Abstract: A portable electronic device including a shell, a cover plate, a battery module, a heat generating element and a heat pipe. The cover plate and the shell jointly define an accommodating space. The battery module includes an extending portion protruding from a surface of the battery module for jointly defining a stepped groove with the surface. The heat generating element is disposed in the accommodating space. The heat pipe is disposed in the stepped groove and thermally coupled to the heat generating element.

Abstract: A portable electronic device including a shell, a cover plate, a battery module, a heat generating element and a heat pipe. The cover plate and the shell jointly define an accommodating space. The battery module includes an extending portion protruding from a surface of the battery module for jointly defining a stepped groove with the surface. The heat generating element is disposed in the accommodating space. The heat pipe is disposed in the stepped groove and thermally coupled to the heat generating element.

Abstract: A portable electronic device including a shell, a cover plate, a battery module, a heat generating element and a heat pipe. The shell includes an arc-shaped surface. The cover plate and the shell jointly define an accommodating space. The battery module is disposed in the accommodating space, and the battery module and the arc-shaped surface have a gap therebetween. The heat generating element is disposed in the accommodating space. The heat pipe is disposed in the gap and thermally coupled to the heat generating element. Moreover, the battery module also includes a stepped groove, and the heat pipe is disposed in the stepped groove.

Abstract: A portable electronic device including a shell, a cover plate, a battery module, a heat generating element and a heat pipe. The shell includes an arc-shaped surface. The cover plate and the shell jointly define an accommodating space. The battery module is disposed in the accommodating space, and the battery module and the arc-shaped surface have a gap therebetween. The heat generating element is disposed in the accommodating space. The heat pipe is disposed in the gap and thermally coupled to the heat generating element. Moreover, the battery module also includes a stepped groove, and the heat pipe is disposed in the stepped groove.

Abstract: A booting verification method for a computer and an electronic device are provided. The booting verification method includes the following steps. Whether a manufacturing mode indication is present is determined. The manufacturing mode indicator is established and the manufacturing mode indicator is set to a predetermined value if the manufacturing mode indicator is absent, where the predetermined value is greater than or equal to 1. Whether the manufacturing mode indicator is greater than 0 is determined if the manufacturing mode indicator is present. A manufacturing booting mode is entered and the manufacturing mode indicator is decreased if the manufacturing mode indicator is greater than 0. A normal booting mode is entered if the manufacturing mode indicator is not greater than 0.

Abstract: An electronic apparatus includes a rear casing, a front cover, and an electronic assembly that includes a display module, a host module, a battery module, and an expansion module. The rear casing has a front opening. The front cover is located on the front opening; the front cover and the rear casing together constitute an accommodation space. The display module is installed inside the accommodation space and stacked over the front cover. The host module is installed inside the accommodation space and stacked over the display module. The battery module is installed inside the accommodation space, stacked over the display module, and arranged side by side with the host module. The expansion module is installed inside the accommodation space and stacked over the battery module. The expansion module includes an expansion circuit board stacked over the battery module and a plurality of card connectors mounted on the expansion circuit board.

Abstract: A motor deceleration method for a motor driving system is provided. The motor driving system outputs a driving signal containing a voltage value, a current value and a frequency value for driving a motor. When a deceleration of the motor is launched, the descent speeds of the voltage value and the frequency value are controlled according to a preset deceleration time period. Then, a voltage compensation value is generated according to a result of comparing the current value with a preset current level, and the voltage value is increased according to the voltage compensation value, so that the current value is increased to the preset current level. According to a frequency compensation value, the current value is increased to and maintained at the preset current level. Finally, the rotating speed of the motor is gradually decreased to a preset speed.

Abstract: A motor deceleration method for a motor driving system is provided. The motor driving system outputs a driving signal containing a voltage value, a current value and a frequency value for driving a motor. When a deceleration of the motor is launched, the descent speeds of the voltage value and the frequency value are controlled according to a preset deceleration time period. Then, a voltage compensation value is generated according to a result of comparing the current value with a preset current level, and the voltage value is increased according to the voltage compensation value, so that the current value is increased to the preset current level. According to a frequency compensation value, the current value is increased to and maintained at the preset current level. Finally, the rotating speed of the motor is gradually decreased to a preset speed.

Abstract: An electronic apparatus includes a rear casing, a front cover, and an electronic assembly that includes a display module, a host module, a battery module, and an expansion module. The rear casing has a front opening. The front cover is located on the front opening; the front cover and the rear casing together constitute an accommodation space. The display module is installed inside the accommodation space and stacked over the front cover. The host module is installed inside the accommodation space and stacked over the display module. The battery module is installed inside the accommodation space, stacked over the display module, and arranged side by side with the host module. The expansion module is installed inside the accommodation space and stacked over the battery module. The expansion module includes an expansion circuit board stacked over the battery module and a plurality of card connectors mounted on the expansion circuit board.

Abstract: An electronic module includes a first circuit board having a first surface, a second circuit board having a second surface, first electronic components on the first surface, second electronic components on the second surface, a first conductive fence, and a second conductive fence. The first conductive fence encloses the first electronic components and has a first opening exposing the first electronic components. The second conductive fence encloses the second electronic components and has a second opening exposing the second electronic components. The first opening of the first conductive fence joints the second opening of the second conductive fence, such that the first electronic components and the second electronic components are surrounded by the first circuit board, the second circuit board, the first conductive fence, and the second conductive fence. At least one of the first electronic components is higher than the first conductive fence.

Abstract: An electronic module includes a first circuit board having a first surface, a second circuit board having a second surface, first electronic components on the first surface, second electronic components on the second surface, a first conductive fence, and a second conductive fence. The first conductive fence encloses the first electronic components and has a first opening exposing the first electronic components. The second conductive fence encloses the second electronic components and has a second opening exposing the second electronic components. The first opening of the first conductive fence joints the second opening of the second conductive fence, such that the first electronic components and the second electronic components are surrounded by the first circuit board, the second circuit board, the first conductive fence, and the second conductive fence. At least one of the first electronic components is higher than the first conductive fence.

Abstract: A moving module and an electronic device are provided. The electronic device includes a first body, a second body, and the moving module disposed between the first and second bodies. The moving module includes a rail, a moving element, and an elastic element. The moving element is in contact with the rail. The elastic element is connected between the moving element and the first body. When the moving element moves from a first end of the rail to a curved portion of the rail, a force exerted on the elastic element by the moving element is gradually increased. When the moving element passes the curved portion, an elastic restoration force of the elastic element drives the moving element to move toward a second end of the rail. When the moving element reaches the first end or the second end, the first body and the second body interfere with each other.

Abstract: A booting verification method for a computer and an electronic device are provided. The booting verification method includes the following steps. Whether a manufacturing mode indication is present is determined. The manufacturing mode indicator is established and the manufacturing mode indicator is set to a predetermined value if the manufacturing mode indicator is absent, where the predetermined value is greater than or equal to 1. Whether the manufacturing mode indicator is greater than 0 is determined if the manufacturing mode indicator is present. A manufacturing booting mode is entered and the manufacturing mode indicator is decreased if the manufacturing mode indicator is greater than 0. A normal booting mode is entered if the manufacturing mode indicator is not greater than 0.

Abstract: A method for recovering basic input/output system (BIOS) in a computer system is disclosed. The computer system includes a host unit, a control unit, and a first storage device. The control unit is utilized for controlling system power provided for the host unit. The host unit is utilized for accessing a BIOS code stored in the first storage device to perform a boot process. The method includes turning the system power off when the computer system has a recovery requirement, restoring a backup BIOS code into the first storage device, and turning the system power on to make the host unit access the restored BIOS code in the first storage device for performing the boot process.

Abstract: A moving module and an electronic device are provided. The electronic device includes a first body, a second body, and the moving module disposed between the first and second bodies. The moving module includes a rail, a moving element, and an elastic element. The moving element is in contact with the rail. The elastic element is connected between the moving element and the first body. When the moving element moves from a first end of the rail to a curved portion of the rail, a force exerted on the elastic element by the moving element is gradually increased. When the moving element passes the curved portion, an elastic restoration force of the elastic element drives the moving element to move toward a second end of the rail. When the moving element reaches the first end or the second end, the first body and the second body interfere with each other.

Abstract: A discontinuous protection method clamps phase currents in an inverter initially sets a current clamping flag and a current threshold. The phase currents are alternatively cut out by a criterion based on the current-clamp flag and based on whether the phase currents exceed the current threshold. By proving current in discontinuous way under certain situation judged by the criterion, over current protection and shut-down of inverter can be prevented. The method further sets a carrier frequency modulation flag. The carrier frequency is increased to 8 KHz when the phase current is to be cut out, thus speeding up protection for clamping current.

Abstract: A half-controlled silicon control rectifying system and method thereof are provided. In this case, the first detection unit detects the zero cross phase of the triphase AC in input port thereof. The second detection unit detects the voltage of the DC bus. Then the control unit controls the silicon-controlled rectifying unit by software. Therefore, the efficiency of soft actuation is achieved.

Abstract: A fee calculation system for electrical energy consumption of motor drive and method for the same. The electrical power consumption for the motor drive and for a motor driven by the motor drive are calculated and displayed. An instantaneous load power of the motor is calculated according to an output voltage, an output current and a power factor of the motor drive. The total instantaneous consumption power is the sum of the instantaneous load power of the motor and the internal power of the motor drive. The total instantaneous consumption power is converted to power consumption per hour and is then multiplied with the operation hour to obtain the total electrical energy consumption. The total electrical energy consumption is multiplied with a fee schedule input by user to obtain the total fee for the electrical energy consumption. The total fee is then shown on a display of the motor drive.

Abstract: A method of balancing the rotation of a motor is provided. Whether or not the motor is in a balanced rotation is determined by detecting whether the variation of a power-factor angle is less than or equal to a preset balance angle according to the principle that the load on a motor has an effect on the variation of the power-factor angle. The determined balance state of the motor is used to adjust the rotation speed of the motor.

Abstract: A half-controlled silicon control rectifying system and method thereof are provided. In this case, the first detection unit detects the zero cross phase of the triphase AC in input port thereof. The second detection unit detects the voltage of the DC bus. Then the control unit controls the silicon-controlled rectifying unit by software. Therefore, the efficiency of soft actuation is achieved.