JP2019110524A - Electronic device, control method of electronic device, and control program of electronic device - Google Patents

Abstract

To provide an electronic device which is automatically turned on when worn on a human body.SOLUTION: A wearable speaker 1 includes an acceleration sensor 6 that detects movement, a proximity sensor 7 that detects proximity, and a SoC 2 that turns on the power of the wearable speaker 1 if the acceleration sensor 6 detects a motion and the proximity sensor 7 detects the proximity when the wearable speaker 1 is in the standby state. Also, after the power of the wearable speaker 1 is turned on, the SoC 2 performs wireless connection with a smartphone 101.SELECTED DRAWING: Figure 2

Description

  The present invention relates to a wearable type electronic device worn on a human body, a control method of the electronic device, and a control program of the electronic device.

  In recent years, wearable-type electronic devices that are worn on a human body such as an arm, for example, have appeared. In such wearable type electronic devices, when the user wears it on the human body, it is very convenient if the power is automatically turned on. For example, there is an invention of controlling on / off of a backlight by using a proximity sensor and an acceleration sensor in a portable terminal (see, for example, Patent Document 1).

JP, 2013-232804, A

  However, in the conventional wearable type electronic devices, there is no electronic device that is automatically turned on when worn on a human body.

  An object of the present invention is to provide an electronic device which is automatically turned on when worn on a human body.

  In the electronic device according to the first aspect of the invention, the first sensor detects motion, the second sensor detects proximity, and the first sensor detects motion when the device is in the standby state, and (2) A control unit is provided to turn on the power of the own device when the two sensors detect proximity.

  In the present invention, when the own device is in the standby state, the control unit turns on the power supply of the own device when the first sensor detects the movement and the second sensor detects the proximity. For example, in the case where the electronic device is a wearable speaker that is used by being hung on the neck of the user, if the user lifts the wearable speaker placed on a table or the like, the first sensor detects motion. In addition, when the user puts the wearable speaker on the neck, the second sensor detects the proximity of the human body (for example, the neck that is a part of the human body). Thereby, the control unit turns on the power of the own device when the own device is in the standby state. Therefore, according to the present invention, when the electronic device is worn on a human body, the power of the electronic device can be automatically turned on.

  An electronic device according to a second aspect of the invention is the electronic device according to the first aspect, wherein the first sensor is on and the second sensor is off when the device is in the standby state, and the control unit is The second sensor may be turned on when the first sensor detects a motion when the own device is in the standby state.

  In the present invention, when the device is in the standby state, the second sensor is off, and the control unit turns on the second sensor when the first sensor detects a motion. As described above, when the own device is in the standby state, power consumption can be reduced by turning off the second sensor.

  An electronic device according to a third aspect of the invention is characterized in that, in the electronic device according to the second aspect, the second sensor consumes more power than the first sensor.

  The second sensor consumes more power than the first sensor. Therefore, in the present invention, when the own device is in the standby state, the second sensor is off, and the control unit turns on the second sensor when the first sensor detects a motion. Thus, when the own device is in the standby state, power consumption can be reduced by turning off the second sensor that consumes a large amount of power.

  An electronic device according to a fourth aspect of the present invention is the electronic device according to any of the first to third aspects, wherein the control unit detects the movement of the first sensor, and the second sensor within a predetermined time. When it detects the proximity, it turns on the power source of its own device.

  An electronic device according to a fifth aspect of the invention is the electronic device according to any of the first to fourth aspects, wherein the control unit performs wireless connection with another device after the power of the device is turned on. It features.

  In the present invention, the control unit performs wireless connection with another device after the power of the device is turned on. Thus, according to the present invention, when the electronic device is worn on a human body, it is possible to automatically perform wireless connection with another device.

  An electronic device according to a sixth aspect of the invention is the electronic device according to any of the first to fifth aspects, wherein the control unit detects proximity of the second sensor for a predetermined time when the power of the device is on. When the second sensor is not used, the second sensor is turned off, and the apparatus is placed in the standby state.

  In the present invention, the control unit turns off the second sensor when the second sensor does not detect proximity for a predetermined period of time when the power of the device is on, and puts the device in the standby state. For example, if the user removes the wearable speaker from the human body, the second sensor will not detect the proximity of the human body (e.g., a neck that is part of the human body). Thereby, the control unit puts the own device in the standby state when the power supply of the own device is on. Therefore, according to the present invention, when the electronic device is removed from the human body, the electronic device can be automatically placed in the standby state. Thereby, power consumption when the electronic device is not used can be reduced.

  An electronic device according to a seventh invention is characterized in that, in the electronic device according to any one of the first to sixth inventions, the control unit sets a threshold at which the first sensor detects a motion.

  An electronic device according to an eighth invention is characterized in that, in the electronic device according to any one of the first to seventh inventions, the control unit sets a threshold at which the second sensor detects proximity.

  An electronic device according to a ninth invention is characterized in that, in the electronic device according to any one of the first to eighth inventions, the first sensor is an acceleration sensor.

  An electronic device according to a tenth invention is characterized in that, in the electronic device according to any one of the first to ninth inventions, the second sensor is a proximity sensor.

  An electronic device according to an eleventh aspect of the present invention is the electronic device according to any of the first to tenth aspects, which is a wearable type electronic device worn on a human body.

  An electronic device according to a twelfth aspect of the present invention is the electronic device according to any of the first to eleventh aspects, which is a wearable type electronic device worn on the neck.

  An electronic device according to a thirteenth aspect of the present invention is the electronic device according to any of the first to twelfth aspects, further comprising a substantially U-shaped casing.

  An electronic device according to a fourteenth aspect of the present invention is the electronic device according to any of the first to eleventh aspects, which is a wearable electronic device worn on an arm.

  An electronic device according to a fifteenth invention is the electronic device according to any one of the first to eleventh inventions, which is a wearable electronic device worn on the ear.

  A control method of an electronic device according to a sixteenth aspect of the present invention is a control method of an electronic device including a first sensor for detecting movement and a second sensor for detecting proximity, and when the own device is in a standby state, When the first sensor detects movement and the second sensor detects proximity, the power supply of the device is turned on.

  A control program of an electronic device according to a seventeenth invention is a control program of an electronic device comprising a first sensor for detecting movement, a second sensor for detecting proximity, and a control unit, wherein the own device is in a standby state When the first sensor detects movement and the second sensor detects proximity, the control unit is configured to turn on the power supply of the own device.

  An electronic device according to an eighteenth aspect of the invention is the electronic device according to any one of the first to fifteenth aspects, wherein the control unit detects the movement of the first sensor when the device is in the standby state. (2) When the sensor detects proximity and recognizes a predetermined voice, the power of the own apparatus is turned on.

  In the present invention, when the own device is in the standby state, the control unit detects the movement of the first sensor, detects the proximity of the second sensor, and recognizes the predetermined voice, the power supply of the own device is set. Turn on. As a result, even if the first sensor erroneously detects movement and the second sensor erroneously detects proximity, it is possible to prevent the power of the electronic device from being turned on.

  According to a nineteenth aspect of the present invention, there is provided an electronic device comprising: a sensor; and a control unit which turns on the power of the own device when the sensor detects the predetermined voice when the own device is in the standby state. It is characterized by having.

  In the present invention, when the own device is in the standby state, the control unit turns on the power of the own device when the sensor detects it and recognizes a predetermined voice. This makes it possible to prevent the wearable speaker from being turned on even if the sensor detects an error.

  According to the present invention, when the electronic device is worn on a human body, the power of the electronic device can be automatically turned on.

It is a perspective view showing the appearance of the wearable speaker concerning an embodiment of the present invention. It is a block diagram showing composition of a wearable speaker concerning a 1st embodiment of the present invention. It is a figure which shows operation | movement, such as an acceleration sensor. It is a figure which shows the transition state of the power supply of a wearable speaker. It is a block diagram showing composition of a wearable speaker concerning a 2nd embodiment of the present invention. It is a figure which shows the transition state of the power supply of a wearable speaker.

  Hereinafter, embodiments of the present invention will be described. FIG. 1 is a perspective view showing the appearance of a wearable speaker according to an embodiment of the present invention. As shown in FIG. 1, the wearable speaker 1 (electronic device) includes a substantially U-shaped housing 8 and is attached to the neck of the user. That is, the wearable speaker 1 is a wearable type speaker attached to the neck of the user. The housing 8 is made of, for example, a resin.

First Embodiment
FIG. 2 is a block diagram showing the configuration of the wearable speaker according to the first embodiment of the present invention. The wearable speaker 1 performs wireless communication with the smartphone 101 in accordance with the Bluetooth (registered trademark) (hereinafter referred to as “BT”) standard. As shown in FIG. 2, the wearable speaker 1 includes an SoC (System on Chip) 2, an amplification unit 3, speaker units 4 and 5, an acceleration sensor 6, a proximity sensor 7, and the like.

  The SoC 2 (control unit) includes a central processing unit (CPU), a digital signal processor (DSP), a memory, and the like, and controls each unit constituting the wearable speaker 1. The SoC 2 also has a BT communication function, and performs BT wireless communication with the smartphone 101. The SoC 2 receives, for example, an audio signal from the smartphone 101. The SoC 2 outputs the audio signal received from the smartphone 101 to the amplification unit 3.

  An audio signal in I2S format is output from the SoC 2 to the amplification unit 3. The amplification unit 3 amplifies the audio signal and outputs the amplified audio signal to the speaker units 4 and 5. The speaker unit 4 outputs an audio signal of L channel. The speaker unit 5 outputs an audio signal of R channel. The speaker units 4 and 5 output the sound to the outside based on the sound signal. As described above, the wearable speaker 1 reproduces voice based on the voice signal output from the smartphone 101.

  FIG. 3 is a diagram showing an operation of an acceleration sensor or the like. The acceleration sensor 6 (first sensor) detects the movement of the wearable speaker 1. The acceleration sensor 6 is provided, for example, on the tip end side of either one of the substantially U-shaped casing 8 and in the casing 8. The acceleration sensor 6 is a three-axis acceleration sensor. The acceleration sensor 6 can set a threshold for detecting motion, and the SoC 2 sets a threshold. The acceleration sensor 6 stands by in a low power consumption state, regardless of whether the wearable speaker 1 is powered on or off, and generates an event pulse when an acceleration exceeding a threshold occurs. For example, when the user picks up the wearable speaker 1 placed on a table or the like, an acceleration equal to or higher than a threshold is generated, and the acceleration sensor 6 detects a motion. In other words, the acceleration sensor 6 detects an operation in which the user takes up the wearable speaker 1. The acceleration sensor 6 consumes less power than the proximity sensor 7. The acceleration sensor 6 detects the movement of the wearable speaker 1 when the threshold value is exceeded due to a change in acceleration.

  The proximity sensor 7 (second sensor) detects proximity of an object such as clothes or a part of a human body such as a neck. The proximity sensor 7 is provided in the housing 8 at a position facing the neck in a state where the wearable speaker 1 is hung on the neck. The proximity sensor 7 is a reflective optical proximity sensor, emits infrared light, and detects the proximity of an object or the like by reflected light. The proximity sensor 7 can set a threshold for detecting proximity, and the SoC 2 sets a threshold. For example, when the user wears the wearable speaker 1 on the neck, the proximity sensor 7 detects proximity of the neck because the neck approaches the proximity sensor 7. In other words, the proximity sensor 7 detects a state in which the user hangs the wearable speaker 1 on the neck. Further, the proximity sensor 7 consumes more power than the acceleration sensor 6.

  FIG. 4 is a diagram showing a transition state of the power supply of the wearable speaker. The second sleep corresponds to the standby state of the wearable speaker 1, and is a state in which the wearable speaker 1 is operating with low power consumption. In the second sleep, only the acceleration sensor 6 is on, and the others are in the sleep state. For example, the acceleration sensor 6 operates every one second (intermittent operation). When the acceleration sensor 6 does not detect movement when in the second sleep (the wearable speaker 1 is in the standby state), the second sleep remains. At the time of the second sleep, if the acceleration sensor 6 detects a motion, the SoC 2 shifts the wearable speaker 1 to the first sleep. That is, the SoC 2 turns on the proximity sensor 7, sets the proximity sensor 7 to operate every second, and sleeps. In the first sleep, the acceleration sensor 6 and the proximity sensor 7 operate every one second.

  At the time of the first sleep, if the proximity sensor 7 does not detect the proximity, the first sleep remains. At the time of the first sleep, when the proximity sensor 7 detects the proximity, the SoC 2 is interrupted and becomes in the operating state. That is, the SoC 2 turns on the wearable speaker 1. After powering on the wearable speaker 1, the SoC 2 performs a wireless connection (BT) with the smartphone 101 (another device) set in pairing. When the power of the wearable speaker 1 is on, if the proximity sensor 7 detects proximity, the power of the wearable speaker 1 remains on.

  When the power of the wearable speaker 1 is on, if the proximity sensor 7 does not detect proximity for a predetermined time, the SoC 2 shifts the wearable speaker 1 to the first sleep (timeout). At the time of the first sleep, if the proximity sensor 7 does not detect the proximity for a predetermined time, the SoC 2 shifts the wearable speaker 1 to the second sleep.

  Here, in the “standby state”, although the wearable speaker 1 is energized, it is in the low power consumption mode, and the SoC 2 (control unit) is operating in the low clock state (equivalent to the second sleep) ). Further, in the state of “power-on of own device”, the wearable speaker 1 is energized and is in the normal mode, and the SoC 2 (control unit) is operating with the normal clock.

  As described above, in the present embodiment, when the acceleration sensor 6 detects movement and the proximity sensor 7 detects proximity when the wearable speaker 1 is in the standby state (second sleep), the SoC 2 detects The wearable speaker 1 is turned on. When the wearable speaker 1 is in the standby state, if the user lifts the wearable speaker 1 placed on a table or the like, the acceleration sensor 6 detects the movement. Further, when the user puts the wearable speaker 1 on the neck, the second sensor detects the proximity of the human body (for example, the neck that is a part of the human body). Thereby, the SoC 2 turns on the power of the wearable speaker 1 when the wearable speaker 1 is in the standby state. Therefore, according to the present embodiment, when the wearable speaker 1 is attached to the human body, the power of the wearable speaker 1 can be automatically turned on.

  Further, in the present embodiment, when the wearable speaker 1 is in the standby state, the proximity sensor 7 is off, and the SoC 2 turns the proximity sensor 7 on when the acceleration sensor 6 detects a motion. As described above, when the wearable speaker 1 is in the standby state, the power consumption can be reduced by turning off the proximity sensor 7 that consumes a large amount of power.

  Further, in the present embodiment, after the wearable speaker 1 is turned on, wireless connection (BT) with the smartphone 101 is performed. Thereby, according to this embodiment, when wearable speaker 1 is attached to a human body, wireless connection with smart phone 101 can be performed automatically.

  Also, if the user removes the wearable speaker 1 from the neck (human body), the proximity sensor 7 will not detect the proximity of the human body (for example, the neck that is a part of the human body). Thereby, the SoC 2 puts the wearable speaker 1 in the standby state when the power of the wearable speaker 1 is on. Therefore, according to the present embodiment, when the wearable speaker 1 is removed from the neck (human body), the wearable speaker 1 can be automatically placed in the standby state. Thereby, power consumption when the wearable speaker 1 is not used can be reduced.

Second Embodiment
Hereinafter, a second embodiment of the present invention will be described. In the second embodiment, the description of the same configuration as that of the first embodiment will be omitted.

  In the first embodiment, two types of sleep modes (first sleep and second sleep) are created using the acceleration sensor 6 (motion sensor) and the proximity sensor 7. However, in the first embodiment, when the wearable speaker 1 is carried in a soft bag or the like and carried, the movement and the proximity are detected, and the wearable speaker 1 is turned on. It is thought that. In order to avoid this, it is also conceivable to attach a hard case to the wearable speaker 1 so that proximity is not detected in the case. In the second embodiment, sound is added as a trigger for turning on the wearable speaker.

  FIG. 5 is a block diagram showing a configuration of a wearable speaker according to a second embodiment of the present invention. As shown in FIG. 5, the wearable speaker 201 includes a BT speaker subsystem 202 and a sensor subsystem 203. The BT speaker system 202 wirelessly communicates with a smartphone (not shown) in accordance with the BT standard, and outputs audio to the outside. The sensor subsystem 203 includes a sensor 204 and the like for turning on the wearable speaker 201.

  The BT speaker subsystem 202 includes a main processor 205, an amplifier 206, a speaker unit 207, a power button 208, and the like. The main processor 205 has an antenna 209 and performs wireless communication with the smartphone according to the BT standard. The main processor 205 receives, for example, an audio signal from a smartphone. The main processor 205 outputs an I2S type audio signal to the amplifier 206. The amplifier 206 amplifies the audio signal output from the main processor 205 and outputs the amplified audio signal to the speaker unit 207. The speaker unit 207 outputs the voice to the outside based on the voice signal. The power button 208 is a button for receiving power on / off of the wearable speaker 201.

  The sensor subsystem 203 includes a DSP (Digital Signal Processor) 210, a sensor 204, a microphone 211, and the like. The DSP 210 (control unit) recognizes trigger voice (predetermined voice). The microphone 211 collects sound. The sound collected by the microphone 211 is output to the DSP 210. The sensor 204 includes an acceleration sensor 212 and a proximity sensor 213. The acceleration sensor 212 (first sensor) detects the movement of the wearable speaker 1. The proximity sensor 213 (second sensor) detects the proximity of an object such as clothes or a part of a human body such as the neck.

  The power supply voltage from the battery 214 is supplied to the BT speaker subsystem 202 and the sensor subsystem 203 via the switching regulators 215 and 216.

  FIG. 6 is a diagram showing a transition state of the power supply of the wearable speaker 201. As shown in FIG. In the second sleep, if the acceleration sensor 6 does not detect a motion, the second sleep is maintained. During the second sleep (wearable speaker resting state), when the user takes the wearable speaker 201 in hand, the acceleration sensor 6 detects a motion, and the DSP 210 shifts the wearable speaker 201 to the first sleep. When transitioning to the first sleep, the proximity sensor 213 starts sensing the proximity state.

  During the first sleep, if the proximity sensor 213 does not detect the proximity, the first sleep is maintained. In the first sleep, when the user puts the wearable speaker 201 on the neck, the proximity sensor 213 detects the proximity, and the DSP 210 shifts the wearable speaker 201 to the third sleep (sleep V). In the third sleep, the DSP 210 stands by for voice input. In the third sleep state, when the user utters a trigger voice (hot word), the DSP 210 recognizes the trigger voice and powers on the wearable speaker 201. At this time, the DSP 210 turns on the main processor 205. The main processor 205 starts connection with a paired device (for example, a smartphone).

  If there is no paired device, connection with the device can not be made just by turning on the main processor 205. If there is no possibility that it can be connected to the device (when not paired with any device, at the time of shipment from the factory, etc.), a signal corresponding to the long press of the power button is output, and the mode automatically shifts to the pairing mode. If the device can not be connected, the wearable speaker 201 returns to the third sleep. The trigger voice may be one for power on, but may be one for enabling the voice recognition function.

  The power supply of the BT speaker subsystem 202 including the main processor 205 can be turned on or off under the control of the power button 208 or the sensor subsystem 203. When the BT speaker subsystem 202 is powered on, the sensor subsystem 203 is also powered on. Even if the power supply of the BT speaker subsystem 202 is turned off, the control from the sensor subsystem 203 can keep the power of the sensor subsystem 203 turned on. Under these conditions, three types of sleep modes (second sleep mode) , First sleep, sleep V) operates.

  The control of the sensor subsystem 203 is performed by the DSP 210, and the DSP 210 monitors the voice input from the microphone 211 to activate the BT speaker subsystem 202 by voice. Even when the BT speaker subsystem 202 is activated, the DSP 210 monitors voice input, detects a trigger voice, notifies the main processor 205, and transmits a subsequent voice command by communication means such as UART.

  Next, the operation of the DSP 210 in the sleep mode will be described. The DSP 210 is configured to sense that the power on the main processor side has fallen by using a Power mon signal, and if the power is turned off, the sleep mode is set. The DSP 210 performs state transition between sleep modes in response to an event (interrupt signal) from the sensor 204 (acceleration sensor 212, proximity sensor 213). The DSP 210 utters a signal for activating the main processor 205 if there is a power-on voice input (trigger voice) while waiting for voice input. When the main processor 205 is activated, the sleep mode is ended.

  As described above, in the present embodiment, when the wearable speaker 201 is in the standby state, the DSP 210 detects the movement of the acceleration sensor 212, detects the proximity of the proximity sensor 213, and recognizes a predetermined voice. In the case, the wearable speaker 201 is turned on. As a result, even if the acceleration sensor 212 erroneously detects movement and the proximity sensor 213 erroneously detects proximity, it is possible to prevent the wearable speaker 201 from being turned on.

  As mentioned above, although embodiment of this invention was described, the form which can apply this invention is not restricted to the above-mentioned embodiment, As it illustrates below, it is suitably in the range which does not deviate from the meaning of this invention. It is possible to make changes.

  In the above-described embodiment, the SoC 2 controls the acceleration sensor 6 and the proximity sensor 7, and turns on / off the proximity sensor 7 based on detection of movement by the acceleration sensor 6 and detection of movement by the acceleration sensor 6, Based on the detection of movement by the proximity sensor 7, power control of the wearable speaker 1 and the like are performed. The present invention is not limited to this, and another microcomputer or the like may perform the above control with the SoC 2, or the microcomputer or the like and the SoC 2 may perform the above control in cooperation with each other.

  In the above-mentioned embodiment, the wearable speaker 1 worn on the neck was illustrated as a wearable type electronic device worn on the human body. The present invention is not limited to this, and may be a wristwatch type wearable type electronic device attached to an arm. In addition, it may be a headset, an earphone, or a headphone-type wearable type electronic device worn on the ear.

  In the above-mentioned embodiment, the acceleration sensor 6 was illustrated as a sensor (1st sensor) which detects a motion. The invention is not limited to this, and other sensors that detect motion may be used. Moreover, the proximity sensor 7 was illustrated as a sensor (2nd sensor) which detects proximity | contact. The invention is not limited to this, and another sensor such as an illuminance sensor that detects proximity may be used.

  In the above embodiment, the DSP 210 detects the movement when the wearable speaker 201 is in the standby state, and the proximity sensor 213 detects the proximity when the wearable speaker 201 recognizes a predetermined sound. Power on. The present invention is not limited to this, and the wearable speaker includes a sensor and a control unit that turns on the wearable speaker when the wearable speaker is in the standby state and the sensor detects and recognizes a predetermined voice. It may be like that. For example, the sensor may be an acceleration sensor that detects motion, a proximity sensor that detects proximity, or the like. In this case, even if the sensor erroneously detects, it is possible to prevent the wearable speaker from being turned on.

  The present invention can be suitably adopted in wearable type electronic devices worn on a human body, a control method of the electronic devices, and a control program of the electronic devices.

1 Wearable Speaker (Electronic Device)
2 SoC (control unit)
6 Acceleration sensor (1st sensor)
7 proximity sensor (second sensor)
8 Casing 201 Wearable Speaker (Electronic Device)
202 BT speaker subsystem 203 sensor subsystem 205 main processor 210 DSP (control unit)
211 microphone 212 acceleration sensor (first sensor)
213 proximity sensor (second sensor)

Claims (19)

A first sensor for detecting movement,
A second sensor that detects proximity,
A control unit that turns on the power supply of the own device when the first sensor detects a motion when the own device is in the standby state and the second sensor detects a proximity;
An electronic device comprising: When the device is in the standby state, the first sensor is on and the second sensor is off,
The electronic device according to claim 1, wherein the control unit turns on the second sensor when the first sensor detects a motion when the own device is in the standby state.   The electronic device according to claim 2, wherein the second sensor consumes more power than the first sensor.   The control unit turns on a power supply of the device when the first sensor detects movement and the second sensor detects proximity within a predetermined time. The electronic device of any one of 3.   The electronic device according to any one of claims 1 to 4, wherein the control unit performs wireless connection with another device after the power of the own device is turned on.   The control unit turns off the second sensor when the second sensor does not detect proximity for a predetermined time when the power supply of the own device is on, and puts the own device in a standby state. The electronic device according to claim 1.   The said control part sets the threshold value which a said 1st sensor detects a motion, The electronic device of any one of Claims 1-6 characterized by the above-mentioned.   The electronic device according to any one of claims 1 to 7, wherein the control unit sets a threshold at which the second sensor detects proximity.   The electronic device according to any one of claims 1 to 8, wherein the first sensor is an acceleration sensor.   The electronic device according to any one of claims 1 to 9, wherein the second sensor is a proximity sensor.   The electronic device according to any one of claims 1 to 10, which is a wearable type electronic device attached to a human body.   The electronic device according to any one of claims 1 to 11, wherein the electronic device is a wearable electronic device worn on a neck.   The electronic device according to any one of claims 1 to 12, further comprising a substantially U-shaped casing.   The electronic device according to any one of claims 1 to 11, wherein the electronic device is a wearable type electronic device attached to an arm.   The electronic device according to any one of claims 1 to 11, wherein the electronic device is a wearable type electronic device attached to the ear. A first sensor for detecting movement,
A control method of an electronic device, comprising: a second sensor detecting proximity.
A control method of an electronic device, characterized in that when the first device detects movement and the second sensor detects proximity when the own device is in the standby state, the power supply of the own device is turned on. . A first sensor for detecting movement,
A second sensor that detects proximity,
And a control program of an electronic device including the control unit,
When the first sensor detects movement when the own device is in the standby state, and the second sensor detects proximity, the control unit causes the power supply of the own device to be turned on. Device control program.   The control unit turns on the power of the device when the first sensor detects a motion when the device is in a standby state, the second sensor detects a proximity, and recognizes a predetermined voice. The electronic device according to any one of claims 1 to 15, characterized in that: With the sensor,
A control unit that turns on the power supply of the own device when the sensor detects the own device in a standby state and recognizes a predetermined voice;
An electronic device comprising: