Abstract: The hydrogen-oxygen generating electrode plate using a carbon nano tube includes a carbon nano tube (CNT); a carbon (C); NiO; NaTaO3; and a catalyst. The method for manufacturing a hydrogen and oxygen generating electrode plate using a carbon nano tube, includes a step S1 for grinding into high-density powders; a step S2 for uniformly mixing carbon nano tube powder, carbon powder, NiO powder, NaTaO3 powder and catalyst and forming a mixture having a high distribution degree; a step S3 for inputting the mixture into a mold and pressing the same and forming a pressing forming object; and a step S4 for plasticity-forming the pressing forming object in a vacuum plasticity furnace.

Abstract: A hydrogen-oxygen generating apparatus includes a plurality of frames each including a main hole and at least one first engaging hole formed along an outer side of the main hole, at least one insulation gasket, disposed between the plurality of frames for maintaining a space between the plurality of frames and for providing a water tight seal and including at least one second engaging hole corresponding to the at least one first engaging hole and at least one electrode plate in electrical contact with at least one of the plurality of frames.

Abstract: A vehicle power generation system using exhaust gas and includes a casing which is installed at a vehicle chassis and is formed of an inlet hole for inputting an exhaust gas and an outlet hole for discharging an exhaust gas, a turbine which is rotatably installed in the interior of the casing 10 and rotates by a pressure of the exhaust gas inputted into the inlet hole, a power generator which has a rotary shaft axially engaged to a shaft part of a turbine passing through a front side of the casing and a fixing bracket for fixing the power generator to the casing.

Abstract: A hydrogen-oxygen generating electrode plate and a method for manufacturing the same. The hydrogen-oxygen generating electrode plate includes TiO2, CO2O3, Cr2O3, NiO, carbon nano tube, Ni or Cr and ceramic catalyst, and the TiO2, CO2O3, Cr2O3, NiO, carbon nano tube, Ni or Cr and ceramic catalyst are pressed in the type of powder and are solidified and plasticized in a vacuum plasticizing furnace. The method for generating the hydrogen-oxygen generating electrode plate includes a step S1 in which powder types of TiO2, CO2O3, Cr2O3, NiO, carbon nano tube, Ni or Cr and ceramic catalyst are uniformly mixed for thereby forming a mixed compound with a high distribution degree; a step S2 in which the mixed compound is inputted into a mold and is pressed for thereby forming a solid type pressing material; and a step S3 in which the pressing material is plasticized in a vacuum plasticizing furnace.

Abstract: A hydrogen-oxygen mixed gas generating system includes water capture-storage where water is stored and hydrogen-oxygen mixed gas is captured, an electrode unit including multiple electrodes to electrolyze water, at least one water supplying pipe connecting a lower part of the water capture-storage and the electrode unit for providing water from the water capture-storage to the electrode unit, at least one gas supplying pipe connecting an upper part of the water capture-storage and the electrode unit to provide hydrogen-oxygen mixed gas produced from the electrode unit to an upper part of the store water in the water capture-storage and an endothermic heat radiant system which absorbs and radiates the heat from the water capture-storage in the water capture-storage. The endothermic heat radiant system includes multiple heat radiant pipes that penetrate the water capture-storage up and down and a heat radiant pin formation contained in the heat radiant pipes to expand the contact area with air.

Abstract: A hydrogen-oxygen combustion burner includes a gas line (L) that provides hydrogen-oxygen mixed gas, a sealed body (10) to block any foreign oxygen from entering, a combusting nozzle (20) connected to an upper part of the body (10) and with multiple crater holes (23) toward the upper body (10), a distributing center (30) inside the body (10) distributing hydrogen-oxygen mixed gas provided by the gas line (L) to the crater holes and a circulation forming center (40) (40?) circulating the hydrogen-oxygen mixed gas by the pressure of the mixed gas flowing in from a nozzle distributing hole (24) inside the distributing center, wherein the sealed body is a flat pipe and the combusting nozzles (20) are placed on the body making a circle.

Abstract: A hydrogen-oxygen combustion burner includes a gas line that provides hydrogen-oxygen mixed gas, a body in a sealed form to block any foreign oxygen from entering and a plurality of combusting nozzles each with multiple crater holes toward an upper body, a distributing center formed inside the body distributing hydrogen-oxygen mixed gas provided by the gas line to the crater holes, the multiple combusting nozzles being formed around the body in circle when the body is cylindrical, wherein each combusting nozzle contains a circular body of a nozzle, a slope formed on an upper part of the body of the nozzle, crater holes on the slope making an obtuse triangle, distributing center formed perpendicular to an interior of the body of the nozzle for distributing the hydrogen-oxygen mixed gas to the crater holes, a connecting screw formed at the lower part of the body of the nozzle connected with the connecting hole at the upper part of the body and wherein the crater holes become larger in its size toward the slope

Abstract: A hydrogen-oxygen generating system includes a water capture-storage (10), where water is stored and hydrogen-oxygen mixed gas is captured, an electrolyte unit (20) including inflowing pipe (25) to inhale water, and out-flowing pipe (26) to exhale hydrogen-oxygen mixed gas and including a plurality of electrodes (21)(22) to electrolyze water, a first heat radiant pipe (30) radiating heat and supplying water to the electrolyte unit (20) from water capture-storage (10) and connected to a lower part of the water capture-storage (10) and a second heat radiant pipe (40) connected to the outflowing pipe (26) and an upper part of the water capture-storage (10) radiating heat as it provides hydrogen-oxygen mixed gas to the water capture-storage (10).

Abstract: A hydrogen-oxygen generating apparatus includes a metal thin walled tube, an insulation tube inside the thin walled tube, multiple 1st electrolyte plate that has a 1st small hole placed below a part of a center hole and a first big hole placed above an upper part of the center hole, multiple 2nd electrolyte plates with small hole placed above an upper part of a center hole and a 2nd big hole below a lower part of the center hole, a number of rings with a certain thickness between the 1st electrolyte plate and the 2nd electrolyte plate, an electrolyte unit including a 1st electric pole penetrating the 1st small holes and a 2nd electric pole penetrating the 2nd small holes when the 1st electrolyte plate and the 2nd electrolyte plate are placed opposed to each other, a front cover with a frontal water flowing pipe at a center and the 1st electric pole and the 2nd electric pole piercing the cover through 1,2nd pipes up and down the cover in front of the thin walled tube, a rear cover with the 1st electric pole an

Abstract: A hydrogen-oxygen mixed gas generator includes a metal thin walled tube having a certain inner diameter, an insulation tube inserted into an inner surface of the tube, an electrolyte plate unit composed of multiple electrolyte plates with multiple holes and loops with certain thickness a frontal cover provided on a front of the metal thin walled tube and which includes a frontal inlet formed at the bottom and a frontal outlet formed at a top, a frontal insulator which disconnects electricity between the frontal cover and the tube, a rear cover provided on a rear of the metal thin walled tube and which includes a the rear inlet at the bottom and a rear outlet at the top, a rear insulator which disconnect electricity between the rear cover and the tube and a heat-protective plate covered with multiple heat-protective pins, provided in the metal thin walled tube between the front and rear covers.

Abstract: The hydrogen-oxygen generating electrode plate using a carbon nano tube includes a carbon nano tube (CNT); a carbon (C); NiO; NaTaO3; and a catalyst. The method for manufacturing a hydrogen and oxygen generating electrode plate using a carbon nano tube, includes a step S1 for grinding into high-density powders; a step S2 for uniformly mixing carbon nano tube powder, carbon powder, NiO powder, NaTaO3 powder and catalyst and forming a mixture having a high distribution degree; a step S3 for inputting the mixture into a mold and pressing the same and forming a pressing forming object; and a step S4 for plasticity-forming the pressing forming object in a vacuum plasticity furnace.

Abstract: The system for producing hydrogen and oxygen mixture gases is disclosed, which comprises an electrode unit 20 which is formed of a plurality of negative electrodes 25 and a plurality of positive electrodes 26 and further includes first and second lines 21 and 22 connected with a lower side of the electrolyte storage tank 10, and a third line 23 for supplying the produced hydrogen and oxygen mixture gases to the electrolyte storage tank 10; a mixture gas separation filter 50 which is installed in the interior of the electrolyte storage tank 10 for separating the hydrogen and oxygen mixture gases from the electrolyte; a collection part 60 which is formed in an upper side of the mixture gas separation filter 50 for collecting the hydrogen and oxygen mixture gases which are separated by means of the mixture gas separation filter 50; a first filter unit 70 which stores water for preventing the hydrogen and oxygen mixture gas, which is inputted from the collection part 60, reverse-flow into the collection part 60;

Abstract: The apparatus for producing a mixture of hydrogen and oxygen comprises a tube member 10 having a certain inner diameter; a first plate member unit 30 which is inserted into an inner surface of the tube member 10 and includes a plurality of first plate members 31 having a main hole 31a at its center, and a first inner spacing member 32 which is alternately installed with the first plate member 31 and has a certain thickness; a second plate member unit 40 which is installed in the interior of the main holes 31a of the stacked first plate member 31 and includes a plurality of second plate members 41 installed with being spaced apart from an inner surface of the main hole 31a and a second inner spacing member 42 which is alternately installed with the second plate member 41 and has a certain thickness; front and rear covers 50 and 60 which are installed in the front and rear sides of the tube member 10 and fix the second plate unit 40 with a certain space from the inner side of the main hole 31a and is insulated

Abstract: The apparatus for producing a mixture of hydrogen and oxygen is disclosed, which comprises an outer plate member unit 10 in which a plurality of first plate members 11 having a main hole 11a in its center and a circular gasket 11a 13 having a certain thickness and surrounding the main hole 11a are alternately installed; front and rear covers 30 and 40 which are installed in the front and rear sides of the outer plate member unit 10 and fixes the inner plate member unit 20 spaced apart from an inner side of the main hole 11a and is insulated from the inner plate member unit 20; a water supply hole 50 which is formed in the front cover 30 for supplying water to the electrolyte space 10a; and a gas discharge hole 50 which is formed in the front cover 30 for discharging a mixture of hydrogen and oxygen, wherein the first plate members 11 form a body, and the main holes 11a of the first plate member 11 form a cylinder, and the inner side of the circular gaskets 13 and the main holes 11a form an electrolyte space 1

Abstract: The combustion burner of a mixture of hydrogen and oxygen according to the present invention is disclosed. The combustion burner 10 comprises a body part 11 which is airtight connected with a gas line L used for supplying a mixture of hydrogen and oxygen gases while preventing oxygen from being externally inputted and is generally formed in a cylindrical shape; a combustion part 12 whose inclined surface is formed in a rim shape along an upper edge portion of the body part 11; a plurality of flame holes 13 which are formed at regular intervals along an inclined surface of the combustion part; and a distribution part 14 which is formed in the interior of the body part 11 and distributes a mixture of hydrogen and oxygen gases inputted through the gas line L toward the flame holes 13.