When gaseous fluids such as air flow in any pipe, the molecules naturally move and interact, or hit each other on the side wall of pipe. The interactions that occur between the atoms of a molecule with the other atoms of the other molecule cause the attractive and repulsive forces to occur. These forces are known as intermolecular forces that cause the molecules to adhere together and form molecular clusters.

Clusters of these passing air molecules, O₂ and N₂, can be separated into single O₂ and single N₂ molecules by XPlate^TM technology. As a result, O₂ molecules will have more active molecular surface areas available for the complete combustion.

The Best Technology Achievement Award by The Federation of Economic Development Association (FEDA) on July 30^th, 2023 in Dubai, United Arab Emirates.

Various fuel types including NG, LPG, gasoline, diesel, HFO / bunker oil, coal, biomass are perfectly applicable with XPlate^TM technology in boilers. Industrial applications range from the power plants, food and beverage factories, rubber and tire, textile, paper industry, etc. of those using boilers. XPlate^TM technology can save fuel consumption, reduce emissions such as CO, CO₂, NO_x and SO_x. Several companies have proven and issued their test certificates.

We can do NOx reduction for boiler power plants.

Xplate^TM technology has been verified at several cement plants in several countries. XPlate^TM breaks the larger-size oxygen clusters into the smaller-size oxygen single molecules that subsequently speed up the oxygen molecular diffusion into the coal structural porous media. This technology can be used with either wet or dry process, and either with satellite coolers or pre-calciner type.

We can do NOx reduction for cement plants.

XPlate^TM technology directly improves combustion in the preheating, heating and soaking zones of the RHF. Various fuel types such as NG, LPG, bunker, etc. can be used.

Chemical reactions of carbon, oxygen and steam in gasification process have great benefits by XPlate^TM technology. The more freely-moving molecules of both oxygen and steam can react more effectively with the coal porous granules, enhancing more CO, H₂ and CH₄ concentrations in syngas. Typically the syngas calorific value increases by 1% with less coal consumption.

Positive gas saving in a gas-fired glass furnace combustion by XPlate^TM technology has been commercially proven in Thailand. Improvement can be seen at the regeneration ports that chemical reactions occur more intensively due to speed and greater collision possibilities of single oxygen molecules towards the completeness of oxidation.