Abstract:
A stereo image displaying method adapted to a polarizing panel is provided. The stereo image displaying method includes the following steps. An original first eye image and the original second eye image are received. Each of the odd pixel data rows of the original first eye image is interpolation operated with at least one of two adjacent even pixel data rows of original the first eye image to serve as one of a plurality of pixel data rows of a first eye image of a display frame. Each of the even pixel data rows of the original second eye image is interpolation operated with at least one of two adjacent odd pixel data rows of the original second eye image to serve as one of a plurality of pixel data rows of a second eye image of the display frame. The display frame is applied on the polarizing panel.
Abstract:
An integrated circuit chip includes a power/ground interconnection network in a topmost metal layer over a semiconductor substrate and at least a bump pad on/over the power/ground interconnection network. The power/ground mesh interconnection network includes a first power/ground line connected to the bump pad and extending along a first direction, and a connection portion connected to the bump pad and extending along a second direction.
Abstract:
A system and method for manufacturing a light-generating device is described. A preferred embodiment comprises a plurality of LEDs formed on a substrate. Each LED preferably has spacers along the sidewalls of the LED, and a reflective surface is formed on the substrate between the LEDs. The reflective surface is preferably located lower than the active layer of the individual LEDs.
Abstract:
A power converter module is disclosed, which is an all-digital module. The power converter module includes a reference voltage generation unit, a voltage loop control unit, a current loop control unit, an input voltage compensation unit, and a pulse width modulation generation unit, to transfer input power to stable output power for providing power to an external loading device through driving bridge switch unit with external driver. The voltage loop control unit and the current loop control unit contain a proportion-integral-differentiation controller for receiving signal related to voltage and current of loading device to form voltage control loop and current control loop. The pulse width modulation generation unit contains function of deciding necessary stop time to improve quality of output power and decrease the effect of input power and loading variation, and to provide stable sine-waveform output power to the external loading device.
Abstract:
A method of fabricating a semiconductor device includes the following steps. First, a semiconductor substrate is provided, which includes at least a fin structure and at least a gate semiconductor layer disposed thereon. The gate semiconductor layer covers a portion of the fin structure. Then a sacrificial layer is deposited to cover the fin structure entirely. Subsequently, a top surface of the fin structure is exposed from the sacrificial layer through an etching process. A material layer is then deposited, which covers the gate semiconductor layer, the fin structure and the sacrificial layer conformally. Finally, the material layer is etched until the top surface of the fin structure is exposed and a first spacer is concurrently formed on side surfaces of the gate semiconductor layer.
Abstract:
A digital power factor correction device is provided, which is an all-digital control module. The digital power factor correction device includes a voltage loop control unit, an input power control unit, a current loop control unit, and a pulse width modulation generation unit, to perform power factor correction for minimizing the phase difference between input current and input voltage through adjusting input current with an external driver and a switch unit. The voltage loop control unit and the current loop control unit contain a proportion-integral-differentiation controller to form a voltage control loop and a current control loop, respectively. The input power control unit adjusts current waveform according to the input power, while the pulse width modulation generation unit determines the stop time of pulse width modulation to produce a pulse width modulation signal, to control the external driver and the switch unit for eliminating loading effect.
Abstract:
A light-emitting diode (LED) device is provided. The LED device has raised semiconductor regions formed on a substrate. LED structures are formed over the raised semiconductor regions such that bottom contact layers and active layers of the LED device are conformal layers. The top contact layer has a planar surface. In an embodiment, the top contact layers are continuous over a plurality of the raised semiconductor regions while the bottom contact layers and the active layers are discontinuous between adjacent raised semiconductor regions.
Abstract:
A semiconductor package and a manufacturing method thereof are provided. The semiconductor package includes a first substrate, a second substrate, an interposer substrate, a semiconductor chip, a package body and a first antenna layer. The first substrate comprises a grounding segment. The interposer substrate is disposed between the second substrate and the first substrate. The semiconductor chip is disposed on the second substrate. The package body encapsulates the second substrate, the semiconductor chip and the interposer substrate, and has a lateral surface and an upper surface. The first antenna layer is formed on the lateral surface and the upper surface of the package body, and electrically connected to the grounding segment.
Abstract:
Semiconductor packages and related methods. The semiconductor package includes a substrate, a semiconductor chip, a package body, a recess and a conductive layer. The substrate includes a grounding element. The semiconductor chip is disposed on the substrate and has a lateral surface and an upper surface. The package body encapsulates the lateral surface of the semiconductor chip. The recess is formed in the package body and exposes the upper surface of the semiconductor chip. The conductive layer covers an outer surface of the package body, the grounding element and the upper surface of the semiconductor chip exposed by the recess to provide both thermal dissipation and EMI shielding for the semiconductor chip.