TW201607506A - Sleep quality monitoring apparatus - Google Patents

Abstract

This invention provides a sleep quality monitoring apparatus including a breath air flow sensor and a circuit board. The breath air flow sensor detects either of a user's nostril and oral breath air flows. When the user's breath air flows through the nose, the breath air flow sensor detects the nostril breath air flow. When the user's breath air flow through the oral cavity, the breath air flow sensor detects the oral breath air flow. The circuit board is served for processing/storing detected breath air flow signals and processed results. The breath air flow sensor and circuit board are integrated to become a single device so as to avoid multiple electrical connection lines being attached unto the user's body. A sleep-detection comfort and detection accurateness are improved. Furthermore, this invention provides an electrical connection lines reduced apparatus to reduce the potential hazard caused by the twisted wires.

Description

Sleep quality detection device

The present invention relates to a sleep detecting device, and more particularly to a device suitable for detecting sleep quality at home.

Obstructive Sleep Apnea (OSA) is a symptom of respiratory muscle relaxation and collapse during sleep, obstructing the respiratory tract, making breathing unsatisfactory or stopping. The patient will interrupt sleep because of the suspension of breathing, resulting in poor sleep quality, which may affect the mental state during the day, and even cause traffic accidents. At present, medicine has confirmed that if OSA patients have not received treatment for a long time, it will cause a cardiovascular burden, which will lead to other problems such as hypertension, stroke, heart failure, arrhythmia, diabetes, etc., showing that the health effects of OSA cannot be ignored.

"Polysomnography (PSG)" is a standard tool currently used in sleep medicine research, diagnosis of sleep physiology, sleep disorders and sleep-related diseases. Conventional sleep multiple physiological detection channels include brain wave (EEG), eye movement (EOG), electromyography (EMG), electrocardiogram (ECG), SaO2 Saturation, Pulse, Nasal-Oral Air Flow, Thorocic Abdominal Effort, etc.

At present, sleep tests performed at medical facilities may cause poor quality of sleep on the night of the examination due to factors such as changes in sleep environment and adhesion of inspection lines, which may result in inaccurate examination reports. Therefore, it is a current demand to solve the problem of needing to change the sleeping environment through sleep detection, but still achieve the purpose of sleep detection. A typical PSG test records signals from at least 12 channels and requires at least 22 connections to be attached to the patient's body. The number of these detected channels can be adjusted as required by the sleep therapist. This These connections are collected from a central processing unit from the detection channel that records the patient's PSG signal, and then connected to a computer system to record, store, and display the detection results. During sleep, the computer monitor can continuously display signals from multiple detected channels at the same time. Based on the improvement of the patient's sleep comfort and the accuracy of the test results and the reduction of the cost of sleep examination, a sleep test has been developed, and the patient can detect the sleep quality at home according to the instructions of the sleep therapist and the screening test tool. The sleep detection tool mainly includes a respiratory airflow detecting device and a blood oxygen saturation detecting device. Patients can use these test tools at home to detect sleep quality by themselves and return the test device to the sleep therapist for one to several days. The sleep therapist then accesses/analyzes the test results from the test device to further diagnose the patient's sleep. Obstacle or disease. In addition, the known PSG detecting device as described above requires a plurality of wires to be attached to the patient's body, causing a lot of inconvenience to the patient. The movement of the body during sleep may also cause some connections to fall off and prevent sleep detection.

It is an object of the present invention to provide a sleep quality detecting device that can reduce the number of detected connections on a user and is easy to use/operate to improve the comfort and accuracy of sleep detection.

In view of the above, in one aspect, the present invention provides a sleep quality detecting apparatus including a respiratory flu detector for detecting a nasal respiratory airflow and an oral respiratory airflow of a user; When the respiratory airflow is through the nasal cavity, the respiratory flu detector detects nasal respiratory airflow, and when the user's respiratory airflow passes through the oral cavity, the respiratory flu detector detects oral respiratory airflow; and a circuit board It is used to process the detected respiratory airflow signal and store the respiratory airflow signal and the processing result. In some embodiments of the present invention, the respiratory flu detector and the circuit board are integrated into a single device to prevent multiple electrical connections from being attached to the user's body to improve the comfort and accuracy of sleep detection.

In an embodiment of the invention, the respiratory flu detector comprises: a sensor for being disposed between the user's mouth and mouth and capturing the user's instant call An air absorbing signal; a first attaching component for attaching to a side of the user's cheek, the first attaching component for accommodating the circuit board and the power supply battery for power supply; A second attaching member is attached to the other side of the user's cheek, and the second attaching member is provided with a switch for turning on/off the respiratory flu detector. The sensor, the first attaching component and the second attaching component are integrated into a single device, and the respiratory flu detector is fixed to the user's face through the first attaching component and the second attaching component .

In an embodiment of the present invention, the respiratory flu detector includes: a sensor configured to be disposed between the user's mouth and nose and capture the user's immediate respiratory airflow signal; and an ear hook The component includes a first end and a second end, wherein the first end receives the sensor and the second end places the circuit board and the power supply battery for power supply. The ear hook member extends from the first end along the side contour of the user's face to the ear portion, and the second end of the ear hook member is suspended against the ear portion to breathe the breath The detector is fixed to the face of the user.

In an embodiment of the present invention, the respiratory flu detector includes: a body for attaching between the nose and mouth of the user, the body having a left ear strap and a right ear strap, The left and right ear straps are respectively attached to the left and right sides of the user's face and extend to the left and right ears, wherein the inside of the body is for receiving the circuit board; and a sensor is received The body is used to capture the user's immediate breathing airflow signal.

In an embodiment of the present invention, the respiratory flu detector includes: a clip-on sensor having a first side end and a second side end, the first side end being provided with a sensor The user's instant breathing airflow signal is captured and the second side end accommodates the circuit board. The pinch sensor is used to clamp the nose of the user such that the first side end and the second side end are joined to each other to clamp the nose.

In an embodiment of the invention, the respiratory flu detector comprises: a mouthpiece having a tooth receiving body and a hollow tubular member from the front of the mouthpiece Extending outwardly, the configuration of the dental receptacle is adapted to the user's teeth to secure the mouthpiece within the user's mouth and the hollow tubular member protrudes from the user's mouth and communicates with The first sensor is disposed outside the hollow tube member near the nose of the user and used to detect the nasal airflow of the user; and a second sensor is disposed inside the hollow tube member. And used to detect the user's oral breathing airflow.

In an embodiment of the present invention, the respiratory flu detector includes: a tongue-and-shoulder body for containing the user's mouth; and a sensor disposed on the tongue-side device The body is configured to capture the user's immediate breathing airflow signal.

In some embodiments of the invention, the aforementioned sensor may be a thermistor sensor, a pressure sensor, a gas flu detector, a respiratory rate sensor, or a combination of the foregoing.

In some embodiments of the present invention, the circuit board includes: a signal collecting unit for converting the detected respiratory airflow signal into a digital signal; and a processor unit for processing the digital signal and generating a respiratory flow resistance index; and a storage unit for storing the digital signal and the respiratory resistance index. In some embodiments of the present invention, the circuit board further includes a communication interface unit for transmitting the stored data of the storage unit to an external device.

In some embodiments of the present invention, the sleep quality detecting device of the present invention further comprises at least one of a blood oxygen saturation sensor and an electrocardiogram detecting device. The blood oxygen saturation sensor may be fixed to the body part of the user in any one of the following ways: a finger attached to the user, a lower surface of the tongue attached to the user, and a finger attached to the user.

In some embodiments of the present invention, the electrocardiogram detecting device of the present invention is for attaching to a chest of a user, and the electrocardiogram detecting device includes a detecting electrode, a circuit board and a switch. The detecting electrode is configured to detect the heartbeat signal of the user, and the circuit board is configured to process the detected heartbeat signal and store the processing result, and the switch is used to enable/ Turn off the ECG detection device.

In some embodiments of the present invention, the electrocardiogram detecting device of the present invention comprises a chest attachment component and a peritoneal attachment component, the chest attachment component is provided with a first detection electrode and a circuit board, the circuit board is provided The detection signal is processed and the processing result is stored. The abdominal attachment component is provided with a second detection electrode, and the first and second detection electrodes detect the chest and abdomen movement state of the user.

100‧‧‧Sleeping quality detection device

101‧‧‧ breathing gas flu detector

102‧‧‧ boards

103‧‧‧Power supply

110‧‧‧ECG detection device

112‧‧‧thoracic attachment parts

114‧‧‧Abdominal attachment parts

200‧‧‧Sleeping quality detection device

202‧‧‧ Sensor

203‧‧‧ ear hook parts

300‧‧‧Sleeping quality detection device

301‧‧‧Nasal sensor

302‧‧‧First side

303‧‧‧ second side

304‧‧‧ Sensor

305‧‧‧ switch

400‧‧‧Sleeping quality detection device

401‧‧‧ breathing gas flu detector

402‧‧‧Ontology

402a‧‧‧Front cover

402b‧‧‧Back cover

500‧‧‧Oxygen saturation sensor

600‧‧‧ECG detection device

700‧‧‧ breathing gas flu detector

701‧‧‧ mouthpiece

702‧‧‧ hollow pipe fittings

702a‧‧‧Snake structure

703‧‧‧first sensor

704‧‧‧The second sensor

800‧‧‧ breathing gas flu detector

802‧‧‧ sensor

803‧‧‧Socks Oxygen Saturation Sensor

804‧‧‧Accelerometer

806‧‧‧pressure sensor

900‧‧‧ECG detection device

901‧‧‧ middle part

902‧‧‧left part

903‧‧‧ right part

904‧‧‧ switch

905‧‧‧ indicator

1010‧‧‧ Sensor

1011a, 1011b‧‧‧ ventilation catheter

1012‧‧‧First attached parts

1013‧‧‧Second attached parts

1014‧‧‧ switch

1015‧‧‧ indicator

1020‧‧‧Signal adjustment unit

1022‧‧‧Signal collection unit

1024‧‧‧ processor unit

1026‧‧‧ storage unit

1028‧‧‧Communication interface unit

2032‧‧‧ first end

2033a, 2033b‧‧ ‧ ventilation catheter

2034‧‧‧second end

2036‧‧‧ switch

4010‧‧‧Left ear strap

4012‧‧‧Right ear strap

1122‧‧‧First detection electrode

1124‧‧‧Power battery

1126‧‧‧Switch

1128‧‧‧ indicator

1142‧‧‧Second detection electrode

The novel features of the invention are set forth with particularity in the appended claims. The features and advantages of the present invention will be apparent from the following detailed description of the embodiments of the present invention. FIG. 1 is a front perspective view of a first embodiment of the sleep quality detecting apparatus of the present invention.

The second figure is a rear perspective view of a first embodiment of the sleep quality detecting device of the present invention.

The third figure is a schematic view showing the state of use of the first embodiment of the sleep quality detecting apparatus of the present invention.

The fourth figure is a functional block diagram of a first embodiment of the sleep quality detecting apparatus of the present invention.

Figure 5 is a perspective view of a second embodiment of the sleep quality detecting device of the present invention.

6A to 6D are schematic views showing the state of use of the second embodiment of the sleep quality detecting device of the present invention viewed from different angles.

Figure 7 is a perspective view of a third embodiment of the sleep quality detecting device of the present invention.

Figure 8 is a schematic view showing the state of use of the third embodiment of the sleep quality detecting device of the present invention.

Figure 9 is a fourth embodiment of the sleep quality detecting device of the present invention. A schematic view of an example.

10A to 10B are perspective views of a fourth embodiment of the sleep quality detecting device of the present invention viewed from different angles.

Figure 10 is a schematic view of the back cover 402b of the fourth embodiment of the sleep quality detecting apparatus of the present invention.

The tenth D is a schematic view of the front cover 402a of the fourth embodiment of the sleep quality detecting device of the present invention.

FIG. 11 is a schematic view showing a fourth embodiment of the sleep quality detecting device of the present invention, further comprising a state of use of the blood oxygen saturation sensor and the electrocardiogram detecting device.

Figure 12 is a perspective view showing a fifth embodiment of the sleep quality detecting device of the present invention.

Figure 13 is a longitudinal cross-sectional view of the twelfth figure.

Figure 14 is a schematic view showing a sixth embodiment of the sleep quality detecting apparatus of the present invention.

The fifteenth diagram is a schematic view of a use of the blood oxygen saturation sensor of the present invention.

Figure 16 is a front perspective view showing a specific embodiment of the electrocardiogram detecting device of the present invention.

Figure 17 is a schematic view showing the state of use of the electrocardiogram detecting device of Fig. 16.

Figure 18 is a front perspective view showing another embodiment of the electrocardiogram detecting device of the present invention.

Fig. 19 is a perspective view showing the back side of the electrocardiogram detecting device of Fig. 18.

Fig. 20 is a view showing the state of use of the electrocardiogram detecting device of Fig. 18.

The first figure is a front perspective view of a first embodiment of the sleep quality detecting device of the present invention, and the second figure is a rear perspective view of the first embodiment of the sleep quality detecting device of the present invention. In the first embodiment, the sleep quality detecting apparatus 100 of the present invention includes a respiratory flu detector 101 and a circuit board 102. The respiratory flu detector 101 is configured to detect a nasal respiratory airflow or an oral respiratory airflow of the user; when the respiratory airflow of the user passes through the nasal cavity, the respiratory flu detector 101 detects nasal respiratory airflow, but when The respiratory flu detector 101 detects the oral respiratory airflow when the user, for example, is blocked by the nose and breathed by the mouth so that the respiratory airflow is through the oral cavity. The circuit board 102 is configured to process the detected respiratory airflow signal and store the respiratory airflow signal and the processing result. The respiratory flu detector 101 includes a sensor 1010, a first attaching component 1012, and a second attaching component 1013. The sensor 1010 is configured to pick up the user's immediate respiratory airflow signal between the user's nasal mouth, and two ventilation ducts 1011a and 1011b are formed in the vicinity of the sensor 1010. The ventilation ducts 1011a and 1011b are configured to be inserted into the user's nostrils such that the nostril breathing airflow communicates with the sensor 1010 through the ventilation ducts 1011a and 1011b. The sensor 1010 detects the respiratory airflow of the user's mouth when the user is unable to breathe through the nose, for example, the nose is blocked, and the mouth is breathed to breathe air through the mouth. The first attaching member 1012 is attached to the cheek side of the user. The first attaching member 1012 houses the circuit board 102 (not shown) and a power supply battery for the sleep quality measuring device 100. Power supply 103. The second attaching member 1013 is for attaching to the other side of the user's cheek, and the second attaching member 1013 is provided with a switch 1014 for turning on/off the respiratory flu detector 101. The second attaching component 1013 can further be provided with an indicator 1015, such as a light display, to display the operating state of the sleep quality detecting device 100. In the first embodiment, the respiratory flu detector 101 is fixed to the user's face through the first attaching member 1012 and the second attaching member 1013. As shown in the first and second figures, the sensor 1010, the first attaching member 1012, and the second attaching member The 1013 is integrated into a single device. In other words, in the first embodiment, the respiratory flu detector 101 is integrated with the circuit board 102 into a single device, and all electrical connections are not exposed. As shown in the third figure, the sleep quality detecting device 100 can prevent a plurality of electrical connecting lines from being attached to the user's body during use, thereby improving the comfort and convenience of the user and avoiding the user. The adverse effects of sleep quality can improve the accuracy of sleep detection results. Moreover, the sleep quality detecting device 100 can prevent the electrical connection line from falling off due to the user action during the detection of sleep without using the exposed electrical connection line, thereby ensuring the normal operation of the sleep quality detecting device 100. . In addition, the present invention can avoid the potential danger caused by the entanglement of electrical connections during sleep.

The fourth figure is a functional block diagram of the sleep quality detecting apparatus 100 of the present invention. In some embodiments of the invention, the sensor 1010 can be a thermistor sensor, a pressure sensor, a gas flu detector, a respiratory rate sensor, or a combination of the foregoing. In an embodiment of the invention, the circuit board 102, such as a printed circuit board, may include a signal conditioning unit 1020, a signal collecting unit 1022, a processor unit 1024, a storage unit 1026, and a communication interface unit. 1028. The signal conditioning unit 1020 is coupled to the sensor 1010 for amplifying the detected respiratory airflow signal and filtering unwanted noise. The signal collecting unit 1022 is configured to convert the respiratory airflow signal into a digital signal. The processor unit 1024 is configured to process the digital signal and generate a respiratory flow resistance index. The storage unit 1026 is configured to store the digital signal and the respiratory resistance index. The communication interface unit 1028 is used for communication between the user and the outside world. For example, an external communication system can access the stored data of the storage unit 1026 via the communication interface unit 1028 for the sleep therapist to analyze the detected sleep data. And make a sleep diagnosis.

Figure 5 is a perspective view of a second embodiment of the sleep quality detecting device of the present invention. In a second embodiment, the sleep quality detecting device 200 includes a respiratory flu detector 201 and a circuit board (not shown). The respiratory flu detector 201 is configured to detect a nasal respiratory airflow or an oral respiratory airflow of the user; when the user When the respiratory airflow is through the nasal cavity, the respiratory flu detector 201 detects the nasal respiratory airflow, but when the user, for example, the nose is blocked and the mouth is breathed and the respiratory airflow is passed through the oral cavity, the respiratory flu detector 201 Detect oral breathing airflow. The circuit board is used to process the detected respiratory airflow signal and store the respiratory airflow signal and the processing result. The respiratory flu detector 201 includes a sensor 202 and an ear hook component 203. The earloop component 203 has a first end 2032 and a second end 2034. The sensor 202 is received at the first end 2032 of the earloop component 203 and is configured to capture the user's instant breathing airflow signal between the user's nose and mouth. Two ventilation ducts 2033a and 2033b are formed adjacent to the sensor 202. The ventilation ducts 2033a and 2033b are configured to be inserted into the user's nostrils such that the nostril breathing airflow communicates with the sensor 202 through the ventilation ducts 2033a and 2033b. The sensor 202 detects the respiratory airflow of the user's mouth when the user is unable to breathe through the nose, such as when the nose is clogged, and the mouth is breathing and the breathing airflow is through the oral cavity. In some embodiments of the invention, the sensor 202 can be a thermistor sensor, a pressure sensor, a gas flu detector, a respiratory rate sensor, or a combination of the foregoing. The second end 2034 of the earloop component 203 is provided with a circuit board (not shown) and a power supply battery for supplying power to the sleeper quality detecting device 200. As shown in FIGS. 6A to 6D, the earloop member 203 extends from the first end 2032 along the side contour of the user's face to the ear, and the first portion of the earloop member 203 is The two ends 2034 are suspended against the ear to fix the respiratory flu detector 201 to the user's face. The second end 2034 of the earloop component 203 can further be provided with a switch 2036 to control the opening or closing of the sleep quality detecting device 200. The circuit board of the second embodiment can be implemented by the circuit board 102 of the fourth embodiment, and will not be repeated here.

As shown in FIG. 5, the respiratory flu detector 201 and the circuit board are integrated into a single device, and all electrical connection lines are not exposed. The sleep quality detecting device 200 of the second embodiment also has the first specific implementation. Many advantages of the sleep quality detecting device 100 of the example.

Figure 7 is a perspective view of a third embodiment of the sleep quality detecting device of the present invention. In a third embodiment, the sleep quality detecting device 300 includes a respiratory flu detector and a circuit board (not shown). The respiratory flu detector is configured to detect a nasal airflow or an oral respiratory airflow of the user; when the respiratory airflow of the user passes through the nasal cavity, the respiratory flu detector detects nasal respiratory airflow, but when the user, for example, When the nose is blocked and the mouth is breathing and the breathing airflow is through the mouth, the breathing gas detector detects the oral breathing airflow. The circuit board is used to process the detected respiratory airflow signal and store the respiratory airflow signal and the processing result. The respiratory flu detector is a clip-on sensor 301 having a first side end 302 and a second side end 303. The first side end 302 is provided with a sensor 304 for capturing the user's nasal cavity. Breathing airflow signal. However, when the user is unable to breathe through the nose, such as when the nose is blocked and the mouth is breathing, the sensor 304 detects the respiratory airflow of the user's mouth. The second side end 303 houses the circuit board, and a switch 305 is disposed at the second side end 303 for controlling the opening or closing of the sleep quality detecting device 300. As shown in the eighth figure, the pinch sensor 301 is used to clamp the nose of the user such that the first side end 302 and the second side end 303 are joined to each other to clamp the nose, thereby the sleep quality detecting device. 300 is fixed to the nose. The sensor 304 and the circuit board of the third embodiment may adopt the implementation manners of the first and second embodiments, and are not repeated herein.

As shown in the eighth figure, the respiratory flu detector 301 and the circuit board are integrated into a single device, and all electrical connections are not exposed. The sleep quality detecting device 300 of the third embodiment also has the first and second Many advantages of the sleep quality detecting device of the specific embodiment.

Figure 9 is a perspective view showing a fourth embodiment of the sleep quality detecting device of the present invention. In the fourth embodiment, the sleep quality detecting device 400 includes a respiratory flu detector 401 and a circuit board (not shown). The respiratory flu detector 401 is configured to detect a nasal respiratory airflow or an oral respiratory airflow of a user. When the user breathes in the nasal cavity, the respiratory flu detector 401 detects nasal respiratory airflow, but when The respiratory flu detector 401 detects oral respiratory airflow when the user, for example, is blocked by the nose and changed to oral breathing. The circuit board is used to process the detected respiratory airflow signal and store the respiratory airflow signal and the processing result. The respiratory flu detector 401 includes a body 402 and a sensor 403. Referring to the ninth and eleventh drawings, the body 402 is affixed between the user's mouth and nose. The body has a left ear strap 4010 and a right ear strap 4012. The left and right ear straps 4010 and 4012 are respectively attached to the left and right sides of the user's face and extend to the left and right ears to fix the sleep quality detecting device 400 to the user's face. The circuit board (not shown) is housed inside the body 402. In addition, a battery holder (not shown) may be disposed inside the body 402 to place a battery for use as a power supply. The sensor 403 is disposed on the body 402 and is configured to capture the user's instantaneous respiratory airflow signal. The body 402 has a hollow chamber therein, and the nasal airflow of the user can communicate with the sensor 403 via the hollow chamber, so that the sensor 403 can capture the user's immediate nasal respiratory airflow signal. However, when the user, for example, the nose is blocked and the mouth is breathing, the respiratory flu detector 403 detects the oral respiratory airflow. The sensor 403 and the circuit board of the fourth embodiment may adopt the implementation manners of the first to third embodiments, and are not repeated herein.

As shown in the ninth figure, the respiratory flu detector 401 and the circuit board are integrated into a single device, and all the electrical connecting lines are not exposed. The sleep quality detecting device 400 of the fourth embodiment also has the first to the third. Many advantages of the sleep quality detecting device of the specific embodiment.

In one aspect, referring to the example in FIG. 11 , the sleep quality detecting device of the present invention may further include an oxygen saturation sensor 500 and an electrocardiogram detecting device 600. In other words, the sleep quality detecting device of the present invention can simultaneously detect the respiratory airflow, blood oxygen saturation and heartbeat signals of the user during sleep to detect the blood oxygen concentration caused by the breathing state of the user during sleep. Change and detect the user's heartbeat signal to further diagnose whether the user has cardiovascular or cardiac disease. Sleep quality detection according to the foregoing first to third embodiments of the present invention The device can be used in conjunction with an oxygen saturation sensor and an electrocardiogram detection device.

In some embodiments of the present invention, the blood oxygen saturation sensor used in the present invention may be a finger-type oxygen saturation sensor 400 (11th image) or a sock type oxygen saturation sensor. 803 (fifteenth map). The sock type oximetry sensor 803 can be in contact with the user's toe by being worn on the user's foot. Additionally, in some embodiments of the invention, the sock oximetry sensor 803 can be used in conjunction with the pressure sensor 806 in conjunction with the accelerometer 804. The accelerometer 804 can detect a change in the state of the limb during sleep of the user to further determine whether the detected signal is a pseudo noise caused by the user's limb motion. The pressure sensor 806 can be used to detect a physical motion of the user during sleep to determine whether the detected signal is a false signal. In some embodiments, the oximetry sensor of the present invention can also be placed under the tongue to contact the sublingual surface of the user to detect the blood oxygen concentration of the user.

Figure 16 is an embodiment of an electrocardiogram detecting device of the present invention. In this embodiment, the body of the electrocardiogram detecting device 900 includes an intermediate portion 901, a left portion 902, and a right portion 903. The intermediate portion 901 internally houses a circuit board (not shown), and the switch 904 and the indicator 905 are disposed on the upper surface of the intermediate portion 901. The switch 904 controls the turning on or off of the electrocardiogram detecting device 900. The indicator 905, such as a light number display, can display the operating state of the electrocardiogram detecting device 900. Two detecting electrodes (not shown) are respectively disposed on the lower surfaces of the left side portion 902 and the right side portion 903 and are electrically connected to the circuit board housed inside the intermediate portion 901. Referring to FIG. 17, the lower surface of the electrocardiogram detecting device 900 is attached to the chest of the user, and the detecting electrode detects the heartbeat signal of the user, and the circuit board processes the detected heartbeat signal and the storage processing result. .

FIG. 18 is a front perspective view showing another embodiment of the electrocardiogram detecting device of the present invention, and FIG. 19 is a perspective view showing the back side of the electrocardiogram detecting device of FIG. 18. Figure 20 is a schematic view showing the state of use of the electrocardiogram detecting device of the eighteenth figure. In this embodiment, the electrocardiogram detecting device 110 includes a chest attachment portion. The device 112 and a peritoneal attachment member 114 are provided with a first detecting electrode 1122 and a circuit board (not shown) for processing the detected signal and storing the processing result. The second detecting electrode 1142 is disposed on the attaching component 114. The first and second detecting electrodes 1122 and 1142 detect the chest and abdomen motion state of the user. The chest attachment member 112 is further provided with a power supply battery 1124, a switch 1126, and an indicator 1128. The power supply battery 1124 is used as a power supply source and the switch 1126 is used to turn on/off the electrocardiogram detection device 110. The indicator 1128, such as a light number display, can display the operational status of the electrocardiogram detecting device 110.

Figure 12 is a perspective view showing a fifth embodiment of the sleep quality detecting device of the present invention. Figure 13 is a longitudinal sectional view of the sleep quality detecting device of Figure 12. In a fifth embodiment, the sleep quality detecting device includes a respiratory flu detector 700. The respiratory flu detector 700 includes a mouthpiece 701, a first sensor 703, and a second sensor 704. The mouthpiece 701 has a tooth receiving body, and a hollow tubular member 702 extends outwardly from the front end of the mouthpiece 701. The configuration of the dental receptacle is adapted to the user's teeth to secure the mouthpiece 701 within the user's mouth and the hollow tubular member 702 protrudes out of the user's mouth and communicates with the oral cavity. The first sensor 703 is disposed on the outer surface of the top of the hollow tube 702 to be close to the nose of the user and used to detect the nasal airflow of the user. The second sensor 704 is disposed inside the hollow tube 702 and is configured to detect the oral respiratory flow of the user. In one embodiment of the present invention, the section of the hollow tubular member 702 adjacent to the mouthpiece 701 may be a flexible tubular structure 702a to adjust the positions of the first sensor 703 and the second sensor 704. In an aspect of the present invention, the blood oxygen saturation sensor of the present invention can be directly disposed under the tongue to contact the lower surface of the user to detect the blood oxygen concentration of the user and can be tested with the respiratory gas. The device 700 is used together.

Figure 14 is a perspective view showing a sixth embodiment of the sleep quality detecting device of the present invention. In the sixth embodiment, the sleep quality detecting device is a respiratory flu detector 800, including a tongue-and-groove body and a sensor 802. The tongue The surface of the user is placed on the mouth of the user, and the sensor 802 is disposed on the body of the tongue and the body to capture the instantaneous breathing airflow signal of the user. The sensor 802 is configured to detect a nasal airflow or an oral respiratory airflow of the user. The sensor 802 detects nasal respiratory airflow when the user's respiratory airflow passes through the nasal cavity, but the sensor 802 when the user, for example, is blocked by the nose and breathed with the mouth so that the respiratory airflow is through the oral cavity. Detect oral breathing airflow.

Further, in one aspect, the blood oxygen saturation sensor and the electrocardiogram detecting device of the present invention may be combined with the sleep quality detecting device of the present invention alone or in combination.

The preferred embodiments of the present invention are shown and described herein, but those skilled in the art will readily understand that these embodiments are merely illustrative. Various modifications, changes and substitutions will occur to those skilled in the art without departing from the scope of the invention. Various variations of the specific embodiments of the invention described herein may be used to practice the invention. The scope of the invention is defined by the following claims, and the methods and structures set forth in the claims and their equivalents are intended to be included within the scope of the invention.

100‧‧‧Sleeping quality detection device

101‧‧‧ breathing gas flu detector

102‧‧‧ boards

103‧‧‧Power supply

1010‧‧‧ Sensor

1011a, 1011b‧‧‧ ventilation catheter

1012‧‧‧First attached parts

1013‧‧‧Second attached parts

1014‧‧‧ switch

1015‧‧‧ indicator

Claims (20)

A sleep quality detecting device includes: a respiratory gas flu detector for detecting any of a user's nasal respiratory airflow and oral respiratory airflow; and when the user's respiratory airflow is through the nasal cavity, the breathing The gas flu detector detects nasal respiratory airflow, the respiratory flu detector detects oral respiratory airflow when the user's respiratory airflow passes through the oral cavity; and a circuit board for processing the detected respiratory airflow signal The respiratory airflow signal and the processing result are stored. The sleep quality detecting device of claim 1, wherein the circuit board comprises: a signal collecting unit for converting the detected respiratory airflow signal into a digital signal; and a processor unit To process the digital signal and generate a respiratory resistance index; and a storage unit for storing the digital signal and the respiratory resistance index. The sleep quality detecting device of claim 2, further comprising a communication interface unit for transmitting the stored data of the storage unit to an external device. The sleep quality detecting device of claim 1, wherein the respiratory flu detector comprises: a sensor for setting between the user's nose and mouth and capturing the user's instant breathing An air flow signal; a first attaching component for attaching to a side of the user's cheek, the first attaching component for accommodating the circuit board and the power supply battery for power supply; a second attaching component for attaching to the other side of the user's cheek, the second attaching component setting switch for turning on/off the respiratory gas fluometer; wherein the sensor, the first sticker The accessory component and the second attachment component are integrated into a single device, and the respiratory flu detector passes through the first attachment component and the second attachment The component is fixed to the user's face. The sleep quality detecting device of claim 4, further comprising an indicator disposed on the first attaching component and the second attaching component to display the respiratory flu detector state. The sleep quality detecting device of claim 1, wherein the respiratory flu detector comprises: a sensor for setting between the user's nose and mouth and capturing the user's instant breathing An airflow signal; and an earhook component, comprising a first end and a second end, wherein the first end receives the sensor and the second end is configured to place the circuit board and the power supply battery for power supply a source; wherein the earloop member extends from the first end along a side contour of the user's face to the ear, and the second end of the earloop component is suspended against the ear to A respiratory flu detector is attached to the user's face. The sleep quality detecting device of claim 6, wherein the second end of the ear hook component is further provided with a switch for turning on/off the respiratory gas detector. The sleep quality detecting device of claim 1, wherein the respiratory flu detector comprises: a body for attaching between the nose and mouth of the user, the body having a left ear strap And a right ear strap, the left and right ear straps are respectively attached to the left and right sides of the user's face and extend to the left and right ears; wherein the inside of the body is for receiving the circuit board; The sensor is disposed on the body and is configured to capture the user's immediate breathing airflow signal. The sleep quality detecting device of claim 1, wherein the respiratory gas detector comprises: a clip nose sensor having a first side end and a second side end, the first side end a sensor is provided to capture the user's instantaneous breathing airflow signal and the second side end accommodates the circuit board; wherein the pinch nose sensor is used to clamp the user's nose to the first side end thereof And the second side end commissures the nose. The sleep quality detecting device of claim 9, further comprising a switch disposed on the second side end for turning on/off the respiratory flu detector. The sleep quality detecting device of claim 1, wherein the respiratory flu detector comprises: a mouthpiece having a tooth receiving body and a hollow tubular member extending outward from a front end of the mouthpiece; The configuration of the tooth receiving body is adapted to the teeth of the user to fix the mouthpiece in the mouth of the user and the hollow tube protrudes out of the mouth of the user and communicates with the mouth; a first sense The detector is disposed outside the hollow tube member near the nose of the user and used to detect the nasal airflow of the user; and a second sensor is disposed inside the hollow tube member for detecting the use The oral breathing airflow. The sleep quality detecting device of claim 11, wherein the hollow tubular member has a coil structure to adjust the positions of the first and second sensors. The sleep quality detecting device according to claim 1, wherein the respiratory flu detector comprises: a tongue-side placing body for containing the mouth of the user; and a sensor, the system is set The body is placed on the tongue to capture the user's immediate breathing airflow signal. The sleep quality detecting device according to claim 1, further comprising an oxygen saturation sensor, which is disposed at any of the following positions: a finger attached to the user, attached to The lower surface of the user's tongue is attached to the user's finger. The sleep quality detecting device according to claim 1, further comprising an electrocardiogram detecting device for attaching to the chest of the user, the electrocardiogram detecting device The detection electrode, the circuit board and the switch are arranged; wherein the detecting electrode is used for detecting the heartbeat signal of the user, the circuit board is used for processing the detected heartbeat signal and storing the processing result, and the switch is used for turning on/off The electrocardiogram detecting device. The sleep quality detecting device according to claim 1, further comprising an electrocardiogram detecting device, comprising a chest attaching component and a peritoneal attaching component, wherein the chest attaching component is provided with a first detecting electrode and The circuit board is configured to process the detected signal and store the processing result. The abdominal attachment component is provided with a second detecting electrode, and the first and second detecting electrodes detect the chest and abdomen motion state of the user. The sleep quality detecting device of claim 16, wherein the chest attachment component is further provided with a power supply battery and a switch, the power supply battery is used as a power supply source and the switch is used to turn on/off the electrocardiogram detection. Device. The sleep quality detecting device of claim 14, further comprising an electrocardiogram detecting device for attaching to the chest of the user, the electrocardiogram detecting device comprising the detecting electrode, the circuit board and the switch The detecting electrode is configured to detect the heartbeat signal of the user, the circuit board is configured to process the detected heartbeat signal and store the processing result, and the switch is used to turn on/off the electrocardiogram detecting device. The sleep quality detecting device of claim 14, further comprising an electrocardiogram detecting device comprising a chest attaching component and a peritoneal attaching component, wherein the chest attaching component is provided with a first detecting electrode and The circuit board is configured to process the detected signal and store the processing result. The abdominal attachment component is provided with a second detecting electrode, and the first and second detecting electrodes detect the chest and abdomen motion state of the user. The sleep quality detecting device according to claim 19, wherein the chest attachment component is further provided with a power supply battery and a switch, the power supply battery is used as a power supply source and the switch is used to turn on/off the electrocardiogram detection. Device.