Telefonaktiebolaget Lm Ericsson (publ)

E.on Sverige Ab

Optis Wireless Technology, LLC

Idtp Holdings, Inc.

Beammwave Ab

Ericsson Gmbh

Interdigital Patent Holdings, Inc.

Velos Media, LLC

Optis Cellular Technology, LLC

Fingerprint Cards Anacatum IP Ab

Optis Circuit Technology, LLC

Bengt Lindoff

Stefan Parkvall

Johan Nilsson

Leif Wilhelmsson

Joakim Axmon

Robert Baldemair

Muhammad Ali Kazmi

Andres Reial

Bo Hagerman

Erik Bengt Dahlman

Lars Sundström

Anders Wallén

Torgny Palenius

Walter Müller

Peter Alriksson

Gabor Fodor

Magnus Åström

Fredrik Gunnarsson

Erik A Eriksson

Shehzad Ali Ashraf

Iana Siomina

Pål Frenger

Qianxi Lu

Claes Tidestav

Stefano Sorrentino

Lars Lindbom

Stefan Wager

Qingyu Miao

Osman Nuri Can Yilmaz

Niklas Andgart

Martin Hessler

Pontus Wallentin

Mårten Ericson

Icaro L J Da Silva

Jonas Kronander

Gunnar Mildh

Johan Rune

Jinhua Liu

Dennis Hui

Konstantinos Dimou

Gen Li

Zhang Zhang

Niclas Wiberg

Henrik Asplund

Karl Werner

Yi-Pin Eric Wang

Jari Tapio Vikberg

Henrik Sahlin

Magnus Stattin

Sven Oscar Petersson

Karl Norrman

Johan Torsner

Pradeepa Ramachandra

Fredrik Athley

Janne Peisa

Joachim Sachs

Kumar Balachandran

Ali S Khayrallah

Thorsten Lohmar

Johan Furuskog

Jonas Fröberg Olsson

Niklas Johansson

Jianfeng Wang

Hai Feng Wang

Zhan Zhang

Jose Luis Pradas

Andreas Bergström

Patrik Rugeland

Anders Furuskär

Martin Johansson

Mikael Coldrey

Patrik Torgny Karlsson

Johan Axnäs

Rui Fan

Christian Bergljung

Sven Erik Mattisson

Mats Fredrik Sågfors

David Astely

Jacobus Cornelis Haartsen

William O Camp, Jr

Santhan Thangarasa

Stefan Mikael Andersson

Imadur Rahman

Elias Jonsson

Yufei W Blankenship

Arne Simonsson

Riikka Susitaival

David Hammarwall

Ali Nader

Kambiz Casey Zangi

Ari Kangas

Jonas Ohlsson

Ghyslain Pelletier

George Jöngren

Johan Mikael Bergman

Stephen J Grant

Peter Hedman

Marco Belleschi

Stefan Wänstedt

Tomas Hedberg

There is provided a reflection node for handling link failure towards a network node. The reflection node includes a controller for controlling a passive meta-surface having a controllable reflection angle for reflecting radio waves over a communication channel between a network node and a wireless device. The reflection node includes a transceiver unit for receiving instructions from the network node over a control channel. The transceiver unit is configured to determine a link failure event on the control channel between the reflection node and the network node. The controller is configured to, during the link failure event, control the reflection angle of the passive meta-surface using reflection settings specified by configuration data for reflecting the radio waves over the communication channel.

Handling of link failure between a reflection node and a network node

A multi-antenna transceiver system including a group of transceiver chips, and a reference frequency generator configured to provide a reference frequency for each transceiver chip. Each transceiver chip has a respective chip-associated (e.g., on-chip) frequency generator configured to provide a respective conversion frequency based on the reference frequency, wherein each respective conversion frequency is higher than the reference frequency. Each transceiver chip is configured to use the respective conversion frequency for on-chip frequency conversion of a transceiver signal. The reference frequency may be provided directly to each transceiver chip of the group or may be provided directly to a first transceiver chip of the group and to a second transceiver chip of the group via the first transceiver chip. The multi-antenna transceiver system may also include baseband processing circuitry configured to process transceiver signals for the transceiver chips, wherein the baseband processing circuitry may be further configured to estimate a first respective phase shift of each respective chip-associated frequency generator, and compensate the transceiver signals based on the first respective phase shifts.

Frequency generation of a multi-antenna transceiver system

A filled trench is disclosed. The filled trench comprises: a pair of conduits () for delivering fluid with a different temperature in each of the conduits (), the pair of conduits () being surrounded by filling material; a first section () filled with a filling material of a first type (), wherein the first filled section () of the filled trench occupies a space in between the pair of conduits (); and a second section () filled with a filling material of a second type (). The filling material of the first type () has a first thermal conduction coefficient and the filling material of a second type () has a higher second thermal conduction coefficient. Further, a method for filling such a filled trench is disclosed.

Method for filling a trench comprising a pair of conduits and such a filled trench

Mechanisms for efficient transmission of large amount of download data from a base station to a user equipment in a multi-carrier that minimizes power consumption on the user equipment are described. When multiple component carriers are to be used to transmit the download data, the base station informs the user equipment. The base station transmits on the anchor carriers without wait after informing the user equipment and transmits on the non-anchor carriers after waiting a predetermined delay. The predetermined delay provides time to allow the user equipment to activate the receiving resources and be ready to receive the download data over the non-anchor carriers. In this manner, the user equipment can be in a power conservation mode and activate the receiver resources only when needed.

Timing of component carriers in multi-carrier wireless networks

The present invention relates to a method for controlling setting of reversible heat pump assemblies () of a district thermal energy distribution system () in either a heating mode or a cooling mode. The method comprises: determining, at a control server, a first set of the reversible heat pump assemblies () to be set in the heating mode during a future time period; determining, at the control server, a second set of the reversible heat pump assemblies () to be set in the cooling mode during the future time period, wherein the second set of the reversible heat pump assemblies () is separate from the first set of the reversible heat pump assemblies (); sending, from the control server () to the reversible heat pump assemblies () of the first set of the reversible heat pump assemblies (), a respective control message to set the respective reversible heat pump assembly () in the heating mode for the future time period; sending, from the control server () to the reversible heat pump assemblies () of the second set of the reversible heat pump assemblies (), a respective control message to set the respective reversible heat pump assembly () in the cooling mode for the future time period; and setting the respective reversible heat pump assembly () in either the heating mode or the cooling mode for the future time period.

Controlling of a thermal energy distribution system

Disclosed is a method for controlling a control valve (), wherein the control valve () is configured to control a flow of heat transfer fluid to a thermal energy extraction unit (). The method comprising: reviewing (S) a demand signal for the control valve (); checking (S) if the demand signal is indicative of setting the control valve () in a hysteresis interval for the control valve (); and upon the demand signal is indicative of setting the control valve () in the hysteresis interval, alternatingly (S) setting the control valve () in an open state above the hysteresis interval and setting the control valve () in a closed state.

Method and control unit for controlling a control valve controlling a flow of heat transfer fluid into a thermal energy extraction unit

A heat pump assembly () is presented. The heat pump assembly () comprises a heat pump () having a primary side inlet () and a primary side outlet (); a primary side inlet valve assembly () comprising: a primary side inlet connection () connected to the primary side inlet (), a primary side inlet valve first conduit connection () configured to be connected to a first conduit () of a thermal energy grid (), and a primary side inlet valve second conduit connection () configured to be connected to a second conduit () of the thermal energy grid (); a first conduit temperature determining device () configured to measure a local temperature, t, of heat transfer liquid of the first conduit (); a second conduit temperature determining device () configured to measure a local temperature, t, of heat transfer liquid of the second conduit (); and a controller (). The controller is configured to: receive hand tfrom the first and second conduit temperature determining devices (), receive information pertaining to whether the heat pump () is a heating mode heat pump or a cooling mode heat pump. The controller is configured to upon the heat pump () is the heating mode heat pump and upon t>tset the primary side inlet valve assembly () to fluidly connect the primary side inlet valve first conduit connection () and the primary side inlet connection (), primary side inlet valve assembly () to fluidly connect the primary side inlet valve or upon the heat pump () is the heating mode heat pump and upon t>t, set the second conduit connection () and the primary side inlet connection (). The controller is configured to upon the heat pump () is the cooling mode heat pump and upon t>t, set the primary side inlet valve assembly () to fluidly connect the primary side inlet valve second conduit connection () and the primary side inlet connection (), or upon the heat pump () is the cooling mode heat pump and upon t>t, set the primary side inlet valve assembly () to fluidly connect the primary side inlet valve first conduit connection () and the primary side inlet connection ().

Heat pump assembly and controlling of the same

Methods and apparatus in a fifth-generation wireless communications network, including an example method, in a wireless device, that includes determining a reporting quality threshold for a parameter related to channel state information (CSI); performing a measurement for each of a plurality of beams from a first predetermined set of beams for evaluation; evaluating the measurement for each of the plurality of beams against the reporting quality threshold; discontinuing the performing and evaluating of measurements in response to determining that the reporting quality threshold is met for one of the beams, such that one or more beams in the first predetermined set of beams are not measured and evaluated; and reporting, to the wireless communications network, CSI for the one of the beams.

Network architecture, methods, and devices for a wireless communications network

A method for controlling indoor climate in a portion () of a building () is presented. The method comprises: identifying (S), based on a wireless communication based positioning function, electronic devices () present in the portion () of the building (); for each identified electronic device, determining whether the identified electronic device is associated with a user; determining (S) an estimated total amount of heat dissipation present in the portion () of the building () based on an amount of heat dissipation associated with the respective user to which the respective identified electronic device is associated; and controlling (S) indoor climate in the portion () of the building () based on the estimated total amount of heat dissipation present in the portion () of the building (). Also, a server () and a system for performing the controlling are presented.

Method and device for controlling indoor climate in a portion of a building

A method of a wireless device comprises determining a bandwidth for monitoring a downlink control signal, determining a set of possible downlink control indicator, DCI, formats, wherein possible DCI formats are DCI formats compatible with the determined bandwidth, receiving a transmission from a network node, searching for control information in the transmission by decoding using at least one of the DCI formats of the set, and when successful decoding of the control information, performing at least one task associated with the control information. A method of a network node, comprises configuring a downlink bandwidth to be used at downlink transmissions, determining a DCI format based on the downlink bandwidth, and transmitting control information using a DCI with the determined DCI format. A wireless device and a network node which are arranged to perform the methods, respectively, and computer programs for implementing the methods are disclosed.

Methods of wireless device and network node, such wireless device and network node, and computer programs thereof

A method, controller and network node for using intelligent surfaces in a wireless communication system are disclosed. According to one aspect, method in a network node configured to communicate with a wireless device (WD), via a reconfigurable reflective surface, the reconfigurable reflective surface being controllable by a controller and being applied to a structure to controllably reflect signals exchanged between the network node and the WD. The method includes determining a configuration of the reconfigurable reflective surface associated with the WD, the determined configuration being associated with a particular reflection coefficient, transmitting to the controller of the reconfigurable reflective surface, an indication of the determined configuration, and receiving signals from the WD at least partially via reflection at the reconfigurable reflective surface.

Intelligent surfaces for use in a wireless communication system

A heat extracting system () arranged to be connected to a thermal energy circuit () comprising a hot conduit () configured to allow thermal fluid of a first temperature to flow therethrough, and a cold conduit () configured to allow thermal fluid of a second temperature to flow therethrough, the second temperature is lower than the first temperature, and a heat depositing system () arranged to be connected to a thermal energy circuit () comprising a hot conduit () configured to allow thermal fluid of a first temperature to flow therethrough, and a cold conduit () configured to allow thermal fluid of a second temperature to flow therethrough, the second temperature is lower than the first temperature. Also a heat depositing system () is disclosed.

Efficiency for a heat extracting system and/or a heat depositing system

A wireless terminal () capable of operating in a discontinuous mode comprising and method for operating such wireless terminal () facilitate measurements pertaining to position of the wireless terminal (). The method includes receiving a message from the radio access network (). The measurement request message is configured to indicate that measurements are to be performed by the wireless terminal on downlink signals transmitted by the base station or by the base station on downlink signals transmitted by the base station. The method further comprises, as a result of or after receiving the message, changing operation of the wireless terminal () from a discontinuous mode to a modified mode to facilitate performance of the measurements. Relative to the discontinuous mode at least one of following are shortened or eliminated in the modified mode: (i) the non-reception periods, and (ii) the non-transmission periods. 'Changing from a discontinuous mode . . . to a modified mode' includes one or more of: (1) changing mode of the wireless terminal (e.g., changing from a discontinuous mode [such as discontinuous reception (DRX) or discontinuous transmission (DTX)] to a continuous transmission mode); (2) changing from the discontinuous mode (a first discontinuous mode) to a modified discontinuous mode (a second discontinuous mode).

Telecommunications method and apparatus for facilitating positioning measurements

A method for handling surplus or deficit of energy in a local energy system () is presented. The method comprising: determining (S) energy status of the local energy system () based on data pertaining to the local energy system (); determining (S), for each of a plurality of moveable devices () comprising an accumulator (), an accumulator status based on accumulator data pertaining to the respective moveable device (); scoring (S), based on the determined respective accumulator statuses and the determined energy status, each of the moveable devices (); and selecting (S), based on the respective scores of each of the plurality of moveable devices (), a moveable device () among the plurality of moveable devices () to which at least one of control information or navigational information associated to the local energy system () is to be sent; and sending the control information and/or the navigational information to the selected moveable device (). Also a server () configured to handling surplus or deficit of energy in a local energy system is presented.

Handling surplus and/or deficit of energy in local energy systems

A network node, such as a base station, identifies radio resources within an overall bandwidth using a first resource referencing scheme, while a wireless communication device identifies radio resources within an allocated portion of the overall bandwidth using a second resource referencing scheme. Advantageously, the device correctly identifies given radio resources pointed to by a resource identifier expressed according to the first resource referencing scheme, by translating the resource identifier into the second resource referencing scheme according to mapping information that relates the two schemes. Correspondingly, the network node enables the wireless communication device to perform such translations by providing the mapping information either implicitly or explicitly.

Method and apparatus for identifying and using radio resources in a wireless communication network

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Bjärred, Sweden

Bengt Lindoff