Autonomous Integration Mesh for Resilient, Scalable, and Patient-Centric Healthcare Platforms
DOI:
https://doi.org/10.32996/jcsts.2025.7.10.48Keywords:
Healthcare Integration Mesh, Autonomous Failure Recovery, Clinical Workflow Resilience, Healthcare API Management, Predictive System Monitoring, Patient journey orchestration, Real-time care pathway tracking, Medication management integration, Drug interaction checking, Clinical decision support alerts, Pharmacy inventory managementAbstract
Healthcare systems face unprecedented challenges in maintaining scalable, secure, and continuously available integration among Electronic Health Records, telemedicine APIs, and AI diagnostics platforms. The Self-Healing Healthcare Integration Mesh (SHHIM) represents a revolutionary architecture that autonomously detects, isolates, and recovers from integration failures across large-scale healthcare ecosystems. Built upon federated service mesh technology with embedded health monitoring agents and anomaly detection engines, SHHIM ensures uninterrupted clinical workflows, secure patient data movement, and intelligent traffic rerouting capabilities. The architecture incorporates machine learning algorithms specifically trained on healthcare API traffic patterns, enabling predictive failure detection and proactive intervention before system disruptions impact patient care delivery. SHHIM implements sophisticated policy-based fallback automation that prioritizes critical patient data flows over routine administrative transactions during system stress conditions. Validation demonstrates exceptional uptime performance through self-healing routing mechanisms while maintaining strict HIPAA compliance and comprehensive audit trail preservation. The system achieves remarkable improvements in recovery time compared to traditional healthcare integration approaches, with automated mechanisms restoring functionality significantly faster than manual intervention procedures. Performance testing across diverse healthcare scenarios confirms minimal latency overhead and efficient resource utilization without compromising system responsiveness or scalability under high-load conditions involving extensive concurrent patient data transactions.


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