This application provides a communication method and a related apparatus. The method includes: receiving a first signal on a first frequency domain resource and a first time unit, where the first signal is a primary synchronization signal or a secondary synchronization signal, the first signal includes at least two signals, a second signal in the at least two signals in the first signal is mapped to a second frequency domain resource, a third signal in the at least two signals is mapped to a third frequency domain resource, and the second frequency domain resource and the third frequency domain resource are located in the first frequency domain resource; and performing signal detection on the first time unit based on at least one of the at least two signals.

A method and apparatus for reporting and receiving CSI, and a terminal device and a network device are provided. The method comprises: a terminal device determining second information in a second CSI portion according to first information in a first CSI portion, wherein the first information is assumption information or two RIs, the assumption information is used for indicating a transmission assumption or a measurement assumption, on which CSI reporting is based, the two RIs are obtained by means of measurement based on different measurement resources, and the second information comprises a PMI and/or a CQI; and the terminal device reporting the CSI, wherein the CSI comprises the first CSI portion and the second CSI portion.

A system that incorporates teachings of the present disclosure can include, for example, an apparatus having a matching network adapted to reduce a magnitude of a signal reflection at a port of the matching network. The matching network can have one or more controllable variable reactive elements. A controller can be adapted to determine reflection coefficient information from incident and reflected waves sampled at the port of the matching network, and follow at least one cycle of a coarse tune process for generating one or more control signals to tune one or more reactances of the one or more controllable variable reactive elements. Additional embodiments are disclosed.

A system that incorporates teachings of the subject disclosure may include, for example, a method for comparing a received signal from a first antenna to a reference signal transmitted by a second antenna, determining from the comparison one or more compensation parameters, and tuning a compensation circuit according to the one or more compensation parameters, where the one or more compensations parameters configure the compensation circuit to reduce mutual coupling between the first and second antennas. Other embodiments are disclosed.

A mobile communication terminal used in a communication system in which audio based on an audio signal transmitted from a given mobile communication terminal having speaking rights is output from another mobile communication terminal, the given mobile communication terminal being selected by a server storing priority rank information indicating a priority rank pertaining to acquisition of the speaking rights for each of a plurality of mobile communication terminals, the mobile communication terminal including a rank signal receiver receiving, from the server, a priority rank signal based on the priority rank information stored by the server and indicating the priority rank for at least a subset of the mobile communication terminals and a display displaying a terminal priority rank based on the priority rank signal when the rank signal receiver receives the priority rank signal.

The present invention provides for a modular radio frequency communications assembly including a radio frequency hub and one or more radio frequency modules. Each radio frequency module includes a power and data interface for receiving power from and exchanging data with a modular radio frequency hub and a processor and memory for providing at least one of change a communications frequency, increase communications bandwidth, or add security using the one or more antennas and the power and data interface. The radio frequency hub includes two or more communications interfaces for connecting to two or more radio frequency modules, wherein each of the communications interfaces have the same physical and electrical configuration; A shared data and power interface for sharing data and power among the two or more radio frequency modules. A bus distributes data and power among the two or more radio frequency modules. One or more antenna interfaces are located on the RF hub or the RF modules for connecting radio frequency antennas.

This invention relates to automatic delivery of messages, particularly to provide delivery of messages as a single instance message in which the user has the greatest probability of successful transmittance of the emergency message in one single instance of transmission.

Technologies are generally described for a bandwidth control scheme. In some examples, a transmitter device configured to transmit information via a wireless connection may include a baseband signal processor configured to process the information to generate a baseband signal with a baseband bandwidth; a modulator configured to modulate a radio frequency (RF) signal with an RF bandwidth based on the baseband signal; and a controller configured to adjust at least one of the baseband bandwidth and the RF bandwidth based on a movement of the transmitter device relative to a position of a receiver device configured to receive the RF signal.

A method and apparatus for transmitting split availability of a cell in a wireless communication system is provided. A first eNodeB (eNB) may transmit a split availability of a first cell, managed by the first eNB, to neighbor eNBs. The split availability of the first cell may indicate whether the first cell supports cell split operation or not. Alternatively, the split availability of the first cell may indicate whether the first eNB supports an active antenna system (AAS).

This specification provides a method for performing a discovery procedure in a wireless communication system supporting device to device (D2D) communication. The method is performed by first user equipment and includes monitoring a discovery resource region, selecting a discovery resource for sending a discovery message in the discovery resource region, and transmitting the discovery message to second user equipment through the selected discovery resource. The discovery resource region includes a first discovery resource region and a second discovery resource region.