Abstract:
A computer-implemented method for managing processing resources of a computerized system having at least a first processor and a second processor, each of the processors operatively interconnected to a memory storing a set of data to be processed by a processor, the method comprising: monitoring data accessed by the first processor while executing; and if the second processor is at a shorter distance than the first processor from the monitored data, instructing to interrupt execution at the first processor and resume the execution at the second processor.
Abstract:
A computer-implemented method for managing processing resources of a computerized system having at least a first processor and a second processor, each of the processors operatively interconnected to a memory storing a set of data to be processed by a processor, the method comprising: monitoring data accessed by the first processor while executing; and if the second processor is at a shorter distance than the first processor from the monitored data, instructing to interrupt execution at the first processor and resume the execution at the second processor.
Abstract:
A computer-implemented method for managing processing resources of a computerized system having at least a first processor and a second processor, each of the processors operatively interconnected to a memory storing a set of data to be processed by a processor, the method comprising: monitoring data accessed by the first processor while executing; and if the second processor is at a shorter distance than the first processor from the monitored data, instructing to interrupt execution at the first processor and resume the execution at the second processor.
Abstract:
A method and system for managing computational workload in a computerized system powered by an energy source. This invention relies first and foremost on adapting computational workload at the computerized system according to a time-varying property of the power supplied by the energy source, such that power generated at the source is optimized. A feedback mechanism is accordingly implemented which changes power available for computation, e.g., to track a more efficient energy generation efficiency point at the source.
Abstract:
A tunnel field-effect transistor including at least: a source region including a corresponding source semiconductor material; a drain region including a corresponding drain semiconductor material, and a channel region including a corresponding channel semiconductor material, which is arranged between the source region and the drain region. The tunnel field-effect transistor further includes at least: a source-channel gate electrode provided on an interface between the source region and the channel region; an insulator corresponding to the source-channel gate electrode that is provided between the source-channel gate electrode and the interface between the source region and the channel region; a drain-channel gate electrode provided on an interface between the drain region and the channel region; and an insulator corresponding to the drain-channel gate electrode that is provided between the drain-channel gate electrode and the interface between the drain region and the channel region.
Abstract:
A computer-implemented method for a computerized system having at least a first processor and a second processor, where each of the processors are operatively interconnected to a memory storing a set of data to be processed by a processor. The method includes monitoring data accessed by the first processor while executing, and if the second processor is at a shorter distance than the first processor from the monitored data, instructing to interrupt execution at the first processor and resume the execution at the second processor.
Abstract:
A tunnel field-effect transistor including at least: a source region including a corresponding source semiconductor material; a drain region including a corresponding drain semiconductor material, and a channel region including a corresponding channel semiconductor material, which is arranged between the source region and the drain region. The tunnel field-effect transistor further includes at least: a source-channel gate electrode provided on an interface between the source region and the channel region; an insulator corresponding to the source-channel gate electrode that is provided between the source-channel gate electrode and the interface between the source region and the channel region; a drain-channel gate electrode provided on an interface between the drain region and the channel region; and an insulator corresponding to the drain-channel gate electrode that is provided between the drain-channel gate electrode and the interface between the drain region and the channel region.
Abstract:
A method and system for managing computational workload in a computerized system powered by an energy source. This invention relies first and foremost on adapting computational workload at the computerized system according to a time-varying property of the power supplied by the energy source, such that power generated at the source is optimized. A feedback mechanism is accordingly implemented which changes power available for computation, e.g., to track a more efficient energy generation efficiency point at the source.