An infrared thermopile sensor includes a silicon cover having an infrared lens, an infrared sensing chip having duo-thermopile sensing elements, and a microcontroller chip calculating a temperature of an object. The components are in a stacked 3D package to decrease the size of the infrared thermopile sensor. The infrared sensing chip and the microcontroller chip have metal layers to shield the thermal radiation. The conversion from wrist temperature to body core temperature uses detected ambient temperature and fixed humidity or imported humidity level to calculate the body core temperature based on experimental data and curve fitting. The skin temperature compensation can be set differently for different sex gender, different standard deviation of wrist temperature and external relative humidity reading.

A chip of thermoelectric conversion material may have a concave portion and may be capable of realizing high joining properties to an electrode. Such a chip of thermoelectric conversion material may have a concave on at least one surface of the chip of thermoelectric conversion material. The shape of such chips of may be rectangular parallelepiped, cubic, and/or columnar shape.

The present invention is to provide a method of producing a thermoelectric conversion device having a thermoelectric element layer with excellent shape controllability and capable of being highly integrated. The present invention relates to a method of producing a thermoelectric conversion device including a thermoelectric element layer formed of a thermoelectric semiconductor composition containing a thermoelectric semiconductor material on a substrate, the method including a step of providing a pattern frame having openings on a substrate; a step of filling the thermoelectric semiconductor composition in the openings; a step of drying the thermoelectric semiconductor composition filled in the openings, to form a thermoelectric element layer; and a step of releasing the pattern frame from the substrate.

The present invention is to provide a method of producing a thermoelectric conversion device having a thermoelectric element layer with excellent shape controllability and capable of being highly integrated. The present invention relates to a method of producing a thermoelectric conversion device including a thermoelectric element layer formed of a thermoelectric semiconductor composition containing a thermoelectric semiconductor material on a substrate, the method including a step of providing a pattern frame having openings on a substrate; a step of filling the thermoelectric semiconductor composition in the openings; a step of drying the thermoelectric semiconductor composition filled in the openings, to form a thermoelectric element layer; and a step of releasing the pattern frame from the substrate.

A method for producing a chip of a thermoelectric conversion material formed of a thermoelectric semiconductor composition, including a step of forming a sacrificial layer on a substrate, (B) a step of forming a thermoelectric conversion material layer of a thermoelectric semiconductor composition on the sacrificial layer, (C) a step of annealing the thermoelectric conversion material layer, (D) a step of transferring the annealed thermoelectric conversion material layer to a pressure-sensitive adhesive layer, (E) a step of individualizing the thermoelectric conversion material layer into individual chips of a thermoelectric conversion material, and (F) a step of peeling the individualized chips of a thermoelectric conversion material; and a method for producing a thermoelectric conversion module using the chip produced according to the production method.

A method for producing a chip of a thermoelectric conversion material formed of a thermoelectric semiconductor composition, including a step of forming a sacrificial layer on a substrate, (B) a step of forming a thermoelectric conversion material layer of a thermoelectric semiconductor composition on the sacrificial layer, (C) a step of annealing the thermoelectric conversion material layer, (D) a step of transferring the annealed thermoelectric conversion material layer to a pressure-sensitive adhesive layer, (E) a step of individualizing the thermoelectric conversion material layer into individual chips of a thermoelectric conversion material, and (F) a step of peeling the individualized chips of a thermoelectric conversion material; and a method for producing a thermoelectric conversion module using the chip produced according to the production method.

A thermoelectric element according to one embodiment of the present disclosure includes a first substrate, a first buffer layer disposed on the first substrate, a first electrode disposed on the first buffer layer, a P-type thermoelectric leg and an N-type thermoelectric leg disposed on the first electrode, a second electrode disposed on the P-type thermoelectric leg and the N-type thermoelectric leg, a second buffer layer disposed on the second electrode, and a second substrate disposed on the second buffer layer, wherein at least one of the first buffer layer and the second buffer layer includes a silicone resin and an inorganic material, and the Young's modulus of at least one of the first buffer layer and the second buffer layer is 1 to 65 MPa.

A power generation device according to an embodiment of the present invention comprises: a cooling part; a thermoelectric module disposed on a first region of one surface of the cooling part; a connector part disposed on a second region of the one surface of the cooling part and connected to the thermoelectric module; a heat insulating member disposed on the connector part and disposed so as to expose a side surface of the connector part; a shield member disposed so as to cover the heat insulating member and the connector part; and a first insulating layer disposed between the connector part and the shield member.

A thermoelectric conversion element includes a P-type thermoelectric conversion layer, a first metal layer, a second metal layer, a first joining layer, and a second joining layer. The P-type thermoelectric conversion layer includes a thermoelectric conversion material containing Mg and at least one selected from the group consisting of Sb and Bi. The first metal layer and the second metal layer each include Cu or a Cu alloy. The first joining layer and the second joining layer each include Al or an Al alloy containing Mg.

An electrical converter and heater module with heat insulators having different cross-sectional areas includes a thermoelectric conversion module that corrects the difference in thermal resistance between a P-type thermoelectric conversion member and an N-type thermoelectric conversion member. In this thermoelectric conversion module, since insulators included in the P-type thermoelectric conversion member and the N-type thermoelectric conversion member have a different thermal resistance, it is possible to correct the difference in thermal resistance between the P-type thermoelectric conversion element and the N-type thermoelectric conversion element.