Compressive Sensing Encryption Scheme with Anonymous Traitor Tracing for Cloud Storage Security

The explosive growth of information imposes a huge storage burden on the personal communication terminal and causes serious challenges to the communication bandwidth and security. Therefore, many compressive sensing (CS) encryption schemes are proposed to solve this problem. However, the decryption key in these papers needs to be shared with the users and cannot prevent the receivers from intentionally leaking the key. Once the key is compromised, the cloud system could not find the traitor who reveals the key. To address the problem, we propose the compressive sensing scheme with traitor tracing for cloud storage, which can ensure information security and simultaneously reduce the storage and transmission burden while maintaining low overhead at the user side. The work presented supports anonymous traitor tracking that can track any anonymous traitors who reveal their keys, so guarantee the security of the key. In addition, our scheme handles the ciphertext integrity protection and energy leakage in existing CS encryption schemes. Simulation results show that our scheme improves the overall compression and recovery performance compared to other CS encryption schemes. Our scheme can be used to efficiently encrypt sensitive information in online database, virtual currency, Internet of Things (IoT) and cloud encryption systems.

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