30results about How to "Suppresses Image Quality Deterioration" patented technology

A driving support system which includes: at least two cameras take images of areas around a vehicle, whose ranges of field of view partially overlap with each other; a control unit performing a predetermined coordinate transformation on the images taken by the cameras and joining the transformed images together to produce an overhead view image; and a display unit to display the overhead view image. The control unit changes the position of the joint of the transformed images in the overhead view image.

A video signal recording and reproducing apparatus is provided that is capable of reducing the encoding amount required for video recording thereby to record a longer video signal while suppressing deterioration of image quality when the video is displayed. An apparatus is also provided that is similarly capable of efficiently transmitting the video signal with a smaller transmission capacity during transmission of the video signal. A structure constituting the present invention comprises: a decoding unit which decodes an inputted video signal into video frames; a decimation unit which decimates the number of video frames decoded by the decimation unit; an encoding unit which encodes the video frames decimated by the decimation unit into encoded video signals; and a storage device which stores the video signals encoded by the encoding unit, wherein the decimation unit performs decimation for each video signal.

The present invention relates to liquid crystal display devices.

An objective of the present invention is to reduce the size of the liquid crystal display devices, while suppressing moving images from being displayed in low quality.

A threshold table (3) has stored therein thresholds for classifying gradation values, and the gradation values are classified into a plurality of gradation sections in accordance with the thresholds. A look-up table (2) has stored therein differential gradation values corresponding to combinations of gradation section values for data concerning the current frame data and gradation section values for data concerning an immediately preceding frame. A frame memory (21) has stored therein gradation section values for pixels. A control circuit (22) refers to the look-up table (2) and the threshold table (3) to calculate a differential gradation value based on a gradation value indicated by image data (DAT) for the current frame and a gradation section value of previous frame data stored in the frame memory (21). A display data calculation circuit (23) calculates an applied gradation value for the current frame data based on the differential gradation value.

A first data sequence generated by a first moving picture coding system having an intra-frame coding mode and an inter-frame coding mode is transformed to a second data sequence generated by a second moving picture coding system having an intra-frame coding mode and an inter-frame coding mode. The method includes prereading a coding mode of a successive frame succeeding a present frame from the first data sequence, judging whether or not a preread coding mode of the successive frame is the intra-frame coding mode and determining whether or not to code the present frame by the second moving picture coding system corresponding to a generated code amount of the second data sequence when the coding mode of the successive frame is the intra-frame coding mode. Data coded by the intra-frame coding mode existing in the first data sequence is transformed to the second data sequence.

An information processing apparatus includes a display time acquiring unit that acquires a display time for each predetermined unit region of an image and a compression control unit that controls compression of the image for each unit region based on the display time.

Provided is a signal processing apparatus, including: an A/D conversion unit configured to perform A/D conversion of a first signal, A/D conversion of a second signal, A/D conversion of a third signal, and A/D conversion of a fourth signal; and a correlated double sampling processing unit configured to generate a first output signal by performing correlated double sampling using a first digital data item obtained through the A/D conversion of the first signal, and a second digital data item obtained through the A/D conversion of the second signal, a second output signal by performing correlated double sampling using a third digital data item obtained through the A/D conversion of the third signal, and a fourth digital data item obtained through the A/D conversion of the fourth signal, and a third output signal by performing correlated double sampling using the first output signal and the second output signal.

This solid-state imaging device is provided with: a substrate 9; a first impurity region 3a of a first conductivity type, which is provided within the substrate 9; a light receiving part 3b of a second conductivity type, which is formed within the first impurity region; an overflow drain region 22 of the second conductivity type, which is provided below the first impurity region 3a; a second impurity region 2 of the second conductivity type, which constitutes, together with the overflow drain region 22, a discharge path for excess charge that is generated in the light receiving part 3b; and areflective film 1b.

An encoding apparatus generates low-frequency component subband data and high-frequency component subband data from image data; generates, from low-frequency component subband data generated from first image data, second image data that has a same resolution as that of the first image data. The apparatus obtains a difference between high-frequency component subband data generated from the first image data and high-frequency component subband data generated from the second image data; and encodes the low-frequency component subband data of the first image data and the difference in order to generate encoded data.