Abstract: A wake-up signal includes a first part and a second part. The first part is related to a cell of a base station transmitting the wake-up signal and includes a synchronization signal for synchronizing a terminal with the base station. The second part is related to one or more terminals.

Abstract: The present disclosure provides a method, performed in a wireless device, for enabling controlled communication of non-real time data while the wireless device is registered with a radio network node for communicating real-time data. The method comprises receiving a network data indicator indicative of one or more suitable data transfer occasions to communicate the non-real time data over the radio network node. The method comprises determining based on the network data indicator whether any non-real time data is to be communicated in the one or more data transfer occasions. The method comprises, upon determining that non-real time data is to be communicated, communicating non-real time data over the radio network node to an external node at the one or more data transfer occasions.

Abstract: The invention relates to cell re-selection as a consequence of UE mobility in a scenario where coverage enhancement (CE) is employed for multiple repetitions of messages communicated on a wireless link between the UE and the network, and where a CE policy defines a repetition level. Accordingly, a communication device (130) receives at least one downlink control message (6031) from a base station (112, 112-1) of a source cell (181) of a network (100), the at least one downlink control message (6031) being indicative of access restrictions of a plurality of candidate cells (182, 183) of the network (100); more particularly, the at least one downlink control message (6031) is indicative, for each candidate cell (182, 183) of the plurality of candidate cells (182, 183), of at least one respective regulated repetition level.

Abstract: A method of operating an access node (112) of a sub-area (161) of a communication network (100) includes transmitting configuration data (4001) for wake-up signal (700, 711, 712, 4003) transmission in the sub-area (161) and in at least one further sub-area (162-168) of the communication network (100).

Abstract: An indicator (6011, 6012, 6013) associated with transmission of a plurality of repetitions (351) of data (6001, 6001-1, 6001-2, 6005) to a second device (112) is broadcasted on an open spectrum. The indicator (6011, 6012, 6013) is for control of contention-based access to the open spectrum by at least one further device (131). In response to said transmitting of the indicator (6011, 6012, 6013): a subset (6021, 6022, 6023) of the plurality of repetitions (351) of the data (6001, 6001-1, 6001-2, 6005) is transmitted on the open spectrum to the second device (112).

Abstract: A network node includes memory circuitry, processor circuitry, and an interface. The network node is configured to transmit a first resource allocation request to a first resource allocation server and a second resource allocation request to a second resource allocation server. The network node is configured to receive a first resource allocation response from the first resource allocation server and a second resource allocation response from the second resource allocation server. The first resource allocation response is indicative of a first resource grant parameter. The second resource allocation response is indicative of a second resource grant parameter. The network node is configured to operate using a combined resource pool based on the first resource grant parameter and the second resource grant parameter.

Abstract: A resource allocation server including memory circuitry, processor circuitry, and an interface. The resource allocation server is configured to communicate with a plurality of resource allocation servers including a first resource allocation server of a first network. The resource allocation server is configured to receive, from a requester, a first resource allocation request indicative of a resource type. The resource allocation server is configured to negotiate, with the first resource allocation server, an allocation of a resource based on the resource type indicated in the first resource allocation request. The resource allocation server is part of a network different from the first network.

Abstract: A wireless communication network (102) can employ techniques for the network (102) to indicate specific radio access characteristics to be used by a user equipment (100) 5 when responding to a paging message. The network (102) can indicate a specific radio access technology (RAT) that the UE (100) should use when connecting to the network (102). In this manner, the UE (100) can initiate a connection using the desired RAT rather than first initiating a connection with an incorrect RAT and performing a handover or network reconfiguration.

Abstract: A wireless communication device receives control information from the wireless communication network. The control information indicates at least a first measurement configuration for channel measurements to be applied in a first connection state of the wireless communication device and a second measurement configuration for channel measurements to be applied in a second connection state of the wireless communication device. If the wireless communication device is in the first connection state, the wireless communication device controls channel measurements by the wireless communication device according to the first measurement configuration. If the wireless communication device is in the second connection state, the wireless communication device controls channel measurements by the wireless communication device according to the second measurement configuration.

Abstract: Method, carried out in a radio terminal (130), for configuring uplink output power of radio transmission from the radio terminal, comprising determining (402) a demand power reduction (P-MPR1) based on a maximum power level associated with a first uplink duty cycle (UDC1); transmitting (403), to a radio network node (120), an indication (233) of the demand power reduction; receiving (404), from the network node, an indication (253) of a target power reduction (P-MPR2) associated with an actual uplink duty cycle (UDC2); and configuring (406) the output power based on the target power reduction.

Abstract: The present disclosure provides a method performed in a wireless device, for enabling communication of additional data in connection with a pre-allocated uplink data transmission. The method comprising communicating between the wireless device and a radio network node, using one or more resources associated with the pre-allocated uplink data transmission, a data indicator indicating that the additional data is to be communicated. The method comprises communicating the additional data, between the wireless device and the radio network node, based on the communicated data indicator.

Abstract: A method for monitoring wireless data communication by a user equipment connected to a wireless data network is disclosed. The method, which is performed by the user equipment, comprises the a) receiving at least one signal, wherein the at least one signal comprises at least one characteristic of a wake-up signal, b) determining whether the at least one signal is a wake-up signal or a false alarm wake-up signal, and c) reporting, based on said determining, information on the at least one signal to the wireless data network.

Abstract: A wake-up signal (700-706) is associated with a plurality of paging occasions (4901-4904) for a plurality of terminals (102, 102-1-102-8). Each one of the plurality of paging occasions (4901-4904) is associated with one or more of the plurality of terminals (102, 102-1-102-8).

Abstract: A method includes, by using a first data connection (160) between a network (100) and a terminal (102), communicating, from a network node (112) of the network (100) to the terminal (102), a downlink control message (452) indicative of a timing (501) of a reserved resource (258) reserved for communication between the network (100) and the terminal (102). The reserved resource (258) is dimensioned based on a predicted size of a data transmission (401-403, 405-407) predicted by the network (100). The method also includes performing a connection release (453) of the first data connection (160). The method also includes, in accordance with the timing (501) and using the reserved resource (258), performing a network access (454) to establish a second data connection (160) between the terminal (102) and the network (100).

Abstract: Described below, in conjunction with the appended figures, are various embodiments of systems and methods for bandwidth Wireless Network Node part (BWP) flexibility for initial access to a wireless communications system over an unlicensed RF range. A network node of a network communications system can configure and provide multiple initial bandwidth parts, which are smaller portions of a carrier, or total system bandwidth. The network node can provide the initial bandwidth parts for initial access to the network node by a wireless device. A wireless device can perform random access transmissions on one of the provided initial bandwidth parts.

Abstract: A method, a device, and a non-transitory storage medium having instructions to receive a request to begin an adaptive streaming session; receive, in response to receiving the request, context information, wherein the context information pertains to a link state between the device and another device that provides a streaming media; calculate, based on the context information, values for dynamic parameters pertaining to the adaptive streaming session, wherein the dynamic parameters pertain to buffer management and codec selection; and provide, based on the values for the dynamic parameters, the streaming media to a user.

Abstract: Network assistance is provided for the streaming of multi-segment data from a data source (12) to a streaming client (54) in a network. The network assistance for multi-segment data streaming may be carried out in an automated manner by the respective devices. The systems and methods include new functions that allow for more efficient handling of data segments that make up a data stream. The network assistance for multi-segment streaming may improve, for example, virtual reality (VR) streaming performance.

Abstract: A Framework for Live Uplink Streaming (PLUS) session between a PLUS source (100) and a PLUS sink (200) is initiated and controlled by the PLUS sink. The PLUS source registers with the PLUS sink and indicates its capabilities. The PLUS sink requests establishment of the session and further controls the session once established. The PLUS sink sends control requests that include control information to the PLUS source, thereby controlling media streaming at the PLUS source remotely.

Abstract: A method, performed at a first network node, for up-link-based mobility management is disclose. The method comprises generating one or more configuration messages including generating a first configuration message for configuration of uplink-based mobility, the first configuration message comprising one or more first configuration parameters indicative of an uplink-based mobility scheme for a wireless device; and transmitting the first configuration message to the wireless device.

Abstract: A solution for signaling control information between a network node (10) and a UE (1) in a wireless communication system, which includes a method carried out in the network node, comprising transmitting (S101), to the UE on a control channel, first control information (S1) associated with a first transmission (S2) between the network node and the UE; transmitting (S103, S104), to the UE, an indication signal (S3) instructing the UE to reuse obtention information (DCI1, PAR) associated with the first control information for a further transmission between the network node and the UE. The indication signal may instruct the UE to reuse the first control information (DCI1) as said obtention information, or the obtention information may be indicative of a decoding parameter (PAR) to be used for decoding further control information (S4).