Abstract: A test pattern forming method is used in adjustment transport of an image forming apparatus, by the image forming apparatus which includes transport rollers transporting a medium in the sub-scanning direction and a plurality of nozzles arranged in the sub-scanning direction and repeats the transport and main scanning for moving the plurality of nozzles in the main scanning direction. The method includes forming a plurality of first patterns using a first nozzle among the plurality of nozzles, and forming a plurality of second patterns using a second nozzle among the plurality of nozzles. The plurality of first patterns is formed by repetitive transport of the medium by a first intermittent transport. The plurality of second patterns is formed by repetitive transport of the medium by a second intermittent transport. The acceleration of the first intermittent transport is more gradual than the acceleration of the second intermittent transport.

Abstract: A transport adjustment method of adjusting transport of an image forming apparatus which includes a transport roller that transports a medium in a sub-scanning direction and a plurality of nozzles lining up in the sub-scanning direction and repeats the transport and main scanning of moving the plurality of nozzles in a main scanning direction, for each angle section formed by dividing one revolution of the transport roller into a plurality of angle sections, the method including: printing, by forming a ruled line by the main scanning every time the transport corresponding to the angle section is carried out, a test pattern in which a plurality of ruled lines is arranged; detecting an arrangement interval of the printed ruled lines; and adjusting the transport corresponding to the same angle section on the basis of the average value of a plurality of arrangement intervals corresponding to the same angle section.

Abstract: In an imaging device 100, as a base 110 is moved from a certain position on an upper side of an imaging area SA to a different position on a left side of the imaging area SA, a camera head 150 is pivotally rotated together with a head-side arm 160 relative to a second arm 132. Such combination of the movement of the base 110 with the pivotal rotation of the camera head 150 changes the operation mode of the imaging device 100 from a first working mode to a second working mode and enables the imaging device 100 to take images in the second working mode.

Abstract: A fluid ejecting apparatus includes a nozzle row in which a plurality of nozzles that eject fluid onto a medium are arranged, a first movement unit that displaces a relative position between the medium and the nozzle row, and a control unit that forms a plurality of dot-lines by repeating a fluid ejection operation in which fluid is ejected so as to form a dot-line, such that a maximum time between when one of the adjacent dot-lines in the plurality of dot-lines is formed to when the other of the adjacent dot-lines is formed is reduced.

Abstract: Liquid ejecting apparatuses and image formed methods are provided. In an exemplary embodiment, a liquid ejecting apparatus is provided including a head unit, a movement mechanism, and a control section. The head unit has along a first direction a plurality of heads, in which a plurality of nozzles that eject a liquid onto a medium are lined up in the first direction, and the head unit forms a single raster line by ejecting the liquid while performing m number of movements relative to the medium in a second direction, which intersects the first direction. The movement mechanism causes the head unit to perform a plurality of movements relative to the medium alternately in the second direction and the first direction. The control section forms an image having a resolution that is n times a pitch of the nozzles.

Abstract: According to one embodiment, a solid-state imaging device includes a first diffusion layer for accumulating carriers generated by a photoelectric effect; a second diffusion layer adjoining the first diffusion layer, the second diffusion layer having a polarity opposite to that of the first diffusion layer; and a reference voltage setting unit that applies a changing voltage that temporally changes to the first diffusion layer through the second diffusion layer and sets a voltage based on an amplitude of the applied changing voltage as a reference voltage of the first diffusion layer.

Abstract: A member mounting arrangement mounts a proximity mounting member to a proximity object at a predetermined position relative thereto. The arrangement includes an intermediate fixing member attached to a fixing frame supporting the proximity object, the intermediate fixing member being adjustable in position in a direction to/from the proximity object, a fixing connecting portion attached to the intermediate fixing member while supporting the proximity mounting member, the fixing connecting portion being adjustable in position in the same direction as above, a regulating portion for regulating a separating distance between the proximity mounting member and the proximity object to a predetermined range, a first fixing portion for fixing the intermediate fixing member in position relative to the fixing frame, and a second fixing portion for fixing the fixing connecting portion in position relative to the intermediate fixing member.

Abstract: A correction value calculating method includes: printing a pattern based on an instruction gray scale value indicating a predetermined density; acquiring a read gray scale value, which is a result obtained when a scanner reads the pattern, for each line area; calculating a first correction value, which is a correction value of each line area corresponding to a middle portion of the pattern, based on the read gray scale value of each line area corresponding to the middle portion of the pattern; and calculating a second correction value, which is a correction value of the line area corresponding to an end portion of the pattern in the predetermined direction, based on the read gray scale value of the line area in the vicinity of the line area corresponding to the end portion of the pattern.

Abstract: A correction value acquisition method includes: forming parts of a test pattern and a linear scale on a medium of which a length in a predetermined direction is shorter than a length of the test pattern in the predetermined direction; detecting positions of the scales of the linear scale from image data obtained by reading the test pattern and the linear scale; obtaining a read density of the image data; and calculating a correction value based on the read density.

Abstract: Plural through-holes are formed in a region of a semiconductor substrate positioned below a drain region (an element region other than a P-type well region). According to this configuration, an opposing area of the drain region and the semiconductor substrate can be reduced. Therefore, a drain-substrate capacitance Cdsub is reduced, and an output capacitance Coss of an SOI LDMOSFET can be reduced as a result.

Abstract: An substrate processing apparatus includes a substrate holding unit, a process liquid supplying unit, a first guide portion provided around the substrate holding unit for guiding the process liquid scattered from the substrate, a second guide portion provided outside the first guide portion for guiding the process liquid scattered from the substrate, a third guide portion provided outside the second guide portion for guiding the process liquid scattered from the substrate, a first recovery channel provided outside the first guide portion integrally with the first guide portion for recovering the process liquid guided by the second guide portion, a second recovery channel provided outside the first recovery channel integrally with the first guide portion for recovering the process liquid guided by the third guide portion, and a driving mechanism for independently moving up and down the first, second, and third guide portions.

Abstract: An image display element includes: a front panel; a back panel opposite thereto; plural pixels arranged in a matrix between the panels; and plural electrodes for controlling the pixels. The panels are bonded with the pixels and the electrodes interposed therebetween. The electrodes are connected to a driving circuit via metal film wires. The back panel is divided so as to expose electrode terminals, and a groove part V-shaped in cross section is formed at the divided portion. The metal film wires are formed on the top surface of the back panel, and the electrode terminals and the metal film wires are connected by a conductive paste coated along the tilt surfaces forming the groove part. A contact resistance reducing means is disposed at the connection part interface between the electrode terminal and the conductive paste.

Abstract: A method of calculating a correction value includes: forming a test pattern by ejecting a liquid by a liquid ejecting apparatus, which has a first nozzle row in which a plurality of nozzles ejecting the liquid to a medium are arranged in a predetermined direction and a second nozzle row in which a plurality of nozzles ejecting the liquid to the medium are arranged in the predetermined direction, the second nozzle row being disposed so that an end portion on one side thereof in the predetermined direction overlaps with an end portion on the other side of the first nozzle row in the predetermined direction, to an area of the medium corresponding to certain pixel data on the basis of the certain pixel data from first nozzles belonging to the end portion on the other side of the first nozzle row and second nozzles belonging to the end portion on the one side of the second nozzle row; acquiring a read-out gray scale value by allowing a scanner to read-out the test pattern; and calculating a correction value used t

Abstract: An optical member for a touch panel of the invention includes a rubber elastic material film 1, in which one surface or both surfaces of the rubber elastic material have an irregular shape. The optical member for a touch panel of the invention can provide a touch panel that reduces errors even in environments having weak external light, enables input without using a special pen, and enables input even when an image in an LCD is displayed as the color black.

Abstract: A ground fault sensing device for a drive system that converts direct current electrical power from a direct current power supply into alternating current electrical power and drives an electric motor with that alternating current electrical power, comprises: an extraction circuit that is connected to a power supply line of the direct current power supply via a coupling capacitor, that detects an amplitude wave that is generated when an alternating current side including the electric motor is suffering a ground fault, and that extracts the envelope of the amplitude wave; a measurement circuit that measures the voltage level of the envelope; and a determination circuit that makes a decision as to whether or not a ground fault has occurred on the alternating current side by comparing together the voltage level measured by the measurement circuit and a ground fault decision value.

Abstract: A sheet discharge unit of an image forming apparatus includes a first path discharging the sheet to the outside, a second path for feeding the sheet again to the image forming unit in the case of performing a duplex image forming process, a sheet conveyor conveying the sheet from the first path to the outside, and a corrugating member corrugating the sheet in a width direction of the sheet orthogonal to a conveying direction of the sheet to give the sheet stiffness when the sheet conveyor conveys the sheet. The second path includes an upstream path section having a width that extends in a thickness direction of the sheet, the width being set to be narrow to such a degree that the corrugation of the sheet is reduced when the sheet passes the upstream path section.

Abstract: In a server composed of a server module having a processor in it, an I/O module having an I/O extension slot for accommodating an I/O extension adapter to expand the server's I/O capability, and a management module managing the entire server, the server module and the I/O extension slot (and through it, ultimately the I/O extension adapter) are interconnected using a PCI Express interface and the I/O module and the management module are interconnected using a special interface carrying detection information indicating whether an I/O extension adapter is actually mounted on the I/O extension slot. In the event of a link failure on the PCI Express interface, link recovery is attempted by grasping the status of the link based on the detection information obtained through the special interface.

Abstract: A liquid ejecting apparatus including a head unit that has a plurality of heads along a first direction, in which a plurality of nozzles that eject a liquid onto a medium are lined up in the first direction, and that ejects the liquid while moving relative to the medium in a second direction, which intersects the first direction, the head unit having a width in the first direction that is greater than a width of a medium in the first direction, a movement mechanism that makes the head unit move relative to the medium a plurality of times alternately in the second direction and the first direction, and a control section that forms a raster line group by forming each raster line.

Abstract: According to one embodiment, a solid-state image sensor includes a semiconductor substrate including a first surface on which light enters, and a second surface opposite to the first surface, a pixel region formed in the semiconductor substrate, and including a photoelectric conversion element which converts the incident light into an electrical signal, a peripheral region formed in the semiconductor substrate, and including a circuit which controls an operation of the element in the pixel region, a plurality of interconnects which are formed in a plurality of interlayer insulating films stacked on the second surface, and are connected to the circuit, and a support substrate formed on the stacked interlayer insulating films and the interconnects. An uppermost one of the interconnects formed in an uppermost one of the interlayer insulating films is buried in a first trench formed in the uppermost interlayer insulating film.

Abstract: An optical member 1 for a touch panel having a pair of opposite main surfaces S1 and S2. The optical member 1 includes a first layer 11 and a second layer 12 laminated over the first layer 11. The surface 11a of the first layer 11, adjacent to the second layer 12, has an irregular shape, and the surface 11a of the first layer 11 and the surface 12a of the second layer 12 are partially or completely separated from each other. When the optical member is pressed from one main surface S2, the surface of at least one of the first layer 11 and/or the second layer 12 is reversibly deformed, thereby changing the reflection state of reflected light L2, which is incident from the other main surface S1.