Abstract: A user equipment (UE) is configured to perform a method for adjusting a reception beam. The UE performs receiving first communication signals from a base station using the reception beam having the first reception beam direction, wherein the first communication signals comprise beam direction change information; adjusting the reception beam from the first reception beam direction to a second reception beam direction in accordance with the beam direction change information; and receiving second communication signals from the base station based on the reception beam having the second reception beam direction. Through the method, the UE may actively adjust the reception beam direction based on relative movement between base station beam and itself.

Abstract: An apparatus comprises a radio frequency (RF) antenna circuit; an antenna aperture tuning circuit; an antenna impedance measurement circuit; and a processor circuit electrically coupled to the tunable antenna aperture circuit and the impedance measurement circuit. The processor circuit is configured to: set the antenna aperture tuning circuit to an antenna aperture tuning state according to one or more parameters of an RF communication network; initiate an antenna impedance measurement; and change the antenna aperture tuning state to an antenna aperture tuning state indicated by the antenna impedance.

Abstract: An apparatus comprises a radio frequency (RF) antenna circuit; an antenna aperture tuning circuit; an antenna impedance measurement circuit; and a processor circuit electrically coupled to the tunable antenna aperture circuit and the impedance measurement circuit. The processor circuit is configured to: set the antenna aperture tuning circuit to an antenna aperture tuning state according to one or more parameters of an RF communication network; initiate an antenna impedance measurement; and change the antenna aperture tuning state to an antenna aperture tuning state indicated by the antenna impedance.

Abstract: A wearable wireless device is disclosed. In one embodiment the wearable wireless device includes a circuit board, a housing body housing the circuit board, the housing body having a front side and a back side, a display located at the front side of the housing body, a first antenna element electrically connected to the circuit board and located on the front side of the housing body and a second antenna element electrically connected to the circuit board and located on the front side of the housing body.

Abstract: An apparatus comprises a radio frequency (RF) antenna circuit; an antenna aperture tuning circuit; an antenna impedance measurement circuit; and a processor circuit electrically coupled to the tunable antenna aperture circuit and the impedance measurement circuit. The processor circuit is configured to: set the antenna aperture tuning circuit to an antenna aperture tuning state according to one or more parameters of an RF communication network; initiate an antenna impedance measurement; and change the antenna aperture tuning state to an antenna aperture tuning state indicated by the antenna impedance.

Abstract: An antenna's resonance frequency is detuned when a part of a human body approaches or contacts the antenna and consequently results in efficiency loss. The antenna may be tuned by changing its total load capacitance such that the antenna's total load capacitance falls within a reference capacitance range of a reference capacitance, where the antenna can operate at or near its pre-determined operating resonance frequency. A tunable capacitor may be coupled to the antenna for tuning the total load capacitance of the antenna.

Abstract: A wearable wireless device is disclosed. In one embodiment the wearable wireless device includes a circuit board, a housing body housing the circuit board, the housing body having a front side and a back side, a display located at the front side of the housing body, a first antenna element electrically connected to the circuit board and located on the front side of the housing body and a second antenna element electrically connected to the circuit board and located on the front side of the housing body.

Abstract: The disclosure relates to a board-to-board connector including a body, multiple terminals and a pair of metal fittings. The body has an accommodating recess. The terminal is disposed on the body and a portion of each of the terminals extends to the accommodating recess. The metal fittings are disposed on the body and beside the accommodating recess. The terminals are located between metal fittings. Each of the metal fittings has at least one limiting portion that extends to the accommodating recess. The limiting portion leans against a corner of the accommodating recess so that the metal fittings and the body generate a two-dimensional limitation. A board-to-board connector assembly is also provided.

Abstract: An apparatus comprises a radio frequency (RF) antenna circuit; an antenna aperture tuning circuit; an antenna impedance measurement circuit; and a processor circuit electrically coupled to the tunable antenna aperture circuit and the impedance measurement circuit. The processor circuit is configured to: set the antenna aperture tuning circuit to an antenna aperture tuning state according to one or more parameters of an RF communication network; initiate an antenna impedance measurement; and change the antenna aperture tuning state to an antenna aperture tuning state indicated by the antenna impedance.

Abstract: A terminal device is configured to perform a method for identifying a target device in a local area network (LAN) comprising a plurality of potential target devices. The method includes communicating in an omni-directional format to obtain discovered devices within the area, communicating in a narrow beam format in a direction of the target device; identifying a first list of a first plurality of devices including the target device; eliminating a device from the first list of devices to create a second list of devices; calculating a distance between the terminal device and each device in the second list of devices; determining a precise distance between the terminal device and the target device using a precise distance measurement method; determine which device of the second list of devices has a distance that compares favorably to the precisely determined distance; and identifying the device ID.

Abstract: An electronic circuit for a mobile device, including: a power divider and a hybrid antenna array coupled to a transceiver via the power divider. The hybrid antenna array including a steering beam phased array antenna provided on the front-end module, and a fixed beam antenna provided on the front-end module or distributed on PCB. The fixed beam antennas can be used in space constrained areas of a mobile devices, such as those adjacent to a display on one side of the device, while larger steering beam phased array antennas are used on the back side of a device.

Abstract: An electrical connector assembly including an electrical connecting member, at least one connector, and at least one metal cover is provided. The connector is disposed at and electrically connected to the electrical connecting member. The metal cover is disposed on the electrical connecting member, such that the electrical connecting member is located between the metal cover and the connector, and the connector is covered by the electrical connecting member.

Abstract: An embodiment antenna system includes a first antenna portion configured to transmit a first signal received from a first feed and a second antenna portion configured to transmit a second signal received from a second feed. The second antenna portion is capacitively coupled to the second feed and inductively coupled to the first antenna portion, and the second signal has a frequency greater than a frequency of the first signal.

Abstract: An apparatus comprises a radio frequency (RF) antenna circuit; an antenna aperture tuning circuit; an antenna impedance measurement circuit; and a processor circuit electrically coupled to the tunable antenna aperture circuit and the impedance measurement circuit. The processor circuit is configured to: set the antenna aperture tuning circuit to an antenna aperture tuning state according to one or more parameters of an RF communication network; initiate an antenna impedance measurement; and change the antenna aperture tuning state to an antenna aperture tuning state indicated by the antenna impedance.

Abstract: An electronic circuit for a mobile device, including: a power divider and a hybrid antenna array coupled to a transceiver via the power divider. The hybrid antenna array including a steering beam phased array antenna provided on the front-end module, and a fixed beam antenna provided on the front-end module or distributed on PCB. The fixed beam antennas can be used in space constrained areas of a mobile devices, such as those adjacent to a display on one side of the device, while larger steering beam phased array antennas are used on the back side of a device.

Abstract: A combinative fence assembly includes two posts (1), a plurality of heighteners (2) and a rail (3). Each of the posts (1) has a combining side (10). The two combining sides (10) of the two posts are arranged at an interval and face each other. Each combining side (10) is formed with an inward trough. The heighteners (2) are separately embedded in the troughs (11). The rail (3) is connected between the two combining sides (10) of the two posts (1). Two ends of each rail (3) are separately embedded in the two troughs (11) of the two posts (1) and superposed on at least one of the heighteners (2). Thereby, a fence can be constructed depending on actual requirements.

Abstract: The disclosure relates to technology for beam searching. Beam searching includes forming an omnidirectional radiation pattern by a group of antenna elements including one antenna element from each of one or more phased array antennas. In response to detection of beams from a transmitter, searching for one antenna element in the group according to a combined signal strength of each antenna element in the group; and enabling a phased array antenna with the one antenna element to align with the beams.

Abstract: A terminal device is configured to perform a method for identifying a target device in a local area network (LAN) comprising a plurality of potential target devices. The method includes communicating in an omni-directional format to obtain discovered devices within the area, communicating in a narrow beam format in a direction of the target device; identifying a first list of a first plurality of devices including the target device; eliminating a device from the first list of devices to create a second list of devices; calculating a distance between the terminal device and each device in the second list of devices; determining a precise distance between the terminal device and the target device using a precise distance measurement method; determine which device of the second list of devices has a distance that compares favorably to the precisely determined distance; and identifying the device ID.

Abstract: An apparatus comprises a radio frequency (RF) antenna circuit; an antenna aperture tuning circuit; an antenna impedance measurement circuit; and a processor circuit electrically coupled to the tunable antenna aperture circuit and the impedance measurement circuit. The processor circuit is configured to: set the antenna aperture tuning circuit to an antenna aperture tuning state according to one or more parameters of an RF communication network; initiate an antenna impedance measurement; and change the antenna aperture tuning state to an antenna aperture tuning state indicated by the antenna impedance.

Abstract: The disclosure relates to technology beam steering in which one or more antennas are configured to form a beam directed to a first beam direction based on a configuration corresponding to an environment. A change in direction of the beam is identified in response to a change in orientation of user equipment, the change in orientation determined via one or more sensors in the user equipment, and a second beam direction is calculated based on a the first beam direction and the change in orientation of the user equipment. The one or more antennas are then configured by steering the beam to the second beam direction to compensate for the change in orientation of the user equipment.