A CAN transceiver wake-up unit detects silent bus sections to send activation signals without disrupting communication.
Electronic control unit manages data transmission timing based on measured actual time to level network load.
An out-of-band network coordinates bus interface port reconfiguration to restore connectivity without disrupting other nodes on the bus.
A communication control device merges wired and wireless interfaces to establish redundant network paths within a single unit.
Separating control and data channels prevents DoS attacks from saturating the network while maintaining high information exchange efficiency.
RXD dominant time out circuits override stuck dominant states in CAN nodes, preventing network blocking and enabling proper termination of star/stub topologies.
A differential bus network node integrates a resistor between terminals to maintain voltage states and suppress signal reflections.
Ethernet transceivers retrain at lower rates without full autonegotiation to resolve legacy compatibility bottlenecks.
Dynamic idle byte insertion resolves fixed gap implementation challenges in high-speed networks by adjusting gaps between packets.
Ethernet-based node diagnosis identifies communication faults using standardized message exchanges.
A switch routes frames to an observability port using a configuration table for selective transmission.
Master device segments transmission time into slots for slave devices to transmit identifiers without overlap.
A CAN message delivery Ethernet frame omits MAC, IP, and UDP stacks to reduce processing time.
An on-chip traffic monitor analyzes network traffic flows to detect performance degradation within automotive semiconductor devices.