See how a wireline transceiver switches between external and calibrated onboard clocks to balance accuracy, size, cost, and power.
Digital in-memory compute chiplets combine local processing, BFP numerics, and die-to-die links to address LLM throughput and bandwidth limits.
Selective clock gating activates needed camera sensors while reducing leakage from inactive hardware in XR, AR, and MR devices.
A physics-based detector identifies compromised clock-manager behavior and triggers redundant failover to preserve accurate TSN time synchronization.
Mismatched chassis time settings can disrupt updates and communication; a shared profile aligns settings across components.
Static job scheduling can waste computing resources; this API matches processor frequency, voltage, and power states to workload needs.
Reducing buffer drive strength in unused clock-mesh regions saves power while preserving synchrony across active circuitry.
Reducing 32-bit DDR memory from 1600 MHz to 1067 MHz shifts harmonics away from 2.4 GHz Wi-Fi and cuts noise by 15–20 dB.
Automatic album pinning stores new photos, videos, and audio in the active album, while timed resets and cleanup limit redundant folders.
Counter and synchronizer circuits measure clock differences, enabling dynamic compensation for voltage-temperature variation and lower IC latency.
Instruction decoding enables per-cycle clock-period and duty-cycle adjustment, improving power responsiveness, latency, and throughput in high-speed processors.