Abstract:
Techniques are disclosed to control power and processing among a plurality of asymmetric cores. In one embodiment, a multi-core processor includes first and second processing cores, each including an arithmetic logic unit and an instruction decoder, wherein the first processing core is capable of operating at a higher processing throughput than the second processing core, wherein the first and second processing cores have different instruction sets, wherein, in response to an occurrence of an event, a task processed on the first processing core is to be translated and transferred to the second processing core after saving a core state of the first processing core and providing the core state to the second processing core, wherein instructions to run on the second processing core are translated to the instruction set of the second processing core by a software binary translation shell, and wherein the first and second processing cores are to concurrently execute instructions according to their own instruction sets.
Abstract:
Techniques to control power and processing among a plurality of asymmetric cores. In one embodiment, one or more asymmetric cores are power managed to migrate processes or threads among a plurality of cores according to the performance and power needs of the system.
Abstract:
A device, system and method for assigning values to elements in a first register, where each data field in a first register corresponds to a data element to be written into a second register, and where for each data field in the first register, a first value may indicate that the corresponding data element has not been written into the second register and a second value indicates that the corresponding data element has been written into the second register, reading the values of each of the data fields in the first register, and for each data field in the first register having the first value, gathering the corresponding data element and writing the corresponding data element into the second register, and changing the value of the data field in the first register from the first value to the second value. Other embodiments are described and claimed.
Abstract:
Techniques to control power and processing among a plurality of asymmetric processing elements are disclosed. In one embodiment, one or more asymmetric processing elements are power managed to migrate processes or threads among a plurality of processing elements according to the performance and power needs of the system.
Abstract:
A technique to increase memory bandwidth for throughput applications. In one embodiment, memory bandwidth can be increased, particularly for throughput applications, without increasing interconnect trace or pin count by pipelining pages between one or more memory storage areas on half cycles of a memory access clock.
Abstract:
Techniques to control power and processing among a plurality of asymmetric cores. In one embodiment, one or more asymmetric cores are power managed to migrate processes or threads among a plurality of cores according to the performance and power needs of the system.
Abstract:
Techniques to control power and processing among a plurality of asymmetric cores. In one embodiment, one or more asymmetric cores are power managed to migrate processes or threads among a plurality of cores according to the performance and power needs of the system.
Abstract:
Techniques to control power and processing among a plurality of asymmetric cores. In one embodiment, one or more asymmetric cores are power managed to migrate processes or threads among a plurality of cores according to the performance and power needs of the system.
Abstract:
A technique to share execution resources. In one embodiment, a CPU and a GPU share resources according to workload, power considerations, or available resources by scheduling or transferring instructions and information between the CPU and GPU.
Abstract:
A device, system and method for assigning values to elements in a first register, where each data field in a first register corresponds to a data element to be written into a second register, and where for each data field in the first register, a first value may indicate that the corresponding data element has not been written into the second register and a second value indicates that the corresponding data element has been written into the second register, reading the values of each of the data fields in the first register, and for each data field in the first register having the first value, gathering the corresponding data element and writing the corresponding data element into the second register, and changing the value of the data field in the first register from the first value to the second value. Other embodiments are described and claimed.