Abstract: There is provided an image processing apparatus which can prevent the case where it is difficult to perform highly accurate diagnosis using combined boundary regions in a combined image. An image processing apparatus includes image data acquisition means, combined-image data generation means, and combined-boundary-region display data generation means. The image data acquisition means acquires multiple pieces of divided image data obtained by capturing images of multiple regions into which a captured area for an imaging target is divided. The combined-image data generation means generates combined-image data on the basis of the multiple divided image data. The combined-boundary-region display data generation means generates display image data to be used for an observer to recognize combined boundary regions in the combined-image data. The combined-boundary-region display data generation means changes at least one of a color and a brightness for all of the combined boundary regions included in a display area.

Abstract: An image processing apparatus processes a virtual slide image. The image processing apparatus includes a display image data generating unit that performs image processing on at least one of observation region display image data and non-observation region display image data to generate display image data for displaying an image on a display apparatus, the image being different from that obtained when uniform image processing is performed on the entire image data.

Abstract: An object of the invention is to provide a polyvinyl acetal resin for thermoforming that allows providing a molded product that is excellent in thermal stability, and excellent in the heat resistance without harming the properties of the polyvinyl acetal resin, and the invention relates to a polyvinyl acetal resin for thermoforming, which is obtained by acetalization of a polyvinyl alcohol resin having a viscosity average polymerization degree of 500 to 2000 and a saponification degree of 99.5 mol % or more with aldehyde, wherein the sum of vinyl alcohol units acetalized with the aldehyde is 65 to 88 mol % with respect to the total repeating units, and the content of alkali metal or alkali earth metal is 0.1 to 50 ppm. The molar ratio of a vinyl alcohol unit acetalized with an aldehyde having four or more carbon atoms/a vinyl alcohol unit acetalized with an aldehyde having three or less carbon atoms is preferably 90/10 to 0/100.

Abstract: An image processing apparatus that generates image data regarding an imaging target to be displayed on the basis of pieces of data regarding divided images of the imaging target obtained by capturing an imaging range such that the pieces of data regarding divided images include overlap regions includes image data obtaining means for obtaining the plurality of pieces of data regarding divided images, image data selection means for automatically selecting, for each of the overlap regions, a piece of image data to be displayed from the plurality of pieces of data regarding divided images, and display control means for displaying, on an image display apparatus, each of the overlap regions using the piece of data regarding a divided image selected by the image data selection means.

Abstract: An image processing apparatus that generates data of a display image from data on layer images having different resolutions includes a detection unit that detects a scroll or magnification change request, and a display image generation unit that generates the display image data based on the request, in which the display image generation unit determines whether the request is a high or low speed request when the display image data having a resolution different from those of the layer images is generated, generates the display image data through enlargement processing on data of any of the layer images having a resolution lower than that of the display image when the request is the high speed request, and generates the display image data through reduction processing on data of any of the layer images having a resolution higher than that of the display image in case of the low speed request.

Abstract: An image processing apparatus that corrects chromatic aberration that occurs in a display optical system, using a display unit in which respective pixels have a plurality of primary color elements that emit light of respectively differing primary colors, the apparatus comprises an acquisition unit adapted to acquire a displacement amount in which the position of a primary color element used as a light source is used as a reference, for light of each primary color emitted by a primary color element of the display unit, a calculation unit adapted to calculate a display position in the display unit for each primary color component of each pixel in a display image, based on the acquired displacement amount, and a display control unit adapted to display each primary color component of each pixel of the display image at the display position of the display unit calculated by the calculation unit.

Abstract: An image processing system, which corrects an aberration generated in an optical system by executing coordinate conversion of pixels of an image, has a table which holds correspondence between the positions of pixels before and after the coordinate conversion, acquires coordinates after conversion corresponding to the coordinates of representative points to be converted from the table, and calculates coordinates after conversion of a pixel between the acquired representative points by an interpolation calculation using a Lagrange interpolation formula.

Abstract: An image processing apparatus comprises: an image acquisition unit for acquiring a plurality of original images acquired by imaging a specimen including a structure in various focal positions using a microscope apparatus; an image generation unit for generating, on the basis of the plurality of original images, a first image on which blurring of an image of the structure has been reduced in comparison with the original images; and an analysis unit for obtaining information relating to the structure included in the first image by applying image analysis processing to the first image. The image generation unit selects a part of the original images having focal positions included within a smaller depth range than a thickness of the specimen from the plurality of original images obtained from the specimen, and generates the first image using the selected original images.

Abstract: A first process to be executed by an apparatus and a second process to be executed by an apparatus to obtain a composite image by compositing a real space image with a virtual space image are determined by negotiation. The apparatus (101) transmits data necessary for executing the second process to the apparatus. The apparatus executes the second process by using the data and transmits the process result to the apparatus. The apparatus receives the process result by the apparatus and executes the first process. The apparatus displays a composite image obtained on the basis of the result of the first process or a composite image obtained on the basis of the process result and the received process result.

Abstract: One of a plurality of color components which form pixels in an image that is influenced by chromatic aberrations caused by an optical system is selected as a reference color, and coordinates after conversion are calculated by applying conversion for correcting a distortion of the optical system with respect to the image to coordinates of pixels in association with the reference color. Correction values indicating amounts of color misregistration are calculated using the proportional relationship of difference values between the calculated coordinates and coordinates obtained by applying the conversion to coordinates of the image in association with remaining colors except for the reference color of the plurality of color components. Based on the calculated correction values, coordinates obtained by applying the conversion to coordinates of the image in association with the remaining colors are calculated.

Abstract: If a pixel of interest on a line of interest is located in an attribute region different from that in which a pixel immediately preceding the pixel of interest is located, the luminance value and color difference values of the pixel of interest are recorded in this order adjacent to data recorded in a data packet set for the line of interest (S811). If the pixel of interest is located in the same attribute region as that in which the preceding pixel is located, the luminance value of the pixel of interest is recorded adjacent to the data recorded in the data packet (S812). The data packet generated by executing the above recording process on each pixel forming the line is output.

Abstract: A left-eye color discrimination unit (1101) and right-eye color discrimination unit (1102) generate mask images from virtual space images. If an error part exists at the boundary between a chroma key region and non-chroma key region in the mask image, each of a left-eye mask correction unit (1108) and right-eye mask correction unit (1110) corrects the error part using another mask image generated based on the other virtual space image in addition to the virtual space image.

Abstract: A measurement system includes an illumination unit configured to irradiate a measurement target with illumination light, an imaging unit configured to capture an image of light reflected by or transmitted through the measurement target, an acquisition unit configured to acquire positional relationship information representing a positional relationship between the illumination unit and the measurement target and a positional relationship between the imaging unit and the measurement target, and a correction unit configured to correct a luminance of at least one of the illumination light emitted by the illumination unit and the image captured by the imaging unit based on the positional relationship information in such a way as to correct a luminance change of the measurement target image captured by the imaging unit, wherein at least two of the measurement target, the illumination unit, and the imaging unit are variable in spatial position.

Abstract: A nonwoven fabric composed of ultra-fine continuous fibers having a mean fineness of not more than 0.5 dtex is prepared. The nonwoven fabric comprises a water-soluble thermoplastic resin in a proportion of not more than 5% by weight relative to the nonwoven fabric, has an absorbing height of not less than 30 mm as determined at 20° C. after 10 minutes based on Byreck method when the nonwoven fabric immersion-treated for 60 minutes in a water of 80° C. is used, and satisfies the following formula: (B)/(A)?0.25, wherein the symbol (B) represents a tensile strength [N/5 cm] in the longitudinal direction and the lateral direction of the nonwoven fabric and the symbol (A) represents a fabric weight [g/m] of the nonwoven fabric. In the nonwoven fabric, not less than 30% of the surface may be coated with the water-soluble thermoplastic resin. The water-soluble thermoplastic resin may be a water-soluble thermoplastic polyvinyl alcohol, e.g.

Abstract: A detection unit to optically detect a discharge condition of a droplet is disclosed. The detection unit includes a light emitting element and a light receiving element disposed on opposite sides of an area through which a droplet discharged from a droplet-discharger passes. A diaphragm plate having an aperture and another diaphragm plate having at least two apertures arranged at a pitch in a discharge direction are respectively disposed near front surfaces of the two elements. When light emitted from the light emitting element passes through the apertures, two light beams are received by the light receiving element. When the droplet is discharged and passes in front of the apertures, the two light beams are blocked sequentially by the ink droplet, which causes the quantity of light received by the light receiving element to change, thereby inducing a change in an output from the light receiving element. Based on the change in the output, a discharge-condition of the droplet is determined.

Abstract: An index extraction unit detects indices from a sensed image sensed by a sensing unit which senses an image of a physical space on which a plurality of indices is laid out. A convergence arithmetic unit calculates position and orientation information of the sensing unit based on the detected indices. A CG rendering unit generates a virtual space image based on the position and orientation information. A sensed image clipping unit extracts, as a display image, an image in a display target region from the sensed image. An image composition unit generates a composite image by compositing the extracted display image and the generated virtual space image. A display unit displays the composite image.

Abstract: An image processing system, which corrects an aberration generated in an optical system by executing coordinate conversion of pixels of an image, has a table which holds correspondence between the positions of pixels before and after the coordinate conversion, acquires coordinates after conversion corresponding to the coordinates of representative points to be converted from the table, and calculates coordinates after conversion of a pixel between the acquired representative points by an interpolation calculation using a Lagrange interpolation formula.

Abstract: An image processing apparatus that corrects chromatic aberration that occurs in a display optical system, using a display unit in which respective pixels have a plurality of primary color elements that emit light of respectively differing primary colors, the apparatus comprises an acquisition unit adapted to acquire a displacement amount in which the position of a primary color element used as a light source is used as a reference, for light of each primary color emitted by a primary color element of the display unit, a calculation unit adapted to calculate a display position in the display unit for each primary color component of each pixel in a display image, based on the acquired displacement amount, and a display control unit adapted to display each primary color component of each pixel of the display image at the display position of the display unit calculated by the calculation unit.

Abstract: Units which respectively acquire information on an aberration generated by a display optical system and information on an aberration generated by a vision correction optical system used by an observer are arranged. Aberration correction is executed based on the two aberrations. An aberration generated by a combination of the display optical system and the vision correction optical system used by the observer can be appropriately corrected for each observer.

Abstract: A filter material comprising a nonwoven fabric which comprises an ultra-fine continuous fiber having a mean fiber diameter of 0.05 to 1.8 ?m is prepared by dissolving or eluting a water-soluble thermoplastic resin from a nonwoven fabric or nonwoven web which comprises a conjugate continuous fiber comprising the water-soluble thermoplastic resin and a water-insoluble thermoplastic resin with a hydrophilic solvent and allowing to remain part of the water-soluble thermoplastic resin in the nonwoven fabric or the nonwoven web. In the filter material, the ultra-fine continuous fiber forms a bundle having a mean width of 3 to 100 ?m and the nonwoven fabric has an occupancy area ratio of the bundle of the ultra-fine continuous fiber of 1 to 20% in the surface of the nonwoven fabric. The nonwoven fabric also satisfies the following formula: 100×(B)/(A)?5 wherein (B) is a tensile strength (kgf/5 cm) in each of a longitudinal direction and a width direction of the nonwoven fabric and (A) is a fabric weight (g/m2).