TWI575342B - Intelligent awakening device and method using the same - Google Patents

Description

Intelligent wake-up device and method thereof

The present invention relates to a smart wake-up device and method thereof, and more particularly to a smart wake-up device and method thereof for turning off a wake-up action.

In the past, in the simple alarm wake-up method, the user manually sets the alarm to set when the alarm wakes up until the set time, the alarm sounds, and the user presses the close button to stop the alarm. In the further anti-greedy mechanism, according to the wake-up time set by the user, every short period of time, the alarm will continuously emit an intermittent sound to wake up the user, and the user must press the system preset. The special button, anti-greedy alarm clock will stop sounding in such a short period of time.

Under this wake-up mechanism, the user must turn off the wake-up of the alarm by actively pressing the alarm. However, in this case, if the user wakes up before the preset time, the alarm sounds according to the preset time. The user may not be at the alarm clock and cannot press the alarm clock, and the alarm will continue. The noise, which affects other family members or neighbors who are still asleep, may cause confusion for others. Therefore, if there is a wake-up mechanism to automatically detect whether the user has awakened or is still asleep, this intelligent judgment method will be an issue worthy of discussion.

In order to solve the above problems, the present invention provides a smart wake-up device and a method thereof, and the smart wake-up device and method thereof will detect whether a user has awakened or is still asleep at this time, and decides whether to close according to the detection result. A wake-up mechanism to reduce the wake-up mechanism for others.

According to an exemplary embodiment of the present invention, the present invention provides a smart wake-up device. The above-mentioned smart wake-up device includes a detection module and a control module for detecting a wear state and a physical activity level of the user, and the control module is based on the wear state and body of the user. The degree of activity determines whether the wake-up action is turned off.

In an exemplary embodiment of the invention, the smart wake-up device further includes a wake-up module. The wake-up module is configured to perform the above-mentioned wake-up action to wake up the user, and the wake-up action includes utilizing the perceptions of hearing, vision, and touch.

In an exemplary embodiment of the invention, the detection module includes a wear detection unit and a motion detection unit. The wear detection unit detects the wearing state of the user and generates a wear signal. The wear signal is used to determine whether the user maintains the wear detection module. If the wear signal is a positive signal, the user is required to wear the detection module. If the wear signal is an anti-signal, the user has no Wear this detection module. The motion detecting unit is configured to detect the physical activity level of the user and generate an action level value.

In an exemplary embodiment of the invention, the control module includes a processing unit and an input unit. The processing unit receives the wearable signal and the action level value. If the wear signal is an anti-signal signal, the shutdown signal is sent to close the wake-up action, or the action level value is greater than the wake-up threshold, and the shutdown signal is sent to close the wake-up. action. The input unit is for providing the user with the wake-up time, wake-up action and wake-up threshold of the above-mentioned smart wake-up device.

In an exemplary embodiment of the invention, the wake-up threshold is a system preset value of the processing unit or is set by the user.

In an exemplary embodiment of the invention, the coupling relationship between the detection module and the control module and the control module and the wake-up module is wired entity transmission or wireless communication transmission.

According to an exemplary embodiment of the present invention, the present invention provides a smart wake-up method suitable for the above-described smart wake-up device. The steps of the method include detecting the wear state of the user and the degree of physical activity, and determining whether to turn off the wake-up action according to the wear state of the user and the degree of physical activity.

According to an exemplary embodiment of the present invention, the present invention provides a smart wake-up device. The smart wake-up device includes a detection module and a control module. The detection module is configured to detect a wear state of the user, and the control module determines whether to turn off the wake-up action according to the wearing state of the user. .

According to an exemplary embodiment of the present invention, the present invention provides a smart wake-up method suitable for the above-described smart wake-up device. The method includes the steps of detecting the wearing state of the user, and determining whether to turn off the wake-up action according to the wearing state of the user.

According to another exemplary embodiment of the present invention, the present invention provides a smart wake-up device. The smart wake-up device includes a detection module and a control module. The detection module is configured to detect the physical activity of the user, and the control module determines whether to close the wake-up according to the physical activity of the user. action.

According to another exemplary embodiment of the present invention, the present invention provides a smart wake-up method suitable for the above-described smart wake-up device. The steps of the method include detecting the degree of physical activity of the user and determining whether to turn off the wake-up action according to the degree of physical activity of the user.

Based on the above, an exemplary embodiment of the present invention provides a smart wake-up device and method thereof. The smart wake-up device determines whether the user has awake or is still asleep by detecting the wearing state and the degree of physical activity of the user, and determines whether to turn off the wake-up action according to the wearing state and the degree of physical activity of the user. . In this way, the smart wake-up device can automatically turn off the wake-up action even if the user has awake before the original set time, and the user is not waking up to the device and cannot manually turn off the wake-up device.

The above described features and advantages of the present invention will be more apparent from the following description.

FIG. 1 is a functional block diagram of a smart wake-up device 100 according to an exemplary embodiment of the invention. Referring to FIG. 1 , the smart wake-up device 100 includes a detection module 110 , a control module 120 , a wake-up module 130 , and a display module 140 . The detection module 110 includes a wear detection unit 112 and a motion detection unit 114. The control module 120 includes a processing unit 122, an input unit 124, a storage unit 126, and an oscillating circuit component 128.

Please refer to Figure 1. The wear detection unit 112 of the detection module 110 detects the wearing state of the user and generates a wear signal. The wear signal is whether the user maintains the wear detection module 110. If the wear signal is a positive signal, the wear detection module 110 is maintained for the user. If the wear signal is an anti-signal, the user does not wear the detection module 110. The motion detection unit 114 in the detection module 110 is used to detect the degree of physical activity of the user and generate an action level value. The wear detecting unit 112 can be any type of wear sensing component such as a skin conductive component, a capacitive sensor, a mechanical circuit switch, and an infrared sensor to detect whether the detection module 110 is worn. The motion detecting unit 114 can be any type of motion sensor such as a three-axis sensor, a vibration sensor, and the like, and detects the degree of physical activity of the user according to the acceleration and displacement of gravity.

The control module 120 is coupled to the detection module 110. The control module 120 determines whether to close the wake-up action performed in the wake-up module 130 according to the wear state of the user and the degree of physical activity. The processing unit 122 receives and processes the wear signal and the action level value described above. If the wear signal is a reverse signal (ie, the user does not have the wear detection module 110), indicating that the user has awake and takes off the detection module 110, the processing unit 122 sends a shutdown signal to close the wakeup module 130. The wake-up action, if the wear signal is a positive signal (ie, the user maintains the wear detection module 110), but the action level value is greater than the wake-up threshold (ie, the user's physical activity level is greater than the preset standard value), The user is also awake according to the degree of physical activity of the user, and thus the wake-up action performed by the wake-up module 130 is turned off.

The wake-up module 130 is coupled to the control module 120. The wake-up module 130 can be a device for waking up sleep, such as an alarm, a light adjuster, and a vibrator. The wake-up action is a method of waking up the user by ringing the sound of the alarm, changing the light and shade of the light adjuster, and vibrating the vibrator.

The oscillating circuit component 128 in the control module 120 generates a time count. The input unit 124 provides a wake-up time, a wake-up action, and a wake-up threshold for the user to set the smart wake-up device 100, wherein the wake-up threshold may also be a preset value of the processing unit 122. The storage unit 126 stores the user's wear signal, the action level value, and the wake-up threshold.

The display module 140 is coupled to the detection module 110 and the control module 120 to display the current time, the wear signal, the action level value, and the wake-up threshold to remind the user of the status of the message at the moment. The display module 140 can be a handheld device, a watch screen, a liquid crystal screen, or a multimedia display.

The coupling relationship between the detection module 110 and the control module 120, the control module 120 and the wake-up module 130, the display module 140 and the detection module 110, and the display module 140 and the control module 120 is one. Wired entity transmission or a wireless communication transmission.

2 is a flow chart of a smart wake-up method according to an exemplary embodiment of the invention. The smart wake-up method 200 is applied to the smart wake-up device 100, and determines whether to turn off the wake-up action according to the wear state and the action level value of the user.

Please refer to FIG. 1 and FIG. 2 at the same time. First, the wear status and the physical activity level of the user are detected (step S202), and then the smart wake-up method 200 determines whether the user wears the detection module 110 at this time according to the wearing state of the user (step S204). If the result of the determination is no, it indicates that the user does not wear the detection module 110 at this time, and then sends a shutdown signal to close the wake-up action of the wake-up module 130 (step S208), and if so, it is determined whether the action level value is greater than the wake-up threshold ( Step S206). If the action level value is greater than the wake-up threshold (step S206), the shutdown signal is sent to close the wake-up function of the wake-up module 130 (step S208). If the action level value is not greater than the wake-up threshold (step S206), the user wear status and the physical activity level are continuously detected (step S202), and the wear signal and the action level value are updated.

FIG. 3 is a functional block diagram of a smart wake-up device 300 according to another exemplary embodiment of the present invention. The exemplary embodiment is in the detection module 310, and the embodiment is substantially the same as the exemplary embodiment of FIG. In the detecting module 310, the motion detecting unit 314 is used to detect the physical activity level of the user, and in the processing unit 322 of the control module 320, it is directly determined whether the motion level value is greater than the wake threshold (ie, the user's The degree of physical activity is greater than a preset standard value. According to the degree of physical activity of the user, it is determined that the user has awake, thereby turning off the wake-up action performed by the wake-up module 330.

FIG. 4 is a flow chart of a smart wake-up method according to another exemplary embodiment of the present invention. The smart wake-up method 400 is applied to the smart wake-up device 300, and determines whether to turn off the wake-up action according to the value of the user's motion level.

Please refer to FIG. 3 and FIG. 4 at the same time. First, the degree of physical activity of the user is detected (step S402), and then the smart wake-up method 400 starts to determine whether the action level value is greater than the wake-up threshold (step S406). If the action level value is greater than the wake-up threshold (step S406), the wake-up action of the close-up signal to close the wake-up module 330 is sent (step S408), and if the action level value is not greater than the wake-up threshold (step S406), the detection is continued. The degree of physical activity (step S402) updates the action level value.

FIG. 5 is a functional block diagram of a smart wake-up device 500 according to another exemplary embodiment of the present invention. The exemplary embodiment is in the detection module 510, and the embodiment is substantially the same as the exemplary embodiment of FIG. In the detection module 510, the wear detection unit 512 is used to detect the wearing state of the user, and in the processing unit 522 of the control module 520, the wear signal is based on the wear signal (ie, the user has no wear detection mode). Group), determining that the user has awake, thus turning off the wake-up action performed by the wake-up module 330.

FIG. 6 is a flow chart of a smart wake-up method according to another exemplary embodiment of the present invention. The smart wake-up method 600 is applied to the smart wake-up device 500, and determines whether to turn off the wake-up action according to the wearable signal of the user.

Please refer to FIG. 5 and FIG. 6 at the same time. First, the wear status of the user is detected (step S602), and then the smart wake-up method 600 starts to determine whether the user wears the detection module (step S604). If the user does not wear the detection module (step S604), the shutdown signal is sent to close the wake-up function of the wake-up module 530 (step S608), and if the user has the wear detection module (step S604), the detection continues to be used. The wearer state (step S602) updates the wearable signal.

In order to make the invention more comprehensible, a plurality of sets of exemplary embodiments will be presented below to illustrate the actual operation of the smart wake-up device and its method.

FIG. 7 is a schematic diagram of the operation of a smart wake-up device 700 according to an exemplary embodiment of the invention. In the watch 705, the detection module 710 includes a wear sensing component 712 and a motion sensor 714. The wear sensing component 912 will detect the wear state and generate a wear signal to indicate whether the detection module 710 is worn on the user. In this embodiment, it represents whether the user wears the watch 705 at this time. If the wear sensing component 712 detects that the user is not wearing the watch 705, the wear sensing component 712 will send a reverse signal to the microprocessor 720. Upon receiving the echo signal, the microprocessor 720 will know that the user has The wearable detection module 710 determines that the user has awake and thus removes the watch 705. At this time, the microprocessor 720 will send a shutdown signal to the electronic alarm 730 to turn off the wake-up action that the electronic alarm 730 intends to perform at the original preset wake-up time.

On the other hand, if the wear sensing component 712 detects that the user maintains the watch 705, the wear sensing component 712 will send a positive signal to the microprocessor 720. The value of the motion level detected by the motion sensor 714 will also be sent to the microprocessor 720. At this time, if the action level value is greater than the previously set wake-up threshold, the microprocessor 720 determines that the user has awake at this time, so that the user can have a large degree of physical activity, and the microprocessor 720 sends a shutdown signal to the electronic alarm. 730: Turn off the wake-up action that the electronic alarm 730 wants to perform at the preset preset wake-up time. The above-mentioned wake-up threshold is built into the microprocessor 720 system or input by the user.

The screen 740 will display the current time, the wear signal, the action level value and the wake-up threshold, so that the user can know the current status at any time to remind the user. In addition, the coupling relationship between the detection module 710 and the microprocessor 720, the microprocessor 720 and the electronic alarm 730, the detection module 710 and the screen 740, and the microprocessor 720 and the screen 740 are in the watch 705. Physical circuit connection.

FIG. 8 is a schematic diagram of the operation of a smart wake-up device 800 according to another exemplary embodiment of the present invention. The mode of operation of the exemplary embodiment of FIG. 8 is substantially the same as that of FIG. 7, but is performed by the light adjuster 830 in the portion of the wake-up action. In addition, the coupling relationship between the watch 805 and the light adjuster 830 can be a wireless communication interface 860, such as a wireless fidelity (WiFi) or a Bluetooth interface. As shown in FIG. 7, the wake-up action of the light adjuster 830 is determined according to the value of the wear signal and the motion level detected by the wear sensing component 812 and the motion sensor 814 of the detection module 810. The microprocessor 820 can transmit the off signal to the light adjuster 830 through the wireless communication interface 860 to use the light and shade changes of the light adjuster 830 to wake up the user.

FIG. 9 is a schematic diagram of the operation of a smart wake-up device 900 according to another exemplary embodiment of the present invention. The mode of operation of the exemplary embodiment of FIG. 9 is substantially the same as that of FIGS. 7 and 8, but in the embodiment of FIG. 9, the portion of the wake-up action is performed by the sound adjuster 930. Further, the microprocessor 720 of FIG. 7 and the microprocessor 820 of FIG. 8 are replaced by an external computer 920. The computer 920 receives and processes the wear signal detected by the wear sensing component 912 and automatically determines the motion level value detected by the sensor 914. The computer 920 determines whether to send the shutdown signal according to the value of the wear signal and the action level to turn off the wake-up action of the sound adjuster 930.

In addition, the coupling relationship between the watch 905 and the sound adjuster 930 can be the wireless communication interface 960, and the coupling relationship between the watch 905 and the computer 920 can be the wireless communication interface 970. The coupling relationship between the sound regulator 930 and the computer 920 can be a wired physical interface 980 or a wireless communication interface 990. The computer 920 determines whether to send the shutdown signal through the wired entity interface 980 or the wireless communication interface 990 according to the value of the wear signal and the action level, and turns off the wake-up action of the sound adjuster 930 to wake up the user by using the sound change of the sound adjuster 930.

In addition, in the microprocessor 720, the microprocessor 820, and the computer 920 of FIG. 7, FIG. 8, and FIG. 9, there are oscillating circuit components (not shown) to generate a time count, and the oscillation may be caused by quartz oscillation or Electronic shock. There are also storage units (not shown), such as a memory or a hard disk, for storing the user's wear signal, action level value, and wake-up threshold. In addition to FIG. 7, FIG. 8, or FIG. 9, other exemplary embodiments can omit the part that is detected and wear, and directly use the action level value to determine whether to close the wake-up action. At the same time, there are other exemplary embodiments that can omit the detection of the degree of physical activity and directly use the wearing state to determine whether to close the wake-up action. In this invention, other wearable devices can also be used to detect the wearing state and the degree of motion of the user, and is not limited to using a watch.

In summary, the exemplary embodiment of the present invention provides a smart wake-up device and method thereof. The smart wake-up device determines whether the user has awake or is still asleep by detecting the wearing state and the degree of physical activity of the user, and determines whether to turn off the wake-up action according to the wearing state and the degree of physical activity of the user. . In other words, once the user wears the detection module of the smart wake-up device, the smart wake-up device can automatically turn off the wake-up action according to the wear state and the degree of activity of the user, and the user does not need to manually perform the shutdown. In this way, when the user has awakened and moved to other activities, the wake-up module (for example, an alarm) is no longer at the user's side, and may have been ringing and affecting the sleep of other family members because of this wisdom. The wake-up device has detected that the user has taken off the detection module or the user's physical activity has become larger, and the wake-up alarm is automatically turned off, thereby greatly reducing the possibility that the alarm ringing is disturbing to others.

Although the present invention has been disclosed in the above embodiments, it is not intended to limit the invention, and any one of ordinary skill in the art can make some modifications and refinements without departing from the spirit and scope of the invention. The scope of the invention is defined by the scope of the appended claims.

100. . . Smart wake device

110. . . Detection module

112. . . Wear detection unit

114. . . Motion detection unit

120. . . Control module

122. . . Processing unit

124. . . Input unit

126. . . Storage unit

128. . . Oscillating circuit component

130. . . Wake-up module

140. . . Display module

200. . . Smart wakeup method

300. . . Smart wake device

310. . . Detection module

314. . . Motion detection unit

320. . . Control module

322. . . Processing unit

324. . . Input unit

326. . . Storage unit

328. . . Oscillating circuit component

330. . . Wake-up module

340. . . Display module

400. . . Smart wakeup method

500. . . Smart wake device

510. . . Detection module

512. . . Wear detection unit

514. . . Motion detection unit

520. . . Control module

522. . . Processing unit

524. . . Input unit

526. . . Storage unit

528. . . Oscillating circuit component

530. . . Wake-up module

540. . . Display module

600. . . Smart wakeup method

700. . . Smart wake device

705. . . Watch

710. . . Detection module

712. . . Wear sensing component

714. . . Motion sensor

720. . . microprocessor

730. . . Electronic alarm

740. . . Screen

800. . . Smart wake device

805. . . Watch

810. . . Detection module

812. . . Wear sensing component

814. . . Motion sensor

820. . . microprocessor

830. . . Light regulator

840. . . Screen

860. . . Wireless communication interface

900. . . Smart wake device

905. . . Watch

910. . . Detection module

912. . . Wear sensing component

914. . . Motion sensor

920. . . computer

930. . . Sound regulator

940. . . Screen

960. . . Wireless communication interface

970. . . Wireless communication interface

980. . . Wired entity interface

990. . . Wireless communication interface

S202~S208. . . Process steps for smart wake-up methods

S402~S408. . . Process steps for smart wake-up methods

S602~S608. . . Process steps for smart wake-up methods

1 is a functional block diagram of a smart wake-up device according to an exemplary embodiment of the invention.

2 is a flow chart of a smart wake-up method according to an exemplary embodiment of the invention.

FIG. 3 is a functional block diagram of a smart wake-up device according to another exemplary embodiment of the present invention.

FIG. 4 is a flow chart of a smart wake-up method according to another exemplary embodiment of the present invention.

FIG. 5 is a functional block diagram of a smart wake-up device according to another exemplary embodiment of the present invention.

FIG. 6 is a flow chart of a smart wake-up method according to another exemplary embodiment of the present invention.

FIG. 7 is a schematic diagram of the operation of a smart wake-up device according to an exemplary embodiment of the invention.

FIG. 8 is a schematic diagram of the operation of a smart wake-up device according to another exemplary embodiment of the present invention.

FIG. 9 is a schematic diagram of the operation of a smart wake-up device according to another exemplary embodiment of the present invention.

100. . . Smart wake device

110. . . Detection module

112. . . Wear detection unit

114. . . Motion detection unit

120. . . Control module

122. . . Processing unit

124. . . Input unit

126. . . Storage unit

128. . . Oscillating circuit component

130. . . Wake-up module

140. . . Display module

Claims (28)

A smart wake-up device includes: a detecting module for detecting a wearing state of a detecting module; and a wake-up module for performing a wake-up action to wake up the user; And a control module coupled to the detection module and the wake-up module, and determining, according to the wearing state of the detection module, whether to close the wake-up action performed by the wake-up module. The smart wake-up device of claim 1, wherein the detecting module comprises: a wear detecting unit for detecting the wearing state of the detecting module by the user, and generating a If the wearer is a positive signal, the wearer maintains the detection module. If the wear signal is a counter-signal, The user is not wearing the detection module. The smart wake-up device of claim 2, wherein the control module comprises: an input unit, the user is configured to set the wake-up time of the smart wake-up device and the wake-up action; and a processing unit receives And processing the wear signal and the action level value. If the wear signal is the echo signal, sending a close signal to close the wake-up module. The smart wake-up device of claim 1, wherein the wake-up action comprises utilizing the perception of hearing, sight, and touch. The smart wake-up device of claim 1, wherein the detection module and the control module and the coupling relationship between the control module and the wake-up module are a wired entity transmission or a Wireless communication transmission. A smart wake-up method for a smart wake-up device includes: detecting a wear state of a user for a detection module; and determining whether the wear state of the detection module is determined by the user Turn off a wake-up action to wake up the user. The smart wake-up method of claim 6, wherein the step of detecting the wearing state of the user further comprises: detecting the wearing state of the detecting module by the user, and generating a If the wearer is a positive signal, the wearer maintains the detection module. If the wear signal is a counter-signal, The user is not wearing the detection module. The smart wake-up method of claim 7, wherein the step of deciding whether to close the wake-up action for waking up the user according to the wear state of the detection module includes: Receiving and processing the wear signal, if the wear signal is the reverse signal, sending a close signal to turn off the wake-up action. A smart wake-up device includes: a detection module for detecting a physical activity of a user; a wake-up module for performing a wake-up action to wake up the user; and a control module coupled to the detection module and the wake-up module, and detecting the use according to the detection module The degree of physical activity of the person determines whether to close the wake-up action performed by the wake-up module. The smart wake-up device of claim 9, wherein the detecting module comprises: a motion detecting unit for detecting the physical activity level of the user and generating an action level value. The smart wake-up device of claim 10, wherein the control module comprises: an input unit, the user is configured to set the wake-up time of the smart wake-up device, the wake-up action and a wake-up threshold; A processing unit receives and processes the action level value. If the action level value is greater than the wake threshold, a shutdown signal is sent to disable the wakeup action. The smart wake-up device of claim 11, wherein the wake-up threshold is a system preset value of the processing unit or is set by the user. The smart wake-up device of claim 9, wherein the wake-up action comprises utilizing the perception of hearing, sight, and touch. The smart wake-up device of claim 9, wherein the detection module and the control module and the coupling relationship between the control module and the wake-up module are a wired entity transmission or a Wireless communication transmission. A smart wake-up method for a smart wake-up device includes: detecting a physical activity level of a user; and determining whether to turn off a wake-up action for waking up the user according to the degree of physical activity. The smart wake-up method of claim 15, wherein the step of detecting the physical activity level of the user further comprises: detecting the physical activity level of the user and generating an action level value. The smart wake-up method of claim 16, wherein determining whether to close the wake-up action for waking up the user according to the degree of the physical activity further comprises: receiving and processing the action level value, if the action The degree value is greater than a wake-up threshold, and a close signal is sent to turn off the wake-up action. The smart wake-up method according to claim 17, wherein the wake-up threshold is a system preset value or is set by the user. A smart wake-up device includes: a detection module for detecting a wear state of a detection module and detecting a physical activity level of the user; and a wake-up module for Performing a wake-up action to wake up the user; A control module is coupled to the detection module and the wake-up module, and determines whether to disable the wake-up module according to the wearing state of the detecting module and the physical activity level of the detecting module. Wake up action. The smart wake-up device of claim 19, wherein the detecting module comprises: a wear detecting unit for detecting the wearing state of the detecting module by the user, and generating a If the wearer is a positive signal, the wearer maintains the detection module. If the wear signal is a counter-signal, The user is not wearing the detection module; and a motion detection unit is configured to detect the physical activity level of the user and generate an action level value. The smart wake-up device of claim 20, wherein the control module comprises: an input unit, the user is configured to set the wake-up time of the smart wake-up device, the wake-up action and a wake-up threshold; a processing unit receives and processes the wear signal and the action level value, and if the wear signal is the echo signal, sends a close signal to close the wake-up module, or the action level value is greater than the wake-up threshold, and sends the close Signal to turn off the wakeup action. The smart wake-up device of claim 21, wherein the wake-up threshold is a system preset value of the processing unit or is set by the user. The smart wake-up device of claim 19, wherein the wake-up action comprises utilizing the perception of hearing, sight, and touch. The smart wake-up device of claim 19, wherein the detection module and the control module and the coupling relationship between the control module and the wake-up module are a wired entity transmission or a Wireless communication transmission. A smart wake-up method for a smart wake-up device includes: detecting a wear state of a user for a detection module and detecting a physical activity level of the user; and according to the user The wear state of the detection module and the degree of physical activity determine whether to close a wake-up action for waking up the user. The smart wake-up method of claim 25, wherein the step of detecting the wearing state of the detecting module and detecting the physical activity level of the user further comprises: detecting the The user wears a wear signal for the wearing state of the detection module. The wear signal is whether the user maintains the detection module. If the wear signal is a positive signal, the user maintains the signal. If the wear signal is a reverse signal, the user does not wear the detection module; and the physical activity of the user is detected, and an action level value is generated. The smart wake-up method of claim 26, wherein the wearing state of the detecting module is based on the user and The step of deciding whether to close the wake-up action further includes: receiving and processing the wear signal and the action level value, and if the wear signal is the echo signal, sending a close signal to close the wake-up action, or the action The degree value is greater than a wake-up threshold, and the shutdown signal is sent to turn off the wake-up action. The smart wake-up method as described in claim 27, wherein the wake-up threshold is a system preset value or set for the user.