Abstract: A method for controlling a multitasking microprocessor system includes monitoring the multitasking microprocessor system connected to an interconnect, the monitoring comprising monitoring performance of a plurality of processing units forming a producer-consumer system on the interconnect, and issuing commands to the plurality of processing units to provide operations and power distributions to the plurality of processing units such that the performance and power modes are assigned to the plurality of processing units based on the monitoring.

Abstract: A system for controlling a multitasking microprocessor system includes an interconnect, a plurality of processing units connected to the interconnect forming a single-source, single-sink flow network, wherein the plurality of processing units pass data between one another from the single-source to the single-sink, and a monitor connected to the interconnect for monitoring a portion of a resource consumed by each of the plurality of processing units and for controlling the plurality of processing units according to a predetermined budget for the resource to control a data overflow condition, wherein the monitor controls performance and power modes of the plurality of processing units.

Abstract: A method for controlling a multitasking microprocessor system includes monitoring the multitasking microprocessor system connected to an interconnect, the monitoring comprising monitoring performance of a plurality of processing units forming a producer-consumer system on the interconnect, and issuing commands to the plurality of processing units to provide operations and power distributions to the plurality of processing units such that the performance and power modes are assigned to the plurality of processing units based on the monitoring.

Abstract: A system for controlling a multitasking microprocessor system includes an interconnect, a plurality of processing units connected to the interconnect forming a single-source, single-sink flow network, wherein the plurality of processing units pass data between one another from the single-source to the single-sink, and a monitor connected to the interconnect for monitoring a portion of a resource consumed by each of the plurality of processing units and for controlling the plurality of processing units according to a predetermined budget for the resource to control a data overflow condition, wherein the monitor controls performance and power modes of the plurality of processing units.

Abstract: A method for estimating power dissipated by a processor core processing a workload-includes analyzing a reference test case to generate a reference workload characteristic, analyzing an actual workload to generate an actual workload characteristic, performing a power analysis for the reference test case to establish a reference power dissipation value and estimating an actual workload power dissipation value responsive to the actual and reference workload characteristics and the reference power dissipation value.

Abstract: A method for estimating power dissipated by processor core processing a workload includes analyzing a reference test case to generate a reference workload characteristic, analyzing an actual workload to generate an actual workload characteristic, performing a power analysis for the reference test case to establish a reference power dissipation value and estimating an actual workload power dissipation value responsive to the actual and reference workload characteristics and the reference power dissipation value.