Abstract: A method of initializing an application-specific integrated circuit (ASIC), the method including reading, by a boot microcode engine integrated with the ASIC, microcode from an electrically programmable non-volatile memory (EP-NVM) integrated on a same die as the ASIC. The method further includes writing the microcode onto internal memories of a micro-controller of the ASIC and initializing the micro-controller by the boot microcode engine. The method also includes loading, by the micro-controller, a full boot image from an additional storage device distinct from the EP-NVM onto the internal memories of the micro-controller and initializing the ASIC by the micro-controller based on the full boot image.

Abstract: A programmable integrated circuit may include logic, signal select hardware, programmable signal analysis hardware, an embedded microcontroller, and a hardware interface. The logic performs one or more functions and outputs a plurality of signals. The signal select hardware selects one or more of the signals output from the logic. The programmable signal analysis hardware analyzes the selected signals to produce diagnostic data. The embedded microcontroller receives the diagnostic data from the programmable signal analysis hardware and may reconfigure the logic based on the diagnostic data. The hardware interface connects the programmable signal analysis hardware and the embedded microcontroller to transport the diagnostic data.

Abstract: A method of initializing an application-specific integrated circuit (ASIC), the method including reading, by a boot microcode engine integrated with the ASIC, microcode from an electrically programmable non-volatile memory (EP-NVM) integrated on a same die as the ASIC. The method further includes writing the microcode onto internal memories of a micro-controller of the ASIC and initializing the micro-controller by the boot microcode engine. The method also includes loading, by the micro-controller, a full boot image from an additional storage device distinct from the EP-NVM onto the internal memories of the micro-controller and initializing the ASIC by the micro-controller based on the full boot image.

Abstract: A programmable integrated circuit may include logic, signal select hardware, programmable signal analysis hardware, an embedded microcontroller, and a hardware interface. The logic performs one or more functions and outputs a plurality of signals. The signal select hardware selects one or more of the signals output from the logic. The programmable signal analysis hardware analyzes the selected signals to produce diagnostic data. The embedded microcontroller receives the diagnostic data from the programmable signal analysis hardware and may reconfigure the logic based on the diagnostic data. The hardware interface connects the programmable signal analysis hardware and the embedded microcontroller to transport the diagnostic data.

Abstract: A technique includes determining a first phase delay associated with communication of a bit pattern having a first bit transition frequency over a communication channel; and determining a second phase delay associated with communication of a bit pattern having a second bit transition frequency greater than the first bit transition frequency over the communication channel. The technique includes regulating a compensation applied to a signal received from the communication channel based at least in part on a difference of the first and second phase delays.

Abstract: A technique includes determining a first phase delay associated with communication of a bit pattern having a first bit transition frequency over a communication channel; and determining a second phase delay associated with communication of a bit pattern having a second bit transition frequency greater than the first bit transition frequency over the communication channel. The technique includes regulating a compensation applied to a signal received from the communication channel based at least in part on a difference of the first and second phase delays.

Abstract: In at least some embodiments, an electronic device includes a processor and a memory coupled to the processor. The electronic device also includes a serial communication link controller coupled to the processor, the serial communication link controller supporting dynamic reconfiguration of a plurality of communication link bundles. The serial communication link controller receives an input clock and generates first and second clock signals based on the input clock, the first and second clock signals having different clock rates and being provided to each of a plurality of communication link bundles.

Abstract: During a calibration process, a data input signal is sampled using each of plural receiver equalization setting. For each of the receiver equalization settings, a respective offset-data error-rate is measured. Based on the offset-data error-rate measurements, an equalizer setting is selected for use during normal non-calibration operation of the receiver.

Abstract: A receiver receives a predetermined pattern over an optical link from a transmitter. In response to detecting that the predetermined pattern satisfies at least one criterion, indicating that a synchronization point has been reached to allow link training of the optical link to be performed between the transmitter and receiver.

Abstract: During a calibration process, a data input signal is sampled using each of plural receiver equalization setting. For each of the receiver equalization settings, a respective offset-data error-rate is measured. Based on the offset-data error-rate measurements, an equalizer setting is selected for use during normal non-calibration operation of the receiver.