Abstract:
Particles constituted of either a single element selected from the group consisting of silicon, titanium, nickel, and samarium or a carbon fluoride are disposed in such respective positions that the wave energy inherent in the element or carbon fluoride is amplified to thereby enable the particles to have, among these, a field where energy concentration occurs. Thus, an active structure is obtained which is capable of generating hydrogen by liberating hydrogen from the hydrogen bonds of water or a hydrocarbon without applying an external energy thereto.
Abstract:
Particles constituted of either a single element selected from the group consisting of silicon, titanium, nickel, and samarium or a carbon fluoride are disposed in such respective positions that the wave energy inherent in the element or carbon fluoride is amplified to thereby enable the particles to have, among these, a field where energy concentration occurs. Thus, an active structure is obtained which is capable of generating hydrogen by liberating hydrogen from the hydrogen bonds of water or a hydrocarbon without applying an external energy thereto.
Abstract:
The invention provides processes and apparatus for producing hydrogen from water, including the steps of heating water to a water dissociating temperature to form a dissociated water reaction mixture comprising hydrogen gas and oxygen gas. A vortex is formed of the reaction mixture to subject the reaction mixture to a centrifugal force about a longitudinal axis of an interior space of a vortex tube reactor, so that there is radial stratification of the hydrogen gas and the oxygen gas in the interior space of the vortex tube reactor. Hydrogen or oxygen is preferentially extracted from the reaction mixture at spaced apart points along the length of the interior space of the vortex tube reactor.
Abstract:
A ceramic packing element (500) is formed from a stack of ceramic plates (502) having parallel ribs (504) forming parallel grooves therebetween. The grooves are formed into channels by being contacted with the surface of an opposed plate. The ribs (504) may engage the end surfaces of ribs on an adjacent plate or may be interleaved with the ribs (504) of an opposed plate to form smaller channels. The plates (502) are adhered to each other by firing a stack of plates (502) in the green state or by adhering cured plates (502) by means of an inorganic adhesive such as sodium silicate. Pressure drop and cracking may be reduced, mass transfer and heat efficiencies increased by enlarging the inlets (542) to the channels and by providing perforations through the plates between the ribs (504). Elements may be preassembled into larger units before placement in a column by wrapping metal bands around an assembly of elements.