Abstract: A specimen container includes a well having an opening to store fluid. An opening plane, and first and second cross sections have outer peripheral shapes dissimilar to each other and in a plan view, the second cross section is contained in the first cross section and the first cross section is contained in the opening plane. The opening plane, and the first and second cross sections are defined in a horizontal posture of the body. The opening plane is a projected plane of the opening of the well on a horizontal plane. The first cross section is a horizontal cross section of the internal space taken at a position corresponding to a first depth defined vertically downwardly from the opening. The second cross section is a horizontal cross section of the internal space taken at a position corresponding to a second depth greater than the first depth.

Abstract: An imaging system for imaging a sample in a medium carried in a container WP as an imaging object comprises: an imaging object includes an imager which obtains an original image by imaging the imaging object; and a data processor which generates multi-gradation image data by performing a gradation correction on the original image, wherein the data processor associates a luminance value corresponding to a luminance of the medium in the original image with a maximum gradation value in the gradation correction.

Abstract: A specimen container includes a body to which a well having an opening at an upper end and capable of storing a fluid in internal space is disposed. An opening plane, a first cross section and a second cross section have outer peripheral shapes dissimilar to each other and in a plan view, the second cross section is contained in the first cross section and the first cross section is contained in the opening plane. Here, the opening plane, the first cross section and the second cross section are defined in a horizontal posture of the body as follows. The opening plane is a projected plane of the opening of the well on a horizontal plane. The first cross section is a horizontal cross section of the internal space taken at a position corresponding to a predetermined first depth defined vertically downwardly from the opening. Further; the second cross section is a horizontal cross section of the internal space taken at a position corresponding to a second depth greater than the first depth.

Abstract: An imaging system for imaging a sample in a medium carried in a container as an imaging object, in which the imaging system includes an imager which obtains an original image by imaging the imaging object; and a data processor which generates multi-gradation image data by performing a gradation correction on the original image, wherein the data processor associates a luminance value corresponding to a luminance of the medium in the original image with a maximum gradation value in the gradation correction.

Abstract: There is provided a well plate including a plate and a well which is opened in an upper surface of the plate, wherein the well includes a flat bottom surface part and a circumferential wall part rising upward from the circumferential edge of the bottom surface part; the circumferential wall part has a stepped part in the circumferential direction at an arbitrary height position; an upper circumferential wall part, which is located above the stepped part in the circumferential wall part, is larger in a cross sectional area than a lower circumferential wall part located below; and the stepped part indicates the lower limit of the liquid level height of a liquid sample contained in the well.

Abstract: An imaging system 100 for imaging a sample in a medium carried in a container WP as an imaging object comprises: an imager 21 which obtains an original image by imaging the imaging object; and a data processor 33 which generates multi-gradation image data by performing a gradation correction on the original image, wherein the data processor 33 associates a luminance value corresponding to a luminance of the medium in the original image with a maximum gradation value in the gradation correction.

Abstract: An imaging system 100 for imaging a sample in a medium carried in a container WP as an imaging object comprises: an imager 21 which obtains an original image by imaging the imaging object; and a data processor 33 which generates multi-gradation image data by performing a gradation correction on the original image, wherein the data processor 33 associates a luminance value corresponding to a luminance of the medium in the original image with a maximum gradation value in the gradation correction.

Abstract: An imaging system 100 for imaging a sample in a medium carried in a container WP as an imaging object comprises: an imager 21 which obtains an original image by imaging the imaging object; and a data processor 33 which generates multi-gradation image data by performing a gradation correction on the original image, wherein the data processor 33 associates a luminance value corresponding to a luminance of the medium in the original image with a maximum gradation value in the gradation correction.

Abstract: An imaging apparatus comprises: a culture container including an accommodation space for accommodating a sample carrier carrying biological samples in a culture environment for the biological samples and a first transparent part making the accommodation space observable from outside; and an imager that images the biological samples in the accommodation space via the first transparent part.

Abstract: An imaging apparatus, comprising a holder that holds a specimen container carrying a biological specimen, an imager that images the specimen in the specimen container, a sterilizer that supplies a drug or electromagnetic waves having a sterilization effect to the holder, and a controller that performs a sterilization process of supplying the drug or the electromagnetic waves to the holder by controlling the sterilizer at least either before or after imaging the specimen by the imager.

Abstract: An imaging system 100 for imaging a sample in a medium carried in a container WP as an imaging object comprises: an imager 21 which obtains an original image by imaging the imaging object; and a data processor 33 which generates multi-gradation image data by performing a gradation correction on the original image, wherein the data processor 33 associates a luminance value corresponding to a luminance of the medium in the original image with a maximum gradation value in the gradation correction.

Abstract: An imaging apparatus, comprising a holder that holds a specimen container carrying a biological specimen, an imager that images the specimen in the specimen container, a sterilizer that supplies a drug or electromagnetic waves having a sterilization effect to the holder, and a controller that performs a sterilization process of supplying the drug or the electromagnetic waves to the holder by controlling the sterilizer at least either before or after imaging the specimen by the imager.

Abstract: A printing apparatus records a predetermined test pattern on printing paper, and reads the test pattern by means of a scanner. The scanner reads the test pattern at a resolution lower than the resolution of a recording head. This allows the automatic and fast reading of the test pattern. Additionally, the printing apparatus performs an interpolation process on read data, and judges whether there is an abnormality in nozzles or not, based on the read data subjected to the interpolation process. This reproduces the positions of and spacing between lines recorded on the printing paper with high accuracy to achieve the exact judgment as to whether there is an abnormality in the nozzles or not. Therefore, an inspection with a high degree of reliability is accomplished.

Abstract: A printing apparatus records a predetermined test pattern on printing paper, and reads the test pattern by means of a scanner. The scanner reads the test pattern at a resolution lower than the resolution of a recording head. This allows the automatic and fast reading of the test pattern. Additionally, the printing apparatus performs an interpolation process on read data, and judges whether there is an abnormality in nozzles or not, based on the read data subjected to the interpolation process. This reproduces the positions of and spacing between lines recorded on the printing paper with high accuracy to achieve the exact judgment as to whether there is an abnormality in the nozzles or not. Therefore, an inspection with a high degree of reliability is accomplished.