TW201542160A - Multifunction biomedical system and method integrated with mobile apparatus - Google Patents

Abstract

A multifunction biomedical system and method integrated with mobile apparatus is disclosed, which includes a multifunction biomedical device and a mobile apparatus. The multifunction biomedical device uses a plurality of selective functional units disabled in the mean time to fulfill the selective function. After the mobile apparatus is used to choose a additional function on the multifunction APP executed on the mobile apparatus, the enable instruction is sent to the multifunction biomedical device for the related function unit to be enalbe.

Description

Multifunctional physiological signal measuring system and method thereof for integrating mobile devices

The invention relates to a physiological signal measuring system, in particular to a multifunctional physiological signal measuring system and a method thereof for integrating a mobile device.

At present, the portable physiological signal measuring device on the market has a multifunctional physiological measuring device, a blood pressure meter, an ear thermometer and the like. These physiological signal measuring devices generally use a battery as a power source to drive the operation of the entire instrument. In addition, the operation interface of these physiological signal measuring devices is generally simple, that is, there is not much functionality at the same time in one device.

Because the users who normally perform physiological signal measurement in the normal state are mostly elderly people, the simpler the operation and control is, the better the design of the user interface is.

However, due to the rapid development of technology, it is not difficult to integrate various functions into a single machine. The problem is how to make it easy to choose in an effective way, so that users can enjoy the benefits of multi-function. In other words, if the operation interface is complicated due to the versatility, the user's willingness to use is reduced.

Therefore, if the physiological measuring device itself can be multi-functional at the same time, and it can save power and has an easy operation interface, the multifunctional physiological measuring device has the opportunity to become a product that the general public is willing to adopt.

In view of this, the present invention provides a multifunctional physiological measurement system for integrating mobile devices, which can solve the problem of mass production variability in combination with a PIN card, and has the environmental protection effect without a PIN card.

The invention provides a multifunctional physiological measuring system for integrating a mobile device, comprising: a multifunctional physiological measuring device and a mobile device. The multifunctional physiological measuring device comprises: a communication unit, a first physiological signal measuring circuit, a second physiological signal measuring circuit, a three-dimensional sensor, a satellite positioning sensor and a control unit. The communication unit is used for sending and receiving data. The first physiological signal measuring circuit is configured to measure a first physiological signal. The second physiological signal measuring circuit is configured to measure a second physiological signal. A three-dimensional sensor is used to detect the three-dimensional motion of the multifunctional physiological measuring device. A satellite positioning sensor is used to receive a satellite positioning signal. The control unit is connected to the communication unit, the first physiological signal measuring circuit, the second physiological signal measuring circuit, the three-dimensional sensor and the satellite positioning sensor, and the preset first physiological signal measuring circuit is a working circuit and is activated. The second physiological signal measuring circuit, the three-dimensional sensor or the satellite positioning sensor is activated by the command. The mobile device is connected via a communication unit of the multifunctional physiological measuring device, and an auxiliary function menu is provided by the multifunctional physiological measuring application, and then one of the plurality of auxiliary function options is selected by the auxiliary function menu, and a startup command is generated. Transfer to a multifunctional physiological measuring device.

The invention further provides a function selection method for a multifunctional physiological measurement system integrating mobile devices, which is applied to a system comprising a mobile device and a multifunctional physiological measuring device, comprising the following steps: physiological signal measuring device and action The device is connected; the mobile device displays a plurality of accessory function options; the mobile device generates a corresponding accessory function activation command according to the accessory function option selected by the user, and transmits the signal to the physiological signal measuring device; the physiological signal measuring device according to According to the auxiliary function start command, the corresponding auxiliary function is opened; the corresponding auxiliary function measuring accessory is connected; the physiological signal measuring device uploads the executed auxiliary function result to the mobile device; and the mobile device displays the auxiliary function of the physiological signal measuring device result.

The detailed features and advantages of the present invention are set forth in the Detailed Description of the Detailed Description of the <RTIgt; </ RTI> <RTIgt; </ RTI> </ RTI> </ RTI> <RTIgt; The objects and advantages associated with the present invention can be readily understood by those skilled in the art.

10‧‧‧Server

20‧‧‧Network

30‧‧‧Mobile equipment

31‧‧‧ screen

311‧‧‧Test Paper Code Options

312‧‧‧Test Paper Code Options

313‧‧‧Test Paper Code Options

314‧‧‧Test Paper Code Options

315‧‧‧ function menu

316‧‧‧ Results display field

40‧‧‧Multifunctional physiological measuring device

41‧‧‧Control unit

42‧‧‧Communication unit

43‧‧‧First physiological signal measuring circuit

44‧‧‧Display unit

45‧‧‧Second physiological signal measuring circuit

46‧‧‧3D sensor

47‧‧‧Satellite Positioning Sensor

50‧‧‧Connecting line

600‧‧‧Multifunctional physiological measuring device connected to mobile equipment

610‧‧‧Mobile devices display multiple accessory options

620‧‧‧Mobile devices generate corresponding auxiliary function activation commands according to the auxiliary function options selected by the user, and transmit them to the physiological signal measuring device

630‧‧‧The physiological signal measuring device activates the corresponding auxiliary function according to the auxiliary function start command

640‧‧‧Connected to the corresponding auxiliary function measuring accessories

650‧‧‧ Physiological signal measuring device uploads the results of the attached function to the mobile device

660‧‧‧Mobile devices display the results of the auxiliary functions of the physiological signal measuring device

700‧‧‧Power on the system

710‧‧‧Enable first physiological signal measurement circuit

720‧‧‧Connected to mobile devices

730‧‧‧ Receiving the auxiliary function start command transmitted by the mobile device

740‧‧‧Start the corresponding component according to the auxiliary function start command

751‧‧‧Enable second physiological signal measurement circuit

752‧‧‧Enable 3D sensor

Step 753‧‧‧Enable GPS

754‧‧‧Connecting measuring accessories

760‧‧‧Measurement results uploaded to mobile devices

800‧‧‧Multifunctional Physiology Application Open

810‧‧‧Connected with multifunctional physiological measuring device

820‧‧‧Open function menu

830‧‧‧Select the auxiliary function and issue the auxiliary function start command

840‧‧‧Received accessory function execution result

850‧‧‧ Displaying the results of the affiliate function

1A is a system architecture diagram of a multifunctional physiological measurement system for an integrated mobile device according to the present invention; FIG. 1B is a functional block diagram of a multifunctional physiological measurement device of a multifunctional physiological measurement system for an integrated mobile device according to the present invention; 2 is a flow chart of a method for downloading a password card on the cloud line of the present invention; FIG. 3 is a flow chart of a method for downloading a password card on the cloud line of the present invention, and a flow chart of a multifunctional physiological measuring device; FIG. Flow chart of the method for downloading the password card on the cloud line of the invention, flow chart of the mobile device end; the 5A~5D figure is the multifunctional physiological measurement application program of the mobile device end of the multifunctional physiological measurement system of the integrated mobile device of the present invention A schematic diagram of one embodiment of the screen; FIG. 6A to FIG. 6E are diagrams showing an embodiment of a multi-functional physiological measurement application screen of the mobile device of the multi-functional physiological measurement system of the integrated mobile device of the present invention.

The invention realizes the purpose of dynamically selecting the auxiliary function of the multifunctional physiological measuring device by integrating the system of the mobile device and the multifunctional physiological measuring device, so that the multifunctional physiological measuring device does not need to be selected through a complicated device end. By means of the convenience of the mobile device APP, the multifunctional selection of the multifunctional physiological measuring device is realized, and at the same time, the power saving characteristic of the multifunctional physiological measuring device can be maintained.

The multifunctional physiological measurement system for integrated mobile devices provided by the present invention can be applied to the system of FIG. 1A, which includes a server 10, a mobile device 30, and a multifunctional physiological measuring device 40. The server 10 and the mobile device 30 are generally connected by the network 20. The network 20 is generally constructed by a telecommunication network and an Internet, which is a part of the prior art, and will not be further described herein. The multifunctional physiological measuring device 40 and the mobile device 30 can be connected by wire or wirelessly, and the wired way can be connected through the earphone hole and the USB cable; the wireless way can be through the Bluetooth or the incoming communication ( NFC) connection. In the present invention, the purpose of the multi-functional selection desired by the present invention can be achieved by using only the mobile device 30 and the multi-function physiological signal measuring device 40. Therefore, the system architecture to which the present invention is mainly applied will be described below with reference to Fig. 1B.

Referring to FIG. 1B, the multifunctional physiological measurement system of the integrated mobile device of the present invention comprises: a multifunctional physiological measuring device 40 and a mobile device 30. The multifunctional physiological measuring device 40 includes: a control unit 41, a communication unit 42, a first physiological signal measuring circuit 43, a display unit 44, a second physiological signal measuring circuit 45, a three-dimensional sensor 46, and satellite positioning. Sensor 47 and the like. The communication unit 42 can select the earphone hole communication circuit to communicate through the earphone hole of the mobile device 30; or, the USB communication component can be used to communicate through the USB of the mobile device 30; or, the blue can be used. The bud communication component can communicate by the Bluetooth of the mobile device 30; Alternatively, near field communication components (NFC) can be used to communicate by near field communication. The remaining components are within the scope of the prior art and will not be further described herein.

The communication unit 42 is connected to the mobile device 30 to transmit and receive data. The first physiological signal measuring circuit 43 is configured to measure the first physiological signal. The second physiological signal measuring circuit 45 is configured to measure the second physiological signal. The three-dimensional sensor 46 is configured to detect three-dimensional motion of the multifunctional physiological measuring device 30. The satellite positioning sensor 47 is configured to receive satellite positioning signals. The control unit 41 is connected to the communication unit 42, the first physiological signal measuring circuit 43, the display unit 44, the second physiological signal measuring circuit 45, the three-dimensional sensor 46 and the satellite positioning sensor 47, and presets the first physiological signal amount. The measuring circuit 43 is a working circuit and receives the content of a start command to activate the second physiological signal measuring circuit 45, the three-dimensional sensor 46 or the satellite positioning sensor 47. The mobile device 30 provides an accessory function menu by a multi-function physiological measurement application, and then selects one of the plurality of accessory function options by the accessory function menu, generates a startup command and transmits the activation command to the multifunctional physiological measurement device 30, so that the multifunctional device The physiological measurement device 30 is based on the selection of an accessory function.

The first physiological signal measuring circuit 43 can be selected from the group consisting of a blood glucose measuring circuit, a blood pressure measuring circuit, and a body temperature measuring circuit. The second physiological signal measuring circuit 45 can be selected from the group consisting of a body fat measuring circuit, a respiratory measuring circuit, and a heart rate measuring circuit. When the second physiological signal measuring circuit 45 needs a measuring component for measurement, the measuring component can be connected to the second physiological signal measuring circuit 45, for example, an electrode required for body fat detection. The three-dimensional sensor 46 can implement any combination of the following functions: an athletic measurement accessory function, a sleep measurement accessory function. The satellite positioning sensor 47 can realize any combination of the following functions: a position locking accessory function, and a mobile phone anti-lost accessory function.

Among the mobile devices 30, the following accessory functions can be arbitrarily selected and combined: motion measurement accessory function, sleep measurement accessory function, position lock accessory function, mobile phone defense Drop attachment function, help call attachment function, body fat measurement auxiliary function, heart rate measurement auxiliary function, respiratory measurement auxiliary function.

Next, referring to FIG. 2, a flowchart of a method for downloading a password card on the cloud line of the present invention is applied to a system composed of the server 10, the mobile device 30, and the multifunctional physiological measuring device 40, as shown in FIG. 1A. The server 10 stores a plurality of password card data, including the following steps:

Step 600: The multifunctional physiological measuring device is connected to the mobile device.

Step 610: The mobile device displays a plurality of accessory function options.

Step 620: The mobile device generates a corresponding auxiliary function activation command according to the auxiliary function option selected by the user, and transmits the corresponding auxiliary function activation instruction to the physiological signal measuring device.

Step 630: The physiological signal measuring device starts the corresponding auxiliary function according to the auxiliary function starting instruction.

Step 640: Connect the corresponding accessory function measurement accessory.

Step 650: The physiological signal measuring device uploads the executed auxiliary function result to the mobile device.

Step 660: The mobile device displays an auxiliary function execution result of the physiological signal measuring device.

Wherein, the multifunctional physiological measuring device 40 performs the following steps, as shown in FIG. 3:

Step 700: The system is powered on.

Step 710: Enable the first physiological signal measurement circuit.

Step 720: Connect to the mobile device.

Step 730: Receive an auxiliary function start instruction transmitted by the mobile device.

Step 740: Start the corresponding component according to the auxiliary function startup instruction. The activation command is based on the settings on the function menu on the mobile device 30, which corresponds to the function of the multifunctional physiological measurement device itself. Therefore, the activation of the corresponding component is a necessary condition for the activation of the corresponding accessory function, and at the same time, the control program among the control unit 41 is also correspondingly activated. Therefore, the corresponding elements of the energy generation may have steps 751, 752, 753, and the like.

Step 751: Enable the second physiological signal measuring circuit.

Step 752: Enable a three-dimensional sensor. Step 753: Enable GPS.

Step 754: Connect the measurement accessories.

Step 760: The measurement result is uploaded to the mobile device.

The mobile device 30 performs the following steps, as shown in FIG. 4:

Step 800: The multifunctional physiological measurement application is turned on.

Step 810: Connect with the multifunctional physiological measuring device.

Step 820: Open the function menu.

Step 830: Select an auxiliary function, and issue an auxiliary function start instruction.

Step 840: Receive an auxiliary function execution result.

Step 850: Display the auxiliary function execution result.

The present invention achieves the purpose of selecting an auxiliary function of the multifunctional physiological measuring device 40 through the mobile device 30 by the above steps. In the aspect of the multifunctional physiological measuring device 40, since only one main function is normally used, that is, the first physiological signal measuring circuit 43 is turned on, the purpose of power saving can be achieved. Next, please refer to FIGS. 5A-5D to illustrate how the present invention achieves the selection of different accessory functions by the operation of the mobile device 30 end in a simulated picture.

Referring to Figure 5A, the multi-function physiological measurement application presents a home screen menu on the screen 31 of the mobile device 30. The main screen menu contains a function menu. After clicking the function menu, you will enter the function menu screen of Figure 5B. In Figure 5B, there are 8 auxiliary function options, respectively, the motion measurement accessory function option 311, the sleep measurement accessory function option 312, the location lock accessory function option 313, the mobile phone anti-lost accessory function option 314, and the call-to-call accessory function option. 315. The body fat measurement accessory function option 316, the heart rate measurement accessory function option 317, the respiratory measurement accessory function option 318, and the main screen menu 319 allow the user to return to the main screen menu of FIG. 5A. By means of a plurality of different accessory function options, the user can select different accessory functions. In normal times, only when the user selects the accessory function option, the multifunctional physiological measuring device 40 will enable the related functions, and the multifunctional function can be enabled. The physiological measuring device 40 saves power.

When the user selects one of the eight accessory function options, the function side of the corresponding multi-function physiological measuring device 40 is turned on. In the multifunctional physiological measuring device 40, the relevant hardware components and the control program in the control unit 41 are simultaneously turned on. For example, in FIG. 5B, after the user clicks the motion measurement accessory function option 311, a screen as shown in FIG. 5C can be generated to remind the user that the related function has been turned on and can be used. When the user starts to use the multi-function physiological measuring device 40 to perform motion, the execution of, for example, the number of steps, the calorie calculation, the calculation of the number of heartbeats, and the like can be started by the related accessory function and the opening of the component. When the motion measurement accessory function is performed, the second physiological signal measuring circuit 45 and the three-dimensional sensor 46 in FIG. 1B are simultaneously turned on. Finally, a result screen 320 as shown in FIG. 5D can be generated to alert the user to the effectiveness of the exercise.

Next, please refer to Figures 6A-6E, which illustrate the case where another accessory function option is selected, that is, the body fat measurement accessory function option 316. Body fat measurement accessory function option After the 316 is selected, the multifunctional physiological measuring device 40 turns on the second physiological signal measuring circuit 45, and reminds the user to connect the relevant measuring body fat electrode, please refer to FIG. 6B and present the result screen. 320. When the user connects the measuring body fat electrode, a related reminder indication is generated, and the user starts the measurement, as shown in the result screen 320 of FIG. 6C. Finally, when the user presses the electrode for a period of time and the measurement is completed, the result of the measurement can be displayed on the result screen 320, as shown in FIGS. 6D and 6E.

The above embodiment illustrates that the multi-functional physiological measurement application in the mobile device 30 can interact with the user, thereby allowing the user to use the user interface of the familiar mobile device without having to make more Functional physiological measurement devices are complicated, which increases the difficulty of use. In addition, the multi-functional physiological measurement application can provide different interfaces with different users, so that different users can select the picture they like, which is also a feature that the multifunctional physiological measuring device 40 cannot reach.

Although the technical content of the present invention has been disclosed in the above preferred embodiments, it is not intended to limit the present invention, and any modifications and refinements made by those skilled in the art without departing from the spirit of the present invention are encompassed by the present invention. The scope of protection of the present invention is therefore defined by the scope of the appended claims.

600‧‧‧Multifunctional physiological measuring device connected to mobile equipment

610‧‧‧Mobile devices display multiple accessory options

620‧‧‧Mobile devices generate corresponding auxiliary function activation commands according to the auxiliary function options selected by the user, and transmit them to the physiological signal measuring device

630‧‧‧The physiological signal measuring device activates the corresponding auxiliary function according to the auxiliary function start command

640‧‧‧Connected to the corresponding auxiliary function measuring accessories

The 650‧‧‧ physiological signal measuring device uploads the results of the attached functions to the mobile device.

The 660‧‧‧ mobile device displays the results of the ancillary function execution of the physiological signal measuring device.

Claims (11)

A multifunctional physiological measuring system for integrating a mobile device comprises: a multifunctional physiological measuring device comprising: a communication unit for transmitting and receiving data; and a first physiological signal measuring circuit for measuring a first a physiological signal; a second physiological signal measuring circuit for measuring a second physiological signal; a three-dimensional sensor for detecting a three-dimensional motion of the multifunctional physiological measuring device; and a satellite positioning sensing The device is configured to receive a satellite positioning signal; and a control unit, the communication unit, the first physiological signal measuring circuit, the second physiological signal measuring circuit, the three-dimensional sensor and the satellite positioning sensor Presetting the first physiological signal measuring circuit as a working circuit, and receiving a start command to activate the second physiological signal measuring circuit, the three-dimensional sensor or the satellite positioning sensor; and a mobile device The communication unit of the multifunctional physiological measuring device is connected, and an auxiliary function menu is provided by a multifunctional physiological measuring application, and then the auxiliary function menu selects a plurality of auxiliary functions. After one of the items, and generating the activation command is transmitted to the multifunction physiological measuring apparatus. The multifunctional physiological measurement system of the integrated mobile device according to claim 1, wherein the mobile device is connected to the multifunctional physiological measuring device by a Bluetooth device. The multifunctional physiological measurement system of the integrated mobile device according to claim 1, wherein the mobile device is connected to the multifunctional physiological measuring device via a headphone jack. The multi-functional physiological measurement system of the integrated mobile device according to claim 1, wherein the first physiological signal measuring circuit is selected from the group consisting of: a blood glucose measuring circuit, a blood pressure measuring circuit, and an integrated temperature measuring circuit. The multi-functional physiological measurement system of the integrated mobile device according to claim 4, wherein the second physiological signal measuring circuit is selected from the group consisting of: an integrated fat measuring circuit, a respiratory measuring circuit, and a heart rate measuring circuit. The multi-functional physiological measurement system of the integrated mobile device according to claim 1, wherein the three-dimensional sensor can implement any combination of the following functions: an exercise measurement accessory function, a sleep measurement accessory function. The multifunctional physiological measurement system of the integrated mobile device according to claim 1, wherein the satellite positioning sensor can implement any combination of the following functions: a position locking accessory function, and a mobile phone anti-lost accessory function. The multi-functional physiological measurement system of the integrated mobile device according to claim 1, wherein the auxiliary function options are arbitrarily selected and combined by the following auxiliary functions: an exercise measurement auxiliary function, a sleep measurement auxiliary function, and a position locking auxiliary function. , mobile phone anti-lost accessory function, call-to-call accessory function, body fat measurement accessory function, heart rate measurement accessory function, respiratory measurement accessory function. A function selection method for a multifunctional physiological measurement system integrating mobile devices, which is applied to a system comprising a mobile device and a multifunctional physiological measuring device, comprising: a physiological signal measuring device and a mobile device; and a mobile device Display multiple auxiliary function options; the mobile device generates corresponding auxiliary functions according to the auxiliary function options selected by the user. The command can be started and transmitted to the physiological signal measuring device; the physiological signal measuring device activates the corresponding auxiliary function according to the auxiliary function starting instruction; connects the corresponding auxiliary function measuring accessory; and the auxiliary function result that the physiological signal measuring device will execute Uploaded to the mobile device; and the mobile device displays the execution result of the accessory function of the physiological signal measuring device. The function selection method of the multifunctional physiological measurement system of the integrated mobile device according to claim 9, wherein the multifunctional physiological measurement device further performs the following steps: enabling the first physiological signal measurement circuit; and connecting to the mobile device Receiving an auxiliary function start command transmitted by the mobile device; starting the corresponding component according to the auxiliary function start command; connecting the measuring component when the auxiliary function includes a measuring component; and performing measurement and uploading the measurement result To the mobile device. The function selection method of the multifunctional physiological measurement system of the integrated mobile device according to claim 9, wherein the mobile device further performs the following steps: opening the multifunctional physiological measurement application; and the multifunctional physiological measurement device Connect; open a function menu; select the auxiliary function, release the auxiliary function start command; receive the auxiliary function execution result; and display the auxiliary function execution result.