A system includes a transmitting line replaceable unit (TLRU) configured to receive messages including instructions for avionics receiving line replaceable units (RLRUs). The system further includes a memory configured to store validation data including a set of expected messages. A monitor is further included and is configured to monitor messages received at the TLRU and further configured to determine whether received messages are valid based on at least a portion of the set of expected messages stored in the memory. A plurality of RLRUs are further included and configured to receive message from the TLRU and to execute the instructions included in the received messages.

A coding method for data communication is provided, and may be applied to a plurality of scenarios such as a metro network, a backbone network, and a data center interconnection. The method includes: forming a first codeword, where the first codeword includes n image bits and n to-be-transmitted bits, the n image bits are selected from to-be-transmitted bits in m source codewords, the source codeword is a codeword formed before the first codeword, both n and m are positive integers, and n>m; and sending the n to-be-transmitted bits in the first codeword. The bit in the first codeword is protected by a plurality of codewords generated at different moments, and a coding gain effect is better. In addition, the bit in the codeword is protected by different quantities of codewords.

Disclosed are a communication protocol conversion method and apparatus for detecting communication protocol conversion errors between heterogeneous automobile communication networks. The communication protocol conversion method includes: storing a copy of a first communication network frame received, converting the received first communication network frame into a second communication network frame through a first conversion module, inversely converting the converted second communication network frame into a first communication network frame through a second conversion module, comparing the stored copy of the first communication network frame and the inversely converted first communication network frame, and detecting conversion errors between the first and second communication network frames according to a comparison result.

The present application discloses a signal detection method and device and a storage medium. The signal detection device (100) comprises: a signal processing assembly (130) configured to receive an initial signal comprising a plurality of data streams and preprocess the initial signal to obtain a plurality of data signals and a channel parameter corresponding to each data signal (S110); a signal grouping assembly (110) connected to an output end of the signal processing assembly and configured to group the plurality of data signals according to the channel parameters of the plurality of data signals (S120); and a signal detection assembly (120) connected to an output end of the signal grouping assembly and configured to receive the plurality of grouped data signals and perform grouping detection on the plurality of grouped data signals to obtain a grouping detection result for all the data signals (S130).

A method, at a hearing aid, including receiving a wireless signal including a succession of frames including a first frame including first encoded audio samples and determining a first codec, performing an error check based on the first frame, and in accordance with a determination that the first frame fails to pass the error check, performing a test.

Corrupted messages in 5G and 6G are usually discarded, leading to a retransmission with its added costs, delays, and background generation. Therefore, disclosed herein are methods for a wireless receiver to determine which message elements are faulted, and in many cases to correct them, based on parameters of the waveform signal in each message element. Multiple parameters may be combined for better sensitivity to the fault condition. For example, the indicator parameters may be the modulation deviation of each message element, its amplitude or phase noise level, characteristic interference patterns between symbol-times, a polarization anomaly, a frequency offset, or combinations of these. After localizing the likely faulted message elements, the receiver may be able to recover the message by correcting the waveform signal or the demodulation value, thereby saving time and energy at near zero cost.

Methods, systems, and devices for wireless communications are described herein. A user equipment (UE) may generate a set of feedback bits corresponding to sidelink messages received via one or more sidelink channels. The UE may transmit a first sidelink message via a first feedback resource of a physical sidelink feedback channel occasion. The first sidelink message may include a first subset of the feedback bits. The UE may transmit at least two additional sidelink feedback messages via respective feedback resources. The first additional sidelink feedback message may include the first subset of feedback bits and a second subset of feedback bits encoded using an erasure coding function.

Message faulting is the leading cause of poor reception. Currently, most faulting in 5G and 6G requires either transmission of bulky FEC bits, or retransmission of the message, at substantial delay and cost. This paper shows how the receiver can internally (autonomously) correct the message faults by scanning the digitized waveform signals, to detect characteristic fault signatures that clearly identify the likely faulted subcarriers. With that information, and the CRC or other appended code, and optionally an AI assist, the receiver can correct the message in a fraction of the time required for a retransmission. The message is corrected instantly, with zero background generation, zero bandwidth consumption, and zero cost. Autonomous fault mitigation in the receiver is the most efficient way to improve user reception.

Certain aspects of the present disclosure provide a method of wireless communications by a first multi-link device (MLD). The method generally includes establishing multiple links with at least one second MLD, obtaining network coded packets over at least one of the multiple links, decoding the network coded packets, based on a network decoding algorithm, to recover one or more uncoded packets, generating feedback based on the decoding, and outputting, for transmission, the feedback to the at least one second MLD.