Neuro-Immuno-Metabolic Precision Modulation in Refractory Cardiagenic Shock: Integration of Bioelectronic Medicine, Real-Time Multi-Omics Monitoring, and Adaptive Mechanical Circulatory Support Algorithms

Abstract Refractory cardiogenic shock (CS) remains a leading cause of mortality in critical care, characterized by persistent hemodynamic instability despite optimal medical therapy. This review proposes a novel integrative framework for precision modulation of the neuro-immuno-metabolic axis in refractory CS, combining bioelectronic medicine (e.g., vagus nerve stimulation), real-time multi-omics monitoring (genomics, proteomics, metabolomics), and adaptive mechanical circulatory support (MCS) algorithms. By leveraging autonomic neuromodulation to mitigate inflammation, continuous omics profiling for biomarker-driven decision-making, and intelligent MCS adjustments, this approach aims to interrupt the vicious cycle of systemic inflammation, metabolic derangement, and organ failure. Evidence from preclinical and clinical studies supports the feasibility of this integration, with potential to improve survival rates from 40-50% to higher thresholds through personalized therapy. Challenges include data integration, ethical considerations, and prospective validation. Future directions emphasize AI-driven platforms for real-time optimization. Keywords: Cardiogenic shock; Bioelectronic medicine; Multi-omics; Mechanical circulatory support; Neuro-immuno-metabolic axis; Precision medicine.