ログイン 新規登録
言語:

WEKO3

  • トップ
  • ランキング
To
lat lon distance
To

Field does not validate



インデックスリンク

インデックスツリー

メールアドレスを入力してください。

WEKO

One fine body…

WEKO

One fine body…

アイテム

  1. 論文誌(トランザクション)
  2. コンピューティングシステム(ACS)
  3. Vol.9
  4. No.1

Scalable Work Stealing of Native Threads on an x86-64 Infiniband Cluster

https://ipsj.ixsq.nii.ac.jp/records/158050
https://ipsj.ixsq.nii.ac.jp/records/158050
29e6634f-1a8d-49bf-af5e-ad7ec3cde42c
名前 / ファイル ライセンス アクション
IPSJ-TACS0901003.pdf IPSJ-TACS0901003.pdf (1.6 MB)
Copyright (c) 2016 by the Information Processing Society of Japan
オープンアクセス
Item type Trans(1)
公開日 2016-03-08
タイトル
タイトル Scalable Work Stealing of Native Threads on an x86-64 Infiniband Cluster
タイトル
言語 en
タイトル Scalable Work Stealing of Native Threads on an x86-64 Infiniband Cluster
言語
言語 eng
キーワード
主題Scheme Other
主題 [高性能計算] task parallelism, lightweight multithreading, thread migration, inter-node work stealing, remote direct memory access, Infiniband
資源タイプ
資源タイプ識別子 http://purl.org/coar/resource_type/c_6501
資源タイプ journal article
著者所属
The University of Tokyo
著者所属
The University of Tokyo
著者所属(英)
en
The University of Tokyo
著者所属(英)
en
The University of Tokyo
著者名 Shigeki, Akiyama

× Shigeki, Akiyama

Shigeki, Akiyama

Search repository
Kenjiro, Taura

× Kenjiro, Taura

Kenjiro, Taura

Search repository
著者名(英) Shigeki, Akiyama

× Shigeki, Akiyama

en Shigeki, Akiyama

Search repository
Kenjiro, Taura

× Kenjiro, Taura

en Kenjiro, Taura

Search repository
論文抄録
内容記述タイプ Other
内容記述 Task parallelism on large-scale distributed memory environments is still a challenging problem. The focuses of our work are flexibility of task model and scalability of inter-node load balancing. General task models provide functionalities for suspending and resuming tasks at any program point, and such a model enables us flexible task scheduling to achieve higher processor utilization, locality-aware task placement, etc. To realize such a task model, we have to employ a thread―an execution context containing register values and stack frames―as a representation of a task, and implement thread migration for inter-node load balancing. However, an existing thread migration scheme, iso-address, has a scalability limitation: it requires virtual memory proportional to the number of processors in each node. In large-scale distributed memory environments, this results in a huge virtual memory usage beyond the virtual address space limit of current 64bit CPUs. Furthermore, this huge virtual memory consumption makes it impossible to implement one-sided work stealing with Remote Direct Memory Access (RDMA) operations. One-sided work stealing is a popular approach to achieving high efficiency of load balancing; therefore this also limits scalability of distributed memory task parallelism. In prior work, we propose uni-address, a new thread migration scheme which significantly reduces virtual memory usage for thread stacks and enables RDMA-based work stealing, and implements a lightweight multithread library supporting RDMA-based work stealing on top of Fujitsu FX10 system. In this paper, we port the library to an x86-64 Infiniband cluster with GASNet communication library. We develop one-sided and non one-sided implementations of inter-node work stealing, and evaluate the performance and efficiency of the work stealing implementations.
\n------------------------------
This is a preprint of an article intended for publication Journal of
Information Processing(JIP). This preprint should not be cited. This
article should be cited as: Journal of Information Processing Vol.24(2016) No.3(online)
------------------------------
論文抄録(英)
内容記述タイプ Other
内容記述 Task parallelism on large-scale distributed memory environments is still a challenging problem. The focuses of our work are flexibility of task model and scalability of inter-node load balancing. General task models provide functionalities for suspending and resuming tasks at any program point, and such a model enables us flexible task scheduling to achieve higher processor utilization, locality-aware task placement, etc. To realize such a task model, we have to employ a thread―an execution context containing register values and stack frames―as a representation of a task, and implement thread migration for inter-node load balancing. However, an existing thread migration scheme, iso-address, has a scalability limitation: it requires virtual memory proportional to the number of processors in each node. In large-scale distributed memory environments, this results in a huge virtual memory usage beyond the virtual address space limit of current 64bit CPUs. Furthermore, this huge virtual memory consumption makes it impossible to implement one-sided work stealing with Remote Direct Memory Access (RDMA) operations. One-sided work stealing is a popular approach to achieving high efficiency of load balancing; therefore this also limits scalability of distributed memory task parallelism. In prior work, we propose uni-address, a new thread migration scheme which significantly reduces virtual memory usage for thread stacks and enables RDMA-based work stealing, and implements a lightweight multithread library supporting RDMA-based work stealing on top of Fujitsu FX10 system. In this paper, we port the library to an x86-64 Infiniband cluster with GASNet communication library. We develop one-sided and non one-sided implementations of inter-node work stealing, and evaluate the performance and efficiency of the work stealing implementations.
\n------------------------------
This is a preprint of an article intended for publication Journal of
Information Processing(JIP). This preprint should not be cited. This
article should be cited as: Journal of Information Processing Vol.24(2016) No.3(online)
------------------------------
書誌レコードID
収録物識別子タイプ NCID
収録物識別子 AA11833852
書誌情報 情報処理学会論文誌コンピューティングシステム(ACS)

巻 9, 号 1, 発行日 2016-03-08
ISSN
収録物識別子タイプ ISSN
収録物識別子 1882-7829
出版者
言語 ja
出版者 情報処理学会
戻る
0
views
See details
Views

Versions

Ver.1 2025-01-20 06:55:04.710725
Show All versions

Share

Mendeley Twitter Facebook Print Addthis

Cite as

エクスポート

OAI-PMH
  • OAI-PMH JPCOAR
  • OAI-PMH DublinCore
  • OAI-PMH DDI
Other Formats
  • JSON
  • BIBTEX

Confirm


Powered by WEKO3


Powered by WEKO3