177results about "Link quality based transmission modification" patented technology

Aspects of the present application relate to sensing-based, mobility-aware waveform adaptation. A transmitting device may estimate a velocity vector for a mobile device. The velocity vector estimate may be based on measurements made at the mobile device and fed back to the transmitting device or based on measurements made at other devices in the environment and provided to the transmitting device. The transmitting device may, based on the estimate of the velocity vector, obtain a Doppler variable estimate for a signal path between the transmitting device and the mobile device. The transmitting device may then adapt a to-be-transmitted waveform based on the Doppler variable estimate for the signal path and then transmit the adapted waveform. Occasionally, the transmitting device may obtain updates to parameters that describe the location and mobility of the mobile device. On the basis of the updates, the transmitting device may update the waveform adaptation.

The invention relates to the technical field of Internet of Things electric power communication, and discloses a remote software upgrading method and system based on an HPLC high-speed power line carrier network. The remote software upgrading method is applied to software upgrading equipment, and specifically comprises the following steps that S101, a master control node of software to be upgraded is obtained, the master control node completes encryption of an upgrading instruction packet through HPLC network broadcasting, if the master control node is in an offline state, a response is triggered through a wake-up pulse signal synchronized with a power line power frequency period, and if the master control node is not in the offline state, the software to be upgraded is upgraded; and it is ensured that the whole network nodes complete instruction synchronization within the preset time. Omnibearing upgrading and optimization are achieved through three core technologies of dynamic fragmentation transmission, millisecond-level service continuity guarantee and resource limit adaptation, the packet loss rate of a high-noise environment is compressed to 0.1% based on a signal-to-noise ratio self-adaptive fragmentation strategy (128KB-512KB), the average transmission time is reduced to 17.4 minutes from 30 minutes in combination with a multi-path concurrent transmission and breakpoint resume protocol, and the transmission efficiency is improved. And 300ms whole-network instruction synchronization is realized with the assistance of a power frequency synchronization wake-up mechanism.

The invention provides a UCIe-based data transmission method, a storage medium and an artificial intelligence chip. The data transmission method comprises the following steps: communicating with a second core particle through a first core particle; receiving a bypass receive data signal and a bypass receive clock signal from the transmit module of the first core particle through the receive module of the second core particle; the serial-to-parallel conversion module is used for transmitting the bypass receiving data signal and the bypass receiving clock signal to the second core particle through the receiving module; counting the bypass receiving clock signal through a serial-to-parallel conversion module to obtain a bypass receiving frame count value, and sampling a bypass receiving data signal according to the bypass receiving frame count value; a serial-to-parallel conversion module decides to count a bypass burr removal count value according to a bypass burr removal counter starting signal; and when the bypass glitch removal count value is equal to the bypass glitch removal counter threshold value, resetting the bypass receiving frame count value through the serial-to-parallel conversion module. According to the invention, good data transmission quality among the core particles can be realized.

The invention provides a maritime medical information transmission method and system based on fusion of a 5G network and satellite communication. The method comprises the following steps: dynamically monitoring the quality of a real-time communication link between an offshore medical institution and a land medical center to obtain an optimal data segmentation scheme; the optimal data segmentation scheme is utilized, a hybrid error correction coding technology and a priority scheduling mechanism are adopted at a sending end, a deep reinforcement learning algorithm is introduced, and a stably transmitted data packet structure is obtained; based on the stably transmitted data packet structure, selecting an optimal transmission path by using a multi-satellite cooperative transmission network and a 5G network to obtain an optimized transmission path configuration; according to the optimized transmission path configuration, the received data packet is rapidly recombined and verified, possible transmission errors are automatically recognized and repaired, and the marine medical information is obtained. According to the technical scheme provided by the invention, the stability and timeliness of data transmission are remarkably improved, and efficient response of marine medical services is ensured.

This disclosure relates to techniques and apparatuses for mitigating interference on SuperSpeed (SS) pins of a Universal Serial Bus Type C (USB-C) resulting from wireless communications, such as cellular and / or Wi-Fi communications. Specifically, a USB-C module may determine that a high-speed connection is to be established on the SS pins, and may interrupt the establishment procedure. The USB-C module may then provide an indication or instruction to configure one or more wireless communication modules to mitigate interference with the high-speed connection on the SS pins. For example, the wireless communication modules may be configured to reduce transmit power, cap transmit power, or forego transmission within certain frequency ranges and / or on certain antennas. Once configuration of the wireless communication modules is complete, the USB-C module may resume establishment of the high-speed connection on the SS pins.

The invention provides a UCIe-based data transmission method, a storage medium and an artificial intelligence chip. The data transmission method of the present disclosure comprises the steps of: communicating with a second core particle through a first core particle; pre-sampling a plurality of previous valid frame signals by a second core particle; transmitting the current effective frame signal and the data signal to a second core grain through the first core grain; judging error bit positions of a plurality of previous effective frame signals through a second core grain; generating a detection signal according to the error bit position through the second core particle; and determining whether to write the data signal into a receiving cache module of the second core grain according to the detection signal through the second core grain. According to the UCIe-based data transmission method, the storage medium and the artificial intelligence chip, good data transmission quality can be provided.

The invention relates to the technical field of data transmission processing, and provides an unmanned aerial vehicle communication-assisted ecological monitoring data transmission system and method, and the method comprises the steps: obtaining the ecological monitoring state parameters of an unmanned aerial vehicle; calculating an ecological monitoring obstruction coefficient and a dynamic disturbance coefficient of the unmanned aerial vehicle; calculating unmanned aerial vehicle cooperative interference loss weights, obtaining an ecological monitoring unmanned aerial vehicle transmission topological graph by using the unmanned aerial vehicle cooperative interference loss weights, recording unmanned aerial vehicle cooperative interference loss weight values with a preset time slot length as a cooperative interference loss weight sequence, calculating an adaptive interval adjustment length, and calculating a node screening threshold value; acquiring an ecological monitoring transmission bearing topological graph; and calculating a Gray code adaptive bit variation value of the ecological monitoring unmanned aerial vehicle, and performing transmission adjustment on transmission data of the ecological monitoring unmanned aerial vehicle by using the Gray code adaptive bit variation value of the ecological monitoring unmanned aerial vehicle. The reliability of the ecological monitoring unmanned aerial vehicle in the data transmission process is ensured.

The invention discloses an industrial data coding and transmission optimization method, system and device based on the industrial Internet of Things and a medium, and relates to the technical field of data transmission processing, and the method comprises the steps: obtaining to-be-processed industrial data, information source features and information source length; when the data volume exceeds the information source length, forming a to-be-sent data packet, and obtaining a first sequential code; planning a basic transmission path, and obtaining a second sequence code; associating the first sequence code and the second sequence code with the to-be-sent data packet to form a to-be-transmitted data set, and transmitting the to-be-transmitted data set according to a basic transmission path corresponding to the second sequence code; and receiving a to-be-transmitted data set, obtaining a transmission path optimization strategy according to the first sequence code of the received to-be-transmitted data set, and carrying out data transmission of a subsequent to-be-sent data packet according to the transmission path optimization strategy. The invention also provides an industrial data coding and transmission optimization system based on the industrial Internet of Things. The device has the advantages of being good in transmission effect, high in transmission efficiency, stable and reliable.

The invention provides a connection method and system for a vehicle-mounted central control screen and a central control box, and is applied to the field of communication data processing. Interference in a complex electromagnetic environment of a vehicle is effectively dealt with through intelligent monitoring and real-time adjustment of the data link between the vehicle-mounted central control screen and the central control box, and interference signals and parameters which may affect the performance of the central control screen can be timely identified by real-time detection and judgment of whether the data link is overtime and acquisition of electromagnetic interference source information. Sensing data is associated with state data of the central control screen, electromagnetic interference trend can be accurately generated, so that whether interference of the same electromagnetic wave form exists or not is analyzed, and the process helps a system to accurately position an interference source, take targeted measures, dynamically adjust a signal transmission mode and improve signal transmission efficiency. The occurrence probability of image dithering, touch control failure and signal loss is reduced, the stability and reliability of the vehicle-mounted central control screen are improved, and it is ensured that high-quality user experience can still be provided in a complex electromagnetic environment.

Some embodiments of the present disclosure relate to the selection of a waveform for an integrated communications and sensing (ICS) signal, where the waveform is suitable for both communication applications and sensing applications. In view of the sensing applications, the waveform selection can be, at least in part, adapted based on capabilities of hardware of nodes involved in the sensing applications. In view of the communication applications, the waveform selection can be, at least in part, adapted based on the extent to which data is to be embedded.

The invention provides a wireless Mesh network reliability guarantee method based on adaptive network coding. The method comprises the steps of routing initialization, dynamic weight adjustment, link selection, network coding and data transmission. The method comprises the following steps: firstly, in a routing initialization step, each node discovers a neighbor node and establishes a Mesh network structure; in the dynamic weight adjustment step, a weight matrix is adjusted according to different service types (such as video streams and audio streams) so as to optimize the transmission reliability and the resource utilization rate; in the link selection step, an optimal link path is selected by constructing a state matrix and adopting an E-D algorithm, so that the transmission reliability and efficiency are improved; in the network coding and data transmission steps, the optimal coding degree and redundancy are calculated through a Gaussian process (GP) model so as to adapt to the dynamic change of the network environment and improve the transmission robustness. According to the invention, the software defined network (SDN) controller is utilized to manage the routing in a unified manner, and the link selection strategy can be flexibly adjusted according to service requirements. By collecting the state information of each node in the network, the system adaptively adjusts the coding parameters and weight configuration of the nodes, and selects the optimal route according to the performance of the nodes. According to the method, the packet loss rate and delay in the data packet transmission process are effectively reduced, and the transmission efficiency and reliability of the multi-hop wireless Mesh network are improved.

The invention relates to the technical field of voice transmission, in particular to a voice data transmission method and system based on a cloud platform, and the method comprises the steps: calculating the semantic importance of each time frame in voice data of a speaking node; after transmitting the voice data to each receiving node, calculating a semantic loss rate of first receiving data of each receiving node; and in response to the condition that the semantic loss rate of any receiving node is not greater than a loss rate threshold value, taking the first receiving data as final receiving data, otherwise, calculating retransmission priorities of other nodes, sequentially receiving the first receiving data of the other nodes according to a descending order of the retransmission priorities, and obtaining fusion data until the final receiving data is obtained. And completing data transmission. According to the technical scheme, semantic loss of the voice data in the transmission process can be avoided.

The present application relates to the technical field of power communication of Internet of Things, and discloses a remote software upgrading method and system based on HPLC high-speed power line carrier network; the remote software upgrading method is applied to a software upgrading device and specifically comprises the following steps: S101: obtaining a master node of software to be upgraded; the master node completes an encrypted upgrading instruction package through HPLC network broadcasting; if the master node is in an offline state, a response is triggered through a power line power frequency cycle synchronization wake-up pulse signal to ensure that all network nodes complete instruction synchronization within a preset time. The present application realizes all-around upgrading optimization through three core technologies of dynamic fragmentation transmission, millisecond-level service continuity guarantee and resource limit adaptation; an adaptive fragmentation strategy (128KB-512KB) based on a signal-to-noise ratio compresses a packet loss rate in a high-noise environment to 0.1%; combined with multi-path concurrent transmission and a breakpoint resume protocol, average transmission time is reduced from 30 minutes to 17.4 minutes; and a power frequency synchronization wake-up mechanism is used to realize 300ms network-wide instruction synchronization.

A data transmission method, a device, a chip, and a readable storage medium are disclosed, to perform PUSCH repetition transmission by using a plurality of beams, and improve reliability of transmission. In embodiments of this application, a terminal device determines a plurality of SRS resources, the plurality of SRS resources correspond to a plurality of beams, and the terminal device performs many PUSCH repetition transmissions based on the plurality of beams, to improve reliability of the PUSCH repetition transmission.

The invention provides a data link multi-dimensional domain signal communication method, which comprises the steps of performing cross-domain association deconstruction on a data link space-time-frequency multi-dimensional signal and error feature data in an electromagnetic environment to obtain a space-time-frequency domain original feature set, and synchronously integrating signal propagation feature data and error source attribute data to generate a multi-source association data cluster, a space-time frequency multi-dimensional fusion feature topology is generated; a multi-dimensional domain collaborative error-resistant model is constructed based on space-time-frequency multi-dimensional fusion feature topology, dynamic weight distribution and error suppression strategy iterative optimization are performed on space-time-frequency domain error-resistant weight parameters and error suppression strategy parameters in combination with a space-time-frequency domain resource adaptation rule, and a multi-dimensional domain error-resistant regulation and control instruction is generated; and performing space-time-frequency collaborative optimization processing on a data chain transmission signal according to the multi-dimensional domain error-resistant regulation and control instruction to obtain an error-resistant optimization signal, synchronously acquiring transmission quality data of a link feedback signal, and performing reverse fine tuning on a multi-dimensional domain error-resistant regulation and control instruction parameter through a deviation between the transmission quality data and a preset quality threshold value.

A device may one or more memories, individually or in combination, having instructions. A device may one or more processors, individually or in combination, configured to execute the instructions and cause the apparatus to: receive a sampled reference signal; and transmit an indication of a communication scheme selected from a plurality of communication schemes based at least in part on the sampled reference signal.

The invention provides a semantic communication method and system based on multi-modal perception, and the method comprises the steps: obtaining multi-modal information, carrying out the semantic extraction of the multi-modal information, and generating a corresponding current semantic representation; performing semantic association on the current semantic representation and historical semantic information to obtain context enhanced semantic information; determining a semantic difference degree or a semantic change trend between the current semantic representation and historical semantic information based on the context enhanced semantic information to generate a key frame semantic description; semantic processing and semantic completion are carried out on the semantic description of the key frame; and according to a set context constraint condition, performing conditional semantic restoration on the complemented semantic description of the key frame by using a multi-modal model, and outputting auxiliary decision information or prompt information based on a restoration result. According to the method, the multi-modal data transmission bandwidth requirement is reduced, and meanwhile, the robustness and continuity of semantic communication in a complex channel environment are improved.

A method for a User Equipment (UE) for performing uplink transmissions for Random Access (RA) is provided. The method receives, from a base station, at least one configuration indicating a first threshold and initiates an RA procedure. The method determines whether to perform Multiple Physical Random Access Channel (PRACH) (MP) transmissions based on, at least, a comparison between a measurement result and the first threshold. The method then selects a PRACH resource configured for the MP transmissions in response to determining that the MP transmissions are to be performed. Performing the MP transmissions includes transmitting, repeatedly, an RA preamble, on the PRACH resource configured for the MP transmissions, before the UE begins monitoring a Physical Downlink Control Channel (PDCCH) for receiving a Random Access Response (RAR) that corresponds to the RA preamble.

The invention relates to the technical field of computer network transmission, and discloses a forward error correction system and method.The system is applied to a software defined wide area network, and the system comprises a controller used for receiving user configuration data, calculating coding parameters based on the user configuration data and sending the coding parameters to a forward error correction coding module; the forward error correction stream selection module is used for screening target traffic matched with the session based on the user configuration data and sending the target traffic to the forward error correction coding module; and the forward error correction coding module is used for carrying out forward error correction coding on the target traffic based on the coding parameters to generate a target message. According to the method, the controller is used for generating the coding parameters and the corresponding decoding parameters, and issuing the coding parameters and the corresponding decoding parameters to the intelligent gateway after the forward error correction tunnel is created, so that computing resources of the intelligent gateway are saved, delay fluctuation of forward error correction decoding is reduced, meanwhile, the transmission quality of an application can be improved, and the message processing performance which does not participate in forward error correction is not influenced.

A device for avoiding interference. The device comprising: at least one transceiver; at least one memory; and at least one processor, in signal communication with the at least one transceiver, and the at least one memory, the at least one processor configured to: transmit, with the at least one transceiver, a ranging control message (RCM) to schedule a ranging session with a second device, where the ranging session includes a plurality of consecutive ranging blocks, each ranging block includes a plurality of ranging rounds, each ranging round includes a plurality of ranging slots, and the schedule includes a channel hopping pattern for the plurality of ranging slots; transmit a ranging initiation message (RIM) on a first ranging slot; and retransmit the RIM on a second ranging slot, different from the first ranging slot, baes on the channel hopping pattern.

This application provides a detection block sending and receiving method, and a network device and system. The detection block sending method includes: obtaining, by a network device, an original bit block data flow; generating at least one detection block, and inserting the at least one detection block into a position of at least one idle block in the original bit block data flow; and sending a bit block data flow including the at least one detection block. In this application, a bandwidth resource of an idle block in a bit block data flow is occupied for sending a detection block, thereby resolving a problem of a service bit block loss.

Described herein are systems, devices, and methods for establishing a wireless link between two or more wireless devices. In some variations, a wireless system may comprise a first device configured to transmit a feedback signal. The system may also comprise a second device comprising a transducer array, a processor, and a supply. The transducer array may be configured to receive the feedback signal on one or more transducer elements of the transducer array. The supply may comprise one or more predetermined transmit voltage levels. The processor may be configured to process the feedback signal received by one or more transducer elements of the transducer array to generate feedback signal data. The processor may be further configured to determine a transducer array configuration based at least in part on the feedback signal data and the one or more predetermined transmit voltage levels. The second device may be configured to exchange one or more wireless signals with the first device using the transducer array configuration.

This application relates to a communication method and apparatus. A target network device sends first information to a source network device, to indicate a receiving status of a data packet. The target network device receives a first data packet from the source network device, where the first data packet is a data packet of a remote device, and the first data packet is determined based on the first information. The remote device is connected to the source network device through a first relay device before transmission path switching, and is connected to the target network device after transmission path switching. For example, there are one or more first data packets, and the first data packet may include a data packet that fails to be received by the remote device. In this way, the target network device may send, to the remote device, the data packet that fails to be received by the remote device, to reduce a packet loss rate.

The present invention provides a method and system for facilitating improved downlink MIMO sector throughput in the presence of UE DC-offset. The system receives BLER from a plurality of UEs and tracks by L1 computing the DL BLER in a UE; checks if the BLER from the UE allocated with an RB containing a DC subcarrier is above a target BLER and if so the L1 increases the power of the RE containing the DC-subcarrier in steps of 3dB. If the BLER improves in the UE, the L1 stops further increase of power on the DC subcarrier RE. The L1 maintains the improved UE / sector throughput and the subcarrier RE power. The system further supports a plurality of 5GNR UEs with different bandwidth wherein the DC-carrier of each UE can be worked out by the L2 by a set of predefined instructions.

This application provides a signal communication method for a multi-dimensional domain of a data link, comprising: performing cross-domain correlation deconstruction on the data link's spatiotemporal-frequency multi-dimensional signal and error feature data under an electromagnetic environment to obtain the original spatiotemporal-frequency domain feature set; simultaneously integrating signal propagation characteristic data and error source attribute data to generate a multi-source correlation data cluster to generate a spatiotemporal-frequency multi-dimensional fused feature topology; constructing a multi-dimensional domain collaborative error-resistant model based on the spatiotemporal-frequency multi-dimensional fused feature topology; and performing dynamic weight allocation and error suppression strategy iterative optimization on the spatiotemporal-frequency domain error-resistant weight parameters and error suppression strategy parameters in conjunction with spatiotemporal-frequency domain resource adaptation rules to generate a multi-dimensional domain error-resistant control command; performing spatiotemporal-frequency collaborative optimization processing on the data link transmission signal according to the multi-dimensional domain error-resistant control command to obtain an error-resistant optimized signal; simultaneously collecting transmission quality data of the link feedback signal; and fine-tuning the multi-dimensional domain error-resistant control command parameters in reverse by the deviation between the transmission quality data and a preset quality threshold.

A method for transmitting data by a first station (STA) in a wireless local area network (WLAN) system is disclosed. The method includes configuring, as a radio frame for transmission of the data, a high efficiency extended range single user physical protocol data unit (HE ER SU PPDU) in which a high efficiency signal A (HE-SIG-A) field is repeated, and transmitting the configured HE ER SU PPDU to a second STA in a resource unit (RU) of one of a first type and a second type, the first type having a size of 106 tones and the second type having a size of 242 tones. If the HE ER SU PPDU is transmitted in an RU of the first type, the HE ER SU PPDU is transmitted in an RU of the first type at a fixed position in a primary 20-MHz channel.

Arrangements are described for: receiving an analog-to-digital converter, ADC, capability report from a receiver of a mobile communication system at a transmitter of the mobile communication system, wherein the ADC capability report provides information relating to characteristics of an ADC of the receiver; setting a transmission constellation for said transmitter based, at least in part, on at least one of characteristics of a digital-to-analog converter DAC of the transmitter and / or the characteristics of the ADC received in the ADC capability report; and modulating a signal for transmission to the receiver based, at least in part, on the transmission constellation.

An apparatus is disclosed, comprising at least one processor, and at least one memory storing instructions that, when executed by the at least one processor, cause the apparatus at least to define (301) different prioritized frequency layouts for uplink signal interference handling, verify (302) first radio conditions for enabling most appropriate uplink reference signal waveform emission, verify (303) second radio conditions for signalling lower allowed uplink power back-off and uplink maximum output power class boosting, and, based on the verifying, initiate (304) signalling to mitigate uplink signal interference by redirecting uplink service traffic to a most appropriate prioritized frequency layout.

There is provided techniques for PIM avoidance. The method is performed by a controller. The method comprises obtaining a pattern for each of at least two downlink carriers for selective muting of transmission resources on the at least two downlink carriers. All patterns extend over the same time units and frequency units and specify time-frequency resources of the transmission resources to be muted. In a union of all the patterns, there is at least one time-frequency resource that for each of the time units is muted or at least one time-frequency resource that for each of the frequency units is muted. The method comprises instructing a downlink scheduler to repeatedly apply the patterns, one per each of the at least two downlink carriers, during downlink transmission.

A wireless communication method for transmitting wireless signals from a transmitter includes receiving information bits for transmission, segmenting the information bits into a stream of segments, applying a corresponding forward error correction (FEC) code and an interleaver to each of the stream of segments and combining outputs of the interleaving to generate a stream of symbols, processing the stream of symbols to generate a waveform, and transmitting the waveform over a communication medium.