Instruction window size is an important design parameter for many modern processors. Large instruction windows offer the potential advantage of exposing large amounts of instruction level parallelism. Unfortunately, naively scaling conventional window designs can significantly degrade clock cycle time, undermining the benefits of increased parallelism
The design of higher performance processors has been following two major trends: increasing the pipe...
Nearly all modern computing systems employ caches to hide the memory latency. Modern processors ofte...
As the gap between memory and processor speeds continues to widen, cache efficiency is an increasing...
Instruction window size is an important design parameter for many modern processors. Large instructi...
Contemporary superscalar processors employ large instruction window to tolerate long latency (mainly...
Building processors with large instruction windows has been proposed as a mechanism for overcoming t...
Abstract-Design parameters interact in complex ways in modern processors, especially because out-of-...
Large instruction window processors achieve high performance by exposing large amounts of instructio...
The effective performance of wide-issue superscalar processors depends on many parameters, such as b...
As the issue width of superscalar processors is increased, instruction fetch bandwidth requirements ...
Modern superscalar processors use wide instruction issue widths and out-of-order execution in order ...
For many years, the performance of microprocessors has depended on the miss ratio of L1 caches. The ...
Abstract—This paper presents an analysis on the impact of simultaneous instruction cache (I-cache) a...
To alleviate the memory wall problem, current architectural trends suggest implementing large instru...
Journal PaperCurrent microprocessors incorporate techniques to exploit instruction-level parallelism...
The design of higher performance processors has been following two major trends: increasing the pipe...
Nearly all modern computing systems employ caches to hide the memory latency. Modern processors ofte...
As the gap between memory and processor speeds continues to widen, cache efficiency is an increasing...
Instruction window size is an important design parameter for many modern processors. Large instructi...
Contemporary superscalar processors employ large instruction window to tolerate long latency (mainly...
Building processors with large instruction windows has been proposed as a mechanism for overcoming t...
Abstract-Design parameters interact in complex ways in modern processors, especially because out-of-...
Large instruction window processors achieve high performance by exposing large amounts of instructio...
The effective performance of wide-issue superscalar processors depends on many parameters, such as b...
As the issue width of superscalar processors is increased, instruction fetch bandwidth requirements ...
Modern superscalar processors use wide instruction issue widths and out-of-order execution in order ...
For many years, the performance of microprocessors has depended on the miss ratio of L1 caches. The ...
Abstract—This paper presents an analysis on the impact of simultaneous instruction cache (I-cache) a...
To alleviate the memory wall problem, current architectural trends suggest implementing large instru...
Journal PaperCurrent microprocessors incorporate techniques to exploit instruction-level parallelism...
The design of higher performance processors has been following two major trends: increasing the pipe...
Nearly all modern computing systems employ caches to hide the memory latency. Modern processors ofte...
As the gap between memory and processor speeds continues to widen, cache efficiency is an increasing...