Abstract: An iron-air battery including an iron electrode in contact with an anode current collector, wherein the iron electrode includes a plurality of channels; an oxygen reduction reaction electrode having a first surface facing the plurality of channels and an opposing second surface in contact with air; an oxygen evolution reaction electrode interdigitated with the plurality of channels of the iron electrode, wherein at least a portion of the oxygen evolution reaction electrode is disposed within the plurality of channels in a direction perpendicular to a plane of the oxygen reduction reaction electrode; and an electrolyte in contact with the iron electrode, the first surface of the oxygen reduction reaction electrode, the plurality of channels, and the oxygen evolution reaction electrode.

Abstract: An ion conductive layer can include a hygroscopic ion conductive material, such as a halide-based material. In an embodiment, the ion conductive layer can include an organic material, ammonium halide, or a combination thereof.

Abstract: A solid ion conductive layer can include a foamed matrix and an electrolyte material including a hygroscopic material. In an embodiment, the electrolyte material can include a halide-based material, a sulfide-based material, or any combination thereof. In another embodiment, the solid ion conductive layer can include total porosity of at least 30 vol % for a total volume of the solid ion conductive layer.

Abstract: An ion conductive layer can include a hygroscopic ion conductive material, such as a halide-based material. In an embodiment, the ion conductive layer can include an organic material, ammonium halide, or a combination thereof.

Abstract: An apparatus can include a housing, a plurality of electrochemical devices disposed within the housing, and a heat exchanger disposed within the housing. The heat exchanger can be faced with an oxidant-containing gas outlet surface of at least one of the plurality of electrochemical devices. The electrochemical devices can include a stack of solid oxide fuel cells, a battery, or a solid oxide electrolyzer cell.

Abstract: An apparatus can include a housing, a plurality of electrochemical devices disposed within the housing, and a heat exchanger disposed within the housing. The heat exchanger can be faced with an oxidant-containing gas outlet surface of at least one of the plurality of electrochemical devices. The electrochemical devices can include a stack of solid oxide fuel cells, a battery, or a solid oxide electrolyzer cell.

Abstract: An ion conductive layer can include a hygroscopic ion conductive material, such as a halide-based material. In an embodiment, the ion conductive layer can include an organic material, ammonium halide, or a combination thereof.

Abstract: An ion conductive layer can include a hygroscopic ion conductive material, such as a halide-based material. In an embodiment, the ion conductive layer can include an organic material, ammonium halide, or a combination thereof.

Abstract: A solid ion conductive layer can include a foamed matrix and an electrolyte material including a hygroscopic material. In an embodiment, the electrolyte material can include a halide-based material, a sulfide-based material, or any combination thereof. In another embodiment, the solid ion conductive layer can include total porosity of at least 30 vol % for a total volume of the solid ion conductive layer.

Abstract: An ion conductive layer can include a hygroscopic ion conductive material, such as a halide-based material. In an embodiment, the ion conductive layer can include an organic material, ammonium halide, or a combination thereof.

Abstract: A solid ion conductive layer can include a foamed matrix and an electrolyte material including a hygroscopic material. In an embodiment, the electrolyte material can include a halide-based material, a sulfide-based material, or any combination thereof. In another embodiment, the solid ion conductive layer can include total porosity of at least 30 vol % for a total volume of the solid ion conductive layer.

Abstract: An apparatus can include a housing, a plurality of electrochemical devices disposed within the housing, and a heat exchanger disposed within the housing. The heat exchanger can be faced with an oxidant-containing gas outlet surface of at least one of the plurality of electrochemical devices. The electrochemical devices can include a stack of solid oxide fuel cells, a battery, or a solid oxide electrolyzer cell.

Abstract: An electrochemical assembly can include an electrochemical device and a heat exchanger disposed within a housing. In an embodiment, the heat exchanger can be disposed in a gas outlet chamber. In another embodiment, the heat exchanger can be at least partially embedded in a wall of the gas outlet chamber. The heat exchanger can be configured to transfer a heat from an outlet gas to an inlet gas.

Abstract: A high temperature system can include a high temperature device having a plurality of opposite surfaces and a compression device that exerts a biaxial compression against the opposite surfaces. The high temperature system can include a high temperature insulation disposed between the compression device and the high temperature device, and a low temperature insulation disposed external to the compression device such that the compression device is disposed between the high temperature insulation and the low temperature insulation.

Abstract: The present invention relates to a control device and a control method, a power generation device and a power generating method, a power storage device and a power storing method, and a power control system that are capable of using generated electric power with higher efficiency. A controller (110) acquires information relating to a power storage state and the like from each power storage device (130) and determines a power transmission source and a power transmission destination of electric power generated by a power generation device (120), for example, as denoted by white arrows based on the information. The controller (110) supplies a power transmission instruction including information of the power transmission destination to the power generation device (120) as the power transmission source and supplies a power reception instruction including information of the power transmission source to the power storage device (130) as the power transmission destination.

Abstract: A fuel cartridge with which liquid leakage through an air induction hole from a fuel tank is able to be prevented and safety is able to be improved is provided. Switching drive for opening and closing an air induction hole 12 is performed by a valve 13 capable of controlling the switching drive according to a control signal. Thereby, air introduction to a fuel tank 100 containing a fuel is able to be controlled. Thus, for example, at the time of high temperature or fuel disorder, by closing the air induction hole 12 by the valve 13, fuel leakage from the fuel tank through the air induction hole of an existing check valve is able to be prevented, and safety is able to be improved.

Abstract: The present invention relates to a control device and a control method, a power generation device and a power generating method, a power storage device and a power storing method, and a power control system that are capable of using generated electric power with higher efficiency. A controller (110) acquires information relating to a power storage state and the like from each power storage device (130) and determines a power transmission source and a power transmission destination of electric power generated by a power generation device (120), for example, as denoted by white arrows based on the information. The controller (110) supplies a power transmission instruction including information of the power transmission destination to the power generation device (120) as the power transmission source and supplies a power reception instruction including information of the power transmission source to the power storage device (130) as the power transmission destination.

Abstract: A method of manufacturing a photoelectric conversion element includes: forming a current-collecting wiring with a conductive paste containing therein silver particles and a low-melting point glass frit on a transparent conductive substrate when the photoelectric conversion element having a structure in which an electrolyte layer is provided between a porous electrode on the transparent conductive substrate, and a counter substrate is manufactured.

Abstract: A portable device includes a case configuring the body of the portable device and a fuel cell system included in the case and having air inlets formed in the surface of the case, and also has a solar cell disposed on a portion on the surface of the case, in which the air inlets are provided. The solar cell has holes corresponding to the air inlets.

Abstract: A transparent electrode substrate includes: a substrate having translucency; a base layer that is laminated on the substrate and includes a surface on which lattice-like grooves are formed; a lattice-like metal wiring layer that is formed by embedding a metallic material into the grooves; a conductive oxide layer that is laminated on the base layer such that the conductive oxide layer is electrically connected to the metal wiring layer, the conductive oxide layer being formed of a first transparent conducting oxide having a first specific resistance; and an inorganic protective layer that is laminated on the conductive oxide layer and formed of a second transparent conducting oxide having acid resistance and a second specific resistance larger than the first specific resistance.