Abstract: A method in a user equipment (UE) is disclosed. The method comprises obtaining one or more radio link monitoring configurations, each radio link monitoring configuration associated with at least one bandwidth part. The method comprises determining that the UE is to switch from a source bandwidth part to a target bandwidth part. The method comprises performing radio link monitoring on the target bandwidth part according to an obtained radio link monitoring configuration associated with the target bandwidth part.

Abstract: At least one periodic operation is configured in a wireless communication system comprising a plurality of wireless devices and a serving network serving the wireless devices. The periodic operation is selectively configurable at one of a shorter periodicity interval and a longer periodicity interval. A method implementation performed by the serving network includes obtaining speed information indicative of the speed of one or more of the wireless devices in the wireless communication system and determining, based on the speed information, whether at least one of the one or more-wireless devices is moving at a speed at or above a speed threshold. The method further comprises configuring, if it is determined that at least one of the one or more-wireless devices is moving at a speed at or above the speed threshold, the at least one periodic operation with the shorter periodicity interval.

Abstract: Systems and methods relating to a transmission timing difference between cells in a multi-carrier system in which at least one of the cells is subject to Clear Channel Assessment (CCA) before transmitting are disclosed. In some embodiments, a method of operation of a User Equipment (UE) comprises determining a transmission timing difference between a first cell that operates on a first carrier and a second cell that operates on a second carrier, wherein CCA is required to be performed on at least one of a first channel in which the first carrier is located and a second channel in which the second carrier is located before the UE is permitted to transmit. The method further comprises using the transmission timing difference for one or more operational tasks of the UE. The transmission timing difference is determined when the first channel and the second channel are available at the UE.

Abstract: The invention refers to a method in a user equipment, UE, for a measurement gap pattern configuration including receiving a configuration information indicative of a measurement gap pattern configuration, and a bandwidth part, BW, configuration, determining an association between measurement gap patterns and BW parts, receiving a message to change the active BW part to one of the configured BW parts, and changing the measurement gap pattern as a function of the corresponding BW part and the association; the invention further refers to a corresponding method in a network node; to corresponding UE, a corresponding network node, and computer programs.

Abstract: The present invention provides a muting configuration for reference signal (RS) transmission as a pattern defined by at least the combination of a muting sequence and a reference point. Muting occasions for a given wireless communication network cell thus are differentiated from another cell by use of a different muting sequence, a different reference point, or both. Moreover, in one or more embodiments, the present invention provides for the use of a common muting sequence or reference point across cells, with muting occasions being differentiated between cells through use of different reference points (in the case of a common muting sequence), or through use of different muting sequences (in the case of a common reference point), or different sequences and different reference points.

Abstract: A method for a wireless device, a wireless device, a method for a network node, and a network for acquiring system information, SI, during sounding reference signals, SRS, carrier based switching, are provided. First it is determined a need for performing SRS carrier based switching from a first cell, cell1, operating on a first carrier frequency, F1, to a second cell, cell2, operating on a second carrier frequency, F2. Secondly a system information, SI, of a third cell, cell3, on a third carrier frequency, F3, during a time period, T1 is acquired.

Abstract: A wireless communications network is described herein in which positioning measurements (e.g., inter-frequency OTDOA measurements and inter-frequency E-CID measurements) may be performed on different frequencies and measurement gaps may be requested for such measurements. In one embodiment, a radio network node (e.g., eNodeB, responsible node) is described for configuring a measurement gap for positioning to be used by a user equipment (UE).

Abstract: A method, network node and wireless device are provided in which a method in the network node for switching between different numerologies supported by the network node includes determining at least one parameter that can be used by the network node for switching between a first signal operating with a first numerology and a second signal operating with a second numerology; switching between the first signal and the second signal based on the at least one parameter; and after the switching, operating at least one of the first signal and the second signal between the network node and a second node.

Abstract: A wireless device is configured to operate in at least a first serving cell on a first carrier, and a first downlink message requests that a second serving cell on a second carrier be added or released. In response to the first downlink message, the second serving cell on the second carrier is added or released. Within a time period starting from the time resource, wireless device transmits, on the second serving cell, a first uplink message indicating completion of the addition or release of the second serving cell. The time period starting from the time reserving source is of a length that is a function of at least one parameter related to a clear channel assessment (CCA) procedure.

Abstract: There are provided methods, apparatuses, and computer programs for improving measurement of a reference signal parameter measured by a wireless device, the reference signal parameter being a parameter of a reference signal transmitted by a radio network node in a wireless communication network. An example method includes determining that the wireless device is operating with a low measurement accuracy condition that affects measurement of the reference signal parameter. A severity of the low measurement accuracy condition has a positive correlation with the quality of a channel over which the reference signal is received. The method further includes adapting a first measurement bandwidth in response to determining that the wireless device has the low measurement accuracy condition that is positively correlated with the quality of the channel. The method further includes measuring a first reference signal parameter using the adapted first measurement bandwidth.

Abstract: A wireless device and a method for a wireless device served by a first network node on a primary cell (PCell) is provided. The wireless device is capable of using at least two secondary serving cells (SCells). A first request to perform a measurement on at least one cell on a first secondary component carrier (SCC) with a deactivated first SCell using at least a first measurement cycle is received. A second request to perform a measurement on at least one cell on a second SCC with a deactivated second SCell using at least a second measurement cycle is received. An effective serving cell interruption probability (Peff) of missed at least one of Acknowledgement and Negative-Acknowledgement signaling in an uplink direction is determined based on at least the first measurement cycle and the second measurement cycle. A serving cell interruption probability is ensured to not exceed the determined Peff.

Abstract: According to some embodiments, a wireless device maintains timing associated with uplink transmissions by performing steps for each of a plurality of scheduled LBT transmission opportunities. The steps include determining whether an error in a current uplink transmission timing, with respect to a reference point based on a downlink timing for a reference cell, exceeds a predetermined threshold and adjusting the timing associated with uplink transmissions, for each scheduled LBT transmission opportunity for which the error exceeds the predetermined threshold. The steps also include performing an LBT assessment to determine whether the wireless device is permitted to transmit in the scheduled LBT transmission opportunity and, for each scheduled LBT transmission opportunity in which the LBT assessment indicates that the wireless device is not permitted to transmit, reversing any adjustment to the timing associated with uplink transmissions made for that scheduled LBT transmission opportunity.

Abstract: A wireless device is configured to perform measurements for radio resource management (RRM) and/or radio link monitoring (RLM). The wireless device performs a plurality of radio measurements. The wireless device filters at least a first subset of the radio measurements using a first filtering configuration and filters at least a second subset of the radio measurements using a second filtering configuration, where the second filtering configuration differs from the first filtering configuration. The first and second filtering configurations apply to first and second different types of reference signals, respectively, or to beam-level measurements and cell-level measurements, respectively.

Abstract: Two or more formats for Power Headroom (PH) and maximum transmit power (Pcmax), and corresponding mapping tables, are defined. For example, both 6-bit and 7-bit PH and Pcmax formats are defined. In many cases, particularly when operating in the higher frequency FR2 range, a 7-bit PH or Pcmax may be required to adequately convey power headroom information. Numerous trigger criteria are defined which may indicate that one or the other format is preferred. The format selection must be communicated to the network, and subsequent Power Headroom Reports (PHR) will utilize the selected format.

Abstract: A method in a wireless device (110A) is disclosed. The method comprises obtaining (804) information related to a signal transmission configuration for a target network node (115B), the information comprising a number of repetitions of a signal to be transmitted by the wireless device (110A) or to the wireless device (110A) by the target network node (115B) as part of performing at least one radio operation, wherein the number of repetitions is based on a coverage enhancement level of the wireless device (110A) with respect to at least one of a neighbor cell (125B) associated with the target network node (115B) and a serving cell (125A) associated with a serving network node (115A) of the wireless device (110A). The method comprises performing (812) the at least one radio operation according to the obtained information related to the signal transmission configuration for the target network node (115B).

Abstract: A D2D device for a wireless communication network is described. The D2D device comprises a set of transmitters and/or a set of receivers. Furthermore, the D2D device is adapted for determining one or more transmitters from the set of 5 transmitters and/or one or more receivers from the set of receivers, which are to be used for at least one D2D operation. There are also described related methods and devices.

Abstract: Techniques for systems in which a measuring node is associated with multiple antenna, including techniques for selecting and configuring the set of receiving antennas suitable for performing uplink measurements for a given wireless device. An example method, as implemented by a network node, is for controlling measurements of radio signals transmitted by a wireless device, where the measurements are performed by a measuring node associated with two or more receiving points. The example method begins with obtaining a receiving point configuration for at least one measuring node associated with two or more receiving points, and continues with selecting one or more receiving points for performing measurements, based on the obtained configuration. The selected receiving points are then configured for performing the measurements.

Abstract: A method for use in a wireless device comprises detecting a first set of beamformed signals from one or more cells. The method further comprises allocating beam-level filters of the wireless device to a subset of beamformed signals of the first set of beamformed signals based on the detected beamformed signals. The method further comprises monitoring the subset of the first set of beamformed signals using the allocated beam-level filters. A wireless device comprises one or more interfaces, memory, and processing circuitry. The processing circuitry is configured to execute instructions stored in the memory, whereby the wireless device is configured to perform the method above.

Abstract: According to some exemplary embodiments, a wireless device maintains timing associated with uplink transmissions by performing steps for each of a plurality of scheduled LBT transmission opportunities. The steps include performing an LBT assessment to determine whether the wireless device is permitted to transmit in the scheduled LBT transmission opportunity, determining whether or not the timing associated with uplink transmissions is to be adjusted, where said determining comprises determining to not adjust the timing associated with uplink transmissions for any scheduled LBT transmission opportunity for which the LBT assessment indicates that the wireless device is not permitted to transmit, and selectively adjusting the timing associated with uplink transmissions, based on the determining.

Abstract: The solution outlined in this disclosure is a method for determining intra-frequency operations and inter-frequency operations, the method comprises obtaining a first measurement resource of a first cell as a reference measurement resource, obtaining a second measurement resource of a second cell, the second measurement resource of the second cell and the first measurement resource of the first cell are of the same type, and determining whether the second cell operates on an intra-frequency carrier or an inter-frequency carrier by comparing the reference measurement resource to the second measurement resource of the second cell. The method may be carried out in a user equipment or a network node.