Abstract: Disclosed herein is a method for testing a semiconductor device, the method includes: preparing a first semiconductor chip having a first bump electrode and a first driver circuit that drives the first bump electrode, and a second semiconductor chip having a second bump electrode and a second driver circuit that drives the second bump electrode; staking the first and second semiconductor chips so that the first bump electrode and the second bump electrode are electrically connected to each other to form a current path including the first and second bump electrodes; and driving, in a test mode, the current path to a first potential by the first driver circuit while driving the current path to a second potential different from the first potential by the second driver circuit.

Abstract: A projection type display device includes projection means that projects an input image, representing an object on a background and that corresponds to an input video signal, onto a projection surface on which a user writes information, and processing means that, upon receiving a photographing instruction, stops projection by the projection means and photographs the projection surface to generate a photographed image, and detects the difference between the color of the background in the input image and the color of the projection surface in the photographed image, to generate a corrected image by correcting the color of the input image or the photographed image so as to reduce the difference, and generates a recorded image by superimposing the corrected image on the remaining input image or the photographed image.

Abstract: Provided is a method for manufacturing a secondary battery that can ensure a favorable charging state. A method for manufacturing a secondary battery according to an embodiment of the invention is a method for manufacturing a secondary battery where a wound body having a positive electrode sheet, a separator and a negative electrode sheet wound in a layered state in a housing, which includes a first step of accommodating the wound body into the housing; and a second step of hot-pressing the wound body through the housing from outside of the housing, the wound body being accommodated in the housing. The method preferably includes a third step of performing initial charging, confining a part substantially the same as a part where the wound body is hot-pressed through the housing in the second step.

Abstract: An optical writing device is configured to form electrostatic latent images on a plurality of photosensitive elements by a plurality of light sources. The optical writing device includes: an image-data acquiring section that acquires image data; and a light-source control section that performs light-emission control on the light source based on pixel data generated from acquired image data, and also performs a neutralization process on the photosensitive element by controlling the light source to expose the photosensitive element to light. In the neutralization process, the light-source control section divides a period during which light-on/off control can be performed on the light source, into sub-periods based on pixel data input to the light-source control section, and causes the light sources to be lit in any one of the sub-periods so as to always place at least one of the plurality of light sources in a light-off state.

Abstract: An electric storage apparatus has a positive electrode plate, a negative electrode plate, and a separator. Each of the positive electrode plate and the negative electrode plate has a collector plate and an active material layer containing an electrolytic solution, and the active material layer is formed in a predetermined width on a partial region of a collector plate. The separator is placed between the positive electrode plate and the negative electrode plate and contains an electrolytic solution. At least one of the positive electrode plate and the negative electrode plate, an edge of the active material layer in a width direction has a waveform. A set value Wn of the width of the active material layer and a variation ?W of the width of the active material layer satisfy a condition of 0.03??W/Wn?0.056.

Abstract: According to an embodiment, provided is an image forming device that includes: an image forming unit forming an image in a predetermined cycle in a direction orthogonal to a conveying direction of a printing medium; a velocity acquisition unit acquiring a conveying velocity of the printing medium at a position where the image is formed by the image forming unit; and a correcting unit correcting the cycle on which the image forming unit forms the image in accordance with the conveying velocity acquired by the velocity acquisition unit.

Abstract: A method of testing a secondary battery includes first to fourth steps. At the first step, the secondary battery after manufacture is charged to a first voltage. At the second step, a second voltage lower than the first voltage is set as a target voltage and discharge or charge is performed in a constant-current constant-voltage mode before the secondary battery is left standing. At the third step, the open circuit voltage of the secondary battery is measured before and after the secondary battery is left standing. At the fourth step, it is determined whether the secondary battery is a conforming item or not based on the difference in the open circuit voltage before and after the secondary battery is left standing.

Abstract: An optical writing device forms an electrostatic latent image and includes a pixel-information acquiring unit that acquires pixel information and stores the acquired pixel information in a storage medium with respect to each main scanning line; a tilt correcting unit that generates a tilt correction signal specifying a main scanning line from which the pixel information to be input to a light source is read out from the storage medium in order to correct a tilt of the electrostatic latent image; a position correcting unit that generates a position correction signal specifying a timing to input the pixel information to the light source in order to correct a position of the electrostatic latent image; and a pixel-information-input control unit that controls input of the pixel information from the storage medium to the light source in response to the tilt correction signal and the position correction signal.

Abstract: Disclosed is a method for enhancing the function of a T cell, which is characterized by inhibiting the expression of programmed death-1 ligand 1 (PD-L1) and/or programmed death-1 ligand 2 (PD-L2) in the T cell. Also disclosed is a function-enhanced T cell which is produced by the function enhancement method. Further disclosed is a therapeutic agent comprising the function-enhanced T cell. The T cell can enhance an immune response to cancer, and is useful in an immunotherapy effective for cancer and the treatment or prevention of infectious diseases and autoimmune diseases.

Abstract: Disclosed is a method for enhancing the function of a T cell, which is characterized by inhibiting the expression of programmed death-1 ligand 1 (PD-L1) and/or programmed death-1 ligand 2 (PD-L2) in the T cell. Also disclosed is a function-enhanced T cell which is produced by the function enhancement method. Further disclosed is a therapeutic agent comprising the function-enhanced T cell. The T cell can enhance an immune response to cancer, and is useful in an immunotherapy effective for cancer and the treatment or prevention of infectious diseases and autoimmune diseases.

Abstract: Disclosed are: a cell capable of expressing an exogenous GITRL or an exogenous GITRL derivative; a method for producing the cell; a therapeutic or prophylactic agent comprising the cell as an active ingredient; use of the cell in the manufacture of a therapeutic or prophylactic agent; a method comprising a step of administering the cell to a subject; a viral vector carrying a gene encoding a GITRL or a GITRL derivative; a therapeutic or prophylactic agent comprising the viral vector as an active ingredient; use of the viral vector in the manufacture of a therapeutic or prophylactic agent; and a method comprising a step of administering the viral vector to a subject.

Abstract: In the invention, an inclination amount of sensors is reflected in positional deviation correction patterns, and for correcting formation positions of images of various colors, the positional deviation correction patterns are formed on a conveying belt. The positional deviation correction patterns are detected by the sensors. A control unit calculates positional deviation correction amounts based on detection results of the positional deviation correction patterns. Based on the calculated positional deviation correction amounts, the control unit performs calculation for correcting the positional deviation correction patterns, and cancels the inclination amount reflected in the calculation results to obtain final positional deviation correction amounts. Skew correction is performed based on the final positional deviation correction amounts, and thus, the positional deviations are corrected.

Abstract: A semiconductor device comprising a plurality of semiconductor chips and a plurality of through-line groups is disclosed. Each of the through-line groups consists of a unique number of through-lines. The numbers associated with the through-line groups are mutually coprime to each other. When one of the through-lines is selected for the each through-line group, one of the semiconductor chip is designated by a combination of the selected through-lines of the plurality of the through-line groups.

Abstract: A lithium secondary battery provided by the present invention includes an electrode body (80) having a structure in which a positive electrode (10) and a negative electrode (20) are laminated, with a separator (30) interposed therebetween, and a porous insulating layer (40) obtained by filling and molding insulating particles is formed on the surface of at least one of the positive electrode (10) and the negative electrode (20) on the side facing the separator (30), wherein insulating particles having a tap density of 0.4 g/cm3 to 0.9 g/cm3 are used as the insulating particles that compose the porous insulating layer (40), and moreover a pressure (90) that is applied in the direction of the lamination to the electrode body (80) is set to a range of 4 kgf/cm2 to 50 kgf/cm2.

Abstract: An image forming apparatus comprises: an image forming unit configured to form an image quality adjustment pattern image on an image carrier to be driven at a predetermined speed; a detector configured to detect the image quality adjustment pattern image; an image quality adjustment controller configured to control image quality adjustment processing in accordance with a detection result by the detector; a speed change unit configured to change an image formation speed indicating a speed at which an image is formed, and an interval change unit configured to change an interval at which the detector acquires a detection result in accordance with a change amount between the image formation speed before changed by the speed change unit and the image formation speed after changed.

Abstract: Provided is a method for manufacturing a secondary battery that can ensure a favorable charging state. A method for manufacturing a secondary battery according to an embodiment of the invention is a method for manufacturing a secondary battery where a wound body having a positive electrode sheet, a separator and a negative electrode sheet wound in a layered state in a housing, which includes a first step of accommodating the wound body into the housing; and a second step of hot-pressing the wound body through the housing from outside of the housing, the wound body being accommodated in the housing. The method preferably includes a third step of performing initial charging, confining a part substantially the same as a part where the wound body is hot-pressed through the housing in the second step.

Abstract: A method is provided for manufacturing an electrode that has a porous inorganic layer on the surface of an active material layer and is suitable for constructing a nonaqueous secondary battery with excellent input-output performance. In this manufacturing method, an electrode perform, which has an active material layer (344) consisting primarily of active material particles (42) and supported on a collector (342), is prepared. The water concentration of at least the surface (344a) of the active material layer (344) is adjusted to 100 ppm to 500 ppm. A slurry (S) containing inorganic particles (44), a binder and an organic solvent is coated on the surface (344a) of the active material layer with the water concentration thus adjusted, to form a porous inorganic layer.

Abstract: This method for producing a battery is provided with: a step for forming an active material layer on a layer-formed portion of a copper foil that, at the entirety of the primary face thereof, does not have an oxide film at which the copper is oxidized or has an oxide film of which the thickness by which the copper has oxidized is no greater than 5.0 nm; then a step for forming an exposed oxide film (42d) at the exposed portion by oxidizing the exposed portion of the copper foil; then a step for injecting an electrolyte into the battery; and then a step for the initial charging of the battery.

Abstract: A wiring substrate includes a semiconductor substrate, an insulator and a plurality of columnar conductors. The insulator is made of an insulating material filled in a groove or hole provided in the semiconductor substrate. The plurality of columnar conductors are filled in grooves or holes provided in the insulator. The grooves or holes are arranged at a narrow pitch in a plane of the insulator. The insulating material has a Si—O bond obtained by reacting Si particles with an organic Si compound.

Abstract: In a memory module including a plurality of DRAM chips which transmit/receive a system data signal with a predetermined data width and at a transfer rate and which transmit/receive an internal data signal having a larger data width and a lower transfer rate as compared with the system data signal, the transfer rate of the system data signal is restricted. Current consumption in DRAMs constituting the memory module is large, hindering speed increases. For this memory module, a plurality of DRAM chips are stacked on an IO chip. Each DRAM chip is connected to the IO chip by a through electrode, and includes a constitution for mutually converting the system data signal and the internal data signal in each DRAM chip by the IO chip. Therefore, wiring between the DRAM chips can be shortened, and DLL having a large current consumption may be disposed only on the IO chip.