Abstract: The thermoelectric module includes a first thermoelectric element including a first thermoelectric conversion layer and a first electrolyte layer stacked each other along a stacked direction, a second thermoelectric element stacking the first thermoelectric element in the stacked direction and including a second thermoelectric conversion layer and a second electrolyte layer stacked each other along the stacked direction, a first current collector located on a side of one edge in the stacked direction, a second current collector located on a side of another edge in the stacked direction, and an electron transmission layer located between the first thermoelectric element and the second thermoelectric element in the stacked direction.

Abstract: There is a possibility that the accuracy of color adjustment decreases due to high-frequency density unevenness on a test chart that is used in a case where sensor reading characteristics are obtained. The present disclosure solves this by correction processing (generating a correction table for sensor shading correction processing) of a reading sensor configuring a scan unit after removing high-frequency density unevenness in advance by performing color adjustment processing (head shading correction processing).

Abstract: The thermoelectric module includes a first thermoelectric element including a first thermoelectric conversion layer and a first electrolyte layer stacked each other along a stacked direction, a second thermoelectric element stacking the first thermoelectric element in the stacked direction and including a second thermoelectric conversion layer and a second electrolyte layer stacked each other along the stacked direction, a first current collector located on a side of one edge in the stacked direction, a second current collector located on a side of another edge in the stacked direction, and an electron transmission layer located between the first thermoelectric element and the second thermoelectric element in the stacked direction.

Abstract: The thermoelectric module includes a first thermoelectric element including a first thermoelectric conversion layer and a first electrolyte layer stacked in order along a stacked direction, a second thermoelectric element including a second electrolyte layer and a second thermoelectric conversion layer stacked in order along the stacked direction, and a first current collector located between the first thermoelectric element and the second thermoelectric element in the stacked direction.

Abstract: A thermoelectric generation device includes a first thermoelectric generation module, a second thermoelectric generation module, and an electroconductive member electrically connecting the first and second thermoelectric generation modules. The first thermoelectric generation module is spaced from the second thermoelectric generation module. The first and second thermoelectric generation modules each have at least one heat utilization power generation element that includes a stack of an electrolyte layer and a thermoelectric conversion layer and a housing that accommodates the heat utilization power generation element.

Abstract: The thermoelectric module includes a first thermoelectric element including a first thermoelectric conversion layer and a first electrolyte layer stacked each other along a stacked direction, a second thermoelectric element stacking the first thermoelectric element in the stacked direction and including a second thermoelectric conversion layer and a second electrolyte layer stacked each other along the stacked direction, a first current collector located on a side of one edge in the stacked direction, a second current collector located on a side of another edge in the stacked direction, and an electron transmission layer located between the first thermoelectric element and the second thermoelectric element in the stacked direction.

Abstract: The thermoelectric module includes a flexible base, a first current collector located on the flexible base, a first thermoelectric element located on the first current collector, the first thermoelectric element including a first thermoelectric conversion layer and a first electrolyte layer stacked in order along a stacked direction of the flexible base and the first current collector, and a second current collector located on the first thermoelectric element.

Abstract: A thermoelectric generation device includes a first thermoelectric generation module having at least one heat utilization power generation element and a first housing that accommodates the heat utilization power generation element, a second thermoelectric generation module having at least one heat utilization power generation element and a second housing that accommodates the heat utilization power generation element, and an electroconductive member electrically connecting the first and second thermoelectric generation modules, wherein an outer surface of the first housing is in contact with an outer surface of the second housing. The heat utilization power generation element includes at least an electrolyte layer and a thermoelectric conversion layer.

Abstract: A heat exchanger manufacturing method, including rolling a metal sheet into a roll shape to form a tube-shaped body, inserting the tube-shaped body through a through hole formed at a metal fin, and loosening the metal sheet that has been rolled into a roll shape to enlarge the diameter of the tube-shaped body and place an outer peripheral face of the tube-shaped body in contact with a hole wall of the through hole, and after enlarging the diameter, joining together a roll-overlap portion of the metal sheet that has been rolled into a roll shape.

Abstract: A heat transfer tube [[(10)]] provided with an undulating portion [[(12)]] at a tube inner face [[(10B)]] is formed by rolling up a metal sheet [[(11)]] formed with the undulating portion [[(12)]] into a tube shape, and joining together overlapped rolled-up portions of the metal sheet.

Abstract: Since it is possible to optionally adjust the used region of a negative electrode, it is possible to obtain a cell having an excellent balance of durability and discharge characteristic, and it is possible to reduce the resistance of a positive electrode. If only the positive electrode is charged before assembling the cell, it is possible to optionally adjust the used region of the negative electrode, so that it is possible to obtain the cell having the excellent balance of durability and discharge characteristic. Also after a large number of charge and discharge cycles are repeated, it is possible to suppress the internal pressure rise of the cell at the last stage of charge. In addition, it is possible to form a good cobalt conductive network on the active material of the positive electrode, and it is possible to reduce the resistance of the positive electrode.