Abstract: Apparatus and methods for provision of location-based services to wireless device users. In one embodiment, the apparatus and methods support location-based services requiring indoors or underground positioning (or other applications which cannot be served by GPS/A-GPS or GLONASS), such as via Wi-Fi Location devices with fine timing measurement (FTM) capability. A cable, terrestrial or satellite network operator can obtain location data on e.g., an LTE-enabled UE with SIM capability located within a served premises or venue, via an HTTP/S GET protocol, and forward the location data. In one variant, a managed 3GPP IP Multimedia System (IMS) infrastructure is used in conjunction with UE-specific identifiers under control of a controller entity (e.g., ePDG) in communication with the IMS infrastructure and one or more FTM-enabled Wi-Fi APs within the premises or venue for supporting VoWi-Fi 911 or 411 packet calls made via the IMS.

Abstract: A connection between two UEs is identified by a single connection identifier. Different streams are transmitted over different wireless links with potential redundancy between streams. Initially a first WiFi link is used to communicate with the second UE. After the first UE decides it will handoff to a second WiFi AP it establishes a connection with a cellular AP and then communicates a second stream corresponding to the same connection. The first and second streams initially communicate the same content. The first WiFi link is terminated, but the second stream continues to communicate content. The first UE then establishes a second WiFi connection with a second WiFi AP and communicates a third content stream of the first connection to second UE via second WiFi link. The third stream initially communicates information also communicated over second stream. The cellular link is terminated. The second WiFi link is used to communicate content.

Abstract: Methods, systems and apparatus for allocating frequency spectrum resources in a Citizens Broadband Radio Service network. An exemplary method embodiment includes the steps of: receiving, by a Spectrum Access System (SAS), a channel message from a Citizens Broadband Radio Service Device (CBSD); selecting, by the SAS, in response to the received channel allocation message, a first frequency spectrum channel from a plurality of available frequency spectrum channels based on a type of traffic the CBSD is carrying; assigning, by the SAS, the selected first frequency spectrum channel to the CBSD for use in wireless communications with user equipment devices; communicating, by the SAS, information identifying the assigned first frequency spectrum channel to the CBSD. When the determined type of traffic being carried by the CBSD is said uplink dominated traffic basing said first frequency spectrum channel selection on adjacent channel interference.

Abstract: Systems, methods, and devices of the various embodiments may enable the reduction of the impact of Border Gateway Protocol (BGP) hijacks by automatically announcing more-specific route prefixes when a netblock is hijacked. In various embodiments, the more-specific route prefixes may be automatically withdrawn when the netblock hijacking stops.

Abstract: According to one configuration, a wireless network includes first wireless stations and second wireless stations. The first wireless stations and second wireless stations support different wireless communication protocols and compete to use a wireless channel. Via monitoring of a control channel generated by a management resource associated with at least the first wireless stations, a given wireless station of the second wireless stations determines availability (unused time slots, frames, etc.) of the wireless channel via monitoring of the wireless channel itself and/or a control channel. In the latter instance, the control channel indicates scheduled usage of the shared wireless channel by at least the first wireless stations. In accordance with the scheduled usage as indicated by the control channel, the given wireless station transmits over the wireless channel during free slots, times, gaps, etc., to communicate with a remote wireless station of the second wireless stations.

Abstract: An apparatus for preventing data traffic overload of a customer enterprise network in a networked computing system includes a plurality of data centers, each of the data centers being in operative communication with one another via a secure connection. The data centers form at least one floating gateway for providing a distributed interface between a public network and an Internet Protocol (IP) interface of the customer enterprise network, the IP interface of the customer enterprise network being inaccessible using a public IP address. The apparatus further includes at least one controller in operative communication with the data centers. The controller is configured to synchronize state information among the data centers and to control ingress and egress data traffic for each of the data centers.

Abstract: According to one configuration, a first wireless access point communicates probe request communications to a mobile communication device. The first wireless access point monitors power levels associated with probe response communications from the mobile communication device. Via the monitored power levels, the communication management resource quantifies motion of the mobile communication device with respect to the first wireless access point and a corresponding region of wireless coverage provided by the first wireless access point. The communication management resource selects amongst multiple neighboring wireless access points in which to handoff the mobile communication device based on a prediction of which of the multiple wireless access points will provide a best chance of successfully receiving a handoff of a mobile communication device and corresponding wireless communication link from the first wireless access point.

Abstract: According to one configuration, a system includes user equipment in communication with a wireless base station. The user equipment receives a notification from a first wireless access point of multiple wireless access points. The notification indicates a set of candidate wireless access points in the wireless network environment in which to selectively perform a handoff from a first wireless access point. The user equipment monitors for occurrence of a trigger condition. In response to detecting a trigger condition, the user equipment identifies (such as selects) a second wireless access point (from the set of candidate wireless access points) in which to perform the handoff. Via communications from the user equipment to the second wireless access point, the user equipment initiates the handoff. The user equipment notifies the first wireless access point of the attempted and/or failed attempt of the handoff to the second wireless access point.

Abstract: A communications system includes content distribution hardware operable to detect presence of a window in a video stream in which to insert an advertisement. Multiple viewers receive and view the video stream. Advertisement management hardware in the communications system receives notification of the window as well as attributes of the viewers receiving the video stream. Based on the attributes associated with viewers, the advertisement manager hardware selects a particular advertisement suitable for the viewers amongst multiple advertisements to insert in the window. The content distribution hardware inserts the selected advertisement in the window for distribution to the multiple viewers. During distribution of the advertisement in the window, if desired, the content distribution hardware monitors further use of the multiple communication devices to detect if any of the communication devices discontinue receiving the video stream during the window of time.

Abstract: An exemplary apparatus for mitigating a distributed denial-of-service (DDoS) attack includes a controller configured: to receive an output signal from a detector in a networked computing system, the output signal indicating a probability of a DDoS attack based at least in part on a threat level corresponding to an Autonomous System Number (ASN) associated with a source Internet Protocol address of received data packets when a volume of the received data packets exceeds a prescribed threshold value; to obtain action information correlating a specific ASN to at least one corresponding action for mitigating a DDoS attack; and to generate at least one control signal for initiating at least one action for mitigating the DDoS attack as a function of the obtained action information. The apparatus further includes at least one mitigation device for performing at least one action for mitigating the DDoS attack in response to the control signal.

Abstract: A first citizens broadband radio service device (CBSD), which is part of a first cluster of CBSDs, determines total needed spectrum for the first cluster, based on a determination of its own spectrum needs and received information from other CBSDs in the cluster communicating their determined spectrum needs. The first CBSD communications the total spectrum needs for the first cluster to a spectrum access system (SAS). The first CSBD receives a spectrum allocation for the first cluster from the SAS, which allocates spectrum on a per cluster basis. The first CSBD selects a first portion of spectrum for itself from the received allocation and communicates the SAS first cluster spectrum allocation and the first CSBD selected first portion of spectrum to a second CBSD in the cluster. The second CBSD determines the remaining spectrum of the SAS allocation and selects a second portion of spectrum from remaining spectrum for itself.

Abstract: A method and system for diagnosing a fault in a system. Operational state and configuration information is obtained from a plurality of components residing in a plurality of domains, the status and configuration information being based on a plurality of layers of a communication model. The operational state and configuration information are correlated and reformatted to create an end-to-end view of a network-based application; and a user interface configured to visualize the correlated and reformatted operational state and configuration information across the plurality of domains is generated, the user interface configured to present the visualized status and configuration information at each of the plurality of layers.

Abstract: A method for providing and maintaining secure storage of data includes cloaking the data by retrieving, from a database and using a first set of user-specific cloaking sequences and a first mapping, a first set of hidden sequences, and applying the data and the first set of hidden sequences as inputs to a cloaking algorithm. The cloaked data is stored in a persistent memory. The method further includes, during a later, second time period, re-cloaking the cloaked data by uncloaking the cloaked data using the first set of hidden sequences, retrieving, from the database and using the first set of user-specific cloaking sequences and a different, second mapping, a second set of one or more hidden sequences, and applying the uncloaked data and the second set of hidden sequences as inputs to the cloaking algorithm. The re-cloaked data is stored in the persistent memory.

Abstract: Embodiments include systems and methods for hybrid IR/RF communication over remote controller device. Controlling a smart lighting device. In embodiments, a processor of a remote controller device may receive receiving, from a customer premises device via an RF transceiver, synchronization information about a device under control in communication with the customer premises device. The remote controller device processor may update an indication of a device under control status based on the synchronization information. The remote controller device processor may send, via the IR transmitter, a command to the device under control based on the updated status of the device under control.

Abstract: A station (STA), which supports multiple spatial streams, can, and sometimes does, re-advertise the station as supporting less spatial stream (SS) than the actual number of spatial streams that the device does actually support. In some embodiments, a station's maximum advertised maximum number of spatial streams is proactively reduced based on the station's throughput being below one or more thresholds. In some embodiments, the analysis and level of spatial stream value to be reported in a re-advertisement is determined by the access point. In some other embodiments, the analysis and level of spatial stream value to be reported in a re-advertisement is determined by the station. The access point allocating its limited supported spatial streams among stations is able to more efficiently allocate the air link resources.

Abstract: According to one configuration, a system includes provisioning hardware and a wireless station that supports communications with one or more communication devices. The wireless station receives a first notification from the provisioning system. The first notification indicating that the wireless station is assigned to a first allocation management resource. The first allocation management resource operable to allocate wireless resources for use by the wireless station to support wireless communications. The wireless station communicates with the first allocation management resource to receive allocation information indicating the wireless resources allocated for use by the wireless station. In response to receiving a second notification that the wireless station has been reassigned to a second allocation management resource, the wireless station communicates with the second allocation management resource instead of the first allocation management resource to receive the allocation information.

Abstract: Both wireless communication and communications via a cable modem are supported between a network node and a customer premises. Alternative communications links provide redundancy and the possibility to take advantage of the different types of links capacity to provide a level of service that would not be possible using a single communications link to a customer premises. In various embodiments a network node, such as a cable network node hubsite, has an optical connection to the Internet or another communications network and provides network access to one or a plurality of customer premises. The network node includes a wireless access point, e.g., pole mounted base station, as well as one or more cable modem interfaces to thereby allow for both wireless and cable modem based communications. This allows for packets of different applications to traverse different links and/or to switch between links in the event of maintenance or reliability issues.

Abstract: A hybrid hub-and-spoke communications network with hub-bypass communications paths is disclosed. An edge router receives, from a first origination network gateway node, a first packet destined for a first destination network gateway node. The edge router is communicatively coupled to a hybrid hub-and-spoke and hub-bypass data communications network. The edge router determines that the first packet is to be routed to the first destination network gateway node via a first hub-bypass communications path of the hybrid hub-and-spoke and hub-bypass data communications network. The edge router adds one or more segment identifiers to a header of the first packet that defines the first hub-bypass communications path, and sends the header and the first packet to the first spoke router.

Abstract: Methods and apparatus for managing frequency reassignment within wireless access nodes so as to minimize data session disruption. In one embodiment, the frequency reassignments occur within a quasi-licensed system utilizing 3.5 GHz CBRS (Citizens Broadband Radio Service) spectrum, and a reassignment of wireless spectrum that mitigates disruption or loss of continuity to existing data sessions of users of devices associated with a CBSD/xNB is provided via notification of the associated devices (e.g., Category B Consumer Premises Equipment or CPE, such as an FWA) of the reassignment by the CBSD/xNB. In one variant, the associated devices are instructed by the CBSD/xNB to invoke a “wait and re-establish” protocol that obviates a full frequency band rescan in favor of a designated target frequency provided to the CBSD/xNB by the cognizant SAS or DP.

Abstract: According to one configuration, a wireless communication system includes antenna hardware, radio communication hardware, and a controller. The controller defines wireless sectors of coverage and configures them dynamically depending on network conditions. The radio communication hardware is coupled to the antenna hardware. The antenna hardware includes multiple antenna elements to wirelessly communicate in a network environment. During operation, the controller generates configuration settings to control a configuration of the radio communication hardware and the antenna hardware. The controller applies the configuration settings to the radio communication hardware to define corresponding wireless coverage provided by one or more software defined sectors in multiple base stations in a network environment. The one or more instantiated base stations (as indicated by the configuration settings) provide multiple communication devices in the network environment access to a remote network such as the Internet.