Abstract: A microscope system includes an accommodation unit, a stage, an optical system, an image pickup unit, a movement mechanism, a control unit, an image processing unit, and a display unit. The accommodation unit is capable of accommodating a plurality of specimens. On the stage, each of the specimens loaded from the accommodation unit is placed. The optical system includes a lens for spherical aberration correction. The image pickup unit is capable of capturing a partial image of each of the specimens placed on the stage, via the optical system. The movement mechanism moves the lens for spherical aberration correction along an optical axis. The control unit controls movement of the lens for spherical aberration correction by the movement mechanism and correct spherical aberration. The image processing unit combines the partial images captured by the image pickup unit and generate a composite image. The display unit displays the generated composite image.

Abstract: Method and apparatus for producing an image associated with a biological sample is provided. The biological sample is focused on the biological sample based on fluorescence of a first fluorescent material and the image is captured based on fluorescence of the second fluorescent material. A computer readable memory device storing instructions to cause a data processing unit is also provided.

Abstract: A tissue-slice image acquirement and display apparatus includes: an entire-image acquirer that acquires a bright-field image of an entirety of a first slice of a tissue and a dark-field image of an entirety of a second slice of the tissue; a modifier that modifies a profile shape of a slice portion in the dark-field image on the basis of a profile shape of a slice portion in the bright-field image; a magnified-image acquirer that determines a range encompassing the second slice on the basis of the profile shape of the modified slice portion and that acquires, in a dark field, a magnified image of the second slice in the determined range; and a display controller that causes the bright-field image to be displayed and that causes a portion of the magnified image, the portion corresponding to a position selected in the bright-field image, to be displayed.

Abstract: A fluorescent image obtaining device includes a light source that irradiates light such that a fluorescent material marked on a target in a biological sample lies in a non-excited state and a fluorescent material marked on a control with the target lies in an excited state, and an imaging unit that takes an image including the entire biological sample.

Abstract: An image acquisition apparatus includes: an imaging device on which an image of a small area allocated to an area to be imaged is formed; a detection section detecting intensity of light irradiated on the small area from a light source; an integration section integrating the intensity of light detected by the detection section; if an integration value of the intensity of light integrated by the integration section from a point in time when light is emitted from the light source is greater than a predetermined threshold value, a light-source control section terminates light emission; an exposure control section starting exposure of the imaging device before light is emitted from the light source and terminating exposure of the imaging device after emission of light from the light source is terminated; and an image acquisition section acquiring the image of the small area as a divided image from the imaging device.

Abstract: Disclosed herein is a fluorescent-image acquisition apparatus including an excitement-light source; an objective lens; an image pickup device; focal-point movement control means; and image-pickup control means.

Abstract: A biological sample image acquiring apparatus includes: an objective lens magnifying a region of a biological sample; an imaging device imaging the region magnified by the objective lens; a movement controller moving the focus of the objective lens in the thickness direction of the target region of the biological sample and moving the image of the region, which magnified by the objective lens to be imaged onto an imaging device, in an in-plane direction; and a biological sample image acquiring unit acquiring a biological sample image of the region by exposing the imaging device to light while the movement controller is moving the image of the region.

Abstract: Disclosed herein is an imaging device, including: an imaging lens having an aperture stop; an imaging element adapted to obtain image data based on received light; and a microlens array provided in the focal plane of the imaging lens between the imaging lens and imaging element, the microlens array including a plurality of microlenses arranged in such a manner that each microlens is associated with a plurality of imaging pixels of the imaging element, wherein the arrangement of the microlenses of the microlens array is corrected from an equidistant arrangement to a non-linear arrangement according to the height of the image from the imaging lens on the imaging element.

Abstract: A biological sample image acquiring apparatus includes: a sample stage on which a biological sample is placed and which can move in a direction; an objective lens magnifying a region of the biological sample; an imaging device imaging the region magnified by the objective lens; a stage on which the imaging device or the objective lens is placed and which can move in a corresponding direction of the direction; a first moving mechanism moving the sample stage so that a target region of the biological sample is located at an imaging range; a second moving mechanism moving the stage in the corresponding direction at a movement speed obtained by multiplying a movement speed of the sample stage by a magnification of the objective lens; and an imaging controller starting the exposure of the imaging device before the sample stage moved by the first moving means is stopped.

Abstract: A method for generating a high-frequency signal includes the steps of entering an optical pulse to a wavelength filtering device and generating modulating light having periodic wavelength intervals, and inputting the optical pulse outputted from the wavelength filtering device to a wavelength dispersive device to subject the optical pulse to treatment of different speeds according to the wavelength, and separating the optical pulse into time pulses independent with respect to the wavelength.

Abstract: A semiconductor apparatus includes an optical waveguide provided within a semiconductor region and above an insulating layer, and a plurality of photodetectors provided at the optical waveguide. The plurality of photodetectors includes insulated-gate field-effect transistors. The photodetectors capture data at different timings.

Abstract: When manufacturing a recording medium, a material layer 12 formed on a substrate 11 that composes the recording medium is exposed to a laser beam in accordance with a recording pattern. The material layer 12 has a predetermined reflectivity for the laser beam 13 so as to produce return light for the laser beam 13. By detecting this return light, the focusing of the laser beam on the material layer is adjusted. By doing so, a laser beam can be easily and accurately focused on a material layer during a process in which a laser beam is shone, in accordance with a recording pattern, onto a material layer formed on a recording medium or a production plate used when manufacturing a recording medium.

Abstract: A double-structure silicon on insulator (SOI) substrate with a silicon layer, an insulation film (silicon oxide film), a silicon layer, and an insulation film in this order from the side of the surface. The upper-layer insulation film is formed so as to have a uniform distribution of depth while the lower-layer insulation film is formed so as to have a non-uniform distribution of depth so that a thick portion may be formed in the silicon layer along a predetermined path. The refractive index of Si is 3.5 and the refractive index of SiO2 is 1.5. The thick portion of the silicon layer provides a core and the insulation films corresponding to this thick portion provide clads, thereby forming an optical waveguide along the predetermined path. The silicon layer at the side of the surface has a uniform thickness, thereby enabling characteristics of MOS devices fabricated on various portions of the silicon layer to be met with each other easily and facilitating a design of the electrical device as a whole.

Abstract: A semiconductor device having a substrate that contains an insulating layer and a semiconductor layer provided on the insulating layer. The semiconductor also has an optical waveguide that is formed along a predetermined path. This optical waveguide is formed by making the semiconductor layer non-uniformed in thickness thereof. The semiconductor further has a photoreceptor having MISFET containing a floating channel body that is formed on a position of the semiconductor layer in which electric field of light guided inside the optical waveguide exists and a gate for forming channel formed on a front surface side of the channel body.

Abstract: An optical communication device contains a semiconductor chip that performs wireless communication and a wireless-signal-and-optical-signal conversion chip substrate that mounts the semiconductor chip. The semiconductor chip includes a first wireless communication circuit element and a first antenna element. The first wireless communication circuit element is connected to the first antenna element. The wireless-signal-and-optical-signal conversion chip substrate includes a second wireless communication circuit element, a second antenna element and an optical communication element. The second wireless communication circuit element is connected to the second antenna element. The optical communication element is connected to the second wireless communication circuit element.

Abstract: An optical waveguide device is disclosed which includes a semiconductor region, an optical waveguide provided between a first light confinement layer and a second light confinement layer formed in the semiconductor region, and at least one insulating film region formed in the semiconductor region and above at least one of an outside and an inside with respect to a curvature radius direction of the bent portion of the optical waveguide, wherein; the insulating film region is also used as an isolation region of a MOS device to be formed in the semiconductor region in which the insulating film region is formed.

Abstract: A biometric image pickup apparatus includes: a light source section selectively switching between light of a first wavelength region with a high transmittance through a living organism and light of a second wavelength region with a lower transmittance through the living organism than light of the first wavelength region to apply the light of the first wavelength region and the light of the second wavelength region to the living organism; an image pickup lens section condensing light from the living organism; an image pickup device obtaining first image pickup data of the living organism on the basis of the light of the first wavelength region in light condensed by the image pickup lens, and obtaining second image pickup data on the basis of the light of the second wavelength region in the light condensed by the image pickup lens.

Abstract: A biometrics authentication system includes: a detection section; a light source section including a plurality of unit light sources capable of illuminating independently of one another; an image pickup device being arranged on the same side as a side where the light source section is arranged with respect to the detection section; a driving section driving the light source section so that the unit light sources periodically illuminate by time division, and driving the image pickup device so that while an image pickup operation by a first image pickup cell group positioned near each of illuminating unit light sources is suspended, an image pickup operation by a second image pickup cell group positioned farther from each of illuminating unit light sources than the first image pickup cell group is performed; an image processing section; and an authentication section.

Abstract: A method for generating a high-frequency signal includes the steps of entering an optical pulse to a wavelength filtering device and generating modulating light having periodic wavelength intervals, and inputting the optical pulse outputted from the wavelength filtering device to a wavelength dispersive device to subject the optical pulse to treatment of different speeds according to the wavelength, and separating the optical pulse into time pulses independent with respect to the wavelength.

Abstract: An optical recording medium including two or more recording layers which are capable of transmitting at a high transmittance recording light or reproducing light for performing recording/reproducing of a first recording layer (3) without having to make the thickness of a second recording film (5) positioned towards the side from which the recording light or the reproducing light enters. An optical recording medium including two or more recording layers, and which includes the first recording layer (3), the second recording layer (5) positioned further towards, with an intermediate layer (4) in between, the side from which the recording light or the reproducing light enters than is the first recording layer (3), and includes, between the above-mentioned intermediate layer (4) and the above-mentioned second recording layer (5), a dielectric layer (7) for increasing the transmittance for light passing through the above-mentioned second recording layer as the incident angle of the light becomes greater.