According to one aspect, a system for determining a location of a device is provided. According to one embodiment, the system comprises a management component, a plurality of microphones including a first microphone and a second microphone, at least one receiving component, the at least one receiving component coupled to the plurality of microphones and configured to receive signals from the plurality of microphones related to an acoustic signal detected by the plurality of microphones, determine a first timestamp of the acoustic signal using the signals received from the first microphone, determine a second timestamp of the acoustic signal using the signals received from the second microphone, and send the first timestamp and the second timestamp to the management component, the management component being configured to receive the first timestamp and the second timestamp and calculate the location of the device using the first timestamp and the second timestamp.

A system for locating and identifying a mobile device in an environment comprising a plurality of access devices disposed in an environment is provided. Each access device detects a signal strength of a mobile device in relation to the plurality of access devices in addition to a media access control address to identify the mobile device. A trilateration processor computed a distance between the plurality of access devices and the mobile device, and a non-linear regression processor determines the second distance from a sum of errors received from the trilateral processor to establish a location of the mobile device. A wireless network is in communication with the plurality of access devices, the mobile device, and a server to associate the distance with the media access control address of the mobile device.

An illustrative embodiment disclosed herein is a method including estimating, by an endpoint, a first rate of change of a Doppler frequency offset during a downlink reception from a satellite associated with the Doppler frequency offset and applying, by the endpoint, a second rate of change of the Doppler frequency offset to an uplink transmission to the satellite. The second rate of change of the Doppler frequency offset compensates the first rate of change of the Doppler frequency offset.

A method includes obtaining, at a location management apparatus of a wireless communications system, information indicating an approximate location of a user device; determining network assistance signaling based on the obtained information of the approximate location of a user device; and sending the determined network assistance signaling to a first network apparatus of the wireless communications system, the determining of the network assistance signaling including determining an expected angle of arrival for the first network apparatus and including the expected angle of arrival in the network assistance signaling, the expected angle of arrival being an angle, or a range of angles, corresponding to a direction from which wireless transmissions from the user device arrive at the first network apparatus.

An electronic device is provided. The electronic device includes a memory, a transceiver that communicates with at least one external device, and at least one processor that is electrically connected with the memory and the communication module. The at least one processor is configured to receive an utterance place candidate group and a command for controlling a peripheral device associated with an utterance place from at least one or more other electronic devices by using the transceiver and to store the received utterance place candidate group and the received command in the memory, to select at least one utterance place based on the received utterance place candidate group, and to transmit, to a peripheral device associated with the selected utterance place, a command for controlling the peripheral device.

A position of a user equipment (UE) may be determined using downlink based solutions (e.g. OTDOA), uplink based solutions (e.g. UTDOA), or combined downlink and uplink based solutions (e.g. RTT). The serving gNBs may request neighboring gNBs to produce downlink reference signal transmissions to a target UE and/or measure uplink reference signal transmissions from the target UE. The serving gNB may receive the uplink reference signal measurements from neighboring gNBs and obtain an own uplink reference signal measurement and forward to the UE or another network entity all the uplink reference signal measurements. The UE may use the uplink reference signal measurements, along with the UE's own downlink reference signal measurements to determine RTTs. The serving gNBs or another entity may keep the uplink reference signal measurements and may determine RTTs after receiving the downlink reference signal measurements from the UE.

A method for X2 interface communication is disclosed, comprising: at an X2 gateway for communicating with, and coupled to, a first and a second radio access network (RAN), receiving messages from the first RAN according to a first X2 protocol and mapping the received messages to a second X2 protocol for transmission to the second RAN; maintaining state of one of the first RAN or the second RAN at the X2 gateway; executing executable code received at an interpreter at the X2 gateway as part of the received messages; altering the maintained state based on the executed executable code; and receiving and decoding an initial X2 message from the first RAN; identifying specific strings in the initial X2 message; matching the identified specific strings in a database of stored scripts; and performing a transformation on the initial X2 message, the transformation being retrieved from the database for stored scripts, the stored scripts being transformations.

The present invention relates to a method to improve the precision of a position information of a roadside unit (RSU), the RSU at least comprising a data communication unit, a memory unit and a processor unit, wherein a saved RSU position is saved in the memory unit as position information of the RSU. Further, the present invention relates to a roadside unit (RSU), at least comprising a data communication unit, a memory unit and a processor unit. In addition, the present invention relates to a system to provide position information in an area, preferably in respect of an advanced driver assistant system (ADAS) and/or autonomous driving.

A position tracking system and a method thereof are provided. In the system, a power transmitting unit (PTU) provides power to a power receiving unit (PRU). The PRU chooses one of the PTUs adaptively to receive power, and broadcasts a broadcast information via a corresponding Bluetooth link. Three PTUs receive the broadcast information to obtain three pieces of position information respectively corresponding to the PRU respectively, and a position of the PRU is determined based on the position information of the three PTUs. Accordingly, positioning is implemented in the wireless charging technique by modifying software design.

The present disclosure relates to the mobile communications field. In a positioning base station determining method, a positioning server receives a positioning request message from a terminal device; the positioning server obtains information about a candidate base station from a serving base station of the terminal device according to the positioning request message, where the information about a candidate base station indicates at least one base station; and the positioning server determines a positioning base station set according to the information about a candidate base station, where the positioning base station set includes a positioning base station configured to position the terminal device, and the positioning base station includes one or more of the at least one base station and/or the serving base station.