Abstract: A heat-flux sensor includes first and second pieces made of different materials and arranged to constitute a contact junction for generating electromotive force in response to a temperature difference between the first and second pieces. The heat-flux sensor includes a first electric conductor connected to the first piece and a second electric conductor connected to the second piece so that the electromotive force is detectable from between ends of the first and second electric conductors. The mass and the heat capacity of the second piece are significantly greater than those of the first piece so that a heat-flux across the contact junction causes a temperature difference between the first and second pieces but no significant temperature change in the second piece. Thus, the electromotive force caused by the temperature difference is indicative of the heat-flux.

Abstract: A device (100) for a wireless communication system (500) is described, the device comprising: a radio transceiver (102) configured to transmit data signals in a plurality of different supported transmit Multiple Input Multiple Output, MIMO, TX-MIMO, modes. The radio transceiver (102) is further configured to transmit capability information including power information indicating a maximum output power for at least one of the plurality of different supported TX-MIMO modes. A network node (200) for the communication system (500) and methods for the device (100) and the network node (200) are also described.

Abstract: The present invention relates to a user device and a network node. The user device (100) comprises a processor (102), and a transceiver (104); wherein the processor (102) is configured to: operate the transceiver (104) in a first mode of operation (M1) in which the transceiver (104) is configured to receive Radio Frequency, RF, signals and to transmit RF signals; or operate the transceiver (104) in a second mode of operation (M2) in which the transceiver (104) is configured to transmit RF signals and not to receive RF signals.

Abstract: A request for a capability report is sent to one or more user equipment from at least one access point (200). The requested capability report indicates an actual amount of maximum power reduction and/or additional maximum power reduction applied to one or more network signalling values by the one or more user equipment, which can be can be absolute values or delta. The capability report is sent only if it is determined that an actual amount of maximum.

Abstract: Measures for mitigating interference in wireless communications of a user equipment comprising a plurality of radio transceivers. The user equipment determines that wireless communication using a given combination of uplink and/or downlink carrier bands associated with the plurality of radio transceivers causes an interference scenario. In response to the determination, the user equipment transmits, into a radio network, an indication of at least one preferred uplink carrier band for at least one of the plurality of radio transceivers. The indication transmitted by the user equipment is received at a network node in the radio network which may choose to carryout radio resource control in the radio network at least on the basis of the received indication.

Abstract: Method, apparatus, and computer program product example embodiments are disclosed for cognitive radio systems and methods employing software defined radio techniques to control and configure multiradio hardware in wireless communications. The example embodiments provide a virtualized RF platform for RF configuration and system level performance optimization. The example embodiments may be flexibly distributed between system, protocol, and hardware dependent functions. The example embodiments enable transport independent usage of RF to support multiple concurrent data flows and to support local decisions as to which protocols to use to fulfill application level connectivity demands. The example embodiments allow mutual assistance in protocol selection, independent of the underlying platform implementation.

Abstract: There are provided measures for enabling a terminal-assisted improvement of timing-based positioning accuracy. Such measures may exemplarily include measuring a cell-related timing value for timing-based positioning calculation on the basis of a cell-originated positioning-related signal and measuring a terminal-related timing value for timing-based positioning calculation at an apparatus to be positioned, and utilizing the measured cell-related timing value and the measured terminal-related timing value for timing-based positioning calculation relating to the apparatus to be positioned at a network side.

Abstract: In a non-limiting and exemplary embodiment, a method is provided arranging control of multiple radio systems of a wireless communications device. A second scheduler performs proactive scheduling decisions on the basis of radio resource usage requirements of radio systems of the wireless communications terminal device and sending information on the proactive scheduling decision to a first scheduler. The first scheduler performs reactive scheduling decisions on the basis of the proactive scheduling decision information from the second scheduler.

Abstract: There are provided measures for enabling an improvement of timing-based positioning accuracy.

Abstract: There are provided measures for enabling a terminal-assisted improvement of timing-based positioning accuracy. Such measures may exemplarily include measuring a cell-related timing value for timing-based positioning calculation on the basis of a cell-originated positioning-related signal and measuring a terminal-related timing value for timing-based positioning calculation at an apparatus to be positioned, and utilizing the measured cell-related timing value and the measured terminal-related timing value for timing-based positioning calculation relating to the apparatus to be positioned at a network side.

Abstract: There are provided measures for enabling a sensor-assisted improvement of timing-based positioning accuracy. Such measures may exemplarily include measuring a first timing value for timing-based positioning calculation on the basis of a first positioning-related signal at a first time, measuring a second timing value for timing-based positioning calculation on the basis of a second positioning-related signal at a second time, deriving movement information indicative of a movement of an apparatus to be positioned during a time interval from the first time to the second time, and utilizing the measured first timing value, the measured second timing value and the derived movement information for timing-based positioning calculation relating to the apparatus to be positioned at a network side.

Abstract: A method, apparatus and computer program product are provided in order to dynamically select a network configuration that results in reduced power consumption by the mobile terminal. In this regard, a method is provided that includes characterizing an upcoming communication, wherein the characterization comprises at least one of transmission or reception. The method further includes determining a proposed network configuration based on a determined power consumption level of one or more network configurations available in a geographical area and the characterization of the upcoming communication. The method also includes causing the preferred configuration to be transmitted to a network entity.

Abstract: Method, apparatus, and computer program product example embodiments are disclosed for cognitive radio systems and methods employing software defined radio techniques to control and configure multiradio hardware in wireless communications. The example embodiments provide a virtualized RF platform for RF configuration and system level performance optimization. The example embodiments may be flexibly distributed between system, protocol, and hardware dependent functions. The example embodiments enable transport independent usage of RF to support multiple concurrent data flows and to support local decisions as to which protocols to use to fulfill application level connectivity demands. The example embodiments allow mutual assistance in protocol selection, independent of the underlying platform implementation.

Abstract: In a non-limiting and exemplary embodiment, a method is provided arranging control of multiple radio systems of a wireless communications device. A second scheduler performs proactive scheduling decisions on the basis of radio resource usage requirements of radio systems of the wireless communications terminal device and sending information on the proactive scheduling decision to a first scheduler. The first scheduler performs reactive scheduling decisions on the basis of the proactive scheduling decision information from the second scheduler.

Abstract: A power management device providing a power amplifier with power supply voltage is provided. The power management unit includes a parallel-hybrid amplitude modulator apparatus having a linear part configured to track frequency components of an input signal above a determined threshold frequency and a switching part arranged in parallel with the linear part and configured to track frequency components of the input signal below the determined threshold frequency. Additionally, the power management unit includes a current sensing and controlling part configured to determine the level of a direct current component at an output of the linear part and control the switching part to produce an output signal compensating for the direct current component at the output of the linear part to decrease the absolute level of the direct current at the output of the linear part.

Abstract: A power management device providing a power amplifier with power supply voltage is provided. The power management unit includes a parallel-hybrid amplitude modulator apparatus having a linear part configured to track frequency components of an input signal above a determined threshold frequency and a switching part arranged in parallel with the linear part and configured to track frequency components of the input signal below the determined threshold frequency. Additionally, the power management unit includes a current sensing and controlling part configured to determine the level of a direct current component at an output of the linear part and control the switching part to produce an output signal compensating for the direct current component at the output of the linear part to decrease the absolute level of the direct current at the output of the linear part.