Abstract:
A method for surface treatment includes: a first step in which a surface treatment apparatus 1 and a substrate 10 in a state where a front surface 102 of the substrate 10 faces the surface treatment apparatus 1 are conveyed to the inside of a decompression chamber to decompress a plurality of concave portions 32 (enclosed spaces); a second step in which the surface treatment apparatus 1 and the substrate 10 are brought out from the inside of the decompression chamber to environment under atmospheric pressure in a state where the substrate 10 is being attracted to the surface treatment apparatus 1 with the use of a difference between negative pressure inside the concave portions 32 and atmospheric pressure; and a third step in which the surface treatment is carried out to a back surface 101 of the substrate 10 with the substrate 10 being attracted by the surface treatment apparatus 1.
Abstract:
A method of forming a mask, in which a film pattern is formed on a substrate by using a mask, includes sequentially arranging the mask, the substrate and a first member having a flat surface contacting with the substrate in this order from a supply source of film forming material; and attracting the mask and the first member by means of a magnetic force.
Abstract:
An organic electroluminescence display device is provided including an electroluminescence substrate equipped with an electroluminescence element for emitting light and a thin film transistor substrate equipped with a thin film transistor for controlling current supplied to the electroluminescence element. The electroluminescence substrate and the thin film transistor substrate are disposed facing each other. A first controller which controls the thin film transistor is disposed between the electroluminescence substrate and the thin film transistor substrate.
Abstract:
A spatial light modulator is constructed from a conductive silicon mirror substrate and a glass electrode substrate including sodium, anode-bonded together. The silicon mirror substrate has micromirrors arranged in a matrix, torsion bars coupling these micromirrors in the x-direction, and a frame coupled to both ends of the torsion bars. A glass electrode substrate has a central depression, a rim around the periphery thereof, pillars projecting from within the depression, and electrodes and wiring driving micromirrors formed within the depression in an inclining manner. Both ends of the torsion bars are bonded to the rim of the frame portion, and intermediate portions of the torsion bars are bonded to the pillars. Both ends of the torsion bars are cut away from the frame portion during dicing.
Abstract:
An ink jet recording apparatus capable of ejecting ink droplets in which the volume is precisely and easily controlled. The gradient of the pixel to be printed, based on a digital gradient input signal, is provided for printing high resolution gradient images using a low drive voltage in this ink jet head. More specifically, the ink jet recording apparatus of the present invention will include a diaphragm formed at one part of a wall of each independent ejection chamber, with electrodes formed opposite each diaphragm and spaced therefrom at a predetermined gap distance. Ink droplets are selectively ejected from nozzle openings in the ejection chamber by applying a voltage to generate an electrostatic force which momentarily deforms the diaphragm. Moreover, plurality of independent electrodes oppose each diaphragm and a pulse voltage is applied to a predetermined number of electrodes according to a gradient signal to eject ink droplets of a volume determined by the gradient signal.
Abstract:
An ink jet printer provided with an ink jet print head having a nozzle, an ink channel that is connected to the nozzle, and an electrostatic actuator that is composed of a diaphragm that is provided in a part of the ink channel and an electrode placed outside of the ink channel opposite to the diaphragm. The diaphragm is distorted by means of an electrostatic force generated by applying voltage to the electrostatic actuator thereby performing printing with ink droplets ejected from the nozzle. The electrostatic actuator driver comprises a timing pulse generator, charge circuit and discharge circuit. The driver controls an amount of charge to be charged to the electrostatic actuator as well as charge rate thereof corresponding to the environmental operating condition of the ink jet printer.
Abstract:
An ink jet printer provided with an ink jet print head having a nozzle, an ink channel that is connected to the nozzle, and an electrostatic actuator that is composed of a diaphragm that is provided in a part of the ink channel and an electrode placed outside of the ink channel opposite to the diaphragm. The diaphragm is distorted by means of an electrostatic force generated by applying voltage to the electrostatic actuator thereby performing printing with ink droplets ejected from the nozzle. The electrostatic actuator driver comprises a timing pulse generator, charge circuit and discharge circuit. The driver controls an amount of charge to be charged to the electrostatic actuator as well as charge rate thereof corresponding to the environmental operating condition of the ink jet printer.
Abstract:
A thermal cycler includes a holder receiving a reaction chamber including a channel filled with reaction mixture and an immiscible liquid having different specific gravities and allowing the reaction mixture to move along an opposed inner wall, a temperature gradient forming unit forming a temperature gradient in the movement direction of the reaction mixture relative to the channel during loading into the holder, and a driving unit rotating the holder and temperature gradient forming unit about a rotation axis having a component perpendicular to the gravitational direction and a component perpendicular to the movement direction of the reaction mixture, and a maximum distance from the rotation axis to a point in the channel is smaller than a maximum distance connecting two points in the channel when projected on a plane perpendicular to the rotation axis.
Abstract:
A biochip includes: a chamber that has a longitudinal direction; a holding unit that holds a liquid sample within a predetermined area of the chamber provided along the longitudinal direction, and releases the liquid sample from the predetermined area to an area inside the chamber by using a predetermined pressing force; and a pressed member that applies the predetermined pressing force to the liquid sample.
Abstract:
A biochip includes: a first chamber; a second chamber filled with a wax, a melting point of the wax being 25° C. or more and 63° C. or less; an injection path between the first chamber and the second chamber; and a sub-chamber that includes a wall at least partially made of the wax, the sub-chamber is formed inside the second chamber and communicates with the first chamber via the injection path.