fixedly connected to the sleeve at one end of the connecting rod away from the shell is as follows: the connecting rod at one end of the connecting rod away from the shell is connected to one end of a sleeve strip profile through an intermediate piece, a guide opening is respectively provided on the side walls opposite to each other between the connecting rod at one end of the connecting rod away from the shell and one end of the sleeve strip profile, and guide strips that can be combined with the guide opening are respectively provided on both sides of the intermediate piece, and the connecting rod at one end of the connecting rod away from the shell and one end of the sleeve strip profile have a first step wall opposite to the guide opening, and the first step wall has a limit opening. This effectively avoids the defects in the prior art that the end of the connecting rod away from the shell and the sleeve strip profile are still movable after being plugged in using a movable groove structure, the structure is not reliable, and the connecting rod away from the shell and the sleeve strip profile fall off.
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Description

Technical Field

[0001] The present invention relates to the technical field of tinnitus treatment, and in particular to a treatment system for tinnitus. Background Art

[0002] The ear is the auditory channel for people to perceive the outside world. Tinnitus is a common phenomenon, but frequent tinnitus or tinnitus that lasts for too long can also affect people's work and life.

[0003] In this way, there is a tinnitus therapeutic instrument. The tinnitus therapeutic instrument is based on masking therapy, uses the principle of sound wave conversion, directly acts on the ear, adjusts the auditory nerve, and thus eliminates tinnitus; a common tinnitus therapeutic instrument is used, which includes an arc block, the two ends of the arc block are respectively connected to a shell through a connecting rod, the two ends of the arc block are symmetrically provided with two installation grooves, and the inner walls on both sides of the installation groove are provided with a rotating shaft, the outer side of the rotating shaft is sleeved with a sleeve, and the end of the connecting rod away from the shell is fixedly connected to the sleeve, the side wall of the rotating shaft is provided with a groove opening toward the inner wall of the sleeve, and the bottom of the groove is connected with a card block through a spring, the inner wall of the sleeve is surrounded by a plurality of card slots matching the card block, and the sleeve is also surrounded by a plurality of slide grooves corresponding to the card slots, and the slide grooves are connected to the card slots, and a push rod is slidably connected in the slide groove, and the end of the push rod away from the card slot passes through the outer wall of the sleeve. Sound wave conversion devices are provided inside the two shells, and protective cotton pads are provided on the opposite side walls of the shell. The connecting rod is divided into a first connecting rod and a second connecting rod, and the end of the first connecting rod away from the sleeve is provided with a sliding cavity with an opening facing the second connecting rod, and the end of the second connecting rod away from the housing is inserted into the sliding cavity, and the inner walls on both sides of the sliding cavity are rotatably connected with gears through a rotating rod, and the rotating rod is arranged through the upper surface of the first connecting rod, and the inner walls on both sides of the second connecting rod are symmetrically provided with a plurality of tooth holes matching the gears. The inner walls on both sides of the tooth holes are provided with anti-slip patterns.

[0004] Such a tinnitus therapeutic instrument has a simple structure and is easy to operate. By setting mounting grooves at the two ends of the arc block, and the inner walls on both sides of the mounting groove are rotatably connected with sleeves through a rotating shaft; therefore, before use, the connecting rod can be rotated according to the size of the patient's head to adjust the distance between the two instruments. When adjustment is required, the block can be pushed out of the slot by the push rod, and the block can be made to slide downward in the groove to compress the spring. After the angle is adjusted, the instrument at the angle can be fixed by the cooperation of the block and the slot, so as to avoid the two instruments clamping the patient's ears and causing ear pain to the patient.

[0005] At present, the structure in which the end of the connecting rod away from the shell is fixedly connected to the sleeve is: the end of the connecting rod away from the shell is plugged into the sleeve strip profile using a movable groove structure, and is still movable after plugging, making the structure unstable and the problem of the connecting rod away from the shell and the sleeve strip profile often falling off occurs. Summary of the invention

[0006] In order to solve the above problems, the present invention provides a treatment system for tinnitus, which effectively avoids the defects in the prior art that the end of the connecting rod away from the shell is still movable after being plugged into the sleeve strip profile using a movable groove structure, the structure is unstable, and the connecting rod is away from the shell and falls off from the sleeve strip profile.

[0007] In order to overcome the deficiencies in the prior art, the present invention provides a solution for a treatment system for tinnitus, which is as follows:

[0008] A treatment system for tinnitus, comprising a connecting rod of a tinnitus treatment device, one end of which is away from a housing and fixedly connected to a sleeve;

[0009] The structure in which the end of the connecting rod away from the shell is fixedly connected to the sleeve is as follows: the end 2-1 of the connecting rod away from the shell is connected to the end 2-2 of the sleeve strip profile through the middle piece 3, and a guide opening 22 is respectively opened on the side walls opposite to each other between the end 2-1 of the connecting rod away from the shell and the end 2-2 of the sleeve strip profile, and guide strips 32 that can be combined with the guide opening 22 are respectively provided on both sides of the middle piece 3, and the end 2-1 of the connecting rod away from the shell and the end 2-2 of the sleeve strip profile have a first step wall 24 opposite to the guide opening 22, and the first step wall 24 has a limit opening 23, and the middle piece 3 has a beryllium copper plate 33 under the guide strip 32.

[0010] The middle of the beryllium copper plate 33 is fixedly connected to the intermediate member 3 , and both ends of the beryllium copper plate 33 are provided with bending sections 34 bending upwards, and the bending sections 34 can be embedded in the limiting opening 23 .

[0011] The upper part of the middle member 3 is connected to a shielding sheet 35, the middle of which is connected to the middle member 3. The end wall of the end 2-1 of the connecting rod away from the housing and the end wall of the end 2-2 of the sleeve strip profile are provided with a second stepped wall 25 located relative to the guide port 22, and the shielding sheet 35 can contact the second stepped wall 25. Through the second stepped wall 25, the size of the combined gap between the end 2-1 of the connecting rod away from the housing and the end 2-2 of the sleeve strip profile is narrower, preventing particulate matter and impurities from penetrating into the gap.

[0012] The lower end of the limit opening 23 has a plurality of evenly arranged grooves, and the edge of the bending section 34 has a plurality of protrusions opposite to the grooves. The shielding sheet 35, the middle piece 3 and the beryllium copper plate 33 are formed into an integral structure by stamping, and the shielding sheet 35, the middle piece 3 and the beryllium copper plate 33 are all made of beryllium copper.

[0013] The beneficial effects of the present invention are:

[0014] The present invention can firmly connect the end 2-1 of the connecting rod away from the housing and the end 2-2 of the sleeve strip profile, thereby firmly combining them, effectively avoiding the defects in the prior art that the end of the connecting rod away from the housing and the sleeve strip profile can still move after being plugged in using the structure of the movable groove, the structure is not firm, and the connecting rod away from the housing and the sleeve strip profile fall off. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 This is a structural diagram of the connection rod of the present invention, in which one end away from the housing is fixedly connected to the sleeve.

[0016] Figure 2 This is a structural diagram of the connecting rod of the present invention after one end away from the housing is separated from the sleeve. DETAILED DESCRIPTION

[0017] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0018] like Figure 1-Figure 2As shown, a treatment system for tinnitus includes a tinnitus treatment instrument, which includes an arc block, the two ends of the arc block are connected to a shell through a connecting rod, the two ends of the arc block are symmetrically provided with two installation grooves, and the inner walls on both sides of the installation groove are provided with a rotating shaft, the outer side of the rotating shaft is sleeved with a sleeve, and the end of the connecting rod of the tinnitus treatment instrument away from the shell is fixedly connected to the sleeve; the side wall of the rotating shaft is provided with a groove opening toward the inner wall of the sleeve, and the bottom of the groove is connected with a card block through a spring, the inner wall of the sleeve is surrounded by a plurality of card slots matching the card block, and the sleeve is also surrounded by a plurality of slide grooves corresponding to the card slots, and the slide grooves are connected to the card slots, and a push rod is slidably connected in the slide groove, and the end of the push rod away from the card slot passes through the outer wall of the sleeve. Sound wave conversion devices are provided inside the two shells, and protective cotton pads are provided on the side walls of the shells on the opposite sides. The connecting rod is divided into a first connecting rod and a second connecting rod, and the end of the first connecting rod away from the sleeve is provided with a sliding cavity with an opening facing the second connecting rod, and the end of the second connecting rod away from the housing is inserted in the sliding cavity, and the inner walls on both sides of the sliding cavity are connected with gears through a rotating rod, and the rotating rod is arranged through the upper surface of the first connecting rod, and the inner walls on both sides of the second connecting rod are symmetrically provided with a plurality of tooth holes matching the gears. The inner walls on both sides of the tooth holes are provided with anti-slip patterns. In this way, the tinnitus therapeutic instrument has a simple structure and is easy to operate. By setting mounting grooves at both ends of the arc block, and the inner walls on both sides of the mounting groove are connected with sleeves through a rotating shaft; therefore, before use, the connecting rod can be rotated according to the size of the patient's head to adjust the distance between the two instruments. When adjustment is required, the card block can be pushed out of the card slot by the push rod, and the card block can slide downward in the groove to compress the spring. After the angle is adjusted, the instrument at the angle can be fixed by the cooperation of the card block and the card slot, so as to avoid the two instruments clamping the patient's ears and causing pain to the patient's ears. The structure of the end of the connecting rod away from the housing and the sleeve being fixedly connected is as follows: the end 2-1 of the connecting rod away from the housing is connected to the end 2-2 of the sleeve strip profile through the middle piece 3, a guide opening 22 is respectively provided on the side walls opposite to each other between the end 2-1 of the connecting rod away from the housing and the end 2-2 of the sleeve strip profile, and guide strips 32 that can be combined with the guide opening 22 are respectively provided on both sides of the middle piece 3, the end 2-1 of the connecting rod away from the housing and the end 2-2 of the sleeve strip profile have a first stepped wall 24 opposite to the guide opening 22, the first stepped wall 24 has a limit opening 23, and the middle piece 3 has a beryllium copper plate 33 under the guide strip 32. The middle of the beryllium copper plate 33 is fixedly connected to the middle piece 3, and the two ends of the beryllium copper plate 33 have bending sections 34 bent upward, and the bending sections 34 can be embedded in the limit opening 23.The guide strips 32 on both sides of the middle piece 3 connect the end 2-1 of the connecting rod away from the housing and the pair of guide openings 22 on the end 2-2 of the sleeve strip profile, so that they are connected to form a connection structure with a wider range. Because the beryllium copper plate 33 has elastic characteristics, the bending section 34 can be more easily embedded when the middle piece 3 is assembled. When the driving effect of embedding the middle piece 3 is cancelled, the elastic reaction of the beryllium copper plate 33 allows the bending section 34 to firmly connect the end 2-1 of the connecting rod away from the housing and the end 2-2 of the sleeve strip profile, so that they can be firmly combined. A sheet-shaped shielding sheet 35 is connected to the upper part of the middle piece 3, and the middle of the shielding sheet 35 is connected to the middle piece 3. The end wall of the end 2-1 of the connecting rod away from the housing and the end wall of the end 2-2 of the sleeve strip profile have a second step wall 25 located relative to the guide opening 22, and the shielding sheet 35 can contact the second step wall 25. Through the second stepped wall 25, the size of the combined gap between the end 2-1 of the connecting rod away from the shell and the end 2-2 of the sleeve strip profile is narrower, preventing particulate impurities from penetrating into the gap. The lower end of the limit opening 23 has a number of evenly arranged grooves, and the edge of the bending section 34 has a number of protrusions opposite to the grooves. Because of the introduction of the grooves and protrusions, it is difficult for the assembled middle piece 3 and the aluminum profile 1 to shake. The shielding sheet 35, the middle piece 3 and the beryllium copper plate 33 are stamped to form an integral structure, and the shielding sheet 35, the middle piece 3 and the beryllium copper plate 33 are all made of beryllium copper.

[0019] With the development of Internet of Things technology, in order to remotely detect the humidity at the site of the tinnitus therapeutic instrument, a humidity sensor is set at the site of the tinnitus therapeutic instrument, the humidity sensor is connected to the controller, the controller is connected to the wireless communication module, the wireless communication module is connected to the monitoring device in the wireless network through a transfer station in the wireless network, the wireless communication module can be a WIFI module, the wireless network can be WLAN, the controller can be a single-chip microcomputer or a PLC, the monitoring device can be a PC or a laptop computer, and it is commonly used that, under the condition that there are several monitoring devices, there is only one transfer station in the wireless network, and the transfer station can be an intermediate server, so that the intermediate server can receive the humidity data collected by the humidity sensor, that is, the humidity sensor sends the humidity data of the tinnitus therapeutic instrument to the controller, and the controller receives the humidity data through the wireless communication. The module is transmitted to the intermediate server, and the intermediate server stores the humidity data of the tinnitus treatment device at the scene and calculates the arithmetic mean of the transmitted humidity data at regular intervals to obtain the humidity mean. The intermediate server can send the humidity data of the tinnitus treatment device at the scene in batches at regular intervals, and the humidity mean must be transmitted by means of the query instruction of the monitoring device, that is, when the monitoring device needs to obtain a humidity mean, it must transmit a query message to the intermediate server. After the intermediate server receives the query message, it can transmit the humidity mean to the monitoring device or send the humidity mean in batches; because under the current association mode, each humidity mean monitoring device must request the intermediate server, so the transmission performance of humidity data and humidity mean is not high, and it will also bring considerable pressure on the intermediate server to control the coordinated transmission of messages or instructions between the intermediate server and the monitoring device. To improve the transmission performance of humidity data and humidity mean, and reduce the pressure of the intermediate server to control the coordinated transmission of messages or instructions between the intermediate server and the monitoring device, after improvement, there is the following method for transmitting humidity data and humidity mean, which is specifically:

[0020] A humidity sensor is arranged at the site of the tinnitus treatment apparatus, the humidity sensor is connected to the controller, the controller is connected to the wireless communication module, the wireless communication module is connected to the monitoring device in the wireless network through a transfer station in the wireless network, the wireless communication module can be a WIFI module, the wireless network can be a WLAN, the controller can be a single chip microcomputer or a PLC, the monitoring device can be a PC or a laptop computer, and it is commonly used that, under the condition that there are several monitoring devices, there is only one transfer station in the wireless network, and the transfer station can be an intermediate server, so that the intermediate server can receive the humidity data collected by the humidity sensor, that is, the humidity sensor sends the humidity data of the tinnitus treatment apparatus to the controller, and the controller transmits it to the intermediate server through the wireless communication module, and the intermediate server stores the humidity data of the tinnitus treatment apparatus and calculates the arithmetic mean of the transmitted humidity data at regular intervals to obtain the humidity mean, and then the humidity mean and the humidity data are transmitted to the monitoring device in the wireless network via the intermediate server;

[0021] The method of transmitting to the monitoring device in the wireless network via the intermediate server, the method running in the intermediate server, includes the following manner:

[0022] SA-1: The identification codes of several humidity data and humidity average values ​​2 currently applied are determined through humidity data and humidity average value 1, wherein the humidity data and humidity average value 1 represent the humidity data and humidity average values ​​currently sent out by the intermediate server on a regular basis, and the several humidity data and humidity average values ​​2 represent the humidity data and humidity average values ​​other than the humidity data and humidity average values ​​included in the humidity data and humidity average value 1.

[0023] SA-2: Determine the transmission status of the plurality of humidity data and the humidity average value 2 by means of the identification codes of the plurality of humidity data and the humidity average value 2.

[0024] SA-3: Send the humidity data and humidity average value 1 in batches, wherein the humidity data and humidity average value 1 include the identification codes and transmission status of the humidity data and humidity average value 2, and the transmission status is used to indicate whether the corresponding humidity data and humidity average value 2 are in the process of transmission.

[0025] The intermediate server can determine the identification codes of the currently applied humidity data and humidity average value 2 through the humidity data and humidity average value 1, and determine the transmission status of the humidity data and humidity average value 2 based on the identification codes of the humidity data and humidity average value 2, so as to group-send the humidity data and humidity average value 1 including the identification codes and transmission status of the humidity data and humidity average value 2. The transmission status is used to represent whether the corresponding humidity data and humidity average value 2 are in the process of transmission. The humidity data and humidity average value 1 refer to the humidity data and humidity average value regularly group-sent by the intermediate server, and the humidity data and humidity average value 2 refer to the humidity data and humidity average value other than the humidity data and humidity average value included in the humidity data and humidity average value 1. Because the humidity data and humidity average 1 include the transmission status of each humidity data and humidity average 2, after the monitoring device receives the humidity data and humidity average sent by the intermediate server, it can determine whether the humidity data and humidity average 2 currently needed are in the process of transmission based on the humidity data and humidity average 1. If they are in the process of transmission, the humidity data and humidity average 2 can be directly obtained from the information of the intermediate server in the process of transmission, without having to request them from the intermediate server, and the intermediate server does not have to transmit the humidity data and humidity average 2 again. This improves the performance of transmitting humidity data and humidity average, and reduces the pressure of the intermediate server to control the coordinated transmission of messages or instructions between the intermediate server and the monitoring device.

[0026] The transfer conditions include transfer condition 1 and transfer condition 2, wherein the transfer condition 1 is used to represent that the corresponding humidity data and humidity mean value 2 are in the process of being transferred, and the transfer condition 2 is used to represent that the corresponding humidity data and humidity mean value 2 are not transferred.

[0027] For each humidity data and humidity mean 2 among the several humidity data and humidity mean 2, when the transmission condition of the humidity data and humidity mean 2 is transmission condition 1, the humidity data and humidity mean 1 also include the transmission method of the humidity data and humidity mean 2, and the transmission method includes a group transmission method or a point-to-point method.

[0028] For each humidity data and humidity mean value 2 among the plurality of humidity data and humidity mean value 2, when the humidity data and humidity mean value 2 are transmitted in a group transmission mode, the humidity data and humidity mean value 1 also include the group transmission address of the humidity data and humidity mean value 2.

[0029] The method of transmitting to the monitoring device in the wireless network via the intermediate server, the method running in the monitoring device, includes the following manner:

[0030] SB-1: Receive humidity data and humidity mean 1 sent in batches by the intermediate server. The first information includes identification codes and transmission status of a number of humidity data and humidity mean 2. The transmission status is used to represent whether the corresponding humidity data and humidity mean 2 are in the process of transmission. The humidity data and humidity mean 1 refer to the humidity data and humidity mean sent in batches by the intermediate server at regular intervals. The several humidity data and humidity mean 2 refer to humidity data and humidity mean other than the humidity data and humidity mean included in the humidity data and humidity mean 1.

[0031] SB-2: When it is necessary to obtain the target humidity data and the humidity mean, the transmission status of the target humidity data and the humidity mean is obtained through the humidity data and the humidity mean one by using the identification code of the target humidity data and the humidity mean, and the target humidity data and the humidity mean is any one of the several humidity data and the humidity mean two.

[0032] SB-3: When it is determined that the target humidity data and the humidity mean value are being transmitted based on the transmission status of the target humidity data and the humidity mean value, the target humidity data and the humidity mean value are obtained based on the information that the intermediate server is being transmitted.

[0033] The monitoring device can receive humidity data and humidity mean 1 sent by the intermediate server in a group, because the humidity data and humidity mean 1 include the identification codes and transmission conditions of several humidity data and humidity mean 2 supported by the intermediate server. Therefore, when the monitoring device needs to obtain the target humidity data and humidity mean, it can obtain the transmission condition of the target humidity data and humidity mean through the humidity data and humidity mean 1. The target humidity data and humidity mean is any one of the several humidity data and humidity mean 2. If it is determined that the target humidity data and humidity mean are being transmitted based on the transmission condition of the target humidity data and humidity mean, the target humidity data and humidity mean can be directly obtained based on the information that the intermediate server is being transmitted, without having to request it from the intermediate server, and the intermediate server does not have to transmit the humidity data and humidity mean 2 again. This improves the performance of transmitting humidity data and humidity mean, and reduces the pressure of the intermediate server to control the coordinated transmission of messages or instructions between the intermediate server and the monitoring device.

[0034] Before obtaining the target humidity data and the humidity mean value by means of the information being transmitted by the intermediate server, the method further includes:

[0035] Determine whether the transmission condition of the target humidity data and the humidity mean is transmission condition 1, wherein the transmission condition 1 is used to represent that the target humidity data and the humidity mean are in transmission;

[0036] When the transfer status of the target humidity data and the humidity mean value is the transfer status 1, it is determined that the target humidity data and the humidity mean value are in transfer.

[0037] The target humidity data and the humidity mean are obtained by means of the information being transmitted by the intermediate server, including:

[0038] By combining the humidity data and the humidity mean, a transmission method of obtaining the target humidity data and the humidity mean is obtained;

[0039] When the target humidity data and the humidity mean are transmitted in a group transmission mode, a group transmission address of the target humidity data and the humidity mean is obtained through the humidity data and the humidity mean;

[0040] By means of the group address, the target humidity data and the humidity mean are obtained from the information being transmitted via the intermediate server.

[0041] The method of transmitting to the monitoring device in the wireless network via the intermediate server, the communication parties of the method are the intermediate server and the monitoring device, and the method includes the following manner:

[0042] SC-1: The intermediate server determines the identification codes of the currently applied humidity data and humidity average 2 through humidity data and humidity average 1, wherein humidity data and humidity average 1 represent the humidity data and humidity average that are currently sent out by the intermediate server on a regular basis, and the humidity data and humidity average 2 represent the humidity data and humidity average other than the humidity data and humidity average included in humidity data and humidity average 1.

[0043] The humidity data and humidity average value 1 can include identification codes of several humidity data and humidity average value 2 currently used by the intermediate server, so the intermediate server can determine the identification codes of the several humidity data and humidity average value 2 from the humidity data and humidity average value 1.

[0044] SC-2: The intermediate server determines the transmission status of the humidity data and the humidity average value 2 by means of the identification codes of the humidity data and the humidity average value 2, and the transmission status is used to represent whether the corresponding humidity data and the humidity average value 2 are in the process of transmission.

[0045] The intermediate server can determine the several humidity data and the humidity average value 2 supported by the intermediate server by means of the identification codes of the several humidity data and the humidity average value 2, and thereby determine whether the humidity data and the humidity average value 2 in the several humidity data and the humidity average value 2 are in the process of transmission, that is, to determine the transmission status of each humidity data and the humidity average value in the several humidity data and the humidity average value 2.

[0046] SC-3: The intermediate server sends the humidity data and humidity average value 1 in a batch, and the humidity data and humidity average value 1 include the identification codes and transmission status of the humidity data and humidity average value 2.

[0047] After determining the transmission status of each humidity data and humidity average value 2 among the plurality of humidity data and humidity average value 2, the intermediate server can add the transmission status of each humidity data and humidity average value 2 to the mass-sent humidity data and humidity average value 1 to indicate whether the corresponding humidity data and humidity average value 2 are in the process of transmission.

[0048] Here, the intermediate server can periodically group-send the humidity data and the humidity average value 1. The timing duration of the group-sending of the humidity data and the humidity average value 1 can be preset by the intermediate server, and can also be determined by a preset agreement between the intermediate server and the monitoring device.

[0049] The transfer situation can include a transfer situation 1 and a transfer situation 2, wherein the transfer situation 1 is used to represent that the corresponding humidity data and the humidity mean value 2 are in the process of being transferred, and the transfer situation 2 is used to represent that the corresponding humidity data and the humidity mean value 2 are not transferred.

[0050] Taking into account that among the several humidity data and humidity average 2, some humidity data and humidity average 2 may be transmitted by the intermediate server, while some humidity data and humidity average 2 may not be transmitted by the intermediate server, it is necessary to clearly represent whether each humidity data and humidity average 2 is in the process of transmission. The transmission status can include the above two transmission status.

[0051] A pair of different situation identification codes can be used to represent the above two transmission situations respectively, such as situation identification code 1 can represent transmission situation 1, and situation identification code 2 can represent transmission situation 2. For example, the situation identification code 1 can be X, and the situation identification code 2 can be Y.

[0052] For each humidity data and humidity mean 2 among the several humidity data and humidity mean 2, when the transmission condition of the humidity data and humidity mean 2 is transmission condition 1, the humidity data and humidity mean 1 can also include a transmission method of the humidity data and humidity mean 2, and the transmission method includes a group transmission method or a point-to-point method.

[0053] That is, for the humidity data and humidity average value 2 that are in transmission, the intermediate server can also determine the transmission method of the humidity data and humidity average value 2, that is, to determine that the humidity data and humidity average value 2 are being transmitted through group transmission, or through point-to-point transmission, and the transmission method of the humidity data and humidity average value 2 is represented in the humidity data and humidity average value 1.

[0054] Two identical transmission representative identifiers can be used to represent the above two transmission modes respectively, just as transmission identifier one can be used to represent the group transmission mode and transmission identifier two can be used to represent the point-to-point mode; just as transmission identifier one can be R and transmission identifier two can be S.

[0055] For each humidity data and humidity mean value 2 among the plurality of humidity data and humidity mean value 2, when the humidity data and humidity mean value 2 are transmitted in a group transmission mode, the humidity data and humidity mean value 1 also include the group transmission address of the humidity data and humidity mean value 2.

[0056] That is, for the humidity data and humidity average value 2 being transmitted in a mass messaging manner, the intermediate server can further identify the mass messaging address of the humidity data and humidity average value 2, and represent the mass messaging address of the humidity data and humidity average value 2 in the humidity data and humidity average value 1.

[0057] SC-4: The monitoring device receives humidity data and humidity average sent by the intermediate server.

[0058] The monitoring equipment connected to the intermediate server can receive humidity data and humidity average sent by the intermediate server.

[0059] SC-5: When it is necessary to obtain the target humidity data and the humidity mean, the monitoring device obtains the transmission status of the target humidity data and the humidity mean through the humidity data and the humidity mean one by relying on the identification code of the target humidity data and the humidity mean, and the target humidity data and the humidity mean is any one of the several humidity data and the humidity mean two.

[0060] When the target humidity data and the average humidity value need to be obtained, the monitoring device can retrieve the corresponding transmission status of the identification code of the target humidity data and the average humidity value from the humidity data and the average humidity value, and determine the corresponding transmission status of the identification code of the target humidity data and the average humidity value as the transmission status of the target humidity data and the average humidity value. Then, it can be determined whether the target humidity data and the average humidity value are being transmitted based on the transmission status of the target humidity data and the average humidity value.

[0061] The period of determining whether the target humidity data and the humidity mean are in the process of transmission based on the transmission status of the target humidity data and the humidity mean includes: determining whether the transmission status of the target humidity data and the humidity mean is transmission status one; when the transmission status of the target humidity data and the humidity mean is transmission status one, determining that the target humidity data and the humidity mean are in the process of transmission; when the transmission status of the target humidity data and the humidity mean is transmission status two, determining that the target humidity data and the humidity mean are not transmitted.

[0062] SC-6: When it is determined that the target humidity data and the humidity mean value are being transmitted based on the transmission status of the target humidity data and the humidity mean value, the monitoring device obtains the target humidity data and the humidity mean value based on the information that the intermediate server is in the process of transmission.

[0063] Here, the process of obtaining the target humidity data and humidity mean by means of the information being transmitted by the intermediate server includes: obtaining the transmission method of the target humidity data and humidity mean through the humidity data and humidity mean; when the transmission method of the target humidity data and humidity mean is a group transmission method, obtaining the group transmission address of the target humidity data and humidity mean through the humidity data and humidity mean; and obtaining the target humidity data and humidity mean from the information being transmitted by the intermediate server by means of the group transmission address.

[0064] When it is determined that the target humidity data and the average humidity value are not being transmitted based on the transmission situation of the target humidity data and the average humidity value, or when it is determined that the target humidity data and the average humidity value are being transmitted based on the transmission situation of the target humidity data and the average humidity value and the transmission mode is point-to-point, the monitoring device can transmit a query message to the intermediate server, and the query message has an identification code of the target humidity data and the average humidity value, which is used to request the intermediate server to transmit the target humidity data and the average humidity value to the monitoring device. After the intermediate server receives the query message, it can transmit the target humidity data and the average humidity value to the monitoring device.

[0065] That is, when one of the monitoring devices connected to the intermediate server needs to obtain the target humidity data and the humidity average, among the several humidity data and the humidity average 2 that the intermediate server can use, some of the humidity data and the humidity average 2 may be transmitted by the intermediate server, and some of the humidity data and the humidity average 2 may not be transmitted. In addition, among the humidity data and the humidity average 2 being transmitted, some may be transmitted in a group manner, and some may be transmitted in a point-to-point manner; for the humidity data and the humidity average 2 transmitted in a group manner, if the monitoring device knows the group address of the humidity data and the humidity average 2, it can receive the target humidity data and the humidity average 2 being sent in a group by the intermediate server through the group address; for the humidity data and the humidity average 2 transmitted in a point-to-point manner, because the humidity data and the humidity average 2 are transmitted from the intermediate server to another monitoring device in an end-to-end manner rather than in a group manner, the monitoring device will not be able to receive the humidity data and the humidity average 2.

[0066] Therefore, when the target humidity data and the average humidity value are not being transmitted, the monitoring device can only request them from the intermediate server. When the target humidity data and the average humidity value are being transmitted, the monitoring device can retrieve the transmission mode of the target humidity data and the average humidity value from the humidity data and the average humidity value. If the transmission mode of the target humidity data and the average humidity value is a mass transmission mode, the monitoring device can directly receive the target humidity data and the average humidity value being mass-sent by the intermediate server by using the mass transmission address of the target humidity data and the average humidity value; and if the transmission mode of the target humidity data and the average humidity value is a point-to-point mode, the monitoring device also needs to request them from the intermediate server.

[0067] By receiving the target humidity data and humidity mean being mass-sent by the intermediate server through the mass-sending address of the target humidity data and humidity mean, it is prevented that the monitoring device has to transmit a request to the intermediate server to obtain the target humidity data and humidity mean, thereby improving the transmission performance of the target humidity data and humidity mean, and also preventing the intermediate server from having to mass-send the target humidity data and humidity mean again, thereby reducing the pressure on the intermediate server to coordinate the transmission of messages or instructions between the intermediate server and the monitoring device.

[0068] Here, the target humidity data and humidity mean are only expressed as any one of the humidity data and humidity mean 2 supported by the intermediate server. In actual practice, different intermediate servers may use different humidity data and humidity mean 2. The humidity data and humidity mean 2 required by the monitoring device may not be within the humidity data and humidity mean 2 currently supported by the corresponding intermediate server. Therefore, when the monitoring device needs to obtain humidity data and humidity mean 2, it can also first determine whether the humidity data and humidity mean 1 contain the identification code of the humidity data and humidity mean 2 to be obtained. When it has the identification code of the humidity data and humidity mean 2 to be obtained, continue to execute SC-5 and SC-6. Otherwise, SC-5 and SC-6 will not be executed, and it will not be requested from the intermediate server.

[0069] The intermediate server can determine the identification codes of the currently applied humidity data and humidity average value 2 from the humidity data and humidity average value 1, and determine the transmission status of the humidity data and humidity average value 2 based on the identification codes of the humidity data and humidity average value 2, and thereby group-send the humidity data and humidity average value 1 including the identification codes and transmission status of the humidity data and humidity average value 2. The transmission status is used to represent whether the corresponding humidity data and humidity average value 2 are in the process of transmission. The humidity data and humidity average value 1 refer to the humidity data and humidity average value group-sent regularly by the intermediate server, and the humidity data and humidity average value 2 refer to the humidity data and humidity average value other than the humidity data and humidity average value included in the humidity data and humidity average value 1. Because the humidity data and humidity average 1 include the transmission status of each humidity data and humidity average 2, after the monitoring device receives the humidity data and humidity average sent by the intermediate server, it can determine whether the humidity data and humidity average 2 currently needed are in the process of transmission based on the humidity data and humidity average 1. If they are in the process of transmission, the humidity data and humidity average 2 can be directly obtained from the information of the intermediate server in the process of transmission, without having to request them from the intermediate server, and the intermediate server does not have to transmit the humidity data and humidity average 2 again. This improves the performance of transmitting humidity data and humidity average, and reduces the pressure of the intermediate server to control the coordinated transmission of messages or instructions between the intermediate server and the monitoring device.

[0070] The intermediate server can determine the identification codes of the currently applied humidity data and humidity average value 2 through the humidity data and humidity average value 1, and determine the transmission status of the humidity data and humidity average value 2 based on the identification codes of the humidity data and humidity average value 2, and thereby group-send the humidity data and humidity average value 1 including the identification codes and transmission status of the humidity data and humidity average value 2. The transmission status is used to represent whether the corresponding humidity data and humidity average value 2 are in the process of transmission. The humidity data and humidity average value 1 refer to the humidity data and humidity average value group-sent regularly by the intermediate server, and the humidity data and humidity average value 2 refer to the humidity data and humidity average value other than the humidity data and humidity average value included in the humidity data and humidity average value 1. Because the humidity data and humidity average 1 include the transmission conditions of each humidity data and humidity average 2, after the monitoring device receives the humidity data and humidity average sent by the intermediate server, it can determine that it can directly obtain the humidity data and humidity average 2 from the information being transmitted by the intermediate server based on the humidity data and humidity average 1, without having to request it from the intermediate server, and the intermediate server does not have to transmit the humidity data and humidity average 2 again. This improves the performance of transmitting humidity data and humidity averages and reduces the pressure on the intermediate server to control the coordinated transmission of messages or instructions between the intermediate server and the monitoring device.

[0071] The present invention has been described above in an illustrative manner using embodiments. Those skilled in the art should understand that the present disclosure is not limited to the embodiments described above, and that various changes, modifications and substitutions may be made without departing from the scope of the present invention.

Claims

1. A treatment system for tinnitus, comprising a connecting rod of a tinnitus treatment device, one end of which is away from the housing and is fixedly connected to a sleeve; It is characterized in that The structure of the end of the connecting rod away from the housing and the sleeve being fixedly connected is as follows: the end of the connecting rod away from the housing is connected to one end of the sleeve strip profile through an intermediate piece, a guide opening is respectively provided on the side walls opposite to each other between the end of the connecting rod away from the housing and one end of the sleeve strip profile, and guide strips that can be combined with the guide opening are respectively provided on both sides of the intermediate piece, the end of the connecting rod away from the housing and one end of the sleeve strip profile have a first stepped wall opposite to the guide opening, the first stepped wall has a limiting opening, and the intermediate piece has a beryllium copper plate under the guide strip; The middle of the beryllium copper plate is fixedly connected to the intermediate piece, and the two ends of the beryllium copper plate are respectively provided with bending sections bending upward, and the bending sections can be embedded in the limit opening; The upper part of the middle piece is connected to a shielding sheet, the middle of the shielding sheet is connected to the middle piece, the end wall of the connecting rod away from the housing and the end wall of the sleeve strip profile have a second step wall located relative to the guide port, and the shielding sheet can contact the second step wall; The lower end of the limit opening is provided with a plurality of evenly arranged grooves, and the edge of the bending section is provided with a plurality of protrusions opposite to the grooves; The shielding sheet, the middle piece and the beryllium copper plate are formed into an integral structure by stamping, and the shielding sheet, the middle piece and the beryllium copper plate are all made of beryllium copper material.

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