98 results about "Transmission (telecommunications)" patented technology

The invention discloses a block chain-based telecom operator data security sharing method, and particularly relates to the technical field of telecom data management and block chains, and the method comprises the following steps: data collection and preprocessing: through data collection modules distributed in each service system and network node of a telecom operator, the data collection modules are used for data collection; the method comprises the steps of data value evaluation, data value evaluation model construction, block chain storage and encryption, and distributed storage system construction by adopting a block chain technology, data encryption is carried out by adopting a mode of combining symmetric encryption and asymmetric encryption, and the data security level is greatly improved based on block chain distributed storage and non-tampering characteristics. Data are encrypted in the whole storage and transmission process, and even if part of node data are leaked, real data cannot be obtained due to no corresponding private key. The non-tampering characteristic of the block chain enables data operation records to be traceable, any unauthorized data access and modification can be found in time, and the data and user privacy security of telecom operators is powerfully guaranteed.

A method comprises receiving telecommunications infrastructure data corresponding to a plurality of devices, and determining a number of a plurality of clusters comprising respective subsets of the plurality of devices. The determination is based on at least a portion of the telecommunications infrastructure data and is performed using at least one machine learning algorithm. The plurality of clusters are identified and performance of respective ones of the plurality of clusters is predicted using the at least one machine learning algorithm. The method further comprises generating a report including the predicted performance of the respective ones of the plurality of clusters and causing transmission of the report to one or more user devices.

A telecommunications receiver is adapted to communicate with mobile devices that operate according to a protocol where the telecommunications receiver operates outside of expected ranges for the protocol but modifies its communications with mobile devices to appear to those mobile devices as being within the expected ranges. To determine what modifications to make to transmissions, the telecommunication receiver processes signals from mobile devices to determine where a communications channel is relative to the expected ranges and uses that information to modify transmissions to mobile devices. The expected ranges might relate to maximum distance between telecommunications receiver and a mobile device, maximum relative velocity, power etc. Determining a relative velocity, and therefore a Doppler shift, can be done by determining a fractional frequency offset, determining an expected subchannel, and determining an integer frequency offset based on the expected subchannel carrier frequency and the measured carrier frequency.

Examples exploit the processing capabilities of the available access points in a wireless telecommunications network operating in dual connectivity operation to enhance the data rate and fairness among the users. The wireless telecommunications network may include a first access point, or master node, connected to a plurality of further access points, or secondary nodes. The master node discovers which of the secondary access nodes has the processing capabilities and available processing capacity to handle NOMA transmissions. The master node can then coordinate the connection of a selected group of users to one of the secondary nodes that can support NOMA. The processing capabilities and available processing capacity to handle NOMA transmissions can be communicated by the secondary nodes to the master node actively, for example in a periodic manner, or reactively, for example as a result of a request for such information from the master node.

Wireless communication is provided over an extended distance using a line or a series of drones traveling along a transmission path between a transmitter and a receiver. The transmitter sends a data signal to a first drone that is within range of the transmitter. The first drone sends the data signal to an adjacent drone in the line of drones which retransmits the data signal to the next drone in line. The data signal is transmitted between drones until it reaches a final drone within range of the receiver. The final drone transmits the data signal to the receiver. As the drones travel along the transmission path, new drones are launched from a location within range of the transmitter to replace drones that land after transmitting a data signal to the receiver.

The present invention relates to methods, systems and apparatus for facilitating Small Data Transmissions (SDT) in a mobile telecommunications network. In particular, the present disclosure relates to a method comprising receiving, at a base station of the mobile telecommunications network, a portion of data to be transmitted to a terminal connected to the mobile telecommunications network; determining a transmission size indicator for the portion of data; and providing an enhanced paging message to the terminal, the enhanced paging message including the transmission size indicator, wherein the enhanced paging message is configured to allow the terminal to determine a required terminal connection state, for receiving the portion of data, based on the transmission size indicator.

An optical transmitter and receiver system splits laser inputs into multiple channels for transmission and reception. The optical transmitter receives a laser input from a forward laser path of a laser source, splits the input into a plurality of transmit channels, and transmits the channels to a destination. The optical receiver receives another laser input from the same forward laser path, splits the input into a plurality of receive channels, and processes the channels to receive data. The optical transmitter and receiver can be used in a variety of applications, including telecommunications, data centers, and industrial control systems.

Systems and methods of scheduling traffic perform or comprise receiving a data frame, the data frame including a series of timeslots ordered according to an unordered schedule, wherein the series of timeslots includes at least two noncontiguous groups of data timeslots; calculating a revised schedule for the data frame, wherein the revised schedule differs from the unordered schedule in at least one of a time domain characteristic or a frequency domain characteristic; rearranging the timeslots of the data frame according to the revised schedule in at least one of the time domain or the frequency domain, such that the revised schedule includes fewer transmission periods than the unordered schedule; and causing a transmitter of the telecommunications network to transmit the data frame according to the revised schedule.

Systems and methods for remote communications are described. In some embodiments, a telecommunications system may include a case that houses a plurality of antennas, one or more access credentials, and a computing device comprising a processor. The system may be configured to: generate or obtain a plurality of data packets for transmission to a remote site, establish communications links with a plurality of communication nodes, transmit data packets to the first node and the second node, detect an interruption in a communication link to the first node, and transmit a third set of data packets to the second node that would have been sent to the first node in the absence of the detected interruption.

This disclosure describes techniques that can be used for dynamic link adaptation in wireless telecommunications networks. Some implementations relate to determine signal to interference and noise (SINR) back off values, which can be used to determine adjustments to transmission characteristics such as transmission power for improving throughout. In some implementations, block error rates are used to determine adjustments to transmission power. In some implementations, slot-specific adjustments are determined. Reinforcement learning can be used to determine adjustments in real time or nearly real time.

A method for transmitting configuration data (CONF) in a telecommunications network comprises the following steps: - preparation, by a first electronic device, of verification data (MAC'') based on the configuration data (CONF) and a cryptographic key (K), the first electronic device being a server (22) or a telecommunications network management module; - transmission of the configuration data (CONF) and the verification data (MAC'') to a second electronic device, the second electronic device being a telecommunications network management module (14) when the first electronic device is the server, and the second electronic device being a terminal when the first electronic device is the management module; - verification of the verification data (MAC'') by the second electronic device (14). Figure for the abstract: Figure 3

The application discloses a remote control system for communication telecommunication transmission and relates to the field of telecommunication transmission systems, which comprises a control application module, a network communication module, a login processing module, a controller and an information processing module; the control application module is used for receiving remote control requests of users; the network communication module is used for authenticating user controlled terminals according to the received remote control requests; the login processing module is responsible for checking whether the remote control requests are valid and controlling the progress of information transmission; the controller realizes remote control requests and controls the controlled terminals according to specific requests of the control terminals; and the information processing module is used for processing information and media messages of the control terminals and the controlled terminals in remote control information transmission.

A method for transmitting items of data is disclosed, the method including detecting, by a first home gateway managed by a telecommunications operator, a loss or degradation of a connection between the first home gateway and an access network; searching for a second home gateway broadcasting a wireless local area network reachable by the first home gateway; checking whether the second home gateway is managed by the telecommunications operator or by a partner telecommunications operator by comparing at least one portion of a network identifier of the second home gateway with the identifiers on a predetermined list of network identifiers; and routing, to the second home gateway, items of data sent by the first home gateway or by an electronic device connected to the local area network administered by the first home gateway, the items of data being intended for transmission to a final recipient accessible through the access network. The method also includes transmitting, by the second home gateway and to the final recipient, the items of data through the access network.

A method in a telecommunications system including a Data Network, DN, a base station, a connection via the base station from the DN to a User Equipment, UE, executing a UE application producing application data, and an algorithm entity on the DN, wherein the base station transmits network configuration information to a DN application executing on the algorithm entity, the DN application produces and transmits a filtering configuration based on the network configuration information to the UE for use in filtering the application data before transmission to the algorithm entity, allowing the UE to produce application data filtered according to the filtering configuration, and the connection transmits the filtered application data to the algorithm entity.

End-to-end deep network (DNN) communication is provided between a first device (104a) and a second device (104b). In the first device, a transmitting DNN (106) processes input communication data to generate an output communication signal (118). In response that the predicted transmission of the generated output communication signal does not meet the white noise interference level, the first device performs a scrambling DNN operation, which includes selecting neural network scrambling information (NNSI) to reconfigure the transmitting DNN to process the input communication data and generate a scrambled output communication signal that meets the white noise interference level at the time of transmission. The first device transmits a control message having an indication of the NNSI and scrambling timing information to indicate when the second device should reconfigure the corresponding receiving DNN (109) to generate reconstructed communication data. Based on the scrambling timing information, the first device transmits the scrambled output communication signal.

A method of communication between nodes in a telecommunications network. Each node maintains a copy of a shared digital ledger, is identified by a respective identification code and implements a software application configured to manage the transmission of data packets and maintain the shared digital ledger. The method includes: memorizing a list of identification codes, each code identifying a respective node included in a subset of nodes of the network, identifying a receiver node to transmit the data packet, generating a data packet to be delivered to a recipient node, transmitting to the first node of the minimum sequence of nodes the data packet, issuing a request to the network nodes to record the data packet transmission in the distributed ledger, and when a data packet is received, the method requires that each receiver node, other than the recipient node of the data packet, repeats at least some steps.

This invention belongs to the field of telecommunications technology, specifically providing a smart home control hub and control method. The smart home control hub includes a coordinator, several door lock terminals, and several transmission nodes. Each door lock terminal is configured to acquire valid data packets from various sensors and upload these packets to a local server via the coordinator according to a current preset transmission path. If any transmission node in the current preset transmission path fails, the next preset transmission path is used to send the valid data packet. The coordinator is also configured to locate the failed transmission node. This invention enables the secure and rapid transmission of valid data packets to the local server, quickly locates failed transmission nodes, and completes data transmission without downtime within a short period.

The invention relates to a telecommunication incoming call priority display method and system based on a network slice, and relates to the field of telecommunication communication, and the method comprises the following steps: S1, when a calling party user terminal initiates a call, a policy control function (PCF) of a home network attaches a currently used network slice identifier and a digital signature to an extension header of an SIP signaling, and the SIP signaling is sent to the calling party user terminal; wherein the digital signature is generated by the PCF through an HMAC-SHA256 algorithm based on a home network certificate; and S2, the called party user terminal receives the call request. Through the deep integration network slicing technology, accurate dynamic display of incoming call priorities is achieved, the user communication efficiency is remarkably improved, the system automatically matches display parameters according to service types by using standardized network slicing identifiers and priority mapping rules, the accuracy and consistency of priority judgment are ensured, and the user experience is improved. Through a digital signature mechanism, the security of signaling transmission is enhanced, tampering of priority information is effectively prevented, and the user experience is improved.

The present disclosure pertains to a user equipment for a mobile telecommunications network, the user equipment including circuitry configured to: transmit, to a base station, a signal of operation status indication, wherein the signal of operation status indication is transmitted with a predetermined time interval from a previous transmission of an operation status indication.

The present disclosure relates to a user equipment for a mobile telecommunications network, the user equipment comprising circuitry configured to transmit a signal of an operational status indication to a base station, where the signal of the operational status indication is transmitted at a predetermined time interval from a previous transmission of the operational status indication.

The technology disclosed herein relates to enhancing millimeter (mm) wave coverage within a wireless telecommunications network. It is commonly known that mm waves have difficulty propagating through materials. Urban areas pose significant hurdles for mm waves since a line of sight (LOS) to a user device is often times blocked by a physical object (e.g., building, tree, car, etc.). However, mm waves are desirable because of the wide bandwidths available for carrying communications at that frequency range. Embodiments herein provide methods, systems, and computer-storage media for adjusting a transmission power of a mm wave such that it can propagate through a physical object when a permittivity of an external material of the physical object is within a specified range where power adjustment would successfully propagate the mm wave through the physical object.

Approaches in accordance with various embodiments enable communication functionality to be added to an existing hardware component, such as a network interface controller (NIC), data processing unit (DPA), or network switch, rather than requiring an additional component such as a Front Haul Multiplexor (FHM)-type for cellular communications. Such an approach not only avoids the cost and complexity of managing additional hardware components, but can also reduce bandwidth needed for signal transmission. For downlink communications, data can be copied to the relevant radio units of a cell in a single cell deployment architecture to be transmitted to a target client device, such as a cellular handset. For uplink communications, data received from a client device to multiple radio units can undergo decompression and channel estimation before combining the data into a single signal or data stream.

Technologies for shared radio unit (RU) architectures supporting non-static time division duplexing (TDD) are described. One method includes dividing, into a plurality of sub-bands, a frequency band of a telecommunications network implementing a shared radio unit architecture, assigning, to each sub-band of the plurality of sub-bands, a respective guest operator of a plurality of guest operator of the telecommunications network, and allocating, for each sub-band assigned to the respective guest operator, at least one type of transmission to a plurality of time slots of the sub-band to implement time division duplexing.

A transmitter node of a telecommunications system comprises transmitter node processor circuitry and transmitter node interface circuitry. The processor circuitry of the transmitter node is configured to make a determination of priority of a transmission grant dependent on a logical channel priority for a medium access control (MAC) protocol data unit (PDU) associated with the grant. The interface circuitry of the transmitter node is configured to transmit the protocol data unit across a radio interface to a receiver node of the system in accordance with the priority of the grant.

Embodiments of the present disclosure relate to data-driven automation provisioning for telecommunications applications. Systems and methods for constructing service templates that allow for agentless, data-driven, and stateful automation of provisioning of services to mobile network customers. Data associated with a request to create a target schema object class for a device and a protocol is received. Based on the device and protocol information, a set of data fields associated with CRUD semantics is retrieved from a database or from user-provided data. A decorated target object class is created based on the requested target schema object class. A sub-recipe is created that includes the decorated target object class and one or more other decorated target object classes. The recipe is processed for transmission to an execution engine to form a service instance that is customizable by an operator for a particular network device, such that service instance data fields that are not pre-populated are able to be customized by the operator.

A summing unit within telecommunications system includes: port to receive digital data stream from another device; and summer function. Digital data stream includes first and second digital data derived from first and second base station. First and second digital data comprises first and second digital values associated with respective time periods. Summing unit extracts first digital data from digital data stream. Summer function digitally sums first digital data with third digital data derived from third base station to generate summed digital data for conversion to radio frequency signals and transmission at antenna. Third digital data comprises third series of third digital values associated with respective time periods. Summer function digitally sums first digital data with third digital data by digitally summing (i) first digital value associated with respective time period and (ii) third digital value associated with respective time period to produce summed value for respective time period.

This invention relates to the field of telecommunications technology, specifically to a service area traffic intelligent transmission monitoring method based on big data analysis. The method includes: forming a sequence of the same network performance indicators for the same service type at different times within the same area of ​​the service area; each network performance indicator within the sequence is considered a sample; obtaining the feature vector of the sample; establishing first and second prediction models corresponding to each sequence; obtaining a current window containing the current time in a sequence, then combining the two prediction models to obtain a predicted network performance indicator sequence corresponding to the current window, and further obtaining the network performance indicator threshold corresponding to the current window; and determining whether there is traffic transmission anomaly for that service type in the area based on the network performance indicators at the current time in different sequences corresponding to a service type in a given area and the network performance indicator thresholds corresponding to the current windows in different sequences. This application can accurately monitor the traffic transmission status of a service area.

A method for cell selection in a telecommunications network is based on inter-cell multiple transmission and reception point (multi-TRP) operation. A first apparatus (such as a terminal device) receiv

A system and method which enables a telematics server and its software to modify telematics device behavior based on the provisioned telecommunications plan depending on the context of the telematics device. The context may be the location, stage of manufacturing process for the device / equipment that the telematics device is fitted to (e.g. a vehicle), the speed, status of various sensors and others. This information is used to both modify device behavior in terms of how often and what is communicated to the telematics server but is also useful in modifying and provisioning new plans for the telematics device (with appropriate transmission configurations matched to the plan). The foregoing allows the telematics device to avoid operating in a way that exceeds telecom plan thresholds and limits.