Abstract:
The present invention relates to a stack structure of an electrochemical flow cell and a redox flow battery including the same and, more specifically, to a a stack structure of an electrochemical flow cell and a redox flow battery including a frame which includes an instrument for both connecting and disconnecting and a manifold complex built up with a plurality of manifold unit modules which includes a felt electrode ensconced on the frame. Since adjusting the surface area of voltage and current according to the number of manifold unit module is possible, a user is able to secure the power output desired for the specifications and individual split and merge is easy so that a simple modification or replacement of partial unit modules is possible.
Abstract:
본 발명에 따른 레독스 흐름전지는 하나의 플레이트에 서로 다른 극을 갖는 반응부가 형성된 매니폴드를 포함하는 단위셀을 2층 이상 적층하여 형성된 구조를 갖는 것을 특징으로 한다. 상기한 레독스 흐름 전지는 하나의 플레이트에 서로 다른 극을 갖는 반응부가 형성된 매니폴드를 포함하는 단위셀을 직렬로 연결함으로서 직렬과 병렬의 구조를 동시에 형성하여 종래와 동일한 수의 스택이 형성되는 경우에 비해 높은 전압을 형성하므로 전지의 출력을 극대화시킬 뿐만 아니라 출력의 증가함에도 불구하고 전지 부피의 감소시킬 수 있는 유용한 효과가 있다.
Abstract:
PURPOSE: A manifold for redox flow batteries is provided to prevent the flow of liquid electrolyte existing in a stack or pipe when the operation of a pump is stopped, thereby inhibiting the generation of shunt current. CONSTITUTION: A manifold for redox flow batteries comprises a first electrode electrolyte inlet (140) and a first electrode electrolyte outlet (141) for flowing in and out of the first electrode electrolyte; a first electrode electrolyte reaction part (120) formed inside; a supply path (160) for supplying the first electrode electrolyte injected from the first electrode electrolyte inlet to the first electrode electrolyte reaction part; an exhaust flow path (161) for transferring and discharging the first electrode electrolyte to the first electrode electrolyte outlet; and a second electrode electrolyte inlet (150) and a second electrode electrolyte outlet (151) for transferring a second electrode electrolyte.
Abstract:
본 발명의 리튬이온 커패시터에 있어서, 커패시터용 전극 첨가 물질인 Li 1+a Mn 0.67-b Fe c O 2-d (0.21≤a≤0.33, 0≤b≤0.15, 0≤c≤0.2, -0.2≤d≤0.2)과 활성탄소를 혼합하여 커패시터용 전극을 제조하는 방법이 개시된다.
Abstract:
PURPOSE: Additive materials for an electrode for a capacitor, a method for manufacturing the electrode for the capacitor and a lithium ion capacitor including the electrode are provided to control an amount of anodic oxide by accurately controlling an amount of lithium inserted into cathodlic carbon. CONSTITUTION: An electrode for a capacitor is made of additive materials. The electrode for the capacitor is made by mixing active carbon for the capacitor. Anodic lithium mixed with the active carbon for the capacitor is electrochemically inserted into a cathode. An operation voltage in an insertion process is higher than the operation voltage after the insertion process. The lithium is inserted into the cathode at 40 to 100 degrees centigrade in an initial insertion process.
Abstract:
PURPOSE: Electrode additives and a capacitor manufactured by using the same are provided to control insertion quantity of lithium by inserting the lithium which exists in an anodic oxide into a cathode. CONSTITUTION: Electrode additives for a capacitor are obtained by mixing a lithium system compound, a manganese system compound, and an iron system compound and firstly heat-treating a mixture at 400degrees for 72hours. The mixture is secondly heat-treated at 700 to 1,100degrees for 1 to 30hours. An electrode for the capacitor is provided by mixing the electrode additives for the capacitor with activated carbon.
Abstract:
Disclosed is a coin type lithium ion capacitor which includes a positive electrode made of an activated carbon based positive active material and a negative electrode opposite to the positive electrode with a first separator interposed therebetween. The negative electrode includes a graphite electrode including a first current collector and a graphite based negative active material coated onto the first current collector; and a lithium metal member opposite to the graphite electrode with a second separator interposed therebetween and including a second current collector and lithium metal coated on the second current collector, in which lithium ions of the lithium metal move from the lithium metal to the positive electrode through the graphite electrode during discharge and are carried in the graphite electrode from the positive electrode during charge.