Abstract: A base station requires one or more channels in an unlicensed frequency band for a predetermined time interval and schedules one or more user equipment for uplink transmission on the one or more channels during the predetermined time interval. User equipment transmits, over a licensed frequency band, a request for resources for uplink transmission in an unlicensed frequency band. The user equipment receives scheduling information indicating a first portion of a predetermined time interval that is allocated to the first user equipment for uplink transmission on one or more channels in the unlicensed frequency band.

Abstract: A method is provided for assisting data transmission on a first carrier by indicating a termination point of data transmission in a transmitting device and apparatus thereof, wherein the method comprises the steps of: A. transmitting data on the carrier to a receiving device in a first subframe; and B. transmitting downlink control information to the receiving device; wherein the downlink control information includes a termination point indication for indicating a termination point of the data in the first subframe. The method and apparatus could improve the utilization of subframe and transmission capacity, and enable LTE to satisfy the regulations for unlicensed operation with high spectral efficiency.

Abstract: A system-on-a-chip (SOC) board includes a first switch and a plurality of local system-on-a-chip (SOC) devices coupled to the first switch. Each local SOC device includes one or more scheduler for one or more carriers and one or more hardware queues for storing paging packets to be scheduled by the scheduler for wireless transmission. One of the local SOC devices is a transport SOC (TSOC) device that implements a call processing module that is configured to receive a paging packet, forward a copy of the paging packet for storage in a hardware queue associated with each scheduler in the TSOC device that has registered to receive paging packets, and provide a copy of the paging packet to the first switch in response to one or more of the schedulers in the other local SOC devices registering to receive paging packets.

Abstract: A first system-on-a-chip (SOC) device is configured to connect to a backplane interface that is connected to a second SOC device. The first SOC device includes one or more processors to encapsulate an uplink radio bearer packet received at the first SOC device in a first header to form a first encapsulated packet. The first header includes a first address of a destination that is connected to the second SOC device by a backhaul network. The processors are also configured to encapsulate the first encapsulated packet in a second header to form a second encapsulated packet. The second header includes a second address of the second SOC device. The first SOC device also includes a hardware acceleration engine configured to transmit the second encapsulated packet from the first device board over the backplane interface.

Abstract: A base station operates according to a first radio access technology (RAT) that requires synchronization on timing synchronization boundaries. The base station acquires a channel of an unlicensed frequency band and generates a clear-to-send message that is decodable by access points that operate according to a second RAT that does not require synchronization on the timing synchronization boundaries. The base station transmits the clear-to-send message during a time interval between acquisition of the channel and a subsequent timing synchronization boundary.

Abstract: A controller in a wireless communication system includes a transceiver to receive channel activity reports from a first node and a plurality of second nodes that are connected to the first node. The first node supports wireless communication over one or more first channels of a licensed frequency band and second channels of an unlicensed frequency band. The second node supports wireless communication over the second channels of the unlicensed frequency band. The controller also includes a processor to allocate a subset of the second channels to the first node and the plurality of second nodes based on the channel activity reports.

Abstract: A node increments values of performance measurement (PM) counters to indicate characteristics of at least one unlicensed frequency band used for wireless communication during a first time interval. The node provides the values of the PM counters to a controller that is configured to aggregate the values of the PM counters for the node with values of PM counters for other nodes. A controller receives values of PM counters from a plurality of nodes to indicate characteristics of wireless communication by each of the plurality of nodes using the at least one unlicensed frequency band over the first time interval. The controller aggregates the values of the PM counters for the plurality of nodes and modifies a configuration of at least one of the plurality of nodes based on the aggregated values.

Abstract: A base station includes a plurality of system-on-a-chip (SOC) boards, which each include a plurality of SOC devices to support wireless communication on a plurality of carriers. One of the SOC devices is a transport SOC (TSOC) device that terminates a backhaul interface for receiving downlink radio bearer packets. Each of the SOC devices configures the TSOC device to route downlink radio bearer packets to a packet data convergence protocol (PDCP) module in the SOC device.

Abstract: A method of operating a first network element in a wireless communications network to perform WIFI and long term evolution (LTE) communications with a second network element on an unlicensed portion of a radio spectrum, the unlicensed portion being divided into first and second frequency regions, includes performing, at the first network element, WIFI protocol communications over the unlicensed portion, including at least one of transmission to, and reception from, a second network element, of WIFI protocol data using one or more first frequencies of the first frequency region, and performing, at the first network element, LTE protocol communications over the unlicensed portion including at least one of transmission to, and reception from, the second network element, of LTE protocol data using one or more second frequencies of the second frequency region, the WIFI protocol communications and LTE protocol communications being performed by the first network element simultaneously.

Abstract: A node in a wireless communication system includes a transceiver to receive one or more configuration parameters to configure the node for communication in an unlicensed frequency band. The node also includes a processor to implement a state machine that transitions, based on the one or more configuration parameters, between an enable state in which the node supports wireless connectivity in the unlicensed frequency band, a disable state in which the node does not support wireless connectivity in the unlicensed frequency band, and a flywheel state in which the node supports wireless connectivity in the unlicensed frequency band for a predetermined time interval before transitioning to the disable state.

Abstract: A base station operates according to a first radio access technology (RAT) that requires synchronization on timing synchronization boundaries. The base station acquires a channel of an unlicensed frequency band and generates a clear-to-send message that is decodable by access points that operate according to a second RAT that does not require synchronization on the timing synchronization boundaries. The base station transmits the clear-to-send message during a time interval between acquisition of the channel and a subsequent timing synchronization boundary.

Abstract: A node increments values of performance measurement (PM) counters to indicate characteristics of at least one unlicensed frequency band used for wireless communication during a first time interval. The node provides the values of the PM counters to a controller that is configured to aggregate the values of the PM counters for the node with values of PM counters for other nodes. A controller receives values of PM counters from a plurality of nodes to indicate characteristics of wireless communication by each of the plurality of nodes using the at least one unlicensed frequency band over the first time interval. The controller aggregates the values of the PM counters for the plurality of nodes and modifies a configuration of at least one of the plurality of nodes based on the aggregated values.

Abstract: A node in a wireless communication system includes a transceiver to receive one or more configuration parameters to configure the node for communication in an unlicensed frequency band. The node also includes a processor to implement a state machine that transitions, based on the one or more configuration parameters, between an enable state in which the node supports wireless connectivity in the unlicensed frequency band, a disable state in which the node does not support wireless connectivity in the unlicensed frequency band, and a flywheel state in which the node supports wireless connectivity in the unlicensed frequency band for a predetermined time interval before transitioning to the disable state.

Abstract: A node in a wireless communication system includes a transceiver that operates according to a first radio access technology (RAT). The transceiver is to measure a medium usage by one or more other nodes that operate according to a second RAT. The transceiver alternately transmits in a first time interval and bypasses transmission in a second time interval. The first and second time intervals repeat with a duty cycle. The transceiver is to puncture the first time interval with one or more silent gaps. The node also includes a processor to determine a duration of the one or more silent gaps is based on the medium usage.

Abstract: User equipment aggregates connections in at least one of a first unlicensed frequency band and a second unlicensed frequency band with a connection in a licensed frequency band to form a wireless backhaul connection to the user equipment. The user equipment selectively allocates a third unlicensed frequency band to a tethering connection.

Abstract: A first base station selects a subset of channels of an unlicensed frequency band based on indications of energy received over the channels. The first base station transmits one or more messages instructing user equipment to monitor the subset of channels and report information indicating whether at least one second base station is transmitting over the subset of channels. User equipment monitors the subset of channels of the unlicensed frequency band in response to receiving the one or more messages from a first base station indicating the subset of channels. The user equipment transmits one or more messages including information indicating whether one or more second base stations are transmitting over the subset of channels.

Abstract: A base station includes a plurality of system-on-a-chip (SOC) boards, which each include a plurality of SOC devices to support wireless communication on a plurality of carriers. One of the SOC devices is a transport SOC (TSOC) device that terminates a backhaul interface for receiving downlink radio bearer packets. Each of the SOC devices configures the TSOC device to route downlink radio bearer packets to a packet data convergence protocol (PDCP) module in the SOC device.

Abstract: A first system-on-a-chip (SOC) device is configured to connect to a backplane interface that is connected to a second SOC device. The first SOC device includes one or more processors to encapsulate an uplink radio bearer packet received at the first SOC device in a first header to form a first encapsulated packet. The first header includes a first address of a destination that is connected to the second SOC device by a backhaul network. The processors are also configured to encapsulate the first encapsulated packet in a second header to form a second encapsulated packet. The second header includes a second address of the second SOC device. The first SOC device also includes a hardware acceleration engine configured to transmit the second encapsulated packet from the first device board over the backplane interface.

Abstract: A controller in a wireless communication system includes a transceiver to receive channel activity reports from a first node and a plurality of second nodes that are connected to the first node. The first node supports wireless communication over one or more first channels of a licensed frequency band and second channels of an unlicensed frequency band. The second node supports wireless communication over the second channels of the unlicensed frequency band. The controller also includes a processor to allocate a subset of the second channels to the first node and the plurality of second nodes based on the channel activity reports.

Abstract: A system-on-a-chip (SOC) board includes a first switch and a plurality of local system-on-a-chip (SOC) devices coupled to the first switch. Each local SOC device includes one or more scheduler for one or more carriers and one or more hardware queues for storing paging packets to be scheduled by the scheduler for wireless transmission. One of the local SOC devices is a transport SOC (TSOC) device that implements a call processing module that is configured to receive a paging packet, forward a copy of the paging packet for storage in a hardware queue associated with each scheduler in the TSOC device that has registered to receive paging packets, and provide a copy of the paging packet to the first switch in response to one or more of the schedulers in the other local SOC devices registering to receive paging packets.