Abstract: Systems and methods herein are for one or more processing units to communicate configuration information between a subnet manager (SM) and at least one switch, where the configuration information is to enable the at least one switch to provide communication between at least two host machines through a number of network links that exclusively use two or more physical ports of the at least two host machines, and where the configuration information is associated with a mapping of different virtual network addresses and two or more physical ports and is associated with a relationship between the different virtual network addresses.

Abstract: A system for implementing a multiplane network comprises a network device including a plurality of switches for routing traffic to an endpoint through a network of other switches. Each switch in the plurality of switches corresponds to a different plane of the multiplane network. The system includes one or more circuits that manages the plurality of switches as a single logical entity.

Abstract: Systems and methods herein are for one or more processing units that can communicate in a network using a subnet manager (SM) that includes a mapping of one virtual network address to two or more physical ports, where the one virtual network address may be associated with different switches of different data planes, and where data may be communicated concurrently and separately using the one virtual network address and using the two or more physical ports.

Abstract: A network device, system, and method are provided. In one example, a system is described that includes a plurality of communication nodes and a network device that interconnects and facilitates a transmission of packets between the plurality of communication nodes. The system may be configured such that the packets are transmitted between the plurality of communication nodes by applying a filter to a converged forwarding table.

Abstract: Systems and methods herein are for one or more processing units to communicate configuration information between a subnet manager (SM) and at least one switch, where the configuration information is to enable the at least one switch to provide communication between at least two host machines through a number of network links that exclusively use two or more physical ports of the at least two host machines, and where the configuration information is associated with a mapping of different virtual network addresses and two or more physical ports and is associated with a relationship between the different virtual network addresses.

Abstract: A power allocation method includes allocating power-consumption allocations to multiple processing devices. Available power allocations, which are offered for transfer to other processing devices, are reported by one or more over-allocated processing devices among the processing devices. Power demands, which are required by one or more under-allocated processing devices among the processing devices, are reported by the under-allocated processing devices. At least some of the available power allocations are transferred from one or more of the over-allocated processing devices to one or more of the under-allocated processing devices.

Abstract: A system for implementing a multiplane network comprises a network device including a plurality of switches for routing traffic to an endpoint through a network of other switches. Each switch in the plurality of switches corresponds to a different plane of the multiplane network. The system includes one or more circuits that manages the plurality of switches as a single logical entity.

Abstract: Systems and methods herein are for one or more processing units that can communicate in a network using a subnet manager (SM) that includes a mapping of one virtual network address to two or more physical ports, where the one virtual network address may be associated with different switches of different data planes, and where data may be communicated concurrently and separately using the one virtual network address and using the two or more physical ports.

Abstract: A system includes a routing fabric and management circuitry. The routing fabric connects processing devices. The management circuitry determines an event associated with a first routing path included in the routing fabric. The management circuitry identifies a processing partition that is affected by the event based on a first local identifier. The first local identifier is associated with the first routing path and is assigned to the processing partition, and the processing partition is associated with one or more of the processing devices. The management circuitry routes one or more processes associated with the processing partition based on a second local identifier. The second local identifier is associated with a second routing path included in the routing path and is assigned to the processing partition. The one or more processes are routed using the second routing path.

Abstract: A power allocation method includes allocating power-consumption allocations to multiple processing devices. Available power allocations, which are offered for transfer to other processing devices, are reported by one or more over-allocated processing devices among the processing devices. Power demands, which are required by one or more under-allocated processing devices among the processing devices, are reported by the under-allocated processing devices. At least some of the available power allocations are transferred from one or more of the over-allocated processing devices to one or more of the under-allocated processing devices.

Abstract: A system and method for restricting traffic in a computer network, the method may include extracting a routing path of a packet, and determining whether to allow or block the packet based on the routing path.

Abstract: A networking device and system are described, among other things. An illustrative system is disclosed to include a switch programmed to route a received packet to an egress port based on a combination of a destination address associated with the received packet and an identification of an ingress port from which the packet was received by the switch.

Abstract: A system includes a routing fabric and management circuitry. The routing fabric connects processing devices. The management circuitry determines an event associated with a first routing path included in the routing fabric. The management circuitry identifies a processing partition that is affected by the event based on a first local identifier. The first local identifier is associated with the first routing path and is assigned to the processing partition, and the processing partition is associated with one or more of the processing devices. The management circuitry routes one or more processes associated with the processing partition based on a second local identifier. The second local identifier is associated with a second routing path included in the routing path and is assigned to the processing partition. The one or more processes are routed using the second routing path.

Abstract: A power allocation method includes allocating power-consumption allocations to multiple processing devices. Available power allocations, which are offered for transfer to other processing devices, are reported by one or more over-allocated processing devices among the processing devices. Power demands, which are required by one or more under-allocated processing devices among the processing devices, are reported by the under-allocated processing devices. At least some of the available power allocations are transferred from one or more of the over-allocated processing devices to one or more of the under-allocated processing devices.

Abstract: Systems and methods herein are for one or more processing units that can communicate in a network using a subnet manager (SM) that includes a mapping of one virtual network address to two or more physical ports, where the one virtual network address may be associated with different switches of different data planes, and where data may be communicated concurrently and separately using the one virtual network address and using the two or more physical ports.

Abstract: Systems and methods herein are for one or more processing units to be associated with at least one switch or router and to enable the at least one switch or router to receive a communication from a source host machine, where the communication includes a request associated with memory access protocols of a memory space of a destination host machine, and where the communication is to be provided to the destination host machine to enable subsequent communications from the source host machine that are based in part on the memory access protocols received in response to the request.

Abstract: A network device, system, and method are provided. In one example, a system is described that includes a plurality of communication nodes and a network device that interconnects and facilitates a transmission of packets between the plurality of communication nodes. The system may be configured such that the packets are transmitted between the plurality of communication nodes by applying a filter to a converged forwarding table.

Abstract: Systems and methods herein are for one or more processing units to be associated with at least one switch or router of different route layers and to enable the at least one switch or router to receive a communication from a host machine, wherein the communication includes at least a data packet and a hash header, wherein the data packet is for transmission to other host machines through at least one of available egress ports of the at least one switch or router, and where the at least one of the available egress ports is determined based in part on a hash in the hash header.

Abstract: A networking device and system are described, among other things. An illustrative system is disclosed to include a switch programmed to route a received packet to an egress port based on a combination of a destination address associated with the received packet and an identification of an ingress port from which the packet was received by the switch.

Abstract: A system for implementing a multiplane network comprises a network device including a plurality of switches for routing traffic to an endpoint through a network of other switches. Each switch in the plurality of switches corresponds to a different plane of the multiplane network. The system includes one or more circuits that manages the plurality of switches as a single logical entity.