Abstract: A display control device for performing control on a display of a display configured to display an image of content laid out in a virtual space as viewed from a predetermined position, the display being mounted on portions of eyes by a user. The device detects an orientation, with respect to the display, of a head portion of a person other than the user and determines whether a position of the content needs to be changed based on a detection-result and the position of the content in the virtual space. A position change destination of the content in the virtual space is set based on a distance between the position change destination of the content in the virtual space and a position at a current point in time of the content and to change the position of the content when the position of the content is to be changed.

Abstract: A transparent conductive layer 3 includes a first main surface 5 exposed to the outside, and a second main surface 6 opposite to the first main surface 5 in a thickness direction. The transparent conductive layer 3 is single layer extending in a plane direction. The transparent conductive layer 3 has a first grain boundary 7 in which two end edges 23 in a cross-sectional view are open to the first main surface 5, and an intermediate region 25 between both end edges 23 is not in contact with the second main surface 6, and has a first crystal grain 31 partitioned by the first grain boundary 7 and facing only the first main surface 5.

Abstract: A laminate (1) includes an underlayer (3) and a crystalline transparent electrically conductive layer (4) adjacent to a one surface (31) in a thickness direction of the underlayer (3). The underlayer (3) includes a resin. A one surface (41) in the thickness direction of the transparent electrically conductive layer (4) includes a first ridge (42) having a height of 3 nm or more. The one surface (31) of the underlayer (3) may include a second ridge (32) having a height of 3 nm or more, and the second ridge (32) is not overlapped with the first ridge (42) when projected in the thickness direction.

Abstract: A transparent electroconductive layer 3 includes a first main surface 5 and a second main surface 6 facing each other in a thickness direction. The transparent electroconductive layer 3 is a single layer extending in a plane direction perpendicular to the thickness direction. The transparent electroconductive layer 3 has a plurality of crystal grains 4, a plurality of first grain boundaries 7 partitioning the plurality of crystal grains 4 and having each of one end edge 9 and another end edge 10 in the thickness direction open in each of the first main surface 5 and the second main surface 6, and a second grain boundary 8 branching from a first intermediate portion 11 of one first grain boundary 7A and reaching a second intermediate portion 12 of another first grain boundary 7B.

Abstract: The transparent conductive layer (3) includes a first main surface (5), and a second main surface (6) opposed to the first main surface (5) in a thickness direction. The transparent conductive layer (3) has a first grain boundary (7) in which two end edges (23) in a cross-sectional view are both opened to the first main surface (5) and an intermediate region (25) between the end edges (23) is not in contact with the second main surface (6); and a first crystal grain (31) partitioned by the first grain boundary (7) and facing only the first main surface (5). The transparent conductive layer (3) contains rare gas atoms having a higher atomic number than argon atoms.

Abstract: A transparent electroconductive film (X) includes a resin film (11) and a light-transmitting electroconductive layer (20) in this order in a thickness direction (D). The light-transmitting electroconductive layer (20) has a first compressive residual stress in a first in-plane direction orthogonal to the thickness direction (D), and has a second compressive residual stress less than the first compressive residual stress in a second in-plane direction orthogonal to each of the thickness direction (D) and the first in-plane direction. A ratio of the second compressive residual stress to the first compressive residual stress is 0.82 or less.

Abstract: A light-transmitting electroconductive film (20) according to the present invention includes a region containing krypton at a content ratio of less than 0.1 atomic % at least partially in a thickness direction (D) of the light-transmitting electroconductive film (20). A transparent electroconductive film (X) according to the present invention includes a transparent substrate (10); and the light-transmitting electroconductive film (20) disposed on one surface side in the thickness direction (D) of the transparent substrate.

Abstract: A transparent electroconductive layer 3 includes a first main surface 5 and a second main surface 6 facing each other in a thickness direction. The transparent electroconductive layer 3 is a single layer extending in a plane direction perpendicular to the thickness direction. The transparent electroconductive layer 3 has a plurality of crystal grains 4, a plurality of first grain boundaries 7 partitioning the plurality of crystal grains 4 and having each of one end edge 9 and another end edge 10 in the thickness direction open in each of the first main surface 5 and the second main surface 6, and a second grain boundary 8 branching from a first intermediate portion 11 of one first grain boundary 7A and reaching a second intermediate portion 12 of another first grain boundary 7B.

Abstract: A transparent conductive layer 3 includes a first main surface 5 exposed to the outside, and a second main surface 6 opposite to the first main surface 5 in a thickness direction. The transparent conductive layer 3 is single layer extending in a plane direction. The transparent conductive layer 3 has a first grain boundary 7 in which two end edges 23 in a cross-sectional view are open to the first main surface 5, and an intermediate region 25 between both end edges 23 is not in contact with the second main surface 6, and has a first crystal grain 31 partitioned by the first grain boundary 7 and facing only the first main surface 5.

Abstract: An electrochromic light adjusting member sequentially includes a transparent substrate, a light transmitting electrically conductive layer, and an electrochromic light adjusting layer. The light transmitting electrically conductive layer sequentially includes a first indium-based electrically conductive oxide layer, a metal layer, and a second indium-based electrically conductive oxide layer.

Abstract: A light-modulation film (1) includes a light-modulation layer (30) and a catalyst layer (40) in this order on a polymer film substrate (10). A surface layer (70) may be disposed on the catalyst layer. The state of the light-modulation layer reversibly changes between a transparent state due to hydrogenation and a reflective state due to dehydrogenation. The catalyst layer promotes hydrogenation and dehydrogenation of the light-modulation layer. An arithmetic mean roughness of the surface of the catalyst layer is preferably 16 nm or less. A thickness of the light-modulation layer is preferably 2 to 20 times the thickness of the catalyst layer.

Abstract: An electrochromic light adjusting member sequentially includes a transparent substrate, a light transmitting electrically conductive layer, and an electrochromic light adjusting layer. The light transmitting electrically conductive layer sequentially includes a first indium-based electrically conductive oxide layer, a metal layer, and a second indium-based electrically conductive oxide layer.

Abstract: Provided are an electrochromic light adjusting member excellent in terms of low resistance and flexibility, a light transmitting electrically conductive glass film to be used for the electrochromic light adjusting member, and an electrochromic light adjusting element including the electrochromic light adjusting member. The electrochromic light adjusting member includes in this order: a glass film; a light transmitting electrically conductive layer; and an electrochromic light adjusting layer, wherein the light transmitting electrically conductive layer includes a first indium-based electrically conductive oxide layer, a metal layer, and a second indium-based electrically conductive oxide layer in the stated order from a glass film side.

Abstract: The light transmitting conductive film includes a light transmitting substrate and a non-crystal light transmitting conductive layer, wherein the conditions (1) to (3) below are satisfied when the non-crystal light transmitting conductive layer has a carrier density of Xa×1019(/cm3) and a hole mobility of Ya (cm2/V·s); a heated light transmitting conductive layer has a carrier density of Xc×1019(/cm3) and a hole mobility of Yc (cm2/V·s), wherein the heated light transmitting conductive layer is the non-crystal light transmitting conductive layer after going through heating; and a moving distance L is {(Xc?Xa)2+(Yc?Ya)2}1/2: (1) Xa?Xc (2) Ya?Yc, and (3) the moving distance L is 1.0 or more and 45.0 or less.

Abstract: A light modulation film (1) includes a light modulation layer (30) whose state is reversibly changed between a transparent state by hydrogenation and a reflective state by dehydrogenation, and a catalyst layer (40) that promotes hydrogenation and dehydrogenation in the light modulation layer, in this order on a polymer film substrate (10). light modulation layer (30) includes a light modulation region (32) having a thickness of 10 nm or more on a catalyst layer (40)-side, and an oxidized region (31) on a polymer film substrate (10)-side.

Abstract: The light modulation film (1) is a hydrogen-activation-type light modulation film that includes an inorganic oxide layer (20), a light modulation layer (30) and a catalyst layer (40), in this order on a polymer film substrate (10). The light modulation layer (30) is a layer for reversibly changing states between a transparent state due to hydrogenation and a reflective state due to dehydrogenation. The catalyst layer (40) promotes hydrogenation and dehydrogenation in the light modulation layer. The inorganic oxide layer (20) contains an oxide of an element different from a metal element that constitutes the light modulation layer (30).

Abstract: There is provided a transparent conductive film achieving low resistance characteristics of a transparent conductive layer. The present invention provides a transparent conductive film including: a polymer film substrate; and a transparent conductive layer formed on at least one surface of the polymer film substrate by means of a sputtering method using a sputtering gas including argon, wherein an existing atomic amount of argon atoms in the transparent conductive layer is 0.24 atomic % or less; an existing atomic amount of hydrogen atoms in the transparent conductive layer is 13×1020 atoms/cm3 or less; and the transparent conductive layer has a specific resistance of 1.1×10?4 ?·cm or more and 2.8×10?4 ?·cm or less.

Abstract: A transparent conductive film includes: a transparent substrate film; an antistripping layer with a thickness of 1.5 nm to 8 nm formed on one main surface of the substrate film; an optical adjustment layer with a thickness of 10 nm to 25 nm formed on the antistripping layer; and a transparent conductor layer with a pattern formed on the optical adjustment layer. The transmission Y value measured from a side of the transparent conductor layer is 88.0 or more and the reflection color difference ?E between a pattern portion and a non-pattern portion is 7.0 or less.

Abstract: The light transmitting conductive film includes a light transmitting substrate and a non-crystal light transmitting conductive layer, wherein the conditions (1) to (3) below are satisfied when the non-crystal light transmitting conductive layer has a carrier density of Xa×1019(/cm3) and a hole mobility of Ya (cm2/V·s); a heated light transmitting conductive layer has a carrier density of Xc×1019(/cm3) and a hole mobility of Yc (cm2/V·s), wherein the heated light transmitting conductive layer is the non-crystal light transmitting conductive layer after going through heating; and a moving distance L is {(Xc?Xa)2+(Yc?Ya)2}1/2: (1) Xa?Xc (2) Ya?Yc, and (3) the moving distance L is 1.0 or more and 45.0 or less.

Abstract: A transparent conductive film 1 includes, in this order, a transparent substrate 2, a first optical adjustment layer 4, an inorganic layer 5, and a transparent conductive layer 6. The first optical adjustment layer 4 has refractive index nC lower than refractive index nA of the transparent substrate 2, and thickness TC of 10 nm or more and 35 nm or less. The inorganic layer 5 has refractive index nD that is lower than the absolute value |nC×1.13| of a value obtained by multiplying the refractive index nC of the first optical adjustment layer 4 by 1.13.