Lucent Technologies Inc.

Cisco Technology, Inc.

Alcatel Lucent

Alcatel-lucent USA Inc.

Massachusetts Institute of Technology

Provenance Asset Group LLC

Paul Anthony Polakos

Zhengxiang Ma

Karl Georg Hampel

Peter Bosch

Louis Gwyn Samuel

Om Prakash Suthar

John Martin Graybeal

Kenneth Lee Clarkson

Ajay Rajkumar

Roger David Benning

R Michael Buehrer

Lawrence M Drabeck

John D Hobby

Paul Matthew Mankiewich

Jerome Henry

John George Apostolopoulos

Hendrikus G P Bosch

Humberto Jose La Roche

Robert Atmaram Soni

Mahavir Dagdulal Karnavat

Sampath Rangarajan

Harish Viswanathan

Alexei Ashikhmin

Ganapathy Subramanian Sundaram

Xiaoqing Zhu

Holger Claussen

Wai-Tian Tan

Thomas L Marzetta

David A Maluf

Milind Madhav Buddhikot

Luca Della Chiesa

Thierry E Klein

Robert Bruce Van Dover

Scott Roy Fluhrer

Lester Tse Wee Ho

Hui Wu

Yihao Lisa Zhang

Sape Jurrien Mullender

Norman Gerard Ziesse

Mark H Kraml

Huy Phuong Tran

Robert Edward Liston

David Abusch-Magder

Sape Mullender

Anthony A Triolo

Santanu Ganguly

Chandra S Chekuri

Jim McKie

Alfredo Carlos Anderson

Georg Hampel

Vladislav Korenivski

Avinash Kalyanaraman

Noah Evans

Lawrence Milton Drabeck

Thierry Etienne Klein

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

Correcting for antennae spatial distortions in Radio Frequency (RF) localization may be provided. A plurality of actual locations associated with a plurality of Access Point (APs) may be received. Then a plurality of signal strengths associated with the plurality of APs may be received. Based on the plurality of signal strengths, a model may be created that models a plurality of inference errors respectively corresponding to the plurality of APs between a plurality of inferred locations respectively corresponding to the plurality of APs and the plurality of actual locations. The model may then be used in determining a location of a device.

Correcting for antennae spatial distortions in radio frequency (RF) localizations

Multi-User Multiple Input, Multiple Output (MU-MIMO) data transmissions are provided with a forward-predictive precoding matrix to mitigate the effects of a change in a state of a communication channel. First and second soundings are performed, at first and second times, to a receive antenna over a channel and, responsive to each of the soundings, first and second Channel State Information (CSI) are received. Based on the first and second CSI, a change in a state of the channel over a time period between the first and second time is determined. Based on the change in the state of the channel, a forward-predictive channel state matrix and/or a forward-predictive precoding matrix are determined that reflect a state of the channel at a future time and that are consistent with the determined change in the state over the time period. The forward-predictive precoding matrix is applied to a data transmission.

Forward predictive precoded MIMO

A method for routing in a quantum network is provided. The method may include receiving parameters including a fidelity with coherence decay time and an entanglement generation rate for each quantum node in a mesh quantum network by a controller, the controller being configured to communicate with each quantum node of a plurality of quantum nodes in the mesh quantum network. Each quantum node includes a quantum memory and a processor. The method may also include analyzing the fidelity with coherence decay time and the entanglement generation rate to yield a determination of a path fidelity with a path coherence decay time and a path entanglement generation rate between at least one pair of quantum nodes. The method may further include, based on the determination, selecting a quantum communication path from a source node to a destination node.

Routing methods for quantum communication paths across a mesh quantum network

In one embodiment, a mobile network includes at least one Information Centric Networking (ICN) enabled mobile base station configured to support ICN transport protocol, and at least one ICN enabled evolved packet core (EPC) device configured to support ICN transport protocol, where the ICN enabled EPC device is operative to assign an ICN based identity to a user equipment (UE) according to an attach request, wherein the attach request indicates that the UE supports the ICN transport protocol.

Information centric networking for long term evolution

A method is provided in one example embodiment and includes receiving a first request from a first user equipment by a first transport layer proxy located within an access network The first request includes a request to establish a user session between the first user equipment and a remote server. The method further includes establishing a first transport layer session between the first user equipment and the first transport layer proxy, establishing a second transport layer session between the first transport layer proxy and the remote server, and establishing a first control channel between the first transport layer proxy and a transport layer function manager within a core network. The method further includes sending session state parameters associated with the first transport layer session and the second transport layer session to the transport layer function manager using the first control channel.

Providing cellular-specific transport layer service by way of cell-site proxying in a network environment

In one embodiment, a method for improving content delivery for a user equipment (UE) is implemented on a computing device and includes: receiving a request from an application layer on the UE, determining whether said request is an ICN-based request using Information Centric Networking (ICN) transport protocol or an IP-based request using Internet Protocol (IP) transport protocol, and for each ICN-based request according to the determining: forwarding the ICN-based request to an ICN function on the UE, and compressing ICN headers in the ICN-based request using robust header (RoHC) compression.

A communication method uses a distributed cell-free network of spatially independent service antennas. According to the method, pilot sequences are allocated to a user population of access terminals by an allocation procedure that imposes local relative orthogonality of pilot sequences. Channel coefficients for access terminals are determined by measuring allocated pilot sequences as received by each of the service antennas. In embodiments of the invention, the determination of channel coefficients is performed independently and the resulting channel coefficients are locally stored at the respective service antennas. At each service antenna, a processor independently uses locally stored channel coefficients to precode forward link signals or to at least partially decode reverse link signals.

System and method of wireless communication using large-scale antenna networks

The present invention provides a method of automatically configuring a base station router. The method includes modifying a transmission power for a pilot signal transmitted by the base station router. The modification of the transmission power is determined based upon a frequency of mobility-related procedure requests received by the base station router.

Method of automatically configuring a home base station router

A method is disclosed for routing packets in an intermediate node between a mobile node and a correspondent node in a packet-switched network, only one of said nodes being macro-mobility enabled, comprising at the intermediate node: &#x2014;exchanging lower-layer-address-update-related messages with said macro-mobility enabled node; &#x2014;mapping source address, destination address and potentially protocol parameters of lower-layer packets exchanged between the mobile node and the correspondent node in such a way that the macro-mobility enabled node can communicate with the other node as if the other node is also macro-mobility enabled, and such that the other node can communicate with the intermediate node as if the intermediate node is a non-macro-mobility-enabled node. Also associated devices, update methods for devices, and servers are disclosed.

Method and system for optimising routing between two network nodes, at least one of which is mobile

The present invention provides a method for implementation in a first mobile unit that supports an air interface with a network element. The method includes determining, while the first mobile unit is participating in a call, that at least one channel associated with the air interface is unable to support voice transmission. The method also includes rendering a first user-detectable signal in response to determining that said at least one channel is unable to support voice transmission.

Method of providing user-detectable feedback indicating channel conditions

Growing community of inventors

Marlboro, NJ, United States of America

Paul Anthony Polakos