Systems and methods for performing both wireless communications and wireless sensing in combination are disclosed herein. In one example embodiment, the method includes sending, from a first antenna device of a base station (BS), a plurality of first wireless communication signals respectively during a first plurality of time periods associated respectively with a first plurality of symbols and also a plurality of first wireless sensing signals respectively during a second plurality of time periods associated respectively with a second plurality of symbols. Also, the method includes receiving, at the antenna device, a plurality of second wireless communication signals respectively during a third plurality of time periods associated respectively with a third plurality of symbols and also a plurality of second wireless sensing signals respectively during the second plurality of time periods. The second plurality of time periods are interleaved among respective pairs of the first plurality of time periods.

Systems and methods for performing both wireless communications and wireless sensing in combination are disclosed herein. In one example embodiment, the system includes a base station (BS) including each of at least one antenna device including a first antenna device and at least one control unit. The control unit includes an input port coupled at least indirectly to the first antenna device, an output port, and a controllable circuit including each of a spillover cancellation circuit and a bypass circuit. The BS is configured to operate in each of a communication mode and a sensing mode. When the BS operates in the sensing mode, the spillover cancellation circuit of the controllable circuit is enabled and performs spillover cancellation. When the BS operates in a communication mode, the bypass circuit operates so that the spillover cancellation circuit is bypassed or otherwise does not affect how the output signal is generated.

According to one example, the present disclosure is directed to a method and apparatus in which such receiver circuitry and signal processing circuitry may reside The receiver circuitry receives a FMCW radar signal having a content signal (e.g., a random or information signal) embedded into a radar waveform and indicating a relationship in the FMCW radar signal between beat frequency and time delay The signal processing circuitry may apply a filter (e.g, filtering with a group delay that approximates or relates to the relationship) that causes a residual error in, due to dispersion of, the content signal, and may account for (e.g, mitigate) the residual error by introduction of a dispersion-related function in further processing of the content signal.

Systems and methods are described that can include transmitting, from a first wearable computing device, a first ultrasound signal and receiving, by the first wearable computing device and responsive to the first ultrasound signal, a second ultrasound signal from a second wearable computing device. The method can include identifying, by the first wearable computing device, a location of the second wearable computing device with respect to a location of the first wearable computing device where the location of the second wearable computing device can be identified based on a determined time-of-flight of the first ultrasound signal. The method can include establishing a wireless connection between the first wearable computing device and the second wearable computing device where the wireless connection can be based at least in part on the identifier and the identified location associated with the second wearable computing device.

In accordance with a first aspect of the present disclosure, a communication device is provided, comprising: an ultra-wideband (UWB) communication unit configured to enable UWB communication with at least one external communication device, the UWB communication unit comprising a first receiver and a second receiver; a controller configured to control the UWB communication unit; wherein the controller is configured to cause the UWB communication unit to operate in a first mode in which the first receiver is alternately coupled to a first antenna and a second antenna; and wherein the controller is configured to cause the UWB communication unit to operate in a second mode in which the first receiver is coupled to the first antenna and the second receiver is coupled to the second antenna. In accordance with a second aspect of the present disclosure, a corresponding method of operating a communication device is conceived. In accordance with a third aspect of the present disclosure, a computer program is provided for performing said method.

The subject disclosure relates to techniques for enabling vehicle to everything communication. A radar sensor of the disclosed technology can include at least one memory and at least one processor coupled to the at least one memory. The at least one processor can be configured to receive a radar signal having radar data and message data, disaggregate the radar data and the message data using a heterodyne mixer, and provide the radar data to a radar signal processor via a waveform correlator.

In an embodiment, an electronic device may include a first frequency synthesizing circuit outputting a second electronic signal from a first electronic signal, a second frequency synthesizing circuit outputting a fourth electronic signal for converting a frequency of a third electronic signal obtained from the first electronic signal based on the second electronic signal, and a communication processor. The communication processor may be configured to transmit, to the first frequency synthesizing circuit, a first parameter indicating a frequency of the second electronic signal, and changing based on a first preset frequency interval according to a first preset period. The communication processor may be configured to transmit, to the second frequency synthesizing circuit, a second parameter indicating a frequency of the fourth electronic signal based on a frequency of a second clock signal, and changing based on a second preset frequency interval different from the first preset frequency interval.

This application provides a signal processing method and apparatus, may be applied to the field of automatic driving or intelligent driving, in particular to millimeter wave radar target detection. The method includes: A detection apparatus receives at least one first signal corresponding to a first transmit antenna, and performs beamforming processing on the at least one first signal to generate a first beam; and determines information about the first target based on the first beam and a phase of a second beam corresponding to at least one second signal. By this solution, the detection apparatus such as a single-input multiple-output SIMO radar, a multiple-input multiple-output MIMO radar or a cooperative radar, may determine, based on a phase of the first beam and the phase of the second beam, a Doppler phase difference, and determine, based on the Doppler phase difference, the information about the first target.

Disclosed are systems, methods, and non-transitory media for performing radio frequency sensing detection operations. For instance, radio frequency data can be received that is associated with at least one wireless device. The radio frequency data can be based on radio frequency signals reflected from a first object and received by the at least one wireless device. Training label data can also be obtained (e.g., from a labeling device, from the at least one wireless device, etc.). The training label data can be based at least in part on the first object and input data (e.g., received by the labeling device, the at least one wireless device, etc.). A sensing model can be generated based on the radio frequency data and the training label data.

A wireless communication system (100) estimates a carrier frequency offset between wireless devices (101, 102) by configuring the devices through exchanging packet configuration packets (121, 125) to specify a carrier frequency offset fingerprint (CFOF) sequence in a measurement packet (133, 136) which is transmitted between the wireless devices, where the CFOF sequence in the measurement packet includes a prefix component (31), one or more signature segments (32), and a suffix component (33) for performing CFO measurements at the wireless devices which each process IQ samples corresponding to the signature segments in the received measurement packet by correlating the IQ samples against a reference vector to generate, for each of the one or more signature segments, a carrier frequency offset estimate between the first and second wireless devices.