263 results about "Path network" patented technology

A resolver queries a DNS server for any network addresses associated with the particular domain name. If the resolver detects a response for the DNS server with multiple network addresses for a particular domain name, then the resolver creates and sends a shortest path query to at least one router enabled to receive and respond to shortest path queries. The shortest path query indicates at least one source address and the multiple destination addresses returned by the DNS server for the particular domain name. The router detects a separate length for each path accessible between each source address and each of the multiple destination addresses. The router then orders the destination addresses from shortest path to longest path and returns the ordered destination addresses to the requesting resolver. The resolver caches the ordered network addresses in the local cache in association with the particular domain name, such that for future requests for the particular domain name, the resolver retrieves from local cache the shortest path network address as ordered by the router. In addition, the resolver, responsive to receiving the ordered destination addresses, selects the shortest path network address for a response to an application requesting the resolution of the particular domain name.

An area lighting system is composed of a plurality of lighting elements that are responsive to the movement and progression of a user through the area. Each lighting element comprises at least one light, means for powering the lighting element, a processor, communication means and is associated with a motion sensor. Detection of a user is communicated to other lighting elements that provide an appropriate level of illumination depending on the distance from the user. The lighting elements are substantially self-configurable and may be set for either a radial proximity lighting protocol or a path network lighting protocol.

A system including a storage processing device with an input/output module. The input/output module has port processors to receive and transmit network traffic. The input/output module also has a switch connecting the port processors. Each port processor categorizes the network traffic as fast path network traffic or control path network traffic. The switch routes fast path network traffic from an ingress port processor to a specified egress port processor. The storage processing device also includes a control module to process the control path network traffic received from the ingress port processor. The control module routes processed control path network traffic to the switch for routing to a defined egress port processor. The control module is connected to the input/output module. The input/output module and the control module are configured to interactively support data virtualization, data migration, data journaling, and snapshotting. The distributed control and fast path processors achieve scaling of storage network software. The storage processors provide line-speed processing of storage data using a rich set of storage-optimized hardware acceleration engines. The multi-protocol switching fabric provides a low-latency, protocol-neutral interconnect that integrally links all components with any-to-any non-blocking throughput.

One embodiment of the present invention provides a system for detecting a path between two nodes. During operation, the system transmits a network-testing request frame, which includes a time-to-live (TTL) field within a Transparent Interconnection of Lots of Links (TRILL) header, from a source node to a destination node. In response to receiving a network-testing response frame sent from an intermediate node, the system increments the TTL value by 1 and re-transmits the network-testing frame to the destination node. In response to receiving a network-testing response frame sent from the destination node, the system determines a path between the source node and the destination node. The network-testing request or response frames is not processed on an Internet Protocol (IP) layer.

Methods and apparatuses enabling secure multi-link point to point protocol over connected heterogeneous single path access networks are described. In one embodiment, a method of an access device includes associating the access device with a single-path network and at least one other network, and accessing a data of a service provider through an aggregation server connected to the single-path network and the other network. In one embodiment, the aggregation server transfers the data to the access device at a combined throughput speed of the single-path network and the at least one other network. The method may include maintaining a connection between the access device and the aggregation server even when any one or more of the single-path network and the at least one other network disconnect.

A system including a storage processing device with an input/output module. The input/output module has port processors to receive and transmit network traffic. The input/output module also has a switch connecting the port processors. Each port processor categorizes the network traffic as fast path network traffic or control path network traffic. The switch routes fast path network traffic from an ingress port processor to a specified egress port processor. The storage processing device also includes a control module to process the control path network traffic received from the ingress port processor. The control module routes processed control path network traffic to the switch for routing to a defined egress port processor. The control module is connected to the input/output module. The input/output module and the control module are configured to interactively support data virtualization, data migration, data journaling, and snapshotting. The distributed control and fast path processors achieve scaling of storage network software. The storage processors provide line-speed processing of storage data using a rich set of storage-optimized hardware acceleration engines. The multi-protocol switching fabric provides a low-latency, protocol-neutral interconnect that integrally links all components with any-to-any non-blocking throughput.

Devices, systems, and methods for providing a desired movement of one or more joints of a manipulator arm having a plurality of joints with redundant degrees of freedom while effecting commanded movement of a distal end effector of the manipulator. Methods include defining a constraint, such as a network of paths, within a joint space defined by the one or more joints and determining a movement of the plurality of joints within a null-space to track the constraints with the one or more joints. Methods may further include calculating a reconfiguration movement of the joints and modifying the constraints to coincide with a reconfigured position of the one or more joints. Various configurations for devices and systems utilizing such methods are provided herein.

A system including a storage processing device with an input/output module. The input/output module has port processors to receive and transmit network traffic. The input/output module also has a switch connecting the port processors. Each port processor categorizes the network traffic as fast path network traffic or control path network traffic. The switch routes fast path network traffic from an ingress port processor to a specified egress port processor. The storage processing device also includes a control module to process the control path network traffic received from the ingress port processor. The control module routes processed control path network traffic to the switch for routing to a defined egress port processor. The control module is connected to the input/output module. The input/output module and the control module are configured to interactively support data virtualization, data migration, data journaling, and snapshotting. The distributed control and fast path processors achieve scaling of storage network software. The storage processors provide line-speed processing of storage data using a rich set of storage-optimized hardware acceleration engines. The multi-protocol switching fabric provides a low-latency, protocol-neutral interconnect that integrally links all components with any-to-any non-blocking throughput.

The invention discloses a modeling and optimizing method for AGV dispatching management, and belongs to the technical field of AGV operation dispatching. The objective lies in providing the modeling and optimizing method for AGV dispatching management, and the method not only can achieve no-collision operation, but also can improve the overall operation efficiency of a system through obtaining an optimal path. The method comprises the following steps: 1, carrying out the network modeling of an AGV operation path; 2, storing a path network map; 3, carrying out the binary modeling of a multi-AGV system; 4, carrying out dynamic path optimization of local search. The method is suitable for the dispatching management and path planning optimization of AGV operation in a multi-AVG dispatching management system.

The embodiment of the invention provides a track display method, a track display system and a map server. The track display method comprises: receiving information of at least two track points from a data storage server, wherein the information of the track points comprises the coordinates of the track points and the reporting times of the information of the track points, and the information of the at least two track points is arranged according to the reporting times of the information of the at least two track points; determining the time interval of the reporting times of the information of two adjacent track points; when the time interval is greater than a preset time threshold, performing path analysis according to the coordinates of the two adjacent track points and prestored path network data, so as to acquire at least one group of path coordinate point data; and drawing and displaying the track of a global positioning system (GPS) carrier between two adjacent track points according to the at least one group of path coordinate point data. In the embodiment of the invention, when the GPS fails to report track points normally, the track of the GPS carrier in the part of which the reported track points are missed can be drawn and displayed to display accurate track condition of the GPS carrier.

Network devices coupled via serial and/or parallel interfaces may determine a power level mode of operation according to an energy efficient network communication control policy and may configure one or more of the interfaces for the lower power mode. The network devices may comprise a PHY, a MAC and/or higher layer devices. The interfaces may comprise a XGMII extender, a XAUI and/or a XFI device. The interfaces may comprise a backplane PHY, for example, a 10 GBASE-KR, a 10 GBASE-KX4 and/or a 1 GBASE-KX PHY which may perform FEC. The interfaces may comprise direct attach copper such as SFP+ and/or InfiniBand and/or 10 GBASE-CX4 PHYs. The interfaces may comprise a pluggable transceiver module. Energy efficient network control data may be communicated to and/or from the network devices which may enter and/or exit a lower power mode of operation.

A system and method for sorting of objects that includes a pathway network that has a plurality of pathways and one or more branch points. A fluid composition including one or more objects can be transported through the pathway network, where one or more of the objects are analyzed and sorted at one or more branch points based on the analysis of the objects.

An exceptionally effective SoC design is achieved by the user of wrappers that comprise a functionally reconfigurable module (FRM) that is capable of affecting the operational functionality of the wrapper and that, consequently, is capable of affecting the operational functionality of a designed SoC. One embodiment of a core+wrapper combination comprises distinct input and output cells within the wrapper, and a separate FRM. Another embodiment may embed the input and output cells within the FRM. The FRM may be implemented with, for example, a field programmable logic array (FPLA). An additional advance is realized by providing a number of spare leads in the signal paths network that interconnects the various SoC elements.

The invention relates to a sensor network multi-protocol gateway, which comprises receiving subnet gateways corresponding to front-end sense networks, a front-end sense network management main gateway, and a topology management gateway, wherein the receiving subnet gateways are used for networking through searching different front end structures or protocol network node signals in a multi-protocol network manner so as to establish the front-end sense networks, and realizing communication between the same network nodes through route selection; the front-end sense network management main gateway is respectively connected with the receiving subnet gateways, and is used for distributing routing information for the receiving subnet gateways, and forming a multi-path network for maintaining a routing relation between the receiving subnet gateways so as to establish communication between the front-end sense networks; and the topology management gateway is used for establishing communication between the front-end sense networks and rear-end equipment or network. The gateway realizes the efficacy of data receiving of a multiple network protocol and network routing of a multi-type heterogeneous network, and overcomes the limitation of access capability of the front-end sense networks in the prior art, so that the front-end sense networks are mutually connected and communicated.

The present invention relates to link adaptation in wireless communication, and in particular though not exclusively to wireless local area networks (WLAN). The present invention provides a link adaptation system for communication systems using multiple but separate transmission parameter options. This equates to a “double list” approach compared with the known “single list” approach. The data can be transmitted according to two or more series of predetermined transmission modes, each mode series having a common base transmission parameter such as its space time coding, and one or more rate transmission parameters such as modulation or channel coding rate. Examples of different space time coding include a more robust Alamouti ST code and a spatial multiplexing code such as BLAST. The base and rate transmission parameters can be changed independent of each other thus providing a “2D” adaptation path network of up-rating and down-rating paths. This arrangement provides great flexibility because no explicit, reliable or continuous estimation of certain channel parameters is needed (e.g. on SNR, interference, channel correlation, factors that can vary with time and is difficult to reliably estimate).

A method and device for carrying out travel route planning for a vehicle, in which schedule data are transmitted to a calculation unit, which is coupled to a data memory, in which data relating to a path network for the vehicle and data relating to the geographic positions of energy supply facilities are stored. The calculation unit checks if a route sequence which connects the geographic positions of the destinations associated with the schedule data is calculable such that the destinations are reached at the associated time data of the schedule data, wherein the prognosticated residual energy amount in the energy store of the vehicle for travelling the route sequence is determined and taken into account, if no such route sequence is calculable using the calculation unit, the latter determines matched schedule data for which such a route sequence is calculable, and the matched schedule data are output.

A system including a storage processing device with an input/output module. The input/output module has port processors to receive and transmit network traffic. The input/output module also has a switch connecting the port processors. Each port processor categorizes the network traffic as fast path network traffic or control path network traffic. The switch routes fast path network traffic from an ingress port processor to a specified egress port processor. The storage processing device also includes a control module to process the control path network traffic received from the ingress port processor. The control module routes processed control path network traffic to the switch for routing to a defined egress port processor. The control module is connected to the input/output module. The input/output module and the control module are configured to interactively support data virtualization, data migration, data journaling, and snapshotting. The distributed control and fast path processors achieve scaling of storage network software. The storage processors provide line-speed processing of storage data using a rich set of storage-optimized hardware acceleration engines. The multi-protocol switching fabric provides a low-latency, protocol-neutral interconnect that integrally links all components with any-to-any non-blocking throughput.

Systems and devices are disclosed for enabling communication by and between meters and networks are disclosed. In one embodiment, a device includes: a network interface controller configured to be directly coupled to a meter socket and provide a communication path between a utility meter and at least one network, the network interface controller including: a computing device; and at least one communications interface coupled to the computing device, the at least one communications interface configured to be physically located within a meter socket housing.

The invention provides an indoor navigation method and system taking into consideration obstacles and subspace partitioning. The method comprises the following steps: acquiring an indoor simplified diagram of a target area by processing an original indoor diagram of the target area according to the indoor layout of obstacles and non-obstacles in the target area; constructing an irregular triangular network model by performing Delaunay triangulation on an indoor space with obstacles in the indoor simplified diagram; constructing an indoor path network diagram by selecting feature points of each triangle in the irregular triangular network model; optimizing the indoor path network diagram according to preset restrictive conditions; and calculating the shortest path between a preset starting point and an end point in the optimized indoor path network diagram by utilizing a Dijkstra algorithm. According to the method provided by the invention, the searching of the shortest path taking the obstacles into consideration is realized, the generated path does not pass through the obstacles and does not bend, irregular objects in a concave space can be treated, and the non-visible situation can be effectively treated.

The invention concerns a process for updating map data of a navigation system in a vehicle, wherein the navigation system includes a digital map of a road and path network as well as a digital supplemental map, wherein in the digital supplemental map data supplemental to the road and path network are stored. The process includes the steps: a) producing differential data for an updated digital map, using the digital map, b) replacing the digital map in the vehicle with the updated digital map, c) updating the digital supplemental map in the vehicle using the differential data.

The invention provides a management system solving the problems of the storage area network shared among plural devices, which was incapable of guaranteeing communication performances due to varied response time, and which required unstable time for accessing volumes.

The storage area network management system comprises plural information processing devices 21, plural storage devices 41, a network with plural network equipments 31 to which is configured a network bandwidth used for communication between information processing devices 21 and storage devices 41, and a management device 1, wherein management device 1 comprises a data storage device 10 for storing a connection structure information and a performance information of paths of the network equipments 31 and a performance information and a capacity information of storage devices 41, and a storage selection means 13 for selecting a storage device 41 for allocating a volume to information processing device 21, and upon allocating a volume to information processing device 21, storage selection means 13 selects, based on the information stored in data storage device 10, storage device 41 fulfilling the performance and the volume capacity required by information processing device 21 and also having on its path network equipment 31 to which is configured the network bandwidth required for the communication with information processing device 21.

A path network and a path network operation method capable of dealing with an abrupt traffic variation by realizing fast path bandwidth increase are disclosed. A path network is operated by transmitting path signals from a transmitting node to a receiving node through the working paths and the protection paths, and converting a protection path into a working path temporarily in order to increase a bandwidth of the working paths when a bandwidth increase request occurs in the path network. The transmitting node and the receiving node can convert a protection path into a working path by using the automatic path conversion information contained in the path overhead attached to the path signals.

Systems, apparatuses, and methods are provided for developing a fingerprint database and selecting feature geometries for determining the geographic location of a device. A device collects a depth map at a location in a path network. Two-dimensional feature geometries from the depth map are extracted using a processor of the device. The extracted feature geometries are ranked to provide ranking values for the extracted feature geometries. A portion of the extracted feature geometries are selected based upon the ranking values and a geographic distribution of the extracted feature geometries.