Abstract: A radar image processing device includes a phase difference calculating unit calculating a phase difference between phases with respect to a first and a second radio wave receiving points in each pixel at corresponding pixel positions among pixels in a first and a second suppression ranges, the first and the second suppression ranges being suppression ranges in a first and a second radar images capturing an observation area from the first and the second radio wave receiving points, respectively; and a rotation amount calculating unit calculating each phase rotation amount in the pixels in the second suppression range from each phase difference, wherein a difference calculating unit rotates phases in the pixels in the second suppression range based on the rotation amounts, and calculates a difference between pixel values at corresponding pixel position among the pixels in the first suppression range and phase-rotated pixels in the second suppression range.

Abstract: A learning data generation device includes: a target object image generating unit for simulating radar irradiation to a target object using a 3D model of the target object to generate a target object-simulated radar image that is a simulated radar image of the target object; a background image acquiring unit for acquiring a background image using radar image information generated by the radar device performing radar irradiation; an image combining unit for generating a combined pseudo radar image obtained by combining the background image and the target object-simulated radar image by pasting the target object-simulated radar image generated by the target object image generating unit to a predetermined position in the background image acquired by the background image acquiring unit; and a learning data generating unit for generating learning data that associates combined simulated radar image information indicating the combined pseudo radar image generated by the image combining unit with class information in

Abstract: A technique that can synthesize an aromatic sodium compound easily, in a short time, and efficiently through a small number of steps is constructed.

Abstract: A radar image processing device includes a phase difference calculating unit for calculating a phase difference, which is the difference between the phases, with respect to the radio wave receiving points different from each other, of each of a plurality of reflected signals present in one pixel, and the rotation amount calculating unit that calculates each of the phase rotation amounts in a plurality of pixels included in the second radar image from the respective phase differences, in which the difference calculating unit rotates the phases in the plurality of pixels included in the second radar image on the basis of the respective rotation amounts, and calculates a difference between pixel values of pixels at corresponding pixel positions among the plurality of pixels included in the first radar image and the plurality of pixels obtained by the phase rotation included in the second radar image.

Abstract: A radar image processing device includes a phase difference calculating unit calculating a phase difference between phases with respect to a first and a second radio wave receiving points in each pixel at corresponding pixel positions among pixels in a first and a second suppression ranges, the first and the second suppression ranges being suppression ranges in a first and a second radar images capturing an observation area from the first and the second radio wave receiving points, respectively; and a rotation amount calculating unit calculating each phase rotation amount in the pixels in the second suppression range from each phase difference, wherein a difference calculating unit rotates phases in the pixels in the second suppression range based on the rotation amounts, and calculates a difference between pixel values at corresponding pixel position among the pixels in the first suppression range and phase-rotated pixels in the second suppression range.

Abstract: A synthetic-aperture radar signal processing apparatus in accordance with the present invention estimates the height of a scatterer in a synthetic aperture radar image observed at sets of sensors, each corresponding to a baseline length, and extracts a pixel corresponding to the scatterer at the height from the synthetic aperture radar image. The synthetic-aperture radar signal processing apparatus generates a topographic fringe of the synthetic aperture radar image calculates the phase of the topographic fringe that correspond to the specific height, and then extracts a pixel having the phase from the topographic fringe, resulting in the extraction of the pixel at the specific height. This configuration can extract a specific height corresponding to a combination of the phases generated by multiple topographic fringes and measure the height of the scatterer where the two sensors having the shortest baseline determine a measurable height.

Abstract: It is an object of the present invention to provide a processing apparatus which is capable of performing uniform dispersion, dissolution, solubilization, emulsification of gas into liquid, and uniform dispersion, dissolution, solubilization, and emulsification of liquid to heterogeneous liquid by a large capacity and in a short time. The invention includes a pressurizing centrifugal pump 1, a circulating portion 25 configured to circulate gas/liquid or liquid/liquid fluid from a feed port 6 to an intake port 3 of the pressurizing centrifugal pump 1, a nozzle portion 30 provided on the downstream of the pressurizing centrifugal pump 1 in the circulating portion 25 and having a minute opening configured to allow passage of the fluid pressurized by the pressurizing centrifugal pump 1, and a chamber 50 provided on the downstream of the nozzle portion 30 in the circulating portion 25 and provided with the chamber 50 which can store the fluid.

Abstract: Provided are novel technical means for obtaining useful knowledge in practical application of antioxidation action of dissolved hydrogen and in practical application of active oxygen scavenging action in water. Based on the temporal profile of the difference between the dissolved oxygen amount measured with forcibly dissolving hydrogen and the dissolved oxygen amount measured with blowing any other gas than hydrogen, the reaction between dissolved hydrogen and dissolved oxygen is quantitatively evaluated. Based on the temporal profile of the difference between the dissolved oxygen amount measured with making a photosensitizing dye contained in water and with forcibly dissolving hydrogen therein, and the dissolved oxygen amount measured without making a photosensitizing dye contained in water and with forcibly dissolving hydrogen therein, the reaction between dissolved hydrogen and dissolved oxygen is quantitatively evaluated.

Abstract: Provided are novel technical means for obtaining useful knowledge in practical application of antioxidation action of dissolved hydrogen and in practical application of active oxygen scavenging action in water. Based on the temporal profile of the difference between the dissolved oxygen amount measured with forcibly dissolving hydrogen and the dissolved oxygen amount measured with blowing any other gas than hydrogen, the reaction between dissolved hydrogen and dissolved oxygen is quantitatively evaluated. Based on the temporal profile of the difference between the dissolved oxygen amount measured with making a photosensitizing dye contained in water and with forcibly dissolving hydrogen therein, and the dissolved oxygen amount measured without making a photosensitizing dye contained in water and with forcibly dissolving hydrogen therein, the reaction between dissolved hydrogen and dissolved oxygen is quantitatively evaluated.

Abstract: There is provided a composition useful for mitigating a physical burden and recovering from fatigue at the time of alcohol intake, within a safety dose of active ingredients. The composition is for accelerating alcohol metabolism and for relieving fatigue by gluconeogenesis in vivo, and is characterized by comprising an effective amount of caffeine and an effective amount of an amino acid(s) or a peptide(s) selected from the group consisting of serine, tryptophan, serine rich peptides, tryptophan rich peptides, serine/tryptophan rich peptides and mixtures thereof, as active ingredients.