In this paper, the authors characterize application performance with a memory-centric view. Using a simple strategy and performance data measured by on-chip hardware performance counters, they model the performance of a simple memory hierarchy and infer the contribution of each level in the memory system to an application`s overall cycles per instruction (cpi). They account for the overlap of processor execution with memory accesses--a key parameter not directly measurable on most systems. They infer the separate contributions of three major architecture features in the memory subsystem of the Origin 2000: cache size, outstanding loads-under-miss, and memory latency
We study the issue of performance prediction on the SGI-Power Challenge, a typical SMP. On such a pl...
Latency hiding techniques such as multilevel cache hierarchies yield high performance when applicati...
To reduce latency and increase bandwidth to memory, modern microprocessors are often designed with d...
Hierarchical memory is a cornerstone of modern hardware design because it provides high memory perfo...
Modern processors incorporate several performance monitoring units, which can be used to count event...
Application performance on modern microprocessors depends heavily on performance related characteris...
Hierarchical memory is a cornerstone of modern hardware design because it provides high memory perfo...
In modern computing environments, memory hierarchy expands from CPU registers, high speed caches, an...
Workload characterization has been proven an essential tool to architecture design and performance e...
Recently, with growing the gap between processors and memory speeds, parallel performance on chip ...
As the number of compute cores per chip continues to rise faster than the total amount of available ...
We have developed a hierarchical performance bounding methodology that attempts to explain the perfo...
Abstract — The gap between speed of processor and main memory is reduced using parallel systems and ...
Performance and scalability of high performance scientific applications on large scale parallel mach...
Due to the infamous “memory wall ” problem and a drastic increase in the number of data intensive ap...
We study the issue of performance prediction on the SGI-Power Challenge, a typical SMP. On such a pl...
Latency hiding techniques such as multilevel cache hierarchies yield high performance when applicati...
To reduce latency and increase bandwidth to memory, modern microprocessors are often designed with d...
Hierarchical memory is a cornerstone of modern hardware design because it provides high memory perfo...
Modern processors incorporate several performance monitoring units, which can be used to count event...
Application performance on modern microprocessors depends heavily on performance related characteris...
Hierarchical memory is a cornerstone of modern hardware design because it provides high memory perfo...
In modern computing environments, memory hierarchy expands from CPU registers, high speed caches, an...
Workload characterization has been proven an essential tool to architecture design and performance e...
Recently, with growing the gap between processors and memory speeds, parallel performance on chip ...
As the number of compute cores per chip continues to rise faster than the total amount of available ...
We have developed a hierarchical performance bounding methodology that attempts to explain the perfo...
Abstract — The gap between speed of processor and main memory is reduced using parallel systems and ...
Performance and scalability of high performance scientific applications on large scale parallel mach...
Due to the infamous “memory wall ” problem and a drastic increase in the number of data intensive ap...
We study the issue of performance prediction on the SGI-Power Challenge, a typical SMP. On such a pl...
Latency hiding techniques such as multilevel cache hierarchies yield high performance when applicati...
To reduce latency and increase bandwidth to memory, modern microprocessors are often designed with d...