Abstract: An electronic device includes a power button, a fingerprint sensor, and a controller. The fingerprint sensor is integrated into the power button. The controller connects to the fingerprint sensor and the power button. The controller performs a booting process of the electronic device when the power button is pushed by an external object. The controller then compares the fingerprint pattern of the external object sensed by the fingerprint sensor with a previously stored fingerprint pattern. If the fingerprint pattern does not match the previously stored fingerprint pattern, the controller stops the booting process.

Abstract: A computer and an automatic protection method thereof are provided. The automatic protection method includes the following steps. A sound receiving unit of the computer receives a sound signal. Whether a fan error event occurs is determined according to the sound signal. If the fan error event occurs, then a first data protection procedure is performed. Whether a disaster event occurs is determined according to the sound signal. If the disaster event occurs, then a second data protection procedure is performed. Whether the computer is at a locking status is determined. If the computer is at the locking status, then whether an information security hazard event occurs is determined according to the sound signal. If the information security hazard event occurs, then a third data protection procedure is performed.

Abstract: An electronic device includes a power button, a fingerprint sensor, and a controller. The fingerprint sensor is integrated into the power button. The controller connects to the fingerprint sensor and the power button. The controller performs a booting process of the electronic device when the power button is pushed by an external object. The controller then compares the fingerprint pattern of the external object sensed by the fingerprint sensor with a previously stored fingerprint pattern. If the fingerprint pattern does not match the previously stored fingerprint pattern, the controller stops the booting process.

Abstract: An electronic device is provided, including a processor, a graphics processing unit, a first temperature sensor, a second temperature sensor, an embedded controller and a memory. The first temperature sensor detects the temperature of the processor. The second temperature sensor detects the temperature of the graphics processing unit. The embedded controller increases the current fan speed according to a temperature change of the processor, a temperature change of the graphics processing unit, and/or a change of an operating state of the graphics processing unit. When the temperature of the processor rises to a first predetermined value, the temperature of the graphics processing unit is raised and the operating state of the graphics processing unit is changed, and the embedded controller increases the current fan speed according to a first speed table corresponding to the graphics processing unit stored in the memory.

Abstract: A computer and an automatic protection method thereof are provided. The automatic protection method includes the following steps. A sound receiving unit of the computer receives a sound signal. Whether a fan error event occurs is determined according to the sound signal. If the fan error event occurs, then a first data protection procedure is performed. Whether a disaster event occurs is determined according to the sound signal. If the disaster event occurs, then a second data protection procedure is performed. Whether the computer is at a locking status is determined. If the computer is at the locking status, then whether an information security hazard event occurs is determined according to the sound signal. If the information security hazard event occurs, then a third data protection procedure is performed.

Abstract: An electronic device is provided, including a processor, a graphics processing unit, a first temperature sensor, a second temperature sensor, an embedded controller and a memory. The first temperature sensor detects the temperature of the processor. The second temperature sensor detects the temperature of the graphics processing unit. The embedded controller increases the current fan speed according to a temperature change of the processor, a temperature change of the graphics processing unit, and/or a change of an operating state of the graphics processing unit. When the temperature of the processor rises to a first predetermined value, the temperature of the graphics processing unit is raised and the operating state of the graphics processing unit is changed, and the embedded controller increases the current fan speed according to a first speed table corresponding to the graphics processing unit stored in the memory.

Abstract: An electronic device includes a processor, an embedded controller, a camera, a RAM and a storage device. The processor is configured to transmit a shot signal according to a start signal, and receive login information to execute an operating system. The embedded controller is configured to count a number of the received start signals. The camera is configured to capture a user image according to the shot signal before the processor logs in to the operating system. The RAM is configured to store the user image. The storage device is configured to store the user image after the processor logs in to the operating system.

Abstract: An electronic device includes a battery module, a first switch circuit, a connector, a voltage stabilizer and a controller circuit. The controller circuit is coupled to the connector and the first switch circuit. A configuration channel is implemented between the controller circuit and the connector. When a voltage of the battery module is lower than a threshold voltage and is only connected to a first power source, the first power source provides an activating voltage to the controller circuit through the voltage stabilizer, so as to enable the controller circuit. The connector sends a first detection signal to the controller circuit through the configuration channel. The controller circuit sends a first control signal to turn on the first switch circuit according to the first detection signal, so that the first power source charges the battery module through the first switch circuit.

Abstract: An electronic device includes a battery module, a first switch circuit, a connector, a voltage stabilizer and a controller circuit. The controller circuit is coupled to the connector and the first switch circuit. A configuration channel is implemented between the controller circuit and the connector. When a voltage of the battery module is lower than a threshold voltage and is only connected to a first power source, the first power source provides an activating voltage to the controller circuit through the voltage stabilizer, so as to enable the controller circuit. The connector sends a first detection signal to the controller circuit through the configuration channel. The controller circuit sends a first control signal to turn on the first switch circuit according to the first detection signal, so that the first power source charges the battery module through the first switch circuit.

Abstract: A portable electronic device includes a three-axis acceleration sensor, a touch-sensing module, a processor, and a display screen. The three-axis acceleration sensor outputs a first sensing signal according to the state of motion. The touch-sensing module generates a touch-sensing signal according to the touch action of a touching object. The processor receives the first sensing signal and the touch-sensing signal, executes the user interface, and determines that the portable electronic device is in a state of motion when the first sensing signal is greater than a predetermined threshold. When the portable electronic device is in a state of motion, the processor continuously receives the touch-sensing signal and the user interface is in a normal mode rather than a call mode for longer than a predetermined time, the processor controls the display screen to decrease the brightness for entering a safe operation mode.

Abstract: A method of power management of a computer device includes a number of steps. When a decision element determines that the computer device must enter a power saving mode, the decision element generates a power saving mode signal. When an embedded controller detects the power saving mode signal, the embedded controller determines whether an NFC transceiving module is sending or receiving information. If the NFC transceiving module is sending or receiving information, the embedded controller postpones entering into the power saving mode by the computer device until the NFC transceiving module finishes sending or receiving information.

Abstract: A computer device and a method for dissipating heat from a discrete graphics processing unit therein are provided. The method thereof includes determining whether the discrete graphics processing is in an operating state. If the discrete graphics processing unit is in an operating state, a determination is made as to whether a current temperature of the discrete graphics processing unit can be obtained. If the current temperature of the discrete graphics processing unit cannot be obtained, the discrete graphics processing unit is cooled so as to lower the current temperature thereof.

Abstract: A real time generating device applied in an electronic apparatus is provided. The real time generating device includes a real time clock module and an energy harvesting module. The real time clock module is configured to generate real time information. The energy harvesting module electrically connected to the real time clock module harvests surrounding environment energy to generate electrical energy and supply power to the real time clock module.

Abstract: A method of power management of a computer device includes a number of steps. When a decision element determines that the computer device must enter a power saving mode, the decision element generates a power saving mode signal. When an embedded controller detects the power saving mode signal, the embedded controller determines whether an NFC transceiving module is sending or receiving information. If the NFC transceiving module is sending or receiving information, the embedded controller postpones entering into the power saving mode by the computer device until the NFC transceiving module finishes sending or receiving information.

Abstract: A notebook computer is disclosed. The notebook computer comprises a display, a power switch, a proximity sensor, a memory, and a control unit. The proximity sensor and the power switch are disposed adjacent to each other for sensing an object approaching the power switch to output a sensing signal. The memory stores a basic input output system (BIOS). The control unit performs at least part of a power on self test (POST) according to the sensing signal and the BIOS before the display shows an image, and controls the display to display the image after the power switch is triggered.

Abstract: A computer device and a method for dissipating heat from a discrete graphics processing unit therein are provided. The method thereof includes determining whether the discrete graphics processing is in an operating state. If the discrete graphics processing unit is in an operating state, a determination is made as to whether a current temperature of the discrete graphics processing unit can be obtained. If the current temperature of the discrete graphics processing unit cannot be obtained, the discrete graphics processing unit is cooled so as to lower the current temperature thereof.

Abstract: A notebook computer is disclosed. The notebook computer comprises a display, a power switch, a proximity sensor, a memory, and a control unit. The proximity sensor and the power switch are disposed adjacent to each other for sensing an object approaching the power switch to output a sensing signal. The memory stores a basic input output system (BIOS). The control unit performs at least part of a power on self test (POST) according to the sensing signal and the BIOS before the display shows an image, and controls the display to display the image after the power switch is triggered.

Abstract: A portable electronic device including a control unit, an ambient light sensor, a proximity sensor and a panel is provided. The ambient light sensor is electrically connected to the control unit. The proximity sensor is electrically connected to the control unit. The panel is electrically connected to the control unit. When the portable electronic device is in a normal operation state and the panel is in an enabled state, if the ambient light sensor detects that the ambient light is dark and the proximity sensor detects that an object is close to a predetermined distance, the control unit switches the portable electronic device into one of a sleep mode, a hibernation mode or a shutdown mode, otherwise, the portable electronic device maintains in the normal operation state.

Abstract: A portable electronic device including a base, a lid and a hinge is provided. The base has a control unit and a proximity sensor. The proximity sensor is electrically connected to the control unit. The lid has a panel electrically connected to the control unit. The hinge is used for connecting the base with the lid. When the proximity sensor detects that the angle between the lid and the base exceeds a predetermined angle, the control unit performs a predetermined operation.

Abstract: A radio frequency identification (RFID) system has a reader, a first antenna, a second antenna and a transponder. The first antenna is electrically connected to the reader, and the reader is used to generate a control signal and transmit the control signal through the first antenna. The second antenna is used to receive the control signal. The transponder is integrated into an electronic element of a portable electronic device and is electrically connected to the second antenna. The transponder is arranged to select a data signal according to the control signal and transmit the data signal to the reader through the second and first antennas.