Abstract:
The present disclosure relates to a device for use in a wireless network, the device including: a processor configured to: provide input data to a trained machine learning model, the input data representative of a network environment of the wireless network, wherein the trained machine learning model is configured to provide, based on the input data, output data representative of an expected performance of a plurality of configurations of network components with respect to power consumption and performance of the wireless network; select a configuration of a network component from the plurality of configurations based on the output data of the trained machine learning model; and instruct an operation of the network component according to the selected configuration; and a memory coupled with the processor, the memory storing the input data provided to the trained machine learning model and/or the output data from the trained machine learning model.
Abstract:
Methods, apparatus, systems, and articles of manufacture are disclosed for data resiliency in an edge network environment. An example apparatus includes at least one memory, instructions in the apparatus, and processor circuitry to at least one of execute and/or instantiate the instructions to generate spectrum metadata based on spectrum data, determine a resiliency operation based on one or more resiliency requirements, generate a resiliency policy based on at least one of the resiliency operation or the one or more resiliency requirements, generate a resiliency operation map based on at least one of the resiliency policy or first identifiers of respective workloads associated with the network environment, the first identifiers including a second identifier, and, in response to identifying a FAFO event associated with the second identifier, execute the resiliency operation based on mapping the second identifier to the resiliency operation in the resiliency operation map.
Abstract:
The method (600) involves receiving a configuration of discontinuous reception (610) that is levelled with a multi-radio wireless device e.g. cell phone, from an evolved node B. The wireless device is arranged with a set of radio operated transmitter-receivers. The configuration of discontinuous reception is applied (620) to one of the set of radio operated transmitter-receivers. A shift period is selected (630) among a cycle of 2 milliseconds (ms), 5ms, and 8ms for long discontinuous reception cycle. Independent claims are also included for the following: (1) a multi-radio wireless device (2) a computer readable medium comprising instructions for performing an interference reduction method.
Abstract:
Some demonstrative embodiments include devices, systems and methods of selecting a mobility mode of a User Equipment (UE). For example, a UE may include a Wireless Local Area Network (WLAN) transceiver; a cellular transceiver to communicate with a cellular node; an Access Network Discovery and Selection Function (ANDSF) client module to communicate with an ANDSF server; and a controller to select a WLAN mobility mode from a cellular/WLAN aggregation mode and an ANDSF mode.
Abstract:
An integrated WLAN/WWAN Radio Access Technology (“RAT”) architecture is described, in which signaling used to control the integration of the WLAN/WWAN architecture is performed over the Packet Data Convergence Protocol (“PDCP”) layer, and/or at other layers (e.g., a layer between the PDCP layer and the Internet Protocol (“IP”) layer). When involving the PDCP layer, non-standard PDCP packets, including variable length PDCP packets, may be used. The integrated architecture may provide a network controlled framework for performing traffic steering and radio resource management.
Abstract:
An integrated WLAN/WWAN Radio Access Technology (RAT) architecture is described in which signaling used to control the integration of the WLAN/WWAN architecture is performed over the Radio Resource Control (RRC) plane. The integrated architecture may allow for User Equipment (UE) assistance in cell selection and traffic steering. In particular, UE-assisted RRC signaling is described for managing inter-RAT session transfers and secondary cell (SCell) selection.
Abstract:
A wireless local area network (WLAN) point-to-point communications link between an evolved universal terrestrial radio access network node B (eNB) and a user equipment device (or simply UE) is identified by UE/eNB media access control (MAC) identifiers on a per UE or per data radio bearer (DRB) basis for offloading cellular data from a long term evolution (LTE) link to the WLAN point-to-point communications link. A wireless local area network tunneling protocol (WLTP) includes packet formats and network protocol stack arrangements to support functions facilitated by the WLAN point-to-point communications link, such as, for example, identification of control and data traffic messages, DRB identification for WLTP packets, quality of service (QoS) delay and packet loss measurement, support of bearer splitting, and support of a general framework for offloading cellular traffic at different depths of the 3rd Generation Partnership Project (3GPP) network protocol stack.
Abstract:
Embodiments of apparatus, computer-implemented methods, systems, devices, and computer-readable media are described herein for encoding and transmitting layered multi-media streams over multiple radio links. In various embodiments, a first layer of a multi-media stream may be received at a multi-radio computing device through a first radio link. In various embodiments, a second layer of the multi-media stream may be received at the multi-radio computing device through a second radio link. In various embodiments, feedback about the first and second radio links may be transmitted, by the multi-radio computing device through the first or second radio link, to a remote computing device configured to distribute layers of the multi-media stream among the first and second radio links.