Abstract:
본 발명의 일 실시예에 따르는 연료전지 시스템은, 연료극과 공기극을 구비하고, 연료처리장치로부터 수소를 공급받는 스택부와, 상기 연료처리장치에서 배출되는 유체로부터 응축수를 분리하도록 형성되는 제1 기액분리기와, 상기 연료극으로부터 배출되는 유체로부터 응축수를 분리하도록 형성되는 제2 기액분리기와, 상기 공기극으로부터 배출되는 유체로부터 응축수를 분리하도록 형성되는 제3 기액분리기 및 상기 제1 내지 제3 기액분리기로부터 배출되는 응축수들이 응축수 탱크에 포집되도록, 일측이 상기 각각의 기액분리기에 연결되고 타측이 상기 응축수 탱크에 연결되는 응축수 통합관을 포함한다.
Abstract:
A thermal battery assembly according to one embodiment of the present invention includes a battery stack part which includes a thermal battery including a eutectic salt electrolyte which is soluble over a constant temperature, and an adiabatic part which touches the battery stack part to control heat inputted to the battery stack part. The adiabatic part includes a heat supply part which supplies heat to the thermal battery when gun powder ignites and a heat storage part which touches the heat supply part and has eutectic pellets to store heat supplied from the heat supply part. At least parts of the heat storage part can be arranged between the thermal battery and the heat supply part.
Abstract:
The present invention relates to an electrode for a lithium secondary battery and to a lithium secondary battery including the same, wherein the electrode contains: a compound including a diazine group in which two carbons, bound to two nitrogens by a double bond, are bound to each other by a single bond; or a salt, the usage of which allows the electrode to have excellent capacity per unit weight. According to the present invention, the lithium secondary battery contains a compound including the diazine group; or salt, wherein the compound presented by any one of chemical formulas 1 to 3.
Abstract:
The present invention relates to an electrode which has excellent capacity per weight unit for lithium secondary battery using salt or compound including oxadiazole pyrazine whose numbers of substitution position of lithium ion (L^+) are at least greater or equal to four; and to a lithium secondary battery including the same.
Abstract:
PURPOSE: A controlling method of a fuel reformer is provided to improve the durability of a catalyst by rapidly raising the temperature of a catalyst to a starting temperature. CONSTITUTION: A controlling method of a fuel reformer includes the following steps: a catalyst(112) is heated by operating an electric heater(114) which surrounds the catalyst; fuel and air are supplied to the catalyst under a complete combustion condition; an ignition plug(115) adjacently installed at the rear part of the catalyst is ignited to flame combust fuel; and the supplying amounts of the fuel and the air are reduced to move the flame combustion into the catalyst in order to rapidly raise the temperature of the catalyst. [Reference numerals] (AA) Reactant; (BB) Product
Abstract:
PURPOSE: A reactor and a catalyst heating method of a fuel reformer are provided to efficiently transfer heat by increasing the contact area of heat transmission and reducing heat loss to external side. CONSTITUTION: A reactor(120) of a fuel reformer includes a case(121), an internal heat insulator(123), an electric heater(124), and a metal ring(125). A catalyst(122) is arranged in the case. The internal heat insulator surrounds a part of the catalyst and is arranged in the case. The electric heater is mounted at the external side of the case to heat the case. The metal ring surrounds another part of the catalyst to transfer heat from the electric heater to the catalyst. At least part of the metal ring is covered with the electric heater. [Reference numerals] (AA) Reactant; (BB) Product
Abstract:
PURPOSE: A fuel cell system including a frame structure is provided to improve the recovery effect of water generate between reaction processes, and to enable users to easily repair or manage the system. CONSTITUTION: A fuel cell system(100) comprises the following: a base(110) for forming the bottom of the system; plural frames(120) separately located in the system; hollow units(121) formed inside the frames; hydrocarbon class fuel(130) stored in at least one hollow unit; water(140) reformation-reacting with the fuel, stored in another hollow unit; a fuel reformer(160) generating hydrogen by the reformation-reaction; and a fuel cell(170) generating energy using the hydrogen.