Abstract: A processor including an execution unit, an instruction scheduler circuit to identify a first instruction of an instruction stream, identify a second instruction on which execution of the first instruction depends, and assign a first dispatch priority value to the first instruction and the second instruction, and a dispatch circuit to dispatch, based on the first dispatch priority value, the first instruction and the second instruction to an instruction execution circuit.

Abstract: A processor including an execution unit, an instruction scheduler circuit to identify a first instruction of an instruction stream, identify a second instruction on which execution of the first instruction depends, and assign a first dispatch priority value to the first instruction and the second instruction, and a dispatch circuit to dispatch, based on the first dispatch priority value, the first instruction and the second instruction to an instruction execution circuit.

Abstract: An example system on a chip (SoC) includes a cache, a processor, and a predictor circuit. The cache may store data. The processor may be coupled to the cache and store a first data set at a first location in the cache and receive a first request from an application to write a second data set to the cache. The predictor circuit may be coupled to the processor and determine that a second location where the second data set is to be written to in the cache is nonconsecutive to the first location, where the processor is to perform a request-for-ownership (RFO) operation for the second data set and write the second data set to the cache.

Abstract: A processor includes execution units, a front end, and an execution engine. The front end includes logic to receive instructions in different strands of ordered instructions and to send the instructions to the execution engine. The engine includes logic to determine that the instructions in different strands reference a same logical register mapped to a physical register, that the instructions reference each other, and that one of the instructions referencing the other was processed after the instruction defining the logical register.

Abstract: An example system on a chip (SoC) includes a cache, a processor, and a predictor circuit. The cache may store data. The processor may be coupled to the cache and store a first data set at a first location in the cache and receive a first request from an application to write a second data set to the cache. The predictor circuit may be coupled to the processor and determine that a second location where the second data set is to be written to in the cache is nonconsecutive to the first location, where the processor is to perform a request-for-ownership (RFO) operation for the second data set and write the second data set to the cache.

Abstract: In an embodiment, a processor includes a plurality of cores. Each core may include strand logic to, for each strand of a plurality of strands, fetch an instruction group uniquely associated with the strand, wherein the instruction group is one of a plurality of instruction groups, wherein the plurality of instruction groups is obtained by dividing instructions of an application program according to instruction criticality. The strand logic may also be to retire the instruction group in an original order of the application program. Other embodiments are described and claimed.

Abstract: A message passing system for an MIMD parallel processing computer system utilizing a CSP programming model is relatively simple and inexpensive, yet allows for deadlock-free message passing, as well as the ability to support irregular connection topologies among nodes in the computer system. Messages are passed from node to node utilizing buffers at intermediate nodes to temporarily store the messages. In accordance with the CSP programming model, the user code is divided into multiple concurrent user processes which communicate with each other via channels. Each user process executing at a node is also provided with a corresponding, but separate, router process which uses a set of N-1 virtual channels to communicate with all other processes in the system, where N is the number of processes. The router process is preferably provided with a routing table that implements an acyclic sub-graph solution for interconnecting nodes in any arbitrary network topology, including irregular network topologies.