Abstract: An information processing device acquires an image captured by a transmission electron microscope. The information processing device, for each partial region in the image, executes a two-dimensional Fourier transform on an image of the partial region. The information processing device, based on results obtained by executing the two-dimensional Fourier transform on each of the partial regions, performs clustering of frequency strengths obtained from the results of the two-dimensional Fourier transform. The information processing device determines regions of different crystallinity in the image, based on results of the clustering.

Abstract: An information processing device acquires an image captured by a transmission electron microscope. The information processing device, for each partial region in the image, calculates a variation in pixel values of pixels included in the partial region. The information processing device, for each partial region in the image, determines a degree of crystallinity of the partial region based on the calculated variation in the pixel values of the partial region.

Abstract: Included are: a temperature image acquiring unit that acquires a temperature image; a binarization processing unit that sets at least one temperature candidate region in a target region included in a region of the temperature image, by binarizing pixels in the target region on the basis of temperature information possessed by the pixels in the target region; a candidate region temperature calculating unit that calculates a region temperature for the temperature candidate region in the target region on the basis of temperature information possessed by a pixel in the temperature candidate region; and a temperature estimating unit that determines a temperature region from among the at least one temperature candidate region on the basis of a separation degree calculated for the temperature candidate region in the target region, and estimates that a temperature of a body part of an occupant is the region temperature for the temperature region.

Abstract: Included are: a captured image acquiring unit to acquire a captured image obtained by imaging an occupant; a temperature image acquiring unit to acquire a temperature image indicating a temperature of a surface of a body of the occupant measured in a non-contact manner; a motion detection unit to detect a motion of the occupant on the basis of the captured image; a temperature detection unit to detect a temperature of a hand of the occupant on the basis of the temperature image; and an awakening level estimating unit to estimate an awakening level of the occupant on the basis of the motion of the occupant detected by the motion detection unit and the temperature of the hand of the occupant detected by the temperature detection unit.

Abstract: A biological information acquisition device includes a detection-value acquisition unit to acquire a detection value from a non-contact biometric sensor, a vital measurement unit to measure a vital sign of a target person (TP) using the detection value, an image-data acquisition unit to acquire image data indicating an image captured by a camera, an image processing unit to perform at least one of a state estimation process of estimating a state of the target person, an attribute estimation process of estimating an attribute of the target person, or a personal identification process of identifying the target person by performing image processing on the image captured including the target person, and a parameter setting unit to set a parameter in measuring the vital sign in accordance with a result of the image processing.

Abstract: An information processing device receives material data related to a material, from a user terminal. The information processing device performs analysis on the material data using a predetermined first analysis method and generates first analysis result data that is an analysis result from the first analysis method. The information processing device performs analysis on the received material data using a second analysis method and generates second analysis result data that is an analysis result expressing a relationship between the received material data and data different from the received material data. The information processing device transmits the first analysis result data and the generated second analysis result data to the user terminal.

Abstract: An information processing device acquires an image captured by a transmission electron microscope. The information processing device, for each partial region in the image, calculates a variation in pixel values of pixels included in the partial region. The information processing device, for each partial region in the image, determines a degree of crystallinity of the partial region based on the calculated variation in the pixel values of the partial region.

Abstract: An information processing device acquires an image captured by a transmission electron microscope. The information processing device, for each partial region in the image, executes a two-dimensional Fourier transform on an image of the partial region. The information processing device, based on results obtained by executing the two-dimensional Fourier transform on each of the partial regions, performs clustering of frequency strengths obtained from the results of the two-dimensional Fourier transform. The information processing device determines regions of different crystallinity in the image, based on results of the clustering.

Abstract: Provided is a line-of-sight detection apparatus that outputs reliability of an estimation result of a line of sight when an eye to be a line-of-sight detection target is switched. The line-of-sight detection apparatus includes: an estimation target selection unit configured to select an eye of a line-of-sight detection target person as one of switchable line-of-sight detection modes; a line-of-sight estimation unit configured to estimate a line of sight of the line-of-sight detection target person in the line-of-sight detection mode; a reliability determination unit configured to determine, based on a first line of sight before the mode is switched and a second line of sight after the mode is switched, reliability of the second line of sight; and a line-of-sight direction output unit configured to output information on the second line of sight and the reliability of the second line of sight.

Abstract: An image processing apparatus includes: an initial solution generator that generates, from input images, as an initial solution, internal data of one or more screen images of a layered image, the layered image including multiple screen images consisting of the one or more screen images and one end image; an image generator that iterates a process of generating internal data of the multiple screen images; and a controller that, when a termination condition is satisfied, outputs, as data of the layered image, the finally generated internal data of the multiple screen images. The image generator generates internal data of the multiple screen images from the initial solution in a first round of the process, and then until the termination condition is satisfied, in each round of the process, generates new internal data of the multiple screen images from the internal data generated in the previous round of the process.

Abstract: An image processing apparatus includes: an initial solution generator that generates, from input images, as an initial solution, internal data of one or more screen images of a layered image, the layered image including multiple screen images consisting of the one or more screen images and one end image; an image generator that iterates a process of generating internal data of the multiple screen images; and a controller that, when a termination condition is satisfied, outputs, as data of the layered image, the finally generated internal data of the multiple screen images. The image generator generates internal data of the multiple screen images from the initial solution in a first round of the process, and then until the termination condition is satisfied, in each round of the process, generates new internal data of the multiple screen images from the internal data generated in the previous round of the process.

Abstract: The frame-parallax-adjustment-amount generating unit outputs, as first parallax data, parallax data of an image portion protruded most among image portions protruded more than a first reference value from a pair of frame images forming a three-dimensional image. The pixel-parallax-adjustment-amount generating unit outputs, as second parallax data, parallax data of an image portion retracted more than a second reference value from the pair of frame images. The adjusted-image generating unit generates a pair of image output data by moving the entire pair of image input data to the inner side based on the first parallax data and moving an image portion retracted more than the second reference value of the pair of image input data based on the second parallax data to adjust a parallax amount and outputs the pair of image output data.

Abstract: An image processing apparatus includes components explained below. A parallax calculating unit receives input of image input data Da1 and Db1, calculates a parallax amount in each of a plurality of divided regions, and outputs a plurality of parallax data T1. A frame-parallax calculating unit outputs, based on the parallax data T1 in a projecting direction, frame parallax data T2. A frame-parallax correcting unit outputs frame parallax data after correction T3 using the frame parallax data T2 of a plurality of frames. A parallax-adjustment-amount calculating unit outputs, based on parallax adjustment information S1 and the frame parallax data after correction T3, parallax adjustment data T4. An adjusted-image generating unit outputs, based on the parallax adjustment data T4, image output data Da2 and Db2.

Abstract: An image processing apparatus 100 includes a parallax calculating unit 1. The parallax calculating unit 1 receives input of a pair of image input data Da1 and Db1 forming a three-dimensional video, calculates parallax amounts of respective regions obtained by dividing the pair of image input data Da1 and Db1 into a plurality of regions, and outputs the parallax amounts as parallax data T1 of the respective regions. The parallax calculating unit 1 includes a correlation calculating unit 10, a high-correlation-region extracting unit 11, a denseness detecting unit 12, and a parallax selecting unit 13. The correlation calculating unit 10 outputs correlation data T10 and pre-selection parallax data T13 of the respective regions. The high-correlation-region extracting unit 11 determines a level of correlation among the correlation data T10 of the regions and outputs high-correlation region data T11.

Abstract: A document image processing system includes a menu display part determining the layout of menu data on the basis of the height Ha and the width Wa of the displayable area of the display unit when the display unit is rotated to its vertical position, the height Hb and the width Wb of the displayable area when the display unit is rotated to its horizontal position and the width Wc and the height Hc of a selection item display area displaying menu data, and displaying the menu on the basis of the layout thus determined, so that the menu can be displayed with a maximum size on the displayable area of the display unit regardless of the height and width of the displayable area changing depending on the direction of rotation of the display unit and without changing the size and arrangement of the menu data in the menu display area.

Abstract: A blower motor control for an air conditioner is carried out so that when a detected actual rotation speed has come into an allowable deviation range to a target rotation speed at the time of controlling the motor so as to approach its rotation speed to the target rotation speed, the output for adjusting the rotation speed is not changed. As a result, a stable rotation speed can be obtained as long as the load on the motor does not fluctuate. Furthermore, after the output has been fixed, the allowable deviation range is expanded to prevent the output from changing even if slight load fluctuation is caused. This allows stable controls.