Abstract: An image sensor includes a first photoelectric conversion unit that converts light incident through a first opening to an electric charge, a second photoelectric conversion unit that converts light incident through a second opening which is smaller than the first opening to an electric charge, and a signal output wiring that outputs a first signal generated by the electric charge converted by the first photoelectric conversion unit and a second signal generated by the electric charge converted by the second photoelectric conversion unit. The second photoelectric conversion unit is disposed between the second opening and the signal output wiring.

Abstract: Using a novel water-soluble, active ester amide-containing functionalized controlled radical polymerization initiator, stimuli responsive polymers have been grown from the surface of a protein, exemplified by chymotrypsin or any protein having surface amino acids that will covalently bind to the active ester amide-containing functionalized initiator. It is shown that changes in temperature or pH can change the conformation of the polymer surrounding the enzyme, which in turn enabled the rational tailoring of enzyme activity and stability. This method has afforded an increase in the activity and stability of the enzyme by an order of magnitude at pH's where the enzyme is usually inactive or unstable. Multimodal temperature responsive protein-block copolymer conjugates are described.

Abstract: An imaging device having a first surface on which light is incident and a second surface on an opposite side of the first surface, includes a photoelectric conversion section including semiconductors having a same conductivity type, in which an impurity concentration on the second surface side is higher than an impurity concentration on the first surface side.

Abstract: An image sensor includes a first pixel that is capable of outputting a focus detection signal and a second pixel that includes a semiconductor layer and a wiring layer. The semiconductor layer includes a first surface on which light enters, a second surface opposite from the first surface, and a photoelectric conversion unit that converts light to an electric charge and is disposed between the first surface and the second surface. The wiring layer is formed on a side of the second surface of the semiconductor layer and includes a signal output line through which the focus detection signal read out from the first pixel and an image-capturing signal generated according to the electric charge converted at the photoelectric conversion unit are output.

Abstract: An image sensor includes a first pixel that is capable of outputting a focus detection signal and a second pixel that includes a semiconductor layer and a wiring layer. The semiconductor layer includes a first surface on which light enters, a second surface opposite from the first surface, and a photoelectric conversion unit that converts light to an electric charge and is disposed between the first surface and the second surface. The wiring layer is formed on a side of the second surface of the semiconductor layer and includes a signal output line through which the focus detection signal read out from the first pixel and an image-capturing signal generated according to the electric charge converted at the photoelectric conversion unit are output.

Abstract: An image sensor includes: a plurality of light receiving units arranged along a first direction and along a second direction different from the first direction in a two-dimensional array; and a light receiving unit arranged at a central position among four light receiving units set next to each other along the first direction and the second direction among the plurality of light receiving units, which includes a light shielding member arranged over part thereof.

Abstract: An image-capturing device includes an image sensor. The image sensor includes an upper layer pixel group and a lower layer pixel group that receives the light fluxes from the subject that have passed through each pixel in the upper layer pixel group. The lower layer pixel group includes fourth, fifth and sixth pixels having fourth, fifth and sixth spectral sensitivities, respectively, that are complementary to first, second, and third spectral sensitivities, respectively, of the upper layer pixel group, being arranged in a two-dimensional pattern. Positions of first, second and third pixels in the upper layer pixel group and positions of the fourth, fifth and sixth pixels in the lower layer pixel group are determined such that the fourth, fifth and sixth pixels receive light fluxes that pass through the first, second and third pixels, respectively.

Abstract: An imaging sensor comprising: an imaging chip in which a plurality of pixel are arranged in a matrix; and a signal processing chip that is each provided for one or more pixel columns or one or more pixel rows, has a device that performs signal processing on a pixel signal output from a pixel, and is stacked with the imaging chip is provided. For example, the device that performs signal processing is an A/D converter that converts a pixel signal output from the pixel into a digital signal, and when a pixel signal output from the pixel is converted into a digital signal, at least two or more A/D converters among the A/D converters are controlled in parallel.

Abstract: An image sensor includes a first pixel that outputs a focus detection signal, and a second pixel that includes a semiconductor layer and a wiring layer. The semiconductor layer includes a first surface on which light enters, a second surface opposite from the first surface, and a photoelectric conversion unit that converts light to an electric charge and is disposed between the first surface and the second surface. The wiring layer is formed on a side of the second surface of the semiconductor layer and includes a signal output line through which the focus detection signal read out from the first pixel and an image-capturing signal generated according to the electric charge converted at the photoelectric conversion unit are output.

Abstract: An imaging element comprising: an imaging unit that has: a plurality of groups each including at least one pixel; and a plurality of signal readout units that are each provided to each of the groups and read out a signal from the pixel; and a control unit that controls the signal readout unit in at least one group among the plurality of groups is provided. Each of the plurality of groups may include a plurality of the pixels. The control unit may select at least one group among the plurality of groups and control the signal readout unit by using a control parameter that is different from a control parameter that is used for another group among the plurality of groups.

Abstract: An image sensor includes: a plurality of microlenses arranged in a two-dimensional pattern; and a plurality of pixels that are provided in correspondence to each of the microlenses and receive lights of different color components, respectively. Pixels that are provided at adjacent microlenses among the microlenses and that receive lights of same color components, are adjacently arranged.

Abstract: An imaging element includes: an imaging unit in which a plurality of pixel groups including a plurality of pixels that output pixel signals according to incident light are formed, and on which incident light corresponding to mutually different pieces of image information is incident; a control unit that controls, for each of the pixel groups, a period of accumulating in the plurality of pixels included in the pixel group; and a readout unit that is provided to each of the pixel groups, and reads out the pixel signals from the plurality of pixels included in the pixel group.

Abstract: A backside illumination image sensor equipped with a plurality of pixels disposed in a two-dimensional pattern, includes: image-capturing pixels; and focus detection pixels.

Abstract: A backside illumination image sensor equipped with a plurality of pixels disposed in a two-dimensional pattern, includes: image-capturing pixels; and focus detection pixels.

Abstract: A system includes at least one oxidase. at least one haloperoxidase; at least a first polymer including groups exhibiting nucleophilic activity for organophosphorus compounds, and a source of halide ions to serve as a substrate for haloperoxidase-catalyzed generation of halogens. The source of halide ions may, for example, include salt crystals or a salt in an extended release system. In a number of embodiments, the first polymer includes halide ions.

Abstract: An image-capturing device includes: a first image sensor equipped with first and second image-capturing pixels and first focus detection pixels, each of which receives one of light fluxes formed by splitting subject light having passed through an optical system, the first and the second image-capturing pixels generating first and second color signals respectively and the first focus detection pixels outputting focus detection signals indicating a state of focus detection pertaining to the optical system; and a second image sensor equipped with third image-capturing pixels and second focus detection pixels, each of which receives another light flux, the third image-capturing pixels generating third color signals and the second focus detection pixels outputting focus detection signals, wherein: when n represents a quantity of the first image-capturing pixels, quantities of the second and the third image-capturing pixels, and the first and the second focus detection pixels are n, 2n, 2n and 2n respectively.

Abstract: An image-capturing device includes: a first image sensor equipped with first and second image-capturing pixels and first focus detection pixels, each of which receives one of light fluxes formed by splitting subject light having passed through an optical system, the first and the second image-capturing pixels generating first and second color signals respectively and the first focus detection pixels outputting focus detection signals indicating a state of focus detection pertaining to the optical system; and a second image sensor equipped with third image-capturing pixels and second focus detection pixels, each of which receives another light flux, the third image-capturing pixels generating third color signals and the second focus detection pixels outputting focus detection signals, wherein: when n represents a quantity of the first image-capturing pixels, quantities of the second and the third image-capturing pixels, and the first and the second focus detection pixels are n, 2n, 2n and 2n respectively.

Abstract: A backside illumination image sensor equipped with a plurality of pixels disposed in a two-dimensional pattern, includes: image-capturing pixels; and focus detection pixels.

Abstract: A biocidal article, includes a surface including a plurality of polymers covalently attached to the surface. The polymers include biocidal cationic groups. The polymers have a molecular weight distribution or polydispersity less than 3. A grafting density of the polymers on the surface is controlled, average degree of polymerization of the polymers is controlled and repeat units of the polymers are chosen to provide a predetermined charge density arising from the cationic groups. A method of analyzing biocidal activity of biocidal surface agents includes the steps: attaching a plurality of chemical entities to one or more surfaces so that at least one physiochemical property is varied, each of the chemical entities comprising at least one biocidally active component; and exposing the chemical entities to at least one biological agent to determine the effect of the at least one physiochemical property upon biocidal activity.

Abstract: Servo error signal circuitry apparatus and methods are described. The difference between two bottom envelope signals SEbtm and SFbtm is calculated by a subtracter (40) to generate a difference signal (SEbtm?SFbtm). The difference signal (SEbtm?SFbtm) is input as an alignment signal (AL) to an equalizer (42) and as a basic tracking error signal to the positive input terminal of a second subtracter (52). On the other hand, the difference between two top envelope signals SEtop and SFtop is calculated by a third subtracter (48) to generate a difference signal (SEtop?SFtop). The signal K(SEtop?SFtop) obtained by multiplying a coefficient K with the difference signal using a coefficient multiplier (50) is input to the negative input terminal of the second subtracter (52). The difference signal {(SEbtm?SFbtm)?K(SEtop?SFtop)} output from the second subtracter (52) is used as an offset corrected tracking error signal.