Abstract: A signal processing method includes addition of noise obtained by multiplying generated random number by K to the input pixel signal I(x), a binarization process of comparing the result of the addition with two thresholds, and a process of calculating a probability. The binarization process includes a first nonlinear process and a second nonlinear process. The first nonlinear process outputs “P” in a case where I(x) after the addition of the noise is greater than the threshold T1 and less than the second threshold T2. The second nonlinear determines “1” or “0” for a processing target pixel, in which the result of the first nonlinear process is “P,” based on input pixel signals of pixels around the processing target pixel. The process of calculating a probability calculates a probability J(x) that the result of the first nonlinear process is “1,” or the result of the first nonlinear process is “P” and the result of the second nonlinear process is “1”.

Abstract: An image processing method for selecting an image to be output includes evaluating a plurality of first images having a first attribute and a plurality of second images having a second attribute; performing a plurality of selection processes for selecting a plurality of images to be output from among the plurality of first images and the plurality of second images based on evaluation of the plurality of first images and the plurality of second images obtained in the evaluating; and outputting the selected plurality of images. The plurality of selection processes include a selection process for selecting an image to be output from among the plurality of first images by excluding the plurality of second images from selection candidates.

Abstract: An image processing apparatus includes a first acquiring unit, a second acquiring unit, an evaluating unit, a selecting unit, and an output unit. The first acquiring unit acquires a first template group and a second template group. The second acquiring unit acquires a first layout candidate information group based on the first template group and a second layout candidate information group based on the second template group. The evaluating unit evaluates a plurality of layout candidate information pieces at least including the first layout candidate information group and the second layout candidate information group to provide an evaluation. The selecting unit selects a template corresponding to one layout candidate information piece of the plurality of layout candidate information pieces evaluated by the evaluating unit based on the evaluation provided by the evaluating unit. The output unit outputs a layout result based on the template selected by the selecting unit.

Abstract: Images are divided into image groups based on time information indicating a time corresponding to each of the images. If the number of the image groups obtained in the dividing is smaller than a predetermined number, the number of the image groups is matched with the predetermined number by increasing the number of the image groups. If the number of the image groups obtained in the dividing is larger than the predetermined number, the number of the image groups is matched with the predetermined number by decreasing the number of the image groups. At least one image included in each of the image groups obtained in the matching is laid out in a template.

Abstract: A feature amount is analyzed for each of a plurality of images as layout target candidates. A kind of scene into which the plurality of images are classified is determined based on the analyzed feature amounts of the plurality of images. The images as evaluation targets are evaluated in accordance with an evaluation criterion corresponding to the kind of scene determined for the images as evaluation targets. An image to be laid out is selected from the plurality of images based on the evaluation for each of the plurality of images.

Abstract: An image processing apparatus includes a setting unit setting the number of pieces of image data to be selected, an identifying unit identifying, based on a photographing date and time of each piece of image data of an image data group, a photographing period of the image data group, a dividing unit dividing the identified photographing period into a plurality of photographing sections, a selection unit selecting image data from an image data group corresponding to a target photographing section based on predetermined criteria, and a generation unit generating a layout image by arranging an image based on the selected image data, wherein selection of image data is repeated by setting an unselected photographing section as a next target photographing section to select a number of pieces of image data corresponding to the set number, and wherein the number of photographing sections is determined according to the set number.

Abstract: When performing image processing on a designated image by the function of the application, image data of the designated image is obtained in a second layer constituted by an instruction set executable by a processor. In a first layer constituted by a script instruction set, the print script of print content including the image data which has been obtained and converted into a data format interpretable by the first layer in the second layer is generated. The print script is rendered into print image data corresponding to a print resolution by interpreting the generated print script.

Abstract: When performing image processing on a designated image by the function of the application, image data of the designated image is obtained in a second layer constituted by an instruction set executable by a processor. In a first layer constituted by a script instruction set, the print script of print content including the image data which has been obtained and converted into a data format interpretable by the first layer in the second layer is generated. The print script is rendered into print image data corresponding to a print resolution by interpreting the generated print script.

Abstract: A vibrating-type motor is provided, in which only a restoring force is reduced without reducing a thrust increasing effect by auxiliary magnets, thereby reducing size while increasing efficiency.

Abstract: A vibrating-type motor is provided, in which a restoring force is reduced without reducing a thrust increasing effect by auxiliary magnets, thereby to reduce the size and expense of the motor while increasing efficiency. The vibrating-type motor includes a moving part having a main magnet and auxiliary magnets individually junctioned coaxially to two axial end portions of the main magnet, an exciting yoke including two leg portions opposed to the moving part through a gap and arranged coaxially with the moving part, an exciting coil wound on the exciting yoke for generating a magnetic flux in the leg portions, and a back yoke arranged to confront the exciting yoke with the moving part located between the back yoke and the exciting yoke, wherein outer-side end portions of the exciting yoke extend past axial end portions of the back yoke.