Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  consider a distributed storage system where data storage nodes are equipped with energy harvesting transmitters. In particular,   $F$   files are stored over   $n$   storage nodes using regenerating codes. The main operations of the distributed storage system are serving the file requests of data collectors and repairing the content of storage nodes that fail or leave the system. Each operation has an associated energy expenditure. Under the intermittent energy arrival profile,  study the problem of maximizing the number of retrieved files given a deadline. Additionally,  consider the problem of minimizing the repair time of a failed node. Both optimization problems turn out to be equivalent to binary programs, for which  provide a tractable solution in two steps. First,  determine necessary and sufficient conditions on the harvested energy that ascertain the feasibility of retrieving (repairing)   $M$   files in   $T$   time slots. Using these conditions,  develop two algorithms that reduce the formulated optimization problems to a single feasibility problem. Then,  solve the feasibility problem using forward and backward algorithms. Additionally,  study the online setup where only causal knowledge of energy arrivals is available at the network nodes.  present numerical results on the short and long term performance of the system operations under the proposed algorithms.
['Abdelrahman M. Ibrahim', 'Ahmed A. Zewail', 'Aylin Yener']
I am writing a research paper on a idea Green Distributed Storage Using Energy Harvesting Nodes
[{"from": "human", "value": "I am writing a research paper on a idea Green Distributed Storage Using Energy Harvesting Nodes"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  consider a distributed storage system where data storage nodes are equipped with energy harvesting transmitters. In particular,   $F$   files are stored over   $n$   storage nodes using regenerating codes. The main operations of the distributed storage system are serving the file requests of data collectors and repairing the content of storage nodes that fail or leave the system. Each operation has an associated energy expenditure. Under the intermittent energy arrival profile,  study the problem of maximizing the number of retrieved files given a deadline. Additionally,  consider the problem of minimizing the repair time of a failed node. Both optimization problems turn out to be equivalent to binary programs, for which  provide a tractable solution in two steps. First,  determine necessary and sufficient conditions on the harvested energy that ascertain the feasibility of retrieving (repairing)   $M$   files in   $T$   time slots. Using these conditions,  develop two algorithms that reduce the formulated optimization problems to a single feasibility problem. Then,  solve the feasibility problem using forward and backward algorithms. Additionally,  study the online setup where only causal knowledge of energy arrivals is available at the network nodes.  present numerical results on the short and long term performance of the system operations under the proposed algorithms."}]