Sunday, November 27, 2016

Elimination of Frequency Modulated Field Suppression of Melanoma Cell by Simultaneous Exposure to a Patterned Associated With Memory in Mammals

Discussion:
Many other experimenters [1-4] as well as our research
group have shown that exposures of malignant cells for one or
more hours per day for five or so consecutive days results in
consistent suppression of growth rates. Normal cells have not
been affected.  The optimal point duration that is the specific
time each number that generates a particular voltage and a
specific strength of magnet fieldoccurs, is 3 ms. This point
duration has been associated with the properties of protons
within space [12], the duratin and conecntration of the
proton movements within the hydronium ion and their
dynamics within proton channels [21].

Abstract:
Strategic whole body application of physiologically patterned,
weak magnetic fields has been evolving as a
third option to treat cancer. Unlike chemical therapies and
ionizing radiation physiologically-patterned magnetic
fields diminish the growth of only malignant cells but not
normal cells. In addition these fields provide some
analgesic relief. To discern if competing magnetic fields
might abolish the beneficial effects mouse melanoma
cells in culture were exposed for 1 hour per day for 5 days
to decelerating frequency modulated patterned magnetic
fields that are well known for their growth suppressive
effects mediated by T-Type calcium channels. Typical
suppression rates were obtained. Exposure to a second
pattern that evokes LTP (long term potentiation) in
hippocampal slices and is the primary physical correlate of
memory, produced minimal effects. However when the
effective daily frequency-modulated hourly exposures
were preceded by only 30 min of LTP patterned magnetic
fields the growth suppression effects were completely
abolished. These results indicate certain patterned fields
cancel the beneficial effects and that the processes that
underlie proliferation of malignant cells and memory
consolidation in nervous tissue may share characteristics.

Get PDF here:
https://drive.google.com/open?id=0B5VdJBEJYIIvdjVOX2ttNjBlRkE

No comments:

Post a Comment