Systems and methods are provided for configuring a plurality of network devices to connect to a cloud-based provisioning system via a single web socket connection. The connection may be established between the provisioning system and a first gateway that serves as the entry point to the Internet from a branch office. Other network devices may connect to this first gateway, including such as routers, switches, access points, and second gateways. The single web socket connection can dramatically reduce the number of connections that need to be established with the cloud-based provisioning system.

Systems and techniques are described for creating a software-defined wide-area-network (SD-WAN) enabled network fabric for containers. Embodiments can configure one or more virtual networks on a network node, wherein the one or more virtual networks are used for creating the SD-WAN enabled network fabric for containers. Next, the embodiments can deploy a virtual gateway on the network node by executing the virtual gateway image. The embodiments can then create a container network interface configuration based on network address information of the one or more virtual networks and the virtual gateway, and execute the container network interface configuration, thereby enabling containers on the network node to communicate via the SD-WAN enabled network fabric.

The disclosure relates to a method, executed in a Network Function Virtualization Infrastructure (NFVI) software modification manager, for coordination of NFVI software modifications of a NFVI providing at least one Virtual Resource (VR) hosting at least one Virtual Network Function (VNF), comprising receiving an NFVI software modifications request; sending a notification that a software modification procedure of the at least one VR is about to start to a VNF level manager, the VNF level manager managing a VNF hosted on the at least one VR provided by the NFVI; applying software modifications to at least one resource of the at least one VR; and notifying the VNF level manager about completion of the software modifications.

An example device includes a processor; a first interface port forming a first datalink to a core network device via a first interconnect device; and a second interface port forming a second datalink to the core network device via a second interconnect device, the first and second datalinks being redundant connections of a link aggregation group (LAG) including a plurality of multiplexed connections within a single network media. The processor is to: remove the first interconnect device while maintaining the second datalink; update firmware of the first interconnect device upon receiving a first indication that the first interconnect device has stopped receiving or transmitting data; and reestablish the redundant connections of the first interconnect device upon receiving a second indication that the first interconnect device has been added back to the LAG. The first and second indications include indications of states in each connection of the multiplexed connections.

Systems herein allow an administrator to efficiently set up user devices for use in a classroom environment. A management server can display a graphical user interface that includes selection options for defining and using carts of user devices. The carts can be selected and assigned to classes. The GUI also allows the administrator to specify which applications a class will use. Based on these selections, the management server can then manage which user devices install which applications, and allocate licenses accordingly.

The Distributed Software Defined Network (dSDN) disclosed herein is an end-to-end architecture that enables secure and flexible programmability across a network with full lifecycle management of services and infrastructure applications (fxDeviceApp). The dSDN also harmonizes application deployment across the network independent of the hardware vendor. As a result, the dSDN simplifies the network deployment lifecycle from concept to design to implementation to decommissioning.

According to one method, the method occurs at a network equipment test device. The method includes receiving one or more source code files for programming a packet forwarding plane of a network node; analyzing the one or more source code files to determine test metadata, wherein analyzing the one or more source code files to determine the test metadata includes identifying source code portions that indicate conditions for rejecting or accepting packets and determining the test metadata based on the conditions; generating, using the test metadata, one or more test plans for testing the network node, wherein the one or more test plans define test packets to be sent to the network node for testing the network node's implementation of the conditions for rejecting or accepting packets; and testing the network node using the one or more test plans.

An example programmable integrated circuit (IC) includes a processor, a plurality of endpoint circuits, a network-on-chip (NoC) having NoC master units (NMUs), NoC slave units (NSUs), NoC programmable switches (NPSs), a plurality of registers, and a NoC programming interface (NPI). The processor is coupled to the NPI and is configured to program the NPSs by loading an image to the registers through the NPI for providing physical channels between NMUs to the NSUs and providing data paths between the plurality of endpoint circuits.

In some implementations, a method is provided. The method includes determining that a network device will perform a reboot. The method also includes saving state information. The state information comprises data used by the network device to process address resolution protocol (ARP) messages. The method further includes initiating the reboot of the network device. The method further includes initiating a first ARP service. The first ARP service is configured to process ARP messages during the reboot of the network device.

A method and apparatus of a network element that installs a device driver used to manage hardware of the network element is described. In an exemplary embodiment, the network element detects, with a functionality of a network element operating system, the hardware of a data plane of the network element, where at least one component of the network element operating system is executing in a first container as a first set of processes. The network element further determines a device driver for the hardware and installs the device driver in a kernel of the host operating system. The network element additionally manages the data, with the network element operating system, using the device driver.