TWM582374U - Vibration sensing device, portable continuous blood pressure measuring device and portable cardiopulmonary performance monitoring device - Google Patents

Abstract

A vibration sensing device includes a piezoelectric element, a static meter, a vibration conducting element and a casing. The piezoelectric element is adapted to convert vibration into an electrical signal. The static meter is suitable for converting static forces into electronic signals. The vibration conducting element is adapted to conduct vibrations to the piezoelectric element. An outer casing encloses the voltage component, the static meter, and the shock conducting component.

Description

Vibration sensing device, portable continuous blood pressure measuring device and portable heart Lung efficiency monitoring device

The invention relates to a physiological signal monitoring device, in particular to a portable cardiopulmonary efficacy monitoring device.

Heart disease is the largest cause of death in the United States and the third leading cause of death in Taiwan. If it can be diagnosed and treated early, it can greatly improve the survival rate and reduce medical expenses. Most of the early heart disease may have abnormal ECG or heart sound symptoms. If there is a readily available ECG and heart sound recorder, the user can immediately diagnose the heart and heart sounds when they feel unwell. Taiwanese patents (I555509, I623298, U.S. Patent Application No. US20170127966A1, US20170273574A1) have proposed wearable electrode structures and electrocardiographs, which are easy to obtain ECG signals, but currently there are few recorders that can continuously record heart sounds for a long time. The reason is that the sensor that picks up the heart sound (such as a traditional stethoscope) must be pressed slightly to a certain position on the chest. If it is worn as long as the Holter ECG recorder, it will be very uncomfortable for a long time. Sensors that record heart sounds appear, and sensors that can be used to capture heart sounds when the user feels uncomfortable (like the ECG event recorder) are rare. Take US9492138 as an example. It adds two electrodes to a traditional stethoscope, and can simultaneously capture heart sounds and ECG signals to calculate the myocardial performance index (MPI) and systolic performance index (SPI). An indicator for assessing cardiac function. However, the user must remove it The clothing can capture heart sounds and ECG signals. Such stethoscopes are not suitable for recording occasional abnormal heart sounds and ECG signals in daily life. Therefore, how to solve the above problems is worthy of consideration in the field of ordinary knowledge.

In order to solve the above problems, the present invention provides a vibration sensing device, a portable continuous blood pressure measuring device and a portable cardiopulmonary performance monitoring device, which are convenient to use and do not need to take off clothes.

The invention provides a vibration sensing device comprising a piezoelectric element, a static force meter, a vibration conducting element and a casing. The piezoelectric element is adapted to convert vibration into an electrical signal. The static meter is suitable for converting static forces into electronic signals. The vibration conducting element is adapted to conduct vibrations to the piezoelectric element. An outer casing encloses the voltage component, the static meter, and the shock conducting component.

The invention also provides a portable continuous blood pressure measuring device, comprising a light vessel volume wrist wave detecting component, a vibration sensing device, a chest pulse wave filter, and a third analog/digital signal converter. With a microcontroller. A chest pulse wave filter is coupled to the vibration sensing device. A third analog/digital converter is coupled to the chest pulse filter. A microcontroller is coupled to the photovascular volume wrist wave detecting component and the third analog/digital converter.

The portable continuous blood pressure measuring device described above further includes a digital interface connected to the microcontroller.

The portable continuous blood pressure measuring device described above further includes a memory unit connected to the microcontroller.

The portable continuous blood pressure measuring device described above further includes a timing unit connected to the microcontroller.

The above portable continuous blood pressure measuring device, wherein the digital interface is a wired or wireless signal transmitting device.

The invention also provides a portable continuous blood pressure measuring device, comprising the above vibration sensing device, a heart sound filter, a first analog/digital signal converter, a light blood vessel volume wrist wave detecting component and a micro Controller. A heart sound filter is connected to the vibration sensing device. A first analog/digital converter is coupled to the heart sound filter. A microcontroller is coupled to the photovascular volume wrist wave detecting component and the analog/digital signal converter.

The portable continuous blood pressure measuring device described above further includes a digital interface connected to the microcontroller.

The portable continuous blood pressure measuring device described above further includes a memory unit connected to the microcontroller.

The portable continuous blood pressure measuring device described above further includes a timing unit connected to the microcontroller.

The above portable continuous blood pressure measuring device, wherein the digital interface is a wired or wireless signal transmitting device.

The invention also provides a portable continuous blood pressure measuring device, comprising a first electrode, a second electrode, an ECG signal processor, a photovascular volume wrist wave detecting component, a static meter and a micro control Device. The first electrode is adapted to detect an ECG signal. The second electrode is disposed relative to the first electrode. An electrocardiographic signal processor is coupled to the first electrode and the second electrode. The static meter is connected to the photovascular volume wrist wave detecting element. A microcontroller is coupled to the photovascular volume wrist wave detecting component and the ECG signal processor.

The portable continuous blood pressure measuring device described above further includes a digital interface connected to the microcontroller.

The portable continuous blood pressure measuring device described above further includes a memory unit connected to the microcontroller.

The portable continuous blood pressure measuring device described above further includes a timing unit connected to the microcontroller.

The above portable continuous blood pressure measuring device, wherein the digital interface is a wired or wireless signal transmitting device.

The invention also provides a portable continuous blood pressure measuring device, comprising a first electrode, a second electrode, an ECG signal processor, the vibration sensing device, a heart sound filter, and a first analog/digital signal. Converter and a microcontroller. The first electrode is adapted to detect an ECG signal. The second electrode is disposed relative to the first electrode. An electrocardiographic signal processor is coupled to the first electrode and the second electrode. A heart sound filter is connected to the vibration sensing device. A first analog/digital converter is coupled to the heart sound filter. A microcontroller is coupled to the photovascular volume 畹 pulse wave detecting component and the analog/digital signal converter.

The portable continuous blood pressure measuring device described above further includes a digital interface connected to the microcontroller.

The portable continuous blood pressure measuring device described above further includes a memory unit connected to the microcontroller.

The portable continuous blood pressure measuring device described above further includes a timing unit connected to the microcontroller.

The above portable continuous blood pressure measuring device, wherein the digital interface is a wired or wireless signal transmitting device.

The invention also provides a portable cardiopulmonary efficacy monitoring device, comprising a first electrode, a second electrode, an ECG processor, the vibration sensing device, a heart sound filter, and a first analog/digital signal conversion. a lung sound filter, a second analog/digital signal converter, a photovascular volume pulse detector and a microcontroller. The first electrode is adapted to detect an ECG signal. The second electrode is disposed relative to the first electrode. An electrocardiographic signal processor is coupled to the first electrode and the second electrode. A heart sound filter is connected to the vibration sensing device. A second analog/digital converter is coupled to the lung sound filter. a microcontroller is coupled to the ECG signal processor, the vibration sensing device, the heart sound filter, the lung sound filter, the red blood vessel volume pulse detector, and the infrared light vessel volume pulse detector .

The portable cardiopulmonary efficacy monitoring device described above includes a digital interface connected to the microcontroller.

The portable cardiopulmonary efficacy monitoring device described above further includes a memory unit connected to the microcontroller.

The portable cardiopulmonary efficacy monitoring device described above further includes a timing unit connected to the microcontroller. The portable cardiopulmonary efficacy monitoring device described above, wherein the digital interface is a wired or wireless signal transmission device.

11‧‧‧ skin

12-1, 12-2‧‧‧ Ribs

13‧‧‧heart or lung

20‧‧‧External devices

100, 200, 300, 400‧‧‧ portable continuous blood pressure measuring device

500‧‧‧Portable Cardiopulmonary Performance Monitoring Device

110‧‧‧Vibration sensing device

111‧‧‧Vibration conduction element

112‧‧‧ Static meter

113‧‧‧Piezoelectric components

120‧‧‧Photovascular volume wrist wave detection component

130‧‧‧thoracic pulse filter

140‧‧‧ Third analog/digital converter

150‧‧‧Microcontroller

161‧‧‧Time unit

162‧‧‧Digital interface

163‧‧‧ memory unit

230‧‧‧heart sound filter

240‧‧‧First analog/digital converter

310‧‧‧First electrode

320‧‧‧second electrode

330‧‧‧ ECG Signal Processor

420‧‧‧Infrared light vessel volume wrist wave detection component

430‧‧ ‧ lung sound filter

440‧‧‧Second analog/digital converter

30‧‧‧ watches

31‧‧‧ Strap

FIG. 1 illustrates the vibration sensing device of the present invention.

2 is a portable continuous blood pressure measuring device of the first embodiment.

FIG. 3 illustrates a portable continuous blood pressure measuring device of the second embodiment.

FIG. 4 illustrates a portable continuous blood pressure measuring device according to a third embodiment.

FIG. 5 illustrates a portable continuous blood pressure measuring device of a fourth embodiment.

FIG. 6 illustrates a portable cardiopulmonary efficacy monitoring device.

FIG. 7A is a schematic diagram showing a specific implementation of a portable cardiopulmonary efficacy monitoring device.

Figure 7B illustrates a use of a wristwatch.

The invention provides a vibration sensing device, which can measure the cardiopulmonary efficacy of the wearer with the wristband and the filter, and can be measured through the clothes without long-term wear.

Please refer to FIG. 1. FIG. 1 illustrates the vibration sensing device of the present invention. The vibration sensing device 110 includes a piezoelectric element 113, a static force meter 112, a vibration conducting element 111 and a housing 114. The piezoelectric element 113 is a piezo film which generates a voltage when subjected to a pressure, so that the voltage element 113 can convert the vibration into an electronic signal. The static meter 112 is capable of measuring static force, so the static meter 112 is adapted to convert the static force into an electronic signal.

The vibration conducting element 111 is a T-shaped hard conductor adapted to conduct vibration and static electricity to the piezoelectric element 113 and the static force meter 112. Since the piezoelectric element 113 is a film-like element, in order to measure the heart sound and the lung sound, a slight pressure is required to make the vibration sensing device 110 contact the skin 11, but the piezoelectric element 113 may be overstressed to saturation. Distortion, and the piezoelectric element 113 itself is also easily damaged. The vibration conducting element 111 can serve as an intermediate conducting element to conduct the vibration of the heart sound and the lung sound to the piezoelectric element 113. The static force meter 112 can measure the applied pressure to prevent the piezoelectric element 113 from being subjected to excessive pressure.

The static meter 112 can supplement the disadvantage that the piezoelectric element 113 cannot measure the static force (DC signal). Conversely, the piezoelectric element 113 can also supplement the disadvantage that the static force meter 112 cannot measure the vibration (alternating signal). Therefore, the static force meter 112 and the piezoelectric element 113 allow the vibration sensing device 110 to measure the signals of static force and vibration. The outer casing 114 encloses the static force meter 112, the piezoelectric element 113 and a portion of the vibration conducting element 111. Another part The shock conducting element 111 then projects from the outer casing 114 and contacts the skin 11. In the embodiment of FIG. 1, the static force meter 112 is disposed between the piezoelectric element 113 and the shock conducting element 111. In the preferred embodiment, the positional relationship between the static force meter 112 and the piezoelectric element 113 is not absolute, so that the position of the static force meter 112 and the piezoelectric element 113 can be exchanged, and the original effect can be exerted.

The vibration sensing device 110 is specifically used in such a manner that the end of the vibration conducting element 111 protruding from the outer casing 114 is in contact with the skin 11. The vibration sensing device 110 is enabled to receive vibrations from the heart or lungs 13 between the two ribs 12-1 and 12-2 to further measure heart sounds or lung sounds. The electronic signal obtained by the vibration sensing device 110 can be further calculated into different data through an external device, thereby monitoring cardiopulmonary efficacy. The application manner of different embodiments will be described below.

Please refer to FIG. 2. FIG. 2 illustrates the portable continuous blood pressure measuring device of the first embodiment. The portable continuous blood pressure measuring device 100 includes the vibration sensing device 110 (including the piezoelectric element 113, the static force meter 112), a light vessel volume wrist wave detecting component 120, a chest pulse wave filter 130, A third analog/digital converter 140 is coupled to a microcontroller 150. In the preferred embodiment, the portable continuous blood pressure measuring device 100 further includes a digital interface 162, a memory unit 163 and a timing unit 161. Each component will be described one by one below.

The photovascular volume wrist wave detecting element 120 is connected to the micro controller 150, and the photovascular volume wrist wave detecting element 120 is a photoplethysmograph (PPG) method for obtaining a wrist pulse wave, and the measured The wrist pulse wave is transmitted to the microcontroller 150.

The thoracic pulse filter 130 is a piezoelectric element 113 that is coupled to the vibration sensing device 110. In one embodiment, the thoracic pulse filter 130 is capable of filtering out the chest pulse from the signal measured by the piezoelectric element 113. The third analog/digital signal converter 140 is coupled to the chest pulse wave filter 130 and is adapted to receive an electronic signal from the chest pulse wave filter 130. And further convert the electronic signal into a digital signal. Microcontroller 150 is suitable Signals from the third analog/digital signal converter 140 and the photovascular volume wrist wave detecting element 120 are received. In the present embodiment, after acquiring the chest pulse wave and the wrist pulse wave, the microcontroller 150 calculates the time between the two, that is, the pulse transit time (PTT), and the continuous blood pressure can be calculated from the PTT. Achieve the function of measuring continuous blood pressure.

The digital interface 162 is coupled to the microcontroller 150. The digital interface 162 is a wired or wireless signal transmission device and is adapted to communicate information received by the digital interface 162 to an external device 20. The memory unit 163 is coupled to the microcontroller 150 and is adapted to store information calculated by the microcontroller 150. Timing unit 161 is coupled to the microcontroller 150 and is adapted to provide time information to the microcontroller 150. The external device 20 is, for example, a smart phone or a personal computer. The external device 20 can be further connected to the portable continuous blood pressure measuring device 100 through the installation software, and the related data can be read and displayed for others to browse.

In the first embodiment, the static force meter 112 can be further connected to the microcontroller 150, and the external device 20 is used to remind the user to apply appropriate static force to obtain good quality chest pulse wave and wrist pulse wave. Also, avoid damage to the piezoelectric element.

Please refer to FIG. 3. FIG. 3 illustrates a portable continuous blood pressure measuring device according to a second embodiment. The portable continuous blood pressure measuring device 200 of the second embodiment includes the foregoing vibration sensing device 110 (including piezoelectric element 113, static meter 112), a light vessel volume wrist wave detecting component 120, and a heart sound. The filter 230, a first analog/digital converter 240 and a microcontroller 150. In the preferred embodiment, the portable continuous blood pressure measuring device 200 further includes a digital interface 162, a memory unit 163 and a timing unit 161. The functions of the vibration sensing device 110, the light vessel volume wrist wave detecting component 120, the digital interface 162, the memory unit 163, and the timing unit 161 are the same as those of the foregoing embodiment, and therefore will not be described again.

The second embodiment is characterized in that a heart sound filter 230 and a first analog/digital signal converter 240 are included. The heart sound filter 230 is connected to the piezoelectric element 113 in the vibration sensing device 110 and is The heart sound is filtered from the electronic signal of the piezoelectric element 113, and the first analog/digital converter 240 is connected to the heart sound filter 230, and converts the heart sound into a digital signal. The microcontroller 150 receives the heart sound and the wrist pulse wave, and calculates the time between the two, that is, the pulse transit time (PTT), and the PTT can calculate the continuous blood pressure to achieve the function of measuring the continuous blood pressure.

In the second embodiment, the static force meter 112 can be further connected to the microcontroller 150, and the external device 20 is used to remind the user to apply appropriate static force to obtain a good heart sound and a wrist pulse wave. Avoid damage to the piezoelectric components.

Please refer to FIG. 4. FIG. 4 illustrates a portable continuous blood pressure measuring device according to a third embodiment. The portable continuous blood pressure measuring device 300 of the third embodiment includes a first electrode 310, a second electrode 320, an electrocardiographic signal processor 330, a static force meter 112, and a light vessel volume wrist wave detecting component 120. A microcontroller 150, a digital interface 162, a memory unit 163 and a timing unit 161. The function of the photovascular volume wrist wave detecting component 120, the digital interface 162, the memory unit 163, and the timing unit 161 is the same as that of the foregoing embodiment, and therefore will not be described again.

The third embodiment is characterized in that the portable continuous blood pressure measuring device 300 comprises a first electrode 310, a second electrode 320, an ECG processor 330 and a static meter 112. The first electrode 310 and the second electrode 320 are adapted to measure an electrocardiographic signal via contact with the wearer's skin. The ECG processor 330 is coupled to the first electrode 310 and the second electrode 320 to further process the ECG signal and convert it into a signal that the microcontroller 150 can operate. The photovascular volume wrist wave detecting element 120 measures the wrist pulse wave. The microcontroller 150 receives the ECG signal and the wrist pulse wave, and calculates the time between the two, that is, the Pulse transit time (PTT), and the PTT can calculate the continuous blood pressure to achieve the function of measuring the continuous blood pressure. .

The static force meter 112 can measure the force applied by the light vessel volume wrist wave detecting component 120 to the wrist blood vessel when detecting the wrist pulse wave, and transmit the force measurement value to the microcontroller 150. The microcontroller 150 will recognize The force measurement value is used, and then the force measurement value is displayed on the digital interface 162. When the force measurement value is too large or too small, the prompt slogan is displayed on the digital interface, prompting the user to control the force and improve the accuracy of measuring the continuous blood pressure. .

Please refer to FIG. 5. FIG. 5 illustrates a portable continuous blood pressure measuring device according to a fourth embodiment. The portable continuous blood pressure measuring device 400 of the fourth embodiment includes the foregoing vibration sensing device 110, a light vessel volume wrist wave detecting component 120, a heart sound filter 230, and a first analog/digital signal conversion. The device 240, a first electrode 310, a second electrode 320, an ECG processor 330, a static meter 112, a light vessel volume wrist wave detecting component 120, a microcontroller 150, a digital interface 162, A memory unit 163 and a timing unit 161.

In particular, the fourth embodiment is an advantage in combination with the third embodiment and the second embodiment. The ECG signal is measured by the first electrode 310 and the second electrode 320, the heart sound signal is measured by the vibration sensing device 110, and the wrist pulse wave is measured by the blood vessel volume wrist wave detecting component 120, and is matched with the heart sound filter 230 and the ECG signal. The processor 330 processes the appropriate ECG signals and heart sound signals. The wrist wave, the electrocardiogram signal and the heart sound signal are received by the microcontroller 150, the pulse wave transit time is further calculated, and the continuous blood pressure is calculated to achieve the function of measuring the continuous blood pressure. At the same time, the vibration sensing device 110 also includes a static force meter 112, and can also detect the force applied by the light vessel volume wrist wave detecting component 120 to the wrist blood vessel when detecting the wrist pulse wave, as a prompting user The basis of the example is to ensure the accuracy of measuring continuous blood pressure.

Please refer to FIG. 6. FIG. 6 illustrates a portable cardiopulmonary efficacy monitoring apparatus according to a fifth embodiment. The portable cardiopulmonary performance monitoring device 500 includes the foregoing vibration sensing device 110 (including piezoelectric element 113, static meter 112), a lung sound filter 430, a second analog/digital signal converter 440, and infrared light. a blood vessel volume wrist wave detecting component 420, a light vessel volume wrist wave detecting component 120, a heart sound filter 230, a first analog/digital signal converter 240, a first electrode 310, and a second electrode 320 One heart telegraph The processor 330, the light vessel volume wrist wave detecting component 120, a microcontroller 150, a digital interface 162, a memory unit 163 and a timing unit 161.

The vibration sensing device 110, the light vessel volume wrist wave detecting component 120, a heart sound filter 230, a first analog/digital signal converter 240, the first electrode 310, the second electrode 320, and the ECG signal processor The functions of the light vessel volume wrist wave detecting component 120, the microcontroller 150, the digital interface 162, the memory unit 163, and the timing unit 16 are similar to those of the foregoing embodiment, and are not described herein again.

The portable cardiopulmonary efficacy monitoring device 500 further includes a lung sound filter 430, a second analog/digital signal converter 440, and an infrared light vessel volume wrist wave detecting element 420. The lung sound filter 430 is connected to the vibration sensing device 110 and receives an electronic signal from the vibration sensing device 110. The lung sound filter 430 can filter out the lung sound signal from the electronic signal from the vibration sensing device 110. The second analog/digital converter 440 is connected to the lung sound filter 430, and converts the lung sound signal filtered by the lung sound filter 430 into a digital signal and transmits it to the microcontroller 150. The infrared light vessel volume wrist wave detecting element 420 measures the wrist wave of the user through infrared light and transmits the wrist pulse wave to the controller 150.

That is, in the fifth embodiment, the portable cardiopulmonary efficacy monitoring device 500 can measure the wrist pulse, the heart sound, the lung sound, and the ECG signal. And integrated by the microcontroller 150, through the mutual calculation and comparison of multiple signals, calculate the parameters such as myocardial performance index and contraction performance index, and further analyze the health status of the human body.

In the fifth embodiment, it is further possible to connect the static meter 112 to the microcontroller 150, and the external device 20 is used to remind the user to apply appropriate static force to obtain good quality heart sounds and lung sounds, and also avoid The piezoelectric element 113 is damaged.

Please refer to FIG. 7A . FIG. 7A is a schematic diagram of a specific implementation of the portable cardiopulmonary efficacy monitoring device. The portable continuous blood pressure measuring device can be worn by the user in the form of a wristwatch 30. And the watch 30 can be equipped The photovascular blood vessel volume detector 120, the vibration sensing device 110, the first electrode 310 and the second electrode 320 are in contact with the wearer by the portable continuous blood pressure measuring device. In this embodiment, the photovascular volume pulse detector 120 includes an infrared light source 121, a red light source 122 and a photoreceptor 123, respectively mounted on the strap 31, and the vibration sensing device 110 is mounted on the light. The other side of the vessel volume pulse wave detector 120. The first electrode 310 and the second electrode 320 are disposed on the watch band 31 at relative positions. The first electrode 310 is disposed on the outer side of the wristwatch 30, and the second electrode 320 is disposed on the inner side of the wristwatch 31, such that the first electrode 310 and the second electrode 320 are in contact with the user's two hands. To measure the signal.

Please refer to FIG. 7B. FIG. 7B illustrates a manner of using the wristwatch. The user can wear the wristwatch 30 on one of the hands, and then place the watch in front of the heart, and then use the other hand to hold the watch. 30 cover, and apply appropriate force to make the watch in contact with the body, and do not need to retreat the clothes when using. This operation mode allows the watch to simultaneously capture the wearer's ECG, lung sound, heart sound, wrist pulse wave and chest pulse wave. The read signal can be transmitted to the external device 30 through the digital interface 162 for further display.

The portable continuous blood pressure measuring device or the portable cardiopulmonary performance monitoring device of the present invention has a design of the static force meter 112 via the vibration sensing device 110, and cooperates with the vibration conducting element 111 to conduct vibration, so that the piezoelectric element 113 is further Read the value accurately. It can be designed as a watch 30, which is easier to overwork and can measure the user's physiological signals through the clothes. In addition, the digital interface 162 allows data to be transmitted to other external devices, making it easier to monitor physiological signals.

The present invention has been described above, but it is not intended to limit the scope of patent rights claimed herein. The scope of patent protection is subject to the scope of the patent application and its equivalent fields. Any changes or modifications made by those skilled in the art without departing from the spirit or scope of this patent are subject to the equivalent changes or designs made in the spirit of the present disclosure and should be included in the scope of the patent application below. Inside.

The present invention is described above by way of example, but it is not intended to limit the scope of patent rights claimed herein. The scope of patent protection is subject to the scope of the patent application and its equivalent fields. Any changes or modifications made by those skilled in the art without departing from the spirit or scope of this patent are subject to the equivalent changes or designs made in the spirit of the present disclosure and should be included in the scope of the patent application below. Inside.

Claims (26)

A vibration sensing device includes: a piezoelectric element adapted to convert vibration into an electronic signal; a static force meter connected to the piezoelectric element, adapted to convert a force into an electronic signal; a vibration conducting element, and The static meter connection is adapted to conduct vibrations to the piezoelectric element; and an outer casing encasing the voltage element, the static meter and the vibration conducting element. A portable continuous blood pressure measuring device comprises: a light vessel volume wrist wave detecting component; a vibration sensing device according to claim 1; a chest pulse wave filter, and the vibration sensing a third analog/digital signal converter coupled to the thoracic pulse filter; and a microcontroller coupled to the photovascular volume wrist wave detecting component and the third analog/digital converter . The portable continuous blood pressure measuring device according to claim 2, further comprising a digital interface connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 2, further comprising a memory unit connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 2, further comprising a timing unit connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 3, wherein the digital interface is a wired or wireless signal transmitting device. A portable continuous blood pressure measuring device, comprising: a vibration sensing device according to claim 1; a heart sound filter connected to the vibration sensing device; and a first analog/digital signal converter, Connected to the heart sound filter; a light vessel volume wrist wave detecting component; and a microcontroller connected to the light vessel volume wrist wave detecting component and the first analog/digital signal converter. The portable continuous blood pressure measuring device according to claim 7, wherein a digital interface is connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 7, wherein a memory unit is further connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 7, wherein a timing unit is further connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 8, wherein the digital interface is a wired or wireless signal transmitting device. A portable continuous blood pressure measuring device comprising: a first electrode adapted to detect an ECG signal; a second electrode disposed relative to the first electrode; an ECG processor coupled to the first electrode and the second electrode; a photovascular volume wrist wave detecting component; a static meter, and the The light vessel volume wrist wave detecting component is connected; and a microcontroller is connected to the light vessel volume wrist wave detecting component and the ECG signal processor. The portable continuous blood pressure measuring device according to claim 12, wherein a digital interface is included and connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 12, further comprising a memory unit connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 12, further comprising a timing unit connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 13, wherein the digital interface is a wired or wireless signal transmitting device. A portable continuous blood pressure measuring device includes: a first electrode adapted to detect an ECG signal; a second electrode disposed relative to the first electrode; and an ECG signal processor connected to the first An electrode and the second electrode; a vibration sensing device according to claim 1; a heart sound filter connected to the vibration sensing device; and a first analog/digital signal converter connected to the heart sound filter And; A microcontroller is coupled to the ECG processor and the first analog/digital converter. The portable continuous blood pressure measuring device according to claim 17, wherein a digital interface is connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 17, further comprising a memory unit connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 17, further comprising a timing unit connected to the microcontroller. The portable continuous blood pressure measuring device according to claim 18, wherein the digital interface is a wired or wireless signal transmitting device. A portable cardiopulmonary efficacy monitoring device includes: a first electrode adapted to detect an ECG signal; a second electrode disposed relative to the first electrode; and an ECG signal processor coupled to the first electrode And the second electrode; a vibration sensing device according to claim 1; a heart sound filter connected to the vibration sensing device; and a first analog/digital signal converter connected to the heart sound filter a lung sound filter connected to the vibration sensing device; a second analog/digital signal converter connected to the lung sound filter; a light vessel volume wrist wave detecting component; and an infrared light vessel volume wrist Pulse wave detecting component; and a microcontroller connected to the ECG signal processor, the vibration sensing device, the heart sound filter, the lung sound filter, the light vessel volume wrist wave detecting component, and the infrared light vessel volume wrist pulse wave Detect components. The portable cardiopulmonary efficacy monitoring device of claim 22, comprising a digital interface connected to the microcontroller. The portable cardiopulmonary efficacy monitoring device of claim 22, further comprising a memory unit connected to the microcontroller. The portable cardiopulmonary efficacy monitoring device of claim 22, further comprising a timing unit connected to the microcontroller. The portable cardiopulmonary efficacy monitoring device of claim 23, wherein the digital interface is a wired or wireless signal transmission device.