Abstract: Methods, devices and systems that use a control channel to coordinate quality of data communications in software-defined heterogenous multi-hop ad hoc networks are described. In some embodiments, an example apparatus for wireless communication in a network includes performing, using a control plane, network management functions over a control channel that has a first bandwidth, implements a frequency-hopping operation, and operates at in a first frequency band, and performing, using a data plane that is physically and logically decoupled from the control plane, data forwarding functions, based on a routing decision, over at least one data channel that has a second bandwidth and operates in a second frequency band different from the first frequency band.

Abstract: A method for a handover of a mobile station performed by a source base station and a target base station. The target base station receives a handover request message, from the source base station, in which includes QoS information of the mobile device, radio bearer identifier information of the source base station, and a first mapping relationship between a flow and a radio bearer of the source base station, the target base station acknowledges with a handover acknowledgement message. Therefore resource preparation at the target base station during a handover procedure is improved.

Abstract: A terminal apparatus for communicating with a base station apparatus, the terminal apparatus including: a receiver configured to receive downlink control information and a downlink shared channel; and a signal detection unit configured to demodulate the downlink shared channel (PDSCH) by using the downlink control information, wherein the downlink control information includes information for indicating an antenna port number and the number of code division multiplexing (CDM) groups for a demodulation reference signal (DMRS), each of the CDM groups indicates a DMRS port to be multiplexed by CDM, the PDSCH is demodulated in consideration of a power ratio of the DMRS and the PDSCH, and whether or not to consider powers of the DMRS and the PDSCH, based on the number of the CDM groups, is determined based on the downlink control information.

Abstract: A system for an airborne platform includes a network controller, a first subsystem having a number of devices configured to communicate a first data type, and a second subsystem having a number of devices configured to communicate a second data type. The network controller includes a processing circuit and is communicably coupled to the first subsystem and to the second subsystem. The processing circuit is configured to receive data relating to the first data type over a first plurality of communication channels and data relating to the second data type over a second plurality of communication channels. The processing circuit is further configured to multiplex the data relating to the first data type and the second data type to a multiplexed data stream configured for communication over a single communication channel. The processing circuit is further configured to transmit the multiplexed data stream over a data transmission line.

Abstract: The present application describes a communication system including a first apparatus including a single application processor operably coupled to a non-transitory memory including instructions and a local group of discrete radio resources each including a modem. The single application processor of the first apparatus is configured to at least execute the instructions of sending a request for capacity information to a second, remote apparatus. The second apparatus includes a single application processor, a non-transitory memory operably coupled to the single application processor, and a local group of discrete radio resources each including a modem operably coupled to the single application processor. The first apparatus is also configured to execute the instructions of determining, from the local group of discrete radio resources of the first and second apparatuses, a dedicated resource to handle a communication request.

Abstract: [Object] To provide a communication control device capable of smoothly exchanging information between a plurality of wireless systems. [Solution] Provided is a communication control device including: a communication unit configured to transmit geographical location information of the own device or a communication node served by the own device to a communication control determination device that controls coexistence of a plurality of wireless systems; and an acquisition unit configured to acquire, from the communication control determination device, information including information necessary for communication control for coexistence as information regarding another communication control determination device that manages a peripheral region of a geographical region managed by the communication control determination device.

Abstract: A device can receive, from a node in a core network, application identifiers associated with applications accessible by a first user device. The application identifiers can be associated with latency requirements. The device can obtain, from the first user device, a first packet associated with a first packet flow. The device can compare information regarding the first packet flow, and the application identifiers to determine that the first packet is destined for a low-latency application having a specified latency range. The device can identify a first low-latency bearer that satisfies the specified latency range associated with the low-latency application. The device can map the first packet flow to the first low-latency bearer, and communicate packets, associated with the first packet flow, using the first low-latency bearer. The packets can include data packets communicated between an entity hosting the low-latency application and the first user device, while bypassing the core network.

Abstract: A communication device (UE) conducting wired and/or wireless communications may issue service requests using zero-round-trip-time (zero-RTT) connectivity. The UE may obtain, prior to initiating an application, an address corresponding to a service and a security credential for use in accessing the service. The UE may receive, after initiating the application, an instruction to issue a service request, and generate the service request that may include a service identifier corresponding to the service, the address corresponding to the service, and the security credential for use in accessing the service. The UE may then transmit the service request to an edge server associated with the service. The edge server may route the service according to the service identifier. Multiple data centers/servers may advertise their services to the edge server associated with the service, facilitating fast routing of the service request by the edge server associated with the service.

Abstract: A configurable wireless communications module may include a first antenna layer having one or more antenna operating at a first wireless radio band; a second antenna layer having one or more antenna operating at a second wireless radio band; and a support structure for supporting the first antenna layer and the second antenna layer in a stacked configuration. The first antenna layer and/or the second antenna layer may be divided into sectors, with a directional antenna assigned to each sector, and with each directional antenna operating on a designated channel. Antenna layers may be individually accessed and removed/inserted for ease of maintenance and enhancement of function. An optional accessory module may support additional sensors and elements beyond antennas to allow for enhanced customization based on the intended application.

Abstract: A method for mediating an interaction between a control station and a remote system includes maintaining, at a command monitor, data characterizing an operation of the remote system in response to execution of commands at the remote system, receiving, at the command monitor, state information from the remote system, updating the data characterizing the operation of the remote system based on the received state information, receiving, at the command monitor, one or more commands sent from the control station, determining a predicted set of one or more outcomes that would result from execution of the one or more commands at the remote system based at least in part on the data characterizing the operation of the remote system, and preventing issuance of at least one command of the one or more commands at the remote system based on the predicted set of one or more outcomes.

Abstract: Teachings herein improve the choice of carrier placement in a wireless communication network by de-coupling the carrier raster from the subcarrier grid. Recognizing that the placement of a carrier by its center frequency is an artificial construct, it is re-defined and the carrier placement is instead defined by the carrier position, which is on a carrier raster (e.g., 100 kHz), but in general does not have to be the center of the carrier. Second, a subcarrier grid is defined that is common for all RF carriers and spanning a range of frequencies, at least within an operating band, and provides orthogonality for subcarriers within all RF carriers regardless of carrier position. Third, a unique mapping from the carrier position on the RF carrier raster to a subcarrier reference position, e.g., the DC subcarrier, is defined, which in turn identifies the exact position of the RF carrier on the subcarrier grid.

Abstract: A UE in a wireless communication system is provided. The UE comprises a transceiver configured to receive SS/PBCH block over downlink channels using a set of parameters based on an operation mode. The operation mode is configured for the SS/PBCH block as a first operation mode in which the SS/PBCH block is used on a LAA Scell or a second operation mode in which the SS/PBCH block is at least used on a Pcell. The set of parameters is configured as a first set of parameters for the SS/PBCH block when the operation mode of the SS/PBCH block is configured as the first operation mode or a second set of parameters for the SS/PBCH block when the operation mode of the SS/PBCH block is configured as the second operation mode. The first and second set of parameters include different information each other.

Abstract: Aspects of the subject disclosure may include, for example, a device that determines each of a default downlink forwarding address of a first interface of a user plane and a currently used downlink forwarding address of the first interface of the user plane. One of an uplink user data packet comprising an origination address of a second interface of the user plane, a downlink user data packet comprising a destination address of the second interface of the user plane or both are received, by way of the user plane. One of the default downlink forwarding address, the currently used downlink forwarding address or both can be modified based on the uplink origination address, the destination address or both. Modification of the default downlink forwarding address, the currently used downlink forwarding address or both results in a redirection of an associated packet flow within the user plane. Other embodiments are disclosed.

Abstract: A buffer status report reporting method and apparatus, the method including determining, by a terminal, a first logical channel used to transmit first-type service data, where data processing duration required by the first-type service data is less than a first specified threshold, triggering, by the terminal, a first buffer status report BSR based on the first logical channel when the first-type service data that can be used to be sent exists on the first logical channel, sending the first BSR to a base station, receiving a first uplink resource allocated by the base station to the first logical channel, and sending, by the terminal, the first-type service data by using the first uplink resource.

Abstract: In an approach to managing transmission frequency for a plurality of edge devices of an interconnected distributed network, one or more computer processors determine a maximum writing frequency, MWF, for the interconnected distributed network; iteratively process values of data flow writing frequency, DFWF, for a plurality of edge devices of an interconnected distributed network in accordance with an optimization algorithm based on the MWF to identify a convergence in the values of DFWF, wherein each iteration of processing values comprises, at each edge device in the plurality of edge devices, determine a value of DFWF based on an associated utility function of the respective edge device, wherein the utility function is a measure of utility of the device as a function of DFWF; responsive to identifying convergence, determine the converged values of DFWF to be optimal values of DFWF for the plurality of edge devices.

Abstract: A communication device generates a transmission signal for transmission via a wireless communication channel, wherein the transmission signal corresponds to a physical layer (PHY) data unit that conforms to a range extension mode of a first communication protocol. Generating the PHY data unit includes generating a preamble of a PHY data unit, wherein the preamble is generated to include: a legacy signal field that includes information indicating a duration of the PHY data unit, a duplicate of the legacy signal field, a plurality of subfields of a non-legacy signal field, and a plurality of additional subfields with the same data as the plurality of subfields of the non-legacy signal field. The plurality of subfields of the non-legacy signal field and the plurality of additional subfields are modulated to signal to a receiving device that the PHY data unit conforms to the range extension mode of a first communication protocol.

Abstract: Provided is a method of transmitting and receiving a frame for a multi-user multiple-input and multiple-output (MU-MIMO) communication in an access point (AP), the method including determining at least one transmission station (STA), transmitting, to the transmission STA, an uplink multi-user poll (UL MU poll) frame requesting a data frame, receiving the data frame from the at least one transmission STA simultaneously, and transmitting an acknowledgement (ACK) frame to the at least one transmission STA in response to the receiving.

Abstract: A method and system for joining a Wi-Fi network with a mobile device based on historical device behavior includes detecting, using a mobile device, a new Wi-Fi network connection is available for connection by the mobile device. The method and system includes determining that the new connection meets a first connection threshold based on first connection factors. The method and system further includes analyzing historical data regarding acceptance of Wi-Fi network connections for the device. The analysis of the historical data is used to determine a pattern for accepting a connection. The method and system includes determining when to accept the new Wi-Fi network connection based on the new connection meeting the first connection threshold based on the first connection factors, and the second connection threshold based on the historical data.

Abstract: A secondary node (SN) in evolved universal mobile telecommunications system terrestrial radio access network new radio-dual connectivity (EN-DC) with a master node (MN) can directly provide measurement configuration and receive measurement reports from a UE and/or coordinate measurement configuration and reporting with the MN. For example, only one measurement object configuration is allowed for a frequency, but both MN and SN can provide measurement reporting configurations on the same measurement object. The UE can send measurement reports for the same measurement object to both MN and SN or the node that configured the reporting criteria configuration. In another embodiment, only one node provides the reporting configuration but configures the UE to provide reporting to one node or both MN and SN.

Abstract: Methods, systems, and devices for wireless communications are described. A user equipment (UE) may receive data transmissions on primary cell and transmit feedback for the data transmissions on a secondary cell, where carriers on the secondary cell have a subcarrier spacing that is greater than the subcarrier spacing of carriers on the primary cell. The UE may perform a self-contained transmission by receiving data and transmitting feedback within a single transmission opportunity. The base station may schedule the UE for only downlink transmissions in the primary cell, removing uplink transmission resources and guard periods from slots of primary cell carriers. The UE may transmit other information on the high band cell as well, such as a channel quality indicator or scheduling requests. The base station may apply rate adjustments for downlink transmission in the next slot of a primary cell carrier.