Cloud data storage is an essential requirement under the framework of the
contemporary computing environment, particularly with regard to the growing
amount of sensitive data and cyber-attacks. Nevertheless, it is currently hard to
guarantee strong anomaly detection and the ability to keep the data confidential
because of the complex patterns of user behavior, dynamic contexts of access, and
the necessity to conduct privacy-preserving computation. To address these
challenges, an advanced framework is proposed, Clifford-Latent Convolutional
Network with Dhole Optimization Algorithm (CLCN-DOA) facilitated by
Efficient Quantum Homomorphic Encryption (EQHE) for secure cloud data
management and anomaly detection. First, pre-processing is performed on the
access logs in the cloud which makes use of Adaptive Sliding Window
Normalization (ASWN) to remove noise from the records and normalize the
behavioral features. A Convolutional Swin-Transformer Network (CSTN) is then
used to extract the hierarchical and robust features. The CLCN, in turn, combines
Clifford-Steerable Convolutional Neural Networks (CSCNN) and a Latent
Attention Network (LAN), leveraging the strengths of both to extract both
geometric and behavioral patterns (latent) from the data. The DOA optimizes
network parameters to reduce the amount of false positives and improve
detection accuracy, and EQHE reduces data confidentiality when stored and
processed. Extensive analyses demonstrate that the suggested framework obtains
a high accuracy of 99.7%, low-latency of 68 ms, and low-storage overhead of
28.6%. These results demonstrate that the recommended system is strong,
effective, and capable of safely storing cloud data and detecting anomalies in reallife
settings.
Keywords: Cloud Data Storage, Clifford-Latent Convolutional Network, Dhole
Optimization Algorithm, Efficient Quantum Homomorphic Encryption,
Convolutional Swin-Transformer Network
