1558 results about "Network processing" patented technology

Flow-aware task distribution in network devices having multiple processor architectures. In one embodiment, the present invention can be used for high bandwidth network processing in an application and flow aware Quality of Service (QoS) network device. In some implementations, the present invention provides a task distribution architecture capable of flow state awareness and link level QoS control. In some implementations, the present invention can incorporate one or more processes, such as flow distributors and device distributors, that route packets for processing among different processing units on the basis flow correspondence and/or link or network path attributes. The flow and device distributors, in one implementation, allow for the separation and paralletization of packet processing functionality into flow-specific and link-specific processing units, allowing for a highly-scalable, flow-aware task distribution in a network device that processes network application traffic.

A method and apparatus of integrating the IEEE 1394 protocol with the IP protocol in which the IEEE 1394 high speed serial bus operates as the physical and link layer medium and the IP operates as the transport layer. There are differences in the protocols which require special consideration when integrating the two protocols. The IEEE 1394 configures packets with memory information and the IP operates under channel based I/O thereby necessitating a modification of the data transfer scheme to accomplish IP transfers over the IEEE 1394. Further, due to differences in packet headers, the IEEE 1394 packet header is modified to encapsulate IP packets. Moreover, in order to determine network packets quickly and efficiently, an identifier is inserted in each network packet header indicating that the packet should be processed by the network. Finally, in order to support the ability to insert or remove nodes on the network without a loss of data, the IP interface must not be disturbed. This is accomplished by maintaining constant IP addresses across bus resets which are caused by insertion or removal of nodes from the network.

A network processing device provides a novel architecture for conducting firewall and other network interface management operations. In another aspect of the invention, a Unified Policy Management (UPM) architecture uses a same memory and processing structure to integrate firewall policy management with routing and switching decisions. In another embodiment, a Reconfigurable Semantic Processor (RSP) uses a parser to identify different syntactic elements that are then used by one or more Semantic Processing Units (SPUs) to carry out different firewall, network interface, routing, switching, and other packet processing operations.

A system for processing data requests from clients via a network is disclosed. The system has an application server coupled to a network, and a semantic firewall to pass and filter the content between the application server and the clients. The application server provides content from a database to the clients via the network, and the semantic firewall restricts access to a portion of the content for one or more clients.

Apparatus and methods for efficient synaptic update in a network such as a spiking neural network. In one embodiment, the post-synaptic updates, in response to generation of a post-synaptic pulse by a post-synaptic unit, are delayed until a subsequent pre-synaptic pulse is received by the unit. Pre-synaptic updates are performed first following by the post-synaptic update, thus ensuring synaptic connection status is up-to-date. The delay update mechanism is used in conjunction with system “flush” events in order to ensure accurate network operation, and prevent loss of information under a variety of pre-synaptic and post-synaptic unit firing rates. A large network partition mechanism is used in one variant with network processing apparatus in order to enable processing of network signals in a limited functionality embedded hardware environment.

A distributed computing environment in which agent processes direct their own movement through a computer network. Place processes provide a computing context within which agent processes are interpreted. An agent process controls its movement from one place process to another within the network by using a ticket. An agent process which moves from one place process to another transports definitions of classes of which objects included in the agent process are members. An agent process which moves from one place process to a second place process avoids unnecessary transportation of objects included in the agent process by substituting equivalent objects which are found in the second place process. An agent process sends clones of the agent process to several place processes simultaneously. If two clones travel along paths which are coextensive for an initial portion thereof, a single clone is transported along the initial portion of the paths and other clones are formed from the single clone, thereby avoiding transferring redundant information along communications media. Two agent processes, which occupy a single place process, interact by exchanging references to one another. The single place process ensures that neither agent process receives a reference to the other agent process without simultaneously giving to the other agent process a reference to the former agent process. Unauthorized or inadvertent excessive use of network resources by an agent process, or a place process, is prevented by associating with each process a permit which defines various capabilities and resource allowances of the process.

Disclosed is a system and methods for accelerating network protocol processing for devices configured to process network traffic at relatively high data rates. The system incorporates a hardware-accelerated protocol processing module that handles steady state network traffic and a software-based processing module that handles infrequent and exception cases in network traffic processing.

The solution described herein provides systems and methods for the interoperability of network processing programs that process network packets at different levels of the network stack. This solution bridges the communications of a network packet between a first network processing program operating at a first level of a network stack in an intermediary and a second network processing program operating at a second level of the network stack of the intermediary. The first network processing program may modify an incoming network packet so that the packet may traverse the network stack to an upper level of the stack to the second network processing program. After processing the network packet at the upper layers of the stack or by the second network processing program, the first network processing program modifies the network pack in order to transmit the packet to the intended destination while traversing the intermediary.

A point of sale (POS) device may be configured to locate a payment system and transmit a payment authorization request from a remote location to a payment system, either directly, or via a payment system directory and/or a SSL Gateway. The invention also includes inserting third party account information into an encrypted portion of the payment request, so the payment request appears as a normal request to the issuing bank, but the third party account information may be used by the third party to bill the customer. The payment system directory is further configured to determine one or more payment processors to direct a payment authorization request, such that a single transaction may me allocated among multiple payment processors for authorization. Moreover, the payment system directory is able to format alternative payment methods into a format that is able to be processed over existing payment networks.

A network processing device calculates variable link metrics and then prioritizes selection of network links for sending packets according to the calculated variable link metrics. The variable link metrics can include a link capacity index that represents a combination of platform and interface capabilities for nodes on opposite ends of the network links. The link metrics can also include an expected retransmission value that indicates the percentage of packets that may have to be transmitted over different links.

A method for managing a service is disclosed. A program system running on a computer system in a network data processing system identifies the service on the computer system and a set of resources used by the service. The program system collects information about the service and the set of resources used by the service. The program system uses the information collected to identify a change to a configuration for the service which will increase performance of the service. The program system then makes the identified change to the configuration for the service.

A network processing apparatus is provided. A send buffer receives from a protocol stack a long packet with a data length exceeding a maximum transmission unit defined for a network and stores the long packet. A payload dividing unit divides the payload of the long packet into a plurality of divided payloads. A header duplicating unit duplicates the header of the long packet so as to generate a duplicated header for the respective divided payload. A short packet generating unit attaches the duplicated header to the respective divided payload so as to generate a short packet with a data length equal to or less than the maximum transmission unit to be sent to the network. A sending unit sends the short packet to the network via a physical interface.

A service mediation framework may allow each component within a computer network to perform common service processing tasks driven by standardized service policies stored within a centralized repository. In particular, an enhanced service domain name system (DNS) server, an enhanced service router, and/or an enhanced service gateway within the network may each access relevant service policies stored within an enhanced service repository to implement tasks such as security, content-based routing, logging, message format translation, and protocol bridging for each service request processed by the network. In addition, each network component may communicate through standardized formats, such as Extensible Markup Language (XML), to realize the end-to-end network solution.

The various embodiments herein provide a system for a secure electronic transaction. The system comprises a dongle connected to a computing device for reading an electronic card data, a client application running on the client device for collecting a transaction information from a customer, a service provider system connected to the computing device through a first communication network for transmitting the collected transaction information and the audio signal from the computing device to the service provider system, a production server located at the service provider system for processing the received card data, a payment server for processing the audio signal, a second communication network for transmitting a processed card data from the production server to a payment system and a payment gateway running on the payment system for interfacing with the service provider system. The payment system performs the financial transaction by authenticating the customer and a merchant.

The invention discloses an object contour extraction method based on mask-RCNN. The method comprises the steps: firstly obtaining a mask-RCNN model through trianing, inputting the RGB image under object contour extraction into mask-RCNN model for semantic segmentation, obtaining the corresponding binary mask image of the RGB image through processing of the mask-RCNN network, and inputting the RGBimage and the corresponding binary mask image into a contour refinement module. A contour feature description method is proposed to accurately represent the direction and angle information of the object contour, and the binary mask image contour obtained based on mask-RCNN is modified adaptively through the contour correction algorithm, and finally real-time accurate extraction of the image instance contour is realized under the condition of low image quality, low resolution, blurred object and low time and space complexity.

A method and system is provided for tracking mobile devices combining packet processing technology with Global Positioning System (GPS) technology. A central network system comprising a packet processing subsystem receives transmitted GPS location data from a mobile device transmitting GPS location data, wherein the packet processing subsystem uses a table access scheme to process the GPS location data and produce responsive mapping data, and the central network processing system compares the mapping data to a map and identifies a corresponding map location. Embodiments may also correlate device identification data, tracking table entries, and/or billing zone charges. In some embodiments a look-up key is built responsive to the GPS location data and used to identify map locations. The table access scheme may be a key hashing scheme and, in particular, a longest prefix match type scheme.