8 results about "Datapath circuits" patented technology

A transceiver circuit is disclosed. The transceiver circuit includes a transmitter driver circuit configured to drive a transmit antenna. The transceiver circuit also includes a receiver circuit configured to generate digital signals based on received signals. The transceiver circuit also includes a loopback data path circuit electrically connected to the transmitter driver circuit and to the receiver circuit, where the loopback data path circuit is configured to conditionally provide signals from the transmitter driver circuit to the receiver circuit according to one or more control signals. The transceiver circuit also includes a controller configured to generate the control signals.

Apparatuses, systems, and techniques for designing a data path circuit such as a parallel prefix circuit with reinforcement learning are described. A method can include receiving a first design state of a data path circuit, inputting the first design state of the data path circuit into a machine learning model, and performing reinforcement learning using the machine learning model to output a final design state of the data path circuit, wherein the final design state of the data path circuit has decreased area, power consumption and / or delay as compared to conventionally designed data path circuits.

A memory device includes core circuitry including memory cells, and write data path circuitry coupled to the core circuitry. The write data path circuitry determines a second parity bit from a second signal and a poison bit. The second signal and the poison bit are determined by processing a first data signal. Further, the write data path circuitry detects a first error within the second signal based on a comparison between a first parity bit and the second parity bit, and outputs a first error signal comprising the first error.

Techniques are disclosed relating to graphics processor data caches. In some embodiments, datapath executes instructions that operate on input operands from architectural registers. Data cache circuitry caches architectural register data for the datapath circuitry. Scoreboard circuitry tracks, for a given architectural register: map information that indicates whether the architectural register is mapped to an entry of the data cache circuitry and a pointer to the entry of the data cache circuitry. Tiered scoreboard circuitry and data storage circuitry may be implemented (e.g., to provide fast scoreboard access for active threads and to give a landing spot for long-latency data retrieval operations). Various disclosed techniques may improve cache performance, reduce power consumption, reduce area, or some combination thereof.

A computing system includes a communication system comprising a glitch filter circuitry disposed in an integrated circuit (IC) device configured to receive an input signal and provide a glitch filter output signal based on the input signal. The glitch filter circuitry includes a control path circuitry configured to receive the input signal and generate a control signal based on detecting a glitch within the input signal, the control path circuitry including a configurable resistor capacitor (RC) filter circuitry configured to deliver a configurable RC filter circuitry output signal based on one or more selection signals. The control signal is based on the configurable RC filter circuitry output signal, and a data path circuitry configured to receive the control signal and mitigate glitches within the input signal based on the control signal.

Receiver circuitry for mitigating effects associated with the phase differences between a capture clock signal and the receipt of a data signal includes first data path circuitry, second data path circuitry, and phase alignment circuitry. The first data path circuitry receives a first data signal based on a capture clock signal. The second data path circuitry receives a second data signal based on the capture clock signal. The phase alignment circuitry adjusts the phase of a first launch clock signal and a second launch clock signal based on a first clock slip signal and a second clock slip signal, respectively. The phase alignment circuitry adjusts a phase of the capture clock signal relative to one of the first and the second launch clock signals based on a first adjustment value associated with the first data path circuitry and a second adjustment value associated with the second data path circuitry.

A memory device includes core circuitry including memory cells, and write data path circuitry coupled to the core circuitry. The write data path circuitry determines a second parity bit from a second signal and a poison bit. The second signal and the poison bit are determined by processing a first data signal. Further, the write data path circuitry detects a first error within the second signal based on a comparison between a first parity bit and the second parity bit, and outputs a first error signal comprising the first error.

A memory device includes core circuitry having memory cells and write data path circuitry coupled to the core circuitry. The write data path circuitry determines a second parity bit based on a second signal and a poison bit. The second signal and the poison bit are determined by processing a first data signal. Furthermore, the write data path circuitry detects a first error within the second signal based on a comparison between the first parity bit and the second parity bit, and outputs a first error signal including the first error.