Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: The load-store unit is a performance critical component of a dynamically-scheduled processor. It is also a complex and non-scalable component. Several recently proposed techniques use some form of speculation to simplify the load-store unit and check this speculation by re-executing some of the loads prior to commit.  call such techniques load optimizations. One recent load optimization improves load queue (LQ) scalability by using re-execution rather than associative search to check speculative intra- and inter- thread memory ordering. A second technique improves store queue (SQ) scalability by speculatively filtering some load accesses and some store entries from it and re-executing loads to check that speculation. A third technique speculatively removes redundant loads from the execution engine; re-execution detects false eliminations. Unfortunately, the benefits of a load optimization are often mitigated by re-execution itself. Re-execution contends for cache bandwidth with store commit, and serializes load re-execution with subsequent store commit. If a given load optimization requires a sufficient number of load re-executions, the aggregate re-execution cost may overwhelm the benefits of the technique entirely and even cause drastic slowdowns. Store Vulnerability Window (SVW) is a new mechanism that significantly reduces the re-execution requirements of a given load optimization. SVW is based on monotonic store sequence numbering and an adaptation of Bloom filtering. The cost of a typical SVW implementation is a 1KB buffer and a 16-bit field per LQ entry. Across the three optimizations  study, SVW reduces re-executions by an average of 85%. This reduction relieves cache port contention and removes many of the dynamic serialization events that contribute the bulk of re-executionýs cost, allows these load optimizations to perform up to their full potential. For the speculative SQ, this means the chance to perform at all, as without SVW it posts significant slowdowns.
['Amir Roth']
I am writing a research paper on a idea Store Vulnerability Window (SVW): Re-Execution Filtering for Enhanced Load Optimization
[{"from": "human", "value": "I am writing a research paper on a idea Store Vulnerability Window (SVW): Re-Execution Filtering for Enhanced Load Optimization"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: The load-store unit is a performance critical component of a dynamically-scheduled processor. It is also a complex and non-scalable component. Several recently proposed techniques use some form of speculation to simplify the load-store unit and check this speculation by re-executing some of the loads prior to commit.  call such techniques load optimizations. One recent load optimization improves load queue (LQ) scalability by using re-execution rather than associative search to check speculative intra- and inter- thread memory ordering. A second technique improves store queue (SQ) scalability by speculatively filtering some load accesses and some store entries from it and re-executing loads to check that speculation. A third technique speculatively removes redundant loads from the execution engine; re-execution detects false eliminations. Unfortunately, the benefits of a load optimization are often mitigated by re-execution itself. Re-execution contends for cache bandwidth with store commit, and serializes load re-execution with subsequent store commit. If a given load optimization requires a sufficient number of load re-executions, the aggregate re-execution cost may overwhelm the benefits of the technique entirely and even cause drastic slowdowns. Store Vulnerability Window (SVW) is a new mechanism that significantly reduces the re-execution requirements of a given load optimization. SVW is based on monotonic store sequence numbering and an adaptation of Bloom filtering. The cost of a typical SVW implementation is a 1KB buffer and a 16-bit field per LQ entry. Across the three optimizations  study, SVW reduces re-executions by an average of 85%. This reduction relieves cache port contention and removes many of the dynamic serialization events that contribute the bulk of re-execution\u00fds cost, allows these load optimizations to perform up to their full potential. For the speculative SQ, this means the chance to perform at all, as without SVW it posts significant slowdowns."}]