"TT" is an acronym with a number of connotations. 

-Telex transfer - money transfer (from the prePC era)

-Tritone, a pleasing musical interval 

-Teatotal - abstinence from alcohol (not-so-pleasing)

-Tourist Trophy - British race often won preWar by
Auto Union (aka Audi & their sportscar made in
Hungary).

... and now presenting: "Transient Trioxide" 


There are several common chemical reactions, most
involving chlorine, which have been studied for over
100 years yet there exists today major gaps in our
understanding of what intermediates and metastable
compounds are generated, and for how long (lifetime).

"Metastability" (and phase-change) may be two keys to
finding useful energy anomalies.

There are even a few reactions involving only air and
water which are not well described in the literature.

http://www.scripps.edu/newsandviews/e_20040913/wentworth.html

This TT or transient trioxide is air-water reaction
found ubiquitously in cell biology but may have
relevance to alternative energy. It may be involved in
some kinds of electrolysis.

So-called "super-oxidation" has been considered a
possible gateway towards increased efficiency in
combustion, such as in automotive engines - and also
for water purification. In a nutshell, you can
possibly gain as much by focusing on a novel oxidizer
as by focusing on alternative fuel.

Ozone, chlorine and peroxide are only slightly
stronger oxidants than trioxide (H2O3) or dihydrogen
trioxide, but expensive, or toxic, or too often fully
bound in solution. Few things in life are cheaper than
mixing air and water with a little charge ...(as if
that were all there was to it) ... but if and when
that can be engineered "on demand" in order to change
the binding structure of salt water, then new
chemistry and new physics are poised to result.

Imagine a blown-up image of the H2O water molecule,
realizing that the "mickey-mouse-ears" half of the
molecule will have a slight positive charge, 

www.lenntech.com/images/Water%20molecule.jpg

...and realizing that an O2 molecule has a high
electron affinity. Ergo, when a free electron in
solution becomes attracted and temporarily trapped
between mickey's ears, the O2 molecule if present will
attach for a short time span, and voila: TT 

"transient-trioxide" not the Audi model but both are
pretty hot. Problem, water holds some O2 in solution
but not really very much - without some help.
Hemoglobin is one way to get help and a magnetic field
is another.

TT or Dihydrogen trioxide has been called a "new"
oxidant (as in "new to me") but since it is as old as
life itself and is probably found in the metabolism of
all single celled lifeforms, this situation only
reinforces how "lacking" mainstream science really is
(despite the assurances of practitioners) - in 2008.

Until the last decade few biologists even appreciated
the magnitude of the trioxide role in the life
process.

Now... in the spirit of biomimicry - lets imagine an
engineered situation where one can get the two
molecules: O2 and H2O to 'stick together' for a 
fractional-second around an electron: in say- an
electrolysis cell. At that point, the dihydrogen
trioxide becomes a potential "oxy-fuel" since it
competes with chlorine for the sodium ion, but unlike
Cl it cannot ionize and bind in solution.

H2O3 is therefor a most interesting metastable oxidant
molecule, having the theoretical potential to achieve
a measure of "free-energy" due to the ease (low
barrier) of formation (on paper and in biology). It
should actively cool any solution in which it is
formed. It might even be used for efficient cooling
(Air conditioning) some day.

... and TT reportedly has greatly increased stability
when seven molecules form into a ring, not unlike the
six-fold symmetry of ice. But even so, it is never
very stable ... which can be a good thing. 

If enough resources ever become available, one of the
first things I want to try is bubbling O2 through a
negatively charged needle into water at 1-3 C. to see
if any TT-ice can accumulate, and if so, how violent
the decay of such might be. Sounds simple, eh? Could
be a fizzler, but hey, inquiring minds want to know...

Jones

Hey Hooters, did I fail to mention any other TT
crowd-pleasers in the intro? On a lighter, but more
(pun)gent note: 

Is this an apt remembrance for all-time ... of our
beloved "master of low expectations" ... fondly to be
bestowed by the city where he is even less popular
than was RMN in the summer of '74 ?

http://www.sfgate.com/cgi-bin/article.cgi?f=/c/a/2008/07/18/BA7A11QU1S.DTL

flush twice ... its a long way to Crawford ;-)

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