Abstract: A pluggable synchronization module comprises an antenna input, a Global Navigation Satellite System receiver, an electrical interface and processing circuitry. The Global Navigation Satellite System receiver is operative to receive satellite-transmitted signals comprising positioning-related information over the antenna input. The Global Navigation Satellite System receiver is further operative to determine a time reference from received positioning-related information and to provide a time reference signal according to the determined time reference. The electrical interface supports communication with the pluggable synchronization module. The electrical interface is a form-factor pluggable interface. The processing circuitry is connected to the Global Navigation Satellite System receiver and to the electrical interface.

Abstract: Embodiments of the present disclosure include methods, apparatuses, and instructions for receiving at a user equipment (UE) of a third generation partnership project (3GPP) network an offset value selected from a plurality of offset values in downlink control information. The UE also receives one or more enhanced control channel elements (eCCEs) of an enhanced physical downlink control channel (ePDCCH). The UE may then determine an allocation of an uplink resource for a transmission on a physical uplink control channel (PUCCH) based at least in part on the index of a first eCCE and the offset value.

Abstract: A system for testing multiple wireless routers independently and simultaneously using different types of device probes is disclosed. The system includes real-time, bi-directional/asynchronous communication and interaction between system components.

Abstract: The disclosed computer-implemented method may include (1) identifying a plurality of routes that lead to a plurality of eBGP peers that represent portions of network paths, (2) assigning a plurality of labels to the routes that lead to the eBGP peers, (3) advertising the labels to an iBGP peer to enable the iBGP peer to make routing decisions identified by the labels, (4) receiving, from the iBGP peer, traffic that is destined for an endpoint device and includes a label that (A) was selected by the iBGP peer and (B) corresponds to a specific route that leads to a specific eBGP peer, and then (5) forwarding the traffic to the endpoint device along the specific route that leads to the specific eBGP peer based at least in part on the label selected by the iBGP peer. Various other methods, systems, and apparatuses are also disclosed.

Abstract: The disclosure relates to methods, devices, and computer programs in mobile communications. More specifically, the proposed technique relates to delayed device activation. In particular the disclosure relates to enabling a communication module in a wireless node in response to receiving a sensor output. The disclosure proposes a method, performed in a first wireless node comprising a disabled communication module, for initiating communication with a second wireless node. The method comprises providing access to a sensor, receiving, from the sensor, a sensor output indicating that wireless communication is required, enabling, in response to receiving the sensor output, the communication module in the wireless node, and initiating an initial communication with the second wireless node using the enabled communication module.

Abstract: Some embodiments provide a method that receives a request for information regarding a path between endpoints of a logical network. The method provides, for display, a visualization of the path including (i) a set of logical network components between the endpoints and (ii) a set of physical network components that implement the logical network components. The physical network components and the logical network components are aligned in the display. In some embodiments, the method receives data regarding a packet tracing operation between the endpoints. The method generates a display including (i) a visualization of the path between the endpoints of the logical network and (ii) a representation of the received data regarding the packet tracing operation, with the packet tracing operation data is visually linked to the components of the path.

Abstract: Disclosed herein are methods and systems for dynamically controlling bearer quality-of-service (QoS) configuration. In an example arrangement, a wireless communication device (WCD) may have a first bearer and a second bearer with a base station, where the first bearer has a first set of one or more QoS parameters defining a first priority level for the base station scheduling communications on the first bearer, and the second bearer has a second set of one or more QoS parameters defining a second priority level for the base station scheduling communications on the second bearer, the second priority level being different from the first priority level. In this arrangement, an example method may involve detecting that the base station is threshold highly loaded, and responsive to the detecting, reconfiguring the second bearer to have the same QoS parameters as the first set of one or more QoS parameters.

Abstract: Methods, an uplink module (130), downlink module (160), an entry module (170) and a management module (147) for managing packets in a communication system (100) based on Software Defined Networking are disclosed. A data plane of the communication system (100) comprises a forwarding module (140), a service module (145) and the entry module (170) and a control plane of the communication system (100) comprises the management module (147). The entry module (170) receives (8) an Internet Protocol “IP” packet from the peer device (180), wherein the IP packet includes a destination IP address associated with the mobile device (120). The entry module (170) obtains (9), from the management module (147), a location value specifying the radio network node (110) associated with the destination IP address.

Abstract: A high-speed packet processing system and a method of controlling the system are disclosed. The high-speed packet processing system includes: a network interface card configured to receive or transmit packets; a memory which is accessible by an operating system, and which includes at least one or more data buffers and a single dedicated head (dedicated skb) decoupled from the data buffers, where the data buffers are pre-allocated in correspondence to the packets to allow storing of the packets, and the single dedicated head is connected to the data buffers sequentially in correspondence to the packets; and a packet processing unit configured to sequentially connect the single dedicated head with the data buffers and store the packets sequentially in the data buffers corresponding to reception (Rx) descriptors based on the reception (Rx) descriptors designated in correspondence to the packets, when the packets are received.

Abstract: A method and related apparatus for performing wireless data offload in a public transportation vehicle comprising at least one access point and at least one data storage comprising a plurality of pieces of data, the method comprising: searching for available offload nodes in the vehicle; sending a request for wireless offload of the data at least to a first offload node, the request including one or more offload parameters; offloading, upon an acknowledgement from the first offload node, a first piece of data to the first offload node; and registering the first piece of data as offloaded to the first offload node.

Abstract: Apparatuses and a method are provided for transmitting signals in a medical imaging system. The method includes transmitting signals wirelessly between at least one receive facility and a facility of the imaging system via a radio network.

Abstract: A method is provided for transmitting a synchronization signal by a Device-to-Device (D2D) user equipment (UE). The UE receives discovery transmission pool configuration information and synchronization signal resource information, and transmits the synchronization signal based on the discovery transmission pool configuration information and the synchronization signal resource information. When a first subframe of a discovery transmission pool indicated by the discovery transmission pool configuration information corresponds to a subframe indicated by the synchronization signal resource information, the synchronization signal is transmitted in the first subframe of the discovery transmission pool.

Abstract: This disclosure is directed to artificially intelligent (AI) communication generation by traversing routes of a graph in a complex computing network. The intelligent communication generation is used for determining whether an input signal has certain desired signal attributes.

Abstract: Various embodiments relate to an apparatus and method for squelching and unsquelching serial port ingress traffic, including a squelch timer, an idle timer and a state machine which is configured to enable squelch and enable a data path, load and start the squelch timer when a character is received by the serial port, load and start the idle timer, activate a squelch state when the squelch timer expires before the idle timer and disable the data path.

Abstract: The disclosure includes embodiments for selecting one or more gateway vehicles for a virtual parked vehicle network including a plurality of parked vehicles that are members of the virtual parked vehicle network. A method according to some embodiments includes assigning position data to the plurality of parked vehicles which describes a plurality of unique position values for the plurality of parked vehicles in the virtual parked vehicle network. The method includes designating a parked vehicle having a lowest position value in the plurality of unique position values as a gateway vehicle for the virtual parked vehicle network. In some embodiments, the gateway vehicle is an only member of the virtual parked vehicle network that is operable to provide access to the virtual parked vehicle network.

Abstract: This document discloses a solution of maintaining service continuity in a multimedia broadcast service provided by a cellular network in a multimedia broadcast service area. A base station may transmit, in at least one cell provided by the base station, control information comprising an information element, wherein the information element may comprise an identifier of the multimedia broadcast service area and an indication that may cause at least one terminal device located in the at least one cell to request the multimedia broadcast service content as a transmission addressed to the at least one terminal device. The at least one terminal device may receive the control information comprising the information element that may cause the at least one terminal device to request the multimedia broadcast service content as the transmission addressed to the at least one terminal device.

Abstract: A communication device for handling long-term evolution (LTE)-wireless local area network (WLAN) aggregation is configured to execute instructions comprising connecting to a base station (BS) via LTE communication; detecting a radio link failure on the LTE communication; stopping transmission/reception of at least one first LTE protocol data unit (PDU) via a WLAN in response to the radio link failure, if the WLAN is configured by the BS for the transmission/reception of the at least one first LTE PDU with the BS via the WLAN; and keeping transmission/reception of at least one non-LTE PDU via the WLAN in response to the radio link failure, if the WLAN is not configured by the BS for the transmission/reception of the at least one first LTE PDU with the BS via the WLAN.

Abstract: A method for operating a station during a discovery process includes transmitting a first Layer 2 frame to an access point (AP), the first Layer 2 frame including a first version number associated with first higher layer information and an identifier of a protocol associated with both the first higher layer information and the first version number, receiving a second Layer 2 frame from the AP including an indication that a second version number associated with a second higher layer information is the same as the first version number, and deciding whether to perform a network selection process in accordance with the first higher layer information.

Abstract: Methods, systems, and devices for wireless communication are described. A user equipment (UE) may monitor a neighbor cell and report the result to a serving base station. Based on the report, the serving base station may identify an estimated discovery reference signal (DRS) transmission window of the neighbor cell. In some cases, the UE may estimate and report parameters of the neighbor DRS transmission window, and in other cases, the UE may make a measurement report and the base station may infer DRS transmission window parameters. The base station may then provide the UE with a DRS measurement timing configuration (DMTC) based on the estimated parameters of the neighbor cell so that the UE may monitor the neighbor cell and the serving cell in an efficient manner. For example, the UE may conserve battery life by refraining from monitoring DRS during periods when a DRS transmission is not likely.

Abstract: A dual band LTE small cell base station communicates on both licensed bands and unlicensed bands. The small cell base station modifies the communication protocol utilized by the licensed band to enable communication over an unlicensed band. This modification involves replacing the physical (PHY) layer of the licensed band communication protocol with the PHY layer of a to-be-used protocol in an unlicensed band.