Abstract: A semiconductor device and method of fabricating thereof is described that includes a substrate including at least one fin, at least one gate stack formed on a top surface of the at least one fin, a first inter-layer dielectric (ILD) layer formed on the top surface of the at least one fin, and a strained layer formed at least on a top surface of the at least one gate stack, wherein the strained layer is configured to provide a strain force to the at least one gate stack.

Abstract: A stereoscopic display device includes a display panel, a first lens array and a second lens array. The display panel has a display surface. The display panel includes a plurality of sub-pixels arranged in an array. The first lens array is disposed on the display surface of the display panel and is a one-dimension lens array. The first lens array includes a plurality of first semi-cylindrical lens extending along a first direction. The first semi-cylindrical lens has a first refractive index. The second lens array is disposed on the first lens array and is a one-dimension lens array. The second lens array includes a plurality of second semi-cylindrical lens extending along a second direction. The second semi-cylindrical lens has a second refractive index. The first direction is not parallel to the second direction.

Abstract: A stereoscopic display device includes a display unit and a lens unit. The display unit has a display center axis corresponding to an interface between a first sub-pixel region and a second sub-pixel region of the stereoscopic display device. The display unit includes a first sub-pixel, a second sub-pixel, and a black matrix. The first sub-pixel is disposed in the first sub-pixel display region. The second sub-pixel is disposed in the second sub-pixel region. The black matrix is at least partially disposed between the first sub-pixel and the second sub-pixel. The lens unit is disposed correspondingly to the display unit. The lens unit includes a first sub-lens and a second sub-lens respectively disposed in the first sub-pixel region and the second sub-pixel region. The first sub-lens and the second sub-lens respectively have a first lens center axis and a second lens center axis deviating from the display center axis.

Abstract: The present invention provides a circuit and a method of measuring battery voltage. During the charging, the method adopts cycles of charging, stopping charging, discharging, stopping discharging, and measuring voltages. Within each cycle, between the discharging and the measuring voltage, multiple times of pulse discharging are conducted. After each pulse discharging, the battery voltage is immediately measured until the voltage returns to a stable voltage. Then, the next pulse discharging is conducted. By comparing the stable voltages obtained from successive pulse discharging, whether the virtual voltage is removed and whether the real voltage has been obtained is confirmed. Then the real voltage is further used to determine if the battery is fully charged.

Abstract: A device and a method for receiving a differential quadrature phase shift keying (DQPSK) signal and a method for obtaining a DQPSK signal are provided. The device includes: a splitter, configured to split the DQPSK signal to obtain two optical signals; two optical bandpass filters, connected to the splitter and configured to optically bandpass filter the two optical signals respectively, in which the two optical bandpass filters respectively have a positive frequency offset and a negative frequency offset from a central frequency of the DQPSK signal received by the splitter; and two photoelectric detectors, correspondingly connected to the two optical bandpass filters and configured to photoelectrically convert the filtered optical signals to obtain data signals.

Abstract: An intelligent lithium-battery-activating charging device is connectable between a charging power source and an application electrical device and contains an internal circuit that builds up a charging/discharging mode to correspond the charging power source to a lithium battery accommodated in the application electrical device. After a short time period of charging, which is short enough that the voltage detection circuit inside the application electrical device cannot properly respond, a time period of discharging follows and then discharging is stopped, so that the detection performed by the voltage detection circuit is delayed until the cycles of short time period charging and discharging are completed. If the detection shows the battery is not fully charged, then the charging operation starts again. During the charging process, ions are moved in one direction in one moment and then reversed in the next moment so that built up of deposition on electrodes can be avoided.

Abstract: In the field of communication and transmission, a method and a device for receiving an OPFDM-DQPSK signal are provided. The device includes a power splitter, adapted to split the OPFDM-DQPSK signal into two beams of signals; a polarization beam splitter (PBS), adapted to splitting one of the two beams of signals into a first signal and a second signal; a demultiplexer (Demux), adapted to demultiplex the other beam of signal to obtain a third signal and a fourth signal; two delayers, adapted to delay the third signal and the fourth signal respectively; a first frequency-mixing receiving module, adapted to perform frequency-mixing receiving on the first signal and the delayed third signal; a second frequency-mixing receiving module, adapted to perform frequency-mixing receiving on the second signal and the delayed fourth signal; and a decision recovery module, adapted to recover four logical sequences by performing decision on the four electrical signals.

Abstract: A differential quadrature phase shift keying (DQPSK) system, method, and device are disclosed. The DQPSK system includes: a transmitter, configured to: pre-code an input first signal and second signal, and generate an in-phase signal and a quadrature signal; modulate the in-phase signal to generate a first differential phase shift keying (DPSK) signal, and modulate the quadrature signal to generate a second DPSK signal; perform a 90 degree phase shift on the first DPSK signal or the second DPSK signal, and interfere with the other DPSK signal to obtain a DQPSK signal; and send the DQPSK signal to a receiver; the receiver, configured to: demodulate the DQPSK signal sent from the transmitter in detuned filter mode, and restore the first signal and the second signal through optical/electrical (o/E) conversion.

Abstract: An intelligent lithium-battery-activating charging device is connectable between a charging power source and an application electrical device and contains an internal circuit that builds up a charging/discharging mode to correspond the charging power source to a lithium battery accommodated in the application electrical device. After a short time period of charging, which is short enough that the voltage detection circuit inside the application electrical device cannot properly respond, a time period of discharging follows and then discharging is stopped, so that the detection performed by the voltage detection circuit is delayed until the cycles of short time period charging and discharging are completed. If the detection shows the battery is not fully charged, then the charging operation starts again. During the charging process, ions are moved in one direction in one moment and then reversed in the next moment so that built up of deposition on electrodes can be avoided.

Abstract: A device and a method for receiving a differential quadrature phase shift keying (DQPSK) signal and a method for obtaining a DQPSK signal are provided. The device includes: a splitter, configured to split the DQPSK signal to obtain two optical signals; two optical bandpass filters, connected to the splitter and configured to optically bandpass filter the two optical signals respectively, in which the two optical bandpass filters respectively have a positive frequency offset and a negative frequency offset from a central frequency of the DQPSK signal received by the splitter; and two photoelectric detectors, correspondingly connected to the two optical bandpass filters and configured to photoelectrically convert the filtered optical signals to obtain data signals.

Abstract: In the field of communication and transmission, a method and a device for receiving an OPFDM-DQPSK signal are provided. The device includes a power splitter, adapted to split the OPFDM-DQPSK signal into two beams of signals; a polarization beam splitter (PBS), adapted to splitting one of the two beams of signals into a first signal and a second signal; a demultiplexer (Demux), adapted to demultiplex the other beam of signal to obtain a third signal and a fourth signal; two delayers, adapted to delay the third signal and the fourth signal respectively; a first frequency-mixing receiving module, adapted to perform frequency-mixing receiving on the first signal and the delayed third signal; a second frequency-mixing receiving module, adapted to perform frequency-mixing receiving on the second signal and the delayed fourth signal; and a decision recovery module, adapted to recover four logical sequences by performing decision on the four electrical signals.

Abstract: A portable electronic apparatus including a base, a screen and a withdrawer is provided. The screen is pivotally connected to the base and the withdrawer is adopted for assembling to the base. The withdrawer includes a case, a combination lock and a push rod. The case, on which the combination lock is disposed, has an opening for exposing a part of the combination lock. The push rod disposed on the case has a first and a second end, wherein the second end is connected with the combination lock. When the combination lock is locked, the first end of the push rod penetrates through the base so as to fix the relative position between the case and the base; and when the combination lock is unlocked, the first end of the push rod can be withdrawn back into the case to separate the case from the base.

Abstract: A portable electronic apparatus including a base, a screen and a withdrawer is provided. The screen is pivotally connected to the base and the withdrawer is adopted for assembling to the base. The withdrawer includes a case, a combination lock and a push rod. The case, on which the combination lock is disposed, has an opening for exposing a part of the combination lock. The push rod disposed on the case has a first and a second end, wherein the second end is connected with the combination lock. When the combination lock is locked, the first end of the push rod penetrates through the base so as to fix the relative position between the case and the base; and when the combination lock is unlocked, the first end of the push rod can be withdrawn back into the case to separate the case from the base.

Abstract: An electrical device with vents is provided. The electrical device comprises a case, a sliding part, a spring, and an electromagnetic coil. The case comprises a first vent and a sliding assembly. The sliding assembly is installed at one side or both sides of the first vent, and the sliding part is movable along the sliding assembly. The spring and the electromagnetic coil are separately on each side of the sliding part. When this electrical device detects that heat should be removed, the electromagnetic coil is powered for generating magnetic force to stretch the spring and move the sliding part to the first position to open the first vents. When the electromagnetic coil is not powered, the spring pulls the sliding part back to the second position to close the first vent.

Abstract: The invention relates to an input device capable of transmitting data according to a wired transmission manner or a wireless transmission manner. The input device includes a receiver and an input module. The receiver is connected to a computer for transmitting a first data to the computer, and includes a first connector and a first wireless transceiving module. The input module includes a signal generating module for generating the first data, a second connector, and a second wireless transceiving module. The input module transmits the first data to the receiver through the first and the second connectors by utilizing the wired transmission manner, or through the first and the second wireless transceiving modules by utilizing the wireless transmission manner.