Abstract: A heating device includes a holding member and having thereinside a plurality of resistive heating elements connected to different pairs of electrode terminals, and a columnar support member joined to the holding member. A first resistive heating element is disposed throughout a first region including a region that overlaps the columnar support member as viewed from the first direction and a second region that is located around an outer periphery of the first region and that does not overlap the columnar support member as viewed from the first direction. A second resistive heating element is disposed throughout the first region and the second region, and an amount of heat generated by the second resistive heating element per unit area of the first region is larger than an amount of heat generated by the second resistive heating element per unit area of the second region.

Abstract: A heating device includes a holding member having a resistive heating element, a columnar support member joined to the holding member, power receiving electrodes connected to the resistive heating element, and an electrode terminal unit disposed in each of through holes in the columnar support member. Each of the electrode terminal units includes a first columnar member having one end portion connected to the power receiving electrode and the other end portion connected to a metal stranded wire, and a second columnar member having an end portion connected to the metal stranded wire. A columnar member assembly having a portion of the first columnar member and a portion of the second columnar member includes a general portion and a large-diameter portion. The distance between the large-diameter portion and an inner peripheral surface of the through hole is smaller than the distance between the general portion and the inner peripheral surface.

Abstract: A heating device includes a holding member and having thereinside a plurality of resistive heating elements connected to different pairs of electrode terminals, and a columnar support joined to the second surface of the holding member. The plurality of resistive heating elements include a first resistive heating element and a second resistive heating element. The first resistive heating element is disposed throughout a first region including a region that overlaps the columnar support member as viewed from the first direction and a second region that is located around the outer periphery of the first region and that does not overlap the columnar support member as viewed from the first direction. The second resistive heating element is disposed at a position closer to the first surface than the first resistive heating element in the first direction and is disposed in only the first region.

Abstract: A heating member includes a ceramic substrate having a structure in which a plurality of ceramic layers are laminated together; a resistance heat-generating element embedded in the ceramic substrate; an electricity supply element disposed on a surface of the ceramic substrate; and an electricity supply path embedded in the ceramic substrate and electrically connecting the resistance heat-generating element and the electricity supply element. The electricity supply path includes a plurality of conductive layers disposed along the planar direction of the ceramic layers at different positions in the thickness direction of the ceramic substrate, and a plurality of vias disposed along the thickness direction of the ceramic substrate. When the plurality of conductive layers are viewed from the thickness direction, their outer edges are positionally offset from one another.

Abstract: A heating device includes a holding member and having thereinside a plurality of resistive heating elements connected to different pairs of electrode terminals, and a columnar support joined to the second surface of the holding member. The plurality of resistive heating elements include a first resistive heating element and a second resistive heating element. The first resistive heating element is disposed throughout a first region including a region that overlaps the columnar support member as viewed from the first direction and a second region that is located around the outer periphery of the first region and that does not overlap the columnar support member as viewed from the first direction. The second resistive heating element is disposed at a position closer to the first surface than the first resistive heating element in the first direction and is disposed in only the first region.

Abstract: A heating device includes a holding member and having thereinside a plurality of resistive heating elements connected to different pairs of electrode terminals, and a columnar support member joined to the holding member. A first resistive heating element is disposed throughout a first region including a region that overlaps the columnar support member as viewed from the first direction and a second region that is located around an outer periphery of the first region and that does not overlap the columnar support member as viewed from the first direction. A second resistive heating element is disposed throughout the first region and the second region, and an amount of heat generated by the second resistive heating element per unit area of the first region is larger than an amount of heat generated by the second resistive heating element per unit area of the second region.

Abstract: A heating device includes a holding member having a resistive heating element, a columnar support member joined to the holding member, power receiving electrodes connected to the resistive heating element, and an electrode terminal unit disposed in each of through holes in the columnar support member. Each of the electrode terminal units includes a first columnar member having one end portion connected to the power receiving electrode and the other end portion connected to a metal stranded wire, and a second columnar member having an end portion connected to the metal stranded wire. A columnar member assembly having a portion of the first columnar member and a portion of the second columnar member includes a general portion and a large-diameter portion. The distance between the large-diameter portion and an inner peripheral surface of the through hole is smaller than the distance between the general portion and the inner peripheral surface.

Abstract: A ceramic member, in a carrier device, including: a plurality of ceramic layers; a clamping electrode formed on a first ceramic layer among the plurality of ceramic layers and inside of the plurality of ceramic layers, and configured to attract a dielectric material by electrostatic force; an electric heating element formed on a second ceramic layer, which is more distant from a side holding a carried object than the first ceramic layer among the plurality of ceramic layers, and configured to generate heat using electric power; a power feed port; a land formed on a third ceramic layer among the plurality of ceramic layers, and configured to receive electric power through the power feed port; and a via arranged to pass through at least one of the plurality of ceramic layers and provided as a conductive material to electrically connect the electric heating element with the land.

Abstract: A heating member includes a ceramic substrate having a structure in which a plurality of ceramic layers are laminated together; a resistance heat-generating element embedded in the ceramic substrate; an electricity supply element disposed on a surface of the ceramic substrate; and an electricity supply path embedded in the ceramic substrate and electrically connecting the resistance heat-generating element and the electricity supply element. The electricity supply path includes a plurality of conductive layers disposed along the planar direction of the ceramic layers at different positions in the thickness direction of the ceramic substrate, and a plurality of vias disposed along the thickness direction of the ceramic substrate. When the plurality of conductive layers are viewed from the thickness direction, their outer edges are positionally offset from one another.

Abstract: A ceramic member, in a carrier device, includes: a plurality of ceramic layers that have insulating properties and are integrally sintered; a clamping electrode formed on a first ceramic layer among the plurality of ceramic layers and inside of the plurality of ceramic layers, and configured to attract a dielectric material by electrostatic force; a power feed port configured to receive a supply of electric power to the clamping electrode from outside of the ceramic member; a land formed on a second ceramic layer, which is different from the first ceramic layer among the plurality of ceramic layers, and configured to receive electric power through the power feed port; and a via arranged to pass through at least one of the plurality of ceramic layers and provided as a conductive material to electrically connect the clamping electrode with the land.

Abstract: A ceramic member, in a carrier device, includes: a plurality of ceramic layers that have insulating properties and are integrally sintered; a clamping electrode formed on a first ceramic layer among the plurality of ceramic layers and inside of the plurality of ceramic layers, and configured to attract a dielectric material by electrostatic force; a power feed port configured to receive a supply of electric power to the clamping electrode from outside of the ceramic member; a land formed on a second ceramic layer, which is different from the first ceramic layer among the plurality of ceramic layers, and configured to receive electric power through the power feed port; and a via arranged to pass through at least one of the plurality of ceramic layers and provided as a conductive material to electrically connect the clamping electrode with the land.

Abstract: A ceramic member, in a carrier device, including: a plurality of ceramic layers; a clamping electrode formed on a first ceramic layer among the plurality of ceramic layers and inside of the plurality of ceramic layers, and configured to attract a dielectric material by electrostatic force; an electric heating element formed on a second ceramic layer, which is more distant from a side holding a carried object than the first ceramic layer among the plurality of ceramic layers, and configured to generate heat using electric power; a power feed port; a land formed on a third ceramic layer among the plurality of ceramic layers, and configured to receive electric power through the power feed port; and a via arranged to pass through at least one of the plurality of ceramic layers and provided as a conductive material to electrically connect the electric heating element with the land.