NOVELTY - Method (m1) for decomposing organic material and/or producing synthesis gas, involves placing the organic material in a chamber and exposing to microwave radiation to produce plasma separation of the material.    USE - For decomposing organic material and/or producing synthesis gas; for producing composite material used for processing plasma using microwave energy to produce synthesis gas for the utilization of H2 and CO, to decompose and/or combust organic material, for the recycling of CO2 in pure energy manufacturing which includes use of synthesis gas, for further use of synthesis gas in an energy production process which includes production and/or utilization of H2 and CO, to form synthesis gas for propulsion of turbines, motors and machinery, to reform natural gas to synthesis gas, for the decomposing of organic sludge and waste into synthesis gas to be used for energy, for methanol and ethanol production, for reforming to electricity; in fuel cells; and for use as thin film coating on a substrate (claimed).    ADVANTAGE - Very little energy needs to be introduced for the alkaline metals to become plasma, especially with help from surrounding heat from carbon. The accelerating help caused by carboxyl causes the whole composite material to become plasma using much less energy than other technologies are able to. The alkaline metal remains in the carbon composite and is at a temperature so high that the carbon reaches explosive plasma separation. Thus very little energy is needed to keep the process going. It actually does not take much more energy than what it takes to keep the alkaline metal electrons in an energized state, and they keep the process going. Thus the energy balance can be counted from a starting temperature of just below 100 degrees C, versus the regular plasma starting temperature for carbon of 3000 degrees C. The method distinguishes itself from existing plasma technologies for the production of synthesis gas and separation of organic material, by the fact that CO2 can be separated into CO, and CO may be used in synthesis gas or water change process with surplus energy. The method uses alkaline metals as an aid in order to have low microwave energy run the process, by having the electrons of the alkaline metals set in the necessary motions to easily be brought to an energized state. The alkaline metals are easily recyclable, as there is complete combustion of organic material. By using a binding agent in the form of hydrocolloid reacted with alkaline metal, the composite material can be adjusted to the process. The composite material used may be dry or moist. The plasma process supplies necessary carbon to CO2 in the conversion of this when it passes through the plasma field. The method makes room for CO production of CO2 and continuous recycling of CO2 as raw material for synthesis gas rather than releasing it into the air. The method can produce synthesis gas without releasing NOx.    DETAILED DESCRIPTION - INDEPENDENT CLAIMS are included for the following:    (1) producing (m2) composite material involves addition of carbon-containing material to compounds of alkaline metals from main group I or II of the periodic table, where the preferred materials are cesium, sodium, potassium preferably as hydroxide or carbonates or bicarbonates, but where also Si is acceptable as the only metal not in main group I or II;    (2) composite material having mixture of at least one alkaline metal from main group I or II of the periodic table and a carbon-containing material.