Nec Corporation

Nec Laboratories Europe Gmbh

Vincenzo Sciancalepore

Xavier Costa Perez

Xavier Costa-Perez

Fabio Giust

Lanfranco Zanzi

Antonio Albanese

Konstantinos Samdanis

Francesco Devoti

Andreas Kunz

Faqir Zarrar Yousaf

Xi Li

Flavio Cirillo

Placido Mursia

Andres Garcia Saavedra

Albert Banchs

Marco Gramaglia

Xavier Costa Pérez

Xavier Costa-PÉREZ

A method for establishing a direct communication using an unmanned aerial vehicle (UAV) with a reconfiguration intelligent surface (RIS) includes configuring RIS parameters based on compensating for undesired oscillations of a position and an orientation associated with the UAV. A signal reflection associated with a beam signal is steered to a target area based on the RIS parameters and by the RIS of the UAV. The signal beam is from a transmitter.

Dynamic control of an unmanned aerial vehicle using a reconfigurable intelligent surface

A method passively detects intrusion in an indoor environment. The method includes: establishing at least one communication channel between two millimeter (mm)-wave devices of a plurality of mm-wave devices deployed within the indoor environment, continuously monitoring communication channel parameters of the at least one communication channel, and triggering an intrusion detection process based on variations of the communication channel parameters.

Method and system for supporting passive intrusion detection in indoor environments

A method of managing task offloading to edge servers in a multi-access edge computing (MEC) system includes receiving, by a task broker implemented at a host management level of the MEC system, a task offloading request from a UE application, analyzing, by the task broker, resource requirements of a task of the task offloading request and running a forecasting mechanism that determines whether the task offloading request will eventually be dropped or not by a system management level of the MEC system. The task broker, based on the determination of the forecasting mechanism, either rejects or provisionally admits the task offloading request.

Managing task offloading to edge servers in a multi-access edge computing, MEC, system

A method is provided for operating an edge computing system in which edge application servers (EASs) are provided by application service providers (ASPs) for deployment in edge data network (EDNs). The method includes receiving, from each of a plurality of the ASPs, a respective deployment request for a respective EAS, each respective deployment request including software image information for the respective EAS. The method further includes assigning, to each of the plurality of the ASPs from which a respective deployment request is received, a set of at least one application management privilege, and receiving EAS lifecycle management requests issued by one or more of the ASPs from which a respective deployment request is received. The EAS lifecycle management requests specify lifecycle management operations to be performed for respective EASs. The method additionally includes performing the lifecycle management operations for the respective EASs in response to the EAS lifecycle management requests.

System and method to support network slicing in an MEC system providing automatic conflict resolution arising from multiple tenancy in the MEC environment

A method for user localization in a cellular network includes receiving, by a receiver unit, Orthogonal Time Frequency Space (OTFS) modulated Constant-Amplitude-Zero-Autocorrelation (CAZAC) sequences generated and transmitted in a Doppler-delay domain by a transmitter unit. The method further includes estimating, by the receiver unit, Doppler shift and/or relative speed between the transmitter unit and the receiver unit by filtering the received OTFS modulated CAZAC sequences.

User localization in a wireless cellular network

A method for operating a multi-access edge computing (MEC) system in which tenant applications are provided by MEC tenants for deployment on MEC hosts of the MEC system. The method includes receiving, from each of a plurality of MEC tenants, an application package, the application package including application software be installed at one or more of the MEC hosts of the MEC system, the application software corresponding to a tenant application of the tenant applications. The method further includes assigning, to each of the plurality of MEC tenants, a set of at least one application management privilege, and receiving application operation requests issued by MEC tenants. The application operation requests specify operations to be performed for the tenant applications. The method additionally includes pre-validating, using the sets of at least one application management privilege assigned to the plurality of MEC tenants, the application operation requests.

A method for enabling dynamic resource ownership transfer among network slice tenants includes acquiring an initial share of resources, admitting a plurality of tenants to a private blockchain platform, initiating a resource transaction process within a consortium of peer nodes, and validating proposed transactions in a distributed and automatized way. An infrastructure provider (InP) provides a mobile network that is virtually divided into a set of slices, and an intermediate broker (IB) regulates transactions, executed via a blockchain, by which resources are distributed between tenants. A smart contract (SC) running within the blockchain implements resource auditing among tenants and enforces IB-specific policies in managing transfers of the resources between the tenants. A consensus algorithm validates the transactions, and the infrastructure provider (InP) processes validated transactions and enforces transaction directives in the resource allocation process.

Multi-resource and autonomous hierarchical brokering platform to enable slice resource exchange among heterogeneous network tenants

A method for operating a multi-access edge computing (MEC) system includes establishing, between two or more MEC providers, an agreement that defines mutual access policies that specify which MEC platforms and which MEC applications and/or services running on the MEC platforms are allowed to be exposed among each other and/or to other tenants. The MEC platforms are provisioned with appropriate configurations in accordance with the access policies of the agreement. A discovery process is executed for discovering a MEC platform within a MEC stack of another tenant and a communication link is established with the other tenant's MEC platform.

Multi-access edge computing, MEC, system and method for operating the same

Systems and methods for dynamically controlling connections between a plurality of servers in a data center, where the data center includes at least a first reconfigurable intelligent surface (RIS) and a first RIS controller (RISC) configured to control physical propagation settings of physical propagation elements of the first RIS, wherein each server of the plurality of servers includes or is communicably connected with a wireless connection component enabling communication via directive wireless propagation via the physical propagation elements of the first RIS. A controller device pushes a set of one or more RIS configurations to the RIS and a set of one or more transceiver beamforming configurations to the wireless connection components and jointly determines an optimal transceiver beamforming configuration and an optimal RIS configuration using the connection feedback information.

Reconfigurable intelligent surface-based systems and methods for managing multiple wired connections in wireless data centers

A method provides location information within a mobile network with beamforming characteristics. The mobile network includes at least one access point or base station that includes a beamforming module. The method includes tracing and maintaining user terminals' location information in a location service deployed in the mobile network, providing the location information of a user's terminal from the location service to the beamforming module of the at least one access point or base station in order to assist beamforming and association between the user's terminal and the at least one access point or base station, and providing the location information of the user's terminal from the at least one access point or base station to the location service in order to populate, update, and/or refine a location information base of the location service.

Service location method and system for mmWave cellular environments

A method for operating a wireless network, which includes a management entity for managing the use of network resources, includes, by the management entity: performing a network traffic forecast for a time period, the network traffic forecast estimating expected traffic demands with a predefined or tunable confidence degree; dividing forecasted available network resources into one or more classes of traffic corresponding to different service qualities within the classes of traffic using the confidence degree; and defining and allocating at least one network resource slice of at least one of the one or more classes of traffic to operators and/or third parties for the time period considering a service level agreement (SLA) of incoming service requests.

System and method for operating a wireless network

A method of allocating network slices of a network infrastructure includes receiving a network slice request for network resources of the network infrastructure in a form of a network slice. The network slice request includes a service level agreement (SLA) and an associated payoff. It is determined whether to accept the network slice based on whether it is expected that a utility function will be better served by accepting the network slice request or waiting for a further network slice request. It is determined whether the SLA would be fulfilled prior to allocating the network slice. The network slice is allocated and installed in the network infrastructure. Whether the utility function is better served can be determined using a value iteration algorithm or an adaptive algorithm.

Method and system for network slice allocation

A method for operating, by an MEC operator, a multi-access edge computing (MEC) system in which applications are provided by MEC tenants for deployment on MEC hosts of the MEC system and in which various levels of privileges are provided by the MEC operator to the MEC tenants. The method includes assigning, by an MEC broker, privileges to the MEC tenants; initiating, by the MEC broker via interactions with one or more of an MEC Orchestrator, an MEC platform manager, and a user app LCM proxy, operations. The operations can include one or more of application package on-boarding, application instance installation on selected MEC hosts, application provisioning, through configuration of appropriate parameters, and application life-cycle management operations including one or more of bootstrapping, termination, migration, scaling. The method further includes pre-validating, using the privileges provided to the MEC tenants, operation requests issued by the MEC tenants.

A method for Internet of Things (IoT) traffic management in a communication network supporting a plurality of network slices, in particular a 5generation wireless communication network, includes dynamically assigning, by a network slice management component, network resources to a number of network slices. One or more of the network slices are dedicated IoT network slices being adapted to enable IoT-related communications between an IoT platform and IoT devices or IoT gateways. The method also includes the network slice management component, interacting with an IoT broker associated with the IoT platform and, based on the interaction, performing actions with respect to an allocation of network resources to the number of network slices and/or triggering actions on the IoT broker with respect to a configuration of IoT data traffic.

Joint IoT broker and network slice management component

A system for localizing user devices includes an unmanned aerial vehicle (UAV). The UAV includes a transceiver configured to establish a communicative connection with a user device, and retrieve information pertaining to the user device at each of a plurality of different points in time. The UAV further includes a satellite-localization system configured to ascertain a geographic location of the UAV at each of the plurality of different points in time, and a processor. The processor is configured to, based on the information pertaining to the user device retrieved at each of the plurality of different points in time and on the geographic location of the UAV at each of the plurality of different points in time, determine a location of the user device.

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Heidelberg, Germany

Vincenzo Sciancalepore