Abstract: Provided are an imaging apparatus, an imaging method, and a program capable of accurately and simply controlling a movement sensitivity of an index displayed on a finder monitor to a sensitivity desired by a user by using a touch panel installed on a rear monitor. The imaging apparatus (10) has a finder that includes the finder monitor (13), the touch panel (31) that receives a swipe operation for moving the index, and an image processing unit (24). The image processing unit (24) includes a sensitivity setting unit that sets a first sensitivity for coarsely moving the index by the swipe operation or a second sensitivity for finely moving the index by detecting a contact operation to the touch panel in the swipe operation, and a movement control unit that moves the index on the basis of the swipe operation on the touch panel and the sensitivity set by the sensitivity setting unit.

Abstract: An electrodeposit formed by using a tin or tin alloy plating bath containing a prescribed branched polyoxyalkylene compound, such as an alkylene oxide adduct of aliphatic monoamine or polyamine in which a plurality of oxyalkylene chains are bonded to a nitrogen atom of an amine structure in a molecule, or an alkylene oxide adduct of glycerin or polyglycerin in which oxyalkylene chains are respectively bonded to a plurality of oxygen atoms of an alcohol structure in a molecule, suppresses formation defect such as abnormal growth of the electrodeposit. The electrodeposit also improves yield from the viewpoint of quality control.

Abstract: An X-ray inspection apparatus includes an X-ray generator; an X-ray detector; and a determination unit determining a quality state of an inspection object, based on an X-ray detection signal. The apparatus has an X-ray image storing unit storing a first inspection image, corresponding to the X-ray detection signal outputted from the X-ray detector, whose observation direction is the direction in which the X-rays transmits the inspection object; a pseudo three-dimensional information generation model generating pseudo three-dimensional information regarding a type of object to be learned; and an inspection image generation unit creating a second inspection image regarding the type of object to be learned having an observation direction different from the first inspection image, based on the first inspection image regarding the type of object to be learned. The determination unit performs the determination based on at least the second inspection image created by the inspection image generation unit.

Abstract: To provide an inspection apparatus capable of simultaneously picking up images of one side and the other side of an inspection item with an image pickup device. An inspection apparatus 1 includes a first conveyance unit 31 and a second conveyance unit 32 arranged with a predetermined gap G and inspects a workpiece W when the workpiece W passes over the predetermined gap G. The inspection apparatus 1 includes a first image pickup device 11 provided on one side with the predetermined gap G in a direction intersecting with a conveyance direction of the workpiece W, a second image pickup device 12 provided on the other side, a first light emission device 21 disposed at a position facing the first image pickup device 11, and a second light emission device 22 disposed at a position facing the second image pickup device 12.

Abstract: A multicomponent mixture is separated into its components by subjecting the multicomponent mixture to a separation means to flow therein, which means comprises a plurality of columns divided into at least three groups wherein each group of columns has the columns which are in the same number as that of the components in the multicomponent mixture and are filled with a adsorbent so that one column has an adsorbent specific to either one of the components; wherein the three groups are respectively assigned to fractionation in a fractionation zone, to purification in a purification zone and to desorption in a desorption zone; the groups of columns are switched from zone to zone; and the effluent from the columns used in the fractionation zone is sent to the columns in the purification zone which have once been used in the fractionation zone and the columns in the purification zone are then assigned, upon the switching, to desorption.

Abstract: A chemical-looping combustion method uses a metallic oxide (MO) as an oxygen carrier. A fuel (RH) reduces MO at a low temperature in a first reactor, a reduced product (M) is oxidized by oxygen in moistened air in a high-temperature region in a second reactor to form MO which is recycled to the first reactor. Heat generated within these reactors is utilized to drive gas turbines. The reactions within the first and second reactors are:RH+MO.fwdarw.mCO.sub.2 +nH.sub.2 O+M (1)M+0.50.sub.2 .fwdarw.MO (2)Moistened air is the oxygen source in the second reaction. The metallic oxides and their reduced products are particulates including an oxygen permeable medium. The loss of energy in the conversion reactions and in heat exchange is reduced, power generation efficiency is improved, CO.sub.2 is recovered and water resources are saved.

Abstract: A process and apparatus for continuously separating a multicomponent mixture containing at least 3 components and purifying each component in a high concentration, high purity and high recovery, wherein the apparatus comprises a column group comprising a fractionation zone, a purification zone and a desorption zone which are formed by combining at least 2 columns to form one subgroup and combining at least 3 zones; column connection tubings for in series connecting the columns in the fractionation zone; subgroup connection tubings for connecting corresponding columns of two subgroups positioned in the separation zone (in series) and the purification zone (in parallel); zone connection tubings for in parallel connecting each column of the fractionation zone and each column of the purification zone; purification/desorption medium-feeding tubings for feeding each purification/desorption medium to each column of the purification and desorption zones; a subject mixture-feeding means for feeding a multicomponent mi

Abstract: Disclosed is an electric iron including a heat-radiating base. A coating is formed on the lower side of the heat-radiating base. The coating is formed by mixing conductive fine powder and a polyethersulfone resin with a polytetrafluoroethylene resin.