Abstract:
When a wireless device is configured to function as a relay for a donor access node, the donor access node is configured such that the relaying wireless device is given preferential treatment when compared to non-relaying wireless devices. The communication network and/or donor access node can be configured to provide improved RF conditions, higher throughput, lower latency, etc. to a relaying wireless device than is provided to non-relay wireless devices.
Abstract:
A wireless mesh network is configured. Each node is configured to function as either a gateway node or a relay node. To configure itself as a gateway node, an access node selects an SSID for each of its wireless interfaces that indicates it is an access node. When a relay access node is configuring itself, it scans for the SSIDs of available networks. The SSIDs of the mesh network are selected to indicate the number of other access points between a given access node and a direct wired connection (which is zero in the case of a gateway node.) The relay access node connects to the network having an SSID that indicates the fewest number of hops between itself and a direct wired connection. The SSID that is broadcast by the relay access node indicates the number of other access points between itself and a direct wired connection.
Abstract:
An application processing element in a first wireless communication network receives a first indicator associated with an availability of a first access node in the first wireless communication network to serve a wireless device. The wireless device being served by a first active connection with a second wireless communication network. In response to a first request by the wireless device, the application processing element sends a second indicator to the wireless device. The second indicator is associated with the availability of the first access node in the first wireless communication network to serve the wireless device. The wireless device ending the first active connection based on the first indicator and the signal strength associated with the first access node.
Abstract:
In systems and methods of transmitting a data packet to a wireless device over a wireless communication link, a signal level is received of a wireless communication link between a wireless device and an access node. A data packet is divided into a first segment and a second segment according to the received signal level, and the first segment and the second segment are transmitted to the wireless device over the wireless communication link according to the signal level.
Abstract:
Systems and methods are described for providing multiple voice service modes to a wireless device using data packet transmission through a wireless network. Application requirements including a signal level threshold for a wireless device may be determined. Signal level information for the wireless device may be received and transmitted among various network nodes. The received signal level may be compared with the signal level threshold for the wireless device. The wireless device and the access node may communicate wirelessly to provide voice services to the wireless device application. Data transmission may be converted between a first mode and a second mode depending upon a relative position of the received signal level with respect to the signal level threshold. The second mode of data transmission may be used where the first mode of data transmission cannot because the second mode may consume less network resources.
Abstract:
Systems and methods are described for determining structures for frequency bands. A signal area for an access node may be partitioned into a first partition and a second partition, wherein a first antenna is associated with the first partition and a second antenna is associated with the second partition. The first partition may be assigned a first frequency band and a third frequency band, and the second partition may be assigned a second frequency band and a fourth frequency band. A first frame structure may be selected for the first frequency band, a second frame structure may be selected for the second frequency band, a third frame structure may be selected for the third frequency band, and a fourth frame structure may be selected for the fourth frequency band, wherein the first frame structure differs from the third frame structure and the second frame structure differs from the fourth frame structure. Additionally, data may be communicated between the access node and a plurality of devices over each of the first, second, third, and fourth frequency bands using each respective frame structure selected for each frequency band.
Abstract:
Systems and methods are described for scheduling transmission from an access node. Network conditions in a communication network comprising an access node may be monitored. A scheduling algorithm may be selected for the access node based on the monitored network conditions. Data transmissions may be scheduled from the access node based on the selected scheduling algorithm. And data may be transmitted from the access node to wireless devices based on the transmission schedule.
Abstract:
A system and method of scheduling communication in a wireless communication network are provided. A first access node can determine a scheduling scheme based on data addressed to wireless devices in communication with the first, second, and third access nodes. The data addressed to the wireless devices in communication with the first access node can be transmitted during a first subframe of the scheduling scheme where the first access node does not transmit data addressed to the wireless devices in communication with the first access node during a second subframe of the scheduling scheme. The second and third access nodes can be instructed to assign data addressed to wireless devices that do not meet a signal condition threshold to be transmitted during the first subframe and to assign data addressed to wireless devices that meet the signal condition threshold to be transmitted during the second subframe.
Abstract:
Systems and methods for determining an access node for a wireless device are provided. A source signal level associated with a source access node and a target signal level associated with a target access node may be received from a wireless device. It may be determined that the second access node is operating in a power boosting mode. The wireless device may be instructed to continue communicating with the source access node when the target signal level exceeds the source signal level by less than a first criteria.
Abstract:
Reference signals (a.k.a., pilot signals) are broadcast to aid in at least channel estimation, cell selection, and handover. When a multi-antenna mode (i.e., MIMO) is used data signals on one antenna should not interfere with reference signals on another antenna. Reference signal resource elements (a.k.a., slots) being broadcast from one antenna are multiplied by a first Walsh code and the data (or reference) signal resource elements being broadcast from another antenna are multiplied by second Walsh code in the same family. Multiplication by Walsh codes reduces or eliminates the correlation between the data resource elements on a first antenna and the reference signal resource elements simultaneously broadcast on a second antenna.