Abstract: A pulse generator comprises a circuit configured to generate a coarse pulse width (CPW) signal, a first delay unit configured to generate a first delayed coarse pulse width signal, a delay locked loop circuit configured to generate a first subphase signal and a second subphase signal, a first analog interpolator, a second analog interpolator, and an amplifier having a first input connected to the first analog interpolator and a second input connected to the second analog interpolator and configured to generate a fine pulse width modulation signal.

Abstract: A pulse generator comprises a circuit configured to generate a coarse pulse width (CPW) signal, a first delay unit configured to generate a first delayed coarse pulse width signal, a delay locked loop circuit configured to generate a first subphase signal and a second subphase signal, a first analog interpolator, a second analog interpolator, and an amplifier having a first input connected to the first analog interpolator and a second input connected to the second analog interpolator and configured to generate a fine pulse width modulation signal.

Abstract: A pulse generator comprises a circuit configured to generate a coarse pulse width (CPW) signal, a first delay unit configured to generate a first delayed coarse pulse width signal, a delay locked loop circuit configured to generate a first subphase signal and a second subphase signal, a first analog interpolator, a second analog interpolator, and an amplifier having a first input connected to the first analog interpolator and a second input connected to the second analog interpolator and configured to generate a fine pulse width modulation signal.

Abstract: An integrated circuit device includes a receiver that is capable of receiving and converting either differential input signals or two unrelated single-ended input signals.

Abstract: An integrated circuit device includes a receiver that is capable of receiving and converting either differential input signals or two unrelated single-ended input signals.

Abstract: Method and arrangement for generating an output clock signal with an adjustable phase relation from a plurality of input clock signals. A method and an arrangement are provided for generating an output clock signal (o), in which a plurality of input clock signals (s, c) that have a predetermined phase relationship to one another, are weighted with respective weighting factors (A, 1-A), and in which the weighted input clock signals (s?, c?) are added in order to generate a summated clock signal (i). The summated clock signal (i) is integrated in an integrator (8) and optionally amplified in order to generate the output clock signal (o). An output clock signal (o) with an adjustable phase relation can be generated with such a method and such an arrangement, in which the requirements placed on the input clock signals are less stringent.

Abstract: A method checks a position of a receive window. The method includes checking whether a signal to be received within the receive window is within a reduced window within the receive window and shorter in length than the receive window.

Abstract: Method and arrangement for generating an output clock signal with an adjustable phase relation from a plurality of input clock signals. A method and an arrangement are provided for generating an output clock signal (o), in which a plurality of input clock signals (s, c) that have a predetermined phase relationship to one another, are weighted with respective weighting factors (A, 1-A), and in which the weighted input clock signals (s?, c?) are added in order to generate a summated clock signal (i). The summated clock signal (i) is integrated in an integrator (8) and optionally amplified in order to generate the output clock signal (o). An output clock signal (o) with an adjustable phase relation can be generated with such a method and such an arrangement, in which the requirements placed on the input clock signals are less stringent.