1007 results about "Network deployment" patented technology

An optical-fiber-network (OFN) radio-frequency identification (RFID) system for deploying and/or maintaining and/or provisioning service and/or locating faults in an OFN. The system includes a plurality of OFN components, and at least one RFID tag that includes RFID tag data that has at least one property of the OFN component associated with the RFID tag. The RFID tag data is written to and read from the RFID tags using one or more mobile RFID readers either prior to, during or after deploying the OFN components. An OFN-component-data database unit is used to store and process the RFID tag data and is automatically updated by the one or more mobile RFID readers. This allows for different maps of the OFN to be made, such as an inventory map and a maintenance map, and for the maps to be automatically updated. The OFN-RFID system allows for mobile automated operations and management of OFN components by service personnel, and provides for faster and more accurate OFN system deployment and maintenance.

Methods, apparatuses and systems allowing for deployment of volume-based network policies across a computer network. In one embodiment, the present invention monitors network utilization of a plurality of users and detects the occurrence of network utilization milestones or other events for individual users, such as exceeding a data transfer allotment or threshold. To enforce the allotment or threshold, the present invention is operative to deny, degrade, or otherwise affect a characteristic associated with network access provided to such users.

A network monitoring device configured to collect a new packet from one or more observation points of a network and to compare the new packet with a list of a number of received packets based on a packet arrival rate and to identify a duplicate packet. In particular, the number of received packets in the list is equivalent to a number of packets received within a time period, i.e. the packet arrival rate. Stated differently, the network monitoring device is to compare the new packets with received packets stored in a queue of a buffer and wherein the queue has a size based on a packet arrival rate collected at one or more observation points. In addition, the time period is further adjusted according to a threshold value. The threshold value is a variable parameter that can be adjusted to compensate for different network deployment. In one embodiment, the threshold value is a time value that is not more than a transmission time of a TCP retransmitted packet.

The Distributed Software Defined Network (dSDN) disclosed herein is an end-to-end architecture that enables secure and flexible programmability across a network with full lifecycle management of services and infrastructure applications (fxDeviceApp). The dSDN also harmonizes application deployment across the network independent of the hardware vendor. As a result, the dSDN simplifies the network deployment lifecycle from concept to design to implementation to decommissioning.

Network traffic analysis is performed by deploying, across a network having a plurality of network nodes, at least one data collection agent, on at least two of the plurality of network nodes. Each data collection agent may monitor at each network node, a plurality of network connections instantiated during a monitoring time period. Data resulting from the monitoring is acquired from the data collection agents and an ontological description of the network is automatically created from the acquired data. The ontological description is dynamically updated and network traffic analysis is performed using the dynamically updating ontological description.

The invention discloses a method for switching base stations for user equipment (UE), the base stations and the UE, and relates to a mobile communication system deployed in a heterogeneous network. The method for switching the base stations for the UE includes the steps that when the main base station of the double-link UE is switched, and the target base station determines that the UE keeps connection with the secondary base station and configuration; the target base station builds connection with the UE while the UE keeps connection with the secondary base station and configuration. The invention further discloses other three methods for switching the base stations for the UE and the corresponding base stations and UE. According to the technical scheme, when the UE transmits data and/or moves, the user interface of the UE and the connected secondary base station will not be interrupted when the main base station connected to the UE is changed, and namely data transmission can continue. Thus, the performance and handing capacity of data transmission of the UE are improved, and the use efficiency of wireless resources is improved.

A multi-party secure computing method is applied to any computing node deployed in a distributed network. A plurality of computing nodes are deployed in the distributed network, and the plurality of computing nodes participate in the multi-party secure computing together based on the privacy data held by the plurality of computing nodes respectively; Wherein the computing node is corresponding toa trusted key source; The method includes obtaining a trusted key from the trusted key source; Encrypting the held privacy data based on the obtained trusted key to obtain ciphertext data; sending atleast the ciphertext data as computational parameters to other computational nodes participating in the multi-party security computation to perform the multi-party security computation by the other computational nodes based on the collected computational parameters sent by each computational node participating in the multi-party security computation.

The invention provides a cooperative type active defense system based on honey nets. The cooperative type active defense system comprises a data capture module, a data analysis module and a data control module and is characterized in that the data capture module, the data analysis module and the data control module are arranged at the center of one honey net and a plurality of sub nets in a distributed mode. The cooperative type active defense system depends on a honey net technology, a cooperative type active defense thought is adopted, attacker information captured by the different honey nets is shared in real time, active defensiveness of a network layer is achieved, defensive initiative and real-time performance are improved, and the cooperative type active defense system is suitable for large-scale enterprise networks. The cooperative type active defense system built through the method is high in defense rate, hit rate and robustness, and time delay from the time that attackers are firstly found to the time that all network deployment and control is achieved is greatly reduced.

A boundary interface element for communications networks is disclosed. The boundary interface element is adapted for enabling a network administrator for a first network coupled to a first network interface of the boundary interface element to configure a policy for the first network interface independently of the other administrators of the other interfaces, while restricting access to a second network interface of the boundary interface element. Similarly, the boundary interface element enables a network administrator for a second network coupled to the second network interface of the boundary interface element to configure a policy for the second network interface while restricting access to the first network interface. The network administrator for the first network is permitted to view the policy configured for the second network interface, and the network administrator for the second network is permitted to view the policy configured for the first network interface. The boundary interface element may be employed in a variety of network deployment scenarios.

Embodiments of the present invention provide a gateway system and a communication method. The gateway system includes: a control plane entity, connected or integrated with a mobility management network element, and configured to allocate an IP address to UE and configure a data path for connecting a user plane entity with an RAN, a PDN or another gateway; one or more user plane entities, located between the PDN and the RAN, independent of the control plane entity, configured to forward data on the data path configured by the control plane entity. The gateway system is composed of the control plane entity and the user plane entity which are independent of each other, the number of the user plane entities may be independently changed to adapt to the change of network traffic without replacing all gateway entities, the network deployment is more convenient and the cost is lower.

A private network system operates over a public network to provide an asymmetric service to members with information from other members and non-members. The system includes central servers and databases connected via the public network to client systems of public network users. The users may be members who communicate with a private protocol or non-members who communicate with the public protocol. A process for the private service includes communication of information between users via the private service servers. The private service server implements the private service, which includes a viral engine for network deployment. Features of the viral engine include genetic algorithms, data mining, personalization, frictionless service setup, user maximization, and member-controlled privacy. A sample setup process and contact update wizard that include several viral engine features are described.

The invention discloses a load managing method, device and system and relates to the communication technology. When a macro base station determines that user plane load of a user needs to be switched to a small base station, the macro base station transmits a user plane load transfer request carrying the information of the user plane load requiring transfer and the bottom configuration information of the user in the macro base station, the macro base station and the small base station can partially transfer the user plane load according to the user plane load transfer request, and accordingly load switching under the network deployment with the user plane being separated from a control plane.

The invention provides a method for restraining the interference in a wireless communication system. According to the business and the user characteristic, a plurality of cells in the system are divided into a plurality of cell clusters; each cell cluster utilizes the same time-frequency resource distributing method, different cell clusters utilize different time-frequency resource distributing methods; and the interference suppression between different cells and different cell clusters is realized by flexibly dividing and adjusting the time-frequency two-dimension resource in order to respond to the change in the load in the cell, thereby effectively avoiding the interference between cells. On the basis of dividing the special resource for coordinating the interference for an edge user of the cell, the method utilizes an intensified or discrete dividing method to divide the shared resource in order to realize the flexible response to the change in the load of the cell and the interference suppression between cells, improves the flexibility of the system to respond to the change in the load of the cell and the system efficiency, saves the network investment and improves the flexibility of the network design.

The invention discloses a method and a system for finally calling short message. The method comprises the steps of: receiving the short message; sending circuit domain paging request message to a packet domain network element which is recorded in incidence relation by a mobile switching center or a visitor location register; carrying short message service indicating information in the circuit domain paging request message; receiving the circuit domain paging request message by the packet domain network element; obtaining the short message service indicating information in the circuit domain paging request message; and carrying out corresponding short message final calling flow. By the aid of the technical proposal of the invention, the short passage final calling flow can be accurately carried out under various conditions; the problem of finally calling the short message under ISR in the prior art is solved, processing load of a network, occupation of internal storage resource and signaling load are reduced; processing of MSC/VLR to the received short message can be kept consistent; and the method and the system are favorable for development, maintenance and network distribution of relevant products.

The invention discloses a cost optimization unmanned aerial vehicle base station deployment method based on an improved genetic algorithm, and mainly solves the problem that the unmanned aerial vehicle base station deployment cost is difficult to optimize in the prior art. The realization method comprises the following steps: 1) establishing a ground wireless communication coverage model of the unmanned aerial vehicle base station; 2) calculating the maximum coverage radius and the optimal hovering height of the unmanned aerial vehicle base station in the unmanned aerial vehicle base station ground wireless communication coverage model scene; 3) deploying the unmanned aerial vehicle base stations at the optimal hovering height, enabling the deployment problem to be reduced from three-dimensional dimensionality to a two-dimensional plane, establishing an unmanned aerial vehicle base station deployment optimization model taking unmanned aerial vehicle base station deployment number optimization as a target, and solving the model to obtain an optimal chromosome; 4) converting the optimal chromosome into a corresponding unmanned aerial vehicle base station coordinate set to obtain an optimal unmanned aerial vehicle base station deployment scheme, reducing the complexity of the deployment problem, improving the solution accuracy, and being applicable to communication network deployment planning, temporary communication network construction and disaster area emergency communication.

A multi-party secure computing method is applied to any computing node deployed in a distributed network. Wherein a plurality of computing nodes are deployed in the distributed network, and the plurality of computing nodes jointly participate in multi-party secure computing based on the privacy data held by the plurality of computing nodes, wherein the method comprises the following steps of: generating computing parameters related to the held privacy data based on a multi-party secure computing algorithm; Sending the computing parameters to other computing nodes participating in the multi-party security computing to perform the multi-party security computing by the other computing nodes based on the collected computing parameters sent by each computing node participating in the multi-party security computing; And creating an audit log corresponding to the calculation parameter; Wherein the audit log records description information related to the calculation parameter.

A method of creating micro-segmentation policies for a network is provided. The method identifies a set of network nodes as seed nodes. The method monitors network packet traffic flows for the seed nodes to collect traffic flow information. The method identifies a set of related nodes for the set of seed nodes based on the collected network flow information. The method analyzes the collected network flow information to identify micro-segmentation policies for the network.

The invention discloses an energy priority node clustering method for a wireless sensor network. The method comprises the following steps that: after network deployment is finished, a base station starts running all nodes in a network by transmitting a broadcast signal; each started node in the network computes own threshold value for becoming a cluster head; the nodes of which rest energy is more than or equal to the average energy of the network and which generate random numbers lower than the threshold values in the network are selected to be the cluster heads; the cluster heads broadcast own cluster head messages to the whole network, and each ordinary node computes own distances away from the cluster heads according to received signal strength after receiving the cluster head messages, and is added into the closest cluster as a cluster member; and the cluster heads allocate time division multiple access (TDMA) timeslots to each cluster member, so that each cluster member performs communication according to the allocated timeslots. By the method provided by the invention, the time to live of the network can be remarkably prolonged, and performance remarkably higher than that of a low energy adaptive clustering hierarchy (LEACH) protocol is ensured.

Techniques for accurate determination of service impact are provided by provisioning network deployed probes with actual business object information related to business entities, such as VPN sites. Such probes are capable of sending a network trap (or alarm) containing actual business information in response to detecting a loss of connectivity. As a result, service impact caused by the loss of connectivity may be determined accurately by simply parsing the contents of a network trap, thus avoiding the complication and inaccuracy of conventional impact analysis.

The invention relates to a network capable of switching a terminal from 3GPP to a wireless local area network (WLAN). The network comprises a 3GPP access network, a WLAN access network and a 3GPP core network, wherein a home location register, a service node, a gateway service node and a terminal management server is also arranged in the 3GPP core network; and a WLAN access gateway is arranged between the WLAN access network and the 3GPP core network. The network has the advantages of realizing seamless switching of services without mobile IP technology, supporting superposed mobile IP technology application, meeting the requirement of EPC network evolution in the future, not changing original equipment of the conventional core network, quickly pushing WLAN and 3GPP fused services, promoting the development of fixed mobile convergence (FMC) services, along with low network design and realization cost and simple realization of terminal equipment.

The invention discloses a distributed gateway, a message processing method and a message processing device based on the distributed gateway, which aim at improving the flexibility and expandability of network deployment, realizing load sharing and traffic optimization, and improving efficiency. The distributed gateway comprises a plurality of network virtualization endpoints (NVE). Each NVE has the same virtual internet protocol (VIP) address and the same virtual media access control (VMAC) address. Each NVE establishes interconnecting tunnels with other NVEs through the IP address of an outer layer tunnel. Each NVE is configured with a routing protocol for releasing a network segment route of a corresponding subnet.

The invention discloses a multicast message forwarding method and a device. The method comprises the following steps: setting a multicast forwarding table consisting of a plurality of multicast forwarding items, wherein, each multicast forwarding item includes a multicast source address, a multicast group address, an upstream VLAN identifier, a downstream VLAN identifier and downstream port information; matching with the multicast forwarding table when receiving the multicast message, and forwarding the multicast message according to the matched multicast forwarding items if the matching is failed; otherwise, discarding the multicast message. The embodiment of the invention can achieve two-level multicast forwarding and three-level multicast forwarding simultaneously in a single stage system, thereby improving the application range and the network deployment flexibility of route exchange equipment.