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May 18, 2026Scientific Reports1 citationsOpen Access

Quantum-enhanced federated blockchain for privacy-preserving cardiovascular intelligence

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RSR. SivakamiVKV. Vinoth KumarNKN. Krishnamoorthy

Key Points

  • The aim is to enhance cardiovascular risk prediction while ensuring patient privacy using an innovative blockchain framework.
  • Developed the Decentralized Federated Blockchain for Cardiovascular Intelligence (DFBCI) framework.
  • Integrated Multi-Chain Aggregation with Adaptive Consensus (MCAC) and Federated Dynamic Relational Learning (FDRL).
  • Executed feature extraction using Quantum-Enhanced Privacy Masking (QEPM) and performed decentralized validation with smart contracts.
  • Achieved 19% better cardiovascular disease risk prediction compared to standard methods.
  • Reduced convergence time by 22% and enhanced scalability by 27%.
  • Established a platform for secure collaborative assessments without privacy violations.

Abstract

Cardio-Vascular Diseases (CvDs) persist as a significant mortality reason worldwide, which requires advanced risk categorization technologies that can offer custom medicine while protecting patient information. Present healthcare approaches must overcome fragmented data distribution systems, weak security measures in collaborative environments, and the ineffective processing of multi-mode clinical details. Our proposed Decentralized Federated Blockchain for Cardiovascular Intelligence (DFBCI) framework integrates the Multi-Chain Aggregation with Adaptive Consensus (MCAC) mechanism and the advanced Federated Dynamic Relational Learning (FDRL) technique to solve identified challenges. The DFBCI system enables protected cooperation between institutions through its blockchain multi-chain setup that securely combines medical data with imaging information while maintaining data integrity. The FDRL technique extracts patient temporal behavior knowledge from different modalities, which include ElectroCardioGrams (ECGs), echocardiograms, and biomarker datasets. The system executes feature extraction using Quantum-Enhanced Privacy Masking (QEPM) for security alongside non-invasive cardiac risk modeling through federated optimization and performs decentralized validation with smart contracts. Compared to standard approaches, Experimental results reveal that models achieve 19% better CvD risk prediction while reducing their convergence time by 22% and enhancing scalability by 27%. DFBCI creates powerful healthcare analytical platforms that advance secure CvD risk sorting worldwide without violating privacy rights, setting benchmark for fast, collaborative assessments.

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Cite This Study

Sivakami et al. (2026) studied this question.

synapsesocial.com/papers/6a0aac2b5ba8ef6d83b6fb75https://doi.org/10.1038/s41598-026-47521-7
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