5028 results about "Transposer" patented technology

Aspects of the disclosure include configuring beams of a transmitter and a receiver so that the beam spots from the different nodes overlap, such that the received signals of one or more nodes satisfy a service requirement such as rate value, a gain value or a SNR value, at a reconfigurable intelligent surface (RIS) that is used to redirect a signal between the different nodes. Examples of the transmitter and the receiver may be a base station and one or more user equipment (UE) in a downlink or uplink direction or between two UEs in a sidelink direction. Another aspect of the disclosure is providing control signaling in order to configure the overlapping area of the beam spots. For example, signaling information pertaining to one or more beam parameters is exchanged between the transmitter and the receiver in order to facilitate the beamforming that is performed at each device.

The present application relates to PPP-RTK, RTK, SSR, or like correction data based devices and methods to produce geolocation solutions with improved accuracy. Further, such devices and methods may be further employed in various related utility locator devices, utility locating transmitters, and other utility locating and mapping devices.

Methods, devices, and computer-readable media are provided that enable a reconfigurable intelligent surface (RIS) to shape a beam being redirected by the RIS for robustness whether the RIS is integrated at a transmitter, such as a base station or a user equipment (UE), or the RIS is a separate entity from the transmitter. An example method includes beamforming the signal to be transmitted, the beamforming comprising applying beam coefficients to a transmitter. The example method further includes determining configuration information for a reconfigurable intelligent surface (RIS) enabling modification of the signal that impinges on the RIS. The configuration information for the RIS pertains to beam direction, beam shape, and beam robustness of the redirected beam.

An apparatus in one embodiment comprises at least one wearable device, with the at least one wearable device comprising at least one of a transmitter and a receiver of a wireless transmitter-receiver pair. The transmitter of the wireless transmitter-receiver pair transmits an acoustic signal, and the receiver of the wireless transmitter-receiver pair receives the acoustic signal. The received acoustic signal is processed utilizing a machine learning system to detect at least one characteristic of a user of the at least one wearable device. In some embodiments, a given wearable device comprises at least first and second wireless transmitter-receiver pairs, with the transmitter of each of the first and second wireless transmitter-receiver pairs transmitting an acoustic signal having a different carrier frequency. In such embodiments, a multi-channel echo profile may be generated using the multiple acoustic signals and classified by the machine learning system to detect the at least one characteristic.

In a communication network that comprises a reciprocal channel between a transmitter and a receiver, the receiver produce a measurement of the reciprocal channel and exploits channel reciprocity to agree with the transmitter on a random code derived from the measurement. The transmitter employs the random code to produce linearly coded data, which is transmitted to the receiver. The receiver uses the random code to decode the linearly coded data by solving a system of linear equations.

Disclosed are techniques for wireless environment sensing. In aspects, a device-equipped target object receives a radio frequency (RF) sensing signal from a transmitter device, the RF sensing signal configured to enable a sensing device to sense target objects in an environment of the sensing device, the target objects including the device equipped target object. The device-equipped target object transmits an RF sensing response signal to the sensing device in response to reception of the RF sensing signal. In an aspect, a sensing device receives an RF sensing response signal from a device-equipped target object, the RF sensing response signal configured to enable the sensing device to sense the device-equipped target object in an environment of the sensing device. The sensing device detects a presence of the device-equipped target object in the environment of the sensing device based at least on the RF sensing response signal.

Embodiments of the present disclosure relate to methods and apparatuses for sidelink (SL) positioning. According to an embodiment of the present disclosure, a first user equipment (UE) can include: a processor configured to perform an SL positioning procedure with a second UE; a transmitter coupled to the processor and configured to transmit an abort message to abort the SL positioning procedure to the second UE; and a receiver coupled to the processor. The processor is further configured to abort the SL positioning procedure in response to transmitting the abort message.

The present disclosure provides a communication apparatus comprising: circuitry, which, in operation, generates at least one signal, wherein a part of the at least one signal is configured for a first station of a first generation and another part of the at least one signal is configured for a second station of a second generation in a sounding procedure; and a transmitter, which, in operation, transmits the at least one signal.

A radar apparatus includes a transmitter circuit. The transmitter circuit is configured to transmit, via a first transmit channel, a first sequence of FMCW radar chirps, and to transmit, via at least a second transmit channel, a second sequence of FMCW radar chirps concurrently with the first sequence of FMCW radar chirps. The radar apparatus includes a control circuit configured to control the first and second transmit channels to set phases of the FMCW radar chirps of the first and second sequences in accordance with a phase modulation scheme that includes a first unique phase code sequence assigned to the first sequence of FMCW radar chirps, and a second unique phase code sequence assigned to the second sequence of FMCW radar chirps. The first unique phase code sequence is combined with a scrambling phase code sequence. The second unique phase code sequence is combined with the scrambling phase code sequence.

This invention relates to an optical wireless communication (OWC) system that is configured to make use of observations of straylight reflections as generated by an OWC transmitter in order to support contention-based channel access including that of multiple basic or extended service sets (BSS, ESS) with overlapping coverage areas. It is proposed to have an additional optical signal or signal component generated in the OWC transmitter which allows for simple detection without having to do heavy digital demodulation processing. A learning phase may allow to adjust for environmental conditions like reflectivity or transmitter characteristics.

Methods and apparatuses for performing MIMO transmissions are described. Retransmission schemes are described for MIMO transmissions. In an example, a transmitter node obtains a plurality of packets to be transmitted to an intended receiver node over a plurality of MIMO layers. A set of one or more cross-block check blocks is generated, where the set of one or more cross-block check blocks being is using a plurality of bits selected from across two or more packets to be transmitted over respective two or more MIMO layers. The set of one or more cross-block check blocks is transmitted over one or more MIMO layers.

Apparatuses, methods, and systems are disclosed for determining a resource for a channel state information report. One method (600) includes receiving (602), from a transmitter device, a channel state information reference signal within a data region and a channel state information request indicator in sidelink control information. The method (600) includes determining (604), at a receiver device, a resource for transmitting a channel state information report in response to the channel state information request indicator using a mode 1 resource allocation procedure, a mode 2 resource allocation procedure, or a combination thereof. The method (600) includes transmitting (606), from the receiver device, the channel state information report via a medium access control control element using the resource.

Apparatuses, methods, and systems are disclosed for zone configuration and provisioning for Vulnerable Road User VRU protection. One apparatus includes a receiver that receives a request to create a high-risk zone, the request including an application requirement that indicates at least a target area, and a processor that determines a VRU high-risk zone configuration in response to receiving the application requirement. The apparatus includes a transmitter that transmits a first set of zone configuration parameters to at least one user equipment UE based on the determined VRU high-risk zone configuration and transmits a second set of zone configuration parameters to at least one network function in a mobile communication network.

The invention provides a multi-parameter MIMO (Multiple Input Multiple Output) aviation time-frequency detection system and method, which can be applied to the technical field of underground medium detection. The system comprises a flying platform, a transmitting subsystem, a receiving subsystem and a measurement and control subsystem, and the transmitting subsystem is configured to load a first current pulse into a transmitting coil through a first current transmitter to achieve primary electromagnetic field excitation and load a second current pulse into a compensation coil through a second current transmitter to achieve secondary electromagnetic field excitation. Compensation electromagnetic field excitation is realized; the receiving subsystem is configured to be used for sampling the first current pulse and the second current pulse and collecting secondary electromagnetic field response to obtain underground medium electrical information of the target detection area; and the measurement and control subsystem is configured to send a control instruction to the transmitting subsystem and the receiving subsystem according to a sampling result and set detection parameters and monitor the working state of the detection system, and the measurement and control subsystem adjusts the first current pulse and the second current pulse in real time.

An apparatus may include a transmitter and one or more processors. The one or more processors may identify, based on a first parity check matrix of a first quasi-cyclic-low-density parity-check (QC-LDPC) code according to a code rate of 3 / 4, a second parity check matrix corresponding to a first exponent matrix comprising 576 values for a second QC-LDPC code. The second QC-LDPC code may have a code block size that is twice a code block size of the first QC-LDPC code. The one or more processors may encode data using the second parity check matrix. The transmitter may be configured to transmit the encoded data.

The invention discloses a transmitter equalization driving circuit and a method for processing a signal to be transmitted. The circuit comprises a serialization and retiming module used for generating multiple paths of parallel data based on a signal to be transmitted; the data selector module is connected with the serialization and retiming module and used for receiving the clock signal corresponding to each path of parallel data and generating process data including front tap data, main tap data, first rear tap data and second rear tap data based on the parallel data and the clock signal; the pulse generation module is connected with the data selector module and is used for receiving the process data to generate a front tap equalization pulse and a first rear tap equalization pulse; and the hybrid equalization driving module is connected with the pulse generation module and the data selector module, and is used for receiving the front tap data, the front tap equalization pulse, the main tap data, the first rear tap equalization pulse and the second rear tap data to generate an output signal of the signal to be transmitted. The circuit can improve the signal quality of the output signal.

Aspects of the subject disclosure may include, for example, a device including a detector configured to identify a narrow-band absorption occurring within a signal spectrum of an optical signal propagating through a gaseous medium, wherein the optical signal is configured to communicate digital information via an optical communication link including a transmitter, a receiver and an optical transport medium therebetween. The device further includes a mitigation controller configured to control a digital circuit to mitigate at least a portion of a vulnerability of the optical communication link, the vulnerability associated with the narrow-band absorption. Other embodiments are disclosed.

According to some embodiments, in a radio frequency (RF) transceiver system having a transmit chain and a digital pre-distorter (DPD), a control unit includes: one or more inputs, at least one of which is connected to receive a first signal corresponding to a signal to be transmitted via the transmit chain or a modified version of the signal to be transmitted; and an output connected to provide a control signal to the DPD, and to a reconfigurable matching network (RMN) for commanding a reconfiguration of the RMN, wherein the DPD is configured to apply digital predistortion to the signal to be transmitted based at least in part on combining the first signal with a second signal corresponding to the control signal or a translated version thereof, and to provide a resulting pre-distorted signal to the transmit chain.

In a transmitter there is a distributor and assembly bank into which a predetermined quantity of an input payload from a source is repeatedly written according to a first distributor permutation to create as many input vectors as there are electromagnetic propagation pathways. A staging bank exists into which each input vector available from the assembly bank are repeatedly written according to a second distributor permutation. A presentation bank exists into which each input vector available from the staging bank are repeatedly written according to a third distributor permutation. One or more encoders repeatedly encode input vectors from the presentation bank; there being as many encoders as electromagnetic propagation pathways, and each encoder makes available each encoded ordered series of output levels for communication over the pathways. The banks and encoders are in up to four timing domains. A corresponding receiver, decoder, and reception, staging and disassembly banks and a sink are at the end of the pathways.

A user equipment (UE) is disclosed that receives configuration information for a resource for a downlink reference signal and measures the downlink reference signal based on the configuration information. The UE reports information to the access network node, based on the configuration information and the measurement. The reported information includes information for configuring a first transmitter parameter configuration for at least one physical downlink shared channel (PDSCH) transmitted in at least one time resource configured for downlink communication, and information for configuring a second transmitter parameter configuration for at least one PDSCH transmitted in at least one time resource configured for full duplex communication.

An apparatus may include a transmitter and one or more processors. The one or more processors may identify, based on a first parity check matrix of a first quasi-cyclic-low-density parity-check (QC-LDPC) code according to a code rate of 5 / 6, a second parity check matrix corresponding to a first exponent matrix comprising 384 values for a second QC-LDPC code. The second QC-LDPC code may have a code block size that is twice a code block size of the first QC-LDPC code. The one or more processors may encode data using the second parity check matrix. The transmitter may be configured to transmit the encoded data.

Disclosed in the present invention are an intelligent communication countermeasure method and a system. The method comprises: acquiring geographic locations of a transmitter and a receiver of a communication party, calculating a channel function of each channel, and constructing a communication party utility model; acquiring the geographic location of a jammer, calculating the gain of each channel, and constructing a jammer utility model; constructing a communication countermeasure process on the basis of a Stackelberg game theory, taking the communication party as a leader in the game process, and taking the jammer as a follower in the game process; and when the utility of the communication party and the utility of a jammer party finally converge after multiple rounds of games, outputting policies of the communication party and the jammer party in a stable state. According to the present invention, an intelligent reflecting surface is introduced into the communication party, the intelligent reflecting surface reflects useful signals on the basis of the location of the receiver, and signals of a direct path and a reflection path are mutually counteracted by changing phases of jamming signals, so as to suppress the jamming signals, thereby effectively improving the anti-jamming capability of the communication party.

The disclosure relates to a 5G or 6G communication system for supporting a higher data transmission rate. Specifically, the disclosure related to method and apparatus for measuring positioning reference signal in a wireless communication system. The method and apparatus for performing a receiver and a method and apparatus for performing a transmitter in a wireless communication system, as well as a transmitter device and a receiver device are provided herein. Wherein, a method performed by a receiver in a communication system, comprises: acquiring configuration information of a reference signal for positioning: performing a carrier phase-based positioning measurement based on the configuration information: and reporting and / or transmitting a result of the carrier phase-based positioning measurement.

An apparatus may include a transmitter and one or more processors. The one or more processors may identify, based on a first parity check matrix of a first quasi-cyclic-low-density parity-check (QC-LDPC) code according to a code rate of 2 / 3, a second parity check matrix corresponding to a first exponent matrix comprising 768 values for a second QC-LDPC code. The second QC-LDPC code may have a code block size that is twice a code block size of the first QC-LDPC code. The one or more processors may encode data using the second parity check matrix. The transmitter may be configured to transmit the encoded data.

The invention provides a covert communication method based on near-field broadband super-large-scale array beam splitting. Comprising the following steps: S1, according to an applied near-field covert communication scene, constructing a corresponding communication model by using a beam splitting effect in a broadband XL-MIMO system, carrying out beam training, and describing a received signal expression of the communication model; s2, constructing a signal detection model of a listener according to a near-field covert communication scene, and describing a detection error probability expression and a covert constraint expression; and step S3, the hidden transmission rate is maximized by optimizing the transmitting power and the subcarrier number of the transmitter. According to the method, the two-dimensional optimization problem related to the transmitting power and the subcarriers is converted into the one-dimensional optimization problem related to the discrete variable quantum carrier number, and the concealment rate of a legal receiver is maximized.

The invention belongs to the technical field of communication, and discloses a positioning method and system based on differential time delay and an alternating direction multiplier method, and the method comprises the steps: obtaining the position information and differential time delay of a receiver; performing joint estimation on the position of the target object and the position of the transmitter based on an alternating direction multiplier method; wherein during joint estimation, a first variable and a second variable are introduced, an original optimization problem is decomposed into two sub-problems related to the first variable, the second variable and a Lagrangian multiplier coefficient during iterative calculation in the joint estimation process, and in each iterative process, analytical solutions of the two sub-problems are solved respectively; and updating the first variable, the second variable and the Lagrange multiplier coefficient. According to the method, the accuracy of target object position estimation can be improved while the calculation complexity can be remarkably reduced.

An apparatus may include a transmitter and one or more processors. The one or more processors may identify, based on a first parity check matrix of a first quasi-cyclic-low-density parity-check (QC-LDPC) code according to a code rate of 1 / 2, a second parity check matrix corresponding to a first exponent matrix comprising 1152 values for a second QC-LDPC code. The second QC-LDPC code may have a code block size that is twice a code block size of the first QC-LDPC code. The one or more processors may encode data using the second parity check matrix. The transmitter may be configured to transmit the encoded data.

The present invention relates to methods of improving accuracy of positioning a node in a cellular system. The invention discloses a method for receiving reference signal and assistance information at different antenna on each antenna port per antenna group in each time interval from antenna beams of a transmitter in a time orthogonal manner using the configuration information. The method also comprises estimation of positioning parameters based on time domain multiplexing of the at least one reference signal and the at least one assistance information received on different antenna on each antenna port per antenna group. The invention further discloses methods of improving accuracy by estimating orientation of a user equipment, shortlisting best group of measurement of positioning parameters, and optimization of time and angle window for estimation of location of the user equipment.

Wireless sensing using measurement enhancement is described. In one example, a described method comprises: receiving a wireless signal transmitted by a transmitter through a wireless multipath channel of a venue, wherein the received wireless signal differs from the transmitted wireless signal due to the wireless multipath channel and a motion of an object in the venue; obtaining a time series of channel information (TSCI) of the wireless multipath channel based on the received wireless signal, wherein each channel information (CI) comprises N1 CI components (CIC); for each respective CI having N1 CIC of the TSCI, computing a respective enhanced CI (ECI) having N2 CIC; computing a motion information (MI) based on the ECI of the TSCI; and performing a sensing task based on the MI.

The invention relates to the technical field of intelligent communication, and discloses an end-to-end optimization method, a signal constellation geometry and probability joint shaping optimization method in an end-to-end intelligent communication system, and a communication device based on a neural network. According to the method, a transmitter is constructed by using a neural network, and a received signal passes through a two-stage equalization processing system to form an end-to-end optimization framework without assistance of a channel model. The transmitter adopts a modular design, can realize joint optimization of constellation probability shaping (PS) and geometric shaping (GS), and performs joint updating on all trainable parameters of the system based on a total loss function containing an equilibrium error and a decoding error through a back propagation algorithm. According to the invention, computing resources are effectively saved; the two-stage equalization system can accurately compensate channel damage, the realized PS and GS joint optimization can significantly improve the performance of the communication system and reduce the bit error rate, and the method has good performance advantages and practical value in an actual optical fiber communication system.