Dell Products Inc.

Citrix Systems, Inc.

Cisco Technology, Inc.

Snigdhendu Mukhopadhyay

Krishnamurthy Subramanian

Sanjay Sane

Wenjing Chu

Vladimir Vysotsky

Praveen Raja Dhanabalan

Saikrishna M Kotha

Rabah S Hamdi

Ioannis Beredimas

Sachin Shelar

Chui-Tin Yen

Saumyavapuh Lugani

Sumeet Singh

Kaartik Viswanath

Adam Phillip Schultz

Raja Rangarajan

Brian A Arnold

Bruce B Weller

Pritesh N Patel

Rajiv Raghunarayan

Jeffrey Lee

Floyd H Gerhardt

Kuntal Daftary

Systems and methods for selecting tunnels for transmitting application traffic by an SD-WAN application include a software-defined wide area network (SD-WAN) application executing on a client device establishing a connection between the SD-WAN application and one or more applications. The SD-WAN application maintains a plurality of tunnels between the SD-WAN application and respective tunnel destinations. The SD-WAN application receives application traffic from an application of the one or more applications. The SD-WAN application selects, based on the application traffic, a respective tunnel of the plurality of tunnels via which to transmit the application traffic of the application. The SD-WAN application transmits the application traffic via the selected tunnel.

Systems and methods for selecting tunnels for transmitting application traffic by an SD-WAN application

A system and method for securely encrypting and booting a headless appliance. A method includes providing the headless appliance with content stored in a memory, wherein the content is encrypted with a key, and wherein the key is separately stored on a remote computing device; booting the headless appliance and loading a fallback configuration; in response to a user device connecting to the headless appliance, directing the user device to a captive portal and capturing credentials of a user; forwarding the credentials to the remote computing device for verification by an identity provider; in response to the credentials being verified as a non-administrator, granting access to a public network for the user; and in response to the credentials being verified as an administrator, obtaining the key from the remote computing device to decrypt the content to provide access to a private network for the user.

Configuration of headless network appliances

A system and method for securely encrypting and booting a headless appliance. A computerized method is disclosed that includes: providing the network appliance with content encrypted with a secret key; launching the network appliance in a fallback configuration that provides limited operational capabilities; forwarding a request for the secret key to an online service that independently utilizes an identity provider to establish trust with an appliance administrator; receiving the secret key from the online service upon establishment of trust with the appliance administrator; decrypting the content with the secret key received from the online service; and utilizing the content to launch the network appliance in a full configuration.

Described embodiments provide systems and methods for steering network traffic using dynamically generated configuration scripts. A first device may generate a configuration script for an application on the client for connecting with a server. The configuration script may specify the application to establish a direct connection or an indirect connection with the server. The first device may provide the configuration script to be invoked by the application to identify a first address to access the server based on a determination to establish the direct connection or the indirect connection. The first device may receive, from the client, an initiation request to connect with the server including the first address. The first device may determine second address by applying a routing policy to the first address. The first device may establish one of the direct connection or the indirect connection using the second address.

Network traffic steering with programmatically generated proxy auto-configuration files

Methods and systems for changing communication paths in a network based on predicted Quality of Experience metrics are described herein. Computing devices in a network may communicate via one or more communication paths and using one or more applications. One or more Quality of Experience metrics may be determined for the one or more applications. Network metrics for the network may be measured and, based on one or more Quality of Service policies for the network, predicted Quality of Experience metrics may be determined using, e.g., a model network. A communication path recommendation may be output based on the predicted Quality of Experience metrics. For example, the recommendation may cause an application to change from a first communication path to a second communication path.

Quality of experience based network analysis

An information handling system containing a data-category switch module operating in the control plane for the exchange of data between internet of things applications, including a computer memory, a processor operatively coupled to the computer memory executing code of a data-switch module operatively coupled to the computer memory and the processor, a data zone, operatively coupled to the processor, defined by one or more data types from sensors associated with the data zone by data content categories, one or more network interfaces assigned to the data zone by data-category switch module policy provisions for receiving and transmitting data associated with the data zone, and one or more zone-labeled datasets stored in the computer memory operatively coupled to the data-category switch module and assigned to the data zone, each of the zone-labeled datasets receiving data from the data zone and configured to execute a data-zone specific application.

Data-category switch module in the control plane for use with internet of things devices

A wireless rack communication system includes a rack defining a rack entrance and device housings. A networking device is positioned in a first device housing. The networking device includes a networking device antenna system surface spaced apart from the rack entrance, and networking device antenna systems each extend from the networking device antenna system surface and into the first device housing. Server devices are each positioned in respective second device housings that are located adjacent each other on a same side of the first device housing. Each server device includes a server device antenna system surface that is spaced apart from the rack entrance and a server device antenna system that extends from that server device antenna system surface and into the respective second device housing. An unobstructed wireless communication path is provided between each server device antenna system and a respective one of the networking device antenna systems.

Wireless rack communication system

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.

Systems and methods for integrating wireless local area networks on extended bridges

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.

System and method for efficient L3 mobility in a wired/wireless network

Embodiments of the present disclosure provide techniques for distributing information about possible anomalies in a network. A sensor in a network may detect packets with payloads that match an anomaly signature. Address dispersion information, for example, in the form of source and address bitmaps, may be gathered at the sensor. The address dispersion information may be distributed to one or more peer sensors if the information indicates that the number of different addresses of the detected matching packets exceeds a threshold.

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San Jose, CA, United States of America

Snigdhendu Mukhopadhyay