Augustine
Scientific - Specialists in Surface and Interface Science
CELLFOODŽ SURFACE TENSION
STUDY
In a recent study conducted at Augustine Scientific Research
Center, surface tension as a function of concentration for CELLFOODŽ in a glass
of water was measured using a Kruss Processor Tensiometer K100 with automated
dosing.
The surface tension of ordinary tap water is approximately 73
mN/m (dynes/cm). The surface tension of extracellular body fluids is much lower
at approximately 40 mN/m (dynes/cm). This low surface tension is critical to
healthy cellular function, absorption of nutrients, and the removal of toxins. A
higher liquid surface tension causes the surface to act like a stretched elastic
membrane inhibiting absorption while increasing molecular
resistance.
The surface tension of the tap water (control) was
calculated to measure 72.8 mN/m (dynes/cm). Two separate controlled dilution
experiments were conducted simultaneously; one as drops per 8 oz. of water, and
the second as %wt stock solution of CELLFOODŽ. The results were statically
identical; in both tests, CELLFOODŽ was shown to reduce surface tension to 40
mN/m (dynes/cm), the same surface tension of extracellular body
fluids.
It was observed by Dr. Christopher Rulison, Ph.D., that using
Avogardo's multiplication number of 6.02 x 1023 molecules/mole gives the value
of 51 billion surface active molecules per square millimeter at the surface of a
glass of water containing 8 drops of CELLFOODŽ.
Dr. Rulison also noted
regarding the molecular dimensions of CELLFOODŽ (4-7 nanometers in size), "we
figure a standard molecular radius of gyration as (length)3/2 then your enzymes
and amino acids could be expected to occupy between 43/2 = 8.0 sq. nanometers
and 73/2 = 18.5 sq. nanometers each at the surface. However, since a square
nanometer = 1012 sq. nanometers, each of the 51 billion molecules at the surface
has 19.6 sq. nanometers of free space - more than is necessary for complete
rotation." An unfortunate but common necessity for nutritional supplement
manufactures known as denaturing (packing 3-5 times the amount of protein at a
surface that a radius of gyration argument would follow) to assist with
absorption. Because of the specific hydrophobic residues and small molecule
surfactants, CELLFOODŽ can pack in surface spaces upwards of 50 to 100 times
below its radius of gyration in water; denaturing is not necessary due to its
amphipathic nature.


Kruss Processor Tensiometer K100 with automated dosing

