Abstract: Resource-based scheduling of computer jobs is disclosed. A computer job is scheduled based on utilization of a resource and a utilization criterion that the computer job has pertaining to the resource, in accordance with an embodiment of the present invention.

Abstract: Method for data placement in a tiered caching system and/or tiered storage system includes: determining a first period of time between each access to a first data, in a predetermined time window; averaging the first periods of time between each access to obtain an average first period of time; determining a second period of time between each access to a second data, in said predetermined time window; averaging the second periods of time between each access to obtain an average second period of time; comparing the average first period of time and the average second period of time; placing the first data in a fast-access storage medium, when the average first period of time is less than the average second period of time; and placing the second data in the fast-access storage medium, when the average second period of time is less than the average first period of time.

Abstract: Computer micro-jobs are disclosed. A computer job is divided into micro-jobs. In one embodiment, the micro-jobs have a size that allows a particular micro-job to complete within an allotted time for which the particular micro-job owns a resource used to execute the micro-job. In one embodiment, the allotted time is a quantum. In one embodiment, an entire computer job is divided into micro-jobs and the computer job is then executed micro-job by micro-job until the entire computer job is complete. Each of the micro-jobs may complete its execution within its quantum, in one embodiment. In one embodiment, the execution of the micro-jobs is allocated to times when needed resources comply with one or more idleness criteria. A software program executed with micro-jobs may be run at all times while the computer is powered up without impacting the performance of other software programs running on the same computer system.

Abstract: A method for allocating storage memory space is provided. The method involves receiving a request for storage memory allocation for a file of a current size; estimating a future size of the file, different than the current size of the file, based at least on a particular attribute associated with the file; and causing allocation of storage memory space for storage of the file based on the future size of the file.

Abstract: A method for allocating storage memory space is provided. The method involves receiving a request for storage memory allocation for a file of a current size; estimating a future size of the file, different than the current size of the file, based at least on a particular attribute associated with the file; and causing allocation of storage memory space for storage of the file based on the future size of the file.

Abstract: A method for storing data in virtual system is described. The method includes selecting virtual blocks in the virtual disk for storage of data based on contiguous logical blocks, in a disk file residing on physical storage media, that are mapped to the virtual blocks.

Abstract: Computer micro-jobs are disclosed. A computer job is divided into micro-jobs. In one embodiment, the micro-jobs have a size that allows a particular micro-job to complete within an allotted time for which the particular micro-job owns a resource used to execute the micro-job. In one embodiment, the allotted time is a quantum. In one embodiment, an entire computer job is divided into micro-jobs and the computer job is then executed micro-job by micro-job until the entire computer job is complete. Each of the micro-jobs may complete its execution within its quantum, in one embodiment. In one embodiment, the execution of the micro-jobs is allocated to times when needed resources comply with one or more idleness criteria. A software program executed with micro-jobs may be run at all times while the computer is powered up without impacting the performance of other software programs running on the same computer system.

Abstract: Computer micro-jobs are disclosed. A computer job is divided into micro-jobs. In one embodiment, the micro-jobs have a size that allows a particular micro-job to complete within an allotted time for which the particular micro-job owns a resource used to execute the micro-job. In one embodiment, the allotted time is a quantum. In one embodiment, an entire computer job is divided into micro-jobs and the computer job is then executed micro-job by micro-job until the entire computer job is complete. Each of the micro-jobs may complete its execution within its quantum, in one embodiment. In one embodiment, the execution of the micro-jobs is allocated to times when needed resources comply with one or more idleness criteria. A software program executed with micro-jobs may be run at all times while the computer is powered up without impacting the performance of other software programs running on the same computer system.

Abstract: A method for allocating storage memory space is provided. The method involves receiving a request for storage memory allocation for a file of a current size; estimating a future size of the file, different than the current size of the file, based at least on a particular attribute associated with the file; and causing allocation of storage memory space for storage of the file based on the future size of the file.

Abstract: Resource-based scheduling of computer jobs is disclosed. A computer job is scheduled based on utilization of a resource and a utilization criterion that the computer job has pertaining to the resource, in accordance with an embodiment of the present invention.

Abstract: Computer micro-jobs are disclosed. A computer job is divided into micro-jobs. In one embodiment, the micro-jobs have a size that allows a particular micro-job to complete within an allotted time for which the particular micro-job owns a resource used to execute the micro-job. In one embodiment, the allotted time is a quantum. In one embodiment, an entire computer job is divided into micro-jobs and the computer job is then executed micro-job by micro-job until the entire computer job is complete. Each of the micro-jobs may complete its execution within its quantum, in one embodiment. In one embodiment, the execution of the micro-jobs is allocated to times when needed resources comply with one or more idleness criteria. A software program executed with micro-jobs may be run at all times while the computer is powered up without impacting the performance of other software programs running on the same computer system.