Abstract: Various methods, systems and apparatuses having an integrated circuit that contains a calibration circuit having a series of delay elements to receive a reference signal. The reference signal establishes a standard unit of time. The calibration circuit also generates one or more calibrated delay signals derived from the reference signal. The one or more calibrated delay signals are precise to a known fraction of the standard unit of time.

Abstract: Various methods, systems and apparatuses having an integrated circuit that contains a calibration circuit having a series of delay elements to receive a reference signal. The reference signal establishes a standard unit of time. The calibration circuit also generates one or more calibrated delay signals derived from the reference signal. The one or more calibrated delay signals are precise to a known fraction of the standard unit of time.

Abstract: An apparatus, system, and method to efficiently test a device under test by compression and decompression of test vectors and outputs.

Abstract: An apparatus and method for performing conversion of graphical data format is disclosed. A matrix multiplication is performed on a first set of data and a second set of data to generate a third set of data in a first format. The first and second sets of data represent the graphical data. The third set of data in the first format is transmitted to a graphics card. The third set of data in the first format is converted to a converted set of data in a second format.

Abstract: An apparatus and method for performing vertical parallel operations on packed data is described. A first set of data operands and a second set of data operands are accessed. Each of these sets of data represents graphical data stored in a first format. The first set of data operands is convereted into a converted set and the second set of data operands is replicated to generate a replicated set. A vertical matrix multiplication is performed on the converted set and the replicated set to generate transformed graphical data.

Abstract: Successive pixels representing video data in successive lines in a raster scan are buffered. Each of the lines has a sync pulse defining the line beginning. A phase adjustment is determined between the sync pulse, preferably at a particular level in the sync pulse, and an adjacent one of system adjacent clock signals at a particular frequency. The actual or expected phase adjustment between the pixels at the end of each line is also determined. The difference between the phase adjustments at the beginning and end of each line is then determined. Progressive adjustments are made in the phase of each successive pixel in the line relative to the system clock signals in accordance with the number of system clock signals in the line and the determined difference in the phase adjustment between the line beginning and end. In this way, the pixels of video data are synchronized with the system clock signals.

Abstract: Successive pixels representing video data in successive lines in a raster scan are buffered. Each of the lines has a sync pulse defining the line beginning. A phase adjustment is determined between the sync pulse, preferably at a particular level in the sync pulse, and an adjacent one of system adjacent clock signals at a particular frequency. The actual or expected phase adjustment between the pixels at the end of each line is also determined. The difference between the phase adjustments at the beginning and end of each line is then determined. Progressive adjustments are made in the phase of each successive pixel in the line relative to the system clock signals in accordance with the number of system clock signals in the line and the determined difference in the phase adjustment between the line beginning and end. In this way, the pixels of video data are synchronized with the system clock signals.