Telefonaktiebolaget Lm Ericsson (publ)

Per Persson

Robert Baldemair

Bengt Lindoff

Paul Schliwa-Bertling

Yufei W Blankenship

Yi-Pin Eric Wang

John Walter Diachina

Sorour Falahati

Pradeepa Ramachandra

Miguel Lopez

Kumar Balachandran

Joachim Sachs

Torsten Dudda

Osman Nuri Can Yilmaz

Jonas Fröberg Olsson

Jose Luis Pradas

Niklas Andgart

Magnus Åström

Magnus Norberg Olsson

Mattias Andersson

Sándor Rácz

János Farkas

Song Yuan

Ying Sun

Dinand Roeland

Henrik Enbuske

György Miklós

Patrik Salmela

Stefano Ruffini

Bernard Smeets

Nianshan Shi

José Araújo

Zhenhua Zou

Sara Sandberg

Dennis Sundman

Anna Larmo

Balázs Varga

Magnus Sandgren

Kittipong Kittichokechai

Geza Szabo

Harald Gustafsson

Kimmo Juhani Hiltunen

Alexey Shapin

Xing Danielsson Fan

Norbert Reider

András Kern

Abdulrahman Alabbasi

Joakim Persson

Zsolt Kenesi

Alexandros Palaios

Ola Angelsmark

Gabor Nemeth

Kun Wang

Johan Lundsjö

Björn Johansson

Bikramjit Singh

Majid Gerami

Dhruvin Patel

Hubertus Andreas Munz

Patrik Persson

Mårten Wahlström

Beatriz Grafulla-González

Johan Kristofer Olsson

Gábor Németh

Géza Szabó

Fredrik Svensson

Johannes Nygren

Christoffer Jerkeby

Anders Höglund

Muhammad Ikram Ashraf

Jan Patrik Persson

Sanbao Xu

Torgny Holmberg

Per Skarin

Beatriz Grafulla-Gonzalez

Fedor Chernogorov

Malgorzata Svensson

Robert Marklund

Wolfgang Tonutti

Jonas Olsson Fröberg

Norberg Reider

Systems and methods of deploying a program to a distributed network are provided. In one exemplary embodiment, a method is performed by a node () that is associated with a set of distributed nodes (-) in a distributed system (). Further, functions (-) of a program () are distributable among the set for execution of the program. The method includes obtaining () an execution pattern () of the program and a sleep requirement (-) of at least one distributed node. The method also includes dynamically deploying () the functions of the program to all or a portion of the set for execution of the program by the set based on the execution pattern of the program and the sleep requirement of the at least one distributed node.

Systems and methods of deploying a program to a distributed network

A brokering service apparatus () and method therein () for assisting a first node () to roam in multiple mesh networks () are disclosed. The multiple mesh networks () comprises a first network () comprising a first node () and a gateway node () and a second network () comprising a gateway node (). The multiple mesh networks () further comprises a mesh node () which may belong to either the first network (), the second network () or a third network (). The brokering service apparatus receives a connection request associated with the first nodeand the first network (), the connection request is sent by the first node () via the mesh node (). The brokering service identifies the first network () and data requirements for the first node () and negotiates a roaming contract between a first NMS () associated with the first network () and at least a second NMS () associated with the second network (). When the roaming contract is established, the brokering service transmits a roaming accept message to at least the second NMS () of the second network ().

Brokering service apparatus and method therein for assisting roaming in multiple mesh networks

A first device uses a first runtime environment executing on the first device to transfer a code module to a second runtime environment executing on a second device. The code module is configured to execute within the second runtime environment and expose a function of the second device that is supported by the second runtime environment to the first device. The first device executes an application within the first runtime environment. The application remotely invokes the function of the second device via the transferred code module and the second runtime environment.

Secure device operation using transferred code modules

A method for use in a haptic device, comprising a first haptic presentation device, said method comprising: receiving a haptic model comprising one or more haptic objects being associated with haptic properties; determining at least one location property of at least a first and a second of the one or more haptic objects, wherein the location property is related to a location of the corresponding haptic object; determining a relation between haptic properties of the first and second haptic objects; and adapting at least one haptic property of one or both of the first and second haptic objects, based on the at least one location property and the determined relation between the haptic properties of the first and second haptic objects.

Perception of haptic objects

A migration service and module for software modules are disclosed. The migration service detects a security flaw in a first environment in which the software modules are running and migrates the software modules or part of the software modules from the first environment to a second environment when a security flaw is detected.

Migration service method and module for software modules

The invention relates to the field of data processing in a distributed environment, and more particularly control of movement of data and processes so as to achieve a protection that ensures that sensitive data and processes is not moved to untrusted domains. This is achieved by a method and apparatus for tagging of data with a trust level, comprising configuring a data analysis policy for mapping data elements to one of a number of trust levels; receiving a data flow; inspecting the data flow and identifying data elements to be tagged; for a data element to be tagged, analyzing the data element and mapping it to a trust level according to the data analysis policy; and adding the mapped trust level to the data element. This is further achieved by a method and apparatus for data protection, comprising: within a domain as defined by a boundary () within which controlled trust levels prevail, starting a service request with associated data to be processed; inspecting a trust level of the data; locating a processing unit (PU) having an associated trust level. Depending on the location of the processing unit within or without the domain, and on the trust level of the located processing unit relative to the trust level of the data, the data is sent out from the domain to the processing unit for processing; or sent to the processing unit configured inside the domain for processing; or the trust level of the data is downgraded to be equal or less than the trust level of the processing unit, and the downgraded data is sent out from the domain to the processing unit for processing.

Data protection control

A computing device supports distributed application execution by sending a code module to different remote devices that have different device-specific support for a platform-independent device function, and sending, to at least two of the different remote devices, a platform-independent message indicating an event has occurred in order to trigger each of the at least two of the different remote devices to autonomously select a device-specific function from a plurality of device-specific functions, and execute the different device-specific support for the platform-independent device function. Each of the at least two of the different remote devices comprises an output interface and triggering each of the at least two of the different remote devices to execute the different device-specific support comprises triggering each of the at least two of the different remote devices to use their output interface for outputting differently from each other.

Distributed application execution based on device-specific support for platform-independent device functions

A method of a controller node arranged to act with or within a cellular radio access network, RAN, is disclosed. The method comprises determining mobility data for UEs in active mode in at least a part of the RAN, estimating mobility data for UEs in idle mode in the at least the part of the RAN and determining reliability of the mobility data estimates, causing the RAN to page, when reliability of mobility data estimates of a set of the idle UEs is below a threshold, the set of the idle UEs and receive updated position information for the mobility data estimates, and determining a mobility situation within the at least the part of the RAN from the determined mobility data for the active UEs and the estimated mobility data for the idle UEs. The method further comprises comparing the determined mobility situation with one or more stored mobility situation data, and taking one or more control actions for the RAN when a change or anomaly is discovered in the determined mobility situation and based on the comparison. Such a controller node and a computer program therefor are also disclosed.

Controller node, method and computer programrat

The present disclosure relates to methods of metering, and in particular to methods of metering activities of applications in distributed networks. More particular, the disclosure concerns a method for metering the operation of distributed Internet of Things, IoT devices. This disclosure relates to a method for metering activities of an application in a data processing system, wherein said data processing system comprises resource nodes configured to perform activities executed as actors in the respective resource nodes; and wherein the actors are controlled by one or more runtimes in the data processing system. The method comprises tracing, by a runtime, information related to activities executed by actors controlled by the runtime, and metering, by the runtime, the operation of the application based on the part of the traced information, which is related to activities of actors being used by the metered application. Furthermore, the disclosure relates to corresponding apparatuses and computer programs.

Managing metering for distributed IoT applications

The proposed technology generally relates to sending a data packet from a first node to a second node, wherein there is a direct link to the second node from the first node. The method comprises the steps of: determining a first power metric associated with transmitting the data packet from the first node to the second node on the direct link; when the determined first power metric is above a first power level then determining a first set of aggregation nodes, being within reach of the first node, wherein each aggregation node in the set is comprised in a respective alternative transmission path from the first node to the second node; for each aggregation node in the first set determining a second power metric associated with transmitting the data packet to from the first node to the second node via the aggregation node; selecting a transmission path for sending the data packet from the first node to the second node based on a comparison of the first power metric and the second power metric(s) and sending the packet on the selected transmission path. One aspect of the proposed technology relates to a method and ending a data packet from the first node to a second node as well as a corresponding device and computer program.

Method and apparatus for data packet transmission

Methods and apparatus for dynamic instruction set selection for producing an output parameter based on one or more available input parameters are presented. In an example method, a device selects, from different candidate instruction sets that are each configured to produce a same output parameter, an instruction set that requires one or more input parameters that are each available at the device. In addition, in the example method, the device obtains the output parameter by executing the selected instruction set using the input parameters required by that instruction set. In some examples where more than one candidate instruction sets could be selected based on the available input parameters, the device may select the highest-ranking instruction set for execution.

Methods and apparatus for dynamically selecting an instruction set

A first deployment node connectable to a plurality of neighboring deployment nodes of a distributed deployment network for distributed deployment of a software application separable into a plurality of executable software modules is disclosed. The first deployment node comprises a hardware arrangement, a deployment operating system, and a deployment node interface. The deployment node interface is adapted to establish a connection between the first deployment node and the plurality of neighboring deployment nodes. The hardware arrangement is adapted to keep (for each of the neighboring deployment nodes) a node rating value associated with the neighboring deployment node and at least one group rating value associated with a group of deployment nodes comprising the neighboring deployment node. The deployment operating system is adapted to transfer a first executable software module for deployment from the first deployment node to a neighboring deployment node selected among the neighboring deployment nodes based on the node rating values and the group rating values of the neighboring deployment nodes. The deployment operating system is also adapted to perform an assessment of the deployment of the first executable software module at the selected neighboring deployment node, update the node rating value and the group rating value associated with the selected neighboring deployment node based on the assessment and transmit the updated node rating value and the updated group rating value associated with the selected neighboring deployment node to the plurality of neighboring deployment nodes.

Distributed deployment based on rating values

A computing device supports distributed application execution by receiving an application definition that identifies a plurality of platform-independent device functions to be performed by an application, and mapping the platform-independent device functions to corresponding code modules stored in a code module repository. The computing device distributes the corresponding code modules to a plurality of remote devices for distributed execution of the application by the remote devices according to device-specific support for the platform-independent device functions by the remote devices. The distributing includes sending a given code module to different remote devices that have different device-specific support for the platform-independent device function corresponding to the given code module.

Growing community of inventors

Södra Sandby, Sweden

Per Persson