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HOW IT WORKS
Overview
With the negative changes in the economy and rapid
increase of gasoline prices the use of a supplemental hydrogen
system in your vehicle can greatly increase the fuel economy. Other
benefits of using such a system include an increase in horsepower
and a great reduction in harmful pollutants and emissions that
damage our environment and shorten the life of your engine.
WHY does it work?
A supplemental hydrogen system is just that, supplemental to the use
of gasoline in your vehicle. Use of a system is not an attempt to
run your vehicle on hydroxy gas exclusively. Instead, it is a way to
more efficiently burn the gasoline that you are already using. How?
By more fully atomizing the gasoline molecules and burning them as a
vapor instead of the larger droplets they would normally be.
You’re probably wondering why the combustion process wouldn’t
already be efficient since it was designed by top engineers at auto
manufacturers, and why supplemental hydrogen isn’t incorporated into
our vehicles today. The answer is found in a question…When a new
vehicle is designed, who is it designed for? EVERYONE. When new cars
are made, they have to be marketable not just on the basis of fuel
economy, but also on the basis of horsepower, torque, and user
intervention. So you might be seeking the highest MPG rating while
someone else will see horsepower as a major buying factor. Even the
person seeking highest MPG might not purchase a supplemental
hydrogen vehicle if he/she would have to regularly check and refill
not only the gasoline but also the water and electrolyte used to
produce the hydroxy gas. This is where user intervention becomes a
factor. You see? Every car design is a COMPROMISE. It has to be
marketable to a large demographic of drivers.
So, by using a supplemental hydrogen system we are simply taking a
vehicle that’s compromised and inefficient and bringing it up to a
higher level of efficient combustion. This benefit can then be
directed to either increased horsepower or better fuel economy,
based on the user’s preference.
How does it work?
A supplemental hydrogen system consists of a fuel pre-heater
assembly, an electrolyzer, and an ECU (vehicle computer)
compensation method. When the system is used with fuel additives
such as xylene and acetone, along with positive driving habits, it
can produce dramatic results in fuel economy, sometimes over 50%.
Horsepower is also drastically increased if the air/fuel ratio is
not modified, because hydroxy gas is very combustable, much like
nitrous oxide used in racing cars.
Fuel Pre-heater: A fuel preheater is a simple device, usually
assembled of a heat conducting metal such as brass, copper, nickel
or aluminum. It is placed on the radiator hose of the vehicle and
wrapped in a thermal blanket. It uses otherwise wasted heat to
preheat the gasoline before it reaches the fuel injection manifold
or carburetor. This helps expand the dense gasoline molecules,
making them closer to full vaporization temperature by the time the
fuel reaches the combustion chamber.
Electrolyzer: This is the heart of the system. An electrolyzer uses
the process of electrolysis to change water into hydroxy gas.
(hydrogen and oxygen gas) It consists of electrodes that produce
hydroxy gas when submerged in water made conductive with
electrolyte, such as potassium hydroxide. Electrical current from
the vehicle’s battery is then applied. A substancial amount of
hydroxy gas must be produced by an electrolyzer to make the
combustion process more efficient. The standard of gas production is
measured in liters per minute. (LPM) 1 LPM is considered baseline
for a functional supplemental hydrogen electrolyzer. The hydroxy gas
output of the electrolyzer is routed to the vehicle’s air intake and
vacuum intake manifold. The smaller molecules of the hydroxy gas
strike the larger pre-heated gasoline molecules, breaking down the
covalent bonds even further and atomizing the gasoline, while adding
a combustable catalyst.
ECU Compensation method: If an electrolyzer is used in a vehicle and
nothing more is installed, little or no gains in combustion
efficiency/MPG will be seen. This is because the ECU of the vehicle
will detect more oxygen in the exhaust via the oxygen sensors. More
oxygen in the exhaust usually tells the ECU your vehicle the fuel
mixture is running lean, with too much air being mixed into it via
the air intake. It then compensates by adding more gasoline to the
mixture, and reducing the air induction, which defeats the gains of
the supplemental hydrogen system. The combustion of hydroxy gas
produces a large increase in oxygen in the exhaust, therefore to see
gains you must compensate for this. Compensation methods currently
being employed are:
1.E.F.I.E. electronic fuel injection enhancer: This device
manipulates the voltages relayed to the ECU via the oxygen sensors.
By telling the ECU the fuel mixture is rich, it will tell the fuel
injectors to inject less gasoline and use more hydroxy. It can be
purchased online by numerous retailers, or you can build your own.
2.MAP/MAF sensor enhancer: this device manipulates the voltages
being sent to the ECU from the MAP or MAF sensor, effectively
controlling the air/fuel ratio.
3.Oxygen sensor offset sleeves/wrapping in aluminum foil. These 2
methods of O2 sensor tweaking effectively reduce some of the
sensor’s ability to detect oxygen, effectively leaning the air/fuel
ratio.
Fuel Additives: Acetone and Xylene additives have been proven to
increase fuel economy by breaking down the covalent bonds of the
gasoline molecules, making them easier to atomize and ignite in the
combustion process.
Emission/pollution reduction
Emissions and air pollution from your vehicle are greatly reduced
while using supplemental hydrogen because more of your gasoline is
being completely used up and not being burned in your catalytic
converter. The biproduct of burning hydroxy gas is heated water
vapor, which steam cleans the inside of your engine and removes
damaging carbon build ups and performance robbing sludge. Using a
supplemental hydrogen system helps the environment twice by
decreasing fuel dependency while also reducing pollutants.
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