Cisco Technology, Inc.

Other

Jerome Henry

Robert E Barton

Robert Edgar Barton

Vishal Satyendra Desai

Malcolm Muir Smith

Matthew Aaron Silverman

Bart A Brinckman

Pascal Thubert

Mark Grayson

Pooya Monajemi

Indermeet Singh Gandhi

Carlos M Pignataro

Nagendra Kumar Nainar

Stephen Michael Orr

Thomas Szigeti

Sudhir Kumar Jain

Vinay Saini

Maik Guenter Seewald

John Matthew Swartz

Akram Ismail Sheriff

John George Apostolopoulos

John Martin Graybeal

Gonzalo A Salgueiro

Shankar Ramanathan

Santosh Ghanshyam Pandey

Eric Michel Levy-Abegnoli

Domenico Ficara

Jean-Philippe Vasseur

Amine Choukir

Louis Gwyn Samuel

Ardalan Alizadeh

Matthew Stephen MacPherson

Lorenzo Granai

Patrick Wetterwald

Allen Huotari

Anirban Karmakar

Sergio Mena

Brian Donald Hart

Charles Calvin Byers

Rajesh S Pazhyannur

Joseph Michael Clarke

Santosh Ramrao Patil

Elango Ganesan

M David Hanes

Mark Allen Webb

Srinath Gundavelli

Frank Brockners

Nancy Cam-Winget

Shree N Murthy

Fred Jay Anderson

Ahmadreza Hedayat

Gangadharan Byju Pularikkal

Andrew Frederick Myles

Xiaoguang Jason Chen

Joshua David Suhr

Thomas Vegas

Cesar Obediente

David Delano Ward

Paul Jeffrey Stager

Juan Carlos Zuniga

David C White, Jr

David Stuart Kloper

David John Zacks

Muthurajah Sivabalan

Flemming Andreasen

Jay Kemper Johnston

Magnus Mortensen

Xiaoqing Zhu

Jun Hui Liu

Paul Anthony Polakos

Mukesh Taneja

Xu Zhang

Mark Stephan Shurtleff

Andre Jean-Marie Surcouf

Brian C Powell

Vincent Cuissard

Swapna Anandan

Darrin Joseph Miller

Amir Hosein Kamalizad

Einar Nilsen-Nygaard

Sanjay Kishore Katabathuni

Ian James Wells

Gautam Dilip Bhanage

Arun G Khanna

Aamer Saeed Akhter

Ram Mohan Ravindranath

Manoj Gupta

Khashayar Mirfakhraei

Sivadeep Reddy Kalavakuru

Roberto Muccifora

Sourav Chakraborty

Abhishek Kumar

Kedar Krishnanand Gaonkar

Waseem A Siddiqi

Simon Dyke

Peter W Ecclesine

Jagdish Girimaji

Desmond Joseph O'Connor

Ankush Ganpatrai Arora

Adapting transmission schedules in a Radio Frequency (RF) environment may be provided. A Central Network Controller (CNC) of a Time Sensitive Network (TSN) may determine that a data path to a client device comprises a wireless link. The CNC of the TSN may generate a proposed transmission schedule for the time sensitive traffic to the client device through the wireless link in response to determining that the data path to the client device comprises the wireless link. The CNC may provide the proposed transmission schedule to a Wireless Network Controller (WLC) of the wireless link. The CNC may receive a confirmation from the WLC that the proposed transmission schedule can be met. The proposed transmission schedule may be configured in response to receiving the confirmation.

Adapting transmission schedules for a radio frequency (RF) environment

Various embodiments herein disclose coordinating neighbor discovery between access points (APs) with auxiliary radios and APs without auxiliary radios. A corresponding wireless controller comprises a processor and a memory storing instructions that, when executed, cause the controller to perform operations. The operations comprise grouping APs into a first group of more flexible APs and a second group of less flexible APs and querying the second group of APs for a corresponding broadcast interval. The operations further comprise identifying when the second group of APs is scheduled to broadcast parameters, and a broadcast interval for each of the second group of APs and generating a schedule based on the scheduled broadcast and the broadcast interval for each of the second group of APs. The operations additionally comprise providing the generated schedule to the first group of APs and the second group of APs.

Automated neighbor discovery techniques for hybrid environments

Secure device location sharing may be provided. Over a secured link, an indication that a peer-to-peer device desires Automated Frequency Coordination (AFC) based location sharing may be received. Then, from the peer-to-peer device over the secured link, an identity provider (IdP) may be received for the peer-to-peer device. Next, validation of the peer-to-peer device may be requested from the IdP. From the IdP in response to requesting validation of the peer-to-peer device from the IdP, authentication for the peer-to-peer device and an indication that the peer-to-peer device needs AFC based location sharing may be received. An indication that the peer-to-peer device is approved for AFC based location sharing may then be sent to the peer-to-peer device over the secured link.

Secure device location sharing

Wireless dynamic file exchange is provided by, in response to a triggering network condition occurring, initiating an exchange of a parameter file including non-layer two content via a 802.11 message, such as a Generic Advertisement Service (GAS) message between an access point (AP) and a station (STA) connected to the AP; and in response to determining that the exchange was unsuccessful, terminating a connection between the AP and the STA. The parameter file may be sent over several messages and update the parameters for a new session or an existing session. Devices that do not conform to the updated parameters may be disassociated from the AP and re-connect to receive and implement the updated parameters.

Wireless dynamic file exchange

Techniques herein facilitate dynamic configuration of a wireless local area network (WLAN) for large public venue (LPV) environments. In one example, a method may include providing an initial configuration for access points APs of a WLAN for an event at an LPV based on a profile for the event, a location of each AP for the venue, and anticipated demand at the APs; determining, for a particular time for the event, a distribution of wireless devices and channel support capabilities of the wireless devices different locations for the LPV; and providing an updated configuration for one or more APs at the one or more locations for the venue based on the distribution of the wireless devices and the channel support capabilities of the wireless devices determined for the particular time for the event at the LPV.

Dynamic wireless local area network configuration in large public venue environments

Embodiments for virtual reality (VR) and augmented reality (AR) scenes updates at VR/AR devices in a network are described. Network traffic for the scene updates is divided into traffic layers such as coarse grain (CG) layer traffic and a fine grain (FG) layer traffic for a give VR/AR scene update. The CG layer traffic is scheduled first in resource units (RUs) of a plurality a transmission opportunity (TXOP) for a VR device and FG layer traffic is scheduled in remaining RUs during the TXOP to provide synchronous viewing experiences to users of the VR/AR devices.

Synchronicity for virtual reality/augmented reality interactive sessions in wireless networks

A method, computer system, and computer program product are provided for prioritizing network traffic. An indication is received at a network controller that an alarm is activated at a physical site. A request is received from a user device to join a network at the physical site that is under control of the network controller, wherein the request includes a flag indicating an identity of a user of the user device and a priority status of the user. In response to authenticating the identity of the user via an identity provider server, the user device is authorized to join the network. Based on verifying the priority status of the user using the flag and authentication via the identity provider server, network traffic for the user device is prioritized.

Prioritizing network traffic for emergency services

A single cluster formation technique for Ultra-Wideband (UWB) Time Difference of Arrival (TDoA) may be provided. A primary anchor may be elected from a plurality of anchors. Then a structure of a cluster formed by the plurality of anchors may be collected by the primary anchor. A Direction-Oriented Directed Acyclic Graph (DODAG) may be built for the cluster based on an uncontrolled time drift along the DODAG and weighted by a number of hops to the primary anchor.

Single cluster formation technique for ultra-wideband (UWB) time difference of arrival (TDoA)

Provided herein are techniques through which coordinated steering of a Reconfigurable Intelligent Surface (RIS) device can be utilized according to prioritized time-slices determined for each of multiple wireless access points (APs) for a wireless local area network (WLAN). Coordinated steering of an RIS device by multiple wireless APs according to prioritized time-slices may facilitate seamless roaming for wireless clients between the wireless APs for the WLAN.

Wireless local area network (WLAN) roaming optimizations utilizing a reconfigurable intelligent surface (RIS) device

Disclosed are systems, apparatuses, methods, and computer-readable media for identifying a location of a wireless device. A method for identifying a location of a wireless device includes transmitting a request message to the wireless device for identifying a position of the wireless device; receiving a response message from the wireless device; determining first time information based on a time of flight (ToF) of the request message and the response message, wherein the ToF corresponds to a distance of the wireless device from the AP; receiving a second message from a second AP that includes second time information associated with the request message and the response message; receiving a third message from a third AP that includes third time information associated with the request message and the response message; and transmitting location configuration information to the wireless device for the wireless device to determine a position of the wireless device.

Estimating position from reference signals received by coordinating access points

Cluster formation for networks for Ultra-Wideband (UWB) Time-Difference-of-Arrival (TDoA) networks may be provided. A plurality of anchors may be set to a primary setting. Synchronization messages may then be broadcast by the plurality of anchors. Then the plurality of anchors may send responses to the synchronization messages. A room consensus may be performed to determine probabilities of obstacles between the plurality of anchors. The plurality of anchors may then send proposals of one or more clusters based on the room consensus. One or more clusters may be formed by the plurality of anchors based on the proposals.

Cluster formation for ultra-wideband time-difference-of-arrival networks

Differentiated time-difference of arrival for Ultra-Wideband (UWB) may be provided. A location tracking information for a venue may be broadcasted. Broadcasting the location tracking information may include notifying a user device that a location information is expected from the user device and providing an entity identity of an entity seeking the location information from the user device. A ranging message may then be received from the user device in response to the user device detecting the location tracking information. A position of the user device on the venue may be determined from the ranging message.

Differentiated time-difference of arrival for ultra-wideband (UWB)

A method to operate a multi-link wireless device. The method includes establishing at least a first multi-link device interface and a second multi-link device interface, exposing, via a virtual data port, the first multi-link device interface and the second multi-link device interface at a data processing layer of the wireless device, selecting one of the first multi-link device interface and the second multi-link device interface, as a selected multi-link device interface, based on performance information associated with a first radio and a second radio associated, respectively, with the first multi-link device interface and the second multi-link device interface, and wirelessly transmitting a packet from the wireless device by routing the packet through the selected multi-link device interface.

Multi-link operation for wireless local area network multi-link device

Backscatter Device (BKD) placement and placement calibration may be provided. A plurality of ambient energy sources in a Three-Dimensional (3D) space may be identified and mapped. Each of the plurality of ambient energy sources may be categorized as one of the following: a stationary and controllable ambient energy source, a stationary and uncontrollable ambient energy source, and a mobile ambient energy source. An amount of ambient energy available at each of a plurality of sub-spaces of the 3D space may be determined. The amount of ambient energy available at each of the plurality of sub-spaces may be determined by determining a first amount of ambient energy that is continuously available and a second amount of ambient energy that is likely available at each of the plurality of sub-spaces of the 3D space.

Backscatter device placement and placement calibration

Correlating devices and clients across addresses may be provided. A first address associated with a client device may be received. When the client device is not connected to a network, first location data associated with the first address may be obtained using a passive technique. A second address and second location data associated with the second address may then be obtained using an active technique. It may then be determined that the first location data and the second location data correlate. In response to determining that the first location data and the second location data correlate, it may be determined that the client device has changed from the first address to the second address.

Correlating devices and clients across addresses

Growing community of inventors

Pittsboro, NC, United States of America

Jerome Henry