Abstract:
A method for storing decoded moving pictures with a reduced memory requirement includes: decoding header information in a bitstream; storing a decoded moving picture as a buffered picture; determining a less important portion of the buffered picture; and performing a post-processing operation on the less important portion of the buffered picture according to the header information. An associated apparatus for storing decoded moving pictures with a reduced memory requirement is further provided.
Abstract:
A receiving container for a display device includes a bottom plate, a sidewall and a grounding unit. The sidewall is extended from the bottom plate to define a receiving space. The grounding unit is integrally formed with the bottom plate. The grounding unit includes a grounding member that grounds a circuit board received in the receiving space. The circuit board includes a grounding electrode and the grounding member corresponds to the grounding electrode. The grounding member is formed on a rear surface of the bottom plate. The grounding member may include a protrusion or a projected portion having an elastic structure.
Abstract:
A multimedia recording apparatus includes a receiving unit, a normal recording unit, a pre-recording unit and a combining unit. The receiving unit receives ongoing multimedia information. The normal recording unit generates first multimedia data under a normal recording mode. The pre-recording unit automatically records the ongoing multimedia information to generate a second multimedia data when the normal recording mode is not active. The combining unit adds content of the second multimedia data to the first multimedia data.
Abstract:
An electronic device includes a central processing unit (“CPU”), first and second display panels, and first and second display panel drivers. The CPU provides an image signal and an input control signal. The first and second display panels respectively display images. The first and second display panel drivers drive the first and second display panels according to the image signal and the input control signal. The CPU includes an interface transmission unit outputting an interface signal to control the first and second display panel drivers. The first and second display panel drivers respectively include first and second interface receiving units receiving the interface signal from the interface transmission unit. The interface signal includes a display panel selection bit and a data bit.
Abstract:
Electronic devices for de-quantization are disclosed. An electronic device includes at least a multiplier. The multiplier generates a de-quantization scale by multiplying a first sub-factor by a second sub-factor after acquiring a macro-block (MB) from a bitstream. The generated de-quantization scale enables de-quantization of a block of the MB. Another electronic device includes at least a multiplier. The multiplier generates a quantization scale by multiplying the inverse of a first sub-factor by the inverse of a second sub-factor after acquiring an MB from a video sequence. The generated quantization scale enables quantization of a block of the MB.
Abstract:
A method for performing scenario driven voltage scaling of a system includes: monitoring at least one condition of the system, wherein the at least one condition includes user scenario switching of the system; and based upon at least one predetermined table, determining at least one level of at least one voltage for driving the system according to the at least one condition, where the predetermined table includes a plurality of sets of frequency/voltage information respectively corresponding to a plurality of scenarios. An associated apparatus for performing scenario driven voltage scaling of the system is also provided. The apparatus includes at least one tracking module capable of monitoring the at least one condition of the system, and further includes at least one voltage control module capable of determining the at least one level of the at least one voltage.
Abstract:
A flat panel display device includes a display module, a protection window member and a layer disposed in an area between the protection window member and a display area of the display module. The protection window member includes a stepped portion within which the layer is disposed. The stepped portion may include a recess or a plurality of layers.
Abstract:
A method of performing image processing includes storing a reference picture into a frame buffer starting at a first starting address; overwriting at least a subset of the reference picture by storing at least a portion of a current picture into the frame buffer starting at a second starting address; protecting a plurality of blocks of the reference picture from being lost while storing each block of the current picture in the frame buffer; and performing a motion compensation procedure for a particular block of the current picture in the plurality of blocks of the reference picture that are being protected.
Abstract:
Electronic devices for de-quantization are disclosed. An electronic device includes at least a multiplier. The multiplier generates a de-quantization scale by multiplying a first sub-factor by a second sub-factor after acquiring a macro-block (MB) from a bitstream. The generated de-quantization scale enables de-quantization of a block of the MB. Another electronic device includes at least a multiplier. The multiplier generates a quantization scale by multiplying the inverse of a first sub-factor by the inverse of a second sub-factor after acquiring an MB from a video sequence. The generated quantization scale enables quantization of a block of the MB.
Abstract:
For processing, e.g. encoding or decoding, a video stream, a type of a current macroblock unit is determined. The type indicates portions of corresponding macroblock parameter sets necessary for processing the current macroblock unit. The corresponding macroblock parameters are mapping to a dependent set of macroblock units of the current macroblock unit. The current macroblock unit is processed if a local buffer already stores the portions of the corresponding macroblock parameter sets. If data of the portions of the corresponding macroblock parameter sets that are not available in the local buffer, the data are copied from a memory circuit into the local buffer for processing the macroblock unit.