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Modeling Meridians Within the Quantum Field Theory.
Larissa Brizhik1, Enrico Chiappini2, Patrizia Stefanini3
1Bogolyubov Institute for Theoretical Physics, Department of Theory of Nonlinear Processes in Condensed Systems, Kyiv, Ukraine; Wessex Institute of Technology, Ashurst, Southampton, UK.
Journal of Acupuncture and Meridian Studies
|July 30, 2018
Summary
This study models biological meridians using quantum field theory, exploring electromagnetic field dynamics and solitary waves in proteins for non-dissipative energy transport. It links meridians to anatomical structures and biochemical processes via energy principles.
Area of Science:
- Quantum Field Theory
- Biophysics
- Electromagnetism
Background:
- Meridians are pathways in traditional medicine.
- Understanding their physical basis is crucial.
- Electromagnetic fields play roles in biological systems.
Purpose of the Study:
- To model biological meridians using quantum field theory.
- To investigate the role of electromagnetic fields in meridian dynamics.
- To explore energy transport mechanisms within anatomical structures.
Main Methods:
- Applying gauge theory and spontaneous symmetry breakdown.
- Analyzing electromagnetic field propagation in coherent states.
- Modeling solitary wave formation on proteins and filamentary structures.
Main Results:
- A theoretical model for meridians is established.
- Dynamic self-focusing of electromagnetic fields is described.
- Nondissipative energy transport via solitary waves is proposed.
- Connections between meridians, anatomy, and biochemical activity are analyzed.
Conclusions:
- Meridian modeling is advanced using quantum field theory.
- Electromagnetic fields and solitary waves are key to energy transport.
- Thermodynamic principles (free energy, entropy) are integral to meridian function.
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