30 results about "Message passing architecture" patented technology

A computer implemented system and method that ties in complex calendar event relationships, which provides the user with a context as to how the task needs to be completed and how it relates to larger initiatives. The system and method supports next to real time notification methods using a peer-to-peer (p2p) messaging architecture. As Calendar Events or Tasks are manipulated in the Work Management System, all scheduling clients can automatically adjust their events to reflect the changes. The present invention can also implement an Urgency Factor for tasks which can help visualize to the user which tasks need more immediate action from Work Management. The present invention can also provide a First Available function that not only finds the first available date that a task can be worked but also takes into consideration the resource's work hours, workdays and skill set via the work group that they have been assigned.

The event-driven queuing system and method (“EDQS”) comprises at least one each of a client, supervisor, and worker, together with network communications between each client and supervisor and between each supervisor and worker, and a component selected from the group comprising EDQS messaging architecture, EDQS job routing, EDQS event / callback architecture, EDQS job type data architecture, and the EDQS domain specific language. The EDQS typically provides arithmetical increases in dispatch time as jobs and workers are added to a farm, substantial improvements in processing jobs based on the status of one or more other jobs in a process group, and substantial improvements in the use of standalone or clustered heterogeneous platforms in a farm.

A system and method are described for remotely debugging an application server. In one embodiment, a plurality of application servers are organized into groups referred to as “instances.” Each instance may include a group of redundant application servers, one or more debug nodes, and a dispatcher. The dispatcher distributes service requests to each of the application servers in accordance with a load-balancing mechanism. In addition, a central message passing architecture is defined which allows the various instances to communicate with one another. In one embodiment, a debug node is isolated from the load-balancing mechanism. The debug node may also be isolated from the central message passing architecture. A remote node may then debug an application on the debug node, without disrupting processes executing on other application servers in the instance.

A method, system, and computer-program product for communicating within a messaging architecture using a structured data object are disclosed. The method includes identifying a structured data object configured to represent structured data, receiving the structured data at a messaging system, generating a message that includes the structured data, and sending the message. The structured data object is configured to be accessed by an application and the messaging system, and includes a request element and a response element. The sending includes transferring the message via the messaging system.

A system and method are described for remotely debugging an application server. In one embodiment, a plurality of application servers are organized into groups referred to as “instances.” Each instance may include a group of redundant application servers, one or more debug nodes, and a dispatcher. The dispatcher distributes service requests to each of the application servers in accordance with a load-balancing mechanism. In addition, a central message passing architecture is defined which allows the various instances to communicate with one another. In one embodiment, a debug node is isolated from the load-balancing mechanism. The debug node may also be isolated from the central message passing architecture. A remote node may then debug an application on the debug node, without disrupting processes executing on other application servers in the instance.

A method, system, and computer-program product for communicating within a messaging architecture using a structured data object are disclosed. The method includes receiving an execution-enabled object and receiving a selection of the execution-enabled element. Such an execution-enabled object is configured to be included in a message sent by a messaging system. The execution-enabled object includes a response element and an execution-enabled element. The response element and the execution-enabled element are associated with one another. The execution-enabled element is configured to post an event to the messaging system upon the execution-enabled element being activated. The selection of the execution-enabled element activates the execution-enabled element.

A system for invoking a service includes an invoking entity and a network entity such as a service provider. The invoking entity can send a service invocation request to effectuate invocation of a service. The service invocation request is formatted and sent in accordance with a given messaging architecture (e.g., SOAP). The network entity is capable of receiving the service invocation request, such as to invoke the requested service. The network entity can also send a response to the service invocation request, although the response is sent across a SIP architecture. Similar to the service invocation request, the response includes a payload formatted in accordance with the given messaging architecture. Thus, although the network entity can send a response across a SIP architecture, the invoking entity sends the service invocation request independent of the SIP architecture.

A system and method are described for remotely debugging an application server. In one embodiment, a plurality of application servers are organized into groups referred to as “instances.” Each instance may include a group of redundant application servers, one or more debug nodes, and a dispatcher. The dispatcher distributes service requests to each of the application servers in accordance with a load-balancing mechanism. In addition, a central message passing architecture is defined which allows the various instances to communicate with one another. In one embodiment, a debug node is isolated from the load-balancing mechanism. The debug node may also be isolated from the central message passing architecture. A remote node may then debug an application on the debug node, without disrupting processes executing on other application servers in the instance.

A system and method are described for managing a plurality of application servers. In one embodiment, the application servers are organized into groups referred to as “instances.” Each instance includes a group of redundant application servers and a dispatcher for distributing service requests to each of the application servers. In addition, a central message passing architecture is defined which allows the various instances to communicate with one another. In one embodiment, a hierarchical configuration data object is stored within a database and is centrally accessible by all of the servers from all of the instances. The hierarchical configuration data object organizes stores binary data (e.g., *.jar files) within a common binary directory and series of sub-directories, thereby simplifying application server management in an enterprise network.

A method, system, and computer-program product for communicating within a messaging architecture using a structured data object are disclosed. The method includes assembling a dynamic form object and submitting dynamic form information, associated with the dynamic form object, into a messaging session. The assembling includes an assembly operation, which, in turn, includes identifying an input field of an interface of an application, transferring input field information to a messaging system, and generating an element of the dynamic form object. The input field information is associated with the input field, and the generating uses the input field information. Further, the submitting includes transferring a message via the messaging system, the message including the dynamic form information.

System and method embodiments are provided for remote radio unit (RRU) control messaging in massive multiple input multiple output (MIMO) systems. In an embodiment, a network component in a MIMO wireless communication system includes a digital transceiver configured to generate a data signal and a control signal, the control signal including one of control information to control analog components on a RRU and status information about analog components on the RRU; a modulator configured to modulate the control signal onto a control carrier; a transmit filter configured to filter the modulated control signal; and a combiner configured to combine the data signal and the filtered modulated control signal and send the combined signal to a second network component via a physical channel, the second network component comprising one of a controller and the RRU.

A messaging architecture is disclosed which enables a single messaging application, handling non-transport specific attributes and operations, to manipulate any commonly known message type (such as fax, e-mail, pager, SMS, voice mail) using dynamically loadable plug-ins which contribute the ability to handle all transport specific attributes and operations. This architecture results in a single in-box being presented to a user for browsing all incoming messages, irrespective of message type.

A system and method are described for managing a plurality of sever nodes. In one embodiment, the sever nodes are organized into groups referred to as “instances.” Each instance includes a group of redundant sever nodes and a dispatcher for distributing service requests to each of the sever nodes. In addition, a central message passing architecture is defined which allows the various instances to communicate with one another. In one embodiment, a hierarchical configuration data object is stored within a database and is centrally accessible by all of the servers from all of the instances. The hierarchical configuration data object organizes configuration data and binary data in a logical hierarchy which simplifies sever node management in an enterprise network.

The present invention provides an online messaging architecture configured to process incoming request messages and provide reply messages in an efficient manner. The invention reduces processing overhead within a mainframe computing environment were individual requests are treated as individual transactions by instead storing requests within a queue, spawning necessary processes according to the queue and processing multiple transactions in a pseudo batch manner.

A system and method are described for managing a plurality of sever nodes. In one embodiment, the sever nodes are organized into groups referred to as “instances.” Each instance includes a group of redundant sever nodes and a dispatcher for distributing service requests to each of the sever nodes. In addition, a central message passing architecture is defined which allows the various instances to communicate with one another. In one embodiment, a hierarchical configuration data object is stored within a database and is centrally accessible by all of the servers from all of the instances. The hierarchical configuration data object organizes configuration data and binary data in a logical hierarchy which simplifies sever node management in an enterprise network.

The present invention is directed to a novel, a topic-based messaging architecture (including schema, protocols, naming conventions, etc.) to be used in a distributed data-oriented OLTP environment. According to an aspect of the claimed subject matter, the topic-based messaging architecture can be implemented as a type of publication-subscription (“pub-sub”) messaging pattern. In one or more embodiments of the topic-based system, messages are published to “topics,” or named logical channels. Subscribers in a topic-based system will receive all messages published to the topics to which they subscribe, and all subscribers to a topic will receive the same messages. The publisher is responsible for defining the classes of messages to which subscribers can subscribe. The topic-based messaging interface improves the scalability of a distributed database management system and provides a robust mechanism for message delivery.

A system has a first web node, a first server node, a second server node, a push messaging server, and a second web node. The first web node receives a message from a first player at a first client node for a second player at a second client node within an online game. The first server node maintains a first persistent connection with the first client node. The second server node maintains a second persistent connection with the second client node. The push messaging server stores a game state of the first and second players of the online game, updates the game state based on the message, and notifies the first and second server node. The second web node receives the message from the push messaging server and forwards the message to the second client node via the second persistent connection.

A system for invoking a service includes an invoking entity and a network entity such as a service provider. The invoking entity can send a service invocation request to effectuate invocation of a service. The service invocation request is formatted and sent in accordance with a given messaging architecture (e.g., SOAP). The network entity is capable of receiving the service invocation request, such as to invoke the requested service. The network entity can also send a response to the service invocation request, although the response is sent across a SIP architecture. Similar to the service invocation request, the response includes a payload formatted in accordance with the given messaging architecture. Thus, although the network entity can send a response across a SIP architecture, the invoking entity sends the service invocation request independent of the SIP architecture.

The present invention relates to a system for calling for local services of at least one local application with a conventional messaging architecture from at least one remote application with a conventional messaging architecture, and it is characterized in that the remote application(s) and local application(s) are provided with communication interfaces using object distributions. According to one embodiment of the invention, said interfaces use the CORBA code.

Methods, systems, and computer program products for abstracting processing layers within a messaging infrastructure so that changes or enhancements can be made to the infrastructure while retaining existing functionality. Message transport implementations are abstracted within a message layer, allowing other layers within the infrastructure to interact with messages in a more generic fashion, largely independent of message transport. Transport examples include named pipes, Transmission Control Protocol (TCP), HyperText Transfer Protocol (HTTP), Simple Mail Transfer Protocol (SMTP), etc. A channel layer above the message layer abstracts message exchange implementations, allowing other layers within the infrastructure to send and receive messages in a more generic fashion, largely independent of the message exchange semantics of a specific implementation. Message exchange examples include datagrams, dialogs, monologs, queues, and the like. Above the channel layer and message layer, a service layer abstracts the binding implementations that bind message exchange implementations to user code implementations.

A messaging architecture extends the communication capability of complex systems in existing enterprises. The architecture implements sophisticated messaging capability between typically disparate order management and shipping systems. As a result, the messaging architecture greatly streamlines order processing and shipping, increases productivity, increases system uptime and provides a baseline solution for customers that desire integrated order processing and shipping.

A messaging architecture extends the communication capability of complex systems in existing enterprises. The architecture implements sophisticated messaging capability between typically disparate order management and shipping systems. As a result, the messaging architecture greatly streamlines order processing and shipping, increases productivity, increases system uptime and provides a baseline solution for customers that desire integrated order processing and shipping.

A system and method are described for managing a plurality of sever nodes. In one embodiment, the sever nodes are organized into groups referred to as “instances.” Each instance includes a group of redundant sever nodes and a dispatcher for distributing service requests to each of the sever nodes. In addition, a central message passing architecture is defined which allows the various instances to communicate with one another. In one embodiment, a hierarchical configuration data object is stored within a database and is centrally accessible by all of the servers from all of the instances. The hierarchical configuration data object organizes configuration data and binary data in a logical hierarchy which simplifies sever node management in an enterprise network.

A method, system, and computer-program product for communicating within a messaging architecture using a structured data object are disclosed. The method includes assembling a dynamic form object and submitting dynamic form information, associated with the dynamic form object, into a messaging session. The assembling includes an assembly operation, which, in turn, includes identifying an input field of an interface of an application, transferring input field information to a messaging system, and generating an element of the dynamic form object. The input field information is associated with the input field, and the generating uses the input field information. Further, the submitting includes transferring a message via the messaging system, the message including the dynamic form information.

System and method embodiments are provided for remote radio unit (RRU) control messaging in massive multiple input multiple output (MIMO) systems. In an embodiment, a network component in a MIMO wireless communication system includes a digital transceiver configured to generate a data signal and a control signal, the control signal including one of control information to control analog componentson a RRU and status information about analog components on the RRU; a modulator configured to modulate the control signal onto a control carrier; a transmit filter configured to filter the modulated control signal; and a combiner configured to combine the data signal and the filtered modulated control signal and send the combined signal to a second network component via a physical channel, the second network component comprising one of a controller and the RRU.

A method, system, and computer-program product for communicating within a messaging architecture using a structured data object are disclosed. The method includes identifying a structured data object configured to represent structured data, receiving the structured data at a messaging system, generating a message that includes the structured data, and sending the message. The structured data object is configured to be accessed by an application and the messaging system, and includes a request element and a response element. The sending includes transferring the message via the messaging system.

System and method embodiments are provided for remote radio unit (RRU) control messaging in massive multiple input multiple output (MIMO) systems. In an embodiment, a network component in a MIMO wireless communication system includes a digital transceiver configured to generate a data signal and a control signal, the control signal including one of control information to control analog components on a RRU and status information about analog components on the RRU; a modulator configured to modulate the control signal onto a control carrier; a transmit filter configured to filter the modulated control signal; and a combiner configured to combine the data signal and the filtered modulated control signal and send the combined signal to a second network component via a physical channel, the second network component comprising one of a controller and the RRU.

A system for managing resources used by an appliance includes a messaging architecture that uses resource profiles and function identifiers that represent a meaningful context related to the resource profiles so that the production or consumption of a resource can be managed by electronic messages using the message architecture.