Abstract: An inductor component comprising a single-layer glass plate of a rectangular parallelepiped shape with a width, a length longer than the width, and a height, and having a bottom surface defined by the length and width and a top surface positioned on a back side of the bottom surface; bottom-surface and top-surface conductors disposed above the bottom and top surfaces, respectively; through wirings each extending through a corresponding one of through holes formed in the glass plate; an underlying insulation layer above the bottom-surface conductors; and first and second terminal electrodes above the underlying insulation layer. The bottom-surface and top-surface conductors, and the through wirings are electrically connected as a circularly extending wiring that circularly extends around a winding axis parallel to the bottom surface and the length. The circularly extending wiring, and the first and second terminal electrodes, are electrically connected to each other as an inductor element.

Abstract: An electronic component capable of improving degree of freedom in design. The electronic component comprises glass board including top surface, bottom surface, first side surface, and second side surface, outer surface conductor that is provided on at least first side surface among first side surface and second side surface and is at least a part of passive element, and terminal electrode embedded in glass board so as to be exposed from bottom surface and electrically connected to outer surface conductor. A terminal electrode penetrates glass board from first side surface to second side surface, and height dimension of glass board, which is distance between top surface and bottom surface, is smaller than width dimension of glass board, which is distance between first side surface and second side surface.

Abstract: An electronic component includes a glass substrate having a glass body and a protruding crystallized portion, the glass body including a top surface, a bottom surface, and a first side surface connecting the bottom surface and the top surface to each other, and the first side surface having the crystallized portion; a colored insulation layer on the first side surface; and a through-conductor within the glass body and extending through the top surface and the bottom surface. The crystallized portion extends in a first direction that is parallel to the bottom surface, as viewed from a direction orthogonal to the first side surface. As viewed from the direction orthogonal to the first side surface, at least a portion of the colored insulation layer extends in the first direction and is disposed adjacent to the crystallized portion in a second direction that is orthogonal to the first direction.

Abstract: An electronic component includes a glass substrate having a main body and a protrusion, the main body including top and bottom surfaces, and a first side surface connecting the bottom and top surfaces to each other, the first side surface of the main body being provided with the protrusion; a colored insulation layer on at least the first side surface of the main body; and a through-conductor within the main body and extending through the top surface and the bottom surface. The protrusion extends in a first direction that is orthogonal to the top surface, as viewed from a direction orthogonal to the first side surface. As viewed from the direction orthogonal to the first side surface, at least a portion of the colored insulation layer extends in the first direction and is adjacent to the protrusion in a second direction that is orthogonal to the first direction.

Abstract: An electronic component includes a glass substrate having a glass body and a protruding crystallized portion, the glass body including a top surface, a bottom surface, and a first side surface connecting the bottom surface and the top surface to each other, and the first side surface having the crystallized portion; a colored insulation layer on the first side surface; and a through-conductor within the glass body and extending through the top surface and the bottom surface. The crystallized portion extends in a first direction that is parallel to the bottom surface, as viewed from a direction orthogonal to the first side surface. As viewed from the direction orthogonal to the first side surface, at least a portion of the colored insulation layer extends in the first direction and is disposed adjacent to the crystallized portion in a second direction that is orthogonal to the first direction.

Abstract: An electronic component includes a glass substrate, an outer surface conductor that is in contact with an outer surface of the glass substrate, and a protective film that covers the outer surface of the glass substrate and the outer surface conductor and is in contact with the outer surface of the glass substrate and the outer surface conductor. When the glass substrate has first surface roughness Ra1 at an interface between the glass substrate and the outer surface conductor, the glass substrate has second surface roughness Ra2 at an interface between the glass substrate and the protective film, and the outer surface conductor has third surface roughness Ra3 at an interface between the outer surface conductor and the protective film, Ra1<Ra3<Ra2 is satisfied.

Abstract: An electronic component comprising a glass body containing a photosensitizer; a conductor as at least a part of an electric element, arranged on the glass body; a terminal electrode as a terminal of the electric element, arranged above an outer surface of the glass body, with the terminal electrode being electrically connected to the conductor; and an insulating film arranged above the outer surface of the glass body. The insulating film reflects or absorbs light in a photosensitive wavelength range of the photosensitizer contained in the glass body.

Abstract: An electronic component includes a single-layer glass plate, an outer-surface conductor that is disposed above an outer surface of the single-layer glass plate and that is at least a part of an electrical element, and a terminal electrode that is a terminal of the electrical element. The terminal electrode is disposed above the outer surface of the single-layer glass plate and being electrically connected to the outer-surface conductor.

Abstract: An inductor component comprising a single-layer glass plate of a rectangular parallelepiped shape with a width, a length longer than the width, and a height, and having a bottom surface defined by the length and width and a top surface positioned on a back side of the bottom surface; bottom-surface and top-surface conductors disposed above the bottom and top surfaces, respectively; through wirings each extending through a corresponding one of through holes formed in the glass plate; an underlying insulation layer above the bottom-surface conductors; and first and second terminal electrodes above the underlying insulation layer. The bottom-surface and top-surface conductors, and the through wirings are electrically connected as a circularly extending wiring that circularly extends around a winding axis parallel to the bottom surface and the length. The circularly extending wiring, and the first and second terminal electrodes, are electrically connected to each other as an inductor element.

Abstract: An electronic component comprising a glass body containing a photosensitizer; a conductor as at least a part of an electric element, arranged on the glass body; a terminal electrode as a terminal of the electric element, arranged above an outer surface of the glass body, with the terminal electrode being electrically connected to the conductor; and an insulating film arranged above the outer surface of the glass body. The insulating film reflects or absorbs light in a photosensitive wavelength range of the photosensitizer contained in the glass body.

Abstract: An electronic component includes a single-layer glass plate, an outer-surface conductor that is disposed above an outer surface of the single-layer glass plate and that is at least a part of an electrical element, and a terminal electrode that is a terminal of the electrical element. The terminal electrode is disposed above the outer surface of the single-layer glass plate and being electrically connected to the outer-surface conductor.

Abstract: Provided is a display device including an imaging unit that captures a moving image in a predetermined range in an image display direction, a moving body detection unit that detects whether or not a moving body is present in a predetermined range in the image display direction, an image analysis unit that analyzes the moving image captured by the imaging unit to detect whether or not a face is present, and a power control unit that controls power consumption with different patterns according to a plurality of modes that are set by combining whether or not the face detected by the image analysis unit is present and whether or not the moving body detected by the detection unit is present.

Abstract: A composition for ceramic substrates that includes a mixture of borosilicate glass powder and ceramic powder. The borosilicate glass powder contains 4% to 8% by weight B2O3, 38% to 44% by weight SiO2, 3% to 10% by weight Al2O3, and 40% to 48% by weight MO, where MO is at least one selected from CaO, MgO, and BaO. The mixing proportions of the borosilicate glass powder and the ceramic powder are 50% to 56% by weight the borosilicate glass powder and 50% to 44% by weight the ceramic powder. The ceramic powder has an average particle diameter D50 of 0.4 to 1.5 ?m.

Abstract: Provided is a display device including an imaging unit that captures a moving image in a predetermined range in an image display direction, a moving body detection unit that detects whether or not a moving body is present in a predetermined range in the image display direction, an image analysis unit that analyzes the moving image captured by the imaging unit to detect whether or not a face is present, and a power control unit that controls power consumption with different patterns according to a plurality of modes that are set by combining whether or not the face detected by the image analysis unit is present and whether or not the moving body detected by the detection unit is present.

Abstract: A composition for ceramic substrates that includes a mixture of borosilicate glass powder and ceramic powder. The borosilicate glass powder contains 4% to 8% by weight B2O3, 38% to 44% by weight SiO2, 3% to 10% by weight Al2O3, and 40% to 48% by weight MO, where MO is at least one selected from CaO, MgO, and BaO. The mixing proportions of the borosilicate glass powder and the ceramic powder are 50% to 56% by weight the borosilicate glass powder and 50% to 44% by weight the ceramic powder. The ceramic powder has an average particle diameter D50 of 0.4 to 1.5 ?m.

Abstract: To provide a display method capable of displaying the original power saving effect if a monitoring display of the power saving effect is not made when the monitoring display of the power saving effect is made. Provided is a display method including capturing an image in front of an image display surface included in a display apparatus that displays the image and detecting presence of a moving body positioned in front of the image display surface, deciding a power saving amount of the display apparatus including the power saving amount of the image display surface by using an analysis result of the presence or absence of a human face and a detection result of the moving body in the captured image, and deriving and displaying the actual power saving amount when no display is made on the image display surface on the image display surface when information about the power saving amount is displayed on the image display surface.

Abstract: When a multilayer ceramic substrate with a cavity is reduced in thickness, a bottom wall portion defining the bottom of the cavity is reduced in thickness, thereby leading to the problem that the bottom wall portion is likely to be broken. A bottom wall portion defining a cavity of a multilayer ceramic substrate has a stack structure formed with a high thermal expansion coefficient layer sandwiched between first and second low thermal expansion coefficient layers. This configuration generates compression stress in the low thermal expansion coefficient layers during a cooling process after firing, thereby allowing the mechanical strength at the bottom wall portion to be improved.

Abstract: An image display device and controlling method capable of optimizing a state of the image display device for a user at a desired position. The display device includes: an imaging section that takes an image of a predetermined range of a dynamic image with respect to an image display direction; an image analyzing section that analyzes the dynamic image taken by the imaging section and calculates a position of a user; a system optimization processing section that calculates system control information for optimizing a system based on the position of the user calculated by the image analyzing section; and a system controlling section that optimizes the system based on the system control information calculated by the system optimization processing section.

Abstract: When a multilayer ceramic substrate with a cavity is reduced in thickness, a bottom wall portion defining the bottom of the cavity is reduced in thickness, thereby leading to the problem that the bottom wall portion is likely to be broken. A bottom wall portion defining a cavity of a multilayer ceramic substrate has a stack structure formed with a high thermal expansion coefficient layer sandwiched between first and second low thermal expansion coefficient layers. This configuration generates compression stress in the low thermal expansion coefficient layers during a cooling process after firing, thereby allowing the mechanical strength at the bottom wall portion to be improved.

Abstract: A multilayer ceramic substrate including an inner-layer section, surface-layer sections stacked on opposed principal surfaces of the inner-layer section, and surface electrodes provided on at least one surface of the surface-layer sections. The surface-layer sections contain SiO2-MO—B2O3—Al2O3 based glass and an Al2O3 filler, wherein MO is at least one selected from the group consisting of CaO, MgO, SrO, and BaO. The coefficient of thermal expansion in the surface-layer sections is lower than the coefficient of thermal expansion in the inner-layer section, and the peak intensity ratio through an XRD analysis between MAl2Si2O8 and Al2O3 in the surface-layer sections falls within the range of 0.05?(MAl2Si2O8/Al2O3)?5, wherein M is at least one selected from the group consisting of Ca, Mg, Sr, and Ba.