Absolutely not! We say that so emphatically because when Oxon2 is added to fuel, the fuel remains within the ASTM specifications for fuel that engine manufacturers calibrate their engines to. Put another way, you are still using fuel that matches exactly what your engine is designed to use.
Oxon2 is priced based upon clients volume of usage and is linked to the current price of fuel which always results in significant net positive operational savings. Contact your representative for a current quote.
Combustion is a chemical reaction between oxygen (from the air) and hydrocarbons (in fuel) that produces energy in the forms of heat and work. Depending on the efficiency of the combustion, a certain percentage of heat/work is used for the useful application (like driving car forward) and a certain percentage of heat/work is: a) used to achieve the minimum activation energy barriers for the oxygen – fuel molecules collisions to become effective and initiate chemical reaction, b) lost by fighting friction, or c) spent on endothermic reactions such as NOx formation between nitrogen and oxygen. The 15% to 18% fuel consumption decrease when Oxon2 is added does not directly correlate to the percent of incomplete combustion. Instead, it directly correlates to the percentage of energy (heat and work) that was not lost during the combustion but rather was used for useful work (driving the car). With Oxon2, it takes an average of 15% less hydrocarbons to react with oxygen because there is an average of 15% less heat and work lost. This extra 15% useful work increase is used to power the machine.
100 PPM of Oxon2 treatment (one part Oxon2 to ten thousand parts fuel) is enough to change the electromagnetic features of the fuel and create induced polarity in otherwise non-polar hydrocarbon molecules. In turn, the polarized fuel molecules are better homogenized / mixed and react better with (polar) paramagnetic oxygen molecules.
The ratio of ethanol to water in Oxon2 is greater than 40 to1, or well above any safety limits of water content in ethanol. In addition, at a 1:10,000 ratio of Oxon2 to fuel, the amount of water introduced into the fuel from Oxon2 is insignificant, often less than would be in your fuel from water vapor in the air.
One way to visualize matrix formation caused by Oxon2 is to compare it with Micelle formation in colloid liquids. Oxon2 aggregates (or matrices) are formed by similar principals. The matrices form through the three types of polar interactions: 1) ionic bonds, 2) covalent bonds, and 3) the induced dispersion polarization of hydrocarbon molecules. Oxon2 contains ionic compounds with strongly stabilized electrostatic attraction between its positive and negative ions. The higher charges (2+ and 3+) and smaller sizes of the ions create a stronger electromagnetic field. In turn, ionic Oxon2 orients the less polar covalent molecules of ethanol and water along and around an ionic core. In covalent molecules, the positive site interacts with the anion and the negative site with cation. Most important, the combination of ionic Oxon2 and covalent dipoles induces weak dipoles in the long-chained fuel hydrocarbons which stabilize the Oxon2 interactions with stronger covalent dipoles.
Even though the O2 molecule of oxygen is basically non-polar, it consists of two paramagnetic oxygen atoms. When added to Oxon2 stabilized fuel, the induced polarity (the mechanism described in answer # 7) creates a weak dipole with weak positive and negative charges. At the same time, the hydrocarbon molecules in the fuel have induced polarity due to the Oxon2 function(see answer to question # 5). The positive side of the fuel’s hydrocarbon molecules are attracted to the negative side of the oxygen molecules which now are slightly polar and oriented in the electromagnetic field created by Oxon2. This is how hydrocarbon molecules become more oxyphilic.
Upon mixing with fuel, the strong ionic compounds of Oxon2 create electromagnetic fields. When oxygen from the air is added to the mixture, its paramagnetic atoms get oriented in the electromagnetic field created by the Oxon2’s ionic compounds. As a result of this orientation, the oxygen now has induced polarity and interacts with all other polar molecules in the mixture:the ionic and covalent bonded compounds of the Oxon2 plus polarized fuel hydrocarbons. The actual strength of this attraction can be measured by coulomb’s formula F = k* Q1 * Q2 / d2
where Q1 represents the quantity of charge on an a given O2 molecule (in Coulombs), Q2 represents the quantity of charge on a charged hydrocarbon molecule (in Coulombs),and d represents the distance of separation between the two molecules/atoms (in meters). The symbol k is a proportionality constant known as the Coulomb’s law constant. The value of this constant is dependent upon the medium that the charged objects are immersed in. In the case of air, the value is approximately 9.0 x 109 N • m2 /C2. In the case of Oxon2 treated fuel, the value will depend on the type of fuel and its respective mixture of different hydrocarbon molecules.
Oxon2 stimulates more complete combustion in two ways. First, with Oxon2 added in the fuel, both the hydrocarbon and oxygen molecules become polarized and more attracted to each other. This effect leads to a better (more homogeneous) mixture and a higher number of collisions between oxygen and hydrocarbon molecules. A greater number of collisions leads to better combustion because more molecules have reacted. Second, the polarization of oxygen and hydrocarbon molecules results in a lower activation energy barrier (the chemical combustion reaction needs less energy to begin). Therefore, less energy is wasted for the activation and this savings are transferred in the useful energy.
When studying carbon reduction, it is important to consider total carbon output (CO2, CO and particulates). The main decrease in carbon emissions comes from the reduction of small carbon particulates (particulate matter or PM). PM is usually created from not completely oxidized hydrocarbons. Better homogenization of fuel leads to more complete combustion and less PM creation because almost all hydrocarbons are completely oxidized. With regard to CO2 reductions, Oxon2 doesn’t reduce CO2 as much as PM. (Less CO2 and less Carbon because due to Oxon2 LESS HYDROCARBON MOLECULES BURN MORE EFFICIENTLY ALMOST COMPLETELY). Oxon2 does help fuel burn more efficiently, creating more energy and using less fuel to create the same amount of work. For illustration, imagine an engine combusting100 grams of fuel. Without Oxon2, the combustion reaction might create 150 grams of CO2, 20 grams of carbon (PM) and 1 kilojoule of energy. With Oxon2, the engine only needs 90 grams of fuel to produce 1 kilojoule of energy and only 135 grams of CO2 will be produced because less fuel used to create the same amount of energy.
Without Oxon2, both the molecules of oxygen and nitrogen are non-polar. As a result, the nitrogen molecules with very weak IMFs compete with the non-polar hydrocarbon molecules in the fuel for collisions with oxygen. The probability of the effective collision is defined by the concentrations of the oxygen, nitrogen, and hydrocarbons. With Oxon2, the fuel molecules become polarized while the nitrogen molecules remain non-polar. Due to the stronger polar-polar IMFs between oxygen and fuel molecules, the IMFs between oxygen and non-polar nitrogen are can’t compete as well. Overall, the result is an increase in combustion efficiency with more heat going into useful work and less going into NOx formation. The weaker relative IMFs between oxygen and nitrogen create fewer N2/O2 collisions, and the smaller percent of effective N2/O2 collisions achieving activation barrier retard NOx formation.