Abstract: An integrated coprocessor such as an accelerated processing unit (APU) generates commands for execution on a discrete coprocessor such as a discrete graphics processing unit (dGPU). Power distribution circuitry selectively provides power to the APU and the dGPU based on characteristics of workloads executing on the APU and the dGPU and based on a platform power limit that is shared by the APU and the dGPU. In some cases, the power distribution circuitry determines a first power provided to the APU and a second power provided to the dGPU. The power distribution circuitry increases the second power provided to the dGPU in response to a sum of the first and second powers being less than the platform power limit. In some cases, the power distribution circuitry modifies the power provided to the APU, the dGPU, or both in response to changes in temperatures measured by a set of sensors.

Abstract: Electrical design current throttling, including: applying an electrical design current (EDC) threshold for each control processing unit component of a plurality of the central processing unit components responsive to the corresponding priority of each central processing unit component, the priority of a central processing unit component responsive to a central processing unit component's current usage data.

Abstract: Methods and apparatus employ a plurality of heterogeneous compute units and a plurality of non-compute units operatively coupled to the plurality of compute units. Power management logic (PML) determines a memory bandwidth level associated with a respective workload running on each of a plurality of heterogeneous compute units on the IC, and adjusts a power level of at least one non-compute unit of a memory system on the IC from a first power level to a second power level, based on the determined memory bandwidth levels. Memory access latency is also taken into account in some examples to adjust a power level of non-compute units.

Abstract: A processing unit manages temperature by correlating readings from a plurality of external temperature sensors to a skin temperature of the processing unit, wherein the correlation is based on characteristics of a computer chassis that is to include the processing unit. The processing unit is mounted on a printed circuit board (PCB) or other substrate that is to be placed in a computer chassis. Each of a plurality of temperature sensors is placed at a different location of the PCB to provide temperature readings from a variety of locations of the PCB. A temperature controller of the processing unit receives temperature readings from the plurality of sensors and correlates the temperature readings with a skin temperature of the processing unit based on a plurality of correlation values.

Abstract: An integrated coprocessor such as an accelerated processing unit (APU) generates commands for execution on a discrete coprocessor such as a discrete graphics processing unit (dGPU). Power distribution circuitry selectively provides power to the APU and the dGPU based on characteristics of workloads executing on the APU and the dGPU and based on a platform power limit that is shared by the APU and the dGPU. In some cases, the power distribution circuitry determines a first power provided to the APU and a second power provided to the dGPU. The power distribution circuitry increases the second power provided to the dGPU in response to a sum of the first and second powers being less than the platform power limit. In some cases, the power distribution circuitry modifies the power provided to the APU, the dGPU, or both in response to changes in temperatures measured by a set of sensors.

Abstract: Electrical design current throttling, including: applying an electrical design current (EDC) threshold for each control processing unit component of a plurality of the central processing unit components responsive to the corresponding priority of each central processing unit component, the priority of a central processing unit component responsive to a central processing unit component's current usage data.

Abstract: A power management controller tracks the idle state of a compute unit and compares the tracked idle state with a first threshold. If the tracked idle state is above the first threshold a power state of the compute unit is limited to a low power state so that the power state does not rise due to activity that occurs in low utilization scenarios. The tracked idle state is compared to a second threshold and if the tracked idle state is below the second threshold, indicating that the compute unit is not in a low utilization scenario, a limit on the power state is removed and the power state of the compute unit is allowed to rise.

Abstract: A power management controller tracks the idle state of a compute unit and compares the tracked idle state with a first threshold. If the tracked idle state is above the first threshold a power state of the compute unit is limited to a low power state so that the power state does not rise due to activity that occurs in low utilization scenarios. The tracked idle state is compared to a second threshold and if the tracked idle state is below the second threshold, indicating that the compute unit is not in a low utilization scenario, a limit on the power state is removed and the power state of the compute unit is allowed to rise.

Abstract: A method, system and computer-readable medium for allocating power among computing resources are provided. The method calculates an activity level of a first computer resource. When the activity level is less than a threshold value, the method increases the power allocation to a second computing resource. When the activity level exceeds the threshold value, the method decreases the power allocation to the second computing resource.