Abstract: A display apparatus includes a frame, an image display apparatus attached to the frame, and a distortion correction apparatus. The image display apparatus includes an image forming apparatus and an optical system configured to guide an image from the image forming apparatus to a pupil of an observer. When it is assumed that a direction, which corresponds to a first direction of the image, of the image forming apparatus is an X-direction and a direction, which corresponds to a second direction of the image which direction is different from the first direction, of the image forming apparatus is a Y-direction, the image forming apparatus is curved in the X-direction and/or in the Y-direction. The distortion correction apparatus corrects an input image signal to correct a distortion of an image to be observed.

Abstract: A display apparatus includes a frame, an image display apparatus attached to the frame, and a distortion correction apparatus. The image display apparatus includes an image forming apparatus and an optical system configured to guide an image from the image forming apparatus to a pupil of an observer. When it is assumed that a direction, which corresponds to a first direction of the image, of the image forming apparatus is an X-direction and a direction, which corresponds to a second direction of the image which direction is different from the first direction, of the image forming apparatus is a Y-direction, the image forming apparatus is curved in the X-direction and/or in the Y-direction. The distortion correction apparatus corrects an input image signal to correct a distortion of an image to be observed.

Abstract: [Object] To process an image captured by a camera mounted on a moving object device or a user to be suitable for display on an image display device fixed to the head or face of the user. [Solution] The image rendering processor 1042, in the beginning, corrects the user's head posture angle qh using the camera posture angle qc (F1421), and clips a display angle of view depending on the corrected user's head posture angle qh* from the captured image to render a free viewpoint image (F1422). Then, the image processing device 1040 transmits the free viewpoint image rendered by the image rendering processor 1042 to the display device 1020 via the communication unit 1041, and the image is displayed on the display device 1020 (F1430).

Abstract: It is an object of the present invention to provide a configuration which are less likely to cause a distortion in an observed image when the position of the image display device in the eyeball direction of an observer is adjusted. An image display device according to the present invention includes: an image formation device (40); and an optical system (52) that brings an image from the image formation device (40) to an eyeball (11) of an observer.

Abstract: A wide angle image to be displayed on a screen fixed on the head or the face of a user is processed. When a display view angle reaches a boundary of an original wide angle image 701, an indicator 703 indicating reaching the boundary is added to a free viewpoint image 702. The indicator 703 is apart of the free viewpoint image 702 which is in contact with a boundary 704 of the wide angle image 701 or protrudes from the boundary 704 and is displayed as a black-painted frame. By observing such the indicator 703, the user can intuitively understand that the display area reaches the limit of the wide angle image.

Abstract: Provided is an image display device configured to display a free viewpoint image that tracks a movement of observer's head and trunk. The line-of-sight direction and trunk orientation of the user are individually oriented in a free viewpoint space displayed on a display device 500 based on posture information of the user's head and trunk, which are respectively obtained from a head motion tracking device 200 and a trunk motion tracking device 300. A behavior that is natural in real space can be represented by moving a line of sight to a front direction of the trunk on a space in a state where the line of sight does not match the front direction of the trunk. An unnatural UI that goes straight to the line-of-sight direction is prevented regardless of orientation of the trunk.

Abstract: To provide an image processing apparatus, an image processing program, an image processing method, and a microscopic system that are capable of acquiring a high-resolution image that is suitable for scientific verification. An image processing apparatus according to the present technology includes an image conversion unit and an image generation unit. The image conversion unit converts a first picked-up image and a second picked-up image into frequency components, the first picked-up image being obtained by picking up an image of an observation target object with first illumination light via a microscope optical system, the second picked-up image being obtained by picking up an image of the observation target object with second illumination light via the microscope optical system, the second picked-up image having a contrast in a low frequency band lower than that of the first picked-up image and a contrast in a high frequency band higher than that of the first picked-up image.

Abstract: A phase-contrast microscope includes a light source, an objective lens having a numerical aperture (NA), a condenser annulus having an annular light-transmission region, and a phase plate having a first annular phase-shift region. The annular phase-shift region is arranged to receive radiation from the sample region at an angle from the sample region corresponding to greater than one-half of the NA of the objective lens.

Abstract: Described are methods and structures associated with live cell analysis apparatus. A live cell analysis apparatus may include at least one data processor that is configured to process a sequence of images of live cells to determine motion of one or more live cells. The motion may be in response to applied electrical stimulations. The apparatus and methods may be used to determine a refractory period for cardiomyocytes from the determined motion.

Abstract: There is provided a measurement apparatus including an objective lens, a stage, a setting unit, and a controller. The stage is configured to support a sample vessel in which a plurality of wells each containing a sample are arranged and to define relative positions of the sample vessel and the objective lens. The setting unit is configured to determine whether to set each of the plurality of wells to be a measurement target and set the measurement target. The controller is configured to control the stage such that a well determined to be the measurement target by the setting unit and the objective lens face each other.

Abstract: A display apparatus includes a frame and an image display apparatus for a left eye 3 and an image display apparatus for a right eye which are attached to the frame. Each image display apparatus 30 includes an image forming apparatus 40 and an optical system 50 configured to guide an image from the image forming apparatus 40 to a pupil of an observer 10. The optical system 50 includes a reflecting mirror 51 and a lens group 52. The image forming apparatus 40 is curved. A normal NLL of the reflecting mirror 51 included in the optical system of the image display apparatus for a left eye and a normal NLR of the reflecting mirror 51 included in the optical system of the image display apparatus for a right eye intersect with each other in a space on an opposite side of the observer 10 with respect to the reflecting mirror 51.

Abstract: A display apparatus is provided with a frame 20 that is mounted to the head portion of an observer 10, and an image display device 20 which is attached to the frame 20, an image display device 30 is provided with an image forming device 40, an optical system 50 that guides an image from the image forming device 40 to a pupil of an observer, and a support member 601 that supports the image forming device 40. When a direction of the support member 601 that corresponds to a first direction of an image is set as an X direction, and a direction of the support member 601 that corresponds to a second direction of the image, which is different from the first direction, is set as a Y direction, a support surface 61 of the support member 60 that supports the image forming device 40 is curved along the X direction and/or the Y direction, and therefore, the image forming device 40 is curved.

Abstract: There is provided a display apparatus including: a frame 20 that is mounted on a head part of a viewer; and an image display device 30 that is mounted on the frame 20. The image display device 30 includes (A) an image forming device 40, and (B) an optical system 50 that guides an image, which originates from the image forming device 40, into a pupil of a viewer. The image forming device 40 is curved along an X direction and/or a Y direction. The image display device 30 further includes an image-forming-device-to-optical-system distance adjustment unit 90 that adjusts a distance between the image forming device 40 and the optical system 50.

Abstract: A display apparatus includes a frame, an image display apparatus attached to the frame, and a distortion correction apparatus. The image display apparatus includes an image forming apparatus and an optical system configured to guide an image from the image forming apparatus to a pupil of an observer. When it is assumed that a direction, which corresponds to a first direction of the image, of the image forming apparatus is an X-direction and a direction, which corresponds to a second direction of the image which direction is different from the first direction, of the image forming apparatus is a Y-direction, the image forming apparatus is curved in the X-direction and/or in the Y-direction. The distortion correction apparatus corrects an input image signal to correct a distortion of an image to be observed.

Abstract: To provide a phase contrast microscope capable of overcoming an optical effect of an observation target on a phase contrast image, a control apparatus for a phase contrast microscope, and a control method for a phase contrast microscope. [Solving Means] A phase contrast microscope according to the present technology includes a phase ring, an opening ring, and a condenser lens. The opening ring is movable in a first direction with respect to the phase ring. The condenser lens is movable in the first direction with respect to the phase ring independently from the opening ring.

Abstract: To provide an observation apparatus, an observation program, and an observation method that are suitable for the detection and observation of an observation target object. An observation apparatus according to the present technology includes a microscope optical system, an imaging unit, a spectroscopic unit, and a detection unit. The imaging unit captures an image via the microscope optical system. The spectroscopic unit acquires an absorption spectrum or a Raman spectrum in an ultraviolet, visible, or infrared area via the microscope optical system. The detection unit detects an observation target object in an observed sample by using the absorption spectrum or the Raman spectrum.

Abstract: There is provided a measurement apparatus including an objective lens, a stage, a setting unit, and a controller. The stage is configured to support a sample vessel in which a plurality of wells each containing a sample are arranged and to define relative positions of the sample vessel and the objective lens. The setting unit is configured to determine whether to set each of the plurality of wells to be a measurement target and set the measurement target. The controller is configured to control the stage such that a well determined to be the measurement target by the setting unit and the objective lens face each other.

Abstract: A blood analysis apparatus includes an analysis section. The analysis section is configured to compare a measurement spectrum obtained regarding red blood cells with a standard spectrum of heme, biliverdin, and bilirubin, and cause the measurement spectrum to belong to any one of the standard spectra.

Abstract: There is provided a spectrometric optical system, comprising a reflection member having a concave surface formed along a first circle, a diffraction grating having an edge part and a convex surface formed along a second circle disposed concentrically with the first circle, on which the light reflected at the concave surface of the reflection member is incident, and an input element disposed at a predetermined position to the reflection member and the diffraction grating such that a diffracted light, emitted from the diffraction grating, having a wavelength region of not less than 600 nm to not more than 1100 nm, and reflected at the concave surface, passes between the input light input to the spectrometric optical system and the edge part of the diffraction grating.

Abstract: There is provided an illumination optical system including a laser light source, an integrator element, an oscillating element being capable of guiding the laser beam emitted from the laser light source to the integrator element, and oscillating to change an incident angle of the laser beam to the integrator element, and a light collecting element for collecting the laser beam emitted from the oscillating element. Also, there are provided a light irradiation apparatus for spectrometry and a spectrometer.