Catalytic Cycle
Econal™ deploys a catalytic reduction strategy to create a fuel with ideal characteristics. During the transition phase, the long carbon chains are broken down and rearranged to create stable molecular structures. The result is a high grade fuel with the following inherent properties:

• Combustion Catalyst – Improves burn-rate
• Polymerization Retardant - Keeps fuel from solidifying
• Dispersant - Eliminates filter plugging and injector scoring
• Corrosion Inhibitor - Retards internal corrosion and fouling of fuel tanks
• Anti-Oxidant – Inhibits creation of hydroxide compounds in fuel
• Demulsifier - Separates water from the fuel
• Lubricant - Lubricates the fuel system
• Biocide/Fungicide - Prevents microorganism and fungus growth
• Detergency – Resists buildup of surface areas and blow-by
• Stabilizer – For thermal degradation and prevention of deposits


Molecular Economy
The catalytic process is atom-efficient. All carbon molecules present in the fuel are converted into useful products (no waste). One gallon of econal reacts sufficiently with 800 gallons of fuel. The transition phase for gasoline and diesel takes 12 and 36 hours, respectively.

Combustion Efficiency
Same mechanical efficiency with less fuel burned … effective atomization in the combustion process plays a major role in fuel efficiency and emissions. Less kinetic energy is required to achieve a gas state when fuel can be finely atomized and gauged. Enhanced smaller hydrocarbon structures allow for better vaporization of fuel. Econal™ improves the gas state properties leading to higher pressure, while lowering exhaust temperature, density and viscosity. The net result is the nearly complete burn of all fuel during combustion and dramatic reduction in emissions.

Stability in Storage
Liquefied or heat-treated fuel is generally not considered to be stable because of the carbon and volatile compounds. Econal™ stabilizes the fuel by preventing oxidation and agglomeration. By using the power of stable six-member aromatic rings, the catalytic process deoxygenates the fuel. The stronger covalent bonds prevent deposition of sediment and molecules which often lead to sludge and equipment damage. In addition, stability prevents microbial and fungus growth. The reaction mechanism allows for one year minimum of stability in storage.