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An Experimental Protocol for Explainable AI-Driven Secure Cloud Data Migration Using Synthetic Healthcare Data.

Aug 2026 · Journal of Visualized Experiments · Vol 234 · 0 citations
Medicine

TL;DR

A reproducible protocol for explainable artificial intelligence (XAI)-based secure cloud data migration using a synthetic healthcare dataset and a controlled cloud environment that merges zero-trust architecture, temporal least privilege, encrypted communication, centralized monitoring, and explainable anomaly detection to have a more secure, transparent, and auditable migration.

Abstract

In healthcare systems, more and more cloud data migration is being done, but this also changes the times when data transfer is probably the biggest risk in terms of security. This paper describes a reproducible protocol for explainable artificial intelligence (XAI)-based secure cloud data migration using a synthetic healthcare dataset and a controlled cloud environment. The developed framework merges zero-trust architecture, temporal least privilege, encrypted communication, centralized monitoring, and explainable anomaly detection to have a more secure, transparent, and auditable migration. The tests use a 10 GB dataset of synthetic electronic health records, comprising approximately 20 million records across 28 relational tables. The migration process was carried out on Amazon web services (AWS) using PostgreSQL databases and private virtual networks. For anomaly detection, Isolation Forest was utilized, and Shapley additive explanations (SHAP) served for the secure event interpretation. The framework was evaluated on ten separate migration attempts using metrics such as credential exposure duration, incident detection time, anomaly-detection accuracy, migration latency, and data integrity. Under the configuration tested, credential exposure was reduced from 24 h to 1 h (a 95.8% reduction), the accuracy of anomaly detection was 97.4%, incident detection time was reduced to about 15 min, and 100% data integrity was preserved through checksum validation. However, the stronger security measures resulted in an average migration latency increase of 11%. These results showcase the promise of merging explainable AI with secure cloud migration workflows for managing healthcare data.

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