Meridian Mechanics: A Clinical and Biomechanical Interpretation of Functional Acupuncture Pathways

This preprint presents Meridian Mechanics, a clinically derived biomechanical and neurophysiological framework for interpreting acupuncture pathways and meridian-related phenomena. The model is based on long-term clinical observation conducted across several thousand treatment sessions involving manual palpation, functional neurological assessment, musculoskeletal evaluation, and physiological response testing during meridian stimulation. Rather than interpreting meridians as isolated energetic conduits or fixed anatomical structures, the framework proposes that they may reflect distributed systems of physiological coordination involving connective tissue dynamics, neuromuscular regulation, respiratory synchronization, autonomic function, and mechanically mediated systemic signaling. The paper focuses primarily on clinically reproducible observations involving muscular tone regulation, fascial tension behavior, organ mobility, rhythmic tissue dynamics, and functional coordination patterns associated with specific acupuncture pathways. These findings are interpreted within a contemporary biomechanical and neurophysiological context informed by fascia research, mechanotransduction, systems physiology, and integrative models of whole-body regulation. This revised Version 2 significantly restructures and refines the original preprint by: emphasizing clinical and physiological observations over speculative interpretation removing unsupported higher-dimensional theoretical claims strengthening the biomechanical and neurophysiological framework integrating contemporary fascia and mechanotransduction research clarifying the distinction between observation, interpretation, and exploratory theory improving scientific structure, terminology, and methodological transparency The paper does not claim definitive proof of a previously unknown anatomical system. Instead, it presents a hypothesis-generating observational framework intended to support future interdisciplinary research into large-scale physiological coordination mechanisms within human biology. Potential future areas of investigation include biomechanical imaging, electrophysiology, autonomic measurement, connective tissue dynamics, and systemic oscillatory regulation. Invitation to Researchers Researchers in physiology, biophysics, neuroscience, osteopathy, and integrative medicine are warmly invited to examine, test, and evaluate the proposed framework.Constructive feedback, validation attempts, and independent analyses are highly appreciated.Correspondence can be directed to henrik@parsecleaptech.com.