Abstract:
조명장치에 의해 촬영된 복수의 상이한 근적외영역에 있어서의 피사체의 얼굴 화상을 이용하여 피사체의 피부 또는 모발의 해석을 실시하는 화상해석장치로서, 피사체의 피부 또는 모발에 외용제를 도포하기 전후에 있어서의 상기 얼굴 화상을 취득하는 화상취득수단과, 상기 화상취득수단에 의해 취득한 화상에 휘도보정을 실시하는 휘도보정수단과, 상기 휘도보정수단에 의해 얻어진 상기 외용제를 도포하기 전후의 화상의 차분량을 상기 복수의 상이한 근적외영역마다 취득하는 차분량 취득수단과, 상기 차분량 취득수단에 의해 얻어지는 차분량에 기초하여 피사체의 피부 또는 모발을 해석하는 해석수단과, 상기 해석수단에 의해 얻어진 해석결과를 표시하는 화면을 생성하는 화상형성수단을 구비하는 것을 특징으로 한다.
Abstract:
PROBLEM TO BE SOLVED: To provide a spectral measuring device, simply and efficiently controlling a sample to a desired temperature. SOLUTION: This spectral measuring device 1A includes: an integrating sphere 20 for observing light to be measured emitted from a sample S to be measured; and a dewer 50 holding a medium R for controlling the temperature of the sample S to cover the sample S and whose second container 50b is located facing the interior of the integrating sphere 20. The dewer 50 holding the medium R to cover the sample S is thus used to thereby simply control the sample S to a desired temperature. The second container 50b is thus located facing the interior of the integrating sphere 20 to thereby control the temperature of the sample S by the medium R while controlling effect from an external environment of the integrating sphere 20 upon the sample S. Accordingly, the sample S can be efficiently controlled to a desired temperature. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide an optical spectrometer capable of suitably performing spectrometry for a sample held in a sample container in an integrating sphere, and a spectrometry and a spectrometry program. SOLUTION: The spectrometer 1A includes the integrating sphere 20 with the sample S therein, irradiation light applying section 10 for applying excitation light into the integrating sphere 20 through an incident opening 21, a sample container 400 for holding the sample S in the integrating sphere 20, a spectrometry device 30 for dispersing light to be measured from an emission opening 22 to acquire wavenumber spectrum, and a data analyzer 50 for analyzing data for the wavenumber spectrum. The analyzer 50 includes a correction data acquiring section to acquire the correction data of the wavenumber spectrum which considers light absorbed by the sample container 400, and a sample data analyzer to correct the wavenumber spectrum and analyze to acquire sample data. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a light emission quantum efficiency measuring device which easily and certainly makes isotropic the light emission of an emitter sample showing strong light emission anisotropy, and accurately measures the light emission quantum efficiency of the emitter sample. SOLUTION: This light emission quantum efficiency measuring device has: an excitation light introduction window 2 in the orthogonal direction on the plane including the center of an integrating sphere 1; and a detection probe end 3 connected to a spectrometer. The emitter sample 5 is arranged inside the integrating sphere 1 and on the line perpendicular to this plane from the center, and a baffle plate 7 is placed in a position viewing the emitter sample 5 from the detection probe end 3. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide an integrating sphere type turbidimeter having a simple structure and capable of automatically realizing calibration or the washing of a cell window. SOLUTION: The integrating sphere type turbidimeter is equipped with a detection cell 131 constituted so as to irradiate internal sample water with the light from a light source 11 through one cell window 133 to emit the scattered light and transmitted light, which occur from the sample water through another cell window 133 and an integrating sphere 15 for collecting the scattered light and transmitted light emitted from another cell window 133. The turbidity of the sample water is measured on the basis of the ratio of the respective detection currents obtained by photoelectric conversion of the scattered light and transmitted light collected by the integrating sphere 15. A calibration filter 138 for calibrating the ratio of the respective detection currents is arranged between another cell window 133 and the light incident port 15A of the integrating sphere 15 in a detachable manner and a washing wiper 136C coming into contact with the inner surface of the cell window 133 to move is provided. COPYRIGHT: (C)2006,JPO&NCIPI