NOVELTY - The process for the production of liquid and gaseous fuel such as syngas, hydrocarbon, carbon monoxide, hydrogen, alcohol, alcohol ester and carbohydrate using microwave and thermal energy produced from solar radiation and using physical chemical reaction such as heating, pressurization, substrate synthesis, substrate lysis and change of substrate phase, is claimed. The energy required for the physical chemical reaction is provided by radio frequency and heat energy from solar radiation. The solar thermal energy is produced by converging sunlight towards a reactor using mirrors (3).    USE - The process is useful for the production of liquid and gaseous fuel such as syngas, hydrocarbon, carbon monoxide, hydrogen, alcohol, alcohol ester and carbohydrate using microwave and thermal energy produced from solar radiation (all claimed), where the liquid and gaseous fuel is useful in fuel cell of electrical vehicles.    ADVANTAGE - The process is economically viable, safe and efficient for the production of liquid and gaseous fuel, and avoids the global warming and pollution during the production, transportation and storage of the fuel.    DETAILED DESCRIPTION - The process for the production of liquid and gaseous fuel such as syngas, hydrocarbon, carbon monoxide, hydrogen, alcohol, alcohol ester and carbohydrate using microwave and thermal energy produced from solar radiation and using physical chemical reaction such as heating, pressurization, substrate synthesis, substrate lysis and change of substrate phase, is claimed. The energy required for the physical chemical reaction is provided by radio frequency and heat energy from solar radiation. The solar thermal energy is produced by converging sunlight towards a reactor using mirrors (3) and/or optical lenses (4). The reactor is made of a material that absorbs sunlight to convert it into heat, and sets out a magnetron device (6) in which microwave (1-300 GHz) is injected at its inner side and a system such as a worm screw (2), a compressor, a turbine and a propeller to circulate the substrate at its inner side. The reactor comprises a device for electrical arc formation between component elements, a unit for producing gaseous plasmas and gas/particle mixed plasmas of optical, thermal and non-equilibrium origin, and a thermal device confining and focusing the microwaves in an annular chamber capable of receiving and focusing microwaves, gas and particles. The electrical arcs cause induced currents due to an external generator, and generate non-equilibrium plasmas that ionize the gas through the reactor to create dipoles sensitive to microwaves and to create reactive entities such as free radicals and ions, which react with gas and particles traversing the reactor. The substrate of the reactor is constituted of gases filled with a particle having a size of 1 nm to 1 mm in a proportion of 0-50 vol.%. Primarily the particles are carbon particles during gasification, secondly metal particles enhancing gasification by redox reactions and enhancing the production of charged elements and free radicals under the action of electrical arcs produced by induced currents in the particles, and thirdly silica particles and silicon producing silicon oxide cable to fix a part of the carbon in the form of silicon carbide. The substrate and the resulting plasmas circulating in the reactor are enriched with elements obtained from the expulsion of any gas transformed into plasma of optical origin and from the removal of a material block. The constituent elements of the block improve and direct the reactions of the substrate. The reactors operating at the thermal energy of solar radiation and microwave energy feed a gas scrubber to convert carbon of plant, fossil and synthetic origin into hydrogen and carbon monoxide. The core of gas scrubber is composed of two cyclones superposed in an axial inlet and another tangential inlet that allow a double supply of cyclones in a part axially by carbon with a gas and tangentially by a gas heated in different ways. The reactor further includes a device to limit the settling of the carbon bed at the bottom of the reactor by a system using centrifugal forces. The substrate of the gas scrubber is constituted of heterogeneous particles comprising carbon particles during gasification, and additive particles enhancing the gasification and optionally agglomerated with the carbon particles.    DESCRIPTION OF DRAWING(S) - The figure shows a reactor furnace.    Channel (1)    Worm screw (2)    Mirror (3)    Optical lens (5)    Magnetron device (6)    Wave guide. (7)