Wharf

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The Experts below are selected from a list of 297 Experts worldwide ranked by ideXlab platform

Dean Hildebrand - One of the best experts on this subject based on the ideXlab platform.

  • SoCC - Wharf: Sharing Docker Images in a Distributed File System
    Proceedings of the ACM Symposium on Cloud Computing, 2018
    Co-Authors: Chao Zheng, Vasily Tarasov, Lukas Rupprecht, Dimitrios Skourtis, Mohamed Mohamed, Douglas Thain, Amit Warke, Dean Hildebrand
    Abstract:

    Container management frameworks, such as Docker, package diverse applications and their complex dependencies in self-contained images, which facilitates application deployment, distribution, and sharing. Currently, Docker employs a shared-nothing storage architecture, i.e. every Docker-enabled host requires its own copy of an image on local storage to create and run containers. This greatly inflates storage utilization, network load, and job completion times in the cluster. In this paper, we investigate the option of storing container images in and serving them from a distributed file system. By sharing images in a distributed storage layer, storage utilization can be reduced and redundant image retrievals from a Docker registry become unnecessary. We introduce Wharf, a middleware to transparently add distributed storage support to Docker. Wharf partitions Docker's runtime state into local and global parts and efficiently synchronizes accesses to the global state. By exploiting the layered structure of Docker images, Wharf minimizes the synchronization overhead. Our experiments show that compared to Docker on local storage, Wharf can speed up image retrievals by up to 12x, has more stable performance, and introduces only a minor overhead when accessing data on distributed storage.

  • Wharf sharing docker images in a distributed file system
    Symposium on Cloud Computing, 2018
    Co-Authors: Chao Zheng, Vasily Tarasov, Lukas Rupprecht, Dimitrios Skourtis, Mohamed Mohamed, Douglas Thain, Amit Warke, Dean Hildebrand
    Abstract:

    Container management frameworks, such as Docker, package diverse applications and their complex dependencies in self-contained images, which facilitates application deployment, distribution, and sharing. Currently, Docker employs a shared-nothing storage architecture, i.e. every Docker-enabled host requires its own copy of an image on local storage to create and run containers. This greatly inflates storage utilization, network load, and job completion times in the cluster. In this paper, we investigate the option of storing container images in and serving them from a distributed file system. By sharing images in a distributed storage layer, storage utilization can be reduced and redundant image retrievals from a Docker registry become unnecessary. We introduce Wharf, a middleware to transparently add distributed storage support to Docker. Wharf partitions Docker's runtime state into local and global parts and efficiently synchronizes accesses to the global state. By exploiting the layered structure of Docker images, Wharf minimizes the synchronization overhead. Our experiments show that compared to Docker on local storage, Wharf can speed up image retrievals by up to 12x, has more stable performance, and introduces only a minor overhead when accessing data on distributed storage.

Chao Zheng - One of the best experts on this subject based on the ideXlab platform.

  • SoCC - Wharf: Sharing Docker Images in a Distributed File System
    Proceedings of the ACM Symposium on Cloud Computing, 2018
    Co-Authors: Chao Zheng, Vasily Tarasov, Lukas Rupprecht, Dimitrios Skourtis, Mohamed Mohamed, Douglas Thain, Amit Warke, Dean Hildebrand
    Abstract:

    Container management frameworks, such as Docker, package diverse applications and their complex dependencies in self-contained images, which facilitates application deployment, distribution, and sharing. Currently, Docker employs a shared-nothing storage architecture, i.e. every Docker-enabled host requires its own copy of an image on local storage to create and run containers. This greatly inflates storage utilization, network load, and job completion times in the cluster. In this paper, we investigate the option of storing container images in and serving them from a distributed file system. By sharing images in a distributed storage layer, storage utilization can be reduced and redundant image retrievals from a Docker registry become unnecessary. We introduce Wharf, a middleware to transparently add distributed storage support to Docker. Wharf partitions Docker's runtime state into local and global parts and efficiently synchronizes accesses to the global state. By exploiting the layered structure of Docker images, Wharf minimizes the synchronization overhead. Our experiments show that compared to Docker on local storage, Wharf can speed up image retrievals by up to 12x, has more stable performance, and introduces only a minor overhead when accessing data on distributed storage.

  • Wharf sharing docker images in a distributed file system
    Symposium on Cloud Computing, 2018
    Co-Authors: Chao Zheng, Vasily Tarasov, Lukas Rupprecht, Dimitrios Skourtis, Mohamed Mohamed, Douglas Thain, Amit Warke, Dean Hildebrand
    Abstract:

    Container management frameworks, such as Docker, package diverse applications and their complex dependencies in self-contained images, which facilitates application deployment, distribution, and sharing. Currently, Docker employs a shared-nothing storage architecture, i.e. every Docker-enabled host requires its own copy of an image on local storage to create and run containers. This greatly inflates storage utilization, network load, and job completion times in the cluster. In this paper, we investigate the option of storing container images in and serving them from a distributed file system. By sharing images in a distributed storage layer, storage utilization can be reduced and redundant image retrievals from a Docker registry become unnecessary. We introduce Wharf, a middleware to transparently add distributed storage support to Docker. Wharf partitions Docker's runtime state into local and global parts and efficiently synchronizes accesses to the global state. By exploiting the layered structure of Docker images, Wharf minimizes the synchronization overhead. Our experiments show that compared to Docker on local storage, Wharf can speed up image retrievals by up to 12x, has more stable performance, and introduces only a minor overhead when accessing data on distributed storage.

Vasily Tarasov - One of the best experts on this subject based on the ideXlab platform.

  • SoCC - Wharf: Sharing Docker Images in a Distributed File System
    Proceedings of the ACM Symposium on Cloud Computing, 2018
    Co-Authors: Chao Zheng, Vasily Tarasov, Lukas Rupprecht, Dimitrios Skourtis, Mohamed Mohamed, Douglas Thain, Amit Warke, Dean Hildebrand
    Abstract:

    Container management frameworks, such as Docker, package diverse applications and their complex dependencies in self-contained images, which facilitates application deployment, distribution, and sharing. Currently, Docker employs a shared-nothing storage architecture, i.e. every Docker-enabled host requires its own copy of an image on local storage to create and run containers. This greatly inflates storage utilization, network load, and job completion times in the cluster. In this paper, we investigate the option of storing container images in and serving them from a distributed file system. By sharing images in a distributed storage layer, storage utilization can be reduced and redundant image retrievals from a Docker registry become unnecessary. We introduce Wharf, a middleware to transparently add distributed storage support to Docker. Wharf partitions Docker's runtime state into local and global parts and efficiently synchronizes accesses to the global state. By exploiting the layered structure of Docker images, Wharf minimizes the synchronization overhead. Our experiments show that compared to Docker on local storage, Wharf can speed up image retrievals by up to 12x, has more stable performance, and introduces only a minor overhead when accessing data on distributed storage.

  • Wharf sharing docker images in a distributed file system
    Symposium on Cloud Computing, 2018
    Co-Authors: Chao Zheng, Vasily Tarasov, Lukas Rupprecht, Dimitrios Skourtis, Mohamed Mohamed, Douglas Thain, Amit Warke, Dean Hildebrand
    Abstract:

    Container management frameworks, such as Docker, package diverse applications and their complex dependencies in self-contained images, which facilitates application deployment, distribution, and sharing. Currently, Docker employs a shared-nothing storage architecture, i.e. every Docker-enabled host requires its own copy of an image on local storage to create and run containers. This greatly inflates storage utilization, network load, and job completion times in the cluster. In this paper, we investigate the option of storing container images in and serving them from a distributed file system. By sharing images in a distributed storage layer, storage utilization can be reduced and redundant image retrievals from a Docker registry become unnecessary. We introduce Wharf, a middleware to transparently add distributed storage support to Docker. Wharf partitions Docker's runtime state into local and global parts and efficiently synchronizes accesses to the global state. By exploiting the layered structure of Docker images, Wharf minimizes the synchronization overhead. Our experiments show that compared to Docker on local storage, Wharf can speed up image retrievals by up to 12x, has more stable performance, and introduces only a minor overhead when accessing data on distributed storage.

Lukas Rupprecht - One of the best experts on this subject based on the ideXlab platform.

  • SoCC - Wharf: Sharing Docker Images in a Distributed File System
    Proceedings of the ACM Symposium on Cloud Computing, 2018
    Co-Authors: Chao Zheng, Vasily Tarasov, Lukas Rupprecht, Dimitrios Skourtis, Mohamed Mohamed, Douglas Thain, Amit Warke, Dean Hildebrand
    Abstract:

    Container management frameworks, such as Docker, package diverse applications and their complex dependencies in self-contained images, which facilitates application deployment, distribution, and sharing. Currently, Docker employs a shared-nothing storage architecture, i.e. every Docker-enabled host requires its own copy of an image on local storage to create and run containers. This greatly inflates storage utilization, network load, and job completion times in the cluster. In this paper, we investigate the option of storing container images in and serving them from a distributed file system. By sharing images in a distributed storage layer, storage utilization can be reduced and redundant image retrievals from a Docker registry become unnecessary. We introduce Wharf, a middleware to transparently add distributed storage support to Docker. Wharf partitions Docker's runtime state into local and global parts and efficiently synchronizes accesses to the global state. By exploiting the layered structure of Docker images, Wharf minimizes the synchronization overhead. Our experiments show that compared to Docker on local storage, Wharf can speed up image retrievals by up to 12x, has more stable performance, and introduces only a minor overhead when accessing data on distributed storage.

  • Wharf sharing docker images in a distributed file system
    Symposium on Cloud Computing, 2018
    Co-Authors: Chao Zheng, Vasily Tarasov, Lukas Rupprecht, Dimitrios Skourtis, Mohamed Mohamed, Douglas Thain, Amit Warke, Dean Hildebrand
    Abstract:

    Container management frameworks, such as Docker, package diverse applications and their complex dependencies in self-contained images, which facilitates application deployment, distribution, and sharing. Currently, Docker employs a shared-nothing storage architecture, i.e. every Docker-enabled host requires its own copy of an image on local storage to create and run containers. This greatly inflates storage utilization, network load, and job completion times in the cluster. In this paper, we investigate the option of storing container images in and serving them from a distributed file system. By sharing images in a distributed storage layer, storage utilization can be reduced and redundant image retrievals from a Docker registry become unnecessary. We introduce Wharf, a middleware to transparently add distributed storage support to Docker. Wharf partitions Docker's runtime state into local and global parts and efficiently synchronizes accesses to the global state. By exploiting the layered structure of Docker images, Wharf minimizes the synchronization overhead. Our experiments show that compared to Docker on local storage, Wharf can speed up image retrievals by up to 12x, has more stable performance, and introduces only a minor overhead when accessing data on distributed storage.

Amit Warke - One of the best experts on this subject based on the ideXlab platform.

  • SoCC - Wharf: Sharing Docker Images in a Distributed File System
    Proceedings of the ACM Symposium on Cloud Computing, 2018
    Co-Authors: Chao Zheng, Vasily Tarasov, Lukas Rupprecht, Dimitrios Skourtis, Mohamed Mohamed, Douglas Thain, Amit Warke, Dean Hildebrand
    Abstract:

    Container management frameworks, such as Docker, package diverse applications and their complex dependencies in self-contained images, which facilitates application deployment, distribution, and sharing. Currently, Docker employs a shared-nothing storage architecture, i.e. every Docker-enabled host requires its own copy of an image on local storage to create and run containers. This greatly inflates storage utilization, network load, and job completion times in the cluster. In this paper, we investigate the option of storing container images in and serving them from a distributed file system. By sharing images in a distributed storage layer, storage utilization can be reduced and redundant image retrievals from a Docker registry become unnecessary. We introduce Wharf, a middleware to transparently add distributed storage support to Docker. Wharf partitions Docker's runtime state into local and global parts and efficiently synchronizes accesses to the global state. By exploiting the layered structure of Docker images, Wharf minimizes the synchronization overhead. Our experiments show that compared to Docker on local storage, Wharf can speed up image retrievals by up to 12x, has more stable performance, and introduces only a minor overhead when accessing data on distributed storage.

  • Wharf sharing docker images in a distributed file system
    Symposium on Cloud Computing, 2018
    Co-Authors: Chao Zheng, Vasily Tarasov, Lukas Rupprecht, Dimitrios Skourtis, Mohamed Mohamed, Douglas Thain, Amit Warke, Dean Hildebrand
    Abstract:

    Container management frameworks, such as Docker, package diverse applications and their complex dependencies in self-contained images, which facilitates application deployment, distribution, and sharing. Currently, Docker employs a shared-nothing storage architecture, i.e. every Docker-enabled host requires its own copy of an image on local storage to create and run containers. This greatly inflates storage utilization, network load, and job completion times in the cluster. In this paper, we investigate the option of storing container images in and serving them from a distributed file system. By sharing images in a distributed storage layer, storage utilization can be reduced and redundant image retrievals from a Docker registry become unnecessary. We introduce Wharf, a middleware to transparently add distributed storage support to Docker. Wharf partitions Docker's runtime state into local and global parts and efficiently synchronizes accesses to the global state. By exploiting the layered structure of Docker images, Wharf minimizes the synchronization overhead. Our experiments show that compared to Docker on local storage, Wharf can speed up image retrievals by up to 12x, has more stable performance, and introduces only a minor overhead when accessing data on distributed storage.