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Interactions between
non-symmetric mechanical vector forces in the body and the autonomic
nervous system: basic requirements for any mechanical technique to
engender long-term improvements in autonomic function as well as in the
functional efficiency of the respiratory, cardiovascular, and brain
systems.
Kullok
S, Mayer
C, Backon
J, Kullok
J.
S.K.S. Bio-Equipment, Ltd., Jerusalem,
Israel.
There are known anatomical asymmetries in the
respiratory, cardiovascular, and nervous system. The coupling mechanisms
between each of these systems--lungs-heart, heart-brain, and
lungs-brain--are also asymmetrical. There is a growing body of
literature indicating that mechanical pressure asymmetrically applied to
certain areas of the human body produces changes in the balance of
autonomic parameters. These findings implicitly indicate that not only
magnitude but also the direction and point of application of the force
play a role in its influence upon the autonomic nervous system.
Therefore, we suggest that asymmetrical vector forces resulting from the
mechanical activity of the lungs, heart and blood moving throughout the
circulatory system, will also produce a lateralization effect in
autonomic balance. We postulate the existence of negative feedback loops
between brain autonomic control and mechanical functions in the body as
a fundamental part of the body's homeostatic mechanisms. It follows that
any mechanical assist to the respiratory or cardiovascular system will
be significantly reduced or even eliminated if these homeostatic
mechanisms are not taken into account. Our hypothesis predicts that a
long-term improvement in autonomic balance as well as in respiratory,
cardiovascular, and brain function can be achieved if mechanical forces
are applied to the body with the aim of reducing existing imbalances of
mechanical force vectors. This technique implies continually controlling
for precise timings resulting from physiological periodical forces as
well as factors derived from anatomical and coupling asymmetries in the
respiratory, cardiovascular, and nervous systems.
Publication
Types:
PMID:
2204787 [PubMed - indexed for MEDLINE]
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