Abstract: Utilizing the common knowledge formula for creation of methanol CO2+3H2?CH3OH+H2O; for each mole of carbon dioxide, three moles of hydrogen are needed to produce one equivalent unit of methanol. Mixing two gases and producing methanol can be accomplished per the one-line diagram concept, FIG. 1, and gas mixing apparatus, FIG. 2; under high pressure (from 3250 to 5000 psi) and high temperature (750 to 800° F.) without the presence of a catalyst. The hypothesis in this case is that the closer the mixing temperature is to the auto-ignition of hydrogen, the higher is the quality of the mixing environment. The mixing temperature in my invention is guided by the auto-ignition of hydrogen in this case (auto-ignition for hydrogen is 932° F. (or 500° C.) and the auto-ignition temperature for methanol is 867° F. (or 464° C.). After mixing the two gases, the result is methanol and water. The first step in this stage is to cool the substance by way of cooling tower, followed by a pressure lowering tank.

Abstract: Production of lime (calcium oxide: CaO) from limestone (CaCO3) is one of the oldest natural chemical processes and this process is reversible, per FIG. 4 (CaCO3?CaO+CO2 under 500 to 600° C. heat). Subsequently when lime is exposed to the moving air; carbon dioxide (CO2) in the air will react with the lime and lime will convert back to limestone. By repeating same limestone to lime chemical process, lime and carbon dioxide (CO2) will be created. After separating and storing the carbon dioxide (CO2), process will be repeated continuously, using the same lime.

Abstract: Utilizing the common knowledge formula for creation of methanol CO2+3H2?CH3OH+H2O; for each mole of carbon dioxide, three moles of hydrogen are needed to produce one equivalent unit of methanol. Therefore, it is possible to produce over one-half gallon of methanol from one kilogram of carbon dioxide. Combining the two gases and producing methanol can be accomplished under high pressure (about 3250 psi) and high temperature (750-degree Fahrenheit heat) without the presence of a catalyst. Throughout this process, auto-ignition for methanol is 867-degree Fahrenheit (or 464° C.) and auto-ignition for hydrogen is 932-degree Fahrenheit (or 500° C.). After mixing two gases in the mixing chamber, the result is methanol and water. The first step in this stage is to cool the substance by way of cooling tower and pressure lowering tank. Next is a separation process to separate methanol and water. By cooling the substance\mixture about 28.