158 results about "Radio interface" patented technology

A wireless device is configured to receive a set of sensor data from one or more sensors of the wireless device, receive a set of radio measurements from a radio interface of the wireless device, process the set of sensor data and the set of radio measurements at a radio resource management (RRM) neural network of the wireless device to generate an output representative of an RRM action, and then perform the RRM action. The wireless device further can provide a representation of sensor capabilities of the wireless device for receipt by an infrastructure component of a network infrastructure that is wirelessly connected to the wireless device, receive a neural network architectural configuration from the infrastructure component in response to providing the representation of sensor capabilities, and implement the neural network architectural configuration at the RRM neural network.

Methods, systems, and apparatuses may assist scheduling for broadcast and groupcast on new radio Uu interface. In an example, there may be broadcast and groupcast transmission scheduling mechanism with: group based scheduling, UE specific based scheduling, or sub-group based scheduling. In another example, there may be a serving cell configuration for broadcast and groupcast transmission with dedicated cell for broadcast and groupcast, or broadcast and groupcast cell which is shared with the cell for unicast. In another example, there may be downlink control related configuration for broadcast and groupcast transmission with details of the BWP configuration, the CORESET configuration, or the search space configuration.

The invention discloses an intelligent signal scheduling and management system for a satellite transmission uplink station, particularly relates to the technical field of satellite communication, and innovatively adopts a three-layer architecture of intelligent decision-agile execution-closed loop optimization: a reinforcement learning decision engine based on multi-source data fusion dynamically generates a spectrum-power-modulation joint strategy; millisecond-level reconstruction of carrier parameters is realized through a software-defined radio interface; and disaster recovery switching is triggered by relying on service SLA grading. The problems of resource scheduling rigidness, interference response delay and extensive fault recovery of a traditional uplink station are solved, and the core effects of dynamic optimal distribution of transmission resources, adaptive interference rejection in a complex electromagnetic environment and zero-interruption guarantee of high-value services are achieved.

A method of operating a communications device for transmitting data to or receiving data from an infrastructure equipment forming part of a wireless communications network. The method comprises determining uplink communications resources of a wireless access interface provided by the wireless communications network to be used for the transmission of data by the communications device to the infrastructure equipment, receiving, from the infrastructure equipment via the wireless radio interface, an uplink pre-emption indicator that indicates that at least a portion of the uplink communications resources are allocated for the transmission of signals by another communications device, the at least the portion of the uplink communications resources being located within communications resources of a reference region associated with the uplink pre-emption indicator, and adjusting one or more communications parameters for the transmission of signals representing the data in the uplink communications resources in response to receiving the uplink pre-emption indicator.

A wireless terminal comprises receiver circuitry and processor circuitry. The receiver circuitry is configured to receive, over a radio interface, a serving cell frequency resource including a first subset of frequency resources. The processor circuitry is configured to determine, from the serving cell frequency resource, scheduling information for a physical channel; and then to use the scheduling information to either (a) filter reception power outside of the first subset of frequency resources, or (b) filter reception power outside of the serving cell frequency resource.

An extended reading module for an access control system with a radio interface for reading an access identifier from a mobile terminal device, with an access control device interface for connection to an access control device, wherein the access control device interface is configured to accept a device data packet based on an access identifier from the access control device, with a system interface for transmitting a module data packet within the access control system, wherein the extended reading module is configured to provide and transmit the module data packet based on the access identifier or the device data packet.

Some embodiments are directed to a device for a surgical instrument, including at least one sensor, a circuit for controlling and processing signals coming from the at least one sensor, a memory for storing information coming from the circuit, and a radio interface for transmitting this information to an external device, the sensor(s), the circuit, the memory and the radio interface being powered by a power source, the circuit, the memory, the radio interface and the power source being housed in one or several hermetic and heat and pressure resistant case(s), in order to allow an autonomous operation of the device.

A wireless terminal of a telecommunications system comprises wireless terminal processor circuitry and wireless terminal interface circuitry. The wireless terminal processor circuitry is configured to generate a rate adaptation eligibility message to indicate whether a resource of the wireless terminal is eligible for codec rate adaptation. The wireless terminal interface circuitry is configured to transmit the rate adaptation eligibility message across a radio interface to a network node.

The invention relates to a supplementary reading module 3 for an access control system 1 with a radio interface 5 for reading an access identifier from a mobile device 6, with an access control device interface 4 for connecting to an access control device 2, wherein the access control device interface 4 is configured to receive a device data package based on an access identifier from the access control device 2, with a system interface 7 for transmitting a module data package within the access control system 1, wherein the supplementary reading module 3 is configured to provide and transmit the module data package based on the access identifier or the device data package.

An apparatus, 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 perform: receiving, at a user equipment from a network node, a measurement validity configuration specifying radio interface measurement characteristics required to be met by the user equipment to obtain valid measurements; and determining, at the user equipment, whether radio interface measurements made by the user equipment meet the measurement validity configuration and, if so, providing an indication to the network node that valid measurements have been obtained.

Techniques for handling sidelink feedback signaling in situations where collisions would otherwise occur in network communication links are demonstrated and described. For example, sidelink feedback signaling handling techniques can provide collision resolution when a sidelink HARQ is transmitted simultaneously on one or more Uu channels (e.g., PUCCH, PUSCH, etc.) with uplink channel information (e.g., Uu HARQ, SR, CSI, etc.) of the network communication radio interface. In the operation of sidelink feedback handling, the transmitter or intermediate UE of the sidelink communication link decides whether and how to forward the sidelink HARQ to the corresponding base station. Other aspects and features are also claimed and described.

A method and apparatus are disclosed. A network node configured to communicate with a wireless device (WD) is described. The network node is configured to, and / or includes a radio interface and / or includes processing circuitry configured to: determine a configuration including at least a first timer and additional information, where the configuration is usable by the WD to perform at least one measurement associated with early measurement reporting based at least on the first timer and the additional information; transmit the configuration to the WD; and receive, from the WD, a report including the at least one measurement based at least on the first timer and the additional information.

A network node is configured to communicate with a wireless device. The network node includes a radio interface and processing circuitry configured to transmit a configuration of a set of reference signals via RRC signaling to the wireless device. The radio interface and processing circuitry are further configured to transmit a downlink control information, DCI, that triggers the set of reference signals in multiple slots to the wireless device, where each set of reference signal is confined to OFDM symbols within a slot. In some embodiments, the DCI includes a field which indicates a reference signal set combination ID. In further embodiments the reference signal set combination ID indicates a list of RS set IDs. A method for a network node, a wireless device and a method for a wireless device are also provided.

A transmitter node of a telecommunications system comprises processor circuitry and interface circuitry. The processor circuitry is configured to generate a delay status report (DSR) medium access control (MAC) control element (CE) which comprises an indication of non-delay-critical data in a buffer which precedes in transmission order delay-critical data reported by the DSR MAC CE. The interface circuitry is configured to transmit the DSR MAC CE over a radio interface to a receiver node of the telecommunications system.

A receiver node of a telecommunications system comprises interface circuitry and processor circuitry. The interface circuitry is configured to receive packets over a radio interface from a transmitter node of the telecommunications system. The processor circuitry is configured to make a determination that a packet is an obsolete packet. Methods of operating such nodes are also provided.

A network node is configured to communicate with a wireless device. The network node includes a radio interface and processing circuitry configured to transmit a configuration of a set of reference signals via RRC signaling to the wireless device. The radio interface and processing circuitry are further configured to transmit a downlink control information, DCI, that triggers the set of reference signals in multiple slots to the wireless device, where each set of reference signal is confined to OFDM symbols within a slot. In some embodiments, the DCI includes a field which indicates a reference signal set combination ID. In further embodiments the reference signal set combination ID indicates a list of RS set IDs. A method for a network node, a wireless device and a method for a wireless device are also provided.

The technology relates to a Common Public Radio Interface (CPRI) satellite communication system and corresponding method. The satellite communication system has, in one arrangement, a base station configured to communicate with standard compliant user equipment (UE) via a satellite having a field of view. The base station includes a plurality of base band units and a base station memory configured to store control information, downlink signal information and uplink signal information associated with a cell in the field of view. The system also includes a processing device configured to cause the satellite to generate a satellite beam in accordance with the control information, downlink signal information and uplink signal information stored in the base station memory.

A portable radio flash drive, connectable to a computer or smartphone, for storing, transferring and exchanging data, comprising a radio interface for communicating and automatically synchronizing stored data with another such flash drive. The claimed drive is intended to obviate physical transfer of the drive when transferring files from one computer to another, to provide more reliable data storage, and to reduce wear on an interface connector.

A method of operating an infrastructure equipment is provided, the infrastructure equipment forming part of a wireless communications network and configured to transmit signals to and / or to receive signals from a communications device via a radio interface between the communications device and the infrastructure equipment, the radio access interface comprising a plurality of resource elements arranged in time and frequency and each configured either for uplink transmission or downlink transmission, the method comprising: transmitting, to the communications device, configuration information of a set of uplink muting patterns, the configuration information indicating an association between a downlink reference signal (DL RS) and one or more uplink muting pattern of the set of uplink muting patterns, wherein each uplink muting pattern requires that one or more of allocated resource elements are to be muted and not used for transmitting the uplink transmission; receiving, from the communications device, an uplink transmission, to which an uplink muting pattern has been applied based on the configuration information. Methods, communications devices and infrastructure equipment are also provided.

Ventilator (1) with at least a sensor for detecting at least one parameter of a breathing gas, a control device for specifying settings, a storage unit a control unit connected to the storage unit, a first computer program product for implementing the settings taking into account a specification and a second computer program product that regulates data transfer to and from the control unit via at least one interface (8); wherein the ventilator (1) is designed such that at least one interface allows for the mutual exchange of data between the ventilator (1) and external storage media and / or devices (12), the exchange of parameters, and the loading of parameters and / or a configuration of the ventilator from external storage media and / or devices, wherein the ventilator has at least two interfaces that support different standards and communication protocols, wherein one of the interfaces is designed as a radio interface and another of the interfaces is designed as a memory card interface, wherein the memory card interface is suitable for a Secure Digital card, a Multimedia card, a Memory Stick PRO card, an xD-Picture card, a SmartMedia card or a CompactFlash card, where data from the ventilator can be saved to an inserted memory card via the memory card interface, and data from an inserted memory card can be loaded into the ventilator, where, in the area of ​​the ventilator, a firmware or software is installed as the second computer program product, which runs as a client and enables a connection of the ventilator to the Internet, where the client is responsible for initiating contact during data transmission and is configured to determine the timing of the transmission, where reading or saving ventilation and usage information to the respective storage medium must be initiated by an event, and the event is the expiration of a specific period of time since the start or end of ventilation therapy, where, when reading usage data from the ventilator, an assignment to the correct patients is automatically performed via a stored database. wherein the ventilator contains relevant information about its setting parameters and their setting limits as well as its stored therapy information and is designed to make the relevant information available to a PC, wherein the ventilator is configured to provide, via the respective interface or storage medium, an application directly executable by a PC operating system, wherein the ventilator contains executable logic in non-volatile memory, wherein the executable logic is not executable by the ventilator itself but by the PC, thus enabling the installation of software on the PC without requiring a user to obtain the software directly from the ventilator manufacturer or a service provider via CD, download, or storage medium. wherein the ventilator further comprises a data cable as a data exchange means inserted into the respective interface, wherein the data cable is connected to an interface converter outside the ventilator, wherein the interface converter is designed to enable communication between the ventilator and another device via at least one transmission standard not provided in the ventilator itself, wherein at least one additional sensor in the form of a pulse oximeter and / or a sensor for CO2 measurement and / or a sensor for measuring respiratory effort and / or an ECG device and / or an EEG device is additionally connected to the ventilator via the interface converter.

An apparatus comprising: at least one processor; and at least one memory storing instructions that, when executed by the at least one processor, cause the apparatus to perform at least: receive, at the user equipment, a measurement validity configuration from a network node, the measurement validity configuration specifying a radio interface measurement characteristic that needs to be satisfied by the user equipment to obtain a valid measurement; and determining, at the user equipment, whether a radio interface measurement by the user equipment satisfies the measurement validity configuration, and if so, providing an indication to the network node that a valid measurement has been obtained.

Methods and apparatus for managing a PDU session established for a wireless access backhaul, WAB, node are disclosed. The WAB node includes a gNB component, WAB-gNB and a UE component, WAB-UE and the WAB-gNB is configured to serve one or more User Equipment, UE. The method at the WAB node includes initiating modification, such as adding a new QoS flow or modifying an existing QoS flow, of the WAB PDU session based on first QoS flow information for a first radio interface through which the WAB node serves a UE.

Methods, systems, and devices are disclosed for optimizing a radiation pattern of an indoor ceiling and / or wall mounted radio unit for a distributed antenna system / radio point system (DAS / RDS). According to one aspect, a method includes obtaining beamforming weights for generating a shaped radiation pattern that provides a same effective isotropic radiated power (EIPR) at a plurality of locations within a target cell; and applying the obtained beamforming weights to a signal directed to an array of antenna elements of a radio interface to generate the shaped radiation pattern.

1. The name of the design product: vehicle-mounted double-screen (four) with vehicle parameter information and multimedia function graphical user interface. 2. The use of the design product: used for vehicle-mounted screen, displaying vehicle operating parameters and performing human-computer interaction to select multimedia functions. 3. The design points of the design product: in the graphical user interface. 4. The picture or photo that best indicates the design points: design 1 front view. 5. The design points of the design product only involve the graphical user interface, and the rear view, left view, right view, top view, bottom view and perspective view are omitted. 6. Design 1 is designated as the basic design. 7. The use of the graphical user interface: the graphical user interface is used to display vehicle operating parameter information and perform human-computer interaction operations such as switching or playing of multimedia functions, radio, video or music. 8. The human-computer interaction mode of the graphical user interface: the design product is a double-screen panel, divided into left and right screens, the left screen displays vehicle speed, remaining power, current vehicle speed, voltage and current of power battery and other parameter information, the right screen has keys (1), (2), (3) and (4) from the upper left to the bottom, keys (5), (6), (7) and (8) from the upper right to the bottom; key (1): power key; key (2): volume up key; key (3): volume down key; key (4): instrument engineering mode debugging key; key (5): short press mode for multimedia function switching: U disk playing, radio function switching; long press mode for instrument wake-up, after waking up the instrument, enter the instrument engineering mode; key (6): last song key for multimedia music / video playing; key (7): next song key for multimedia music / video playing; key (8): switch FM or AM of radio interface. 9. The change state of the graphic user interface is explained as follows: in design 1, the user long-presses the button (5) in the main view of design 1 to enter the design 1 interface change state diagram 1, the left screen in the design 1 interface change state diagram 1 displays a plurality of vertically arranged instrument engineering modes including vehicle state, battery state, VCU fault, brightness adjustment, setting interface, version information and return, the button (4) is long-pressed in the design 1 interface change state diagram 1 to switch the instrument engineering mode, the button (4) is short-pressed to enter the design 1 interface change state diagram 2, and the left screen displays the specific information of the vehicle state; in design 2, the user long-presses the button (5) in the main view of design 2 to enter the design 2 interface change state diagram 1, the left screen in the design 1 interface change state diagram 1 displays a plurality of vertically arranged instrument engineering modes including vehicle state, battery state, VCU fault, brightness adjustment, setting interface, version information and return, the button (4) is long-pressed in the design 2 interface change state diagram 1 to switch the instrument engineering mode, the button (4) is short-pressed to enter the design 2 interface change state diagram 2, and the left screen displays the specific information of the battery state; in design 3, the user long-presses the button (5) in the main view of design 3 to enter the design 3 interface change state diagram 1, the left screen in the design 3 interface change state diagram 1 displays a plurality of vertically arranged instrument engineering modes including vehicle state, battery state, VCU fault, brightness adjustment, setting interface, version information and return, the button (4) is long-pressed in the design 3 interface change state diagram 1 to switch the instrument engineering mode, the button (4) is short-pressed to enter the design 3 interface change state diagram 2, and the left screen displays the specific information of the VCU fault; in design 4, the user long-presses the button (5) in the main view of design 4 to enter the design 3 interface change state diagram 1, the left screen in the design 4 interface change state diagram 1 displays a plurality of vertically arranged instrument engineering modes including vehicle state, battery state, VCU fault, brightness adjustment, setting interface, version information and return, the button (4) is long-pressed in the design 4 interface change state diagram 1 to switch the instrument engineering mode, the button (4) is short-pressed to enter the design 4 interface change state diagram 2, and the left screen displays the specific information of the brightness adjustment; in design 5, the user long-presses the button (5) in the main view of design 5 to enter the design 1 interface change state diagram 1, the left screen in the design 5 interface change state diagram 1 displays a plurality of vertically arranged instrument engineering modes including vehicle state, battery state, VCU fault, brightness adjustment, setting interface, version information and return, the button (4) is long-pressed in the design 5 interface change state diagram 1 to switch the instrument engineering mode, the button (4) is short-pressed to enter the design 5 interface change state diagram 2, and the left screen displays the specific information of the setting interface.In the design 6, the user long-presses the key (5) in the design 6 home view to enter the design 1 interface change state figure 1, the left screen in the design 6 interface change state figure 1 displays a plurality of vertically arranged instrument engineering modes including a whole vehicle state, a battery state, a VCU fault, a brightness adjustment, a setting interface, version information and a return, long-presses the key (4) in the design 6 interface change state figure 1 to switch the instrument engineering mode, and short-presses the key (4) to enter the design 6 interface change state figure 2, wherein the left screen displays specific information of the version information.

Techniques for improving, for a set of conditions at a UE, the usage of energy stored at a UE include determining a preferred or requested partitioning of the UE's stored energy usage during wireless data transfer between the UE and the base station (e.g., an amount or percentage of stored energy utilized by the UE for baseband signal processing with respect to the amount or percentage of energy utilized by the UE for radio interface signal processing tasks), and indicating the preferred partitioning to the base station or network. Based on the indication, the base station / network may modify the baseband communication scheme, parameters, and / or values, and / or the radio interface communication scheme, parameters, and / or values utilized for the wireless transfers of data between the base station and the UE, thereby better managing (and in some cases, optimizing) the UE's stored energy usage and increasing battery life at the UE.

A pressure gauge (10) for a portable pressurized fire extinguisher comprising a pressure sensor (30), a LoRa radio interface (20) and a power source (70); the pressure sensor (30) is configured to sense an inner gas pressure of the portable pressurized fire extinguisher; and the LoRa radio interface (20) is powered by the power source (70) and configured to transmit pressure data from the pressure sensor (30) to a management server; wherein the pressure gauge (10) further comprises a near-field communication NFC interface (40), which is configured to send and receive pressure data to and from the pressure sensor (30).

The invention relates to an electronic device (1) configured to perform wireless communications via a low-power communication interface (RI 145) when the electronic device (1) is operating in a deep sleep mode, and to an improved method for configuring said electronic device (1) during deep sleep. Figure to be published with the abstract: Fig. 1

A method of communication between a first apparatus (e.g. terminal or user equipment (UE)) and a second apparatus (e.g. a serving cell, gNB, or network) comprises the first apparatus receiving, from a

An NTN communication system based on O-RAN according to an embodiment of the present disclosure may comprise: a first satellite equipped with a first function based on the O-RAN; a second satellite equipped with a second function based on the O-RAN; and an NTN gateway connected to the second satellite through a satellite radio interface (SRI), wherein the first satellite and the second satellite may communicate on the basis of an ISL, and the first satellite and the second satellite may be included in one group and travel in formation so as to maintain a predetermined distance.

A reader device may receive a request including a permanent device identifier (PDI) for an ambient-power-enabled internet of things (AIoT) device. The reader device may generate an encrypted temporary device identifier (ETDI) based on application of an encryption algorithm to the PDI. Further, the reader device may obtain a short-ETDI based on application of a bitmask to the ETDI. Also, the reader device may transmit, over a radio interface, a trigger message including the short-ETDI to the AIoT device. Moreover, the reader device may receive, over the radio interface, a random access (RA) response message including the short-ETDI from the AIoT device. In an example, the request may be an inventory request, and the inventory request may received from an AIoT function. Further, the request may include an indication that encryption is supported by the AIoT device.