Abstract: Disclosed is: a fluorescent dye comprising a compound, a tautomer of the compound, or a salt of the compound or the tautomer; a labeled composite substance comprising the fluorescent dye and a composite substance which are bonded to each other; a composition containing the fluorescent dye or the labeled composite substance; and a method for acquiring information about a substance of interest by a super-resolution microscopy.

Abstract: A reliability calculation apparatus calculates a reliability of a recognized object that is recognized as being present on a route on which a vehicle travels. The reliability of the recognized object is used for driving control of the vehicle. In the reliability calculation apparatus, a provisional reliability calculating unit determines a feature quantity of each of a plurality of recognized objects, selects a plurality of pairs of recognized objects from the plurality of recognized objects, determines a difference in feature quantity of each pair of recognized objects, and calculates a reliability that decreases as the difference in feature quantity increases as a provisional reliability of each pair of recognized objects. An integrated reliability calculating unit calculates an integrated reliability of each recognized object from the provisional reliabilities of the plurality of pairs of recognized objects.

Abstract: A roadside object recognition apparatus recognizes a roadside object that is present on a travel route on which an own vehicle travels. The roadside object is used for driving control of the vehicle. In the roadside object recognition apparatus, a reflection point acquiring unit acquires, using a radar that emits electromagnetic waves, a reflection-point group of reflection points of the electromagnetic waves reflected by an object that is present on the travel route. An image acquiring unit acquires an image of the travel route using a camera. A reflection point correcting unit corrects the reflection-point group by removing an erroneous reflection point that is determined to be highly likely not to be a reflection point of a roadside object from the reflection-point group through image processing of the image. A shape recognizing unit recognizes a shape of the roadside object using the corrected reflection-point group.

Abstract: A method of forming a silicon nitride passivation film on a nitride semiconductor layer is comprising steps of, introducing a substrate including the nitride semiconductor layer into a reaction furnace, replacing an atmosphere in the reaction furnace from air to an ammonia (NH3) atmosphere or to a hydrogen (H2) atmosphere, raising a temperature in the reaction furnace to a first temperature, maintaining both the temperature in the reaction furnace at the first temperature and the atmosphere in the reaction furnace at the NH3 atmosphere or the H2 atmosphere for three minutes or more, lowering the temperature in the reaction furnace to a second temperature lower than the first temperature, and forming the silicon nitride passivation film by supplying dichlorosilane (SiH2Cl2) into the reaction furnace under the first pressure of 100 Pa or less in the reaction furnace.

Abstract: A method according to one or more aspects may control a microscope system including an imaging unit configured to image a sample, and a display unit including a first display region and a second display region. The method may include: sequentially displaying, in the first display region, first images sequentially captured by the imaging unit; and displaying, in the second display region, a second image generated based on information extracted from the sequentially captured first images.

Abstract: The purpose of the present invention is to provide a technology which adaptively switches video analysis methods according to a congestion situation within a video, and which carries out a suitable video analysis by a limited computational volume. Provided is an image processing device 100, wherein a congestion estimation unit 102 estimates a congestion situation within a video which is acquired from an image input unit 101. A control unit 103 switches methods for video analysis according to the congestion situation. In a situation of low congestion, an image analysis unit for use in normal situations 105 carries out the video analysis by a basic method. In a situation of high congestion, an image analysis unit for use in congested situations 106 carries out a high-precision video analysis, such as an analysis which spans a plurality of frames.

Abstract: A clothing article that at least partially covers at least one selected from among (i) a lower limb and (ii) an upper limb, including: a plurality of heat-retaining parts having a higher heat-retaining property than other parts of the clothing article, the plurality of heat-retaining parts including at least one of the following groups: (i) a knee part, a heel part, and a digital part for a lower limb; and (ii) a wrist part, an elbow part, and a digital part for an upper limb, a heat release part being provided to (i) at least one digital part, among the digital part for the lower limb and the digital part for the upper limb, which at least one digital part is included in the clothing article or (ii) a part adjacent to the at least one digital part, the heat release part having greater breathability than other parts of the clothing article.

Abstract: A particle imaging device comprises a flow cell, a light source, an irradiation optical system configured to form a light sheet on the flow cell, a light collecting optical system and an imaging element. The sheet surface of the light sheet is perpendicular to the exterior side surface of the flow cell to which the light is entered from the light source. The sheet surface of the light sheet is inclined at a predetermined angle that is not perpendicular to the flow direction of the sample.

Abstract: In an apparatus for recognizing a road shape of a travel route of a first vehicle, a surrounding environment recognizer repeatedly recognizes, as surroundings information, at least shapes of roadside objects or travel histories of second vehicles that are vehicles other than the first vehicle, located around the first vehicle in a travel direction of the first vehicle. A sequence-of-point estimator repeatedly estimates, using the surroundings information, a reference line connecting a sequence of points that represent the road shape of the travel route in the travel direction of the first vehicle. A first lane boundary setter repeatedly sets a first lane boundary that is a boundary of a lane of the first vehicle, located at a first distance from the reference line to a respective one of the left and the right of the first vehicle in a vehicle-widthwise direction of the first vehicle.

Abstract: A microscope apparatus includes: a sample setting unit in which a sample is set; an imaging unit configured to image the sample set in the sample setting unit; a housing unit on which the sample setting unit is arranged, and which is configured to internally accommodate the imaging unit; a first light source configured to irradiate light for fluorescence excitation on the sample in the sample setting unit; a first cover configured to be movable to a first position that covers the sample setting unit and a second position that opens the sample setting unit; and a second cover configured to be movable within the first cover; and a second light source arranged in a space covered with the second cover and configured to irradiate light on the sample in the sample setting unit.

Abstract: A method according to one or more aspects may control a microscope system including an imaging unit configured to image a sample, and a display unit including a first display region and a second display region. The method may include: sequentially displaying, in the first display region, first images sequentially captured by the imaging unit; and displaying, in the second display region, a second image generated based on information extracted from the sequentially captured first images.

Abstract: Provided is a cell analyzer including: a light source unit configured to apply light to test cells each containing first substances which are bound to first fluorescent dyes and which serve as an index for therapeutic strategy judgement; an image capturing unit configured to capture an image of fluorescence caused by the light; a processing unit configured to process the image obtained by the image capturing unit; and a display unit configured to display a process result obtained by the processing unit, wherein the processing unit obtains a first image by performing an inactivation process of quenching the first fluorescent dyes, an activation process of activating a part of the first fluorescent dyes that have been quenched, and an image capturing process of capturing, by means of the image capturing unit, an image of the fluorescence by applying light from the light source unit to each test cell; extracts bright points based on the first fluorescent dyes on the basis of the first image; classifies the extra

Abstract: Disclosed is a microscope device that includes: a sample placement unit on which a sample is set; an imaging unit configured to take an image of the sample that is set on the sample placement unit; a case in which the sample placement unit is provided and the imaging unit is disposed; a display unit configured to display the image taken by the imaging unit; and a moving unit, provided integrally with the display unit, configured to be movable relative to the sample placement unit.

Abstract: A stacked body includes: a substrate made of silicon carbide and having a first main surface forming an angle of 20° or less with a silicon plane; and a graphene film disposed on the first main surface and having an atomic arrangement oriented in relation to an atomic arrangement of silicon carbide forming the substrate. In an exposed surface of the graphene film which is a main surface opposite to the substrate, an area ratio of a region having a full width at half maximum of G? of 40 cm?1 or less under Raman spectroscopy analysis is 50% or more. Accordingly, the stacked body is provided that enables a high mobility to be stably ensured in an electronic device manufactured to include the graphene film forming an electrically conductive portion.

Abstract: A stacked body includes: a substrate made of silicon carbide and having a first main surface forming an angle of 20° or less with a carbon plane; and a graphene film disposed on the first main surface and having an atomic arrangement oriented in relation to an atomic arrangement of silicon carbide forming the substrate. In an exposed surface of the graphene film as seen in plan view, 10 or less regions are present per 1 mm2, the exposed surface being a main surface opposite to the substrate, and the regions each including 10 or more graphene layers and having a circumcircle with a diameter of 5 ?m or more and 100 ?m or less. Accordingly, the stacked body is provided that enables a high mobility to be stably ensured in an electronic device manufactured to include the graphene film forming an electrically conductive portion.

Abstract: A method comprises obtaining a first cell image of a cell by a first observation method, obtaining a second cell image of the cell by a second observation method that is different from the first observation method, and determining the region of the cell based on the first cell image and the second cell image.

Abstract: In an apparatus for controlling travel of an own vehicle which is a vehicle carrying the apparatus, an information acquirer is configured to acquire information regarding a target around the own vehicle from a target detector. A controller is configured to, if determining, using the target information acquired by the information acquirer, that if travel of the own vehicle is continued in accordance with a collision avoidance trajectory determined to avoid a collision with an object located on a roadway ahead of the own vehicle, the own vehicle is likely to collide with the object or another object, change a setting of a driving state of the own vehicle so as to avoid or reduce a likelihood of the collision.

Abstract: A roadside object recognition apparatus recognizes a roadside object that is present on a travel route on which an own vehicle travels. The roadside object is used for driving control of the vehicle. In the roadside object recognition apparatus, a reflection point acquiring unit acquires, using a radar that emits electromagnetic waves, a reflection-point group of reflection points of the electromagnetic waves reflected by an object that is present on the travel route. An image acquiring unit acquires an image of the travel route using a camera. A reflection point correcting unit corrects the reflection-point group by removing an erroneous reflection point that is determined to be highly likely not to be a reflection point of a roadside object from the reflection-point group through image processing of the image. A shape recognizing unit recognizes a shape of the roadside object using the corrected reflection-point group.

Abstract: The purpose of the present invention is to provide a technology which adaptively switches video analysis methods according to a congestion situation within a video, and which carries out a suitable video analysis by a limited computational volume. Provided is an image processing device 100, wherein a congestion estimation unit 102 estimates a congestion situation within a video which is acquired from an image input unit 101. A control unit 103 switches methods for video analysis according to the congestion situation. In a situation of low congestion, an image analysis unit for use in normal situations 105 carries out the video analysis by a basic method. In a situation of high congestion, an image analysis unit for use in congested situations 106 carries out a high-precision video analysis, such as an analysis which spans a plurality of frames.

Abstract: A reliability calculation apparatus calculates a reliability of a recognized object that is recognized as being present on a route on which a vehicle travels. The reliability of the recognized object is used for driving control of the vehicle. In the reliability calculation apparatus, a provisional reliability calculating unit determines a feature quantity of each of a plurality of recognized objects, selects a plurality of pairs of recognized objects from the plurality of recognized objects, determines a difference in feature quantity of each pair of recognized objects, and calculates a reliability that decreases as the difference in feature quantity increases as a provisional reliability of each pair of recognized objects. An integrated reliability calculating unit calculates an integrated reliability of each recognized object from the provisional reliabilities of the plurality of pairs of recognized objects.