The Third Option for Stopping Cancer: Complex, Temporally Patterned Weak Magnetic Fields- Critical Factors That Influence Their Efficacy and Potential Mechanisms
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One of the most promising technologies for suppressing the growth of malignant (cancer) cells without adversely affecting normal cells involves the application of physiologically-patterned and bioquantum compatible magnetic fields with specific temporal increments generated by optocoupler circuits through each of the three spatial planes. However, experimentally generated magnetic field patterns designed to target cancer cells are also immersed within the magnetic environment of the incubators. We measured anomalous alterations in the horizontal (primarily “east-west”) component of the geomagnetic static field intensity within cell incubators when the most effective experimental field was being generated between three sets of solenoids. The eccentric response was a function of the six solenoids being wrapped or not wrapped with copper foil. In addition, activating or deactivating the experimental field for fixed increments was associated with discrete and obvious DC shifts in the horizontal component as well as emergent patterns that were not a component of either the experimental field or the background incubator 60 Hz source. If the temporal pattern that defines the effects induced by these magnetic fields is analogous to the spatial patterns that define chemical functions, failure to accommodate these anisotropic transients could be a source of the frequent contradictions and inter-laboratory failures to replicate these phenomena. We suggest that the emergent phenomena from these interactions with quantum-like features may be the causal variables responsible for many of the promising effects for cancer suppression. A modified Dicke model derived from quantum optics where cells cooperatively interact with a single mode of the field and their dipole fields interact coherently may accommodate the observed effects.
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