Abstract:
In one embodiment, a collaborative service set (CSS) includes a controller access point (AP) configured to be associated with a first plurality of stations and a first member AP, where the first member AP is associated with a second plurality of stations, where the controller AP is configured to coordinate transmissions between the first member AP and the second plurality of stations with transmissions between the controller AP and the first plurality of stations, where the controller AP and the first member AP are configured to transmit messages simultaneously.
Abstract:
Embodiments of the present disclosure describe techniques and configurations for resource management associated with communications in multiple radio access networks. In one example, a method of resource management may include obtaining quality of experience (QoE) information from a network server running deep packet inspection or an application executing on a computing device and configured to provide content to the computing device for user access, and determining whether to adjust the content delivery via at least one of the two radio access networks, based at least in part on the quality experience information. The adjustment may include increasing or reducing the content delivery via one of the radio access networks. The content may be delivered to the computing device via at least two radio access networks substantially simultaneously. Other embodiments may be described and/or claimed.
Abstract:
The embodiments herein relate to a method performed in a user equipment, a user equipment, a method performed in a network node and a network node for controlling glitch behavior of the user equipment. The method comprising: receiving a message from the network node. Determining if the message includes an indicator indicating if the UE shall perform a glitch at cell configuration or at cell activation, and performing the glitch depending on the indication received in the message.
Abstract:
A 3GPP monitoring architecture framework provides monitoring event configuration, detection, and reporting for machine-type and other mobile data applications using a machine type communication interworking function (MTC-IWF) that communicates monitoring event configuration, detection, and reporting messages through existing interfaces, such as Tsp, T4, and T5 interfaces.
Abstract:
A 3GPP monitoring architecture framework provides monitoring event configuration, detection, and reporting for machine-type and other mobile data applications using a machine type communication interworking function (MTC-IWF) that communicates monitoring event configuration, detection, and reporting messages through existing interfaces, such as Tsp, T4, and T5 interfaces.
Abstract:
According to example embodiments, a method for wireless communications includes identifying at least one UE capable of being served by a plurality of transmission points (TPs) on a first frequency or by a relay on a second frequency, evaluating a first performance metric conditioned on the UE being served by the relay and a second performance metric conditioned on the UE being served by the plurality of TPs, deciding whether the UE should be served by the plurality of TPs on the first frequency or by the relay on the second frequency, based, at least in part, on the first and second performance metrics, and taking action to switch the UE to or from being served by the relay or the plurality of TPs, based on the decision
Abstract:
A cloud-based wireless communication system (1) comprising user devices (12) arranged to receive services through any of a plurality of cloud-based virtual networks. The system has a plurality of base stations or access points (14), a user device (12) being arranged to wirelessly connect to any of the virtual networks via at least one base station (14) in order to receive from a virtual network a specific service for which a user of the user device has subscribed. There are virtual service anchors or vSAs (26) in the cloud, each virtual service anchor provided for a respective service provided by its virtual network. Thus, one vSA (26) handles resource allocation for all users of one service in one virtual network. Each vSA (26) receives content access requests (S10) from user devices (12) indicating content to be accessed in that vSA's service, the content stored by at least one content delivery node in the cloud. The vSA (26), in response to the content access requests, identifies (S12, S14) at least one suitable Content Delivery Node based on the indicated content and base stations proximate to the user device, and transmits service requests (S16, S22). In response to service requests received from multiple vSAs (26), each base station (14) performs second resource allocation, to provide services to each user device (12) wirelessly connected to that base station (14).
Abstract:
A method and a remote digital unit in a central office of a core network, for handling a radio communication for a mobile terminal (T1) being connected to an access point (302) at a local site (300). The remote digital unit determines that the mobile terminal can be served locally by a local digital unit (308) connected to a local signal switching unit (304) at the local site, and instructs the local digital unit to locally process signals to or from the mobile terminal in the communication. The remote digital unit further schedules the signals over a radio interface between the mobile terminal and the access point, and sends (316) updated scheduling information to the local digital unit to indicate the scheduling, thereby enabling the local digital unit to handle the radio communication according to the updated scheduling information. In this way, the functionality of a base station is divided into a relatively simple digital unit and switching function at the local site and a more advanced digital unit with scheduling function at the central office, such that the costs for implementing radio access at a local site are low and tromboning of communicated signals over the core network can be avoided.
Abstract:
Embodiments of the present invention relate to the field of communications technologies, and provide a communication method, a base station, user equipment, and a system. The method includes: receiving uplink data that is sent by the user equipment in a specified multiple-access manner on a time-frequency resource corresponding to the specified multiple-access manner; and sending downlink data to the user equipment in a corresponding multiple-access manner on a time-frequency resource corresponding to the corresponding multiple-access manner, where the corresponding multiple-access manner is a multiple-access manner that is obtained by searching the at least two multiple-access manners according to a prestored correspondence and that is associated with the specified multiple-access manner received by the uplink receiving module. In this way, a problem that because one multiple-access manner is used in a same communications system, requirements of different user equipments cannot be met at the same time is resolved, and an effect of meeting requirements of different user equipments is achieved because a same communications system can provide multiple multiple-access manners at the same time for selection by user equipment.
Abstract:
An exemplary technique is provided for communication in a personal area network. The technique includes transmitting, to a personal area network coordinator, joint information of a sensor device indicated by reserved bits and includes a type, a channel access rate, and a latest node buffer occupation rate of the sensor device; receiving, from the personal area network coordinator, information regarding adjusted active duration and duty cycle of the communication of the sensor device; and performing further communication based upon the adjusted active duration and duty cycle. Also, the technique includes receiving, from a sensor device, joint information indicated by reserved bits and includes a type, a channel access rate, and a latest node buffer occupation rate of the sensor device; adjusting an active duration and a duty cycle of the communication of the sensor device; and transmitting information regarding the adjusted active duration and duty cycle to the sensor device.