Abstract: A method includes instantiating a virtual resource and, in response to instantiating the virtual resource, generating a snapshot image comprising a base configuration of the virtual resource. The method also includes receiving a request to de-provision the virtual resource and, in response to receiving the request to de-provision the virtual resource, determining, using a processor, whether the base configuration of the virtual resource is in a set of highly utilized virtual resource configurations based on virtual resource utilization data. The method further includes, in response to determining that the base configuration of the virtual resource is in the set of highly utilized virtual resource configurations: reverting the virtual resource to its base configuration using the snapshot image and allocating the virtual resource to a resource pool.

Abstract: A method includes determining a plurality of configuration entries based on received provisioning requests and further based on provisioning system resource utilization data. Each configuration entry includes a corresponding virtual system template, and a corresponding number of virtual systems to be provisioned. The method also includes provisioning the corresponding number of virtual systems for a first configuration entry in the plurality of configuration entries. The corresponding number of virtual systems are provisioned based on the corresponding virtual system template for the first configuration entry. The method additionally includes storing the provisioned virtual systems in a resource pool and processing a provisioning request utilizing a pre-provisioned virtual system stored in the resource pool.

Abstract: A method includes instantiating a virtual resource and, in response to instantiating the virtual resource, generating a snapshot image comprising a base configuration of the virtual resource. The method also includes receiving a request to de-provision the virtual resource and, in response to receiving the request to de-provision the virtual resource, determining, using a processor, whether the base configuration of the virtual resource is in a set of highly utilized virtual resource configurations based on virtual resource utilization data. The method further includes, in response to determining that the base configuration of the virtual resource is in the set of highly utilized virtual resource configurations: reverting the virtual resource to its base configuration using the snapshot image and allocating the virtual resource to a resource pool.

Abstract: A method includes storing a plurality of workloads in a first disk resource associated with a high end disk classification. The method further includes determining a corresponding activity level for each of the plurality of workloads. The method also includes classifying each of the plurality of workloads into a first set indicative of high-priority workloads and a second set indicative of low-priority workloads based on whether the corresponding activity level is greater than a threshold activity level. The method further includes determining whether a second disk resource associated with a low end disk classification can accommodate storage of a first particular workload in the second set based on an available storage capacity of the second disk resource. The method additionally includes migrating the first particular workload from the first disk resource to the second disk resource.

Abstract: A method includes determining a plurality of configuration entries based on received provisioning requests and further based on provisioning system resource utilization data. Each configuration entry includes a corresponding virtual system template, and a corresponding number of virtual systems to be provisioned. The method also includes provisioning the corresponding number of virtual systems for a first configuration entry in the plurality of configuration entries. The corresponding number of virtual systems are provisioned based on the corresponding virtual system template for the first configuration entry. The method additionally includes storing the provisioned virtual systems in a resource pool and processing a provisioning request utilizing a pre-provisioned virtual system stored in the resource pool.

Abstract: The present invention provides a catalyst for generating hydrogen, containing a composite metal of iron and nickel, the catalyst used in a decomposition reaction of at least one compound selected from the group consisting of hydrazine and hydrates thereof; and a method for generating hydrogen, including contacting the catalyst for generating hydrogen with at least one compound selected from the group consisting of hydrazine and hydrates thereof. According to the invention, hydrogen can be efficiently generated with improved selectivity in the method for generating hydrogen that utilizes the decomposition reaction of hydrogen.

Abstract: The present invention provides a catalyst for generating hydrogen, containing a composite metal of iron and nickel, the catalyst used in a decomposition reaction of at least one compound selected from the group consisting of hydrazine and hydrates thereof; and a method for generating hydrogen, including contacting the catalyst for generating hydrogen with at least one compound selected from the group consisting of hydrazine and hydrates thereof. According to the invention, hydrogen can be efficiently generated with improved selectivity in the method for generating hydrogen that utilizes the decomposition reaction of hydrogen.

Abstract: A method, system, and medium are provided for a global synchronization system (GSS). The GSS includes a global synchronization server and a network storage device. Content sources can be retrieved directly from the remote source, or optionally uplinked onto the network storage device. The content sources and user devices are defined, as well as the relationships of one endpoint to another, according to subscriber specifications, provided by the global synchronization system. The subscriber specifications are managed by the global synchronization server to provide synchronization of changes and updates to content sources and devices.

Abstract: An amorphous coating and method of fabricating the same on a substrate is disclosed. An amorphous iron based powder is located onto an aluminum alloy substrate. Pressure is applied to the powder and substrate at a processing temperature below a crystallization temperature of the powder. The powder and substrate are then spark plasma sintered for infiltrating the substrate material into the powder for resulting in a composite amorphous coating. The powder and substrate are then rapidly heated and held for 15 minutes at the processing temperature. The powder and substrate are then rapidly cooled at a cooling rate of approximately 150° C./minute. In one embodiment, the powder is comprised of Fe48Cr15Mo14Y2C15B6 alloy composition.

Abstract: The present invention relates to a pure form of rapamycin with a total impurity content less than 1.2%; a process for recovery and purification of rapamycin comprising steps of (a) treating the fermentation broth, extracts or solutions containing rapamycin with water immiscible solvent and concentration; (b) addition of a water miscible solvent to effect separation of impurities present; (c) optionally, binding of the solvent containing the product from step (b) to an inert solid, washing the solid with a base and acid, followed by elution; (d) subjecting the elute from step (c) or the solvent containing the product from step (b) to silica gel chromatography; (e) crystallization of the product obtained from step (d); (f) subjecting a solution of the product from step (e) to hydrophobic interaction or reversed phase chromatography; and (g) re-crystallization to afford rapamycin in substantially pure form.