Potential Benefits and Significance of NEM
NEM may provide a common cross-cutting framework for connecting metabolic, energetic, redox, inflammatory, physiological, and dynamic processes across different medical disciplines. By emphasizing energy flow, metabolic flux, dissipation, fluctuations, perturbation responses, adaptation, and recovery, NEM may complement conventional static biomarker-based approaches and facilitate a more dynamic understanding of health and disease.
Potential benefits include improved mechanistic understanding of disease, identification of dynamic and energy-related disease phenotypes, integration of heterogeneous biomarkers and physiological measurements, improved characterization of treatment response and therapeutic adaptation, and generation of new hypotheses for diagnosis, prognosis, disease monitoring, and personalized medicine. NEM may also provide a common conceptual language for comparing apparently different diseases that share disturbances in energy utilization, metabolic regulation, or nonequilibrium adaptation.
Importantly, these benefits should be regarded as potential and testable rather than established clinical benefits. Their validity will depend on future experimental and clinical research demonstrating that NEM-based analyses provide reproducible information beyond existing approaches. (The whole content of this manuscript was generated using Artificial Intelligence (AI) including Grok, ChatGpt under the full conceptual guidance and supervision of the author )