11162 results about "Network interface" patented technology

A management capability is provided for a virtual computing platform. In one example, this platform allows interconnected physical resources such as processors, memory, network interfaces and storage interfaces to be abstracted and mapped to virtual resources (e.g., virtual mainframes, virtual partitions). Virtual resources contained in a virtual partition can be assembled into virtual servers that execute a guest operating system (e.g., Linux). In one example, the abstraction is unique in that any resource is available to any virtual server regardless of the physical boundaries that separate the resources. For example, any number of physical processors or any amount of physical memory can be used by a virtual server even if these resources span different nodes. A virtual computing platform is provided that allows for the creation, deletion, modification, control (e.g., start, stop, suspend, resume) and status (i.e., events) of the virtual servers which execute on the virtual computing platform and the management capability provides controls for these functions. In a particular example, such a platform allows the number and type of virtual resources consumed by a virtual server to be scaled up or down when the virtual server is running. For instance, an administrator may scale a virtual server manually or may define one or more policies that automatically scale a virtual server. Further, using the management API, a virtual server can monitor itself and can scale itself up or down depending on its need for processing, memory and I / O resources. For example, a virtual server may monitor its CPU utilization and invoke controls through the management API to allocate a new processor for itself when its utilization exceeds a specific threshold. Conversely, a virtual server may scale down its processor count when its utilization falls. Policies can be used to execute one or more management controls. More specifically, a management capability is provided that allows policies to be defined using management object's properties, events and / or method results. A management policy may also incorporate external data (e.g., an external event) in its definition. A policy may be triggered, causing the management server or other computing entity to execute an action. An action may utilize one or more management controls. In addition, an action may access external capabilities such as sending notification e-mail or sending a text message to a telephone paging system. Further, management capability controls may be executed using a discrete transaction referred to as a “job.” A series of management controls may be assembled into a job using one or management interfaces. Errors that occur when a job is executed may cause the job to be rolled back, allowing affected virtual servers to return to their original state.

A conference call facility is described in which one (2a) of a group of communication devices (2a,2b,2c,2d) connected to a low power radio frequency network (9) is able to set up a call to a party external of the network (9) and then selectively add further devices (2a,2b,2c) to the call under the control of the user of the one device (2a). The users of the other devices (2b,2c) are able to enable or disable the selection of their device in a conference call. One or more of the communication devices may be a mobile radio telephone equipped with the necessary network interface (1).

An apparatus for processing digital media signals, comprising a digital processor for controlling the apparatus; a graphic user interface, having a wireless remote control providing a command input to the processor; a network interface for transmitting digital information from the processor to a remote location over a communications network, the information identifying a digital media signal for desired reproduction based, at least in part, on an input received from the remote control; and an output, controlled by, and local to, the processor, for transferring the desired digital media signals for reproduction thereof.

A remote device monitoring system including a host server including at least a processor, system bus, user input interface configured to communicate with a user input device, display interface configured to communicate with a display, network interface configured to communicate with at least one remote device and at least one data storage means including a database, a performance look-up table and at least one analyzer module including program instructions that, when implemented by the processor, receive at least one performance parameter value from at least one remote device and query the performance look-up table.

A network-infrastructure cache ("NI Cache") transparently provides proxy file services to a plurality of client workstations concurrently requesting access to file data stored on a server. The NI Cache includes a network interface that connects to a digital computer network. A file-request service-module of the NI Cache receives and responds to network-file-services-protocol requests from workstations through the network interface. A cache, also included in the NI Cache, stores data that is transmitted back to the workstations. A file-request generation-module, also included in the NI Cache, transmits requests for data to the server, and receives responses from the server that include data missing from the cache.

A data collection module including an illumination assembly and an imaging assembly, a processor configured to operate the illumination and imaging assemblies, at least one network interface configured to communicate with a terminal module, at least one power supply and a terminal module interface configured to communicate with a terminal module when the data collection module is mated with the terminal module.

An Internet appliance, comprising, within a single housing, packet data network interfaces, adapted for communicating with the Internet and a local area network, at least one data interface selected from the group consisting of a universal serial bus, an IEEE-1394 interface, a voice telephony interface, an audio program interface, a video program interface, an audiovisual program interface, a camera interface, a physical security system interface, a wireless networking interface; a device control interface, smart home interface, an environmental sensing interface, and an environmental control interface, and a processor, for controlling a data transfer between the local area network and the Internet, and defining a markup language interface communicated through a packet data network interface, to control a data transfer or control a remote device.

A disclosed cashless instrument transaction clearinghouse provides clearinghouse server including a network interface allowing the cashless instrument transaction clearinghouse to communicate with a number of gaming properties and a processor configured to enable the validation of cashless instruments at a gaming property different from where the cashless instrument was generated. Methods are provided that allow a plurality of cashless gaming devices located at different gaming properties to communicate with one another via the cashless instrument transaction clearinghouse in a secure manner using symmetric and asymmetric encryption techniques. Further, to reduce the possibilities of theft and fraud, the methods allow a receiver of a message to authenticate an identity of a sender of a message.

A method and apparatus for obtaining information about an object through interaction between a mobile station (MS) and a computer network such as the Internet, and communicating the information to the MS. A digital camera obtains an image of an object, such as a geographic region proximate the MS, which is then transmitted through the mobile communications system to the computer network. A converter server such as an Optical Character Reader (OCR) server interfaced with the global computer network converts the digital image to a text format which is then compared, along with a general location identifier of the MS to geographic data stored in a location database connected to the global computer network. Based on a comparison of the converted text data and the general location identifier of the MS to the geographic data stored in the location server, a precise location of the MS is determined and transmitted to the MS.

A seamless solution transparently addresses the characteristics of nomadic systems, and enables existing network applications to run reliably in mobile environments. A Mobility Management Server coupled to the mobile network maintains the state of each of any number of Mobile End Systems and handles the complex session management required to maintain persistent connections to the network and to other peer processes. If a Mobile End System becomes unreachable, suspends, or changes network address (e.g., due to roaming from one network interconnect to another), the Mobility Management Server maintains the connection to the associated peer task—allowing the Mobile End System to maintain a continuous connection even though it may temporarily lose contact with its network medium. An interface-based listener uses network point of attachment information supplied by a network interface to determine roaming conditions and to efficiently reestablish connection upon roaming. The Mobility Management Server can distribute lists to Mobile End Systems specifying how to contact it over disjoint networks.

For disaster recovery of a file server at an active site, the files that define the user environment of the file server are replicated to a virtual server at a disaster recovery site. To switch over user access from the active site to the disaster recovery site, the disaster recovery system determines whether there are sufficient network interfaces and file system mounts at the disaster recovery site. If so, the required resources are reserved, and user access is switched over. If not, an operator is given a list of missing resources or discrepancies, and a choice of termination or forced failover. Interruptions during the failover can be avoided by maintaining a copy of user mappings and a copy of session information at the disaster recovery site, and keeping alive client-server connections and re-directing client requests from the active site to the disaster recovery site.

A method of context-based communication of physiological information over a network includes receiving physiological information, preparing a contextual data package, establishing a network connection, and communicating the contextual data package. The physiological information is received with a portable network interface module from at least one physiological monitor coupled to a single medical patient. The physiological information is related to a physiological condition of the medical patient, and the portable network interface module is exclusively assigned to the medical patient. The contextual data package is prepared with the portable network interface module. The contextual data package includes context information related to the medical patient and the physiological information. The network connection is established with a user over a network with the portable network interface module, and the portable network interface module manages the network connection with the user. The contextual data package is communicated to the user over the network with the network connection.

A message generation mechanism for a network interface is provided. The message generation mechanism is operable to generate a message which includes data for signing and authentication procedure instructions. The message is for conveying information to a user device for presentation to a user via a user interface of the user device. The data is arranged in the message in a manner which permits the user device to utilize the data in an automated signing procedure. The automated signing procedure may be a digital signing procedure. The data for signing may be random data, pseudo-random data or secure random data and may be arranged in the message in a manner which avoids presentation to the user.

A system and method for assigning virtual machines to network interfaces. A first virtual machine is assigned to a network interface according to a first rule and a second virtual machine is assigned to a network interface according to a second rule. The assignment rules are dependent on network conditions as determined through at least one of the network interfaces. The first rule and the second rule may specify assignments differently, such that the same network conditions may result in different assignments for the first and second virtual machines.

The present invention is drawn to an apparatus and method for providing secure network communication. Each node or computer on the network has a secure, intelligent network interface with a coprocessor that handles all network communication. The intelligent network interface can be built into a network interface card (NIC) or be a separate box between each machine and the network. The intelligent network interface encrypts outgoing packets and decrypts incoming packets from the network based on a key and algorithm managed by a centralized management console (CMC) on the network. The intelligent network interface can also be configured by the CMC with dynamically distributed code to perform authentication functions, protocol translations, single sign-on functions, multi-level firewall functions, distinguished-name based firewall functions, centralized user management functions, machine diagnostics, proxy functions, fault tolerance functions, centralized patching functions, Web-filtering functions, virus-scanning functions, auditing functions, and gateway intrusion detection functions.

A device and method for providing power line communications via an underground residential distribution power system is provided. One embodiment of the present invention includes a medium voltage interface device that may include a first port configured to communicate over the power line and a network interface. A first amplifier may form part of a first communication path between the first port and the network interface and be configured to amplify data signals transmitted via the first port. In addition, a second amplifier may form part of a second communication path between the first port and the network interface and be configured to amplify data signals received via the first port. In addition, the embodiment may include a diplexer forming part of the first communication path between the first amplifier and the first port and forming part of the second communication path between the second amplifier and the first port. The device may include an electro-optic converter coupled to the network interface to convert between electrical and optic data signals, wherein the network interface is configured to communicate via one or more fiber optic conductors.

A mobile node includes a processor, a network interface, and a storage device having computer program code for execution by the processor. The computer program code includes a network layer for transmitting and receiving packets and an intermediate driver that transmits packets to the network layer and receives packets from the network layer using a virtual internet protocol (IP) address to identify the mobile node. The intermediate driver transmits packets to the network interface and receives packets from the network interface using a routable actual IP address to identify the mobile node. The intermediate driver permits the actual IP address to change when the mobile node moves from a first subnet to a second subnet without a corresponding change in the virtual IP address. A corresponding NAT associates the virtual IP address with a second actual IP address when the NAT is notified that the mobile node is in the second subnet.

A radio device such as a wireless tag reader communicates with multiple types of wireless identification tags in a monitored region. The radio device includes a network interface to receive messages transmitted over a network. In response to receiving a message indicating to reconfigure the radio device to support an additional wireless tag protocol, the radio is reconfigured to support communications with a corresponding new type of wireless identification tag in a monitored region. Based on this technique of reconfiguring the radio device via network messages, the radio device optionally supports additional, new or latest versions of wireless tag protocols without having to physically reprogram or replace the radio device.

A system for enabling a person to person communication from one portable computing device to one or more other portable computing devices based upon physically pointing a portion of one portable computing device in the direction of other portable computing devices. The portable computing devices consist of a CPU, a locative sensor system, an orientation system, and an interface to a distributed network. The distributed network sends and receives data to the portable computing devices. Connected to the distributed network is a User Tracking Application (“UTA”). The User Tracking Application receives location and orientation information from each of the portable computing devices. Based on the location and orientation of the portable computing devices and via control of the users, messages and data may be sent between the devices. The User Tracking Application also allows filtering of groups of users based on particular attributes, such as, age, gender, profession, organizational affiliation, income, etc. The system also allows for the electronic retrieval of crowd demographics. A person with a portable computing device is able to point to a crowd of individuals and information about those individuals with portable computing devices may be retrieved and compiled.

The present invention provides a method and system for providing media services in Voice over IP telephony. A switch is coupled between one or more audio sources and a network interface controller. The switch can be a packet switch or a cell switch.

The invention provides an improved network and methods of operation thereof for use in or with process control systems, computer-based manufacturing or production control systems, environmental control systems, industrial control system, and the like (collectively, “control systems”). Those networks utilize a unique combination of firewalls, intrusion detection systems, intrusion protection devices and / or other devices for hardening (e.g., security against hacking, intrusion or other mischievous conduct) and / or intrusion detection. The networks and methods have application, by way of example, in plants, sites and other facilities in which networks that support control systems interface with corporate, business or other networks.

A call center server architecture supporting service transactions between service customers and service agents who can be either local to or in geographic distributed locations relative to the call center. The call center server architecture includes an inbound voice packetizer providing a PSTN line interface to the call center, a call center server system, coupled to said inbound voice packetizer, that provides for the execution of call center server control applications, and a router, coupled among said inbound voice packetizer, the call center server system, and, through a network interface to any combination of intra- and extranets, to service agent terminal equipment. The call center server control applications dynamically determine the routing and distribution of service requests received from service customers to service agents and are dynamically responsive to determinations of inadequate quality of service for individual communications channels. The call center server control applications provide for the controlled interruption of a predetermined service transaction while establishing a new communications channel having an adequate quality of service.

A distributed network access system in accordance with the present invention includes at least an external processor and a programmable access device. The programmable access device has a message interface coupled to the external processor and first and second network interfaces through which packets are communicated with a network. The programmable access device includes a packet header filter and a forwarding table that is utilized to route packets communicated between the first and second network interfaces. In response to receipt of a series of packets, the packet header filter in the programmable access device identifies messages in the series of messages upon which policy-based services are to be implemented and passes identified messages via the message interface to the external processor for processing. In response to receipt of a message, the external processor invokes service control on the message and may also invoke policy control on the message.

A disclosed cashless instrument transaction clearinghouse includes a network interface allowing the cashless instrument transaction clearinghouse to communicate with a number of gaming properties and a processor configured to enable the validation of cashless instruments at a gaming property different from where the cashless instrument was generated. Methods are provided at the cashless instrument transaction clearinghouse and at the gaming properties that enable cashless instrument transactions across multiple gaming properties including multi-site promotions. In addition, methods are provided at the cashless instrument transaction clearinghouse that allow 1) a transfer of resources from an account at a first gaming property to an account or device at a second gaming property, 2) account information access, 3) generation of cashless transaction threads comprising a plurality of related cashless transaction, 4) awards and services based upon properties of a cashless transaction thread and 5) local resource accounts maintained at the clearinghouse.

A system and method are described whereby a mobile device controls access to mobile applications based on access conditions associated with a current access network. To prevent mobile applications from running when the access conditions are not suitable, the mobile device includes a policy database used to store a list of access conditions that are inappropriate for launching the installed applications. The access conditions are based on the type of the current access network used by the mobile device for launching or maintaining the requested application session. The access conditions indicate whether the mobile device is currently accessing its home network or roaming on another provider's network. Similarly, the access conditions indicate the type of network access interface used by the current network to provide the data connection necessary to run the requested application. The policy database correlates predetermined actions with the access conditions associated with a given application session.

Packet-based central conference bridges, packet-based network interfaces and packet-based terminals are used for voice communications over a packet-based network. Modifications to these apparatuses can reduce the latency and the signal processing requirements while increasing the signal quality within a voice conference as well as point-to-point communications. For instance, by selecting the talkers prior to the decompression of the voice signals, decreases in the latency and increases in signal quality within the voice conference can result due to a possible removal of the decompression and subsequent compression operations in a conference bridge unnecessary in some circumstances. Further, the removal of the jitter buffers within the conference bridges and the moving of the mixing operation to the individual terminals and / or network interfaces are modifications that can cause lower latency and transcoding within the voice conference.

A distributed network access system in accordance with the present invention includes at least an external processor and a programmable access device. The programmable access device has a message interface coupled to the external processor and first and second network interfaces through which packets are communicated with a network The programmable access device includes a packet header filter and a forwarding table that is utilized to route packets communication between the first and second network interfaces. In response to receipt of a series of packets, the packet header filter in the programmable access device identifies messages in the series of messages upon which policy-based services are to be implemented and passes identified messages via the message interface to the external processor for processing. In response to receipt of a message, the external processor invokes service control on the message and may also invoke policy control on the message.

A high speed communications interface divides data into a plurality of lanes, each lane encoded with clocking information, serialized, and sent to an interface. During cycles when there is no available data to send, IDLE_EVEN and IDLE_ODD cells are sent on alternating cycles. Data is transmitted by sending a header which spans all lanes and includes a START symbol. The final data transaction includes a Frame Check Sequence (FCS) which operates over the entire header and data. The packet is terminated by an END symbol, which is sent after the final data, and the remainder of the lanes are padded with IDLE_EVEN, IDLE_ODD, IDLE_EVEN_BUSY, or IDLE_ODD_BUSY cycles. The interface has a variable clock rate.

Criteria-driven methods and a framework are disclosed that facilitate configuration / selection of one or more wireless network interfaces / networks for carrying out wireless communications on a computing device. The wireless network interface selection and coexistence driver architecture described herein facilitates automated selection of a particular mode of network access based upon status information provided by a set of network interface drivers associated with particular network interfaces and wireless technologies. Furthermore, a criteria-driven interface / network selection framework is described that is potentially invoked in a variety of situations including, but not limited to, when an application is invoked or to select another interface / network to avoid detected interference.

Data processing and an accelerator system therefore are described. An embodiment relates generally to a data processing system. In such an embodiment, a bus and an accelerator are coupled to one another. The accelerator has an application function block. The application function block is to process data to provide processed data to storage. A network interface is coupled to obtain the processed data from the storage for transmission.