Abstract: Technologies for performing network analysis of a network include a network analytics node to determine one or more features of network traffic of the network. Each feature includes indexes associated with a link property, a protocol, and a time property. The network analytics node monitors the network traffic of the network based on the one or more features and generates one or more observation vectors. Each observation vector includes a plurality of the one or more features based on the monitored network traffic. The network analytics node performs a statistical network analysis of the network traffic based on the generated one or more observation vectors to generate a probabilistic model of the network traffic.

Abstract: Network interface devices with remote storage control. In some embodiments, a network interface device may include receiver circuitry and remote storage device control circuitry. The remote storage device control circuitry may be coupled to the receiver circuitry and may share a physical support with the receiver circuitry. The remote storage device control circuitry may be configured to control writing of data from the receiver circuitry to a remote storage device that does not share a physical support with the remote storage device control circuitry.

Abstract: Described are embodiments of mediums, methods, and systems for application-reserved use of cache for direct I/O. A method for using application-reserved cache may include reserving, by one of a plurality of cores of a processor, use of a first portion of one of a plurality of levels of cache for an application executed by the one of the plurality of cores, and transferring, by the one of the plurality of cores, data associated with the application from an input/output (I/O) device of a computing device directly to the first portion of the one of the plurality of levels of the cache. Other embodiments may be described and claimed.

Abstract: An embodiment may include circuitry to be included, at least in part, in at least one node in a network. The circuitry may generate, at least in part, and/or receive, at least in part, at least one packet. The packet may be received, at least in part, by at least one switch node in the network. The switch node may designate, in response at least in part to the packet, at least one port of the switch node to be used to facilitate, at least in part, establishment, at least in part, of at least one path for propagation of at least one flow between at least two other nodes in the network. The packet may be generated based at least in part upon (1) at least one application classification, (2) at least one allocation request, and (3) network resource availability information.

Abstract: Technologies for controlling operation of a compute node coupled to a computer network via a computing device that includes communications for communicating with the computer network and persistent instructions such as firmware for providing control functions to the computing device, wherein the control functions being defined at least in part by protocol data. An update control module of the computing device may receive update data from a remote node in the computer network via the communications, wherein the update data comprising new protocol data for the persistent instructions. A protocol parser module may parse the update data and generate metadata relating to the update data. A classifier module may receive rules for the control functions, wherein the rules are based at least in part on the update data and metadata. A compiler may compile the parsed update data to the persistent instructions for providing new control functions to the computing device based at least in part on the received rules.

Abstract: Technologies to monitor and manage platform, device, processor and power characteristics throughout a system utilizing a remote entity such as controller node. By remotely monitoring and managing system operation and performance over time, future system performance requirements may be anticipated, allowing system parameters to be adjusted proactively in a more coordinated way. The controller node may monitor, control and predict traffic flows in the system and provide performance modification instructions to any of the computer nodes and a network switch to better optimize performance. The target systems collaborate with the controller node by respectively monitoring internal resources, such as resource availability and performance requirements to provide necessary resources for optimizing operating parameters of the system.

Abstract: Technologies for identifying service functions that may be performed in parallel in a service function chain include a computing device for running one or more virtual machines for each of a plurality of service functions based on a preferred service function chain being selected. To identify which service functions may be performed in parallel, the computing device may determine which service functions are not required to be performed on a critical path of the service function chain and/or which service functions are not required to be performed in real-time. Additionally, selecting the preferred service function chain may be based on selection criteria.

Abstract: A system for network routing based on resource availability. A network switching element (NSE) may be configured to provide status information to a controller. The controller may be configured to utilize the status information in determining control information that may be provided to the NSE. The NSE may further be configured to assign processing of information flows to processors in the NSE based on the control information. For example, the control information may contain minimum and maximum percent utilization levels for the processors. Information flows may be reassigned to processors that have available processing capacity from processors whose operation is determined not to be in compliance with the minimum and maximum levels. Moreover, inactive processors may be deactivated and alerts may be sent to the controller when the NSE determines that no available processing capacity exists to reassign the flows of processors whose operation is determined to be noncompliant.

Abstract: Methods, apparatus, and systems for implementing in Network Interface Controller (NIC) flow switching. Switching operations are effected via hardware-based forwarding mechanisms in apparatus such as NICs in a manner that does not employ use of computer system processor resources and is transparent to operating systems hosted by such computer systems. The forwarding mechanisms are configured to move or copy Media Access Control (MAC) frame data between receive (Rx) and transmit (Tx) queues associated with different NIC ports that may be on the same NIC or separate NICs. The hardware-based switching operations effect forwarding of MAC frames between NIC ports using memory operations, thus reducing external network traffic, internal interconnect traffic, and processor workload associated with packet processing.

Abstract: Technologies for aligning network flows to processing resources include a computing device having multiple processing nodes, a network switch, and a network controller operating in a software-defined network. Each processing node of the computing device may include a processor, memory, and network adapter. The network switch may receive a network packet and request forwarding information from the network controller. The network controller may determine flow information corresponding to the network packet that indicates the application targeted by the network packet and the processing node executing the application. The flow information may be transmitted to the computing device, which may program a flow filter in the network adapter of the processing node executing the application.

Abstract: An embodiment may include circuitry to be included, at least in part, in at least one node in a network. The circuitry may generate, at least in part, and/or receive, at least in part, at least one packet. The packet may be received, at least in part, by at least one switch node in the network. The switch node may designate, in response at least in part to the packet, at least one port of the switch node to be used to facilitate, at least in part, establishment, at least in part, of at least one path for propagation of at least one flow between at least two other nodes in the network. The packet may be generated based at least in part upon (1) at least one application classification, (2) at least one allocation request, and (3) network resource availability information.

Abstract: Methods, apparatus, and systems for implementing in Network Interface Controller (NIC) flow switching. Switching operations are effected via hardware-based forwarding mechanisms in apparatus such as NICs in a manner that does not employ use of computer system processor resources and is transparent to operating systems hosted by such computer systems. The forwarding mechanisms are configured to move or copy Media Access Control (MAC) frame data between receive (Rx) and transmit (Tx) queues associated with different NIC ports that may be on the same NIC or separate NICs. The hardware-based switching operations effect forwarding of MAC frames between NIC ports using memory operations, thus reducing external network traffic, internal interconnect traffic, and processor workload associated with packet processing.

Abstract: Methods, apparatus and systems for routing information flows in networks based on spanning trees and network switching element resources. One or more controllers are used to assign information flows to network switching elements (NSEs) through use of spanning trees derived from link path costs. NSEs generate status information relating to resources they employ to facilitate information flows that is sent to the controller(s). The status information is used to derive link costs, which are then used to generate spanning trees that support routing between the NSEs without any path loops. Information flows are assigned to the NSEs such that the routing paths for the flows use the links in the spanning tree. The link costs and spanning trees are dynamically computed during ongoing operations, enabling the network routing and flow assignments to be reconfigured in response to dataplane events and changes to the information flow traffic.

Abstract: Methods, apparatus, and systems for implementing in Network Interface Controller (NIC) flow switching. Switching operations are effected via hardware-based forwarding mechanisms in apparatus such as NICs in a manner that does not employ use of computer system processor resources and is transparent to operating systems hosted by such computer systems. The forwarding mechanisms are configured to move or copy Media Access Control (MAC) frame data between receive (Rx) and transmit (Tx) queues associated with different NIC ports that may be on the same NIC or separate NICs. The hardware-based switching operations effect forwarding of MAC frames between NIC ports using memory operations, thus reducing external network traffic, internal interconnect traffic, and processor workload associated with packet processing.

Abstract: A system for network routing based on resource availability. A network switching element (NSE) may be configured to provide status information to a controller. The controller may be configured to utilize the status information in determining control information that may be provided to the NSE. The NSE may further be configured to assign processing of information flows to processors in the NSE based on the control information. For example, the control information may contain minimum and maximum percent utilization levels for the processors. Information flows may be reassigned to processors that have available processing capacity from processors whose operation is determined not to be in compliance with the minimum and maximum levels. Moreover, inactive processors may be deactivated and alerts may be sent to the controller when the NSE determines that no available processing capacity exists to reassign the flows of processors whose operation is determined to be noncompliant.

Abstract: Examples are disclosed for a device having at least two media access controllers. In some examples, a first media access controller may be coupled to a host computing device. A second media access controller may be coupled to one or more processor circuits arranged to perform packet processing of data payloads for one or more data frames forwarded through the first media access controller and/or forwarded through the second media access controller. The first media access controller may be coupled to the second media access controller via a communication link. Other examples are described and claimed.

Abstract: Generally, this disclosure describes a network controller for remote system management. A host device may include the network controller and a programmable network element. The network controller may include controller circuitry configured to acquire network management data related to operation of the network controller and to receive host management data related to operation of the host device. The network controller may further include a transmitter configured to transmit the network and host management data to a management system remote from the network controller and a receiver configured to receive a command from the management system related to the management data, the command configured to reprogram the programmable network element to change a behavior of the programmable network element.

Abstract: Methods, apparatus and systems for routing information flows in networks based on spanning trees and network switching element resources. One or more controllers are used to assign information flows to network switching elements (NSEs) through use of spanning trees derived from link path costs. NSEs generate status information relating to resources they employ to facilitate information flows that is sent to the controller(s). The status information is used to derive link costs, which are then used to generate spanning trees that support routing between the NSEs without any path loops. Information flows are assigned to the NSEs such that the routing paths for the flows use the links in the spanning tree. The link costs and spanning trees are dynamically computed during ongoing operations, enabling the network routing and flow assignments to be reconfigured in response to dataplane events and changes to the information flow traffic.

Abstract: Described are embodiments of mediums, methods, and systems for application-reserved use of cache for direct I/O. A method for using application-reserved cache may include reserving, by one of a plurality of cores of a processor, use of a first portion of one of a plurality of levels of cache for an application executed by the one of the plurality of cores, and transferring, by the one of the plurality of cores, data associated with the application from an input/output (I/O) device of a computing device directly to the first portion of the one of the plurality of levels of the cache. Other embodiments may be described and claimed.

Abstract: An embodiment may include circuitry to be included, at least in part, in at least one node in a network. The circuitry may generate, at least in part, and/or receive, at least in part, at least one packet. The packet may be received, at least in part, by at least one switch node in the network. The switch node may designate, in response at least in part to the packet, at least one port of the switch node to be used to facilitate, at least in part, establishment, at least in part, of at least one path for propagation of at least one flow between at least two other nodes in the network. The packet may be generated based at least in part upon (1) at least one application classification, (2) at least one allocation request, and (3) network resource availability information.