The growing core counts and caches of modern processors result in data access latency becoming a function of the data's physical location in the cache. Thus, the placement of cache blocks determines the cache's performance. Reactive nonuniform cache architectures (R-NUCA) achieve near-optimal cache block placement by classifying blocks online and placing data close to the cores that use them
Growing wire delay and clock rates limit the amount of cache accessible within a single cycle. Non-u...
To deal with the “memory wall” problem, microprocessors include large secondary on-chip caches. But ...
Improvements in semiconductor nanotechnology made chip multiprocessors the reference architecture fo...
Increases in on-chip communication delay and the large working sets of server and scientific workloa...
Wire delays continue to grow as the dominant component of latency for large caches. A recent work pr...
The last level on-chip cache (LLC) is becoming bigger and more complex to effectively support the va...
The increasing speed-gap between processor and memory and the limited memory bandwidth make last-lev...
Non-Uniform Cache Architectures (NUCA) have been proposed as a solution to overcome wire delays that...
Journal ArticleOn-chip wire delays are becoming increasingly problematic in modern microprocessors....
Non-Uniform Cache Architectures (NUCA) have been proposed as a solution to overcome wire delays that...
Global interconnect becomes the delay bottleneck in microprocessor designs, and latency for large on...
Journal ArticleIn future multi-cores, large amounts of delay and power will be spent accessing data...
AbstractIn current multi-core systems with the shared last level cache (LLC) physically distributed ...
Journal ArticleThe ever increasing sizes of on-chip caches and the growing domination of wire delay...
Non-uniform cache architectures (NUCAs) are a novel design paradigm for large last-level on-chip cac...
Growing wire delay and clock rates limit the amount of cache accessible within a single cycle. Non-u...
To deal with the “memory wall” problem, microprocessors include large secondary on-chip caches. But ...
Improvements in semiconductor nanotechnology made chip multiprocessors the reference architecture fo...
Increases in on-chip communication delay and the large working sets of server and scientific workloa...
Wire delays continue to grow as the dominant component of latency for large caches. A recent work pr...
The last level on-chip cache (LLC) is becoming bigger and more complex to effectively support the va...
The increasing speed-gap between processor and memory and the limited memory bandwidth make last-lev...
Non-Uniform Cache Architectures (NUCA) have been proposed as a solution to overcome wire delays that...
Journal ArticleOn-chip wire delays are becoming increasingly problematic in modern microprocessors....
Non-Uniform Cache Architectures (NUCA) have been proposed as a solution to overcome wire delays that...
Global interconnect becomes the delay bottleneck in microprocessor designs, and latency for large on...
Journal ArticleIn future multi-cores, large amounts of delay and power will be spent accessing data...
AbstractIn current multi-core systems with the shared last level cache (LLC) physically distributed ...
Journal ArticleThe ever increasing sizes of on-chip caches and the growing domination of wire delay...
Non-uniform cache architectures (NUCAs) are a novel design paradigm for large last-level on-chip cac...
Growing wire delay and clock rates limit the amount of cache accessible within a single cycle. Non-u...
To deal with the “memory wall” problem, microprocessors include large secondary on-chip caches. But ...
Improvements in semiconductor nanotechnology made chip multiprocessors the reference architecture fo...