Abstract: A method and apparatus for mass production of graphene and carbon tubes is presented. A carbon-containing gas (CCG) inside a set of thin gaps formed by an array of flat plates, or small multiple bores in a cylindrical shell, is maintained under free molecular conditions at all times. A train of intermittent light pulses of a tunable high power laser beam compatible with the CCG's major absorption bands is sent through the CCG inside the gaps, or bores, to cause dissociation of the carbon atoms from the CCG molecules in said molecules' one mean free path of flight and deposition of said atoms onto the adjacent solid surfaces (plate or bore walls) during each pulse, and after a pre-determined number of pulses to form a one-atom-thick layer of hexagonal lattice of carbon atoms. Said carbon atom layers on the flat plate surfaces are graphene, those on the shell bore walls carbon tubes. Large quantity and size, and predicted high quality of products are special features of this method.

Abstract: A method for mass production of graphene and carbon tubes is presented. A carbon-containing gas (CCG) inside a set of thin gaps formed by an array of flat plates, or small multiple bores in a cylindrical shell, is maintained under free molecular conditions at all times. A train of intermittent light pulses of a tunable high power laser beam compatible with the CCG's major absorption bands is sent through the CCG inside the gaps, or bores, to cause dissociation of the carbon atoms from the CCG molecules in said molecules' one mean free path of flight and deposition of said atoms onto the adjacent solid surfaces (plate or bore walls) during each pulse, and after a pre-determined number of pulses to form a one-atom-thick layer of hexagonal lattice of carbon atoms. Said carbon atom layers on the flat plate surfaces are graphene, those on the shell bore walls carbon tubes. Large quantity and size, and predicted high quality of products are special features of this method.