Hiroyuki Yaguchi
DOI: 10.37421/2476-2296.2026.13.393
Modern regenerative medicine has largely focused on biochemical pathways, stem-cell biology, tissue engineering and molecular signaling. However, growing evidence from photobiomodulation, bioelectromagnetics and biophoton research suggests that biological systems may also respond to physical signaling mechanisms that remain incompletely understood. This paper proposes a theoretical framework integrating regenerative medicine with emerging concepts in biophysics, cellular communication and alternative electrodynamics.
Particular attention is given to hypotheses involving electromagnetic coherence, biophoton signaling, DNA resonance and scalar-wave models. Historical contributions from Nikola Tesla, Fritz-Albert Popp, Bruce Copen and Konstantin Meyl are examined as part of a broader effort to identify testable mechanisms that may influence biological organization and repair. While many of these concepts remain controversial, advances in stemcell biology and molecular measurement technologies now permit experimental evaluation of previously inaccessible questions.
The objective of this work is not to establish the validity of any specific scalar-wave theory, but rather to develop a scientific framework capable of generating testable predictions regarding DNA repair, genomic stability, cellular communication and regenerative processes.
Fluid Mechanics: Open Access received 291 citations as per Google Scholar report
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