Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Peer-to-peer distributed storage systems provide reliable access to data through redundancy spread over nodes across the Internet. A key goal is to minimize the amount of bandwidth used to maintain that redundancy. Storing a file using an erasure code, in fragments spread across nodes, promises to require less redundancy and hence less maintenance bandwidth than simple replication to provide the same level of reliability. Hover, since fragments must be periodically replaced as nodes fail, a key question is how to generate a new fragment in a distributed way while transferring as little data as possible across the network. ,  introduce a general technique to analyze storage architectures that combine any form of coding and replication, as ll as presenting two new schemes for maintaining redundancy using erasure codes. First,  show how to optimally generate MDS fragments directly from existing fragments in the system. Second,  introduce a new scheme called regenerating codes which use slightly larger fragments than MDS but have lor overall bandwidth use.  also show through simulation that in realistic environments, regenerating codes can reduce maintenance bandwidth use by 25% or more compared with the best previous design - a hybrid of replication and erasure codes - while simplifying system architecture.
['Alexandros G. Dimakis', 'Philip Brighten Godfrey', 'Martin J. Wainwright', 'Kannan Ramchandran']
I am writing a research paper on a idea Network Coding for Distributed Storage Systems
[{"from": "human", "value": "I am writing a research paper on a idea Network Coding for Distributed Storage Systems"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Peer-to-peer distributed storage systems provide reliable access to data through redundancy spread over nodes across the Internet. A key goal is to minimize the amount of bandwidth used to maintain that redundancy. Storing a file using an erasure code, in fragments spread across nodes, promises to require less redundancy and hence less maintenance bandwidth than simple replication to provide the same level of reliability. Hover, since fragments must be periodically replaced as nodes fail, a key question is how to generate a new fragment in a distributed way while transferring as little data as possible across the network. ,  introduce a general technique to analyze storage architectures that combine any form of coding and replication, as ll as presenting two new schemes for maintaining redundancy using erasure codes. First,  show how to optimally generate MDS fragments directly from existing fragments in the system. Second,  introduce a new scheme called regenerating codes which use slightly larger fragments than MDS but have lor overall bandwidth use.  also show through simulation that in realistic environments, regenerating codes can reduce maintenance bandwidth use by 25% or more compared with the best previous design - a hybrid of replication and erasure codes - while simplifying system architecture."}]