Abstract: An outdoor broadband unit includes a wide area network (WAN) side device, and a local area network (LAN) side device. The LAN side device provides a first stay alive communication to the WAN side device, and the WAN side device performs a soft reset based on the stay alive communication. The LAN side device also receives, based on the stay alive communication, a soft reset result from the WAN side device, and determines, based on the soft reset result, whether the soft reset of the WAN side device is successful or unsuccessful. The LAN side device further provides a second stay alive communication to the WAN side device when the soft reset of the WAN side device is successful.

Abstract: A network device may include a first set of components and a second set of components. The first set of components may manage, using a first set of parameters, at least one of uplink radio resources or downlink radio resources for a group of mobile user equipment. The second set of components may manage, using a second set of parameters, at least one of uplink radio resources or downlink radio resources for a group of fixed user equipment. The second set of parameters may be different than the first set of parameters.

Abstract: A system may receive, from one or more user devices, service information that identifies applications that are being accessed by the user devices and levels of service quality, received by the user devices, when accessing the applications; identify, based on the service information, that a user device is accessing an application at a level of service quality that is less than a threshold; assign, one or more quantities of bandwidth, to the applications, based on the service information; and transmitting, to the base station, scheduling information that identifies how the quantities of bandwidth are assigned to the applications, where transmitting the scheduling information allows the base station to use a quantity of bandwidth, assigned to the application, to provide the application to the user device at a level of service quality that is not less than the threshold.

Abstract: A method, performed by a fixed wireless router device, may include receiving a packet from a Long Term Evolution network, where the packet is associated with a particular Long Term Evolution Quality of Service class and mapping the particular Long Term Evolution Quality of Service class to a particular Differentiated Services Core Point Quality of Service class. The method may further include assigning a Differentiated Services Core Point Quality of Service class to the packet based on the particular Differentiated Services Core Point Quality of Service class and forwarding the packet to particular device associated with a customer premises network serviced by the fixed wireless router device, based on a priority associated with the assigned Differentiated Services Core Point Quality of Service class.

Abstract: A system may receive base station configuration data associated with base stations, classify the base stations into morphologies based on the base station configuration data, identify resource utilization data associated with the base stations, generate resource allocation recommendations for the base stations based on the resource utilization data and the morphologies, and transmit the resource allocation recommendations for the base stations to permit the stations to allocate resources based on the resource allocation recommendations.

Abstract: A device receives, from a network device, information associated with an event, and assigns an event identifier to the event based on the event information. The device also provides the event identifier to a cell control device located at a location associated with the event, and determines a cell capacity of the location to ensure that there is sufficient cell capacity at the location to broadcast the event. The network device instructs a device capturing the event to provide live event data to the cell control device for a predetermined time period.

Abstract: An outdoor broadband unit may be connected to an external portion of a customer premises. The outdoor broadband unit may include a radio frequency (RF) antenna to receive communications from a Long-Term Evolution (LTE) network and a printed wiring board. The printed wiring board may include an integrated circuit (IC) chip to implement a subscriber identity module (SIM) to provide services for the LTE network. The IC chip may be soldered to the printed wiring board and have a rated temperature range corresponding to an industrial grade or military grade integrated circuit. The IC chip may provide authentication services for the SIM using a hypertext transfer protocol secure (HTTPS) connection. The printed wiring board may further include a control module to implement an air interface for the LTE network. A radome may contain the RF antenna and the printed wiring board.

Abstract: A device monitors temperature readings from a sensor associated with an outdoor broadband unit. When the temperature readings increase above a stored threshold value, the device sends, to a device at a core network, an alert signal that invokes, at the core network, an emergency profile associated with the outdoor broadband unit. When the temperature readings decrease below the stored threshold value, the device sends, to the device at the core network, a normal signal that invokes, at the core network, a default profile associated with the outdoor broadband unit.

Abstract: A device receives a packet provided in a wireless access network, and determines whether the packet is a payload packet or an acknowledgment (Ack) packet. The device also allocates, when the packet is an acknowledgement packet, the acknowledgment packet to an expedited priority queue, and allocates, when the packet is a payload packet, the payload packet to a regular priority queue. The device further delivers one or more acknowledgment packets provided in the expedited priority queue prior to delivering one or more payload packets provided in the regular priority queue.

Abstract: A system may receive a request to receive a particular quality of service level for traffic flow between a user device and an over-the-top application server that provides an over-the-top application service. The over-the-top application server may be outside of a service provider network. The system may determine that the user device is to receive the particular quality of service level for the over-the-top application service based on receiving the request. The system may cause the traffic flow to receive the particular quality of service level based on determining that the user device is to receive the particular quality of service level. The traffic flow may be transmitted using the service provider network. The system may determine usage information associated with the traffic flow, where the usage information identifies the user device and the particular quality of service level. The system may provide the usage information.

Abstract: A device receives configuration information that instructs the device about when to send content to a user device. The device also receives content from an application server at a first time, and stores the content. The device determines, based on the configuration information, that the content is to be sent to the user device, and sends the content to the user device based on the determination. The content is sent to the user device at a second time that is later than the first time.

Abstract: A method includes receiving an indication of current quality of service for a transmission received by user equipment from a base station. The method includes identifying target quality of service values for the transmission. A current FEC value and a current MCS value is identified for the transmission. An adjusted FEC value and an adjusted MCS value is determined based on the current FEC value and the current MCS value, the indication of current quality of service, and the target quality of service values. The method includes outputting the adjusted FEC value to a broadcast multicast service center for the transmission. The method also includes outputting the adjusted MCS value to the base station.

Abstract: A visual indicator, such as a light emitting diode (LED), may display the quality of the radio frequency (RF) link. In one implementation, a device may include, a RF antenna; a control module to connect to a Long-Term Evolution (LTE) network through the RF antenna; and a LED, disposed on an outer surface of the device, to emit light of a number of different colors, where the color to emit is selected based on a quality of the connection to the LTE network. The device may include an outdoor broadband unit connected to an external portion of a customer premise.

Abstract: A device receives, from a mobile device, a request to connect to a network, and determines, based on the connection request, whether the mobile device has mobility capability. The device registers the mobile device per host-based mobility protocol standards when the mobile device does not have mobility capability. The device registers the mobile device per network-based mobility protocol standards when the mobile device has mobility capability.

Abstract: A computer system that provides stereoscopic images is described. During operation, the computer system generates the stereoscopic images at a location corresponding to a viewing plane based on data having a discrete spatial resolution, where the stereoscopic images include image parallax. Then, the computer system scales objects depicted in the stereoscopic images so that depth acuity associated with the image parallax is increased, where the scaling is based on the spatial resolution and a viewing geometry associated with a display. For example, the viewing geometry may include a distance from an individual that views the stereoscopic images on the display and the display. Alternatively, the viewing geometry may include a focal point of the individual. Next, the computer system provides the resulting stereoscopic images to the display. In this way, the computer system may optimize the depth acuity for data having discrete sampling.

Abstract: An outdoor broadband unit receives a current time, a short term maintenance mode time period, and a long term maintenance mode time period from a remote network device. The outdoor broadband unit determines a mode associated with selection of an antenna beam, provided on an antenna of the outdoor broadband unit, based on at least one of the current time, the short term maintenance mode time period, and the long term maintenance mode time period. The outdoor broadband unit selects an antenna beam to use based on the determined mode.

Abstract: A network device within an outdoor broadband unit receives, via Ethernet over coaxial cable signals, Internet Protocol (IP) data traffic originating from a device within a local area network (LAN). The IP data traffic is buffered in a memory within the outdoor broadband unit. A forwarding plane module of the network device sends the IP data traffic toward a destination via an air interface for a wide area network (WAN). The network device receives, via different Ethernet over coaxial cable signals, IP control traffic originating from the device within the LAN. A control plane module of the network device implements the instructions in the IP control traffic to initiate a test function for the network device.

Abstract: An approach for providing application-aware load balancing is provided. A load balancing platform at a base station receives application information specifying an application or type of service utilized by a mobile device and determines allocation of a plurality of carriers based on the received application information to provide load balancing across the plurality of carriers. The platform generates mapping information indicating a mapping of a plurality of applications to one or more of the plurality of carriers, wherein the application information includes the generated mapping information.

Abstract: A user device receives an instruction to access an application, of one or more applications being provisioned via one or more base stations; obtains service quality information, associated with the application, where the service quality information identifies one or more quality thresholds associated with one or more frequency bands to be used to access the application; measures a first level of service quality associated with traffic being received via a first frequency band and a second level of service quality associated with traffic being received via a second frequency band; and accesses the application using one of the first frequency band or the second frequency band based on a determination that another one of the first level of service quality or the second level of service quality is less than a threshold, of the one or more quality thresholds.

Abstract: A network device is configured to send information identifying a frequency at which an application, downloaded on a user device, is to send geographic location information to the network device. The network device is configured further to receive personal information associated with a plurality of social networking applications from the application on the user device. The network device is configured further to receive the geographic location information from the application; and send the personal information and the geographic location information to a plurality of social networking servers associated with a plurality of social networking applications.