Abstract: A spherical alumina powder having a maximum particle diameter showing a maximum peak in the range of 35 to 70 ?m, a frequency of 5 to 15%, and an accumulated value of frequencies respectively at 20 particle diameter points, obtained by dividing a particle diameter range of 1 to 20 ?m equally into 19 sections, of 3 to 17% by volume, the powder providing a ratio (VY/VX) of a viscosity VY of a resin composition Y to a viscosity VX of a resin composition X of 0.85 or more, composition X containing the powder and a vinyl group-containing polymethylsiloxane, the powder being contained in an amount of 88.1% by mass, the resin composition Y being the same as X except for containing the same powder as in composition X in an amount of 79.3% by mass and containing a powder for testing in an amount of 8.8% by mass.

Abstract: A vapor deposition mask includes a base material including an opening that penetrates from a first surface of the base material to a second surface opposite to the first surface, and a recess that is provided on the first surface, and a structure that is arranged in the recess. The structure is in contact with a side surface of the recess and protrudes to a position higher than the first surface.

Abstract: Provided is a method for producing a zirconia-coated titanium oxide fine particle dispersion which includes (1) a step of preparing a dispersion (1) of titanium oxide fine particles, (2) a step of adding, to the dispersion (1), 1 to 50 parts by mass of an aqueous peroxozirconic acid solution in terms of the mass of ZrO2 per 100 parts by mass of the titanium oxide fine particles, and then aging reaction fine particles (2a) obtained as a result of a reaction between the titanium oxide fine particles and the peroxozirconic acid to thereby obtain a dispersion (2) of a zirconia-coated titanium oxide fine particle precursor (2b), and (3) a step of adjusting the dispersion (2) to have a solid concentration of 0.01 to 10 mass % and then hydrothermally treating the resulting dispersion (2).

Abstract: A method for producing a thin film by atomic layer deposition, the method including: vaporizing a raw material liquid comprising a raw material compound in a vaporizer; introducing the raw material compound vaporized into a film deposition chamber; and forming a thin film on a substrate, where the method includes discharging a gas phase in the vaporizer.

Abstract: An organic light emitting element including a light emitting region on a part of a substrate, the light emitting region including at least one electrode, an organic compound layer that covers the at least one electrode, and a metallic layer that covers the organic compound layer, with a discrimination part including at least one of a convex part and a concave part arranged on at least one of an outer edge of the organic compound layer and an outer edge of the metallic layer.

Abstract: An exterior panel includes a panel body including a first ornamental surface and a recess, and a cover member, including an ornamental wall that covers an open portion of the recess. The recess includes a peripheral wall and a bottom wall. The cover member includes the ornamental wall, an abutment wall that abuts the bottom wall, and a connection wall that connects with an edge of the abutment wall and an inner surface of the ornamental wall. The peripheral wall includes the inner surface on which positioning ribs are arranged. The positioning ribs extend in a first direction. The inner edge of the open portion includes an inclined portion that is inclined to widen the open portion as the first ornamental surface becomes closer in the first direction. An outer edge of the ornamental wall is in contact with the inclined portion.

Abstract: A front structure of a vehicle includes a pair of headlamps each of which having a second inclined surface, an exterior member having a first inclined surface, and a support member. The support member includes: a body portion to which the exterior member is attached, a pair of attachment portions that are connected to both ends of the body portion in the vehicle width direction and to which the headlamps are attached, and a fastening portion that fastens the attachment portions to the body portion at a position where the first and second inclined surfaces are in contact with each other. The support member allows a position change of the attachment portions with respect to the body portion in the vehicle width direction in a state where the body portion and the attachment portions are not fastened by the fastening portion, and restricts the position change in a different direction.

Abstract: A vapor deposition mask includes a mask substrate including a recessed portion disposed on an opposing surface opposed to a substrate, and a peripheral portion surrounding the recessed portion, and a plurality of projection portions disposed in the mask substrate, wherein a bottom portion of the recessed portion includes a plurality of openings and a beam portion disposed between the plurality of openings, wherein the plurality of projection portions is disposed on an upper surface of the beam portion, and wherein a projection portion is not disposed on the opposing surface of the peripheral portion opposed to the substrate.

Abstract: Inorganic powder according to the present invention includes spherical alumina powder and spherical silica powder, in which an angle of repose measured using a powder tester under conditions of a room temperature of 25° C. and a humidity of 65% is more than or equal to 35° and less than or equal to 47°.

Abstract: Inorganic powder includes spherical alumina powder and spherical silica powder, in which when the inorganic powder is measured using a wet flow type image analyzer, a sphericity of a particle size of 5-10 ?m is represented by S1, a sphericity of a particle size of 10-20 ?m is represented by S2, a sphericity of a particle size of 20-30 ?m is represented by S3, a sphericity of a particle size of 30-45 ?m is represented by S4, and a sphericity of a particle size of more than or equal to 45 ?m is represented by S5, at least two of S1, S3, S4, and Ss are more than or equal to 0.89, and S2 is more than or equal to 0.75 and less than 0.89.

Abstract: It is desirable to provide a novel biomaterial and the like for tendon repair. Provided is a biomaterial for tendon repair containing a hydrogel formed by means of a cross-linking reaction between a reactive group A and a reactive group B, wherein the hydrogel contains a water-soluble polymer having the reactive group A, and mesenchymal stem cells having the reactive group B.

Abstract: Provided are titanium oxide fine particles which are excellent in transparency and are less photocatalytically active while maintaining a high refractive index, a dispersion of such fine particles, and a method for producing such a dispersion. The method for producing a dispersion of iron-containing rutile titanium oxide fine particles including a step (1) of neutralizing an aqueous metal mineral acid salt solution containing Ti and Fe in Fe2O3/(TiO2+Fe2O3)=0.001 to 0.010 to form an iron-containing hydrous titanic acid; a step (2) of adding an aqueous hydrogen peroxide solution to form an aqueous solution of iron-containing peroxotitanic acid having an average particle size of 15 to 50 nm; a step (3) of adding a tin compound so as to satisfy TiO2/SnO2=6 to 16; a step (4) of adding a sol of silica-based fine particles which contain Si and a metal element M in SiO2/MOx/2=99.9/0.1 to 80/20, the addition being made so as to satisfy SiO2/(oxides of the other elements)=0.08 to 0.

Abstract: A method of manufacturing a light emitting device, the method including forming a resist layer on the first insulating layer so as to expose a part of the first insulating layer in a region, the second electrode layer being on an element constituting layer including a light-emitting layer that is arranged on a first electrode, removing the first insulating layer, the second electrode layer, and the element constituting layer in the region, removing the resist layer after removing the first insulating layer, the second electrode layer, and the element constituting layer, and forming a side wall including an insulating material, which covers side surfaces of the first insulating layer, the second electrode layer, and the element constituting layer, after removing the resist layer.

Abstract: Rutile titanium oxide particles, in which Fe and Zr are dissolved to form a solid solution, have an interplanar spacing of a (110) plane obtained by X-ray diffraction measurement of 0.3250 nm or more and an average particle size in a range from 5 nm to 50 nm.

Abstract: A patterning device performs patterning in manufacture of a display panel in which thin films including an organic film are laminated above a substrate. The patterning device includes a chamber, light transmissive plates, and a laser emitter. The chamber has a light transmissive window including a first light transmissive plate through which a laser beam is transmitted and accommodates a thin film laminated substrate. A second light transmissive plate through which the laser beam is transmitted is in the chamber between the first light transmissive plate and the thin film laminated substrate at a position spaced away from the thin film laminated substrate. The laser emitter is outside the chamber and emits the laser beam towards the thin film laminated substrate, through the first light transmissive plate and the second light transmissive plate, to irradiate and remove a portion of the thin film.

Abstract: A machine learning model operation management system includes a model building server and an operation server. The model building server builds a trained machine learning model based on received training data. When the trained machine learning model stored in a robot controller operates for determining the operation of a robot, the operation server receives operation information generated by the robot controller. Data of the trained machine learning model built by the model building server is assigned with model identification information that uniquely identifies the trained machine learning model. The robot controller makes an external inquiry as to whether or not it has permission to use the trained machine learning model stored in itself, and if it has the permission to use, it makes the trained machine learning model available for use. The operation server stores the operation information in association with the model identification information.

Abstract: A semiconductor device in which semiconductor layers are stacked is provided. A first structure is arranged between a first semiconductor layer and a second semiconductor layer. A second structure is arranged between the second semiconductor layer and a third semiconductor layer. In an orthographic projection to the third semiconductor layer, a region where elements are arranged in the third semiconductor layer is a first region, and a region between the first region and a peripheral portion of the third semiconductor layer is a second region. In the second region, an opening that extends through the third semiconductor layer, the second structure and the second semiconductor layer and exposes an electrode arranged in the first structure is arranged. Between the first region and the opening, an insulator is arranged at the same height as the second semiconductor layer.

Abstract: A spherical alumina powder having a maximum particle diameter showing a maximum peak in the range of 35 to 70 ?m, a frequency of 5 to 15%, and an accumulated value of frequencies respectively at 20 particle diameter points, obtained by dividing a particle diameter range of 1 to 20 ?m equally into 19 sections, of 3 to 17% by volume, the powder providing a ratio (VY/VX) of a viscosity VY of a resin composition Y to a viscosity VX of a resin composition X of 0.85 or more, composition X containing the powder and a vinyl group-containing polymethylsiloxane, the powder being contained in an amount of 88.1% by mass, the resin composition Y being the same as X except for containing the same powder as in composition X in an amount of 79.3% by mass and containing a powder for testing in an amount of 8.8% by mass.

Abstract: Provided are titanium oxide fine particles which are excellent in transparency and are less photocatalytically active while maintaining a high refractive index, a dispersion of such fine particles, and a method for producing such a dispersion. The method for producing a dispersion of iron-containing rutile titanium oxide fine particles including a step (1) of neutralizing an aqueous metal mineral acid salt solution containing Ti and Fe in Fe2O3/(TiO2+Fe2O3)=0.001 to 0.010 to form an iron-containing hydrous titanic acid; a step (2) of adding an aqueous hydrogen peroxide solution to form an aqueous solution of iron-containing peroxotitanic acid having an average particle size of 15 to 50 nm; a step (3) of adding a tin compound so as to satisfy TiO2/SnO2=6 to 16; a step (4) of adding a sol of silica-based fine particles which contain Si and a metal element M in SiO2/MOx/2=99.9/0.1 to 80/20, the addition being made so as to satisfy SiO2/(oxides of the other elements)=0.08 to 0.

Abstract: Provided are titanium oxide fine particles which are excellent in transparency and are less photocatalytically active while maintaining a high refractive index, a dispersion of such fine particles, and a method for producing such a dispersion. The method for producing a dispersion of iron-containing rutile titanium oxide fine particles including a step (1) of neutralizing an aqueous metal mineral acid salt solution containing Ti and Fe in Fe2O3/(TiO2+Fe2O3)=0.001 to 0.010 to form an iron-containing hydrous titanic acid; a step (2) of adding an aqueous hydrogen peroxide solution to form an aqueous solution of iron-containing peroxotitanic acid having an average particle size of 15 to 50 nm; a step (3) of adding a tin compound so as to satisfy TiO2/SnO2=6 to 16; a step (4) of adding a sol of silica-based fine particles which contain Si and a metal element M in SiO2/MOx/2=99.9/0.1 to 80/20, the addition being made so as to satisfy SiO2/(oxides of the other elements)=0.08 to 0.