Abstract: A source device includes an adaptive link training circuity. The link training circuitry includes source capability information for link training of a link between the source device and a sink device. The source device includes a transmitter coupled to the adaptive link training circuitry to transmit the source capability information to the sink device. The adaptive link training circuitry is to initiate link training between the source device and the sink device, determine whether the link training between the source device and the sink device is unsuccessful, and in response to determining that the link training is unsuccessful, automatically adapt a setting of the link training based on the source capability information.

Abstract: Embodiments disclosed herein relate to bearing apparatuses including a bearing assembly having a continuous superhard bearing element including a continuous superhard bearing surface and a tilting pad bearing assembly. The disclosed bearing apparatuses may be employed in pumps, turbines or other mechanical systems. In an embodiment, the bearing apparatus includes a first and second bearing assembly. The first bearing assembly includes a first support ring and a plurality of tilting pads. Each tilting pad is tilted and/or tiltably secured relative to the first support ring. The second bearing assembly includes a continuous superhard bearing element. The continuous superhard bearing element includes a continuous superhard bearing surface facing the plurality of tilting pads and exhibits a maximum lateral width greater than about 2 inches.

Abstract: Systems and methods of the present disclosure include transmitter devices. The transmitter devices include a high-speed driver domain having a low-dropout regulator. The low-dropout regulator reduces a voltage level from an input voltage source to the high-speed driver domain. In addition, the transmitter devices include a low-speed driver domain. The low-speed driver domain includes a pre-driver which reduces a voltage level from an input voltage source to the low-speed driver domain.

Abstract: Particular embodiments described herein can offer an electronic device that includes a transmit circuit to form part of a transmit interface, and a receive circuit to form part of a receive interface. The transmit circuit and the receive circuit are to test at least one functional aspect of the electronic device on which the transmit circuit and the receive circuit reside. The transmit circuit and the receive circuit are coupled together by an analog near end loop back connection established through a resistor segment.

Abstract: Systems and methods of the present disclosure include transmitter devices. The transmitter devices include a high-speed driver domain having a low-dropout regulator. The low-dropout regulator reduces a voltage level from an input voltage source to the high-speed driver domain. In addition, the transmitter devices include a low-speed driver domain. The low-speed driver domain includes a pre-driver which reduces a voltage level from an input voltage source to the low-speed driver domain.

Abstract: Particular embodiments described herein can offer an electronic device that includes a transmit circuit to form part of a transmit interface, and a receive circuit to form part of a receive interface. The transmit circuit and the receive circuit are to test at least one functional aspect of the electronic device on which the transmit circuit and the receive circuit reside. The transmit circuit and the receive circuit are coupled together by an analog near end loop back connection established through a resistor segment.