78results about "Time-division multiplexing selection" patented technology

The present disclosure provides a control system for controlling unmanned autonomous systems (UAS). The control system comprises of an application user system 102 to operate the UAS, an operating system 103, a virtual road system (VRS) 109 and a virtual packet 501. The virtual packet 501 created as a boundary around the UAS defined by application user system 102 or VRS 109. The operating system 103 includes a machine learning processing unit (MLPU) 104 configured for positioning the UAS, detecting collision within path of the virtual packet 901. The VRS 109 configured to generate a virtual roadway 902 using architecture for routing the UAS. The routing and controlling of UAS by the VRS 109 is based on request received from the MLPU 104, application zone packet parameters and actual position co-ordinates received from the MLPU 104.

Embodiments of the present disclosure provide a system and method of transmitting a signal. The method includes: acquiring a Virtual Pin Port (VPP) lighting signal and a Serial General Purpose Input / Output (SGPIO) lighting signal by a server motherboard, wherein a hard disk backplane is deployed with a target logic device and a set of hard disk slots; and scheduling and switching the VPP lighting signal and the SGPIO lighting signal in an orderly time-division way by using a preset time-division multiplexing manner, so as to transmit the VPP lighting signal and the SGPIO lighting signal to the target logic device through a same lighting cable, wherein the preset time-division multiplexing manner includes: continuously detecting the VPP lighting signal and the SGPIO lighting signal within a time-division multiplexing cycle, performing identification and determination according to waveform characteristics of the VPP lighting signal and the SGPIO lighting signal, sampling the VPP lighting signal and the SGPIO lighting signal which are continuously sent, and according to one or more specific flag bits of the VPP lighting signal and the SGPIO lighting signal and a preset specific rule, switching the VPP lighting signal and the SGPIO lighting signal to be alternately transmitted to a time-division multiplexing channel.

The invention discloses a time-frequency resource allocation method and system for a power distribution network, and is applied to the field of communication and power fusion, and the method comprises the steps: responding to a business processing request signal of a target power distribution network; determining the priority of each service request; determining a time-frequency resource block corresponding to each service request in sequence; when a service request corresponding to a high priority in the service request priorities is executed, if it is detected that the current time-frequency resource blocks are insufficient, a first scheduling signal is generated; when a service request corresponding to a low priority in the service request priorities is executed, if it is detected that the current time-frequency resource block is insufficient, a second split signal or a third adjustment signal is generated; generating a time-frequency resource allocation scheme of the target power distribution network; and executing the time-frequency resource allocation scheme. According to the power distribution network time-frequency resource allocation method and system provided by the invention, the time-frequency resource allocation problem of transmission of multiple types of service requirements under the condition that the time-frequency resources are limited is effectively solved, and the utilization efficiency of the time-frequency resources is improved.

A dual band radio frequency signal acquisition and source location system, provided with a steerable phased array antenna operable in a first and a second radio frequency band. A digital signal processor electrically connected to the steerable phased array antenna is configured to control steering of an antenna beam of the steerable phased array antenna and apply frequency time division multiplexing to radio frequency signaling in the first and the second radio frequency bands. In particular, the first frequency band may be 2.4 GHz Bluetooth / Bluetooth Low Energy, and the second frequency band may be 900 MHz passive UHF RFID.

A medical device comprises a control system, processing modules, and a wire bundle connecting the control system to the processing modules, the wire bundle comprising control lines and data lines. Each processing module is coupled to a respective set of sensors arranged to interface with a biological tissue site, the sensors being configured to capture analog physiological signals generated from the biological tissue site. The control system is configured to generate a control signal on the control lines to initiate a data collection cycle by the processing modules. In response to the control signal, each processing module is configured to perform a respective data collection process which comprises (i) capturing and processing an analog physiological signal on each enabled sensor to generate a data sample for each analog physiological signal captured on each enabled sensor, and (ii) outputting data samples to the control system on the data lines.

Provided herein are systems and methods for performing dynamic adaption and correction for internal delays in devices connected to a common time-multiplexed bus. The methods allow devices to operate reliably at a higher bus frequency by correcting for inherent and unknown delays within the components and in the system by measuring the actual delays using multiple readings with the bus. Intrinsic noise and jitter are used to increase the precision of the measurements, thereby essentially using these uncertainties as self-dithering for increased measurement resolution. During adaption, delays may be adjusted in multiple step sizes to speed adaption time.

An output signal generation device includes: two or more signal output blocks that each include two or more serial output circuits and a signal multiplex unit, the serial output circuits controlling amplitudes of data signals having different delay times and each outputting a first serial signal, the signal multiplex unit electrically multiplexing the first serial signals outputted from the two or more serial output circuits, and output a second serial signal obtained by electrical multiplex of the signal multiplex unit; and a phase correction unit that controls a phase of the second serial signal outputted from the two or more signal output blocks by changing the amplitude of the first serial signal outputted from the serial output circuit.

A system and method for time division multiplexing voice and situational awareness data with defined transmission and retransmission windows comprises coordinating the voice and situational awareness windows at defined times across all nodes. Control signal windows and control signal retransmission windows are also defined to propagate control signals to coordinate the various voice and situational awareness windows. Voice data is prioritized for bandwidth.

Systems and methods receive control signal(s) from an interconnected data platform of a third-party to initiate display of digital images that are customized for an individual, the digital images including an image that includes a link to access a previous interaction between the individual and an agent. Distributed access to the digital images accessible via multiple platforms is regulated via one or more multiplex communication protocols, with each of the multiple platforms including a respective displayable interface for displaying at least some of the plurality of digital images during an interaction between the individual and a user. An indication of a user selection, by the user, of the link is received, and based on receiving the indication, information about the previous interaction is routed to a computing device of the user that is accessing a platform of the multiple interface platforms.

The application relates to a resource allocation method of a full-optical space division multiplexing elastic optical network, and belongs to the technical field of optical network communication. The method comprises the steps of fiber core grouping and spectrum partitioning, fiber core selection and L-shaped frequency block allocation. The fiber core grouping and spectrum partitioning step divides a seven-core optical fiber into three groups, divides an in-group priority area, and sets a grouping partition weight coefficient. The fiber core selection step arranges the fiber cores in descending order according to the fiber core weight values according to the frequency slot usage, the link length and the number of overlapping frequency slots between the fiber cores on a path, selects the fiber core with the maximum weight value as a transmission fiber core, the L-shaped frequency block allocation step obtains an L-shaped frequency block set satisfying the connection type limitation and the crosstalk threshold limitation according to the remaining unallocated frequency blocks and the frequency block allocation limitation condition, and selects the L-shaped frequency block with the maximum weight value as a transmission frequency block by using an L-shaped frequency block weight calculation formula. The application can balance the number of idle slice machines at each node on the network and guarantee efficient transmission of service requests.

An apparatus for multiplexing radar beat signals is disclosed. In one exemplary embodiment, the apparatus includes an antenna array and a wireless transceiver jointly configured to transmit a radar transmission signal and receive two or more radar reception signals. The two or more radar reception signals represent portions of the radar transmission signal that are reflected by an object. The wireless transceiver includes a radio frequency integrated circuit having two or more receive chains and a multiplexing circuit. Each of the two or more receive chains is configured to generate a radar beat signal by downconverting a respective radar reception signal of the two or more radar reception signals using the radar transmission signal. The multiplexing circuit is coupled to the two or more receive chains and configured to multiplex the two or more radar beat signals together to generate a composite radar beat signal.

This invention discloses a shared point-to-multipoint Ethernet transmission system based on the TDMA transmission mechanism in the field of communication technology, comprising: a main Ethernet optical port, at least one slave Ethernet optical port, and a passive optical fiber distribution network. The main Ethernet optical port performs time slot fragmentation calculation, OAM PDU message generation, transmission and reception, and management and control of the main Ethernet optical port physical unit, which is used to complete Ethernet data transmission and reception. At least one slave Ethernet optical port is used to perform slave Ethernet optical port transmission time slot control and OAM PDU message transmission and reception processing, and the slave Ethernet optical port physical unit is used to complete Ethernet data transmission and reception. The passive optical fiber distribution network is used to realize communication between the main Ethernet optical port and at least one slave Ethernet optical port. The networking form and access architecture use a PON system framework, and use traditional Ethernet chips to replace dedicated PON chips. The EFM OAM extended information domain is used to realize terminal access control, bandwidth control, and transmission time slot allocation.

The present disclosure relates to a method and an apparatus for performing periodic task. A method (100) for performing a periodic task may comprise: determining (S102) a time unit, based on a time period needed for scanning a first random access memory. RAM: scanning (S104) circularly the first RAM; and performing (S106) a task with a predetermined periodicity, based at least on a cycle number for scanning the first RAM. The cycle number is determined, based on the time unit and the predetermined periodicity. According to embodiments of the present disclosure, an improvement for performing a periodic task may be provided. Particularly, embodiments of the present disclosure may be applied not only in slow and small-scale periodicities, but also applicable even when the periodicities have values varying in a large range, and / or when some periodicities have very small values.

A cellular data communication network includes a gNodeB connected to a UPF by an IP network. A first translation module translates GFP packets into IP packets transmitted over the IP network. A second translation module translates the IP packets back into IP packets and forwards the IP packets to the UPF. A PFCP proxy snoops information and provides it to a BGP module that programs the translation modules and a routing module to perform routing of packets in bypass of the UPF. The BGP module may program the first translation module with an SR policy associated with a binding SID that is bound to an interface to the gNodeB. The SR policy may invoke translation according to a function. The routing module may be programmed to embed GTP information in an SRH header that is used by the first translation module. BGP module may also distribute routing and VPN updates.

The embodiment of the present disclosure discloses a heartbeat mechanism implementation method and system. The method comprises the following steps: after power supply of a master node and a slave node, initialization is performed to obtain heartbeat message time-sharing sending time, heartbeat period and network access application message sending time; the master node sends a start message to the slave node at the beginning time of the current service period; the offline slave node sends a network access application message to the master node at the network access application message sending time; the master node sends a pause message to the slave node; after processing the first network access application message, the master node generates a configuration message and sends it to the slave node; the offline slave node sets the corresponding offline slave node to an online slave node according to the configuration message; within the network access application time, if the master node does not receive the network access application message, all online slave nodes send heartbeat messages to the master node in turn according to the heartbeat period at the corresponding heartbeat message time-sharing sending time.

The measures described herein can extend the functionality of NoCs (22). In particular, a method for multi-source communication for Triple Modular Redundancy (TMR), a method for branched communication, and a method for virtual buses are proposed.

A synchronization information transmission method, a sending end device, a receiving end device and a storage medium are disclosed. The method includes: switching, by the sending end device, the synchronization information to a second PHY link for transmission when it is detected that a first physical layer PHY link used for transmitting synchronization information fails, the second PHY link being a PHY link other than the first PHY link in the FlexE group; wherein the FlexE group exists between the sending end device and the receiving end device, the FlexE group includes at least two PHY links.

Provided herein are systems and methods for performing dynamic adaption and correction for internal delays in devices connected to a common time-multiplexed bus. The methods allow devices to operate reliably at a higher bus frequency by correcting for inherent and unknown delays within the components and in the system by measuring the actual delays using multiple readings with the bus. Intrinsic noise and jitter are used to increase the precision of the measurements, thereby essentially using these uncertainties as self-dithering for increased measurement resolution. During adaption, delays may be adjusted in multiple step sizes to speed adaption time.

A medical device comprises a control system, processing modules, and a wire bundle connecting the control system to the processing modules, the wire bundle comprising control lines and data lines. Each processing module is coupled to a respective set of sensors arranged to interface with a biological tissue site, the sensors being configured to capture analog physiological signals generated from the biological tissue site. The control system is configured to generate a control signal on the control lines to initiate a data collection cycle by the processing modules. In response to the control signal, each processing module is configured to perform a respective data collection process which comprises (i) capturing and processing an analog physiological signal on each enabled sensor to generate a data sample for each analog physiological signal captured on each enabled sensor, and (ii) outputting data samples to the control system on the data lines.

A system and method of transmitting signals are provided. The method includes: acquiring a Virtual Pin Port (VPP) lighting signal and a Serial General Purpose Input / Output (SGPIO) lighting signal by a server motherboard, a hard disk backplane being deployed with a target logic device and a set of hard disk slots; and scheduling and switching the VPP lighting signal and the SGPIO lighting signal in an orderly time-division way by using a preset time-division multiplexing manner, so as to transmit the VPP lighting signal and the SGPIO lighting signal to the target logic device through a same lighting cable.

Embodiments of the present application provide a signal transmission system and method. The system comprises: a server motherboard, and a hard disk backplane provided with a target logic device and a set of hard disk slots, wherein the server motherboard is configured to: obtain a VPP lighting signal and an SGPIO lighting signal; and use a preset time division multiplexing mode to schedule and switch the VPP lighting signal and the SGPIO lighting signal in a time-sharing ordered manner, so as to transmit the VPP lighting signal and the SGPIO lighting signal to the target logic device by means of the same lighting cable, wherein the preset time division multiplexing mode is continuously detecting the VPP lighting signal and the SGPIO lighting signal within a time division multiplexing period, performing identification and judgement on the basis of respective waveform characteristics, sampling the continuously sent VPP lighting signal and SGPIO lighting signal, and on the basis of specific flag bits of the signals and a preset specific rule, alternately switching the VPP lighting signal and the SGPIO lighting signal to a time division multiplexing channel.

The embodiment of the present application discloses a method for identifying a data stream and related equipment. The method of the embodiment of the present application includes: an ONU receives downstream data sent by an OLT. The ONU demultiplexes the downstream data to obtain a target bit sequence and multiple data streams, wherein the bit distribution of at least one field in the target bit sequence has a target feature. The ONU determines the target bit sequence according to the target feature. The ONU obtains the target ordering between the target bit sequence and the multiple data streams. The ONU identifies each data stream according to the target bit sequence and the target ordering, and thus determines the transmission channel corresponding to each data stream, which facilitates the ONU to subsequently send and receive data in the transmission channel required by itself. Through the above manner, the OLT does not need to indicate each data stream by sending a PLOAM message in each transmission channel, and the ONU does not need to identify the indication in the PLOAM message through a MAC chip, and the data stream identification process is simpler.

The application discloses a fixed broadband access network fault monitoring method and electronic equipment and a computer readable storage medium. The scheme provided by the application comprises the following steps: obtaining relevant device information of an access network device passed through by a user when the user accesses a fixed broadband network and online and offline information of the user; monitoring an actual online user quantity borne by a target access network device at a preset time interval according to the relevant device information of the access network device and the online and offline information; determining a decrease amplitude value of the online user quantity of the target access network device at a current monitoring time point according to the actual online user quantity at the current monitoring time point and a preset threshold value, wherein the preset threshold value is determined according to a historical online user quantity when the target access network device normally operates; and judging that the target access network device has a fault when the decrease amplitude value of the online user quantity exceeds a first preset safety threshold value.

A client device determines that a telephony outage is occurring. The client device connects to an on-premises telephony node using an encrypted password at the client device. The client device accesses a set of telephony services via the on-premises telephony node.

The embodiment of the invention relates to the technical field of energy storage systems, and provides an energy storage system clock synchronization method, an energy storage converter and an energy storage system.The method comprises the steps that the cable length between a first controller and a second controller closest to the first controller is obtained, and a first cable distance is obtained; determining first delay time at least according to the first cable distance, wherein the first delay time is a phase difference value between a clock of a second controller closest to the first controller and a clock of the first controller; and the first delay time is sent to the second controller within a preset time period, so that the second controller adds the clock of the second controller and the first delay time, and clock synchronization between the first controller and the second controller closest to the first controller is realized. The clock synchronization method of the energy storage system at least can solve the problem of high cost caused by the fact that clock synchronization of a first controller and a second controller in an energy storage system in the prior art needs optical fiber electrical connection.

The measures described herein can extend the functionality of NoCs (22). In particular, a method for multi-source communication for Triple Modular Redundancy (TMR), a method for branched communication, and a method for virtual buses are proposed.

The present invention discloses a bandwidth resource allocation method and system based on a GPON optical access network. The method is as follows: (1) OLT stores the bandwidth demand of FTTH ONU, the time and bandwidth of the front-end data arriving at FH ONU in a vector; (2) before sending BWmap information, first calculate the reference period, and then calculate the maximum bandwidth that can be allocated to the ONU delay-insensitive service in the upstream frame; OLT allocates bandwidth according to the situation: including allocating bandwidth to FH ONU or FTTH ONU, judging whether the time exceeds the upstream frame duration, calculating the transmission end time, etc., and updating the corresponding vector, the scheduled upstream occupancy time and other parameters according to different rules; (3) generating and sending the BWmap of the upstream frame, updating the scheduled upstream occupancy time to 0 and then entering the next upstream frame bandwidth allocation; (4) ONU transmits according to the allocation and reports the demand. The present invention realizes the low latency target of FH service in a time-division multiplexing passive optical network system and meets the latency requirements of FTTH delay-sensitive services, thereby reducing the latency of the optical access network and ensuring stable and efficient operation of the system.

Aspects of the disclosure relate to devices, wireless communication apparatuses, methods, and circuitry for a t-switch with gate shunting. One aspect is an apparatus including a first differential switch having a control input. The apparatus further includes a second differential switch coupled to the first differential switch, the second differential switch a control input. A shunt capacitor is coupled between a first output and a second output of the first differential switch, and a first input and a second input of the second differential switch. A first shunt switch having a control input, an input, and an output has the input and the output coupled to the control input of the first differential switch. A second shunt switch having a control input, an input, and an output, has the input and the output coupled to the control input of the second differential switch.