Abstract: A fine particle measuring method of performing optical measurement of fine particles introduced into a plurality of sample fluidic channels provided at predetermined distances on a substrate by scanning light to the sample fluidic channels is disclosed. The method includes: sequentially irradiating the light to at least two or more reference regions provided together with the sample fluidic channels; detecting a change of optical property occurring in the light due to the reference regions; and controlling timing of emission of the light to the sample fluidic channels.

Abstract: A fine particle measuring method of performing optical measurement of fine particles introduced into a plurality of sample fluidic channels provided at predetermined distances on a substrate by scanning light to the sample fluidic channels is disclosed. The method includes: sequentially irradiating the light to at least two or more reference regions provided together with the sample fluidic channels; detecting a change of optical property occurring in the light due to the reference regions; and controlling timing of emission of the light to the sample fluidic channels.

Abstract: Light diffusion layer 12, which diffuses reflected light by a reflecting surface, is arranged on a reflecting type liquid crystal display device having at least 2 substrates 24 and 29, liquid crystal layer 30 inserted between these substrates, and reflecting surface 16a which reflects light via this liquid crystal layer. This light diffusion layer forms a fine particle dispersion layer or a diffraction grating layer combined of 2 types of refractive index medium with differing refractive indices, and when the refractive index of first refractive index medium 13 is nA(400) at light wave length 400 nm, and nA(700) at light wave length 700 nm, and the refractive index of second refractive index medium 14 is nB (400) at light wave length 400 nm, and nB(700) at light wave length 700 nm, then, (nA(400)/nA(700))×0.9≦(nB(400)/nB(700))≦(nA(400)/nA(700))×1.1.

Abstract: The present method is a method for reducing an oxidized skin tissue comprising the steps of bringing a source of negative high-voltage pulses of which duty ratio is controllable into the proximity of the oxidized skin tissue and applying negative high-voltage pulses to the oxidized skin tissue so that the oxidized skin tissue is reduced by an electron addition reaction. A high-voltage generating circuit which is incorporated in a main body generates negative high-voltage pulses. Those negative high-voltage pulses are applied to the skin through a contact element which is connected to the main body, so that the oxidized skin tissue is reduced by the electron addition reaction.

Abstract: A flexible screw of the invention comprises a flexible rod and a cord helically set on the rod, and can be installed along straight and curved paths of transport. It ensures smooth transport of containers and provides container transport apparatus with a simplified construction at a reduced cost. Moreover, the abrasion of pipe during transport of powder and granular material can be reduced. The container transport apparatus of the present invention is equipped with the screw mentioned above and a guide, or two screws, the members of each pair being positioned in parallel at a given distance, and transfers containers held by the screw and the guide, or the two screws by rotating the screw(s). The container transport apparatus of the present invention enables smooth transport of containers even through a curved path, reduces maintenance cost of the screw(s) during operation, and inhibits abrasion of the rail to a considerable degree.

Abstract: The flexible screw of the invention comprises a flexible rod and a cord helically set on the rod, and can be installed along straight and curved paths of transport. It ensures smooth transport of containers and provides container transport apparatus of simplified construction at reduced cost. Moreover, abrasion of pipe during transport of powder and granular material can be reduced. The container transport apparatus of the present invention is equipped with the screw mentioned above and a guide, or two screws, the members of each pair being positioned in parallel at a given distance, and transfers containers held by the screw and the guide, or the two screws by rotating the screw(s). The container transport apparatus of the present invention enables smooth transport of containers even through a curved path, reduces maintenance cost of the screw(s) during operation, and inhibits abrasion of the rail to a considerable degree.

Abstract: This invention relates to a motion diagnosis system which picks up motions of a subject and analyzes them, and is characterized by measuring address data at points of images thus picked up according to a trigger condition set in advance, displaying the result of the measurement in graphic images or stored images or in comparison with reference images, outputting the evaluation of such comparison to thereby enable measurement under flexible trigger conditions and analyzing the motions of the subject based on quantitative data in a manner easily understandable by the viewers and simple operation.