This case uses a master clock to sample a password sequence and guide slave phase adjustment, reducing delay-related synchronization errors.
A clock generator removes pulses to embed synchronization in one gapped signal, simplifying interfaces while preserving timing accuracy.
This case embeds clock signals in network packets and uses round-trip delay feedback to align timing across distributed devices.
Ring-based reference clocks improve pulse-level synchronization across vehicle control nodes.
A shared global clock and layered timebase data synchronize audio and video across devices, limiting latency and cross-talk in XR playback.
Configure grouped PTP ports with Transparent and Boundary Clocks for regional accuracy and faster network setup.
Nodes estimate time across clock domains from drift rates, reducing synchronization traffic and latency without frequent queries.
A virtual transparent clock measures intra-switch delays to correct timing inaccuracies in virtual machine host systems.
Sharing one phase locked loop eliminates backward clock transmission, reducing FPGA complexity in matrix systems.
A master device generates synchronization signals for slave devices using WebRTC peer-to-peer communication.
Network monitor detects suspicious clock activity and removes rogue devices from an authorized list to secure PTP master selection.
Master RF device disables interrupt reporting during timed-trigger operations to allow slave devices to count clock cycles for configuration application.
Voting-based master selection synchronizes distributed simulation nodes, ensuring time consistency and fault tolerance when individual nodes fail.
Frequency and phase estimators determine safe sampling times, eliminating asynchronous FIFOs to reduce synchronization latency.
A Peripheral Sensor Interface 5 sensor transmits data packets in multiple time slots within a transmission period to ensure correct delivery.
Aggregated signaling messages consolidate multiple precision time protocol requests into single transmissions between master and slave devices.
Redefining the Synchronization Signal Block index resolves New Radio Unlicensed beam indication ambiguity by mapping indices to quasi-co-located relationships.
A data reading circuit determines phase differences between echo and local clock signals using internal modules.
Reversible signal embedding merges data streams with date stamps, removing complex receiving station synchronization hardware.
A hardware synchronization circuit processes IEEE 802.1AS frames independently of the main processor to maintain network timing.
A digital test signal couples into the receiver path to generate monitoring samples with a defined phase offset relative to DFE output.