Abstract: Systems are provided for using a message spinning engine to create and/or manage messaging queues in a distributed network using virtualized servers. An abstraction layer formed by virtualized servers may enable the message spinning engine to seamlessly transition messaging queues while minimizing the likelihood of exceeding the parameters of existing service level agreements. The message spinning engine may include a service mapping module to maintain mappings between source business applications and virtualized servers, a product bridge to implement message encapsulation for communication between different messaging queue products, and a messaging queue monitoring console to analyze performance and capacity of physical services and messaging services and accordingly adjust levels of service for source business applications.

Abstract: Systems are provided for using a message spinning engine to create and/or manage messaging queues in a distributed network using virtualized servers. An abstraction layer formed by virtualized servers may enable the message spinning engine to seamlessly transition messaging queues while minimizing the likelihood of exceeding the parameters of existing service level agreements. The message spinning engine may include a service mapping module to maintain mappings between source business applications and virtualized servers, a product bridge to implement message encapsulation for communication between different messaging queue products, and a messaging queue monitoring console to analyze performance and capacity of physical services and messaging services and accordingly adjust levels of service for source business applications.

Abstract: Systems are provided for using a message spinning engine to create and/or manage messaging queues in a distributed network using virtualized servers. An abstraction layer formed by virtualized servers may enable the message spinning engine to seamlessly transition messaging queues while minimizing the likelihood of exceeding the parameters of existing service level agreements. The message spinning engine may include a service mapping module to maintain mappings between source business applications and virtualized servers, a product bridge to implement message encapsulation for communication between different messaging queue products, and a messaging queue monitoring console to analyze performance and capacity of physical services and messaging services and accordingly adjust levels of service for source business applications.

Abstract: Systems are provided for using a message spinning engine to create and/or manage messaging queues in a distributed network using virtualized servers. An abstraction layer formed by virtualized servers may enable the message spinning engine to seamlessly transition messaging queues while minimizing the likelihood of exceeding the parameters of existing service level agreements. The message spinning engine may include a service mapping module to maintain mappings between source business applications and virtualized servers, a product bridge to implement message encapsulation for communication between different messaging queue products, and a messaging queue monitoring console to analyze performance and capacity of physical services and messaging services and accordingly adjust levels of service for source business applications.

Abstract: Systems for the automated capture of forensic data information are presented. An example system may receive an access/modification request directed to a data item(s), generate an initial data capture record for the data item(s), and send the record to an isolated, secure data preservation module before granting the request. After the access/modification, the system may generate a post-access data capture record and send it to the preservation module. The system may determine the content of the generated records, based on, e.g., content of the data item(s), before generation. For example, the system may determine a first content type for records where data item(s) include critical data, and a second content type for records that do not, to, e.g., efficiently allocate system resources while minimizing any disruption to an accessing user. The system may also utilize different encryption and decryption key techniques based on, e.g., the content of the data item(s).

Abstract: Systems are provided for using a message spinning engine to create and/or manage messaging queues in a distributed network using virtualized servers. An abstraction layer formed by virtualized servers may enable the message spinning engine to seamlessly transition messaging queues while minimizing the likelihood of exceeding the parameters of existing service level agreements. The message spinning engine may include a service mapping module to maintain mappings between source business applications and virtualized servers, a product bridge to implement message encapsulation for communication between different messaging queue products, and a messaging queue monitoring console to analyze performance and capacity of physical services and messaging services and accordingly adjust levels of service for source business applications.

Abstract: Systems are provided for using a message spinning engine to create and/or manage messaging queues in a distributed network using virtualized servers. An abstraction layer formed by virtualized servers may enable the message spinning engine to seamlessly transition messaging queues while minimizing the likelihood of exceeding the parameters of existing service level agreements. The message spinning engine may include a service mapping module to maintain mappings between source business applications and virtualized servers, a product bridge to implement message encapsulation for communication between different messaging queue products, and a messaging queue monitoring console to analyze performance and capacity of physical services and messaging services and accordingly adjust levels of service for source business applications.

Abstract: Systems for the automated capture of forensic data information are presented. An example system may receive an access/modification request directed to a data item(s), generate an initial data capture record for the data item(s), and send the record to an isolated, secure data preservation module before granting the request. After the access/modification, the system may generate a post-access data capture record and send it to the preservation module. The system may determine the content of the generated records, based on, e.g., content of the data item(s), before generation. For example, the system may determine a first content type for records where data item(s) include critical data, and a second content type for records that do not, to, e.g., efficiently allocate system resources while minimizing any disruption to an accessing user. The system may also utilize different encryption and decryption key techniques based on, e.g., the content of the data item(s).