Electromagnetic Energy as a Bridge Between Atomic and Cellular Levels in the Genetics Approach to Cancer Treatment

Title:Electromagnetic Energy as a Bridge Between Atomic and Cellular Levels in the Genetics Approach to Cancer Treatment

Volume: 15 Issue: 6

Author(s): Santi Tofani

Affiliation:

Keywords: Apoptosis, Cancer treatment, Genetic instability, Magnetic fields, p53, Quantum biology, Quantum physics.

Abstract: Literature on magnetic fields (MF) and gene expression, as well as on DNA damage, supports the hypothesis that electromagnetic energy may act at atomic level influencing genetic stability. According to quantum physics, MF act on the interconversion of singlet and triplet spin states, and therefore on genetic instability, activating oxidative processes connected to biological free radicals formation, particularly ROS. In the above frame, the results of in vitro and in vivo laboratory trials have been analyzed. The use of a static MF amplitude modulated by 50 Hz MF, with a time average total intensity of 5.5 mT, has been shown to influence tumor cell functions such as cell proliferation, apoptosis, p53 expression, inhibition of tumor growth and prolongation of survival in animals, evidence that MF can be more effective than chemotherapy (cyclophosphamide) in inhibiting metastatic spread and growth, having synergistic activity with chemotherapy (Cis-platin), and no observable side effects or toxicity in animals or in humans. The beneficial biological/clinical effects observed, without any adverse effects, have been confirmed by various authors and augur well for the potentiality of this new approach to treat genetically based diseases like cancer. Further studies are needed to develop a quantum physics approach to biology, allowing a stable bridge to be built between atomic and cellular levels, therefore developing quantum biology.

Cite this article as:

Tofani Santi, Electromagnetic Energy as a Bridge Between Atomic and Cellular Levels in the Genetics Approach to Cancer Treatment, Current Topics in Medicinal Chemistry 2015; 15 (6) . https://dx.doi.org/10.2174/1568026615666150225104217