Abstract: An inverter for driving at least one light-emitting unit includes a switching circuit, an electric-isolated circuit and a transforming circuit. The switching circuit generates at least one switching signal according to a DC signal and at least one switching control signal. The electric-isolated circuit has an electric-isolated side and a non-electric-isolated side, which is electrically connected to the switching circuit electrically and generates a first power signal according to the switching signal. The transforming circuit is electrically connected to the electric-isolated side of the electric-isolated circuit, and generates a second power signal to drive the light-emitting unit according to the first power signal.

Abstract: A semiconductor chip module includes a first flip-chip unit and a second flip-chip unit. The first flip-chip unit has a first chip and a first glass circuit board. The first chip is connected with the first glass circuit board by flip-chip bonding. The second flip-chip unit has a second chip and a second glass circuit board. The second chip is connected with the second glass circuit board by flip-chip bonding. The first flip-chip unit and the second flip-chip unit are attached to each other. A method for manufacturing the semiconductor chip module is also disclosed.

Abstract: A diffusion unit of a light-emitting module is disposed adjacent to at least one light source. The light source emits a light beam. The diffusion unit includes a first diffusion sheet and a second diffusion sheet. The thickness of the first diffusion sheet is less than 1 mm, and the thickness of the second diffusion sheet is also less than 1 mm. The second diffusion sheet is disposed adjacent to the first diffusion sheet. The light beam is directly emitted from the light source directly to the first diffusion sheet. A light-emitting module and a diffusion sheet are also disclosed.

Abstract: A digital controlled multi-light driving apparatus for driving and controlling a plurality of lights. The digital controlled multi-light driving apparatus includes a plurality of oscillation step-up circuits and a digital control circuit. The digital control circuit has a counter unit, a memory unit, a comparator unit, and a driving unit. The counter unit starts counting to generate a counting value whenever a digital start signal is generated. The memory unit stores at least one target counting value. The comparator unit is electrically connected to the counter unit and the memory unit to generate triggering signals whenever the counting value matches the target counting value. The driving unit is electrically connected to the comparator unit to output sequentially delayed driving signals to the oscillation step-up circuits respectively on receiving the triggering signals.

Abstract: A driving-control device of a backlight module receives a first digital burst signal and includes a start signal generating unit, a counter unit, a memory unit, a comparator unit and a driving unit. The start signal generating, unit generates a digital start signal on receiving the first digital burst signal. The counter unit is electrically connected to the start signal generating unit and sequentially generates counting values on receiving the digital start signal. The memory unit stores at least one target counting value. The comparator unit is electrically connected to the counter unit and the memory unit and sequentially generates triggering signals according to the counting values and the target counting value. The driving unit is electrically connected to the comparator unit and outputs sequentially delayed driving signals on receiving the triggering signals.

Abstract: A non-volatile display module has a display panel and a driving circuit. The display panel has a substrate disposed with at least one scan line, at least one data line and at least one thin film transistor (TFT). The TFT is located at an interlaced area of the scan line and data line. The driving circuit has a memory unit, a voltage level generating unit and a voltage level selecting unit. The memory unit receives and stores at least one image control signal in accordance with a clock signal. The voltage level generating unit generates a plurality of voltage-level signals. The voltage level selecting unit is electrically connected with the scan line, the data line, the memory unit and the voltage level generating unit, and outputs one of the voltage-level signals to one scan line or one data line in accordance with the image control signal. A non-volatile display apparatus is also disclosed.

Abstract: A digital controlled multi-light driving apparatus of the invention is for driving and controlling at least one AC-driven light and at least one DC-driven light. The digital controlled multi-light driving apparatus includes at least one first oscillation step-up circuit for driving the AC-driven light, at least one second oscillation step-up circuit for driving the DC-driven light; and a digital control circuit. The digital control circuit has a digital switching signal generating circuit and a multiplex feedback-control calculating circuit. The digital switching signal generating circuit connects to each of the first oscillation step-up circuit and the second oscillation step-up circuit and generates a first set of digital switching signals and a second digital switching signal respectively to the first oscillation step-up circuit and the second oscillation step-up circuit. The multiplex feedback-control calculating circuit has a control-calculating unit and an A/D converting unit.

Abstract: A light emitting module includes a transparent substrate and a plurality of light emitting diodes (LEDs). The transparent substrate has a first surface, a second surface disposed opposite to the first surface and a patterned conductive layer disposed on the first surface of the transparent substrate. The LEDs are disposed on a lateral side of the first surface and are electrically connected with the patterned conductive layer. Light outputted from the LEDs is guided by the transparent substrate and is outputted from the first surface or the second surface.

Abstract: A non-volatile display module has a display panel and a driving circuit. The display panel has a substrate at which at least one scan line, at least one data line and at least one thin film transistor (TFT) are disposed. The TFT is located at an intersection area of the scan line and data line. The driving circuit has a driving unit, a power converting unit and a multiplexing unit. The driving unit receives at least one image controlling signal according to a clock signal. The power converting unit generates a plurality of power signals. The multiplexing unit is electrically connected with the scan line, the data line, the driving unit and the power converting unit, and outputs one of the power signals to the scan line or the data line according to the image controlling signal. A non-volatile display apparatus is also disclosed.

Abstract: A method for driving an LCD includes a first brightness adjusting step and a second brightness adjusting step. In the first brightness adjusting step, the relative brightness of a plurality of light-emitting units is adjusted, so that the screen of the LCD presents a dark zone. The dark zone is caused by the brightness distribution of the light-emitting units and includes a scan line being activated. In the second brightness adjusting step, the relative brightness of the light-emitting units is readjusted after a specific scan timing. Therefore, the dark zone is shifted such that another scan line, which is being activated, is located in the shifted dark zone. Furthermore, a multi-light driving device and an LCD with the multi-light driving device and driven by the method are disclosed.

Abstract: A display control method inputs a plurality of frames into a display, which records a sequential flashing threshold value. Each of the frames has a plurality of pixels. The display control method includes a frames-comparing procedure, a play-mode determining procedure, and a sequential flashing controlling procedure. The frames-comparing procedure generates a motion activity value by way of comparing pixels between two of the frames. The play-mode determining procedure determines whether the two frames are in a relationship of a motion mode or not according to the motion activity value and the flashing threshold value, and therefore generates a sequential flashing controlling signal. The sequential flashing controlling procedure performs a sequential flashing process according to the sequential flashing controlling signal.

Abstract: A desktop liquid crystal displaying (LCD) device, which can be disposed on a surface, includes an LCD monitor, a first frame and a second frame. The LCD monitor has a bottom side facing the surface. The first frame and the second frame are mounted on the LCD monitor. The first frame and the second frame protrude from the bottom side of the LCD monitor towards the surface and are placed over the surface to support the LCD monitor. Portions of the first frame and the second frame extruding from the bottom side of the LCD monitor are distanced apart over 25 centimeters.

Abstract: A liquid crystal displaying device has an exterior housing. The liquid crystal displaying device comprises a liquid crystal displaying unit and a backlight unit. The liquid crystal displaying unit includes a frame, a liquid crystal displaying panel and a driving control circuit. The frame is arranged around the periphery of the liquid crystal displaying panel. The liquid crystal displaying panel has a displaying side. The driving control circuit is set inside the frame and is electrically connected to the liquid crystal displaying panel. The backlight unit includes a shell, at least one light-emitting element, and a power driver for driving the light-emitting element. The light-emitting element and the power driver are installed inside the shell, while the shell is assembled with the frame, such that the backlight unit is positioned at the side opposite to the displaying side of the liquid crystal displaying panel.

Abstract: An optoelectronics processing module includes a transparent substrate and at least one optoelectronics component. One surface of the transparent substrate is formed with a plurality of first pads and a plurality of second pads. The optoelectronics component mounted on the transparent substrate has a plurality of connecting pads, which is irradiated with a laser beam and is then connected with the first pads.

Abstract: A digital controlled light source driving apparatus includes a digital processor and a step-up circuit. The digital processor has a digital switching-signal generating module and a protecting module. The digital switching-signal generating module generates at least one digital switching signal set. The protecting module generates one protecting switching signal set according to the digital switching signal set. The step-up circuit is electrically connected to the protecting module and generates a power signal according to the protecting switching signal set.

Abstract: A digital controlled multi-light driving apparatus of the invention is for driving and controlling at least one AC-driven light and at least one DC-driven light. The digital controlled multi-light driving apparatus includes at least one first oscillation step-up circuit for driving the AC-driven light, at least one second oscillation step-up circuit for driving the DC-driven light; and a digital control circuit. The digital control circuit has a digital switching signal generating circuit and a multiplex feedback-control calculating circuit. The digital switching signal generating circuit connects to each of the first oscillation step-up circuit and the second oscillation step-up circuit and generates a first set of digital switching signals and a second digital switching signal respectively to the first oscillation step-up circuit and the second oscillation step-up circuit. The multiplex feedback-control calculating circuit has a control-calculating unit and an A/D converting unit.

Abstract: A digital controlled multi-light driving apparatus. The driving apparatus includes a plurality of oscillation step-up circuits and a digital control circuit. The digital control circuit electrically connects to each of the oscillation step-up circuits, respectively. The digital control circuit generates sets of digital switching signals, which are phase controllable and duty cycle controllable, and respectively transmits the sets of digital switching signals to the oscillation step-up circuits. The phases and duty cycles of the digital switching signals are controlled by the digital control circuit.

Abstract: A circuit board includes a substrate, an insulating layer, at least one protrusion, and a first circuit layer. The insulating layer is disposed on the substrate and has at least one protrusion-positioning region. At least a part of the protrusion is disposed on the protrusion-positioning region. The first circuit layer is disposed on the insulating layer and has at least one trace line extending onto the protrusion.

Abstract: A touch-control method of an LCD is provided. During the idling time in-between the writing periods, the first touch-position sensing step detects the values of liquid crystal capacitances formed between the scan lines and the counter electrode, and detects a scan-line-direction touch position (Y) according to the values of the liquid crystal capacitances formed between the scan lines and the counter electrode. The charging step charges a voltage signal into each of the data lines needed to be detected after the scan-line-direction touch position (Y) is detected. After the voltage signal is charged, the second touch-position sensing step detects the values of liquid crystal capacitance formed between the data lines and the counter electrode, and detects a data-line-direction touch position (X) according to the values of the liquid crystal capacitance formed between the data lines and the counter electrode.

Abstract: An optoelectronics processing module includes a transparent substrate and at least one optoelectronics component. One surface of the transparent substrate is formed with a plurality of first pads and a plurality of second pads. The optoelectronics component mounted on the transparent substrate has a plurality of connecting pads, which is irradiated with a laser beam and is then connected with the first pads.