2008Unpublished venueRequires access

Heterogeneous file sharing by file-system emulation

Cherng-Ying Ing, Tzao-Lin Lee

Open publisher page 0 citations

Abstract

File sharing among heterogeneous systems is always a pain due to different conventions and file sharing mechanisms involved in both ends. Although the evolving of USB standards and the spread of USB storage devices alleviate the heterogeneous file sharing effort, the performance of the file transferring is degraded due to the bandwidth reduction introduced by the storage technologies and the fact that the amount of data must be transferred twice, i.e., to and from the storage. We propose a file-system emulation based scheme to transfer files across heterogeneous systems easy and fast. It takes the advantage of standard USB storage protocol to achieve driver-less translation layer for the target system. The overall transfer speed is improved by utilizing the file cache of the source system. The actual amount of data is transferred once without temporarily keeping a copy in the intermediate medium. We also mention example applications such as an UPnP file-server adapter and an improved file-sharing cable.

About this research paper

What this paper is about

File sharing among heterogeneous systems is always a pain due to different conventions and file sharing mechanisms involved in both ends. Although the evolving of USB standards and the spread of USB storage devices alleviate the heterogeneous file sharing effort, the performance of the file transferring is degraded due to the bandwidth reduction introduced by the storage technologies and the fact that the amount of data must be transferred twice, i.e., to and from the storage. We propose a file-system emulation based scheme to transfer files across heterogeneous systems easy and fast. It takes the advantage of standard USB storage protocol to achieve driver-less translation layer for the target system. The overall transfer speed is improved by utilizing the file cache of the source system. The actual amount of data is transferred once without temporarily keeping a copy in the intermediate medium. We also mention example applications such as an UPnP file-server adapter and an improved file-sharing cable.

Why it matters

A significance statement is not available in the OpenAlex record.

Key contribution

A contribution statement is not available in the OpenAlex record.

Method / approach

Method details are not available in the OpenAlex metadata.

Main findings

Findings are not separately available in the OpenAlex metadata.

Limitations

Limitations are not available in the OpenAlex metadata.

Applications

Application details are not available in the OpenAlex metadata.

Available abstract

File sharing among heterogeneous systems is always a pain due to different conventions and file sharing mechanisms involved in both ends. Although the evolving of USB standards and the spread of USB storage devices alleviate the heterogeneous file sharing effort, the performance of the file transferring is degraded due to the bandwidth reduction introduced by the storage technologies and the fact that the amount of data must be transferred twice, i.e., to and from the storage. We propose a file-system emulation based scheme to transfer files across heterogeneous systems easy and fast. It takes the advantage of standard USB storage protocol to achieve driver-less translation layer for the target system. The overall transfer speed is improved by utilizing the file cache of the source system. The actual amount of data is transferred once without temporarily keeping a copy in the intermediate medium. We also mention example applications such as an UPnP file-server adapter and an improved file-sharing cable.

Key concepts: Computer science, Unix file types, Operating system, SSH File Transfer Protocol, Computer file, Virtual file system, Versioning file system, File system fragmentation

Related papers

Back to paper searchBrowse research topicsOriginal source
Heterogeneous file sharing by file-system emulation — Research Paper | ScholarLens