Abstract: A method implemented by an outdoor broadband unit includes receiving, by a broadband home router within the outdoor broadband unit, a request for services associated with a wide area network (WAN), the request originating from a device within a local area network (LAN) associated with the broadband home router; generating, by the broadband home router and based on the request, an attention (AT) command to a Long-Term Evolution (LTE) module, within the outdoor broadband unit, the LTE module providing an air interface for the WAN; executing, by the LTE module, the AT command; receiving, by the broadband home router and from the LTE module, a return value based on the executed AT command; and sending, by the broadband home router and to the device within the LAN, a response to the request based on the return value.

Abstract: An outdoor broadband unit implements full IP-based routing between a wide area network (WAN)-side interface (such as a Long-Term Evolution (LTE) air interface) and a local area network (LAN)-side interface (such as a home network using MoCA protocol). The outdoor broadband unit maintains a routing table for all connections through an internal routing system based on matching between WAN-side Internet Protocol (IP) addresses and/or ports and LAN-side IP addresses and/or ports. The outdoor broadband unit may support both connection-oriented transport layer routing (such as Transmission Control Protocol (TCP)) and connectionless transport layer routing (such as User Datagram Protocol (UDP)).

Abstract: A device receives first information about a wireless communication service within a venue. The device further receives, from one or more small cells within the venue, second information about traffic load of the one or more small cells. The device generates third information based on the first information and the second information. The third information assigns network resources to one or more services provided to mobile devices, within the venue, via the small cells. The device transmits the third information to configure the one or more small cells.

Abstract: An outdoor broadband unit receives a current time and maintenance mode parameters from a network device. The outdoor broadband unit also 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 and the maintenance mode parameters. The outdoor broadband unit further selects an antenna beam or a serving cell to use based on the determined mode.

Abstract: A device may receive, from a base station, information that identifies traffic conditions within the base station; and may assign one or more different frequency bands to each of one or more applications being provisioned, by the base station, to one or more user devices based on the information that identifies the traffic conditions within the base station. The device may also generate allocation information that identifies how the different frequency bands are allocated to each of the applications; and transmit, via the base station, the allocation information to the user devices, where transmitting the allocation information allows a user device to identify a frequency band with which to obtain an application.

Abstract: An outdoor broadband unit implements a library of commands to communicate between a wide area network (WAN)-side Long-Term Evolution (LTE) module and a local area network (LAN)-side broadband home router within the outdoor broadband unit. The commands are used for control plane operations to facilitate LTE network sessions for individual devices within a customer premises LAN. In some cases, the commands are also used for communicating with a remote device manager.

Abstract: A system may include user equipment. The user equipment may determine a group of first Transmission Control Protocol (TCP) window size values based on different information relating to a wireless network, and determine a second TCP window size value based on the group of first TCP window size values. The user equipment may further transmit data using a transmission window size corresponding to the second TCP window size value.

Abstract: A device may manage fixed wireless installations. The device may receive data relating to the fixed wireless installations, where the data is received from a number of sources, including the fixed wireless installations and network devices used to implement a long term evolution (LTE) cellular network to which the fixed wireless installations connect. The device may analyze the data to determine optimizations to improve the operation of one or more of the fixed wireless installations or the LTE cellular network. The device may change, in response to the analysis, a configuration of at least one of the fixed wireless installations and at least one of the network devices.

Abstract: A system may include a device that is in a first location that is not readily accessible. The device may detect a powering up of the device a particular quantity of times during a particular time interval. Powering up of the device may be controlled from a second location that is readily accessible. The device may also be reset, in response to detecting the device being powered up the particular quantity of times during the particular time interval, to original factory settings.

Abstract: An indoor broadband device receives, from a user device, a first request for content; determines a quality of service (QoS) level at which the content is to be provided to the user device; provides a second request for the content, at the determined QoS level, to a wireless access network, the wireless access network connecting to a network that provides broadband services; receives, based on the second request, the content, at the determined QoS level, from the wireless access network; processes the content in a manner that conforms to the QoS level and in a format that is supported by the user device; and provides the content to the user device.

Abstract: A combined gateway, for a fixed wireless network, includes a structure mounted to a customer premises, and a satellite antenna mechanically coupled to the structure. The combined gateway also includes an outdoor broadband unit mechanically coupled to the structure via an adjustable extension arm. The outdoor broadband unit connects to the satellite antenna via a first communication link, and connects to customer premises equipment via a second communication link. Adjustment of the extension arm permits movement of the outdoor broadband unit relative to a position of the satellite antenna.

Abstract: A user device may receive a portion of multicast content and may obtain transmission information associated with the portion of the multicast content. The transmission information may identify parameters or radio conditions under which the portion of the multicast content is being received by the user device. The user device may provide, to a server device, the transmission information, and may receive content that remedies a condition, associated with the portion of the multicast content. The condition may be detected, by the server device, based on the transmission information.

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 one or more base stations, first information about bandwidth resources of the one or more base stations. The device further receives, from one or more content providers, second information about streams of content provided by the one or more content providers to user devices via the one or more base stations. The device generates third information based on the first information and the second information. The third information assigns a portion of the bandwidth resources to each one of the streams. The device transmits the third information to configure the one or more base stations.

Abstract: Interference, from fixed wireless terminals, communicating with, for example, an LTE network, can be intelligently reduced for nearby public safety networks. A fixed terminal may, for instance, determine a signal strength of radio signals from a public safety wireless network, and perform a threshold comparison of the signal strength to determine whether the fixed terminal is located in an edge area of a cell of the public safety wireless network. The fixed terminal may reduce transmission power, to the network of the fixed terminal (e.g., the LTE network), when the threshold comparison indicates that the device is located in the edge area of the cell of the public safety wireless network.

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: Content may be transmitted to mobile devices, in a network, using a Multimedia Broadcast Multicast Services (MBMS) multicast technique over wireless interfaces in the network. In one implementation, network elements in the network may receive feedback about the MBMS multicast transmission, where the feedback relates to a quality of the content, as received by the one or more mobile devices, or to the quality of the radio channel. The devices may determine whether to modify transmission parameters relating to the MBMS multicast transmission and may determine whether to retransmit lost data, corresponding to the content, to the mobile devices. The lost data may be retransmitted as a unicast transmission or a multicast transmission.

Abstract: A system may include one or more devices. The one or more devices may obtain indications of quantities of wireless resources that are available at a group of wireless transmission devices, and determine, based on the obtained indications, an amount of wireless resources to allocate to a broadcast service that provides video on demand content. The one or more devices may further cause the determined amount of wireless resources to be allocated, from a unicast service, to the broadcast service at one or more wireless transmission devices, of the group of wireless transmission devices.

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 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.