Abstract: Provided is a pharmaceutical composition for treating a tumor, which is used in combination therapy of lenvatinib and (6S,9aS)—N-benzyl-8-({6-[3-(4-ethylpiperazin-1-yl)azetidin-1-yl]pyridin-2-yl}methyl)-6-(2-fluoro-4-hydroxybenzyl)-4,7-dioxo-2-(prop-2-en-1-yl)hexahydro-2H-pyrazino[2,1-c][1,2,4]triazine-1(6H)-carboxamide.

Abstract: A learning device according to an embodiment includes an acquirer, an extractor, a plurality of processors, and an identifier. The acquirer is configured to acquire a paper sheet image which is a captured image of a paper sheet. The extractor is configured to extract a plurality of primary feature images having different objects to be recognized from the paper sheet image acquired by the acquirer. The plurality of processors are configured to perform respective convolution and pooling processes on the plurality of primary feature images extracted by the extractor to generate a plurality of secondary feature images having different objects to be recognized. The identifier is configured to sequentially update and learn a parameter set for identifying a sheet type of the paper sheet on the basis of a result of a combination process on each of the plurality of secondary feature images generated by the plurality of processors.

Abstract: An image processing device that acquires an image from an object includes an illuminator having a plurality of light sources, a sensor unit, and a controller. The plurality of light sources irradiates light of respectively different colors onto an object. The sensor unit outputs luminance data for one line obtained by photoelectrically converting light is reflected from the object of that was irradiated by the illuminator onto the object. The controller acquires a random number, and acquires luminance data for one line output by the sensor unit, while causing one light source selected from the plurality of light sources based on the acquired random number to emit light.

Abstract: According to one embodiment, a sheet processing apparatus includes: an image acquiring device configured to acquire a sheet image that is an image on a sheet; a setting portion configured to set a reference area in the sheet image acquired by the image acquiring device, wherein the setting portion repeats moving the reference area from a starting position to an end position in a first direction by a first moving width, and, upon the reference area reaching the end position, moving the reference area in a second direction intersecting the first direction by a second moving width; a degree of similarity calculating portion configured to extract a feature from an image in the reference area set by the setting portion, and calculate a degree of similarity between the extracted feature and a typical sheet pattern; a moving width calculating portion configured to calculate the first moving width and/or the second moving width based on the degree of similarity calculated by the degree of similarity calculating porti

Abstract: According to one embodiment, an image reading apparatus includes: a first illumination device for irradiating light at a first angle onto a sheet that is being conveyed; a second illumination device for irradiating light at a second angle onto the sheet that is being conveyed; illumination controllers for switching between a first irradiation state in which light is irradiated from the first illumination unit and the second illumination unit onto the sheet and a second irradiation state in which light is irradiated from only either the first illumination device or the second illumination device to the sheet; an imaging device for acquiring a first comparable image in the first irradiation state and for acquiring a second comparable image in the second irradiation state; and a defect detector for detecting a defect of the sheet based on the difference between the first comparable image and the second comparable image.

Abstract: An image processing device that acquires an image from an object includes an illuminator having a plurality of light sources, a sensor unit, and a controller. The plurality of light sources irradiates light of respectively different colors onto an object. The sensor unit outputs luminance data for one line obtained by photoelectrically converting light is reflected from the object of that was irradiated by the illuminator onto the object. The controller acquires a random number, and acquires luminance data for one line output by the sensor unit, while causing one light source selected from the plurality of light sources based on the acquired random number to emit light.

Abstract: A method of preparing composite materials by (a) containing particulates to which an adhering material is to be made to adhere, in a rotary body having a bottom surface and a side wall; (b) rotating the rotary body so as to apply centrifugal forces to the particulates in the rotary body; and (c) varying the inclination of the rotary body to an arbitrary inclination angle in the range from an angle at which the bottom surface of the rotary body forms a horizontal surface perpendicular to the direction of gravity to an angle at which the bottom surface forms a vertical surface parallel to the direction of gravity, and supporting the rotary body at the arbitrary inclination angle.

Abstract: A fuel supply apparatus of an internal combustion engine is provided which can discharge air bubbles or air from within fuel supply paths while increasing pressure within a common rail up to a predetermined pressure level before a start of the internal combustion engine, can reduce a period of time of cranking from when an ignition switch is switched on and which can reduce noise that occurs when the air bubbles or air are being discharged. The fuel supply apparatus is provided with a flow rate control valve that adjusts a flow rate of fuel supplied to the common rail and a pressure control valve that reduces the pressure within the common rail.

Abstract: Disclosed herein is an apparatus for preparing composite particulates, including a rotary body having a bottom surface and a side wall and operative to contain particulates to which an adhering material is to be made to adhere; a centrifugal machine for rotating the rotary body so as to apply centrifugal forces to the particulates in the rotary body; and an inclination varying device operative to vary the inclination of the rotary body to an arbitrary inclination angle in the range from an angle at which the bottom surface of the rotary body forms a horizontal surface perpendicular to the direction of gravity to an angle at which the bottom surface forms a vertical surface parallel to the direction of gravity, and operative to support the rotary body at the arbitrary inclination angle.

Abstract: A fuel supply apparatus of an internal combustion engine is provided which can discharge air bubbles or air from within fuel supply paths while increasing pressure within a common rail up to a predetermined pressure level before a start of the internal combustion engine, can reduce a period of time of cranking from when an ignition switch is switched on and which can reduce noise that occurs when the air bubbles or air are being discharged. The fuel supply apparatus is provided with a flow rate control valve that adjusts a flow rate of fuel supplied to the common rail and a pressure control valve that reduces the pressure within the common rail.

Abstract: A method of preparing composite materials by (a) containing particulates to which an adhering material is to be made to adhere, in a rotary body having a bottom surface and a side wall; (b) rotating the rotary body so as to apply centrifugal forces to the particulates in the rotary body; and (c) varying the inclination of the rotary body to an arbitrary inclination angle in the range from an angle at which the bottom surface of the rotary body forms a horizontal surface perpendicular to the direction of gravity to an angle at which the bottom surface forms a vertical surface parallel to the direction of gravity, and supporting the rotary body at the arbitrary inclination angle

Abstract: Disclosed herein is an apparatus for preparing composite particulates, including a rotary body having a bottom surface and a side wall and operative to contain particulates to which an adhering material is to be made to adhere; a centrifugal machine for rotating the rotary body so as to apply centrifugal forces to the particulates in the rotary body; and an inclination varying device operative to vary the inclination of the rotary body to an arbitrary inclination angle in the range from an angle at which the bottom surface of the rotary body forms a horizontal surface perpendicular to the direction of gravity to an angle at which the bottom surface forms a vertical surface parallel to the direction of gravity, and operative to support the rotary body at the arbitrary inclination angle.

Abstract: The light emitting layers and the electron transporting layers of R pixels, G pixels, and B pixels are formed to have a stripe shape extending in the column direction. The red light emitting layer and the electron transporting layer in R pixels are formed to be continuous layers using the same mask in a first vapor deposition chamber, the green light emitting layer and the electron transporting layer of G pixels are formed to be continuous layers using the same mask in a second vapor deposition chamber, and the blue-white light emitting layer and the electron transporting layer of B pixels are formed to be continuous layers using the same mask in a third vapor deposition chamber.

Abstract: A method for manufacturing a ferroelectric memory includes: (a) forming first and second contact sections on a first dielectric layer formed above a base substrate; (b) forming a laminated body having a lower electrode, a ferroelectric layer and an upper electrode successively laminated; (c) forming a conductive hard mask above the laminated body and etching an area of the laminated body exposed through the hard mask, to thereby form a ferroelectric capacitor above the first contact section; (d) forming above the first dielectric layer a second dielectric layer that covers the hard mask, the ferroelectric capacitor and the second contact section; (e) forming a contact hole in the second dielectric layer which exposes the second contact section; (f) providing a conductive layer in an area including the contact hole for forming a third contact section; and (g) polishing the conductive layer and the second dielectric layer until the hard mask above the ferroelectric capacitor is exposed.

Abstract: An organic EL panel is provided, which is manufactured without scratching an organic layer. An organic luminescent layer is formed by evaporating an organic luminescent material over a hole injecting electrode by placing a mask used to evaporate a luminescent layer to be kept spaced apart from a substrate. By placing the mask while a bottom surface thereof is brought into contact with top surfaces of spacers, it is possible to space apart the mask from a hole transporting layer formed over the substrate.

Abstract: An organic EL device is fabricated by a novel method to reduce the occurrence of poor luminescence in the organic EL device. An anode layer, a hole transporting layer, a luminescent layer, an electron transporting layer, and a cathode layer are laminated in this order on a substrate to form an organic EL device. In the organic EL device, the hole transporting layer is increased in thickness so that foreign particles adhering on the anode layer are substantially covered with the hole transporting layer.

Abstract: The light emitting layers and the electron transporting layers of R pixels, G pixels, and B pixels are formed to have a stripe shape extending in the column direction. The red light emitting layer and the electron transporting layer in R pixels are formed to be continuous layers using the same mask in a first vapor deposition chamber, the green light emitting layer and the electron transporting layer of G pixels are formed to be continuous layers using the same mask in a second vapor deposition chamber, and the blue-white light emitting layer and the electron transporting layer of B pixels are formed to be continuous layers using the same mask in a third vapor deposition chamber.

Abstract: A method for manufacturing a ferroelectric memory includes: (a) forming first and second contact sections on a first dielectric layer formed above a base substrate; (b) forming a laminated body having a lower electrode, a ferroelectric layer and an upper electrode successively laminated; (c) forming a conductive hard mask above the laminated body and etching an area of the laminated body exposed through the hard mask, to thereby form a ferroelectric capacitor above the first contact section; (d) forming above the first dielectric layer a second dielectric layer that covers the hard mask, the ferroelectric capacitor and the second contact section; (e) forming a contact hole in the second dielectric layer which exposes the second contact section; (f) providing a conductive layer in an area including the contact hole for forming a third contact section; and (g) polishing the conductive layer and the second dielectric layer until the hard mask above the ferroelectric capacitor is exposed.

Abstract: A method of manufacturing an organic EL panel is provided, which is capable of forming an organic luminescent layer without scratching an organic layer formed beneath. An organic luminescent layer is formed by evaporating an organic luminescent material over a hole injecting electrode by placing a mask used to evaporate a luminescent layer to be kept spaced apart from a substrate. By placing the mask while a bottom surface thereof is brought into contact with top surfaces of spacers, it is possible to space apart the mask from a hole transporting layer formed over the substrate. Although it is necessary to fine-tune the position of the mask during the color-layer successive deposition step of the organic luminescent layers, by performing the positioning while the mask is kept spaced apart from the substrate, it is possible to reduce a possibility that the mask scratches the hole transporting layer.

Abstract: An organic EL device is fabricated by a novel method to reduce the occurrence of poor luminescence in the organic EL device. An anode layer, an organic luminescent element layer including a hole transporting layer, a luminescent layer, and an electron transporting layer, and a cathode layer are laminated in this order on a substrate to fabricate an organic EL device. Here, one or more dummy substrates are initially introduced into the system for evaporating the organic luminescent element layer on the substrate. The organic layers are evaporated on the dummy substrate so that foreign particles adhere thereto. Then, the substrate to be a product is introduced, and the organic luminescent element layer is evaporated thereon.