Telefonaktiebolaget Lm Ericsson (publ)

Axis Ab

Ola Angelsmark

Per Persson

Harald Gustafsson

Joakim Persson

Robert Baldemair

Paul Schliwa-Bertling

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

Mattias Andersson

Sándor Rácz

János Farkas

Ying Sun

Dinand Roeland

Henrik Enbuske

György Miklós

Patrik Salmela

Stefano Ruffini

Nianshan Shi

Bernard Smeets

José Araújo

Zhenhua Zou

Sara Sandberg

Anna Larmo

Magnus Sandgren

Torgny Holmberg

Balázs Varga

Kittipong Kittichokechai

Geza Szabo

Andreas Johnsson

Alexey Shapin

Norbert Reider

András Kern

Abdulrahman Alabbasi

Mats Klingberg

Alexandros Palaios

Zsolt Kenesi

Gabor Nemeth

Kun Wang

Johan Lundsjö

Bikramjit Singh

Johan Kristofer Olsson

Majid Gerami

Sambit Nayak

Hubertus Andreas Munz

Dhruvin Patel

Filip Oredsson

Mårten Wahlström

Fredrik Svensson

Johannes Nygren

Anders Höglund

Muhammad Ikram Ashraf

Bjarne Rosengren

Christoffer Jerkeby

Per Skarin

Fedor Chernogorov

Malgorzata Svensson

Rodrigo Berg

Wolfgang Tonutti

Johan Olsson

Johan Åman

Rakesh Ranjan

Fredrik Nyberg

Daniel Malmgren McGee

Per Smitt

Daniel Malmgren Mcgee

Techniques for enhancing performance in Industrial Internet-of-Things (IIoT) scenarios, including techniques for time-sensitive networking (TSN) and 5G wireless network integration. An example method, performed by a wireless device, comprises receiving system information (SI) from a radio base station (RBS) of a radio access network (RAN), the SI being indicative of support for TSN through the RBS, and establishing at least one TSN stream with an external data network, through the RBS. The example method further includes receiving a first timing signal from the wireless communications network, via the RBS, receiving a second timing signal from the external TSN data network to which the wireless device is connected, comparing the first timing signal to the second timing signal to determine an offset, and transmitting the offset to the wireless communications network.

Industrial automation with 5G and beyond

A method for providing data streams to a consuming client over a network interface wherein the data streams comprise message data streams based on streaming nodes indicative of message topics configured for storing and streaming message data, wherein each of the streaming nodes represents a data source device, and wherein interconnections between the streaming nodes define relationships between the streaming nodes is disclosed. The method comprises, by a routing component; receiving (), from a consuming client, a request comprising a query for a set of streaming nodes and corresponding data, wherein each streaming node of the set of streaming nodes is associated with each other via one or more interconnections in the set of streaming nodes, obtaining () a container comprising the set of streaming nodes and corresponding data from a database based on the query of the received request, wherein the corresponding data comprises at least one message stored in a streaming node of the set of streaming nodes, deriving () correlated data based on the obtained container, and providing (), to the consuming client, the set of streaming nodes and the derived correlated data in message data streams. Corresponding computer program product, arrangement, routing component, and system are also disclosed.

Providing data streams to a consuming client

A method and a network agent for providing cell assignment for a wireless device served by a network node. An input vector is created for a set of candidate cells based on measurements by the wireless device and/or by the network node related to performance and signals. A future effect of assigning the wireless device to a candidate cell is estimated for each candidate cell by applying the created input vector to an effect estimation function which may be a Q-learning function. A cell in the set of candidate cells is then determined and assigned for the wireless device, based on the estimated future effects of the candidate cells. The cell that provides the best future effect may be selected for cell assignment.

Method and network agent for cell assignment

There is provided mechanisms for initiating deployment of an instance of an actor. A method is performed by a peer runtime environment. The method comprises obtaining an indication of changed dynamic capabilities of a first runtime environment. The method comprises evaluating, based on the changed dynamic capabilities, constraints for actor initiation at the first runtime environment. The method comprises initiating deployment of the instance of the actor at the first runtime environment when the constraints are met.

Deployment of actor instances

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 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

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

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 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.

A method disclosed may include storing event data in a physical access control system originating from a first device of a plurality of security devices in a first data area of a memory. The method may include storing event data originating from devices other than the first device in a second data area. The method may include removing the event data from the first data area to prevent the first data area from occupying more than a first memory space and removing the event data from the second data area to prevent the second data area from occupying more than a second memory space. The method may include distributing the event data from the first data area to the other devices through a network interface.

Distributed events in an access control system

The present invention is directed towards a method for collecting information pertaining to an audio notification system comprising a plurality of audio devices and a database, wherein each of the plurality of audio devices comprises a loudspeaker and a microphone, the method comprising: sequentially for each of the plurality of audio devices: emitting, by means of the loudspeaker of a currently emitting audio device, an audible test sound; monitoring, by means of microphones of the audio devices in the system, for the audible test sound; and for each monitoring audio device, if the audible test sound is detected by the monitoring audio device, storing, in the database, information pertaining to the currently emitting audio device and information pertaining to the monitoring audio device detecting the audible test sound.

Method for collecting information pertaining to an audio notification system

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Ystad, Sweden

Ola Angelsmark