A processor controls interface timing and voltage operations across multiple bus interfaces.
A controllable delay circuit adjusts clock signal phase to synchronize transaction outputs with precise timing requirements.
Reference clock synchronization circuitry monitors follower hardware clock quality to maintain precise time alignment.
Segmenting the distribution tree reduces wiring complexity and chip area while maintaining contiguous address space across multiple chips.
A host system adjusts clock rates for emulated components to maintain synchronization between interpreted and translated instruction sets.
A server synchronizes card time bases by receiving dynamic verification codes and applying timing drift corrections to maintain accurate transaction validation.
A backplane clock synchronizes with an external reference using a processing element that compares time information.
A clock management system applies time shifts to client data bundles based on server reference timestamps.
A communication apparatus stops clock signal supply to the circuit during idle periods to reduce energy usage.
A serial peripheral interface controller halts clock signals between data bursts to refresh internal buffers.
A dual clock supply architecture distributes primary and standby clocks across processing unit groups to maintain system operation.
A control apparatus alternates clock generation circuit driving using a timer and interrupt mask to manage peripheral bus signals.
Control circuit deactivates clock signals based on latency values, reducing power consumption while maintaining system responsiveness.
A timing margin sensor circuit measures clock signal progress through delay chains to adjust frequency.
A compact radiation detection device integrates a silicon photomultiplier with an edge-peak detector circuit for precise pulse analysis.
A variable-frequency bus adapter coordinates dynamic frequency scaling through a handshake protocol.
Segmenting simulation into discrete frames reduces time management complexity while maintaining synchronization accuracy against real-world clocks.