An approach for collecting disparate data within a pipe involves a sensor arrangement configured to be deployed within the pipe. The sensor arrangement includes a plurality of sensors configured to detect disparate data related to the pipe. Each sensor of the plurality of sensors is coupled to a respective collection computer on the sensor arrangement. A synchronization module is configured to synchronize the disparate data. A database is configured to store the synchronized data. A processor is configured to process the synchronized data. A user interface configured to present the synchronized data to a user.

The present embodiment provides a food inspection assisting system, a food inspection assisting apparatus and a computer program for accurately and rapidly inspecting food. According to one embodiment, a food inspection assisting system includes a carrying apparatus, a sensing apparatus, an assisting information generator, an information output apparatus and a controller. The carrying apparatus carries a food item. The sensing apparatus senses the food item carried. The assisting information generator generates inspection assisting information for the food item based on output information of the sensing apparatus. The information output apparatus that displays the inspection assisting information. The controller controls timing to display the inspection assisting information based on time required to carry the food item to an inspection area in which the carried food item is inspected.

An apparatus according to the present disclosure acquires a display condition for displaying at least a part of target data as a display image on a display unit, determines, in a case where the display image is changed, whether to store the display condition according to a changed display image in a storage unit, based on an index relating to the change of the display image, and stores, in a case where the display condition is determined to be stored, the display condition according to the changed display image in the storage unit.

A display device includes a display unit, and a control unit that displays a flight route of a flying object flying while photographing surroundings of a crane on the display unit. The control unit is configured to display the crane and the flight route on the display unit, and to display the flight route in a display mode viewed from at least two different directions.

An image processing apparatus includes a dividing unit, a measuring unit, a comparing unit, and a determining unit. The dividing unit spatially divides a time-series image of a structure surface captured during passage of a traffic load into a plurality of partial regions, and generates a plurality of partial time-series images. The measuring unit measures temporal changes in deflection amount of the structure surface in the respective partial regions from the plurality of partial time-series images. The comparing unit compares the temporal changes in deflection amount of the structure surface in the respective partial regions. The determining unit determines an orientation of the time-series image with respect to a passage direction of the traffic load based on a result of the comparison.

A spectrally encoded fluorescence imaging system includes a multi-wavelength excitation light source emitting excitation light for illuminating a sample, optical components for introducing spectral encoding to focus different wavelengths of the excitation light at different positions in the sample to generate fluorescence at different, spatial positions, and band-shifting florescence imaging probes exhibiting excitation-dependent emission band, causing the fluorescence generated at different spatial positions to exhibit different band shifts, such that image information is encoded in the band-shifted fluorescence spectrums for parallel detection by a spectrometer or arrayed detectors operable to resolve different wavelengths.

The present disclosure relates to a surface inspection method using a mold surface inspection device, and more specifically, to a surface inspection method using a mold surface inspection device including a setting part in which an inspection object is set, a light source part configured to irradiate the inspection object with irradiated light so that a reflective highlight is generated on a surface of the inspection object, an imaging part configured to image the surface of the inspection object so that a highlight region where a reflective highlight is generated is included, and an image processing part configured to process an image imaged in the imaging part to provide the image to a worker so that the worker determines whether defects are generated on the surface of the inspection object on the basis of the image.

An abnormal part display apparatus, an abnormal part display system, an abnormal part displaying method, and an abnormal part displaying program capable of improving visibility of an abnormal part in an object are provided. An abnormal part display apparatus 11 according to the present disclosure includes an acquisition unit 111 configured to acquire point group data of an object obtained by measuring the object by using a laser ranging apparatus 12, and a photograph image of the object obtained by photographing the object by using a photographing apparatus 13, a display unit 112 configured to display the point group data and the photograph image on a predetermined screen, and a control unit 113 configured to control the point group data and the photograph image to be displayed in the display unit 112.

A surface defect detection method applied to a surface of an object is disclosed. The method includes obtaining an image of the surface, performing a deep learning algorithm by a computing device to set a plurality of bounding boxes in the image and to output a plurality of feature parameter sets associated with the plurality of bounding boxes, with each bounding box enclosing a possible defect of the surface, and performing a classifying algorithm by the computing device according to the bounding boxes and the feature parameters to determine whether the surface conforms to a specification.

An apparatus for drawing an image on a development-view image of a structural object includes circuitry configured to display a first development-view image of the structural object captured at a first time, a first diagnosis target element image drawn for at least a part of a diagnosis target in the first development-view image, and a second development-view image of the structural object captured at a second time later than the first time superimposed one to another; receive a drawing of a second diagnosis target element image for at least a part of the diagnosis target in the second development-view image captured at the second time; and store first position information indicating a position of the first diagnosis target element image in the first development-view image and second position information indicating a position of the second diagnosis target element image in the second development-view image in association with each other.