Abstract: A deposition device according to one embodiment includes a processing container. A mounting table is installed inside the processing container, and a metal target is installed above the mounting table. Further, a head is configured to inject an oxidizing gas toward the mounting table. This head is configured to move between a first region that is defined between the metal target and a mounting region where a target object is mounted on the mounting table and a second region spaced apart from a space defined between the metal target and the mounting region.

Abstract: This treatment planning device calculates position information for specific locations for a plurality of times corresponding to a time course on the basis of the positions of markers positioned in the vicinity of the specific locations, and generates a three-dimensional range for the specific locations for each of the plurality of times. In addition, the treatment planning device generates representative range information, which represents a range that includes the entire three-dimensional ranges for the specific locations for each of the plurality of times, tracks the position information for the specific locations for each of the plurality of times, and calculates the amount of radiation to be emitted in the range for the specific locations represented by representative range information when radiation is emitted for a prescribed time period in the range for the specific locations represented by the representative range information.

Abstract: This radiation therapy device controller selects, for a plurality of body motion phases, computed tomography image data obtained which shows a diseased portion, and generates, for each rotation angles of a ray source and a sensor array, a reconstructed image. The control device generates a radiation projection image which shows the diseased portion when the radiation is radiated if the rotation angle is a predetermined rotation angle, compares the reconstructed image of each of the plurality of body motion phases with the radiation projection image, and determines a body motion phase indicated by a reconstructed image in which a difference is small, to be a current respiratory phase. As a result, a position of the diseased portion calculated for the computed tomography image data in the computed tomography image data group of the respiratory phase in advance is identified to be a current position of the diseased portion.

Abstract: An array substrate with an insulation film which can easily be formed and the dielectric properties of which can be controlled, a liquid crystal display element including the array substrate, and a radiation-sensitive resin composition for forming the insulation film are provided. The insulation film is formed on a substrate in which an active element is formed, and then a common electrode, an interlayer insulation film, and a comb-shaped pixel electrode are provided on the insulation film to produce the array substrate. To form the interlayer insulation film, the radiation-sensitive resin composition including [X] an alkali-soluble resin; [Y] oxide particles of at least one metal selected from the group consisting of aluminum, zirconium, titanium, zinc, indium, tin, antimony, and cerium; [Z] a polyfunctional acrylate; [V] a chain transfer agent; and [W] a radiation-sensitive polymerization initiator, is used. The liquid crystal display element includes the array substrate.

Abstract: A film forming apparatus, for forming a metal oxide film on an object, includes a holding unit and a heating unit. The holding unit includes a first heater and holds the object in a processing chamber. A first heater power supply supplies power to the first heater. A target electrode is electrically connected to a metal target provided above the holding unit. A sputtering power supply is electrically connected to the target electrode. An introduction mechanism supplies an oxygen gas toward the holding unit. The heating unit includes a second heater for heating the object and a moving mechanism for moving the second heater between a region in a first space disposed above the holding unit and a region in a second space separated from the first space. A second heater power supply supplies power to the second heater.

Abstract: This treatment planning device calculates position information for specific locations for a plurality of times corresponding to a time course on the basis of the positions of markers positioned in the vicinity of the specific locations, and generates a three-dimensional range for the specific locations for each of the plurality of times. In addition, the treatment planning device generates representative range information, which represents a range that includes the entire three-dimensional ranges for the specific locations for each of the plurality of times, tracks the position information for the specific locations for each of the plurality of times, and calculates the amount of radiation to be emitted in the range for the specific locations represented by representative range information when radiation is emitted for a prescribed time period in the range for the specific locations represented by the representative range information.

Abstract: A radiation therapy device controller identifies a pixel on a straight line connecting a ray source and a sensor array, and calculates a luminance update amount candidate value for each identified pixel based on a ratio of a change amount for the pixel on the straight line indicating the living body to a sum of change amounts from a luminance value of a pixel corresponding to a correlated computed tomography image correlated with a computed tomography image of an update target of a luminance value of the identified pixel. Also, the control device calculates a luminance update amount of each identified pixel using the luminance update amount candidate value of each identified pixel calculated for a plurality of rotation angles, and updates the luminance value of each corresponding pixel of the computed tomography image of the update target using the luminance update amount of each identified pixel.

Abstract: A radiotherapy equipment control device acquires reference position information for a specific location at a reference time. Furthermore, representative point reference position information is generated from reference position information for a plurality of markers at the reference time, and relative position information up to the reference position information for the specific location is generated. Moreover, representative point position information at another time is generated from the position information for a plurality of markers in a subject at the other time, which differs from the reference time. In addition, position information for the specific location at the other time is generated from the representative point position information and the relative position information.

Abstract: This radiation therapy device controller selects, for a plurality of body motion phases, computed tomography image data obtained which shows a diseased portion, and generates, for each rotation angles of a ray source and a sensor array, a reconstructed image. The control device generates a radiation projection image which shows the diseased portion when the radiation is radiated if the rotation angle is a predetermined rotation angle, compares the reconstructed image of each of the plurality of body motion phases with the radiation projection image, and determines a body motion phase indicated by a reconstructed image in which a difference is small, to be a current respiratory phase. As a result, a position of the diseased portion calculated for the computed tomography image data in the computed tomography image data group of the respiratory phase in advance is identified to be a current position of the diseased portion.

Abstract: A radiation therapy device controller identifies a pixel on a straight line connecting a ray source and a sensor array, and calculates a luminance update amount candidate value for each identified pixel based on a ratio of a change amount for the pixel on the straight line indicating the living body to a sum of change amounts from a luminance value of a pixel corresponding to a correlated computed tomography image correlated with a computed tomography image of an update target of a luminance value of the identified pixel. Also, the control device calculates a luminance update amount of each identified pixel using the luminance update amount candidate value of each identified pixel calculated for a plurality of rotation angles, and updates the luminance value of each corresponding pixel of the computed tomography image of the update target using the luminance update amount of each identified pixel.

Abstract: A consumable product (200) can be detached from a using device (100), and includes a memory (201), and the memory (201) includes a first recording area that rewritably records a remaining amount of the consumable product (200), and includes a plurality of second recording areas for specifying a state of the remaining amount of the consumable product (200) recorded in the first recording area.

Abstract: A merchandise sales data processing apparatus includes a display device and a first display control unit. The first display control unit displays balance information and an input area simultaneously on the display device. The balance information is information regarding balance of each denomination in an automatic change dispenser which deposits or dispenses money. The balance information is generated by a balance information generating unit. The input area receives, through an input device, the input of change reserves information regarding change reserves that should be prepared in the automatic change dispenser.

Abstract: A merchandise sales data processing apparatus includes a display device and a first display control unit. The first display control unit displays balance information and an input area simultaneously on the display device. The balance information is information regarding balance of each denomination in an automatic change dispenser which deposits or dispenses money. The balance information is generated by a balance information generating unit. The input area receives, through an input device, the input of change reserves information regarding change reserves that should be prepared in the automatic change dispenser.

Abstract: In a co-generated power supply system for performing dispersed power supply to a load, a wind turbine generator, a solar cell and a fuel cell whose rated voltages are made equal to a rated voltage of a storage battery are used as DC power sources. These DC power sources, a commercial AC power source and the load are connected to each other via a bi-directional electronic transformer. Thus, the co-generated power supply system, in which the electric power of a natural energy system having many fluctuation factors is combined with stable electric power such as a load leveling battery or a fuel cell, allows the stable electric power to be supplied to the load via the electronic transformer commonly, thereby reducing the cost and enhancing the performance of the entire system.

Abstract: In a co-generated power supply system for performing dispersed power supply to a load, a wind turbine generator, a solar cell and a fuel cell whose rated voltages are made equal to a rated voltage of a storage battery are used as DC power sources. These DC power sources, a commercial AC power source and the load are connected to each other via a bi-directional electronic transformer. Thus, the co-generated power supply system, in which the electric power of a natural energy system having many fluctuation factors is combined with stable electric power such as a load leveling battery or a fuel cell, allows the stable electric power to be supplied to the load via the electronic transformer commonly, thereby reducing the cost and enhancing the performance of the entire system.

Abstract: Anticorrosive coating is formed cheaply and in a short period, which facilitates its general application to marine steel structures. A steel caisson 1 is used as a cathode, an undersea member 3 arranged in seawater and opposed to the steel caisson 1 is used as anode. Direct current is passed between the electrodes so that anticorrosive coating 8 is formed on the steel caisson 1 through electrolytic reaction of the seawater, thereby attaining anticorrosion. The electric current is passed between the electrodes such that coating 7 with magnesium hydrate as dominant constituent is formed on the steel caisson 1 to have a predetermined thickness; then, supply of the electric current is stopped. Thus, anticorrosive coating 8 is formed through compositional substitution effect of substituting calcium carbonate for the magnesium hydrate in the presence of seawater.

Abstract: To provide a curable composition having excellent applicability and capable of forming a coat (film) having high hardness and high refractive index and excelling in scratch resistance and adhesion to a substrate and a low-refractive-index layer on the surface of various types of substrates, a cured product of the curable composition, and a laminate having a low reflectance and excelling in antistatic property. A curate e composition comprising particles (A) prepared by bonding oxide particles of at least one element selected from the group consisting of silicon, aluminum, zirconium, titanium, zinc, germanium, indium, tin, antimony, and cerium with an organic compound having a polymerizable unsaturated group, a compound (B) having a urethane bond and two or more polymerizable unsaturated groups in the molecule, and a photoinitiator (C).

Abstract: A liquid resin composition containing (A) fluorine-containing polymer, (B) curable compound, (C) metal oxide particles having a number average particle size of 100 nm or less and (D) a solvent. When the composition is cured, the metal oxide particles (C) are distributed unevenly, the refractive index changes in the thickness direction by 0.05 to 0.8, so that there can be produced a cured film having a bilayer structure substantially consisting of a low-refractivity layer and a high-refractivity layer.

Abstract: The invention relates to a curable composition comprising (A) particles prepared by bonding at least one oxide of an element selected from the group consisting of silicon, aluminum, zirconium, titanium, zinc, germanium, indium, tin, antimony, and cerium, and an organic compound which comprises a polymerizable group, (B) a compound having a melamine group and no polymerizable unsaturated groups and (C) a compound having at least two polymerizable groups in the molecule other than the component (B); and to cured products and laminates with a with low reflectance and superior chemical resistance.

Abstract: To provide a curable composition having excellent applicability and capable of forming a coat (film) having high hardness and high refractive index, excelling in scratch resistance and adhesion to a substrate and a low-refractive-index layer, and excelling in scratch resistance even in the case where the cured product is allowed to stand in a high pH environment or the composition is cured under anaerobic conditions on the surface of various types of substrates, a cured product of the curable composition, and a laminate having low reflectance and excelling in chemical resistance. Means for the Solution.