Juniper Networks, Inc.

Sf Motors, Inc.

Chongqing Jinkang New Energy Vehicle Co., Ltd.

Yong Luo

James Washburn

Abhishek Tripathi

Sriram Raghunathan

Surinder Singh

Junan Chen

Abbas Y Sakarwala

Vikram Rautela

Wai Leung Chan

Venu Sreenivasa Iyengar

Harmeet Sahni

Jian Cui

Amit Jain

Provided herein are systems and methods of operating electronic controller units (ECUs) across multiple ECU domains in an automotive configuration. A first advanced driver-assistance system (ADAS) environmental sensor can generate a first output. A sensor connectivity switch can direct the first output to a first ECU in one of the non-ADAS domains to generate a second output. Each of the non-ADAS domains can include at least one ECU. A second ECU in a domain for ADAS can use the second output to perform an ADAS operation or autonomous driving in vehicular environments.

Systems and methods for scalable electrical engineering (EE) architecture in vehicular environments

A method includes receiving multicast traffic intended for host devices; identifying a flow associated with the multicast traffic; retrieving information associated with a group of multicast trees, where the group of multicast trees includes information associated with a group of I/O units, associated with a network node; identifying a particular tree that corresponds to the identified flow, where the particular tree includes information associated with a set of I/O units; and transferring the multicast traffic to an I/O unit, of the set of I/O units, based on the identification of the particular tree, where the transferring enables the I/O unit to send a copy of the multicast traffic to other I/O units of the set of I/O units, and the set of I/O units to process the multicast traffic in a manner that utilizes bandwidth or processing resources in a controlled manner and to send a copy of the multicast traffic to each of the host devices.

Managing multicast distribution using multicast trees

A multi-router system is described in which hardware and software components of one or more standalone routers can be partitioned into multiple logical routers. The multiple logical routers are isolated from each other in terms of routing and forwarding functions yet allow network interfaces to be shared between the logical routers. Moreover, different logical routers can share network interfaces without impacting the ability of any of the logical routers to be independently scaled to meet the bandwidth demands of the customers serviced by the logical router.

Multi-router system having shared network interfaces

A method may include receiving a packet; identifying the packet as a multicast packet for sending to a plurality of destination nodes; selecting a first forwarding table or a second forwarding table for sending the packet to each of the plurality of destination nodes, wherein the first forwarding table includes first port information associated with a first destination and second port information associated with a second destination, and wherein the second forwarding table includes third port information associated with the second destination; sending the packet to the first destination using the first port; and sending the packet to the second destination using the second port when the first forwarding table is selected and sending the packet to the second destination using the third port when the second forwarding table is selected.

Multicast load balancing

A network device may include an input device and a packet forwarding engine. The input device receives a data packet. The packet forwarding engine includes logic configured to determine that the data packet is to be multicast. The logic is also configured to identify one of multiple forwarding schemes, where each of the forwarding schemes is configured such that the packet forwarding engine generates and forwards no more than two copies of the data packet.

Binary trees for multicast traffic

Growing community of inventors

Santa Clara, CA, United States of America

Yong Luo