678 results about "Global network" patented technology

An in-vehicle device data communicates with global network based data processing resources for the purpose of transacting e-commerce and e-business. The in-vehicle device and the global network based data processing resources can effectuate a wide variety of e-commerce and e-business including accessing auto part databases, warranty, customer, and other remote databases. In addition, e-commerce and e-business transactions can include vehicle security and vehicle service management, data communicating Internet based radio, audio, MP3, MPEG, video, and other types of data. Furthermore, e-commerce and e-business transactions can include interactive advertising, promotional offers, coupons, and supporting other remote data communications.

Furthermore, the in-vehicle device can also effectuate remote monitoring of vehicle performance, data communicating and accessing remote global network based content and data, and effectuating adjustments and control of vehicle operation. Remote monitoring and control of vehicle operation can be by way of a global network based data processing resources.

An orientation and position tracking system and method in three-dimensional space and over a period of time utilizing multiple inertial and other sensors for determining motion parameters to measure orientation and position of a moveable object. The sensors, for example vibrational and angular velocity sensors, generate signals characterizing the motion of the moveable object. The information is received by a data acquisition system and processed by a microcontroller. The data is then transmitted to an external data reception system (locally based or a global network), preferably via wireless communication. The information can then be displayed and presented to the user through a variety of means including audio, visual, and tactile. According to various embodiments, the present invention provides for a motion tracking apparatus and method for implementation in motion systems including systems to teach motion to a group and for body motion capture and analysis systems.

An orientation and position tracking system in three-dimensional space and over a period of time utilizing multiple inertial and other sensors for determining motion parameters to measure orientation and position of a moveable object. The sensors, for example vibrational and angular velocity sensors, generate signals characterizing the motion of the moveable object. The information is received by a data acquisition system and processed by a microcontroller. The data is then transmitted via wireless communication to an external data reception system (locally based or a global network). The information can then be displayed and presented to the user through a variety of means including audio, visual, and tactile.

The present invention relates to a global network based vehicle safety and security system and method. In this regard, a global network based data processing resource can wirelessly data communicate with an in-vehicle device to control and monitor vehicle safety and security. In addition, data communicated between the vehicle and global network based data processing resources can control, monitor, and track the vehicle as well as data communicate command and control functions, such as disabling vehicle operation. Furthermore, alarm and alerting functions can effectuate the notification of other data processing resources and or other agency or emergency resources.

Vehicle and in-vehicle device data, including safety and security data gathered at data processing resources can be utilized to effectuate a wide variety of data dissemination. Such data dissemination can include warning, alarm, safety, or security determinations, and or other reporting or analysis related to vehicle safety and or security.

A packet forwarding method for optimizing packet traffic flow across communications networks and simplifying network management. The invention provides look-up-free and packet-layer-protocol transparent forwarding of multi-protocol packet traffic among Layer-N (N=2 or upper in the ISO OSI model) nodes. The invention enables flexible and efficient packet multicast and anycast capabilities along with real-time dynamic load balancing and fast packet-level traffic protection rerouting. Applications include fast and efficient packet traffic forwarding across administrative domains of Internet, such as an ISP's backbone or an enterprise virtual private network, as well as passing packet traffic over a neutral Internet exchange facility between different administrative domains.

A teleconferencing system is disclosed that enables patient and physician teleconferencing stations (100) to communicate over a global network (104), wherein the teleconferencing stations include access to a database of electronic medical records (110). The system includes means for instant text messaging (130), audio/video conferencing (142), and secure e-mail exchange (146). The patient and physician have differential access to the electronic medical records, such that the electronic medical records can be updated. The physician station includes means for capturing image data received from the patient station and storing the captured image data into a medical record. In the preferred embodiment the system is able to teleconference more than two stations at a time. In the preferred embodiment, the physician station includes means for entering a prescription (310) and for entering hospital orders (304).

The present invention provides a communication network system in which communication can be securely performed via a global network from an existing terminal apparatus to an existing device connected to a local network without needing a special gateway function in a router and without performing a special setting in the router. In the communication network system (10), a communication relay client (202) performs polling on a management center network (1) via a NAT router (204); a communication relay server (102) converts a packet transmitted from a management terminal (101); and the communication relay client (202) receives the converted packet as a response to the polling via the NAT router (204) from the side of the management center network (1). The communication relay client (202) converts the converted packet to the original packet, and transmits the original packet to a device to be managed (201).

An information handling system is provided. The information handling system includes a plurality of core devices coupled to each other and to a plurality of distribution devices and a plurality of top-of-rack devices coupled to a plurality of servers and to the distribution devices. The plurality of servers are running hypervisors thereon that each manage a virtual switch and a plurality of virtual machines (VMs). The information handling system further includes a plurality of local network address resolution mediators, with each local network address resolution mediator running on one of the plurality of servers and receiving packets from VMs running thereon, and a global network address resolution mediator running on one of the plurality of core devices. The global network address resolution mediator is in communication with each of the plurality of local network address resolution mediators to collect and distribute packets from the plurality of VMs.

The invention discloses a distributed network control method. A plurality of controller nodes form a distributed controller network, and each controller node manages one or more pieces of switch equipment. The method comprises the following steps that: the controller node receives information reported by a switch, synchronizes network topology change information in the information among all the controller nodes, and stores host position information in the information into a distributed control network; and when receiving a data stream processing request, the controller node queries the destination address information of a data stream from the distributed controller network, and establishes a data exchange path for the data stream according to locally stored global network topology information. The invention also provides a distributed network control device. According to the technical scheme, the problem of performance bottleneck of a network controller can be solved.

A method and apparatus supporting a discovery technique of multiple available networks is disclosed. A global network neighborhood data depository contains attributes of multiple networks that are available in a geographic region. The attributes aid in network discovery and selection of an optimum network for communication for devices capable of communicating via multiple networks.

The present invention is a system and method for integrated operation, provision of user services, and management and control, for a publicly accessible global network. The global network has one or more horizontal levels for the provision of user services, network operation, overall management and control in a vertical hierarchy, and one or more horizontal levels of data management, including data capture, processing, analysis, reporting, etc. The system further includes Universal Software which integrates the functionalities of various software platforms into one unified integrated software. The system incorporates a plurality of components for connecting any user directly to applications, and enterprise sites and consumer sites for connecting users via the global network directly to other networks, data bases and computer devices, of emergency services personnel/agencies, for performing simultaneously mathematical formulae, algorithms or procedures, and for displaying and updating advertisements appearing at specific points in a software operation.

The invention relates to a system and a method for realizing automatic network failure analysis based on SDN technology. The system comprises one SDN controller and multiple SDN switches. The SDN controller realizes real-time detection and cycle detection of each link in network topology, and monitors states of the SDN switches in real time and maintains the global network topology. The SDN controller comprises an OpenFlow module, an OpenFlow extension module, an event module, a topology module and a detection module. The detection module comprises a real-time detection module and a cycle detection module. With the system and the method, the whole network can be monitored, and network failure analysis is realized.

An in-band OTDR uses a network's communication protocols to perform OTDR testing on a link. Because the OTDR signal (probe pulse) is handled like a data signal, the time required for OTDR testing is typically about the same as the time required for other global network events, and is not considered an interruption of service to users. A network equipment includes an optical time domain reflectometry (OTDR) transmitter and receiver, each operationally connected to a link to transmit and receive, respectively, an OTDR signal. When an OTDR is to be performed, a network device operationally connected to the link actuates the OTDR transmitter to transmit the OTDR signal on the link during a determined test time based on a communications protocol of the link, during which data signals are not transmitted to the network equipment. A processing system processes the OTDR signal to provide OTDR test results.

Methods, apparatus, and programming recorded in machine readable memory are provided for the index, search and retrieval of objects on a global network. This inventive system embeds a distributed index in a routing layer to enable fast search. The method provides dynamic insertion, lookup, retrieval, and deletion of participating nodes, objects and associated metadata in a completely decentralized fashion. Nodes can dynamically join and leave the network. This infrastructure can be applied to content networks for publishing, searching, downloading, and streaming.

This invention generally relates to one or more computer networks having computers like personal computers or network servers with microprocessors linked by broadband transmission means and having hardware, software, firmware, and other means such that at least one parallel processing operation occurs that involve at least two computers in the network. More particularly, this invention relates to one or more large networks composed of smaller networks and large numbers of computers connected, like the Internet, wherein more than one separate parallel processing operation involving more than one different set of computers occurs simultaneously and wherein ongoing processing linkages can be established between virtually any microprocessors of separate computers connected to the network. Still more particularly, this invention relates to business arrangements enabling the shared used of network microprocessors for parallel and other processing, wherein personal computer owners provide microprocessor processing power to a network, preferably for parallel processing, in exchange for network linkage to other personal and other computers supplied by network providers, including linkage to other microprocessors for parallel or other processing; the basis of the exchange between owners and providers being whatever terms to which the parties agree, subject to governing laws, regulations, or rules, including payment from either party to the other based on periodic measurement of net use or provision of processing power.

According to one embodiment, when having received first communication data addressed to a machine migrated to a second network address port translation module, a first network address port translation module translates a destination network address in the first communication data into a global address of the second network address port translation module. The first network address port translation module transfers the translated first communication data as second communication data to the second network address port translation module. When having received the second communication data transferred by the first network address port translation module, the second network address port translation module transmits third communication data addressed to the machine corresponding to the second communication data to the machine.

Medium-range and global network information and control for a vehicle is achieved with a portable wireless key fob, a user-provided nomadic device, and a vehicle-installed telematics unit including a medium-range RF transceiver and a wireless network transceiver. The fob includes a medium-range RF transceiver for bi-directional communication with the telematics unit, and a short-range wireless transceiver for bi-directional communication with the nomadic device. The fob communicates with the telematics unit in a conventional manner, and also relays information between the telematics unit and the nomadic device. If a communication initiated via the fob cannot be completed because the fob is out of range, the communication is sent to the nomadic device for network transmission to the telematics unit. If a communication initiated via the nomadic device cannot be completed due to inadequate signal reception, the communication is sent to the fob for RF transmission to the telematics unit.

A computer simulation method is provided for modeling the behavioral expression of one or more agents in an environment to be simulated, then running a simulation of the modeled agent(s) against real-world information as input data reflecting changing conditions of the environment being simulated, and obtaining an output based on the modeled agent(s) response(s). The simulation method models the underlying cultural, social, and behavioral characteristics on which agent behaviors and actions are based, rather than modeling fixed rules for the agent's actions. The input data driving the simulation are constituted by real-world information reflecting the changing conditions of the environment being simulated, rather than an artificial set of predefined initial conditions which do not change over time. As a result, the simulation output of the modeled agent's responses to the input information can indicate more accurately how that type of participant in the simulated environment might respond under real-world conditions. Simulations can be run on global networks for agent types of different cultures, societies, and behaviors, with global sources of information. Simulation environments can include problems and situations in a wide range of human activity. Robust new visual tools are provided for discerning patterns and trends in the simulation data, including waveform charts, star charts, grid charts, and pole chart series.

A wireless medical room control arrangement includes a wireless controller having a wireless router. A room identifier and a device identifier are stored in the controller. A communication interface sends commands to and receives commands from the wireless controller. In response to commands from the interface, the wireless controller sends wireless control signals to operate medical devices in the room. A room monitor adjacent a doorway provides room identifiers to medical devices and wireless controllers entering the room and provides dummy identifiers to medical devices and controllers exiting the room. The room monitors may connect to a global network processor that determines the location of the medical devices in a medical facility.

A system and method are shown for load balancing across global network resources using an existing network protocol, such as Mobile IP, having a redirect feature. According to one method, each of a plurality of servers at a data center uses Mobile IP to obtain an IP address that is also provided to a content server site. Further, a content server site includes a plurality of IP addresses assigned to the plurality of servers and creates a load database including load data for each server. When a client request is received at the content server site from a client device, the content server site determines a network address of a server to process the client request based on the load data, and provides the network address of the server to the client device. When the client device receives the network address of the server, the client device sends an application request to the selected server, and the selected server sends an application response to the client device.