Abstract: The present invention relates to a chemically strengthened glass having a sheet thickness t (mm), a compressive stress layer depth DOC of 180×t (?m) or more, CS30-50 which is a compressive stress integrated value at a depth of 30 ?m to 50 ?m from a surface of the chemically strengthened glass of 12000 Pa·m or less, and CS90 which is a compressive stress value at a depth of 90 ?m from the surface of 175×t?88 (MPa) or more.

Abstract: A chemically strengthened glass having a thickness t [mm], in which a compressive stress layer depth DOC [?m] is 160t [?m] or more, and a value CS90/ICT [?m?1] obtained by dividing CS90 [MPa] which is a compressive stress value at a depth of 90 ?m from a surface of the chemically strengthened glass by a tensile stress integrated value ICT [MPa·?m] is 0.0012 ?m?1 or more.

Abstract: A light-emitting device of one embodiment of the present disclosure includes: a light source section including a surface light source; a light reflective film that covers a surface of the light source section and has one or more openings on a light outputting surface of the light source section; and a reflecting structure that is provided on side of the light outputting surface of the light source section and has one or more light reflecting surfaces around the one or more openings, the one or more light reflecting surfaces reflecting light outputted from the one or more openings in a predetermined direction.

Abstract: There is provided a display device including a plurality of unit regions disposed adjacent to each other, a first region that is provided in each of the unit regions, and emits first light, and a second region that is provided outside the first region in each of the unit regions, and emits second light. The second light is different from the first light in at least one of luminance, wavelength, or surface-reflection component, the second regions are provided between adjacent ones of the first regions, and a difference in luminance, wavelength, or surface-reflection component between the second light to be emitted from adjacent ones of the unit regions is smaller than a difference in luminance, wavelength, or surface-reflection component between the first light and the second light in a same one of the unit regions.

Abstract: The present invention relates to a chemically strengthened glass having a thickness of t [?m] and including Li2O, K2O, and Na2O, in which a minimum depth z at which Kx is (Kt/2+0.1) [%] or more is 0.5 ?m to 5 ?m, provided that Kx [%] is a concentration of K2O at a depth of x [?m] from a surface of the chemically strengthened glass and Kt/2 [%] is a content of K2O before chemical strengthening, in terms of mole percentage based on oxides.

Abstract: The present invention relates to a chemically strengthened glass, satisfying in comparison of an estimated stress profile with an effective stress profile, an absolute value of a difference between tensile stress values at a center in a thickness direction is 30 MPa or smaller, and a value obtained by subtracting, at a depth of 15 ?m from a chemically strengthened surface of the glass, a compressive stress value of the effective stress profile from a compressive stress value of the estimated stress profile is 50 MPa or larger.

Abstract: A sensor mounting structure includes: a sensor body that detects peripheral information in relation to a vehicle; and a housing that is formed in a box shape, covers the sensor body from an outer side, and is attached to an outer panel of the vehicle, wherein fastening portions extend from wall surfaces of the housing at one end side and another end side in a direction along the outer panel, and the fastening portions are fastened to the outer panel by fastening members.

Abstract: The present disclosure relates to an optical axis correction method for performing an optical axis correction of a surrounding environment recognition sensor mounted on a vehicle and including a pair of sensors configured of a first sensor in a first direction of the vehicle and a second sensor in a second direction symmetrical to the first direction. The method includes: detecting, with the sensors, a pair of objects located respectively in the first direction and the second direction; acquiring a first road surface angle in the first direction and a second road surface angle in the second direction with the sensors; acquiring a first object angle in the first direction, and a second object angle in the second direction; and restricting the optical axis correction when the first and the second road surface angles do not match, or when the first and second object angles do not match.

Abstract: A light emitting device of an embodiment of the present disclosure includes: a substrate having a first surface and a second surface opposed to each other; semiconductor stacks provided on the first surface of the substrate and each including a first conductivity type layer, an active layer, and a second conductivity type layer that are stacked in order from a side of the first surface, the semiconductor stacks including multiple light emitting regions configured to emit light; and a separation section provided between the multiple light emitting regions and having a top surface at a position higher than the active layer in a direction of a normal to the first surface of the substrate.

Abstract: A light emitting device of one embodiment of the present disclosure includes: a substrate; a light emitting element disposed above the substrate, and having electrodes on respective upper surface and lower surface of the light emitting element; and a light shielding layer provided between the substrate and the light emitting element.

Abstract: A light emitting device including a light emitting layer that is provided between a first face and a second face, a first electrode that is provided on the first face and is electrically coupled to the light emitting layer, a second electrode that is provided on the second face and is electrically coupled to the light emitting layer, and a non-selected electrode that is provided on the first face and is in a state not electrically coupled to a potential supply source.

Abstract: A sensor mounting structure for a vehicle includes: a fender panel; a cowl side panel provided at a lateral side of a cowl and disposed at an inner side, in a vehicle transverse direction, of the fender panel; a peripheral information detection sensor disposed at an inner side of the rear portion of the fender panel and at an outer side of the cowl side panel, the peripheral information detection sensor having a detection portion facing toward an outer side; and a mounting bracket having a vertical wall to which the peripheral information detection sensor is fixed, the mounting bracket being fixed to a vehicle body side member and being disposed between the peripheral information detection sensor and the cowl side panel.

Abstract: There is provided a display device including a plurality of unit regions disposed adjacent to each other, a first region that is provided in each of the unit regions, and emits first light, and a second region that is provided outside the first region in each of the unit regions, and emits second light. The second light is different from the first light in at least one of luminance, wavelength, or surface-reflection component, the second regions are provided between adjacent ones of the first regions, and a difference in luminance, wavelength, or surface-reflection component between the second light to be emitted from adjacent ones of the unit regions is smaller than a difference in luminance, wavelength, or surface-reflection component between the first light and the second light in a same one of the unit regions.

Abstract: A sensor mounting structure for a vehicle includes: a fender panel; a cowl side panel provided at a lateral side of a cowl and disposed at an inner side, in a vehicle transverse direction, of the fender panel; a peripheral information detection sensor disposed at an inner side of the rear portion of the fender panel and at an outer side of the cowl side panel, the peripheral information detection sensor having a detection portion facing toward an outer side; and a mounting bracket having a vertical wall to which the peripheral information detection sensor is fixed, the mounting bracket being fixed to a vehicle body side member and being disposed between the peripheral information detection sensor and the cowl side panel.

Abstract: There is provided a display device including a plurality of unit regions disposed adjacent to each other, a first region that is provided in each of the unit regions, and emits first light, and a second region that is provided outside the first region in each of the unit regions, and emits second light. The second light is different from the first light in at least one of luminance, wavelength, or surface-reflection component, the second regions are provided between adjacent ones of the first regions, and a difference in luminance, wavelength, or surface-reflection component between the second light to be emitted from adjacent ones of the unit regions is smaller than a difference in luminance, wavelength, or surface-reflection component between the first light and the second light in a same one of the unit regions.

Abstract: [Object] A light-emitting element includes: a semiconductor layer; a first electrode portion; a second electrode portion; a first insulating layer; and a metal layer. The semiconductor layer includes an active layer, a first-conductivity-type layer, and a second-conductivity-type layer, and has a semiconductor-layer side surface including a side surface of the active layer, a side surface of the first-conductivity-type layer, and a side surface of the second-conductivity-type layer. The first electrode portion is connected to the first-conductivity-type layer. The second electrode portion is connected to the second-conductivity-type layer. The first insulating layer is in contact at least with a part of the semiconductor-layer side surface, the part of the semiconductor-layer side surface corresponding to a part of the side surface of the active layer.

Abstract: A light-emitting device assembly includes a light-emitting device including a light-emitting layer, a first electrode, and a second electrode, and a first connecting portion and a second connecting portion provided on a base, in which the first connecting portion and the second connecting portion are separated from each other by a separation portion, the base is exposed from the separation portion, a wide portion is on a first connecting portion side of the separation portion, the first electrode includes a first portion and a second portion, the second portion of the first electrode is connected to the first connecting portion, the first portion of the first electrode extends from the second portion of the first electrode, and an orthographic projection image of the first portion of the first electrode with respect to the base and the wide portion of the separation portion overlap with each other at least in part.

Abstract: A light emitting device includes a light emitting part 21, a black layer 51, and a light diffusion part 41 that is formed on or above the black layer 51. The black layer 51 is provided with an opening part 53 that allows light emitted from the light emitting part to pass through it. Then, light having passed through the opening part 53 passes through the light diffusion part 41.

Abstract: There is provided a display device including: a plurality of unit regions disposed adjacent to each other; a first region that is provided in each of the unit regions, and emits first light; and a second region that is provided outside the first region in each of the unit regions, and emits second light, the second light being different from the first light in at least one of luminance, wavelength, or surface-reflection component, the second regions being provided between adjacent ones of the first regions, and a difference in luminance, wavelength, or surface-reflection component between the second light to be emitted from adjacent ones of the unit regions being smaller than a difference in luminance, wavelength, or surface-reflection component between the first light and the second light in a same one of the unit regions.

Abstract: [Solving Means] A semiconductor unit includes a substrate, a semiconductor device, and a plating layer. The semiconductor device includes a semiconductor layer and one or more electrodes, the one or more electrodes being connected to the semiconductor layer and including a platinum-group element as a main material. The plating layer bonds the substrate and the electrode.