Alcatel Lucent

Lucent Technologies Inc.

Alcatel-lucent USA Inc.

Alef Edge, Inc.

Alef Mobitech Inc.

Gemalto Sa

Thales Dis France Sa

Sundaram, Ganapathy Subramanian

Ganapathy Subramanian Sundaram

Violeta Cakulev

Srinivas R Kadaba

Ashok N Rudrapatna

Nandu Gopalakrishnan

Semyon B Mizikovsky

Sarvar M Patel

Ioannis Broustis

Niranjan S Joshi

Subramanian Vasudevan

Farooq Khan

Harish Viswanathan

Kin K Leung

Jialin Zou

Swarup Acharya

Thierry E Klein

Achilles George Kogiantis

Ajay Rajkumar

Gopal N Kumar

Shanmugavelayut Muthukrishnan

Ian Patrick Bennett

Sanjiv Nanda

Subhabrata Bapi Sen

Paul Anthony Polakos

Peter Bosch

Stanley Vitebsky

Robin Jeffrey Thompson

Mehmet Oguz Sunay

Satish Kanugovi

Douglas William Varney

Zhibi Wang

Peter James McCann

Eshwar Pittampalli

Todd Cartwright Morgan

Haitao Zheng

Sape Mullender

Yunsong Yang

Sudhir Ramakrishna

Zulfikar Amin Ramzan

John Frederick Heck

Kartik Swaminathan Venkatram

Niranjan Sudhir Joshi

Systems and methods for digital coin exchange. A digital coin platform receives a distribution request from an entity server comprising digital multimedia content associated with an entity. Digital coins are created responsive to the request. Each digital coin comprises a first coin associated with the entity and a second coin associated with consumers. The first and second coins are linked via linking information. The first coins are transferred to the entity server. A consumption request including the digital multimedia content is transmitted to a consumer device. Responsive to an indication that the content is at least partially consumed via the consumer device, one or more second coins are transferred to the consumer device. The digital coins and the transferred first and second coins are recorded. The transferred second coins permit the consumer device to perform transactions associated with the entity.

System and method for a digital coin exchange

An exemplary system according to the present disclosure comprises at least one mobility networking module implemented in at least one lower tier radiolet. The mobility network module performs one or more traffic data plane functions. The exemplary system further comprises at least one mobility application module implemented in at least one upper tier radiolet. The mobility application module performs one or more application data plane functions. The exemplary system further comprises at least one mobility cloud module implemented in the at least one lower tier radiolet and the at least one upper tier radiolet. The mobility cloud module performs computing execution functions of a cloud session.

Systems and methods for providing mobility aspects to applications in the cloud

The present invention provides a method of route optimization involving a first mobile device associated with a first home gateway. One embodiment of the method is implemented in a first mobility forwarding entity and includes registering the first mobile device at the first mobility forwarding entity. The first mobile device is registered using a session key included in a registration message transmitted by the first mobile device. The embodiment also includes establishing a secure route between the first mobility forwarding entity and a terminating node using the session key. The secure route bypasses the first home gateway.

Method for secure network based route optimization in mobile networks

According to an implementation of the present subject matter, systems and methods for scheduling and controlling device-to-device (D2D) communication are described. The method includes receiving device parameters and uplink parameters from a first communication device and at least one second communication device, respectively. Further, based on the device parameters and the uplink parameters, transmission format of a D2D communication link for allowing D2D communication between the first communication device and the at least one second communication device is determined. Further, an uplink transmit grant and an uplink listen grant are transmitted to the first communication device and the at least one second communication device, respectively, based on the determination, wherein the uplink transmit grant and the uplink listen grant indicate at least the transmission format and time of transmission on the D2D communication link to the first communication device and the at least one second communication device.

Scheduling and controlling device-to-device communication

An automated security provisioning protocol is provided for wide area network communication devices in an open device environment, such as cellular communication devices in a machine-to-machine (M2M) environment. For example, a method for performing a security provisioning protocol between a first communication device and a second communication device over at least one wide area communication network comprises the following steps from the perspective of the first communication device. The first communication device automatically uses access information not previously provisioned in the wide area communication network to gain access to the wide area communication network for an initial purpose of communicating with the second communication device. The first communication device, upon gaining access to the wide area communication network, automatically performs an authenticated key exchange operation with the second communication device over the wide area communication network and establishes a secure communication key as a result of the authenticated key exchange operation for subsequent use by the first communication device for secure communications. The wide area communication network is operated by a first entity and the second communication device is operated by a second entity.

Automated security provisioning protocol for wide area network communication devices in open device environment

A method for intercepting encrypted communications exchanged between first and second computing devices in a communication network, wherein interception is performed by a third computing device in the computing network. The third computing device obtains one or more packets having a packet address associated with one of the first and second computing devices in response to at least one interception routing policy being implemented in at least one element in the communication network, such that the obtained packets may be decrypted to obtain data contained therein. The third computing device preserves the packet address of the obtained packets and forwards the obtained packets toward a packet-destination one of the first and second computing devices such that the packet-destination one of the first and second computing devices is unable to detect from the one or more packets that the one or more packets were intercepted by the third computing device.

Policy routing-based lawful interception in communication system with end-to-end encryption

Automated secure registration techniques for communication devices are provided which address the problem of allowing multiple clients to gain access to one system, and thus provide a solution to the 'reverse single sign-on' problem. For example, a method for registering a group of two or more communication devices in a communication network comprises the following steps. A group challenge message is sent from a network device to the group of two or more communication devices. The network device receives one or more response messages to the group challenge respectively from one or more of the group of two or more communication devices, wherein the response message from each of the responding communication devices in the group comprises a group credential corresponding to the group.

Secure registration of group of clients using single registration procedure

A method for securing at least one message transferred in a communication system from a first computing device to a second computing device in a peer-to-peer manner. At the first computing device, an identity based authenticated key exchange session is established with a third computing device operating as a peer authenticator. The identity based authenticated key exchange session has an identity based authenticated session key associated therewith. The first computing device obtains from the third computing device a random key component of the second computing device, wherein the random key component of the second computing device is encrypted by the third computing device using the identity based authenticated session key prior to sending the random key component of the second computing device to the first computing device. A peer-to-peer messaging key is computed at the first computing device using the random key component of the second computing device.

Secure group messaging

A key agreement protocol between a first party and a second party comprises the following steps from the first party perspective. An encrypted first random key component is directed to the second party, the first random key component having been computed at the first party and encrypted using a public key of the second party in accordance with an identity based encryption operation. An encrypted second random key component corresponding to the second party is received. The encrypted second random key component is decrypted using a private key of the first party. A session key for use in subsequent communications between the first party and the second party is computed based at least in part on the second random key component.

Identity based authenticated key agreement protocol

Growing community of inventors

Hillsborough, NJ, United States of America

Ganapathy Subramanian Sundaram