thesisWith the advent of aggressively scaled multicore processors utilizing increasingly complex on-chip communication architectures, the need for efficient and standardized interfaces between parallel programs and the processors that run them is paramount. Hardware designs are constantly changing. This complicates the task of evaluating innovations at all system layers. Some of the most aggressively scaled multicore devices are in the embedded domain. However, due to smaller data sets, embedded applications must be able to exploit more fine grained parallelism. Thus, more efficient communication mechanisms are needed
In recent years, the growth of the number of cores as well as the frequency of cores along different...
Abstract—To efficiently use multicore processors we need to ensure that almost all data communicatio...
Today's compute node architectures leverage impressive performance by offering more parallel resourc...
The transition to multi-core architectures can be attributed mainly to fundamental limitations in cl...
Many-core architectures are becoming a standard design alternative for embedded systems. The force t...
As high-performance computing (HPC) systems advance towards exascale (10^18 operations per second), ...
Summarization: Highly parallel systems are becoming mainstream in a wide range of sectors ranging fr...
In recent years, a variety of concerns in power and thermal issues, instruction-level parallelism (I...
Though transistor scaling yields more transistors per chip, however, the consistent performance gain...
High-speed serial network interfaces are becoming the primary way for modern embedded systems and sy...
One difficulty of programming multicore processors is achieving performance that scales with the num...
Today multicore systems are quickly becoming the most commonly used hardware architecture within em...
Summarization: In the past, a transition to the next fabrication process typically translated to mor...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Electrical Engineering and Comp...
Since the invention of the transistor, clock frequency increase was the primary method of improving ...
In recent years, the growth of the number of cores as well as the frequency of cores along different...
Abstract—To efficiently use multicore processors we need to ensure that almost all data communicatio...
Today's compute node architectures leverage impressive performance by offering more parallel resourc...
The transition to multi-core architectures can be attributed mainly to fundamental limitations in cl...
Many-core architectures are becoming a standard design alternative for embedded systems. The force t...
As high-performance computing (HPC) systems advance towards exascale (10^18 operations per second), ...
Summarization: Highly parallel systems are becoming mainstream in a wide range of sectors ranging fr...
In recent years, a variety of concerns in power and thermal issues, instruction-level parallelism (I...
Though transistor scaling yields more transistors per chip, however, the consistent performance gain...
High-speed serial network interfaces are becoming the primary way for modern embedded systems and sy...
One difficulty of programming multicore processors is achieving performance that scales with the num...
Today multicore systems are quickly becoming the most commonly used hardware architecture within em...
Summarization: In the past, a transition to the next fabrication process typically translated to mor...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Electrical Engineering and Comp...
Since the invention of the transistor, clock frequency increase was the primary method of improving ...
In recent years, the growth of the number of cores as well as the frequency of cores along different...
Abstract—To efficiently use multicore processors we need to ensure that almost all data communicatio...
Today's compute node architectures leverage impressive performance by offering more parallel resourc...