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Compressed Air
Main Tank — Self-Refilling |
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| TASK: |
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Get atmosphere "free air" into a compressed air main tank
with the compressed air that is already inside the main tank. |
The technique to be
used for "self-refilling" compressed air tanks, is sometimes referred to
as "free expansion," and standard engineering practice considers it as
being thermodynamically irreversible, and not to be considered an
investment. That train of thought is not applicable to applying “free
expansion” to "self-refilling” compressed air tank technology.
The facts behind the
efficacy of “self-refilling” a compressed air tank using the compressed
air already inside the tank, are derived from the ability of the Sun to
store vast quantities of heat energy in the ambient atmosphere.
The Sun has already
stored ~ 500º ̊ F, at +40º F ambient temperature, of heat in every particle
of matter in the atmosphere. There is approximately 5.148 Quadrillion
Tons of atmosphere surrounding planet Earth. All of that heat energy is
resident in the atmosphere, “free air.” That heat energy is free for the
taking. No meters may be interposed between the “free air” you breathe,
and your lungs. (More
. . . )
If "free expansion" is
put to work in the right context, a phenomena presently considered to be
a disadvantage, the attribute can be converted into an advantageous
source of sheer raw brute power.
Scuba tank filling
stations know all about it: when filling a heavy duty, high
pressure, safety-factor-of-167%, well made, correctly maintained scuba
tank, TOO
FAST, you had better be hiding around the corner. Scuba cylinders are
hydrostatically safety tested to a pressure 1.67 (167%) (5/3) times the
Maximum Available Working Pressure (MAWP) rating stamped on the tank.
For example: Scuba
tank stamped pressure rating is 3300 psig, this tank would be
hydrostatically tested to a pressure of 5500 psig. (1.67 x 3300 = 5511).
Hydrostatic testing
measures the ability of the scuba tank to (1) expand under pressure, (2)
maintain containment integrity, (3) show no signs of leaks, and (4)
recover its original volume to within 10% of pre-test volume. i.e., if
the cylinder volume increased 100 ml at test pressure, after test
pressure is removed, the tank should recover to less than 10 ml larger
volume than the pre-test volume. The MAWP should be strictly observed to
prevent frequent tank expansion and contraction which causes metal
fatigue, fractures, and eventual failure of the pressure vessel.
The established dogma
behind pressure equalization is that there is no "work" done because the
actual instantaneous temperature is discounted and factored into the
math as though there was no (heat) temperature change (Joule's first
law). But that train of thought is purposed to protect certain physical
“laws” held to be sacred, even in the face of their fallibility. All of
the facts are not considered in order to maintain the status quo. In
reality, the present establishment dogma is focused upon “complete equalization,” where there
is no NET temperature change. (Physics
. . .)
Ask anyone who has
filled scuba tanks about the concern for big temperature change.
Dangerous temperature change. Temperature change caused just by moving
compressed air, at ambient temperature, from a big tank into a smaller
tank at ambient temperature. If the procedure is performed too quickly,
there is a very real danger that the smaller tank could explode like a
bomb, putting life and limb in great jeopardy.
The question to ponder
is, "Where does the energy come from to explode the scuba tank if the
max air pressure in the storage tank does not exceed the scuba tank
safety test pressure?"
Exploding compressed
air tanks constitutes an argument against the "conventional" air car
like the MDI which stops to fill its tanks about every 30 miles. Yes,
filling
can take place in a minute or less, but you would be prudent to be hiding
around the corner.
The reason for this
dangerous circumstance is based upon the characteristics of suddenly
compressing air. Sudden compression of air generates an enormous
amount of heat.
When lightening occurs, the air through which the
lightening travels is instantaneously superheated to enormously high
temperatures. The heat from the lightening instantaneously causes compression of the air to such a
degree that the matter in the air attains velocities greater than the
speed of sound, thereby, breaking the sound barrier and causing a loud
sonic BOOM. We call it thunder. The heat of the lightening compresses
the air against the containment of colder atmosphere at 0 psig.
HEAT energy compresses AIR. Compressing AIR releases HEAT energy.
This phenomena,
sudden
compression, if properly harnessed, can
release the enormous heat energy stored in the air by the Sun, which can
then, be captured and put to work. Free energy.
Through experience,
and daily use of heat pumps, it is known that the heat energy delivered
by a heat pump, is on average, three (3) to four (4) times the amount of
heat energy consumed by the heat pump compressor and fans. This
phenomena has been designated as Coefficient of Performance, (COP), in
order to compartmentalize the facts away from some of those previously
mentioned "laws."
The best technique for
capturing and putting to work the heat energy derived from sudden
compression, that is presently known and understood, is:
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1. |
use a small EQUALIZER, (EQT) tank cylinder
with a larger Main Tank, |
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2. |
put an intake and discharge check valve on the
ends of the EQT, |
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a.. |
provide an intake pipe from atmosphere to the
EQT intake check valve. |
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b. |
provide an output pipe from the discharge check
valve to the INSIDE of the Main Tank. |
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3. |
tap the EQT tank in the middle, the
equalization-expansion zone, attach a control valve to time the
high pressure Main Tank air injection frequency. |
The Main Tank has a
much larger volume than the equalizer. The whole air volume of the Main
Tank, even if its temperature goes down less than a degree, contributes
a vast amount of energy to the air in the smaller equalizer containing
atmosphere. When the control valve is opened suddenly, compression takes
place inside the EQT, (equalizer tank), and the air inside the EQT gets very hot
instantly, causing another tremendous compression to take place. HEAT causes
compression. Before the heat of compression inside the EQT can cool to
ambient temperature, the atmosphere air and the Main Tank air that has
been added to the EQT, now at a pressure much higher than Main Tank air
pressure, enters the Main Tank through the EQT discharge check valve.
It sounds unlikely:
use Main Tank air to put more air into the Main Tank, until the EQT
(Equalizer), cycle is comprehended. The one, very small, expenditure of energy
to operate the equalizer cycle, is that the control valve will have to
be powered to open and close. (Maxwell's
Secret . . .)
If the Main Tank air
pressure was 200 psig and the EQT (equalizer) pressure was 1 psig, then,
equalizing the two pressures would raise the EQT pressure to maybe 199
psig, because the Main Tank pressure will drop, 1 psig, because of
moving the EQT volume of air out of the Main Tank into the EQT. At that
point, and pressure, the EQT air would not go into the Main Tank without
being increased to a value greater than 199 psig. That circumstance is
predicated upon “complete equalization,” which is discounting, or
eliminating the heat created in the EQT when the Main Tank air suddenly
enters.
The equalizer can be
used in a manner that doesn't allow complete equalization, it's called
unbalanced expansion (or free expansion) for a reason. It's like
anything elastic that stores potential energy, store energy, cause the
energy to be released, the released energy will attempt to return, in
ever decreasing cycles, to equilibrium. The cycles are waves, periodic
oscillations or the overshooting of equilibrium as the unbalanced
condition seeks balance, causing the tension to gradually dissipate,
overshooting equilibrium in both directions till finally it comes to
rest at ambient temperature and 199 psig.
The design of the EQT
equalizer injection system doesn't allow enough time for “complete
equalization.” When the actual pressure in the equalizer exceeds the
Main Tank air pressure the injection control valve has already closed.
Fill the equalizer
suddenly with Main Tank air and the heat generated is extremely high,
except that as soon as the heat is generated, extreme pressurization of
the equalizer expansion zone causes all of the EQT air to blast through
the EQT discharge check valve into the Main Tank because the
equalization zone pressure exceeds the Main Tank air pressure, and due
to the Kadenacy Effect (like 2-stroke engine tuning). A suction is left
behind in the EQT expansion zone that is easily filled by “free air”
being sucked in through the EQT inlet check valve.
The following is an
attempt to illustrate the EQT equalizer cycle.
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Compressed Air Equalizer Cycle
Self-Refilling |
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Reference:
Drawing:

The significant component parts of the drawing:
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Inlet “Free Air” Check Valve |
(FACV) |
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Injection Control Valve |
(ICV) |
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Compressed Air Main Tank |
(CAMT) |
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This cycle explanation is based on time instantaneous (Ti).
The complete cycle can take place many times per second.
“PSIG” = Pounds Per Square Inch Gauge ---- “PSIA” = Pounds Per Square Inch
Absolute
Starting Point:
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CAMT has been filled to a pressure of 200 psig |
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OCV is held CLOSED by 200 psig Main Tank pressure |
The pressures used in this explanation are for the purposes of
illustration only. Actual pressures and temperatures must be acquired by
empirical testing.
SEQUENCE — 1
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ICV momentarily opens to allow a sudden surge of 200 psig
CAMT air, and then, closes. |
SEQUENCE — 2
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EQT pressure jumps to ~ 199 psig which
causes instantaneous heat because of the |
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compression that takes place inside the EQT.
The compression that takes place because of the heat, causes the
pressure in EQT to spike to 1000 psig. This 1000 psig pressure
causes a differential pressure across OCV of 800 psi. Instantly,
the compressed air volume at 800 psig air in EQT enters CAMT,
where it equalizes with the 200 psig air volume to cause the
CAMT pressure to increase to ~ 208 psig. |
SEQUENCE — 3
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EQT pressure falls rapidly causing “Free Air” to be
sucked into EQT through FACV. |
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Due to an elevated pressure in EQT, the ICV is closed after
the suction cycle. |
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The EQT is now ready for another complete cycle. |
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