Abstract: An optical device is provided. The optical device includes a fiber array and an optical assembly. The fiber array includes a common channel and a plurality of divided channels arranged in parallel in a first direction and extending along a second direction, and the fiber array has a first surface from a top view perspective. The optical assembly is coupled to the first surface of the fiber array. The first surface and the common channel of the fiber array form an angle less than 90 degrees from the top view perspective.

Abstract: An optical device is provided. The optical device includes a fiber array and an optical assembly. The fiber array includes a common channel and a plurality of divided. channels arranged in parallel in a first direction and extending along a second direction, and the fiber array has a first surface from a top view perspective. The optical assembly is coupled to the first surface of the fiber array. The first surface and the common channel of the fiber array form an angle less than 90 degrees from the top view perspective.

Abstract: A display driving circuit comprising a level shift circuit, the level shift circuit including a level shift device configured to receive a source power applied thereto, and to generate an output signal by amplifying an input signal; a power switching circuit configured to provide any one of first to third selection powers as the source power to the level shift device, the first to third selection powers being different from one another; and a switch control circuit configured to change the first selection power to the second or third selection power based on a change of voltage levels of the first to third selection powers.

Abstract: A display driving integrated circuit is provided which drives a plurality of gate lines included in a display panel. The display driving integrated circuit includes: a charge pump configured to change a voltage from an external power source to generate an output voltage; and a gate line driver configured to drive the plurality of gate lines based on the output voltage. The charge pump may operate in one of a low-current mode and a high-current mode based on a size of the display panel.

Abstract: A display driving circuit comprising a level shift circuit, the level shift circuit including a level shift device configured to receive a source power applied thereto, and to generate an output signal by amplifying an input signal; a power switching circuit configured to provide any one of first to third selection powers as the source power to the level shift device, the first to third selection powers being different from one another; and a switch control circuit configured to change the first selection power to the second or third selection power based on a change of voltage levels of the first to third selection powers.

Abstract: A display driving integrated circuit is provided which drives a plurality of gate lines included in a display panel. The display driving integrated circuit includes: a charge pump configured to change a voltage from an external power source to generate an output voltage; and a gate line driver configured to drive the plurality of gate lines based on the output voltage. The charge pump may operate in one of a low-current mode and a high-current mode based on a size of the display panel.

Abstract: A display device includes a host, a control unit, and a display unit. The control unit receives host data from the host and then generates input data. The control unit includes first, second, and third memories and an arbiter. The first memory stores the input data to serve as first stored data. The second memory stores second stored data and outputs it for generating output data. The third memory stores third stored data. When the amount of the first stored data is greater than a first threshold value, the arbiter performs a writing operation to write the first stored data into the third memory. When the amount of the second stored data is lower than a second threshold value, the arbiter performs a reading operation to read the third stored data to being written into the second memory. The display unit displays images according to the output data.

Abstract: A luminance compensation apparatus for an OLED panel including a luminance integration unit and a luminance compensation unit is provided. The luminance integration unit is used for respectively integrating a luminance value for each dot of an OLED panel before a current frame period to obtain an integrated luminance value for each dot of the OLED panel. The luminance compensation unit is used for respectively converting the integrated luminance value for each dot of the OLED panel to a compensation luminance value for each dot of the OLED panel according to a compensation lookup table, and generating an output luminance value for each dot of the OLED panel according to the compensation for luminance value for each dot of the OLED panel and a luminance value for each dot of the OLED panel at the current frame period to drive signals to compensate luminance for each dot of the OLED panel.