Abstract: The present disclosure belongs to the technical field of lubricating material preparation, and specifically relates to a halloysite nanotube (HNT)-encapsulated ionic liquid (IL) microcapsule, a self-lubricating fiber textile composite, and a preparation method and use thereof. In the present disclosure, the preparation method includes the following steps: dispersing a HNT and an alkali metal salt of a saturated fatty acid in water, dispersing a resulting inner surface-modified HNT and an IL in an organic solvent, injecting the IL into the HNT in the mixed dispersion under vacuumizing to obtain an IL-filled HNT, and encapsulating a resulting IL-filled HNT at a tube end with an encapsulating material to obtain the HNT-encapsulated IL microcapsule.

Abstract: Various embodiments of the invention provide for an unparalleled scalable and reliable load distribution design for use in a large class of network applications, including cloud computing in modern data center networks and similar services, which can benefit from the invention by taking advantage of commonly available network components and systems. In particular, various embodiments of the invention extend a logical load distributor model to include distributed clusters of loosely coupled components. Certain embodiments accomplish this by combining existing silicon-based network components and functionalities with the scalability and reliability provided by virtualized processes in order to improve critical load distribution and load balancing performance without requiring costly upgrades to infrastructure and without negative structural impact on the overall network. Some embodiments take advantage of hierarchical designs to further increase scalability.

Abstract: A virtualized network function (VNF) provisioning system includes a plurality of computing device that are provided in a physical topology and that are coupled to a network. A management device is coupled to the computing device through the network. The management device receives VNF system information for a VNF system through the network. The VNF system includes a plurality of VNFs that are provided in a virtual topology. The management device then determines a plurality of physical groups from the physical topology that each identify at least one computing device. The management device then determines a plurality of virtual groups from the virtual topology based on a ratio of traffic that will leave each virtual group and a number of VNFs in each virtual group. The management device then provides the VNFs in a first virtual group on the at least one computing device in a first physical group.

Abstract: An information handling system is provided herein. The information handling system includes a controlling bridge having a plurality of bridge ports and at least one port extender coupled to one of the bridge ports of the controlling bridge to form an extended bridge. The port extender has a plurality of extension ports. The information handling system further includes an access point coupled to the port extender such that a wireless association between the access point and one or more stations appears as a logical bridge port to the controlling bridge and to an access controller system. The access point has a wireless transceiver to communication with the one or more stations. Associated methods are provided herein for providing wireless network access to a local area network.

Abstract: A virtualized network function (VNF) provisioning system includes a plurality of computing device that are provided in a physical topology and that are coupled to a network. A management device is coupled to the computing device through the network. The management device receives VNF system information for a VNF system through the network. The VNF system includes a plurality of VNFs that are provided in a virtual topology. The management device then determines a plurality of physical groups from the physical topology that each identify at least one computing device. The management device then determines a plurality of virtual groups from the virtual topology based on a ratio of traffic that will leave each virtual group and a number of VNFs in each virtual group. The management device then provides the VNFs in a first virtual group on the at least one computing device in a first physical group.

Abstract: An information handling system is provided herein. The information handling system includes a controlling bridge having a plurality of bridge ports and at least one port extender coupled to one of the bridge ports of the controlling bridge to form an extended bridge. The port extender has a plurality of extension ports. The information handling system further includes an access point coupled to the port extender such that a wireless association between the access point and one or more stations appears as a logical bridge port to the controlling bridge and to an access controller system. The access point has a wireless transceiver to communication with the one or more stations. Associated methods are provided herein for providing wireless network access to a local area network.

Abstract: Various embodiments of the invention provide for an unparalleled scalable and reliable load distribution design for use in a large class of network applications, including cloud computing in modern data center networks and similar services, which can benefit from the invention by taking advantage of commonly available network components and systems. In particular, various embodiments of the invention extend a logical load distributor model to include distributed clusters of loosely coupled components. Certain embodiments accomplish this by combining existing silicon-based network components and functionalities with the scalability and reliability provided by virtualized processes in order to improve critical load distribution and load balancing performance without requiring costly upgrades to infrastructure and without negative structural impact on the overall network. Some embodiments take advantage of hierarchical designs to further increase scalability.

Abstract: An information handling system is provided herein. The information handling system includes a controlling bridge having a plurality of bridge ports and at least one port extender coupled to one of the bridge ports of the controlling bridge to form an extended bridge. The port extender has a plurality of extension ports. The information handling system further includes an access point coupled to the port extender such that a wireless association between the access point and one or more stations appears as a logical bridge port to the controlling bridge and to an access controller system. The access point has a wireless transceiver to communication with the one or more stations. Associated methods are provided herein for providing wireless network access to a local area network.

Abstract: A system and method for efficiently handling mobility events includes detecting a mobility event associated with a movement of a mobile unit from a first subnet to a second subnet, forming one or more first flow control messages for updating routing information associated with the mobility event, transmitting the one or more first flow control messages to a core router, forming one or more second flow control messages for disabling layer 2 learning, transmitting the one or more second flow control messages to one or more network switching devices in the first subnet, forming one or more third flow control messages including layer 2 switching instructions for directing network traffic to the mobile unit in the second subnet, and transmitting the one or more third flow control messages.

Abstract: A system and method for efficiently handling mobility events includes detecting a mobility event associated with a movement of a mobile unit from a first subnet to a second subnet, forming one or more first flow control messages for updating routing information associated with the mobility event, transmitting the one or more first flow control messages to a core router, forming one or more second flow control messages for disabling layer 2 learning, transmitting the one or more second flow control messages to one or more network switching devices in the first subnet, forming one or more third flow control messages including layer 2 switching instructions for directing network traffic to the mobile unit in the second subnet, and transmitting the one or more third flow control messages.

Abstract: An information handling system is provided herein. The information handling system includes a controlling bridge having a plurality of bridge ports and at least one port extender coupled to one of the bridge ports of the controlling bridge to form an extended bridge. The port extender has a plurality of extension ports. The information handling system further includes an access point coupled to the port extender such that a wireless association between the access point and one or more stations appears as a logical bridge port to the controlling bridge and to an access controller system. The access point has a wireless transceiver to communication with the one or more stations. Associated methods are provided herein for providing wireless network access to a local area network.

Abstract: A system and method for efficiently handling mobility events includes detecting a mobility event associated with a movement of a mobile unit from a first subnet to a second subnet, forming one or more first flow control messages for updating routing information associated with the mobility event, transmitting the one or more first flow control messages to a core router, forming one or more second flow control messages for disabling layer 2 learning, transmitting the one or more second flow control messages to one or more network switching devices in the first subnet, forming one or more third flow control messages including layer 2 switching instructions for directing network traffic to the mobile unit in the second subnet, and transmitting the one or more third flow control messages.

Abstract: A system and method for efficiently handling mobility events includes detecting a mobility event associated with a movement of a mobile unit from a first subnet to a second subnet, forming one or more first flow control messages for updating routing information associated with the mobility event, transmitting the one or more first flow control messages to a core router, forming one or more second flow control messages for disabling layer 2 learning, transmitting the one or more second flow control messages to one or more network switching devices in the first subnet, forming one or more third flow control messages including layer 2 switching instructions for directing network traffic to the mobile unit in the second subnet, and transmitting the one or more third flow control messages.

Abstract: A canonical interface for remote interaction with communication devices in a network is described. The canonical interface supports interactions for communicating with remote devices for the configuration of router/communication software or devices; querying run-time information (dynamic and static) and statistics from router/communication software or devices; performing multi-system consistency checking; reporting management events from router/communication software or devices; revision control; and prioritizing urgent network requests over standard network management throughput.

Abstract: A method and system for virtualization of control software for a communication device is disclosed. A virtual communication environment is provided to support the virtualization of communication devices. Such a virtual communication environment creates, links and manages virtual communication processes that are associated with the virtual communication devices.