588results about How to "Flexible allocation" patented technology

The invention discloses a method for realizing flow distribution based on front-end scheduling, a device thereof, an accessing method based on front-end scheduling, and a system for realizing flow distribution based on front-end scheduling. The method for realizing flow distribution based on front-end scheduling comprises the steps of receiving a request which comes from a client for acquiring target server connecting information; selecting a target server for the client according to a customized strategy from a server to be selected; and returning the target server connecting information to the client. The method of the invention can realize flexible configuration for a client accessing flow, load equalization of a server cluster, fault tolerance and disaster recovery.

A modularized robot includes a robot platform configured to convey mobility and connectivity to external components to the modularized robot, a robot workhead configured to convey the ability to perform an operational task to the modularized robot, and a robot adapter attached to either the robot platform or the robot workhead and configured to mechanically link the robot platform to the robot workhead. Moreover, a swarm of modularized robots and a robot system include such modularized robots.

It is a multimedia information transmission time frequency matrix two-dimensional sub-channel dynamic alignment method, which belongs to digit information transmission technique field and comprises the following steps: to generate two-dimensional time zone and frequency zone matrix TFM channel alignment pattern according to certain rules; to align the multimedia program code flow input to the relative TDS-OFDM signal frame and OFDM sub-carrier wave according to the alignment pattern; to insert TFMp matrix information into the head frame group of TDS-OFDM; finally to send the complete signal of TDS-OFDM.

A method, and system, for reconfiguring an FPGA which has a static region and a dynamic region is provided. The method includes the steps of: (a) providing a dynamic module library having information of predetermined modules; (b) receiving a reconfiguration request external to the FPGA; (c) computing reconfiguration of the FPGA at a predetermined location using predetermined module information from the dynamic module library and the reconfiguration request, and generating reconfigurable partial bitstreams; and (d) sending partial bitstreams from the predetermined location to the FPGA to perform the reconfiguration.

The invention discloses an indoor visible light positioning system. The indoor positioning technology is completed jointly by combination of an LED lamp, a hand-held receiving terminal, and a positioning algorithm. Position information is modulated on a carrier wave distributed to the LED lamp and reverse fast Fourier transform is carried out; a signal is sent into a drive circuit and then the signal is transmitted to an air channel in a visible light mode by free space. A receiving terminal carries out light convergence by an optical lens; the signal is converted into an electric signal; fast Fourier transform is carried out and digital demodulation is carried out; and according to information of three detected strongest powers, a distance between the receiving terminal and the LED lamp is estimated by a lambertian model. According to position coordinate information of a carried transmitting terminal and estimated distance information, a receiving coordinate is calculated finally and positioning is carried out. According to the invention, communication reliability is enhanced; the positioning precision is improved; and the interference of communication between LED cells is effectively resisted.

Embodiments of the present invention provide a system, method, and computer program product that enables applications transferring data packets over a network to a multi-processing system to choose how the data packets are going to be processed by, e.g., allowing the applications to pre-assign connections to a particular network thread and migrate a connection from one network thread to another network thread without putting the connection into an inconsistent state.

The invention discloses a dynamic disc bandwidth allocation method in a virtual environment. The disc resource management method in the existing XEN is a completely fair bandwidth allocation method, and considers the application type of each virtual machine and the practical bandwidth needs, but cannot make full use of the limited disc bandwidth resources; and meanwhile, in the privileged virtualmachine, as each virtual machine corresponds to one rear-end IO (input output) process, the bandwidth of the virtual machine is influenced by other processes in the privileged virtual machine. The method disclosed by the invention can be used for making full use of the physical bandwidth of a disc, and allocating corresponding bandwidth to each virtual machine according to the practical bandwidthneed. Meanwhile, when the bandwidth need of the virtual machine changes, the allocated bandwidth can be dynamically adjusted through a dynamic token allocation method so as to realize real dynamic allocation according to the needs of the disc bandwidth and provide a better guarantee in disc bandwidth service.

The invention discloses an FPGA (Field Programmable Gate Array)-based on-orbit reconfiguration system for a satellite on-board computer. The FPGA-based on-orbit reconfiguration system comprises an on-board FPGA chip, a control FPGA chip and an SPI (Serial Peripheral Interface) flash memory unit, wherein the on-board FPGA chip is internally integrated with CPU cores; the control FPGA chip is used for receiving configuration files, which are uploaded by a communication module of a satellite, for on-orbit reconfiguration, unloading the configuration files in the SPI flash memory unit, and controlling the on-orbit reconfiguration of the on-board FPGA chip; the SPI flash memory unit is used for storing the configuration files required for on-orbit reconfiguration; in the process of realizing on-orbit reconfiguration by means of running a JTAG (Joint Test Action Group) configuration mode, the control FPGA chip reads the configuration files required for the JTAG configuration mode from the SPI flash memory unit, and sends the configuration data to the on-board FPGA chip; in the process of realizing on-orbit reconfiguration by means of running an SPI configuration mode, the control FPGA chip informs the on-board FPGA chip of starting the SPI configuration mode, and the on-board FPGA chip reads the configuration files required for the SPI configuration mode from the SPI flash memory unit.

The invention discloses a device and a method for dynamically confirming a CFI (Control Format Indication). The device comprises a cell parameter configuration unit, a PHICH (Physical Hybrid Indication Channel) calculation unit, a scheduling calculation unit, a CFI calculation unit and a CFI mapping unit. The method comprises the following steps of: acquiring cell configuration parameters; calculating a PHICH parameter of the cell according to the cell configuration parameters; calculating and acquiring a total CCE (Command Control Equipment) resource bit needed by the empty subframe according to the numbers of information to be scheduled and UE (User Equipment) to be scheduled in the empty subframe when the number of the information to be scheduled is changed in an empty subframe of the cell; and calculating a total REG (Registered) number needed by the empty subframe and calculating the CFI value of the empty subframe of the cell according to the total REG number needed by the emptysubframe. The invention dynamically confirms the CFI value and improves the resource utilization ratios of downlink PDCCH (Physical Downlink Control Channel) and PDSCH (Physical Downlink Shared Channel) resources.

The invention provides a method for realizing the application of LTE (Long Term Evolution) in the Internet of things by improving the distribution of frequency domain resources, comprising the following steps of: generating a control signaling of data transmission by a network side, wherein the control signaling comprises subcarrier information occupied by current data transmission and the format information of current data; transmitting the data in a corresponding format on a corresponding subcarrier frequency domain position according to the subcarrier information; and receiving the data from the subcarrier frequency domain position and analyzing the data according to the data format information by a receiving end. The invention can effectively enhance the utility ratio of the frequency domain resources on the basis of ensuring the reliability of low-speed service processing.

The invention discloses a generation method for a random access preamble sequence. The generation method comprises the steps that random access configuration information is received, wherein the random access configuration information comprises preamble sequence resource pool information which comprises an available basic sequence; M sequences are generated according to the basic sequence, whereinM is greater than 1; and the random access preamble sequence is generated according to the M sequences. The invention further discloses a generation method for the random access preamble sequence anda random access configuration information indication method and device. According to the technical scheme, the random access preamble sequence can adapt to a 5G mid-high-frequency multi-beam operation, and the performance of the system random access process is improved.

The invention belongs to the technical field of power transmission, and particularly relates to a vehicle hybrid power driving system. According to the technical scheme of the multi-axle multi-wheel vehicle hybrid electric driving system, in a mechanical drive section, an engine (1) and a gearbox (3) are longitudinally arranged, an elastic coupler (2) is arranged between the engine and the gearbox, a transfer case (4) is connected to the rear side of the gearbox (3), and the transfer case (4) conducts power distribution and distributes the power into axles through a drive axle; in a dynamic drive section, a wheel edge drive motor (8) and a double-gear gearbox (7) are combined to drive the axles, the wheel edge drive motor (8) is connected to a power management system (21), and the power management system (21) is connected with a battery pack (22) and the gearbox (3). According to the multi-axle multi-wheel vehicle hybrid electric driving system, an inter-axle differential mechanism and an inter-wheel differential mechanism are omitted, the structure of the driving system is simplified, a transmission chain is shortened, and power distribution is flexible.

The invention relates to a service flow access control and bandwidth allocation method based on an orthogonal frequency division multiplexing (OFDM) system, which mainly solves the problems of service flow access control and system bandwidth resource allocation in the OFDM system. The method of the invention essentially comprises the following steps: (1) carrying out access control according to the management information of dynamic service flow and generating a bandwidth-reserved distribution list; (2) distributing the bandwidth-reserved according to the bandwidth-reserved distribution list; and (3) distributing the rest bandwidth according to a weight factor configuration table. The method provided by the invention not only effectively improves the use efficiency of the system resources, but also ensures fairness among a plurality of service types and prevents 'starvation' phenomenon caused by that the bandwidth cannot be obtained due to the comparatively low priority of users.

The embodiment of the invention provides a signal transmission method and apparatus. The method comprises the following steps: a network device determines a reference signal resource pool; the networkdevice sends indication information to a terminal device; the network device sends first configuration information and/or second information to the terminal device according to the reference signal resource pool; and the network device sends a first type of reference signals to the terminal device according to the first configuration information, and/or the network device sends a second type of reference signals to the terminal device according to the second configuration information. By adoption of the signal transmission method and apparatus provided by the embodiment of the invention, theresources used by different kinds of reference signals can be flexibly allocated, thereby improving resource utilization rate.

The invention discloses a whole vehicle energy distribution method, a system and an electric vehicle, comprising: setting energy use priority from high to low, sequentially including safety requirement, driving requirement and comfort requirement; Detecting an entire vehicle mode, wherein when the entire vehicle mode is a mileage mode, the required power for controlling the comfort requirement isless than a first preset value, wherein the entire vehicle mode comprises a mileage mode and a normal mode; obtaining The maximum discharge power of the power battery, and the allowable power of eachenergy use priority according to the maximum discharge power; Controlling the subsystem in the whole vehicle system to work according to the permissible power. Adding A mileage mode in the whole vehicle mode, According to the whole vehicle mode, the energy distribution scheme of the whole vehicle is made. In the low temperature limit environment, if the driver pursues the long mileage, the required power of the comfort demand is limited, which not only saves the electric energy of the power battery, but also can more flexibly carry out the energy distribution according to the driver's demand,and improve the driver's driving experience.

The invention discloses a resource acquisition method, a resource acquisition device, a resource configuration method, a resource configuration device, a resource pool configuration method and a resource pool configuration device. The resource acquisition method includes the step that a source node sends an information set corresponding to the quality of 2D2 services of UE to a target node, wherein the information set is used for the target node to configure/allocate D2D resources and/or modulation and coding schemes for the UE. With the methods and devices provided by the technical schemes of the invention adopted, D2D resources can be allocated or configured for the UE quickly and flexibly, and smooth D2D transmission can be ensured.

The invention relates to an intelligent terminal application system based on network structure, which at least comprises one local network with intelligent terminal, access network, and fireproof wall; the first server area with several different server groups while each group has at least one server with different functions, and the first server area has authorization domain analysis server; network load balancer connected to the fireproof wall and the first server area, to select one of minimum-load server to connect the intelligent terminal, according to the requested server group and the load of server.

The present invention relates to an amplification device for a satellite in order to amplify a plurality of n transmission channels to an output corresponding to a beam, the device comprising:

• frequency band combining means comprising n inputs in order to receive the n transmission channels and q outputs in order to supply respectively the channels grouped together within q frequency bands,
• a power amplification unit including p active amplifiers in parallel for the distributed amplification of the n channels,
• gain and phase adjustment means corresponding to the p power amplifiers on the q frequency bands.

The invention discloses an uplink control information feedback and receiving method, a base station and a relay station, which can maintain the orthogonality of a PUCCH (Physical Uplink Control Channel) of the relay station and a PUCCH of UE (user equipment) while realizing the flexible PUCCH resource distribution of the relay station. The uplink control information feedback method comprises the following steps of: receiving PUCCH format 2/2a/2b channel resources distributed by the base station; and feeding back uplink control information on the PUCCH format 2/2a/2b channel resources, wherein the uplink control information comprises answering information and/or SRI information. The method for receiving the uplink control information comprises the following steps of: assigning the PUCCH format 2/2a/2b channel resources to the relay station, and receiving the uplink control information fed back by the relay station on the PUCCH format 2/2a/2b channel resources, wherein the uplink control information comprises answering information and/or SRI information. The embodiment of the invention can maintain the orthogonality of the PUCCH of the relay station and the PUCCH of the UE while realizing the flexible PUCCH resource distribution of the relay station.

The invention discloses a control system for a dynamic lattice of a package sorting machine. The control system comprises a package sorting machine database, a monitoring module, a management module, a decoding module, a communication module, a package supply control module, a main ring control module, a lattice control module, a bar code reading module and a tray control module; the main ring control module is an intelligent module consisting of a PLC, a control panel and a motor part, is used for carrying out start-stop and constant-speed operation control on a main ring of the sorting machine, and communicates with the package supply control module, the bar code reading module, the decoding module, the tray control module, the lattice control module and the monitoring module in real time; after mail online information is received, the bar code reading module is noticed to read and analyze; and after physical lattice information is obtained by mail decoding and distributing according to the read and analyzed results, the tray control module is noticed to drop mails onto lattices according to specified lattices.

The invention discloses an intelligent distribution double-frequency wireless access device and a method and a network device which are applied to room distribution wireless local area network. The intelligent distribution double-frequency wireless access device is characterized in that a control module is used for determining a radio-frequency signal which accesses to present station (STA), the radio-frequency signal is a first radio-frequency signal or a second radio-frequency signal, a double-frequency radio-frequency module is determined to be distributed to access to the present STA, the determined double-frequency radio-frequency module is in operation in a mode of the radio-frequency signal determined by the control module, a distribution module distributes the first radio-frequency signal or the second radio-frequency signal derived from the double-frequency radio-frequency module to at least one first sub-radio-frequency signal or at least one second sub-radio-frequency signal, a sending module sends the first sub-radio-frequency signal or one way of the second sub-radio-frequency signal to an antenna, the radio-frequency signal which accesses to the present STA and the double-frequency radio-frequency module which is to access to the present STA can be initiatively and flexibly determined, thereby resources in the double-frequency access device can be fully utilized, and the problem of low resource utilization ratio of a double-frequency access point (AP) in prior art is solved.

The invention discloses a data encryption method and device and a data decryption method and device, and aims to solve the problems that a static secret key and an encryption algorithm in an existingdata encryption method are single, fixed for a long time and easy to crack. The method comprises the following steps: enabling a server to receive a secret key and algorithm allocation request sent bya first terminal, wherein the secret key and algorithm allocation request comprises a needed secret key level and an algorithm category; selecting a secret key, an encryption algorithm and a corresponding decryption algorithm from the established secret key database and algorithm database according to the required secret key level and algorithm category; sending the secret key identifier and thealgorithm identifier to the first terminal; receiving a data encryption request sent by a second terminal, wherein the data encryption request carries a secret key identifier and an algorithm identifier sent to the second terminal by the first terminal; extracting a secret key corresponding to the secret key identifier and an encryption algorithm corresponding to the algorithm identifier from thesecret key database and the algorithm database respectively; and enabling the second terminal to encrypt the data requested by the first terminal by using the secret key and the encryption algorithm.

The invention discloses a broadband asynchronous adjustable multi-carrier wireless transmission method supporting a multi-antenna transmission. The method comprises a signal transmission step and a signal receiving step. The invention also discloses a broadband asynchronous adjustable multi-carrier wireless transmission system supporting the multi-antenna transmission. The system comprises a transmission end and a receiving end, wherein the transmission end comprises a sub-band baseband transmission module, a multi-carrier synthesis module, a D/A module, a transmission radio-frequency module and a reflecting antenna; and the receiving end comprises a receiving antenna, a reception radio-frequency module, an A/D module, a multi-carrier analysis module and a sub-band baseband receiving module. Through adoption of the method and the system, spectrum allocation is performed flexibly under a larger bandwidth on the basis of keeping the advantages of OFDM (Orthogonal Frequency Division Multiplexing); asynchronous transmission is realized; the spectrum utilization ratio is increased; the peak-to-average ratio is lowered; frequency offsets are effectively resisted; carrier side lobes are reduced; and radio resources are saved.