18results about "Transmitter specific arrangements" patented technology

In the method, apparatus, device, and storage medium for processing CSI according to the present disclosure, when a terminal receives a CSI feedback instruction from a network device, the terminal sends first feedback information to the network device, thereby informing the network device of a current CSI feedback situation through the first feedback information, and the network device obtains CSI using a differentiation method based on the first feedback information, further improving the reliability of the CSI feedback and ensuring the transmission performance of the system.

This application discloses a communication method and apparatus, and relates to the communication field, to resolve a problem of how to flexibly configure a DMRS pattern. The method includes: determining, by a terminal device, at least one parameter based on first MCS information after receiving the first MCS information, where the at least one parameter is used to indicate a first reference signal pattern, so that the terminal device sends an uplink reference signal based on the first reference signal pattern; and determining, by a network device, the at least one parameter based on the first MCS information, where the at least one parameter is used to indicate the first reference signal pattern, so that the network device receives the uplink reference signal based on the first reference signal pattern.

This invention discloses a high-speed communication link transmitter modeling method based on a Transformer decoder. This method parameterizes the input signal and establishes a deep learning model with an encoder-decoder architecture, including a non-sequential encoder and a Transformer sequential decoder, to predict the output signal of the transmitter given the input signal. The encoder processes the input signal parameters, generates a context vector, and then passes it to the decoder. The decoder uses the context vector and the transmitter output signal sequence to generate a class probability distribution for each point in the sequence. The model is trained using a random masking strategy and employs non-autoregressive decoding and filtering techniques for inference, achieving parallel output sequence prediction. The final output is obtained through a single signal filtering step. Compared with traditional simulation techniques, this method significantly improves simulation speed while maintaining a very small error.

Embodiments of this application provide a data transmission method for an interface and a communication apparatus, and relate to the field of communication technologies, to improve bandwidth utilization of the interface. In this application, when a plurality of consecutive first data units are transmitted between interfaces, each first data unit in at least one first data unit includes n first data bits and a first bit, where n is an integer greater than or equal to 1. The first bit is located after the n first data bits in time domain, and a value of the first bit is opposite to a value of an nth first data bit in the n first data bits. Embodiments of this application are used for a data transmission between interfaces.

This application provides a reference signal sending method and receiving method and an apparatus. A terminal device generates a frame. The frame includes data and a plurality of reference signals, and a difference between start positions of two adjacent reference signals is associated with a maximum sampling clock offset allowed by the terminal device. According to the method, a performance loss caused by a sampling clock offset introduced by a low-precision ring oscillator can be reduced, and receiving performance of a receiving device can be improved.

Systems and methods to transmit data over multiple communication channels in parallel with forward error correction. Original packets are evenly distributed to the channels as the initial systematically channel-encoded packets. Subsequent channel-encoded packets are configured to be linearly independent of their base sets of channel-encoded packets, where a base set for a subsequent channel-encoded packet includes those scheduled to be transmitted before the subsequent packet in the same channel as the subsequent packet, and optionally one or more initial packets from other channels. The compositions of the sequences of the encoded packets can be predetermined without the content of the packets; and the channel-encoded packets can be generated from the original packets on-the-fly by the transmitters of the channels during transmission. When a sufficient number of packets have been received via the channels, a recipient may terminate their transmissions.

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a transmitting node may determine a set of geometry-specific parameters based at least in part on a symbol sequence length n and a target distribution. The transmitting node may determine a sequence of K bits based at least in part on a plurality of information bits and a bit sequence length K. The transmitting node may map, based at least in part on a composition selected from a plurality of compositions, the sequence of K bits to a sequence of n symbols using arithmetic coding based at least in part on the set of geometry-specific parameters. The transmitting node may transmit the sequence of n symbols to a receiving node. Numerous other aspects are described.

The present disclosure proposes a transmitter and receiver for medical applications, wherein the transmitter comprises: an analog front end for receiving an analog signal of a neural electrode; a digital baseband processing module for digitizing and channel coding the analog signal to obtain a coded signal; a modulator for 16-QAM modulation of the coded signal to obtain a modulated signal; 16-QAM modulation is used to improve the scalable data rate; a plurality of target frequency signals are generated by a phase-locked frequency divider, and the target frequency signals are divided into a plurality of target sub-frequency signals; the phase of the modulated signal is adjusted based on the plurality of target sub-frequency signals to obtain a phase-adjusted signal, realizing multi-band data transmission within the transmitter; and finally a power amplifier amplifies the phase-adjusted signal, and the amplified phase-adjusted signal is transmitted to a transmitting unit so that the transmitting unit transmits a signal, realizing high-speed and low-power signal transmission.

A communication interface circuit includes a protocol layer circuit that generates packet data based on input data, and a physical layer circuit that encodes the packet data to output a transmission state, and drives a data lane including a plurality of three-phase wire links based on the transmission state, wherein the physical layer circuit may include an encoder that calculates the transmission state based on a preceding state output from the encoder in a previous unit interval, a symbol mapped to the packet data, and a control code, and wherein the control code instructs an encoding change based on a coupling relationship of the plurality of three-phase wire links. The communication interface circuit stably transmits data.

Example methods and systems for adapting fourth generation (4G) and / or fifth generation (5G) cellular downlink channels in the presence of non-stationary interference are disclosed. An example method, implemented by one or more processors of a cellular base station, includes: receiving, from a user equipment (UE) radio, channel state information (CSI) for a cellular downlink channel between the cellular base station and the UE; determining a signal to interference and noise ratio (SINR) offset based upon the CSI, and a target block error rate (BLER); determining a variance of the SINR offset that represents one or more characteristics of the non-stationary interference; and determining the target BLER based upon the variance of the SINR offset such that the cellular downlink channel adapts to the presence of the non-stationary interference.

A method and apparatus for determining an outer loop value, a device, and a storage medium are disclosed. The method may include: determining a pre-trained outer loop initialization model based on current feature data of a user equipment (S11); and determining an initialized outer loop value of the user equipment based on a current air interface measurement value of the user equipment and the outer loop initialization model (S12).

Methods, systems, and devices for wireless communications are described. Generally, the described techniques provide for a base station transmitting a modulation and coding scheme index corresponding to a modulation and coding scheme table to a user equipment (UE). The modulation and coding scheme index may be applied to encoding or decoding a transport block. The modulation and coding scheme may be associated with at least two modulation orders or a differential indication according to a modulation and coding scheme table. To determine which of the modulation orders for processing the transport block, the UE and the base station may use a prior modulation order associated with a prior transmission of the transport block. The UE may process the transport block by encoding or decoding the transport block based at least in part on the determined modulation order.

The disclosure relates to a communication technology and a system thereof that fuse a 5G communication system supporting a higher data transmission rate than a 4G system with IoT technology. The disclosure can be applied to intelligent services, such as smart homes, smart buildings, smart cities, smart cars or connected cars, healthcare, digital education, retail, security and safety-related services, etc., based on 5G communication technology and IoT-related technology. In the disclosure, a method and apparatus for determining a size of a transport block in a communication or broadcasting system are disclosed.

This application provides a communication method and related apparatus. The method includes: generating a trigger frame; the trigger frame includes user information fields corresponding to one or more users, the one or more users including a first user using joint source channel coding; the first user corresponds to multiple user information fields, one user information field corresponding to the first user is used to indicate the first user's layer frequency domain resources in one source layer; or, the first user corresponds to one user information field, the one user information field corresponding to the first user is used to indicate the first user's total frequency domain resources in all source layers; sending the trigger frame to receive trigger-based physical layer protocol data units from the first user, the trigger-based physical layer protocol data units including jointly source channel coded data located in the first user's layer frequency domain resources, thereby realizing joint source channel coded transmission based on the trigger frame.

A data transmission method, apparatus, and system are applied to the field of communication technologies. The method includes: performing demultiplexing processing on obtained y first data streams to obtain x second data streams, where the y first data streams are obtained through bit multiplexing processing; mapping the x second data streams at a granularity of n bits to obtain z third data streams; and outputting the z third data streams over an output lane, where y, x, n, and z are all positive integers, and n≥2. The method may be applied to an Ethernet high-speed interface.

This application discloses a joint source-channel encoding method and an information exchange method that are used during wireless data transmission. In the method, through information exchange between an access network, a core network, and a server, the access network can perform joint source-channel encoding on service data, and the access network can further jointly optimize a source-channel encoding parameter with reference to a channel condition, to adapt to different channel conditions of a terminal in real time, so that transmission efficiency of data during wireless transmission is high.

Disclosed is a method performed by a network node (130) of a wireless communication network (100) for handling transmission on a PDCCH to a UE (140). The method comprises transmitting, to the UE (140), a first DCI in the PDCCH using a first CCE aggregation level, and a second DCI using a second CCE aggregation level, the first and the second DCI respectively instructing 2024 / 085789 the UE (140) to send a transmission to the network node (130) on a first and a second uplink resource indicated by the first DCI and the second DCI, respectively. The method further comprises determining whether any transmission was received from the UE (140) on the first uplink resource and on the second uplink resource. Then determining, based on the determining whether any transmission was received from the UE (140) on the first uplink resource and on the second uplink resource, which of the first and the second CCE aggregation level to use for a later PDCCH transmission.

There is provided techniques for encoding and decoding wireless channel measurements. An encoding method is performed by an information encoder device. The method comprises obtaining wireless channel measurements of a UE as available at Physical Layer. The method further comprises generating a refined representation of the wireless channel measurements using a transformer architecture having an attention component and according to which each available basic element of the wireless channel measurements is transformed into a respective embedding vector. A decoding method is performed by an information decoder device. According to this method, a refined representation of the wireless channel measurements for a UE is obtained from an information encoder device. A further refined representation of the wireless channel measurements for the UE is generated using a transformer architecture having an attention component and according to which the embedding vectors and the refined representation are provided as input.