Abstract: One embodiment of the present invention sets forth a method for determining a first motion vector for a first block in a first frame.

Abstract: A solar cell pack includes a solar cell for converting light into electricity, a circuit layer attached to the solar cell for transferring the electricity from the solar cell to a storage apparatus and radiating apparatus for radiating heat from the solar cell and the circuit layer. The radiating apparatus includes a radiator and a multi-purpose layer. The multi-purpose layer attaches the radiator to the circuit layer, isolates the radiator from the circuit layer and transfers heat to the radiator from the circuit layer in operation.

Abstract: A memory access system and method for efficiently utilizing memory bandwidth is disclosed. A data arrangement unit arranges video data into at least a primary block and a supplemental block, which are then stored in a memory device. The video data are arranged such that the video data of the primary block stored in the memory device can be sequentially read by a device, thereby increasing efficiency in memory bandwidth usage and memory data access.

Abstract: An apparatus and a method for motion adaptive de-interlacing with chroma up-sampling error remover are provided. Wherein, a motion detector determines moving pixels and static pixels in a target scan line. A first CUE remover and a second CUE remover remove the CUE of the target scan line in the previous field and the CUE of the adjacent scan lines in the current field, respectively. A de-interlace unit de-interlaces the adjacent scan lines to obtain a de-interlaced second scan line. A selector selects output data of the first CUE remover or the de-interlace unit as data of the target scan line according to a result of motion detection of the motion detector. A merging unit merges the adjacent scan line output by the second CUE remover and the target scan line output by the selector to output two scan lines of an output field.

Abstract: A method of motion detection using an adaptive threshold, adaptive for determining whether a plurality of target pixels in a current scan line are moving pixels or not, is provided. First, a first threshold is given for determining whether the target pixels in the current scan line are moving pixels. Then, a number of moving pixels in a previous scan line of the current scan line is calculated and determined whether larger than a second threshold. If the number of moving pixels is larger than the second threshold, the first threshold is adjusted by a decrement, and then whether the target pixels in the current scan line are moving pixels is determined by using the adjusted first threshold.

Abstract: A method for motion detection of a horizontal line is provided. First, a horizontal motion area of the horizontal line is detected according to differences between corresponding target scan lines in adjacent fields. Next, the horizontal line within a horizontal motion area in a current field and in a previous field are respectively detected. Then, the horizontal motion of the horizontal line is detected if the horizontal line is detected in both the current field and the previous field. Finally, pixels of the horizontal line in the current field are set as static pixels and data of the horizontal line is calculated through de-interlacing of corresponding horizontal lines in the previous field and in a next field if the horizontal motion of the horizontal line is detected. As a result, the flickers occurred in the generated field data can be removed and the quality of vision can be improved.

Abstract: A method of motion detection using motion information of neighboring pixels, adaptive for determining whether a plurality of target pixels in a current field are moving pixels, is provided. First, it is determined whether a neighboring pixel in a previous field corresponding to the target pixel in the current field is the moving pixel. If the neighboring pixel in the previous field is the moving pixel, the target pixel is determined as the moving pixel and otherwise it is further determined whether the neighboring pixels around the target pixel in the current field are the moving pixels. If the neighboring pixels in the current field are the moving pixels, then the target pixel is determined as the moving pixel. Accordingly, the mistakenly judged static pixels can be found and modified to moving pixels, such that the accuracy of motion detection can be increased.

Abstract: A pixel structure of a transflective LCD panel includes a substrate, a data line and a scan, a thin film transistor containing an extending electrode, a first common electrode and a second common electrode, a transmissive pixel electrode, and a reflective pixel electrode forming a first coupling capacitor with the extending electrode and a second coupling capacitor with the second common electrode. The first and second common electrodes and the data line overlap with each other in an overlapping area, wherein the first common electrode is disposed between the second common electrode and the data line.

Abstract: A for motion detection using a content adaptive penalty function, adaptive for determining whether a target pixel in a current field is a moving pixel or not, is provided. First, a penalty function is determined according to characteristics of a plurality of neighboring pixels of the target pixel. Next, a plurality of differences between the corresonding neighboring pixels of the target pixel in adjacent fields are calculated. The difference is then weighted by the penalty function according to the magnitude of the difference and the weighted differences are summed together. Finally, the sum of the weighted differences is compared with a sum threshold, so as to determine whether the target pixel is the moving pixel or not.

Abstract: A method for adaptively selecting filters to interpolate video data is provided. In the present method, when receiving video data encoded by a 4:2:2 sampling format, a plurality of filters having different weights are adaptively selected to convert the color components in the video data to a 4:4:4 sampling format based on the differences of luminance and color components among a target pixel and neighboring pixels thereof. Accordingly, the blurs occurred in an area with large color variation can be removed or reduced, such that the interpolated color components can be accepted by human eyes more easily.

Abstract: A method of color components compression is provided. In the present method, when receiving video data encoded by a 4:4:4 sampling format, color components of each set of neighboring pixels in the video data is down-sampled and a first difference of the color components between the video data before and after down-sampling in a down-sampling mode is calculated. Then, the color components of each pixel in the video data are truncated and a second difference of the color components between the video data before and after truncation in a truncation mode is calculated. The first difference and the second difference are compared and the down-sampling mode or the truncation mode that has a smaller difference is selected to compress the video data into a 4:2:2 sampling format.

Abstract: A liquid crystal display (LCD) panel including an active device array substrate, an opposite substrate and a liquid crystal layer is provided. The active device array substrate includes a substrate, a plurality of scan lines, a plurality of data lines, and a plurality of pixel units. The scan lines, the data lines and the pixel units are disposed on the substrate. Each of the pixel units is electrically connected to one of the scan lines and one of the data lines correspondingly and crosses over two sides of the corresponding scan line. The opposite substrate includes a plurality of alignment protrusions. The alignment protrusions are located over the scan lines. Besides, the liquid crystal layer is disposed between the opposite substrate and the active device array substrate. The above-mentioned liquid crystal display panel has higher aperture ratio.

Abstract: A liquid crystal display panel is provided. The liquid crystal display panel includes an active device array substrate, an opposite substrate, a plurality of scan lines, a plurality of data patterns, a plurality of connecting patterns, a plurality of active devices, a plurality of transparent pixel electrodes, a plurality of common lines, at least one polymer layer, and a liquid crystal layer. The opposite substrate is disposed above the active device array substrate. The scan lines, the data patterns and the connecting patterns are disposed on the active device array substrate, and the data patterns and the connecting patterns form data lines via contact holes. The common lines are disposed between the transparent pixel electrodes and the data lines, and a part of each common line overlaps the corresponding data pattern. The polymer layer is disposed on at least one of the active device array substrate and the opposite substrate.

Abstract: A method and apparatus of de-interlacing are disclosed. A flicker bit is assigned to each line of a frame to indicate a flicker characteristic of each line. A de-interlaced line is then generated by duplicating a neighboring scan line in a current frame according to an active flicker bit of a previous frame.

Abstract: A solar cell is prepared. The solar cell is photo-sensitized. The solar cell has a semiconductor layer. And carbon nanotubes are deposited on the semiconductor layer with an arrangement. The solar cell is prepared with a reduced amount of fabrication material, a lowered fabrication cost and a prolonged lifetime.

Abstract: A coding system and method for a bit-plane is disclosed. A bit-plane is decomposed or segmented into at least a background area and a foreground area. A number of encoders are provided for efficiently encoding the background area and the foreground area respectively. Accordingly, the performance of compression is substantially improved by this data or texture segmentation.

Abstract: A compression system and method for a bit-plane is disclosed. A run-length encoder is used to compress a first block of an image, which includes at least a first line in the image. An offset encoder is used to compress a second block of the image, which includes a number of lines different from the first line.

Abstract: A pixel structure of a transflective LCD panel includes a substrate, a data line and a scan, a thin film transistor containing an extending electrode, a first common electrode and a second common electrode, a transmissive pixel electrode, and a reflective pixel electrode forming a first coupling capacitor with the extending electrode and a second coupling capacitor with the second common electrode. The first and second common electrodes and the data line overlap with each other in an overlapping area, wherein the first common electrode is disposed between the second common electrode and the data line.

Abstract: A liquid crystal display panel including a first substrate, a second substrate, scan lines, data lines, pixel unit sets, and a liquid crystal layer is provided. The scan lines, data lines, and pixel unit sets are disposed on the first substrate. A first gap is formed between two adjacent pixel unit sets. Each of the pixel unit sets includes pixel units, and a second main space is formed between two adjacent pixel units. Each of the pixel units includes an active device electrically connected to a scan line and a data line, and a transparent pixel electrode has slits and electrically connected to the active device. The width of the first gap is greater than that of the second gap.

Abstract: A liquid crystal display panel is provided. The liquid crystal display panel includes an active device array substrate, an opposite substrate, a plurality of scan lines, a plurality of data patterns, a plurality of connecting patterns, a plurality of active devices, a plurality of transparent pixel electrodes, a plurality of common lines, at least one polymer layer, and a liquid crystal layer. The opposite substrate is disposed above the active device array substrate. The scan lines, the data patterns and the connecting patterns are disposed on the active device array substrate, and the data patterns and the connecting patterns form data lines via contact holes. The common lines are disposed between the transparent pixel electrodes and the data lines, and a part of each common line overlaps the corresponding data pattern. The polymer layer is disposed on at least one of the active device array substrate and the opposite substrate.