Abstract:
The present invention relates to a pre-treatment method of a porous nickel-based catalyst for a fuel cell, and more specifically, in order to increase activity of reforming reaction to supply hydrogen which is a raw material of a fuel electrode of a fuel cell, a porous nickel-based catalyst is pre-treated under SPOX or POX conditions, whereby the porous nickel-based catalyst have high activity in the reforming reaction. In addition, by structure co-catalyst coating on the porous nickel-based catalyst before pre-treating the porous nickel-based catalyst, it prevents activity of the porous nickel-based catalyst from decreasing to hydrocarbon reforming reaction as time goes on.
Abstract:
The present invention provides: a hydrogen production device which uses ammonia borane pellets as fuel for producing hydrogen, successively produces hydrogen without using a separate catalyst by promoting the anhydrization of the ammonia borane pellets using a heated organic solvent, is capable of self sustainable operation, and is capable of minimizing impurities; and a hydrogen producing method using the same.
Abstract:
PURPOSE: An apparatus for supplying reformed gas to a solid oxide fuel cell and a method thereof are provided to be able to rapidly and easily change the reformed gas, especially methane composition supplied to a solid oxide fuel cell, and to be able to stably control the temperature of a stack. CONSTITUTION: An apparatus for supplying reformed gas to a solid oxide fuel cell (300) comprises a backup reformer (230), a main reformer (250) connected to the backup reformer, a valve (100) branching a part of the gas supplied to the main reformer from the backup reformer to supply to the cathode of the solid oxide fuel cell. A method of supplying the reformed gas to the solid oxide fuel cell is to branch a part of the gas supplied to the main reformer from the backup reformer and to supply to the cathode of the solid oxide fuel cell. [Reference numerals] (AA) Anode gas flow; (BB) Cathode gas flow; (CC) Gas discharged from a catalyst combustor; (DD) Cooling water
Abstract:
자열 개질 반응이 일어나는 자열 개질 반응기, 상기 자열 개질 반응기와 대향하여 위치하고 수성화 반응이 일어나는 수성화 반응기, 상기 자열 개질 반응기와 상기 수성화 반응기 사이에 위치하는 내부 열교환기를 포함하는 연료 처리 장치로서, 상기 자열 개질 반응기의 반응물은 상기 내부 열교환기를 거쳐서 상기 자열 개질 반응기로 공급되고, 상기 자열 개질 반응기의 생성물은 상기 내부 열교환기를 거쳐서 상기 반응물과 열교환한 후 상기 수성화 반응기의 반응물로서 공급되는 자열 개질 반응기와 수성화 반응기가 통합된 연료 처리 장치 및 연료 처리 방법이 제공된다.
Abstract:
PURPOSE: An apparatus and method for treating fuel is provided to maintain high hydrogen yield and low carbon monoxide yield and to maintain sufficient temperature difference between an auto-thermal reforming reaction and hydrogenation reaction. CONSTITUTION: An apparatus(100) for treating fuel comprises an auto-thermal reformation reactor(10) which conducts an auto-thermal reforming reaction; a hydrogenation reactor(30) which is located opposite the auto-thermal reformation reactor; and an internal heat exchanger(20) between the auto-thermal reformation reactor and the hydrogenation reactor. The result of the auto-thermal reformer is supplied to the hydrogenation reactor through the internal heat exchanger, as a reactant after heat exchanging. [Reference numerals] (AA) Reactant(Ethanol + Water + Air)
Abstract:
본 발명에서는 탄화수소계열 술폰화 고분자를 이용하여 제작된 멤브레인을 구비하는 MEA의 촉매 바인더로서, 탄화수소계열 술폰화 고분자를 포함하는 것을 특징으로 하는 MEA의 촉매 바인더, 그 제조 방법 및 상기 촉매 바인더를 이용하여 제조되는 MEA를 제공한다. 본 발명에 따르면 탄화수소계열 술폰화 고분자 멤브레인을 구비하는 MEA에 있어서, 멤브레인과 전극의 접착력을 높일 수 있고, 성능이 우수하게 되며, 이에 따라 탄화수소계열 술폰화 고분자 멤브레인을 구비하는 MEA의 상용화를 가능하게 할 수 있다. 탄화수소계열술폰화고분자, 촉매바인더, 멤브레인, 막전극집합체
Abstract:
A multi-channel electronic load device is provided to effectively measure the current and voltage characteristics of plural segmented cells at the same time through multi-channels. In a multi-channel electronic load device operated in a constant current mode, a constant current mode circuit includes an operational amplifier(OP AMP), a reference voltage source(Vref) connected to a plus terminal of the operational amplifier, a detection resistance(Rs) coupled to a minus terminal of the operational amplifier, and an input voltage unit electrically coupled with a cell to be measured. The input voltage unit has plural input terminals installed correspondently to each cell to connect plural cells in parallel. A voltmeter measures the voltage of the cells connected to each other in parallel between the input terminals, and an ampere meter measures the current of the cells. The multi-channel electronic load device measures the performance of each cell at the same time by simultaneously monitoring the current and voltage characteristics of the cells of the input voltage unit if constant current is applied to the input voltage unit as reference voltage of the reference voltage source is varied.
Abstract:
Provided is a catalyst binder for a membrane electrode assembly(MEA) formed by using a membrane comprising a hydrocarbon-based sulfonated polymer, which increases the adhesion between the membrane and an electrode and imparts improved quality to the MEA. The catalyst binder for a membrane electrode assembly(MEA) having a membrane comprising a hydrocarbon-based sulfonated polymer, comprises a hydrocarbon-based sulfonated polymer. The hydrocarbon-based sulfonated polymer is provided as a solution dissolved in isopropanol, 1-propanol, water and an organic solvent. The hydrocarbon-based sulfonated polymer is dissolved in the solvent at a temperature of 150-180 deg.C under a pressure of 100-200 psi.
Abstract:
PURPOSE: A separation plate for a fuel cell is provided, to prevent the bending of a separation plate, thereby maximizing the area of the separation plate and enabling the gas to be sealed effectively. CONSTITUTION: The separation plate comprises the slot plate(1) which has the symmetrical structure as a whole by arranging the slots (which is a gas flow path) in two directions of longitudinal and lateral directions alternatively at regular intervals on a flat plate. Preferably the slot plate(1) is made of stainless steel.
Abstract:
PURPOSE: A separation plate for a fuel cell is provided, to prevent the bending of a separation plate, thereby maximizing the area of the separation plate and enabling the gas to be sealed effectively. CONSTITUTION: The separation plate comprises the slot plate(1) which has the symmetrical structure as a whole by arranging the slots (which is a gas flow path) in two directions of longitudinal and lateral directions alternatively at regular intervals on a flat plate. Preferably the slot plate(1) is made of stainless steel.