Abstract: A radio-frequency module includes: a transmitting circuit disposed on a mounting substrate to process a radio-frequency signal input from a transmission terminal and to output a resultant signal to a common terminal; a receiving circuit disposed on the mounting substrate to process a radio-frequency signal input from the common terminal and to output a resultant signal to a reception terminal; a first inductor included in a first transmitting circuit; and a bonding wire connected to the ground and bridging over the first inductor.

Abstract: A test system for testing a device under test having at least an input port and an output port. The test system comprising a vector signal generator, a switch, a directional element, and a vector signal analyser. The vector signal generator, depending on the respective switching position of the switch, is connected with the input port of the device under test or the output port of the device under test such that, in a first switching position of the switch, the wideband modulated signal generated by the vector signal generator is forwarded to the input port and, in a second switching position of the switch, the wideband modulated signal generated by the vector signal generator is forwarded to the output port. The switch is configured to enable the vector signal analyser to perform reflection measurements and transmission measurements depending on the respective switching position of the switch.

Abstract: Systems, methods, and apparatus for geolocating a signal emitting device are disclosed. A monitoring array comprises at least four monitoring units. A distance ratio between the at least four monitoring units relative to a midpoint is determined. The at least four monitoring units are operable to scan independently for a signal of interest. The at least four monitoring units are operable to calculate times of arrival and angles of arrival for the signal of interest. Each of the at least four monitoring units is operable to measure the signal of interest and transmit a formatted message to other monitoring units within the monitoring array. Each of the at least four monitoring units is operable to determine a location of the signal emitting device from which the signal of interest is emitted based on calculations and measurements relating to the signal of interest.

Abstract: Systems, methods, and devices enable spectrum management by identifying, classifying, and cataloging signals of interest based on radio frequency measurements. Signal data is compared with stored data to identify the signal of interest. Signal degradation data is calculated based on noise figure parameters, hardware parameters and environment parameters.

Abstract: Systems and methods of providing a mobile device cover are described. In some embodiments, the mobile device cover may include, for example, an acoustic sensor, a processor, and lighting devices. The processor can be operatively coupled to the acoustic sensor and the lighting devices. The acoustic sensor can be configured to receive sound generated by the mobile phone and to convert the sound into an acoustic signal. The processor can be configured to receive the acoustic signal and to determine whether the acoustic signal is similar to one of a plurality of acoustic signals previously stored on the mobile phone cover. Each of the previously stored acoustic signals can be indicative of, for example, a particular caller, a particular message sender, or a particular alert. Based on the acoustic signal determination, the processor is configured to cause lighting of the one or more lighting devices corresponding to the indicated caller, indicated message sender, or indicated alert.

Abstract: A radio-frequency module includes: transmitting filter and receiving filters for a first communication band; transmitting filter and receiving filters for a second communication band; and a switch including first and second common terminals and first to fifth selection terminals. The second common terminal is connected to a first input terminal. A common terminal of the transmitting and receiving filters for the first communication band and a common terminal of the transmitting and receiving filters for the second communication band are connected respectively to the first and second selection terminals. The transmitting and receiving filters for the first communication band are connected respectively to the third selection terminal and a first output terminal. The transmitting and receiving filters for the second communication band are connected respectively to the fourth selection terminal and a second output terminal. The fifth selection terminal is connected to a third output terminal.

Abstract: One example system includes a biosensor applicator having a housing defining a cavity configured to receive and physically couple to a biosensor device, and to apply the biosensor device to a wearer; an applicator coil antenna oriented around a first axis; and a biosensor device including a biosensor coil antenna; a first wireless transceiver electrically coupled to the biosensor coil antenna; a Bluetooth antenna; and a second wireless transceiver coupled to the Bluetooth antenna; wherein the biosensor device is physically coupled to the biosensor applicator and positioned at least partially within the cavity; and wherein the applicator coil antenna is configured to wirelessly receive electromagnetic (“EM”) energy from a remote coil antenna and wirelessly provide at least a first portion of the received EM energy to the biosensor coil antenna.

Abstract: The present disclosure provides a method and a device for measuring a radiation pattern of an antenna array. The method includes: obtaining a plurality of array radiation patterns corresponding to a plurality of array elements and a plurality of center positions corresponding to the plurality of array radiation patterns; feeding a preset port excitation to the antenna array; obtaining a plurality of sets of measurement data of the antenna array at a plurality of corresponding measurement points in a far field of the antenna array; obtaining an aperture field excitation based on the plurality of array radiation patterns, the plurality of center positions, positions of the plurality of measurement points and the plurality of sets of measurement data; and obtaining a radiation pattern of the antenna array at a target position based on the aperture field excitation, the plurality of array radiation patterns and the plurality of center positions.

Abstract: A network traffic associated with a communication request within a computing device can be identified. The device can comprise of a first and second communication stack which can addresses a first and a second network interface within the computing device. The first network interface can be associated with a mobile broadband network and the second network interface can be associated with a computing network. A first and second portion of the network traffic associated with the communication request can be programmatically determined to be conveyed to the first and second network interfaces. The first and second portions of network traffic can be conveyed simultaneously to the mobile broadband network associated with the first network interface and the computing network associated with the second network interface.

Abstract: In at least some examples, a system comprises a first kiosk computer to display first content and to broadcast a first beacon signal, and a second kiosk computer to display second content and to broadcast a second beacon signal. A mobile device is to establish communications with the more proximate of the first and second kiosk computers as determined based on the first and second beacon signals and to cause new content to be provided to the more proximate kiosk computer. The more proximate kiosk computer is to display the new content.

Abstract: A method for determining an optimum position of a device under test when testing the device under test over-the-air is described. The method includes providing an anechoic chamber with a quiet zone, providing a device under test within the anechoic chamber, the device under test having at least two antennas, positioning the device under test within a testing area inside the anechoic chamber, the testing area including an optimum position for the device under test with respect to the quiet zone; and providing an interactive feedback signal while repositioning the device under test, wherein based on the interactive feedback signal a position of the device under test is adjusted to match the optimum position. Furthermore, a system for determining an optimum position of a device under test is provided.

Abstract: An electronic device is provided, the electronic device including a housing including a side member comprising a side housing comprising a metal material; a display disposed in an inner space of the housing to be viewable through at least a portion of the housing; a mid plate disposed in the inner space and comprising a metal material; a waterproof member comprising an adhesive material disposed between a first portion of the mid plate and a second portion of the side member and facing the first portion; and a coating layer disposed between the first portion and the waterproof member.

Abstract: A control method of a multi-antenna module includes the following. Antennas generating signals in at least a first frequency band and a second frequency band are provided. The antennas are divided into a first group and a second group by detecting performance of the antennas in the first frequency band and the second frequency band. Antennas of the first group have better performance in the first frequency band than in the second frequency band, and antennas of the second group are antennas other than the antennas of the first group. The number of the antennas of each of the first group and the second group is at least greater than or equal to 2. The first group is instructed to generate the signals in the first frequency band, and the second group is instructed to generate the signals in the second frequency band.

Abstract: One example discloses a magnetic induction device, including: a transmitter configured to induce a magnetic signal in a structure; wherein the structure is coupled to a sub-structure; a controller configured to characterize the structure so as to identify a first frequency range of the magnetic signal that resonates with the structure; wherein the controller is configured to identify a second frequency range that resonates with the sub-structure; wherein the controller is configured to select a frequency for the magnetic signal within the first frequency range that has a harmonic frequency in the second frequency range; and wherein the transmitter is configured to transmit the magnetic signal into the structure at the selected frequency.

Abstract: A fusion engine configured for execution on a ground radio station (GRS) for an unmanned aircraft system (UAS) operating environment is disclosed. In embodiments, the fusion engine tracks the wait times of UAS required to share a C2 channel while waiting for a full C2 link with the GRS, as well as the dynamic availability of C2 channels for full or shared C2 links over time. Based on the collected wait times and availability variables, the fusion engine generates congestion metrics relevant to the capacity of the GRS, e.g., its available spectrum resources, to effectively provide C2 services to every UAS operating within its coverage area. Congestion metrics include expected wait times on a shared C2 link fora UAS in service (e.g., waiting fora full C2 link) and/or the expected number of C2 channels available at the GRS at a given time.

Abstract: Phase shifters for communication systems are provided herein. In certain embodiments, a phase shifter includes a plurality of phase shifting sections and a plurality of selection switches each coupled to a corresponding one of the phase shifting sections. The selection switches are formed on a semiconductor die, and are operable to connect one or more selected phase shifting sections between an input terminal and an output terminal, thereby controlling an overall phase shift provided by the phase shifter.

Abstract: There is provided mobile terminal testing device and system capable of reducing a processing load, when testing mobile terminals that support NSA. Included are a first mobile terminal testing device operating as a base station of LTE and a second mobile terminal testing device operating as a base station of 5G NR of NSA, when testing a mobile terminal which supports NSA, the second mobile terminal testing device generates a control signal of 5G NR, transmits the generated control signal of 5G NR to the first mobile terminal testing device, and the first mobile terminal testing device 1 transmits the received control signal of 5G NR to the mobile terminal according to the LTE.

Abstract: A system for remotely controlling a plurality of subsystems of a vehicle comprises a processor and a memory storing instructions. When executed by the processor, the instructions cause the processor to send a signal via a wireless network to activate a control circuit connected to a Controller Area Network (CAN) bus in the vehicle. The instructions cause the processor to send a command via the wireless network to the control circuit to clear a fault code associated with one of a plurality of Electronic Control Units (ECUs) respectively controlling the plurality of subsystems of the vehicle via the CAN bus, to reset a parameter of one of the plurality of ECUs controlling an exhaust subsystem of the vehicle to a default value, or to initiate a forced regeneration of a diesel particulate filter of the exhaust subsystem of the vehicle.

Abstract: In a method for determining a location of an electronic device, a plurality of beacon signals are received from a plurality of beacon devices at the electronic device, wherein each beacon signal of the plurality of beacon signals includes an identity of a beacon device transmitting a respective beacon signal, and each beacon device of the plurality of beacon devices has a known location. A received signal strength for each beacon signal of the plurality of beacon signals is measured. A distance of the electronic device from each beacon device for which the plurality of beacon signals is received is determined, wherein the distance of the electronic device from a beacon device is based at least in part on the received signal strength of the beacon signal transmitted by the beacon device. A location of the electronic device is determined based at least on part on the distance of the electronic device from each beacon device for which the plurality of beacon signals is received.

Abstract: A cover accessory capable of operating a light emitting device without a separate power source and an electronic device including the cover accessory are provided. A cover accessory includes a cover that is detachably combinable with an electronic device and formed to surround a rear plate and a lateral member of the electronic device. The cover includes a recess formed to correspond to the rear plate of the electronic device. The cover accessory includes a circuit board disposed in the recess such that a surface thereof faces the recess, a light source layer including a plurality of light emitting devices disposed on the surface of the circuit board, a wireless power receiving module disposed on one of the surface or an opposite surface of the circuit board, and a cover processor disposed on one of the surface or the opposite surface of the circuit board and electrically connected to the wireless power receiving module and the plurality of light emitting devices of the light source layer.