The main objective of "A Practical Framework for Secure Document Retrieval in Encrypted Cloud File Systems" is to develop a comprehensive and efficient approach that enables users to securely retrieve their documents from encrypted cloud file systems while preserving data confidentiality and minimizing computational overhead. The framework aims to address the challenges of secure document retrieval in cloud environments by implementing robust encryption schemes, access control mechanisms, and optimized search algorithms.
With the development of cloud computing, more and more data owners are motivated to outsource their documents to the cloud and share them with the authorized data users securely and flexibly. To protect data privacy, the documents are generally encrypted before being outsourced to the cloud and hence their search ability decreases. Though many privacy-preserving document search schemes have been proposed, they cannot reach a proper balance among functionality, flexibility, security and efficiency. In this paper, a new encrypted document retrieval system is designed and a proxy server is integrated into the system to alleviate data owner's workload and improve the whole system's security level. In this process, we consider a more practical and stronger threat model in which the cloud server can collude with a small number of data users. To support multiple document search patterns, we construct two AVL trees for the filenames and authors, and a Hierarchical Retrieval Features tree (HRF tree) for the document vectors. A depth-first search algorithm is designed for the HRF tree and the Enhanced Asymmetric Scalar-Product-Preserving Encryption (Enhanced ASPE) algorithm is utilized to encrypt the HRF tree. All the three index trees are linked with each other to efficiently support the search requests with multiple parameters. Theoretical analysis and simulation results illustrate the security and efficiency of the proposed framework
KEYWORDS: Cloud Computing , Indexes, Security, Encryption, Search problem, Simulation .
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Software & Hardware Requirements:
H/W System Configuration:-
Processor-I3/Intel Processor
RAM-8GB (min)
Hard Disk-500GB
S/W System Configuration:
Operating System: Windows 7/8/10
Application Server: Tomcat 7.0
Front End: HTML,JSP
Scripts: JavaScript.
Server side Script: Java Server Pages.
Database: My SQL 6.0
Database Connectivity: JDBC