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Dynamic proof of retrievability based on public auditing for coded secure cloud storage

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Abstract

Cloud storage represents a cloud delivered-service model which draws the attention of organizations and individuals due to its uncounted attractive advantages. Cloud Service Providers (CSPs) supply storage facilities while the cloud user has the ability to manage and migrate its own data towards remote cloud servers in ubiquitous and cost-effective manner. However, security and data integrity brake the evolution and scalability of such delivered-service because of data corruption and policy violation. Hence, data auditing and Proof-of-Retrievability (PoR) have been introduced to ensure the user data integrity verification in cloud storage nearby a Trusted Third Party (TTP) without downloading the entire file. Numerous related researches have been involved to enhance the computational cost of dynamic data integrity signature schemes based on PoR for corruption correctness and encoding outsourced data. However, the proposed schemes still foggy regarding computational cost complexity and data integrity issues. Thus, data corruption remains an inhibitor of the growth of cloud storage. The purpose of this paper is to establish an efficient public auditing scheme ensuring dynamic data privacy-preserving along with PoR. Thus, the proposed auditing scheme consists of ensuring the integrity of user outsourced data file by performing various functionalities such as: i) Encoding outsourced file based on Goppa codes generator matrix. ii) Generation of BLS-HVT signatures for data integrity. iii) data recovery where TTP (i.e. Verifier) has the capability to challenge the CSP (i.e. Prover) for detecting whether the stored data has been tampered or kept intact. iv) Dynamic data processing with low-computational cost.

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Authors and Affiliations

  1. Laboratory of Computing Systems and Vision (LabSIV), Agadir, Morocco

    Chawki El Balmany, Ahmed Asimi & Mohamed Bamarouf

  2. Laboratory for Sustainable Innovation and Applied Research, Technical University (LIDRA), Agadir, Morocco

    Zakariae Tbatou

Authors
  1. Chawki El Balmany
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  2. Ahmed Asimi
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  3. Mohamed Bamarouf
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  4. Zakariae Tbatou
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Correspondence to Chawki El Balmany.

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Balmany, C.E., Asimi, A., Bamarouf, M. et al. Dynamic proof of retrievability based on public auditing for coded secure cloud storage. Multimed Tools Appl 81, 39229–39249 (2022). https://doi.org/10.1007/s11042-022-13089-3

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  • DOI: https://doi.org/10.1007/s11042-022-13089-3

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