International Business Machines Corporation

Robert David Callaway

Ioannis Papapanagiotou

Adolfo Francisco Rodriguez

Victor S Moore

Dinesh C Verma

Gennaro A Cuomo

Kyle Gene Brown

Nicholas David Butler

Peter James Brittenham

Charles Marcel Kinard

Richard Eugene Salz

Holger Reinhardt

Ryan Betts

John Smith Graham

Ioannis Viniotis

Carlos Cesar Araujo

Richard A Robinson

Yannis Viniotis

Richard Robinson

Embodiments of the invention provide a method, system and computer program product for dynamic caching module selection for optimized data deduplication. In an embodiment of the invention, a method for dynamic caching module selection for optimized data deduplication is provided. The method includes receiving a request to retrieve data and classifying the request. The method also includes identifying from amongst multiple different caching modules each with a different configuration a particular caching module associated with the classification of the request. Finally, the method includes deduplicating the data in the identified caching module.

Dynamic caching module selection for optimized data deduplication

Embodiments of the present invention provide a method, system and computer program product for dynamic caching module selection for optimized data deduplication. In an embodiment of the invention, a method for dynamic caching module selection for optimized data deduplication is provided. The method includes processing historically relevant byte streams in each of a multiplicity of byte caching modules to populate a table of associations between different classifications of the historically relevant byte streams and correspondingly optimal ones of the multiplicity of the byte caching modules. The method also includes receiving a request to retrieve data from a data source and classifying the request. The method yet further includes consulting the table to identify, from amongst the multiplicity of byte caching modules, a particular byte caching module associated with the classification of the request. Finally, the method includes deduplicating the data in the identified byte caching module.

Scheduler training for multi-module byte caching

A network system includes multiple network resource information handling systems (IHSs) for managing applications and application communications. An IHS operating system initializes an application optimizer to provide application acceleration capability to application optimizers, such as application delivery controllers (ADCs) and wide area network (WAN) optimizer controllers (WOCs) within the network system. Upon receipt of a server application request message (SARM), a network system server responds with a restful application optimizer message (RAOM) that includes protocol, policy, and other application optimizer information that pertains to the requesting SARM. Application optimizers may include clients, ADCs and WOCs that reside within the message communication path between client and server. Application optimizers may store protocol, policy, and other information from RAOM to populate application table data. Application optimizers intercept messages between network resources of the network system and apply message policies to improve message performance thereby improving application performance within the network system.

Application optimization in a network system

Delegation of processing functions to specialized appliances in an enterprise is provided. An appliance typically comprises a combination of hardware and resident firmware that addresses needs in a computing environment, such as by providing common message transformation, integration, security, filtering and other functions. Delegation is carried out by specifying at least one XML function for front-process offloading from a server to a corresponding appliance configured to receive messages pushed towards the server, communicating management directives to the appliance for configuring the appliance to perform the specified XML function(s) according to specific requirements dynamically specified by the server and communicating instructions to the appliance so that the appliance augments received event messages with intermediate processing information based upon the front-process offloading, as received event messages pass through the appliance.

High-performance XML processing in a common event infrastructure

In a method and system for creating a federation of a plurality of enterprise service buses (ESBs), a plurality of ESB nodes provide connectivity to one or more services. According to a protocol, at least a portion of the ESB nodes transmit policy-based service advertisement messages to other ESB nodes, wherein the policy-based service advertisement messages include service state information. In response to receiving the policy-based service advertisement messages, each of the ESB nodes stores the service state information received from other ESB nodes in respective distributed registries to create a local view of routable service endpoints in the federation. Each of the ESB nodes then uses its respective distributed registry to make routing decisions when routing service requests.

Protocol for enabling dynamic and scalable federation of enterprise service buses

A method, computer program product, and system are disclosed for dynamically provisioning clusters of middleware appliances. In one embodiment, the method includes referencing a resource measurement from a plurality of middleware appliances. The middleware appliances process one or more service domains and the resource measurement includes processing resources consumed by each middleware appliance for each of the one or more service domains. The method may also include determining an implementation plan based on a performance goal and one or more resource calculations. The implementation plan specifies service domain instances to activate and service domain instances to deactivate on the plurality of middleware appliances. The method may also include dynamically enabling and disabling the service domain instances on the plurality of middleware appliances based on the implementation plan.

Dynamically provisioning clusters of middleware appliances

A protocol to enable management of opaque entities in a computing environment comprises an events component and a commands component. The events component enables a manager to utilize a received event communicated by a corresponding managed entity to indicate when administration or other management actions have occurred to domain information on the corresponding managed entity. The commands component interacts with the managed entities in response to the events component receiving corresponding events there from. The commands component further comprises commands for backing up the domain information stored by the managed entities as opaque configuration objects, for restoring the domain information to the managed entities as opaque configuration objects and for querying an identified one of the plurality of managed entities to determine whether two domain configurations are semantically different in a way that allows the configuration to remain opaque to the manager.

Growing community of inventors

Holly Springs, NC, United States of America

Robert David Callaway