Abstract: Provided is a block polymer including two or more polymer block As each having a value ? of 0.20 or less and a functional group F containing at least one element selected from a group consisting of nitrogen, silicon, oxygen, and sulfur in a part or all of terminals of the two or more polymer block As, in which the block polymer has a value ? of 0.75 or more, when p, q, r and s are defined as a component proportion (molar proportion) of a structural unit represented by Formula (1), a component proportion of a structural unit represented by Formula (2), a component proportion of a structural unit represented by Formula (3), and a component proportion of a structural unit represented by Formula (4), in the polymer, respectively.

Abstract: There is provided a polymer composition using which a molded product having excellent balance between rigidity, wear resistance, viscoelastic properties, and heat resistance can be obtained. A polymer composition according to the disclosure includes (A) a conjugated diene rubber (where, a polymer corresponding to the following component (B) is excluded); and (B) a hydrogenated product of a polymer that satisfies the following (1) to (3), which is a polymer in which 80% or more of structural units derived from butadiene are hydrogenated: (1) being a copolymer of a conjugated diene compound containing butadiene and an aromatic vinyl compound, (2) including a polybutadiene block having a vinyl group content of 20% or less, and (3) including a block composed of a conjugated diene compound and an aromatic vinyl compound.

Abstract: A sample holder to be disposed between an electrostatic chuck and a sample smaller than the upper surface of the electrostatic chuck is provided, the sample holder including: a base plate formed in the same size as the upper surface of the electrostatic chuck; a sample placement portion located on the upper surface of the base plate, and designed to place the sample thereon; and a circumferential portion being a portion of the upper surface of the base plate other than the sample placement portion, and having a conductive material exposed to the outside.

Abstract: A sample holder to be disposed between an electrostatic chuck and a sample smaller than the upper surface of the electrostatic chuck is provided, the sample holder including: a base plate formed in the same size as the upper surface of the electrostatic chuck; a sample placement portion located on the upper surface of the base plate, and designed to place the sample thereon; and a circumferential portion being a portion of the upper surface of the base plate other than the sample placement portion, and having a conductive material exposed to the outside.

Abstract: The present invention relates to an imaging device and a method of processing an imaging result in an imaging device, and is applied to e.g. an electronic still camera to thereby allow the camera to correct image quality readily and flexibly with avoiding the deterioration of the image quality effectively. In the present invention, a three-dimensional look-up table is provided and an imaging result (Y2, Cb2, Cr2) is corrected by use of the three-dimensional look-up table.

Abstract: The electrostatic chuck 101 where pairs of electrodes 3a/3b, 4a/4b and 5a/5b to which voltages are applied are embedded in the main body 1, and where a substrate 110 is placed and held on the surface of the main body 1, includes a first electrode group constituted of one pair or more of electrodes 3a/3b arranged in a center region 41 inside the main body 1, and a second electrode group constituted of one pair or more of electrodes 4a/4b and 5a/5b arranged in outer peripheral portions 42 and 43 surrounding the center region 41.

Abstract: The present invention provides an image processing device for correcting aberrations caused by a capturing lens for an image signal to which light passing through the capturing lens is electrically converted. The image processing device includes a correction vector calculation unit for calculating a correction vector in accordance with coordinates of each pixel of each color component contained in the image signal on the basis of at least data on chromatic aberration and distortion aberration caused by the capturing lens; a conversion ratio calculation unit for receiving at least the image signal, capturing conditions, and the correction vector, and for calculating a conversion ratio for scaling the color component in accordance with the coordinates of the pixel; and a resolution conversion unit for scaling the color component in accordance with the coordinates of the pixel on the basis of the conversion ratio.

Abstract: The present invention relates to an imaging device and a method of processing an imaging result in an imaging device, and is applied to e.g. an electronic still camera to thereby allow the camera to correct image quality readily and flexibly with avoiding the deterioration of the image quality effectively. In the present invention, a three-dimensional look-up table is provided and an imaging result (Y2, Cb2, Cr2) is corrected by use of the three-dimensional look-up table.

Abstract: The electrostatic chuck 101 of the present invention, where pairs of electrodes 3a/3b, 4a/4b and 5a/5b to which voltages are applied are embedded in the main body 1, and where a substrate 110 is placed and held on the surface of the main body 1, includes a first electrode group constituted of one pair or more of electrodes 3a/3b arranged in a center region 41 inside the main body 1, and a second electrode group constituted of one pair or more of electrodes 4a/4b and 5a/5b arranged in outer peripheral portions 42 and 43 surrounding the center region 41.

Abstract: The present invention provides an image processing device for correcting aberrations caused by a capturing lens for an image signal to which light passing through the capturing lens is electrically converted. The image processing device includes a correction vector calculation unit for calculating a correction vector in accordance with coordinates of each pixel of each color component contained in the image signal on the basis of at least data on chromatic aberration and distortion aberration caused by the capturing lens; a conversion ratio calculation unit for receiving at least the image signal, capturing conditions, and the correction vector, and for calculating a conversion ratio for scaling the color component in accordance with the coordinates of the pixel; and a resolution conversion unit for scaling the color component in accordance with the coordinates of the pixel on the basis of the conversion ratio.