Abstract: A display formed with multiple pixel groups arranged in a matrix manner. Each of the pixel groups has multiple dots arranged in a predetermined identical matrix form, and has at least one first color dot, at least one second color dot and at least one third color dot. Each color dot has multiple sides adjacent to the other dots having a different color. Each color dot represents a luminance and a chrominance of corresponding full color pixel data by grouping with neighboring dots to form a plurality of overlapping full color dynamics pixel groups. The display has good spatial frequency in both X and Y axes, thus giving a higher visual perception of high resolution after performing weighted dot rendering methods, in which each dot in the display represents the luminance and chrominance of each corresponding RGB pixel by forming overlapping dynamic pixels with neighboring color dots.

Abstract: The present invention is to provide an image device. The image device includes a plurality of sections. Each section includes a first pixel group, a second pixel group, a third pixel group and a fourth pixel group. The first pixel group comprises at least one first color dot and a second color dot, the second pixel group comprises at least one third color dot and the second color dot, the third pixel group comprises at least one fourth color dot and the second color dot, the fourth pixel group comprises at least one fifth color dot or the second color dot. Any four adjacent the first pixel group, the second pixel group, the third pixel group and the fourth pixel group arranged in a 2×2 matrix result in an unbalanced white.

Abstract: The invention relates to a display and a weighted dot rendering method. The display comprises a plurality of pixel groups, each pixel group comprising a plurality of dots arranged in a predetermined identical matrix form, each pixel group having at least one first color dot, at least one second color dot and at least one third color dot, the pixel groups arranged in a matrix manner so as to form the display, wherein each color dot has a plurality of sides adjacent to the other dots with different color, and each color dot represents a luminance and a chrominance of a corresponding full color pixel data by grouping with neighboring dots to form a plurality of overlapping full color dynamics pixel groups.

Abstract: An image device including a plurality of pixel groups. Each pixel group includes a plurality of dots arranged in a predetermined identical matrix form, and each pixel group has at least one first color dot, at least one second color dot, at least one third color dot and at least one fourth color dot. Any repeated sequence of consecutive color dots in a row direction and in a column direction comprise at least one first color dot, at least one second color dot, at least one third color dot, at least one fourth color dot.

Abstract: The present invention is to provide an image device. The image device includes a plurality of sections. Each section includes a first pixel group, a second pixel group, a third pixel group and a fourth pixel group. The first pixel group comprises at least one first color dot and a second color dot or a fourth color dot, the second pixel group comprises at least one third color dot and the second color dot, the third pixel group comprises at least one fourth color dot and the second color dot, the fourth pixel group comprises at least one fifth color dot or at least one second color dot. Any four adjacent the first pixel group, the second pixel group, the third pixel group and the fourth pixel group arranged in a 2×2 matrix reach a white balance.

Abstract: A 3D/2D multi-primary color image device is provided with an optical unit to direct a first image to a first group of viewers and a second image to a second group of viewers. Each color dot of the multi-primary color image device comprises at least two color sections controlled independently. A first group of viewers and a second group of viewers can view simultaneously and respectively a first image and a second image.

Abstract: An image device includes a plurality of pixel groups. Each pixel group includes a plurality of dots arranged in a predetermined identical matrix form, and each pixel group has at least one first color dot, at least one second color dot, at least one third color dot and at least one fourth color dot. Any repeated sequence of consecutive color dots in a row direction and in a column direction comprise at least one first color dot, at least one second color dot, at least one third color dot, at least one fourth color dot. The advantage of the invention is to provide all multi-primary colors in a single row or column so that by using subpixel rendering method, black and white lines can be formed in rows or columns, thus reducing the number of columns in a multi-primary colors display.

Abstract: A 3D /2D multiprimary color image device is provided with an optical unit to direct one image to the left eye and another image to the right eye. Each color dot of the multiprimary color image device comprises at least two color sections controlled independently. To display a 3D image, one section of a color dot is for displaying a left eye image while another section of the same color dot is for displaying a right eye image. To display a 2D image, both sections of a color dot for the left eye and for the right eye displaying the same image independently.

Abstract: A multi-resolution display system having a system module, a plurality of resolution control modules and a display module. Each resolution control module is used for receiving an input data in a first color space and outputting a resolution data in a second color space. The display module includes a plurality of areas. Each area receives the resolution data from one of the resolution control modules. The display module can show various resolution data in various areas on the same screen at the same time.

Abstract: The present invention is to provide an image device. The image device includes a plurality of sections. Each section includes a first pixel group, a second pixel group, a third pixel group and a fourth pixel group. The first pixel group comprises at least one first color dot and a second color dot or a fourth color dot, the second pixel group comprises at least one third color dot and the second color dot, the third pixel group comprises at least one fourth color dot and the second color dot, the fourth pixel group comprises at least one fifth color dot or at least one second color dot. Any four adjacent the first pixel group, the second pixel group, the third pixel group and the fourth pixel group arranged in a 2×2 matrix reach a white balance.

Abstract: An image device includes a plurality of pixel groups. Each pixel group includes a plurality of dots arranged in a predetermined identical matrix form, and each pixel group has at least one first color dot, at least one second color dot, at least one third color dot and at least one fourth color dot. Any repeated sequence of consecutive color dots in a row direction and in a column direction comprise at least one first color dot, at least one second color dot, at least one third color dot, at least one fourth color dot. The advantage of the invention is to provide all multi-primary colors in a single row or column so that by using subpixel rendering method, black and white lines can be formed in rows or columns, thus reducing the number of columns in a multi-primary colors display.

Abstract: A 3D/2D multiprimary color image device is provided with an optical unit to direct one image to the left eye and another image to the right eye. Each color dot of the multiprimary color image device comprises at least two color sections controlled independently. To display a 3D image, one section of a color dot is for displaying a left eye image while another section of the same color dot is for displaying a right eye image. To display a 2D image, both sections of a color dot for the left eye and for the right eye displaying the same image independently.

Abstract: The invention relates to a display and a weighted dot rendering method. The display comprises a plurality of pixel groups, each pixel group comprising a plurality of dots arranged in a predetermined identical matrix form, each pixel group having at least one first color dot, at least one second color dot and at least one third color dot, the pixel groups arranged in a matrix manner so as to form the display, wherein each color dot has a plurality of sides adjacent to the other dots with different color, and each color dot represents a luminance and a chrominance of a corresponding full color pixel data by grouping with neighboring dots to form a plurality of overlapping full color dynamics pixel groups.

Abstract: The invention relates to a color matching method for transforming a color representation of a first set of color primaries with a plurality of first signals to a second set of color primaries with a plurality of second signals in a first domain. The color matching method of the invention is to consider the characteristics of human visual perception. Since human is more sensitive to the luminous intensity than chrominance, the color matching method of the invention is considered to match the luminous intensity. The color matching method of the invention can minimize the intensity difference by utilizing the optimality of resource distribution. An additional step of smoothing the intensity difference among color primaries at the level of color primaries is appended. It enhances the visual quality especially for the images with a gradual change in numerous levels of color. Besides, when the color is outside the gamut, we keep the information of luminance by adding extra white.

Abstract: An image device and a data processing system. In order to process subpixel rendered RGB data such as Clear Type™ font data to be processed and put correctly on a non-RGB stripe image device such as a 2×2 matrix RGBW quad pixel image device, a matching 2×2 quad pixel image device is selected to cope with the corresponding input data triplet from the subpixel rendered RGB input data string. Since the blue dot carries the least luminance information in a white balance, Green/Blue/Red (GBR) triplet from the subpixel rendered input RGB data string is selected to match with a 2×2 matrix quadpixel image device where G and R dots of the 2×2 quad pixel have the maximum overlapping area with the corresponding G and R dots from the GBR stripe pixel data.

Abstract: The invention relates to a multi-resolution display system. The multi-resolution display system of the invention comprises a system module, a plurality of resolution control modules and a display module. Each resolution control module is used for receiving an input data in a first color space and outputting a resolution data in a second color space. The display module comprises a plurality of areas. Each area receives the resolution data from one of the resolution control modules. The display module can show various resolution data in various areas on the same screen at the same time.

Abstract: The invention relates to a display and an image data processing system. According to the arrangement of the display, two color dots having lower light intensity than the other two color dots in a white balance status are disposed on diagonal positions of the pixel group. Therefore, the display of the invention can improve the color balance in the pixel group to avoid visible dark vertical line. The image data processing system of the invention utilizes the weighted dot rendering device for pre-compressing data. We can expect that the video compressed data size or the video transmission speed is reduced accordingly to a ratio of ? (¼ in the case of RGBW of 2×2 matrix arrangement because white (W) can be regenerated from the corresponding R, G, B), thus storage memory and transmission bandwidth can be reduced considerably without degrading the visual perception of the video quality on the proprietary VP display.

Abstract: Display comprises static pixels and dots (individual element) arranged in a predetermined manner. Dynamic pixels are generated dynamically, comprising dots selected from at least two adjacent static pixels. Overlapping of dynamic pixels on the static pixels creates an enhanced resolution at the human's eyes. By adjusting the light emitting area and space of dots in a static pixel, maximum optimized brightness in a white balance equilibrium with good contrast can be obtained in finding an optimal ratio between the non light emitting area (black mask or black barrier ribs) and the light emitting area.

Abstract: A display including static pixels and dots (individual element) arranged in a predetermined manner. Dynamic pixels are generated dynamically, comprising dots selected from at least two adjacent static pixels. Overlapping of dynamic pixels on the static pixels creates an enhanced resolution at the human's eyes. A weighted dot rendering method can be performed for all static and dynamic pixels of a low resolution inventive display to be displayed in an additive way with the viewing perception of an enhanced higher resolution display. By adjusting the light emitting area and space of dots in a static pixel, maximum optimized brightness in a white balance equilibrium with good contrast can be obtained in finding an optimal ratio between the non light emitting area (black mask or black barrier ribs) and the light emitting area.

Abstract: A display including static pixels and dots (individual element) arranged in a predetermined manner. Dynamic pixels are generated dynamically, comprising dots selected from at least two adjacent static pixels. Overlapping of dynamic pixels on the static pixels creates an enhanced resolution at the human's eyes. A weighted dot rendering method can be performed for all static and dynamic pixels of a low resolution inventive display to be displayed in an additive way with the viewing perception of an enhanced higher resolution display. By adjusting the light emitting area and space of dots in a static pixel, maximum optimized brightness in a white balance equilibrium with good contrast can be obtained in finding an optimal ratio between the non light emitting area (black mask or black barrier ribs) and the light emitting area.