Abstract: In one embodiment, an apparatus may include a rising edge detector to detect a rising edge in a signal. The apparatus may also include a counter to perform a count to a first value based on an input clock signal. The apparatus may also include an output unit to generate a sleep signal after the first value is reached if the rising edge detector does not detect the rising edge in the signal.

Abstract: In one embodiment, an apparatus including a phase detector unit to determine a phase difference between an inverted reference clock signal and a feedback clock signal. The apparatus further includes a controller unit to generate a delay signal based on the phase difference. The apparatus further includes a set of voltage-controlled delay lines to generate phase outputs based on the delay signal, where the phase outputs are provided by the apparatus to a clock generator unit to generate an oversampled clock signal for data recovery by a receiver.

Abstract: In one embodiment, an apparatus may include a de-serializer to convert serial data to parallel data, and a counter to provide an update signal based on a bit count of the serial data. The apparatus may further include a synchronizer to provide a synchronization signal when a target clock signal is synchronized with the update signal. The apparatus may further include an output unit to provide a validation indicator in response to the synchronization signal.

Abstract: In one embodiment, an apparatus including a phase detector unit to determine a phase difference between a reference clock signal and a feedback clock signal. The apparatus further includes a controller unit to generate a delay signal based on the phase difference. The apparatus further includes a set of voltage-controlled delay lines to generate phase outputs based on the delay signal, where the phase outputs are provided by the apparatus to a clock generator unit to generate an oversampled clock signal for data recovery by a receiver.

Abstract: Described herein are an apparatus, system, and method for generating pulse modulated (PWM) signals. The apparatus (e.g., input-output transmitter) comprises: an edge detector to detect one of a rising or falling edges of a clock signal; a counter to count up or down in response to detecting one of the rising or falling edges of the clock signal, the counter to generate a select signal; and a control unit to receive a data signal for transmission to a receiver and to generate a PWM signal as output according to a value of the select signal and the data signal, wherein the receiver and the transmitter are a Mobile Industry Processor Interface (MIPI®) M-PHYSM receiver and transmitter.

Abstract: In one embodiment, an apparatus including a phase detector unit to determine a phase difference between an inverted reference clock signal and a feedback clock signal. The apparatus further includes a controller unit to generate a delay signal based on the phase difference. The apparatus further includes a set of voltage-controlled delay lines to generate phase outputs based on the delay signal, where the phase outputs are provided by the apparatus to a clock generator unit to generate an oversampled clock signal for data recovery by a receiver.

Abstract: In one embodiment, an apparatus may include a clock generator to generate a first clock signal. The apparatus may also include a serializer to generate serial data based on a transmit clock signal and parallel input data. The apparatus may also include a signal generator to generate at least two differential signals based on the first clock signal and the serial data.

Abstract: In one embodiment, an apparatus including a phase detector unit to determine a phase difference between a reference clock signal and a feedback clock signal. The apparatus further includes a controller unit to generate a delay signal based on the phase difference. The apparatus further includes a set of voltage-controlled delay lines to generate phase outputs based on the delay signal, where the phase outputs are provided by the apparatus to a clock generator unit to generate an oversampled clock signal for data recovery by a receiver.

Abstract: Mechanisms and techniques to evaluate data for a high speed I/O receiver logic. In an embodiment, a receiver circuit shifts a bit into a shift circuit in response to a rising edge of a data signal, where a count is started in response to the bit being subsequently shifted out of the shift circuit. Based on a value of the count, the receiver circuit generates a control signal for preparing physical layer receiver logic to transition to a burst mode of operation. In another embodiment, a receiver circuit includes a frequency divider to operate based on a data signal and a clock signal, wherein, based on operation of the frequency counter, a control signal is generated to indicate a line reset for physical layer receiver logic. The receiver circuit provides a feedback signal, based on the control signal, which is to limit activation of the frequency divider.

Abstract: In one embodiment, an apparatus may include a pulse generator to generate an oversampled clock signal. The apparatus may also include a sample and hold unit to provide at least two differential input signals based on the oversampled clock signal. The apparatus may further include a conversion unit to generate a single-ended signal based on the at least two differential input signals. The apparatus may also include a counter to determine a count of rising and falling edges of the single-ended signal based on the oversampled clock signal.

Abstract: In one embodiment, an apparatus may include a de-serializer to convert serial data into two parallel data streams, and a control unit to provide a first update signal and a second update signal based on a bit count of the serial data. The apparatus may further include a target component having an input bus, the input bus including a first portion and a second portion. The apparatus may further include a first output unit to provide the first set of parallel data to the first portion of the input bus, and a second output unit to provide the second set of parallel data to the second portion of the input bus.

Abstract: Described herein are an apparatus, system, and method for generating pulse modulated (PWM) signals. The apparatus (e.g., input-output transmitter) comprises: an edge detector to detect one of a rising or falling edges of a clock signal; a counter to count up or down in response to detecting one of the rising or falling edges of the clock signal, the counter to generate a select signal; and a control unit to receive a data signal for transmission to a receiver and to generate a PWM signal as output according to a value of the select signal and the data signal, wherein the receiver and the transmitter are a Mobile Industry Processor Interface (MIPI®) M-PHYSM receiver and transmitter.

Abstract: In one embodiment, an apparatus including a phase detector unit to determine a phase difference between an inverted reference clock signal and a feedback clock signal. The apparatus further includes a controller unit to generate a delay signal based on the phase difference. The apparatus further includes a set of voltage-controlled delay lines to generate phase outputs based on the delay signal, where the phase outputs are provided by the apparatus to a clock generator unit to generate an oversampled clock signal for data recovery by a receiver.

Abstract: In one embodiment, an apparatus may include a de-serializer to convert serial data to parallel data, and a counter to provide an update signal based on a bit count of the serial data. The apparatus may further include a synchronizer to provide a synchronization signal when a target clock signal is synchronized with the update signal. The apparatus may further include an output unit to provide a validation indicator in response to the synchronization signal.

Abstract: In one embodiment, an apparatus including a phase detector unit to determine a phase difference between a reference clock signal and a feedback clock signal. The apparatus further includes a controller unit to generate a delay signal based on the phase difference. The apparatus further includes a set of voltage-controlled delay lines to generate phase outputs based on the delay signal, where the phase outputs are provided by the apparatus to a clock generator unit to generate an oversampled clock signal for data recovery by a receiver.

Abstract: In one embodiment, an apparatus may include a clock generator to generate a first clock signal. The apparatus may also include a serializer to generate serial data based on a transmit clock signal and parallel input data. The apparatus may also include a signal generator to generate at least two differential signals based on the first clock signal and the serial data.

Abstract: In one embodiment, an apparatus may include a pulse generator to generate an oversampled clock signal. The apparatus may also include a sample and hold unit to provide at least two differential input signals based on the oversampled clock signal. The apparatus may further include a conversion unit to generate a single-ended signal based on the at least two differential input signals. The apparatus may also include a counter to determine a count of rising and falling edges of the single-ended signal based on the oversampled clock signal.

Abstract: In one embodiment, an apparatus may include a clock generator to generate a format clock signal. The apparatus may also include a serializer to generate serial data based on a transmit clock signal and parallel input data. The apparatus may also include a signal generator to generate at least two differential signals based on the format clock signal and the serial data.

Abstract: Mechanisms and techniques to evaluate data for a high speed I/O receiver logic. In an embodiment, a receiver circuit shifts a bit into a shift circuit in response to a rising edge of a data signal, where a count is started in response to the bit being subsequently shifted out of the shift circuit. Based on a value of the count, the receiver circuit generates a control signal for preparing physical layer receiver logic to transition to a burst mode of operation. In another embodiment, a receiver circuit includes a frequency divider to operate based on a data signal and a clock signal, wherein, based on operation of the frequency counter, a control signal is generated to indicate a line reset for physical layer receiver logic. The receiver circuit provides a feedback signal, based on the control signal, which is to limit activation of the frequency divider.

Abstract: In one embodiment, an apparatus may include a pulse generator to generate an oversampled clock signal. The apparatus may also include a sample and hold unit to provide at least two differential input signals based on the oversampled clock signal. The apparatus may further include a conversion unit to generate a single-ended signal based on the at least two differential input signals. The apparatus may also include a counter to determine a count of rising and falling edges of the single-ended signal based on the oversampled clock signal.