74results about How to "Easy resource management" patented technology

A router for use in a network includes a scalable architecture and performs methods for implementing quality of service on a logical unit behind a network port; and for implementing storage virtualization. The architecture includes a managing processor, a supervising processor; and a plurality of routing processors coupled to a fabric. The managing processor has an in-band link to a routing processor. A routing processor receives a frame from the network, determines by parsing the frame, the protocol and logical unit number, and routes the frame to a queue according to a traffic class associated with the logical unit number in routing information prepared for the processors. An arbitration scheme empties the queue in accordance with a deficit round robin technique. If a routing processor detects the frame's destination is a virtual entity, and so is part of a virtual transaction, the router conducts a nonvirtual transaction in concert with the virtual transaction. The nonvirtual transaction accomplishes the intent of the virtual transaction but operates on an actual network port, for example, a storage device.

A router for use in a network includes a scalable architecture and performs methods for implementing quality of service on a logical unit behind a network port; and for implementing storage virtualization. The architecture includes a managing processor, a supervising processor; and a plurality of routing processors coupled to a fabric. The managing processor has an in-band link to a routing processor. A routing processor receives a frame from the network, determines by parsing the frame, the protocol and logical unit number, and routes the frame to a queue according to a traffic class associated with the logical unit number in routing information prepared for the processors. An arbitration scheme empties the queue in accordance with a deficit round robin technique. If a routing processor detects the frame's destination is a viral entity, and so is part of a virtual transaction, the router conducts a nonvirtual transaction in concert with the virtual transaction. The nonvirtual transaction accomplishes the intent of the virtual transaction but operates on an actual network port, for example, a storage device.

A workforce management tool includes an input section that receives data from one or more data sources that together reflect data of substantially an entirety of a workforce of an organization. A plurality of service modules receive and process the data in accordance with requirements of different segments of the organization. The plurality of service modules are interconnected so that a user in a segment of the organization can selectively view any data of the workforce tool that is related to that segment.

A cloud-based wireless communication system (1) comprising user devices (12) arranged to receive services through any of a plurality of cloud-based virtual networks. The system has a plurality of base stations or access points (14), a user device (12) being arranged to wirelessly connect to any of the virtual networks via at least one base station (14) in order to receive from a virtual network a specific service for which a user of the user device has subscribed. There are virtual service anchors or vSAs (26) in the cloud, each virtual service anchor provided for a respective service provided by its virtual network. Thus, one vSA (26) handles resource allocation for all users of one service in one virtual network. Each vSA (26) receives content access requests (S10) from user devices (12) indicating content to be accessed in that vSA's service, the content stored by at least one content delivery node in the cloud. The vSA (26), in response to the content access requests, identifies (S12, S14) at least one suitable Content Delivery Node based on the indicated content and base stations proximate to the user device, and transmits service requests (S16, S22). In response to service requests received from multiple vSAs (26), each base station (14) performs second resource allocation, to provide services to each user device (12) wirelessly connected to that base station (14).

In a mobile communications system in which a mobile station is capable of communicating simultaneously with a plurality of base stations, the resources of the plurality of base stations are managed under the control of the mobile station. For example, the mobile station specifies a resource to a base station with a resource specifying signal, the mobile station specifies a resource to a base station with a resource specifying signal, and the mobile station specifies a resource to a base station with a resource specifying signal.

The invention discloses an intelligent power grid resource management method and system based on time delay and throughput, and the method comprises the steps: receiving and analyzing the informationof a power service, and obtaining a service demand; slicing and classifying the power services of the power grid resources to be distributed according to service requirements; calculating a downlink transmission rate corresponding to each slice, and calculating to obtain a real-time cache queue length corresponding to each slice according to the downlink transmission rate; calculating a binary variable distribution scheme corresponding to the maximum value of the downlink transmission rate of the eMBB slice and the optimal transmission power between the power equipment corresponding to each slice and the gNode B; carrying out power setting on the power equipment according to the result. According to the method and the system, the resource blocks of the smart power grid are reasonably distributed by analyzing and confirming the limiting conditions of the time delay and the throughput, and the throughput is improved to the maximum extent on the basis of ensuring the time delay requirement, so that the optimization of smart power grid resource management is realized.

A system for virtual representation of physical contact center resources includes a server coupled to a wide-area-network (WAN), a digital medium accessible to the server, and a resource virtualization application executable from the digital medium to run on the server, characterized in that at least one physical contact center having physical resources has access to the server over the network wherein the resource virtualization application categorizes and represents the physical resources in an abstract way for access by customers of one or more virtual contact centers.

An information processing device includes: storage means containing component information on the components constituting a system having a predetermined function; and processing means for calculating a combination of components necessary for constituting a system required for a service according to the component information, calculating risk information as information on the risk that a physical failure affects the service request for the combination of the components and/or fragment information as information on the deflection degree of the use condition of the components, and ranking the selected component combinations according to a predetermined policy, calculated list information and/or the fragment information.

The invention relates to a flow scheduling method and apparatus based on a domain name system, and a domain name system. The method comprises: updating available nodes of a platform; receiving a domain name parsing request and performing parsing to obtain a domain name and an access area; and selecting one available node which is corresponding to the domain name from the available nodes of the platform corresponding to the access area, and feeding back a node address to a domain name parsing request end, the selected available node corresponding to the domain name satisfying a preset rule. The apparatus correspondingly comprises an updating unit, a receiving unit and a selection unit. The domain name system comprises the apparatus. By using the technical scheme provided by the invention, effective distribution of IP addresses can be improved during the flow scheduling process of the domain name system.

Full-chip scan data can be advantageously used during design planning to minimize top-level scan wires and scan feedthroughs. The scan cells can be reordered using a modified cost function to promote connecting all scan cells in one plan group before crossing to a scan cell in another plan group. The modified cost function can take into account penalty parameters. The penalty parameters can include at least one of: membership in a plan group or a top-level physical hierarchy, size of a plan group, FLOATING/ORDERED scan element in scan data, location of endpoints of an ORDERED list, location of endpoints of a macro, and membership in a plan group containing a STOP point. Scan data, at the block-level and at the top-level, can be automatically updated to reflect the plan groups and optimized scan chains.

The invention relates to technology of network communication, in particular to a method for realizing an IP telecommunication network based on a tunnel. Aiming at the defects in the prior art, the invention discloses the method for realizing the IP telecommunication network based on the tunnel, which smoothly transits under the condition of lower cost and not changing the prior network structure so as to realize end-to-end service quality guarantee for users and provide service of multiple IP QoS levels according to requirement for users. The invention adopts a technical proposal that: a plurality of independent resource domains are formed through planning a physical network. A resource tunnel of a domain is established in the resource domain, and data traffics with different service quality requirements are classified into different resource tunnels, thereby realizing that user data traffic can be transmitted in a resource tunnel in accordance with the user requirement on IP QoS level, and ensuring the QoS requirement of user service. For communication service for a specific user, a full range user tunnel is established inside the resource tunnel, and the user tunnel passes through the resource tunnel to form a multilayer tunnel.

The invention provides a method for rapidly splicing transcoding fragmented files, and belongs to the technical field of computers. The method comprises: writing a video source file into a distributed storage, a distributed storage system providing an unified name space for transcoding service, a plurality of transcoding servers reading the video source file from the distributed storage in a parallel manner, according to time period intervals of fragments, obtaining data corresponding to the time period of the video source file; distributing index numbers of fragmented data segments for transcoding nodes through a transcoding scheduler, to transcode the fragmented data. Through recording length of the fragmented transcoding file, file number, and offset information in an aggregation file in an index entry of aggregation information attribution of the aggregation file, a conventional additional writing-in method is completely abandoned, and time-consuming data reading-writing operation is changed to increasing of attribute information, efficiency for merging transcoding fragmented files is improved, and valuable network bandwidth resources are saved.

The invention relates to a network security situation awareness early warning method and system. The method comprises the steps of obtaining a network data sample; preprocessing the network data sample; analyzing and processing the preprocessed network data sample to obtain an attribute value of the network data, and judging whether the attribute value of the network data is in safe correspondencewith the network data or not; extracting a feature vector from the attribute value of the network data; establishing a database table structure according to the feature vectors of the network data attribute values to form a network security feature knowledge base; acquiring real-time network data, and extracting a feature vector of a network data attribute value from the real-time network data; matching the feature vector of the network data attribute value with a network security feature knowledge base, and judging a network security situation according to a matching result; and forming a situation analysis report and a network comprehensive situation map according to the network security situation, and performing visual display. According to the invention, network space equipment security situation awareness early warning and visual expression are realized.

The invention discloses a resource allocation method and related equipment so as to solve a resource management problem in a condition that a lot of wireless small stations exist and a scene is complex. The method comprises the steps that the wireless small stations determine a service cell which satisfies a preset access rule and access the service cell; the wireless small stations send communication related information to the service cell; the wireless small stations receive the configuration information sent by the service cell, and the configuration information at least comprises back process link information, and the wireless small stations carry out resource configuration according to the configuration information.

The invention discloses a virtual machine scheduling method for supporting energy consumption optimization of a cloud data center. The method comprises the following steps that firstly, a data set isrecorded based on the occupancy of a virtual machine case, and a list of physical machines in a running state in the cloud data center and a list of virtual machines in a running state in the cloud data center are obtained; secondly, according to the occupancy state of the virtual machine case, the free space of the physical machines in the running state in the first step is obtained; thirdly, according to the resource requirements of the vertical machines and the free space, obtained in the second step, of the physical machines, heuristic search is adopted, and feasible virtual machine migration strategies are obtained; fourthly, energy consumption values of the cloud data center for task execution and virtual machine migration are calculated; fifthly, according to the virtual machine migration strategies obtained in the third step, a set of the energy consumption values generated by the cloud data center after virtual machine migration operation is calculated by using the fourth step; sixthly, according to the energy consumption values obtained in the fifth step, the virtual machine migration strategy which is optimal in energy consumption is selected as the final virtual machinescheduling strategy.

Computational tasks are completed using third-party (user) devices. The tasks are delivered to a computational resource manager (broker) by a task originator. The originator pays a fee to the broker to have the task completed. The broker has a relationship with a content publisher (for web sites or apps) which has users. The publisher inserts inline code in its web page or app supplied by the broker. The code, when executed by the user's browser, enables the broker to communicate with the user. The broker identifies users who have devices that are suitable for completing the task. The task is assigned and executes on that device. When completed, the task output is delivered to the broker who makes it accessible to the task originator. In these processes, user, task originator, and publisher identities are protected. The broker manages the transactions and message passing among the parties.

The invention provides a TD-LTE230 wireless private network frequency resource planning method. The TD-LTE230 wireless private network frequency resource planning method comprises the steps of 1, obtaining the total number of different service types of terminals in a target region, and representing the total number by using kij, wherein i=1, 2, ..., n, and i represents the number of service types, j=1, 2, and j=1 represents the number of existing services, and j=2 represents the number of planned services; 2, distributing the total number kih of the different service types of the terminals averagely according to the number m of the covered sectors, and counting the number hij of the terminals for each service in each sector, wherein hij=kij/m; 3, calculating the demands Kij of different services in each sector for a wireless frequency resource; 4, carrying out frequency point distribution cij for different services in each sector; 5, calculating the number of frequency points C needed by all the services in each sector; and 6, calculating the total number H of the TD-LTE230 wireless private network frequency resources needed by the target region.