Abstract:
A system includes a pipeline analog-to-digital converter as a first stage to process an input signal, and a successive approximation register (SAR) analog-to-digital converter as a second stage to process the input signal. The SAR analog-to-digital converter includes a power adjustment element to adjust a reference voltage of the SAR analog-to-digital converter to match a full scale voltage of the pipeline-analog-to-digital converter.
Abstract:
An integrated circuit is provided. The integrated circuit includes a mapping circuit configured to determine a state associated with a first universal series bus (USB) communication mode based on one or both of a signal level on a first data line and a signal level on a second data line. The integrated circuit also includes a line state converter circuit configured to generate a line state associated with a second USB communication mode based on the determined state and based on one or both of the signal level on the first data line and the signal level on the second data line.
Abstract:
A multi-bit per cycle successive approximation register (SAR) analog-to-digital converter (ADC) may sample an input signal, successively approximate the sampled signal with a shrinking sub-range containing the signal, and output coarse digital codes corresponding to the sub-range. A sub-ranging stage may continue quantization over the sub-range by sampling and interpolating between a pair of zero crossing signals that bound the sub-range. The zero crossing signals may be taken from the SAR preamp output. The sub-ranging process may be pipelined recursively in multiple stages to increase throughput and efficiency.
Abstract:
An integrated circuit is provided. The integrated circuit includes a communication-mode determination circuitry configured to detect a signal level at one or both of a first data line and a second data line and to determine whether a communication mode of the first data line and the second data line is a first universal series bus (USB) communication mode or a second USB communication mode. The integrated circuit also includes a first transceiver circuitry configured to operate in one of multiple modes, based on the communication mode determined. The integrated circuit also includes a second transceiver circuitry configured to operate in one of multiple modes, based on the communication mode determined. A maximum signal level of the first USB communication mode is greater than a maximum signal level of the second USB communication mode.
Abstract:
An integrated circuit is provided. The integrated circuit includes a communication-mode determination circuitry configured to detect a signal level at one or both of a first data line and a second data line and to determine whether a communication mode of the first data line and the second data line is a first universal series bus (USB) communication mode or a second USB communication mode. The integrated circuit also includes a first transceiver circuitry configured to operate in one of multiple modes, based on the communication mode determined. The integrated circuit also includes a second transceiver circuitry configured to operate in one of multiple modes, based on the communication mode determined. A maximum signal level of the first USB communication mode is greater than a maximum signal level of the second USB communication mode.
Abstract:
A system includes a pipeline analog-to-digital converter as a first stage to process an input signal, and a successive approximation register (SAR) analog-to-digital converter as a second stage to process the input signal. The SAR analog-to-digital converter includes a power adjustment element to adjust a reference voltage of the SAR analog-to-digital converter to match a full scale voltage of the pipeline-analog-to-digital converter.