Modern CPU's pipeline stages can be roughly classified as front end and back end stages. Front end supplies ready (decoded, renamed) instructions and dispatches them to reservation stations where back end issues, executes and retires them. The lengthy front end stages, including instruction fetching, decoding, renaming and dispatching, play a key role in overall performance: only adequate ready instruction supply can make room for back end stages to fully exploit instruction level parallelism (ILP). The front end latency reduction is especially critical for recent deeply pipelined architecture where the front end is especially long: instruction cache access may take more than one cycle even for cache hit, let alone cache miss. In case of br...
A Large instruction window is a key requirement to exploit greater Instruction Level Parallelism in ...
As the degree of instruction-level parallelism in superscalar architectures increases, the gap betwe...
Conventional front-end designs attempt to maximize the number of "in-flight" instructions in the pip...
Memory accesses in modern processors are both far slower and vastly more energy-expensive than the a...
Contemporary superscalar processors employ large instruction window to tolerate long latency (mainly...
In the pursuit of instruction-level parallelism, significant demands are placed on a processor’s ins...
Superscalar processors take advantage of speculative execution to improve performance. When the spec...
This paper describes a new hardware approach to data and instruction prefetching for superscalar pr...
As the gap between memory and processor performance continues to grow, more and more programs will ...
The design of higher performance processors has been following two major trends: increasing the pipe...
Journal ArticleModern superscalar processors use wide instruction issue widths and out-of-order exe...
Instruction cache miss latency is becoming an increasingly important performance bottleneck, especia...
In the pursuit of instruction-level parallelism, significant demands are placed on a processor's ins...
A mechanism to reduce the cost of branches in pipelined processors is described and evaluated. It is...
Instruction window size is an important design parameter for many modern processors. Large instructi...
A Large instruction window is a key requirement to exploit greater Instruction Level Parallelism in ...
As the degree of instruction-level parallelism in superscalar architectures increases, the gap betwe...
Conventional front-end designs attempt to maximize the number of "in-flight" instructions in the pip...
Memory accesses in modern processors are both far slower and vastly more energy-expensive than the a...
Contemporary superscalar processors employ large instruction window to tolerate long latency (mainly...
In the pursuit of instruction-level parallelism, significant demands are placed on a processor’s ins...
Superscalar processors take advantage of speculative execution to improve performance. When the spec...
This paper describes a new hardware approach to data and instruction prefetching for superscalar pr...
As the gap between memory and processor performance continues to grow, more and more programs will ...
The design of higher performance processors has been following two major trends: increasing the pipe...
Journal ArticleModern superscalar processors use wide instruction issue widths and out-of-order exe...
Instruction cache miss latency is becoming an increasingly important performance bottleneck, especia...
In the pursuit of instruction-level parallelism, significant demands are placed on a processor's ins...
A mechanism to reduce the cost of branches in pipelined processors is described and evaluated. It is...
Instruction window size is an important design parameter for many modern processors. Large instructi...
A Large instruction window is a key requirement to exploit greater Instruction Level Parallelism in ...
As the degree of instruction-level parallelism in superscalar architectures increases, the gap betwe...
Conventional front-end designs attempt to maximize the number of "in-flight" instructions in the pip...