Abstract: An ultrasound imaging system includes a beam receiving circuit and a back-end circuit. The beam receiving circuit receives a plurality of digitized echo signals. The back-end circuit is coupled to the beam receiving circuit for outputting a plurality of compressed delay timing parameters corresponding to a plurality of channels to the beam receiving circuit. The beam receiving circuit decompresses the compressed delay timing parameters into a plurality of delay timing parameters, and processes the digitized echo signals into an ultrasound beamforming value according to the delay timing parameters corresponding to the channels. The back-end circuit synthesizes an ultrasound image according to the ultrasound beamforming value outputted from the beam receiving circuit.

Abstract: An ultrasound imaging system includes a beam receiving circuit and a back-end circuit. The beam receiving circuit receives a plurality of digitized echo signals. The back-end circuit is coupled to the beam receiving circuit for outputting a plurality of compressed delay timing parameters corresponding to a plurality of channels to the beam receiving circuit. The beam receiving circuit decompresses the compressed delay timing parameters into a plurality of delay timing parameters, and processes the digitized echo signals into an ultrasound beamforming value according to the delay timing parameters corresponding to the channels. The back-end circuit synthesizes an ultrasound image according to the ultrasound beamforming value outputted from the beam receiving circuit.

Abstract: A video data processing system comprises a control module coupled with a source module for receiving video data from the source module, the video data being associated with at least one source viewpoint; and a view adjustment module coupled with the control module for generating at least one adjusted viewpoint of the video data based on at least one of a set viewpoint number and a number of the at least one source viewpoint. The set viewpoint number is associated with at least one of a viewpoint number of at least one previously received video data and a viewpoint number of at least one previously coupled player module.

Abstract: A pixel data transformation method that can improve the display quality of a text image in a multi-view autostereoscopic display apparatus is provided. The pixel data transformation method includes following steps. The color values of a first and a second original pixels adjacent to each other are obtained. The first and the second original pixels are replaced respectively with a first and a second pixel arrays according to the color value of the first and the second original pixels. Edge pixels on adjoining sides of the first and the second pixel arrays are combined, wherein a color value of each of the combined pixels is a sum of color values of the two corresponding edge pixels on adjoining sides of the first and the second pixel arrays.

Abstract: A video data processing system comprises a control module coupled with a source module for receiving video data from the source module, the video data being associated with at least one source viewpoint; and a view adjustment module coupled with the control module for generating at least one adjusted viewpoint of the video data based on at least one of a set viewpoint number and a number of the at least one source viewpoint. The set viewpoint number is associated with at least one of a viewpoint number of at least one previously received video data and a viewpoint number of at least one previously coupled player module.

Abstract: A video player system includes a three-dimensional field detector and controller module for detecting a three-dimensional field of a video data to generate at least one of a detection signal and a control signal based on the three-dimensional field detected. The video data includes data for at least one image and the three-dimensional field within the image. The system also includes a display recomposition module coupled with the three-dimensional field detector and controller module, and the display recomposition module generates a recomposed three-dimensional field within the at least one image based on the detection signal and at least one of a plurality of display parameters associated with a display panel. The display panel is coupled with the three-dimensional field detector and controller module and the display recomposition module and displays the at least one image with the recomposed three-dimensional field based on at least one of the control signal and the display parameters.

Abstract: A pixel data transformation method that can improve the display quality of a text image in a multi-view autostereoscopic display apparatus is provided. The pixel data transformation method includes following steps. The color values of a first and a second original pixels adjacent to each other are obtained. The first and the second original pixels are replaced respectively with a first and a second pixel arrays according to the color value of the first and the second original pixels. Edge pixels on adjoining sides of the first and the second pixel arrays are combined, wherein a color value of each of the combined pixels is a sum of color values of the two corresponding edge pixels on adjoining sides of the first and the second pixel arrays.