Abstract: A computer readable medium comprising computer executable instructions for carrying out a method is disclosed. The method includes: generating a schematic of an integrated circuit including a plurality of components, each of the components associated with a format, the format indicating a matching group that represents a respective circuit functionality; merging a first device array layout, which corresponds to a first subset of the components that share a first matching group, and a second device array layout, which corresponds to a second subset of the components that share a second matching group, to form a third device array layout, in response to detecting that the first device array layout and the second device array layout share a same cell type; forming a first layer enclosing the third device array layout; inserting dummy patterns surrounding the first layer; and inserting a guard ring further surrounding the dummy patterns.

Abstract: A machine and a wafer processing apparatus are provided; the machine includes a body and an adjustment part. The body is configured to bear a wafer; the adjustment part is disposed in the body, and the adjustment part uses a vacuum suction to adjust a levelness of an in-process wafer.

Abstract: A liquid collection device is adapted for collecting liquid flowing along a flow path. The liquid collection device includes a collection unit including a top wall member, a bottom wall member, and a surrounding wall member. The top wall member has a liquid inlet extending along the flow path through the top wall member. The bottom wall member is disposed downstream of the top wall member. The surrounding wall member extends from a perimeter of the bottom wall member toward the top wall member. The top wall member covers the surrounding wall member, and cooperates with the bottom wall member and the surrounding wall member to define a liquid-holding space therein, the liquid inlet being spatially communicated to the liquid-holding space.

Abstract: A waterjet cutting system (1) includes a controller (31) and a compensation module (23). The controller (31) is configured to control a motor (23) to move a waterjet cutting head (22) to a predetermined angle (?1). The compensation module (32) is configured to calculate a compensation angle (?) based upon the predetermined angle (?1), a rotating angle (?2) of the motor, and an inclination angle (?3) of the waterjet cutting head (22) detected by an IMU (25) mounted on the waterjet cutting head (22). The controller (31) is further configured to implement angular compensation for the waterjet cutting head (22) by controlling the motor (23) to move the waterjet cutting head (22) by the compensation angle (?).

Abstract: A flat plate type solid oxide fuel cell stack module is obtained by stacking a plurality of flat plate type solid oxide fuel cell stack units. Each of the cell stack unit comprises an anode plate, a cell unit and a cathode plate. The anode plate has a first flow channel, four corner first fuel input holes and a central first fuel output hole. The cathode plate has a second flow channel, a plurality of lateral second air input grooves and a plurality of lateral second air output grooves. The cell unit includes an anode layer, a cathode plate, four corner third fuel input holes and a central third fuel output hole. An anode mental net and an anode sealing material are disposed between the anode plate and the cell unit, a cathode mental net and a cathode sealing material are disposed between the cathode plate and the cell unit.

Abstract: The present invention is to provide a solid oxide fuel cell test apparatus for a solid oxide electrolysis cell with a tubular evaporator furnished in the fuel delivery mechanism of the solid oxide fuel cell test apparatus being connected in serial to an external water supply, and the tubular evaporator having multilayer porous internal filler material may facilitate the inflow of water to be uniformly diffused and heated, providing a stable water vapor for introducing into the fuel cell with the fuel, mitigating adverse effects caused by pulse voltages to the fuel cell during high-temperature water electrolysis hydrogen test, so that more reliable test is achievable in order to obtain a solid oxide fuel cell with hydrogen generation from the water electrolysis.

Abstract: A fuel cell power generation module includes a fuel cell stack body combined with a reformer, a burner, and a plate-type evaporator that are sequentially top-down stacked and assembled into a detachable power generation module, a gas-water separator to recycle mixed fuel that is not completely reacted with the fuel cell stack body, and a part of the recycled fuel is introduced into the burner for burning, and the burner thermal thus produced is used for heating the fuel cell stack body and the plate-type evaporator through thermal radiation and heat conduction, meanwhile, hot air produced by the burner can be used for heating air that enters the fuel cell stack body, and the plate-type evaporator converts the water into steam that feeds into the fuel cell stack body with fuel for reaction.

Abstract: A flat plate type solid oxide fuel cell stack module is obtained by stacking a plurality of flat plate type solid oxide fuel cell stack units. Each of the cell stack unit comprises an anode plate, a cell unit and a cathode plate. The anode plate has a first flow channel, four corner first fuel input holes and a central first fuel output hole. The cathode plate has a second flow channel, a plurality of lateral second air input grooves and a plurality of lateral second air output grooves. The cell unit includes an anode layer, a cathode plate, four corner third fuel input holes and a central third fuel output hole. An anode mental net and an anode sealing material are disposed between the anode plate and the cell unit, a cathode mental net and a cathode sealing material are disposed between the cathode plate and the cell unit.

Abstract: A plate type fuel reformer of fuel cells includes a reformer module stacked by multiple sheet components, and an engaging surface formed on a surface of the reformer module and adhered to a surface of the default fuel cell module in order to form a great thermally-conductive combination. Detachable connections are formed between each of the sheet components and between the sheet components and the fuel cells module. The edge of the reformer module is non-protruding from the side of the fuel cell module after connection. Multiple containing spaces are respectively formed between each of the sheet components for containing default catalyst units. Also, an independent air channel is formed for guiding outside air to into the fuel cell module and a fuel channel is formed for containing the default catalyst units and guiding outside fuel to react with the catalyst units to generate hydrogen gas and carbon monoxide.

Abstract: An in-line planar fuel cell height measurement system is mainly composed of a main stand, at least a top platform above a high temperature furnace, a displacement detection unit on the top platform with a central axis connecting to an extension rod that goes downward into the high temperature furnace and contacts the top surface of the cell stack inside the high temperature furnace, a displacement display unit connecting to the displacement detection unit through signal transmission cables, and a data processing unit connecting to the displacement display unit through signal transmission cables, so the displacement detection unit can sense the height change for the cell stack in the high temperature furnace during temperature rise and operation and send out a signal, which can be directly displayed by the displacement display unit and received by a data processing unit for further analysis and storage.

Abstract: A solid oxide fuel cell (“SOFC”) stack device is disclosed. The SOFC stack includes SOFC units that can easily be stacked and electrically connected to one another. Furthermore, each of the SOFC units can easily be removed from the others and replaced with a new one. The fuel cell stack includes a supporting mechanism and two conducting and pressing units. The supporting mechanism includes three parts. Each part of the supporting mechanism includes slots defined therein for receiving the SOFC units. Each of the conducting and pressing units is located between two adjacent ones of the parts of the supporting mechanism.

Abstract: A load device for planar solid oxide fuel cell stack comprises: a balance plate, a high-temperature compressed column, a load cell, an elastic member, an equalizing ring, and an actuator. The balance plate is disposed abutted against the fuel cell stack, and the high-temperature compressed column is disposed on the balance plate, and the load cell and the elastic member are arranged at a top portion of the high-temperature compressed column. The actuator, being placed on the equalizing ring, is used for providing a load to the equalizing ring, the load cell, the elastic member and the high-temperature compressed column Thereby, the load exerted by the actuator can be detected from the measurement of the load cell while the relationship between the load variation and performance of the SOFC stack can be read directly or transmitted to an external device for display.

Abstract: A solid oxide fuel cell (“SOFC”) stack device is disclosed. The SOFC stack includes SOFC units that can easily be stacked and electrically connected to one another. Furthermore, each of the SOFC units can easily be removed from the others and replaced with a new one. The fuel cell stack includes a supporting mechanism and two conducting and pressing units. The supporting mechanism includes three parts. Each part of the supporting mechanism includes slots defined therein for receiving the SOFC units. Each of the conducting and pressing units is located between two adjacent ones of the parts of the supporting mechanism.

Abstract: A device, adapted for transporting a planar solid oxide fuel cell stack while the SOFC stack is sandwiched between a top plate and a bottom plate, which comprises: a plurality of load units, a lifting unit and a mobile seat. Each of the plural load devices is adapted for exerting a pressure on the SOFC stack. The lifting unit is composed of a joint portion and a plurality of cantilevers. In an exemplary, there is a fixing part arranged at the end of each cantilever while being enabled to connect to the SOFC stack by the bottom thereof. With the aforesaid device, the SOFC stack can be moved out of a high temperature furnace and then into a fuel cell control system smoothly while keeping one's balance without worrying the SOFC stack being damaged or tipping over by collision or losing balance.

Abstract: A system for transporting planar SOFC stack is disclosed, which comprises: a frame, for carrying a cell stack; a robotic arm, for grabbing and holding the cell stack; and a driver, coupled to the frame and the robotic arm and being used for driving the robotic arm. With the aforesaid system, the cell stack can be moved in and out a high-temperature furnace smoothly and rapidly, and then into a fuel cell control system while keeping one's balance without worrying the cell stack being damaged or tipping over by collision or losing of balance.

Abstract: An in-line planar fuel cell height measurement system is mainly composed of a main stand, at least a top platform above a high temperature furnace, a displacement detection unit on the top platform with a central axis connecting to an extension rod that goes downward into the high temperature furnace and contacts the top surface of the cell stack inside the high temperature furnace, a displacement display unit connecting to the displacement detection unit through signal transmission cables, and a data processing unit connecting to the displacement display unit through signal transmission cables, so the displacement detection unit can sense the height change for the cell stack in the high temperature furnace during temperature rise and operation and send out a signal, which can be directly displayed by the displacement display unit and received by a data processing unit for further analysis and storage.

Abstract: A load device for planar solid oxide fuel cell stack comprises: a balance plate, a high-temperature compressed column, a load cell, an elastic member, an equalizing ring, and an actuator. The balance plate is disposed abutted against the fuel cell stack, and the high-temperature compressed column is disposed on the balance plate, and the load cell and the elastic member are arranged at a top portion of the high-temperature compressed column. The actuator, being placed on the equalizing ring, is used for providing a load to the equalizing ring, the load cell, the elastic member and the high-temperature compressed column Thereby, the load exerted by the actuator can be detected from the measurement of the load cell while the relationship between the load variation and performance of the SOFC stack can be read directly or transmitted to an external device for display.

Abstract: A device, adapted for transporting a planar solid oxide fuel cell stack while the SOFC stack is sandwiched between a top plate and a bottom plate, which comprises: a plurality of load units, a lifting unit and a mobile seat. Each of the plural load devices is adapted for exerting a pressure on the SOFC stack. The lifting unit is composed of a joint portion and a plurality of cantilevers. In an exemplary, there is a fixing part arranged at the end of each cantilever while being enabled to connect to the SOFC stack by the bottom thereof. With the aforesaid device, the SOFC stack can be moved out of a high temperature furnace and then into a fuel cell control system smoothly while keeping one's balance without worrying the SOFC stack being damaged or tipping over by collision or losing balance.

Abstract: An in-situ and real-time monitoring and controlling system for chemical vessels, tanks, reactors or the like is disclosed. The chemical vessels, tanks, or reactors are employed to contain high-purity corrosive chemicals such as acids, alkaline liquids or the like. The monitoring and controlling system encompasses a vessel including a conductive shell and insulating interior lining coated therein. A robust detection electrode is dipped into the chemical liquid contained by the vessel. The detection electrode is electrically connected to a measurement means such as an ohmmeter that is mounted outside the vessel. The measurement means is further electrically connected to the conductive shell. When the interior lining is pitted due to the chemical attack by the chemical liquid and the chemical liquid contacts the conductive shell, the measurement means promptly receives a corresponding signal.

Abstract: An in-situ and real-time corrosion controlling system for chemical vessels, tanks or reactors is disclosed. The chemical vessels, tanks or reactors are employed to contain high-purity corrosive chemicals such as acids, alkaline liquids or the like. The controlling system encompasses a vessel including a conductive shell and insulating interior lining coated therein. A robust detection electrode is dipped into the chemical liquid contained by the vessel. The detection electrode is electrically connected to a measurement means such as an ohmmeter that is mounted outside the vessel. The measurement means is further electrically connected to the conductive shell. When the interior lining is pitted due to the chemical attack by the chemical liquid and the chemical liquid contacts the conductive shell, the measurement means promptly receives a corresponding signal. According to one preferred embodiment, the measurement means is further connected to a controller unit that can control a semiconductor-processing unit.