A headband-mounted wireless communication device that can monitor heart rate parameters

Abstract

This invention discloses a head-mounted wireless communicator capable of monitoring heart rate parameters, belonging to the field of wireless communicator technology. It includes a fitting component, an ear loop, and a communication component. The fitting component comprises a fitting shell, an exhaust port, a pneumatic suction cup, a connecting tube, a miniature air pump, a motor, a heart rate monitor, and a sealing ring. During wear, the device's stability is ensured through triple fixation: the earphone body is inserted into the ear, the ear loop fits the auricle, and the fitting shell adheres to the skin. This improved stability significantly reduces the probability of the device falling out. Furthermore, the distributed force points on the device at three points greatly reduce ear burden and discomfort caused by inserting the earphone body into the ear. Additionally, the high degree of freedom of rotation via a bidirectional swivel and a bidirectional telescopic swivel allows the device to fit various ear shapes.

Description

Technical Field

[0001] This invention relates to the field of wireless communication technology, specifically to a head-mounted wireless communication device capable of monitoring heart rate parameters. Background Technology

[0002] Wireless headsets, also known as wireless earphones, are common communication devices on the market. Compared to traditional wired headsets, wireless headsets eliminate the hassle of tangled wires, and with the increasing maturity of Bluetooth technology, wireless headsets have become the most common type of communication device.

[0003] Wearing a wireless communicator to play games and "team up" with online friends are common uses of wireless communicators. However, for patients with heart conditions, the heart rate increases as the game becomes more intense. This intense heartbeat can have a significant impact on the heart rate of patients with heart conditions. Most wireless communicators on the market cannot monitor the user's heart rate parameters and take effective intervention and warning measures when the heart rate of a patient with heart conditions fluctuates greatly. Continuing to play games when the heart rate of a patient with heart conditions fluctuates greatly can easily lead to a heart attack and endanger their life.

[0004] Therefore, in view of this, we have studied and improved the existing structure and its shortcomings, and proposed a head-mounted wireless communicator that can monitor heart rate parameters. Summary of the Invention

[0005] The purpose of this invention is to provide a head-mounted wireless communication device that can monitor heart rate parameters, so as to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a head-mounted wireless communicator capable of monitoring heart rate parameters, comprising a fitting component, an ear loop, and a communication component. The fitting component includes a fitting shell, an exhaust port, a pneumatic suction cup, a connecting tube, a miniature air pump, a motor, a heart rate monitor, and a sealing ring. An exhaust port is provided on the outer top of the fitting shell, and a pneumatic suction cup is disposed on the inner bottom of the fitting shell. The outer end of the pneumatic suction cup is connected to the connecting tube, and a miniature air pump is disposed at the end of the connecting tube. A motor is disposed on the top inner side of the fitting shell, and a heart rate monitor is disposed in the middle of the bottom of the fitting shell. A sealing ring is connected to the outer bottom edge of the fitting shell. A bidirectional rotating shaft is connected to the outer top of the fitting shell. The ear loop is connected to the side of the bidirectional rotating shaft away from the fitting shell, and the end of the ear loop is connected to a bidirectional telescopic rotating shaft. The communication component is disposed on the side of the bidirectional telescopic rotating shaft away from the ear loop.

[0007] Furthermore, the micro air pump is connected to the micro air pump via a connecting pipe, and the micro air pump is connected to the exhaust port.

[0008] Furthermore, the fitting shell is fitted behind the human ear, the pneumatic suction cup is attached to the human skin, and the heart rate monitor is fitted to the human skin.

[0009] Furthermore, the sealing ring is bonded to the housing and adheres to human skin.

[0010] Furthermore, the motor drives the bidirectional rotating shaft to rotate, and the bidirectional rotating shaft is rotatably connected to the earring.

[0011] Furthermore, the call component includes an earphone body, a sound outlet, and a body temperature monitor. The sound outlet is located at the outer end of the earphone body, and the body temperature monitor is located at the middle of the inner side of the earphone body.

[0012] Furthermore, the earphone body is rotatably connected to the bidirectional telescopic shaft, and the bidirectional telescopic shaft is rotatably connected to the ear hook, and the ear hook fits snugly against the auricle.

[0013] Furthermore, an upload module is installed inside the fitted shell, and the output end of the upload module is connected to an analysis module. The output end of the analysis module is connected to an execution module. The output end of the execution module is connected to a prompt module, and the output end of the prompt module is connected to an emergency dialing module.

[0014] Furthermore, the upload module is electrically connected in series with the heart rate monitor and the body temperature monitor, and the upload module is connected to the analysis module via a wireless signal.

[0015] Furthermore, the execution module is wirelessly connected to the motor and the micro air pump, and the execution module performs software and hardware processing tasks after a heart rate abnormality.

[0016] This invention provides a head-mounted wireless communicator capable of monitoring heart rate parameters, offering the following advantages: During wear, the device's stability is ensured through a triple-fixation mechanism: the earpiece inserts into the ear, the ear loop fits snugly against the auricle, and the shell adheres to the skin. This enhanced stability significantly reduces the probability of the device falling out, allowing for prolonged heart rate monitoring. Furthermore, the distributed pressure points at three points greatly reduce ear strain and discomfort caused by the earpiece being inserted into the ear. Additionally, the high degree of freedom of rotation via a bidirectional swivel and a bidirectional telescopic swivel allows the device to fit various ear shapes. (The last sentence appears to be incomplete and possibly refers to a different device, "If the user's heart rate..."). When in an abnormal state, the execution module drives the motor, which in turn drives the bidirectional shaft to rotate. This rotation causes the ear loop to rotate as well, separating it from the ear. Simultaneously, the rotation of the ear loop removes the communication component from the ear. At the same time, the execution module activates a miniature air pump, which rotates in reverse, allowing air to be re-injected into the air-controlled suction cup. Once air is injected into the suction cup, the vacuum is released, and the adhesion between the device and the user is released. By releasing the adhesion and removing the ear loop and communication component from the ear, the device can quickly reconnect with the user, allowing the user to quickly notice the abnormality.

[0017] 1. In this invention, after the air-controlled suction cup at the bottom of the adhesive shell is attached to the area behind and below the ear, a miniature air pump will operate. This allows the air inside the air-controlled suction cup to be drawn into the connecting tube and discharged to the outside of the device through the exhaust port via the miniature air pump. At this time, a vacuum state is formed inside the air-controlled suction cup, which allows the air-controlled suction cup to adhere to the human skin through negative pressure, thereby ensuring the stability of the adhesion between the adhesive shell and the human skin. During the process of the adhesive shell adhering to the skin, the sealing ring can also adhere to the human skin. The sealing ring is flexible, which can avoid causing discomfort to the human body when the device is attached to the human body. When the sealing ring is attached to the human body, it can seal the bottom surface of the adhesive shell from the edge of the adhesive shell. By working together with the adsorption of the human body by the air-controlled suction cup, the adhesion stability between the adhesive shell and the human body can be improved.

[0018] 2. This invention allows the earring to rotate via a bidirectional rotating shaft by pulling it. Thanks to the dual-segment rotation joint of the bidirectional rotating shaft, the position of the earring can be flexibly adjusted, ensuring a complete fit between the earring and the auricle after rotation. After the earring is fixed, pulling the earphone body causes it to rotate and extend via the bidirectional telescopic rotating shaft, allowing the earphone body to be inserted into the ear. The device is then worn on the head. During wear, the fit between the earphone body and the auricle, along with the overall fit, ensures optimal comfort. The triple fixation of the shell to the human skin ensures the stability of the device when worn. By improving wearing stability, the probability of the device falling off during wear is greatly reduced. This allows the device to be worn on the head for extended periods to achieve long-term heart rate monitoring. In addition, because the device's pressure points are distributed in three places, it greatly reduces the ear burden and discomfort caused by inserting the earphone into the ear. Furthermore, thanks to the high degree of freedom of rotation of the bidirectional swivel and bidirectional telescopic swivel, the device can be fitted to people with various ear shapes, thus achieving flexibility in use.

[0019] 3. After the housing of this invention is fitted to the human body, the heart rate monitor can also be fitted to the human body surface. Because the housing is located behind the ear, which is close to the carotid artery, the heart rate monitor can monitor the human heart rate through the carotid artery. In addition, the device is placed in both ears, which allows the device to obtain two sets of heart rate monitoring results. When the device performs statistical analysis on the heart rate results, it can compare the two sets of heart rate results, which can greatly reduce the probability of misjudgment. Furthermore, when the call component is not in use, pulling up the bidirectional telescopic hinge can rotate the call component and fold the call component at the outer end of the ear loop. Since the ear loop can be hidden in the auricle, and the housing component can also be hidden behind the ear, the call component can be well hidden in the ear when not in use, while the heart rate monitor can still monitor the human heart rate. In this way, the call component can be worn in the ear for a long time when not in use.

[0020] 4. After the analysis module of this invention completes the analysis of heart rate information, if the user's heart rate is abnormal, the execution module will drive the motor. After the motor is driven, it will drive the bidirectional rotating shaft to rotate. After the bidirectional rotating shaft rotates, it will drive the ear hook to rotate together, which allows the ear hook to separate from the auricle. At the same time, when the ear hook rotates, it can drive the communication component to move out of the ear. Simultaneously, the execution module will work a micro air pump. After the micro air pump is driven by the execution module, it will rotate in the opposite direction, which allows air to be re-injected into the air-controlled suction cup. After the air is injected into the air-controlled suction cup, the vacuum state will be released. At this time, the adhesion between the shell and the human body will be released. By releasing the adhesion between the shell and the human body and removing the ear hook and communication component from the ear, the connection between the device and the human body can be quickly established. This allows users who wear the device to play games to quickly notice the abnormality, thereby reducing the probability of sudden heart attacks caused by arrhythmia. Attached Figure Description

[0021] Figure 1 This is a frontal view of the overall structure of a head-mounted wireless communicator capable of monitoring heart rate parameters according to the present invention.

[0022] Figure 2 This is a schematic diagram of a head-mounted wireless communicator capable of monitoring heart rate parameters, as described in this invention, when worn on a human body.

[0023] Figure 3 This is a schematic diagram of the bottom structure of the fitting component of a head-mounted wireless communicator capable of monitoring heart rate parameters according to the present invention;

[0024] Figure 4 This is a schematic diagram of the internal structure of the bonding component of a head-mounted wireless communicator capable of monitoring heart rate parameters according to the present invention.

[0025] Figure 5 This is a schematic diagram of the communication component structure of a head-mounted wireless communicator capable of monitoring heart rate parameters according to the present invention.

[0026] Figure 6 This is a schematic diagram showing the communication component of a head-mounted wireless communicator capable of monitoring heart rate parameters when worn by a human body according to the present invention.

[0027] Figure 7 This is a schematic diagram of an abnormal heart rate state when a head-mounted wireless communicator capable of monitoring heart rate parameters is worn by a human body according to the present invention.

[0028] Figure 8 This is a schematic diagram of the heart rate monitoring process of a head-mounted wireless communicator capable of monitoring heart rate parameters according to the present invention.

[0029] In the diagram: 1. Adhesion assembly; 101. Adhesion shell; 102. Exhaust port; 103. Pneumatic suction cup; 104. Connecting pipe; 105. Miniature air pump; 106. Motor; 107. Heart rate monitor; 108. Sealing ring; 2. Bidirectional rotating shaft; 3. Ear loop; 4. Bidirectional telescopic rotating shaft; 5. Communication assembly; 501. Earphone body; 502. Sound outlet; 503. Body temperature monitor; 6. Upload module; 7. Analysis module; 8. Execution module; 9. Prompt module; 10. Emergency dialing module. Detailed Implementation

[0030] Please see Figures 1 to 8 The present invention provides a technical solution: a head-mounted wireless communicator capable of monitoring heart rate parameters, comprising a fitting component 1, an ear loop 3, and a communication component 5. The fitting component 1 includes a fitting shell 101, an exhaust port 102, a pneumatic suction cup 103, a connecting pipe 104, a miniature air pump 105, a motor 106, a heart rate monitor 107, and a sealing ring 108. An exhaust port 102 is provided on the outer top of the fitting shell 101, and a pneumatic suction cup 103 is disposed on the inner bottom of the fitting shell 101. The outer end of the pneumatic suction cup 103 is connected to the connecting pipe 104. 04, and a miniature air pump 105 is provided at the end of the connecting pipe 104, a motor 106 is installed on the top inner side of the fitting housing 101, and a heart rate monitor 107 is provided at the middle bottom of the fitting housing 101. A sealing ring 108 is connected to the outer bottom edge of the fitting housing 101, and a bidirectional rotating shaft 2 is connected to the outer top of the fitting housing 101. An ear loop 3 is connected to the side of the bidirectional rotating shaft 2 away from the fitting housing 101, and a bidirectional telescopic rotating shaft 4 is connected to the end of the ear loop 3. The communication component 5 is placed on the side of the bidirectional telescopic rotating shaft 4 away from the ear loop 3.

[0031] Please see Figures 1 to 6 A miniature air pump 105 is connected to a connecting pipe 104 and an exhaust port 102. The fitting shell 101 is fitted behind the human ear. The air-controlled suction cup 103 is attached to the human skin. The heart rate monitor 107 is attached to the human skin. The sealing ring 108 is bonded to the fitting shell 101 and is attached to the human skin. The motor 106 drives the bidirectional rotating shaft 2 to rotate and is rotatably connected to the ear hook 3. The communication component 5 includes an earphone body 501, a sound outlet 502, and a body temperature monitor 503. The earphone body 501 has a sound outlet 502 at its outer end and a body temperature monitor 503 at its inner middle. The earphone body 501 is rotatably connected to the bidirectional telescopic rotating shaft 4 and is rotatably connected to the ear hook 3, which is fitted to the auricle.

[0032] The specific operation is as follows: After the user attaches the air-controlled suction cup 103 at the bottom of the fitting housing 101 to the area behind and below the ear, the miniature air pump 105 will operate. This allows the air inside the air-controlled suction cup 103 to be drawn into the connecting pipe 104 and discharged to the outside of the device through the exhaust port 102 via the miniature air pump 105. At this time, a vacuum state will be formed inside the air-controlled suction cup 103, which will allow the air-controlled suction cup 103 to adhere to the human skin through negative pressure, ensuring the stability of the fit between the fitting housing 101 and the human skin. During the process of the fitting housing 101 adhering to the skin, the sealing ring 108 can also adhere to the human skin. The sealing ring 108 is flexible, which can avoid causing discomfort to the human body when the device is attached to the human body. When the earpiece is in contact with the body, it can seal the bottom surface of the housing 101 from the edge. Combined with the suction cup 103's adsorption of the human body, the stability of the fit between the housing 101 and the body is improved. After the housing 101 is in contact with the body, pulling the ear loop 3 allows it to rotate via the bidirectional rotating shaft 2. Thanks to the dual-segment rotation joint of the bidirectional rotating shaft 2, the position adjustment of the ear loop 3 is flexible, ensuring that the ear loop 3 can completely fit the auricle of the ear after rotation. After the ear loop 3 is fixed, pulling the earphone body 501 causes it to rotate and extend the bidirectional telescopic rotating shaft 4, allowing the earphone body 501 to be inserted into the ear. Thus, the device can be inserted into the ear. Once the device is fully worn on the head, its stability is ensured by the triple fixation of the earphone body 501 inserted into the ear, the ear loop 3 fitting the auricle, and the skin-adhesive attachment of the housing 101. This enhanced stability significantly reduces the probability of the device falling out, allowing for extended wear and heart rate monitoring. Furthermore, the distributed pressure points in three locations greatly reduce ear strain and discomfort caused by the earphone body 501 being inserted into the ear. Additionally, the high degree of freedom of rotation of the bidirectional hinge 2 and bidirectional telescopic hinge 4 allows the device to fit various ear shapes, enhancing its usability. Both the bidirectional rotating shaft 2 and the bidirectional telescopic rotating shaft 4 are damped rotating shafts, which gives them good positioning effect after adjustment. After the fitting shell 101 is fitted to the human body, the heart rate monitor 107 can also be fitted to the human body surface. Because the fitting shell 101 is located behind the ear, which is close to the carotid artery, the heart rate monitor 107 can monitor the human heart rate through the carotid artery. In addition, the device is placed in both the left and right ears, which allows the device to obtain two sets of heart rate monitoring results. When the device performs statistical analysis on the heart rate results, it can compare the two sets of heart rate results, which can greatly reduce the probability of misjudgment. In addition, when the communication component 5 is not in use, it can be closed by pulling up the bidirectional telescopic rotating shaft 4.The bidirectional telescopic pivot 4 allows the communication component 5 to rotate and fold at the outer end of the ear loop 3. Since the ear loop 3 can be concealed at the auricle, and the fitting component 1 can also be concealed behind the ear, the communication component 5 can be well concealed in the ear when not in use. Meanwhile, the heart rate monitor 107 can still monitor the heart rate. In this way, the communication component 5 can be worn in the ear for extended periods when not in use.

[0033] Please see Figure 7 and Figure 8 An upload module 6 is installed inside the housing 101, and the output end of the upload module 6 is connected to the analysis module 7. The output end of the analysis module 7 is connected to the execution module 8. The output end of the execution module 8 is connected to the prompt module 9, and the output end of the prompt module 9 is connected to the emergency dialing module 10. The upload module 6 is electrically connected in series with the heart rate monitor 107 and the body temperature monitor 503, and the upload module 6 and the analysis module 7 are connected wirelessly. The execution module 8 is connected wirelessly with the motor 106 and the micro air pump 105, and the execution module 8 performs software and hardware processing work after the heart rate is abnormal.

[0034] The specific operation is as follows: Analysis module 7, execution module 8, prompt module, and emergency dialing module 10 are all located in the accompanying APP. After the device is connected to the mobile phone via Bluetooth, the APP can be launched. After the heart rate monitor 107 receives the heart rate information, it can upload the heart rate information to the analysis module 7 through the upload module 6. When the earphone body 501 is in the ear, the body temperature can be detected by the body temperature monitor 503. The body temperature monitor 503 can also upload the monitoring data to the analysis module 7 through the upload module 6. Since changes in heart rate are usually accompanied by an increase in body temperature, the auxiliary monitoring by the body temperature monitor 503 can improve the accuracy of the device's heart rate monitoring. After the analysis module 7 completes the analysis of the heart rate information, if the user's heart rate is in an abnormal state, the execution module 8 will drive the motor 106. After the motor 106 is driven, it will drive the bidirectional rotating shaft 2 to rotate. After the bidirectional rotating shaft 2 rotates, it will drive the ear hook 3 to rotate together. This allows the ear hook 3 to separate from the auricle. At the same time, when the ear hook 3 rotates, it can drive the call component 5. As the device is removed from the ear, the execution module 8 activates the micro air pump 105. Driven by the execution module 8, the micro air pump 105 rotates in reverse, allowing air to be re-injected into the air-controlled suction cup 103. Once air is injected into the air-controlled suction cup 103, the vacuum state is released, and the adhesion between the adhesive shell 101 and the human body is released. By releasing the adhesion between the adhesive shell 101 and the human body, and removing the earring 3 and the communication component 5 from the ear, the device can quickly connect with the human body. This allows users wearing the device to quickly notice any abnormalities, reducing the probability of sudden heart attacks caused by irregular heart rate. In addition, when the user's heart rate is irregular, the execution module 8 activates the prompt module 9. Once activated, the prompt module 9 will send a pop-up message to the mobile phone via the APP to remind the user. Furthermore, if the user's heart rate is in a dangerous state, the execution module 8 will activate the emergency dialing module 10. Once activated, the emergency dialing module 10 will dial the reserved emergency number to call for help, reducing the probability of a heart attack going undetected.

[0035] In summary, this head-mounted wireless communicator capable of monitoring heart rate parameters works as follows: First, the user places the air-controlled suction cup 103, located at the bottom of the housing 101, behind and below the ear. Then, a miniature air pump 105 operates, drawing air from the suction cup 103 into the connecting tube 104 and expelling it through the exhaust port 102. This creates a vacuum inside the suction cup 103, allowing it to draw air from the skin using negative pressure. To ensure the stability of the fit between the housing 101 and the human skin, the sealing ring 108 can also fit with the human skin during the process of fitting the housing 101 and the skin. The sealing ring 108 is flexible, which can avoid causing discomfort to the human body when the device fits with the human body. When the sealing ring 108 fits with the human body, it can seal the bottom surface of the housing 101 from the edge of the housing 101. By cooperating with the adsorption of the human body by the pneumatic suction cup 103, the stability of the fit between the housing 101 and the human body can be improved.

[0036] After the housing 101 is fitted to the human body, the ear loop 3 can be rotated by pulling the ear hook 3 through the bidirectional rotating shaft 2. Thanks to the dual-segment rotating joint of the bidirectional rotating shaft 2, the position adjustment of the ear loop 3 can be flexible to ensure that the ear loop 3 can fit completely with the auricle of the human ear after rotation. After the ear loop 3 is fixed, the headphone body 501 can be rotated and extended by pulling the headphone body 501, so that the headphone body 501 can be inserted into the human ear. At this point, the device can be worn on the human head.

[0037] Then, when the call component 5 is not in use, by pulling up the bidirectional telescopic hinge 4, the bidirectional telescopic hinge 4 can drive the call component 5 to rotate and fold the call component 5 at the outer end of the ear loop 3. Since the ear loop 3 can be hidden in the auricle, and the fitting component 1 can also be hidden behind the ear, the call component 5 can be well hidden in the ear when it is not in use. At this time, the heart rate monitor 107 can still monitor the human heart rate. In this way, the call component 5 can be worn in the ear for a long time when it is not in use.

[0038] Subsequently, after receiving the heart rate information, the heart rate monitor 107 can upload the heart rate information to the analysis module 7 through the upload module 6. When the earphone body 501 is located in the ear, the body temperature can be detected by the body temperature monitor 503. The body temperature monitor 503 can also upload the monitoring data to the analysis module 7 through the upload module 6. Since changes in heart rate are usually accompanied by an increase in body temperature, the accuracy of the device's heart rate monitoring can be improved by the auxiliary monitoring of the body temperature monitor 503.

[0039] After the analysis module 7 finishes analyzing the heart rate information, if the user's heart rate is abnormal, the execution module 8 will drive the motor 106. After the motor 106 is driven, it will drive the bidirectional rotating shaft 2 to rotate. After the bidirectional rotating shaft 2 rotates, it will drive the ear loop 3 to rotate together. This allows the ear loop 3 to separate from the auricle. At the same time, when the ear loop 3 rotates, it can drive the communication component 5 to move out of the ear. At the same time, the execution module 8 will start the micro air pump 105. After the micro air pump 105 is driven by the execution module 8, it will rotate in the opposite direction. This allows air to be re-injected into the air control suction cup 103. After the air control suction cup 103 is injected with air, the vacuum state will be released. At this time, the adhesion between the adhesive shell 101 and the human body will be released. By releasing the adhesion between the adhesive shell 101 and the human body, and removing the ear loop 3 and the communication component 5 from the ear, the connection between the device and the human body can be quickly established. This allows users who wear the device to play games to quickly notice the abnormality, thereby reducing the probability of sudden heart attacks caused by arrhythmia.

[0040] Finally, when the user's heart rate becomes irregular, execution module 8 will drive prompt module 9. After prompt module 9 is activated, it will send a pop-up message to the phone through the APP to remind the user. In addition, if the user's heart rate is in a dangerous state, execution module 8 will drive emergency dialing module 10. After emergency dialing module 10 is activated, it will dial the reserved emergency number to call for help, so as to reduce the probability that the user's heart attack will go undetected.

[0041] The embodiments of the present invention are given for illustrative and descriptive purposes only, and are not intended to be exhaustive or to limit the invention to the forms disclosed. Many modifications and variations will be apparent to those skilled in the art. The embodiments were chosen and described in order to better illustrate the principles and practical application of the invention, and to enable those skilled in the art to understand the invention and to design various embodiments with various modifications suitable for a particular purpose.

Claims

1. A head-worn wireless communicator capable of monitoring a heart rate parameter, characterized by, Including the fit component (1), the ear loop (3) and the talk component (5), the fit component (1) includes the fit shell (101), the exhaust port (102), the air control suction disc (103), the communication pipe (104), the micro air pump (105), the motor (106), the heartbeat monitor (107) and the sealant ring (108), the top outside of the fit shell (101) is equipped with the exhaust port (102), and the bottom inside of fit shell (101) is disposed with the air control suction disc (103), the outer end of the air control suction disc (103) is connected with the communication pipe (104), and the end of communication pipe (104) is provided with the micro air pump (105), the inside top of the fit shell (101) is disposed with the motor (106), and the bottom middle end of fit shell (101) is provided with the heartbeat monitor (107), the bottom outside of the fit shell (101) is connected with the sealant ring (108), the top outside of the fit shell (101) is connected with the two-way rotating shaft (2), the ear loop (3) is connected to the two-way rotating shaft (2) side away from the fit shell (101), the end of the ear loop (3) is connected with the two-way telescopic rotating shaft (4), the talk component (5) is disposed on the two-way telescopic rotating shaft (4) side away from the ear loop (3), the earphone body (501) is rotatably connected with the two-way telescopic rotating shaft (4), and the two-way telescopic rotating shaft (4) is rotatably connected with the ear loop (3), and the ear loop (3) is fitted with the pinna, the micro air pump (105) is communicated with the micro air pump (105) through the communication pipe (104), and the micro air pump (105) is communicated with the exhaust port (102), the fit shell (101) is fitted in the human ear rear, the air control suction disc (103) is adsorbed and connected with the human skin, the heartbeat monitor (107) is fitted with the human skin, the motor (106) drives the two-way rotating shaft (2) to rotate, and the two-way rotating shaft (2) is rotatably connected with the ear loop (3), the inside of the fit shell (101) is disposed with the upload module (6), and the output end of the upload module (6) is connected with the analysis module (7).

2. A headset wireless intercom with monitorable heart rate parameter according to claim 1, characterized in that, The sealant ring (108) is adhesively connected with the fit shell (101), and the sealant ring (108) is fitted with the human skin.

3. A headset wireless intercom with monitorable heart rate parameter according to claim 1, characterized in that, The talk component (5) includes the earphone body (501), the sound outlet (502) and the body temperature monitor (503), the outer end of the earphone body (501) is equipped with the sound outlet (502), and the inside middle end of the earphone body (501) is provided with the body temperature monitor (503).

4. A headset wireless intercom capable of monitoring heart rate parameters as claimed in claim 1, wherein, The output end of the analysis module (7) is connected with the execution module (8), the output end of the execution module (8) is connected with the prompt module (9), and the output end of the prompt module (9) is connected with the emergency dialing module (10).

5. A head-worn wireless communicator capable of monitoring a heart rate parameter according to claim 4, wherein, The upload module (6) is electrically connected in series with the heartbeat monitor (107) and the body temperature monitor (503), and the upload module (6) is connected with the analysis module (7) by wireless signal.

6. A head-worn wireless communicator capable of monitoring a heart rate parameter according to claim 5, wherein, The execution module (8) is connected with the motor (106) and the micro air pump (105) by wireless signal, and the execution module (8) executes the software and hardware processing work after the heart rate anomaly.

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