Abstract: A pressure of a laser gas in an enclosure (7) is detected by a gas pressure sensor (12), and a pressure comparison circuit (13) determines whether the thus-detected pressure is normal or anomalous. An electric current output from an inverter (10) that drives a blower (5) to cause a laser gas to flow back, is detected by a current detection circuit (9). A current comparison circuit (11) determines whether or not the output current is normal or anomalous. A result of a pressure comparison circuit (13) and a result of the current comparison circuit (11) are sent to an AND circuit (15) and performed AND processing. A result of the AND circuit (15), a result of the current detection circuit (9), and a result of the gas pressure sensor (12) are sent to a comparison operation section (17) in a controller (14). A determination is made as to whether or not the blower is anomalous.

Abstract: A sputtering target which is formed of a sintered body including an oxide main components of which are In and Sm. A sputtering target in which a sintered body of an oxide including In and Sm as main components is doped with at least one element with an atomic valency of positive tetravalency or higher in an amount of 20 at. % or less relative to the total sum of all cation elements.

Abstract: Provided are a semi-transmitting and semi-reflecting electrode substrate provided with a transparent conductive layer which is almost free from the generation of residues caused by etching and is resistant to an etchant for a metal reflecting layer (metal layer), a method of producing the semi-transmitting and semi-reflecting electrode substrate and a liquid crystal display device using the semi-transmitting and semi-reflecting electrode substrate.

Abstract: An amorphous transparent conductive film containing as a main component a six oxygen-coordinated metal oxide, and satisfying, in a radial distribution function (RDF) obtained by an X-ray scattering measurement, a relationship of A/B>1, providing that the maximum value of RDF at an interatomic distance of from 0.30 nm to 0.36 nm is A and the maximum value of RDF at an interatomic distance of from 0.36 nm to 0.42 nm is B.

Abstract: A sputtering target which is formed of a sintered body including an oxide main components of which are In and Sm. A sputtering target in which a sintered body of an oxide including In and Sm as main components is doped with at least one element with an atomic valency of positive tetravalency or higher in an amount of 20 at. % or less relative to the total sum of all cation elements.

Abstract: A transparent electrode film including an oxide containing indium, zinc and tin and having a thickness of 25 nm or less. A transparent electrode film including an oxide containing indium and zinc and having a thickness of 30 nm or less.

Abstract: A multilayer structure including a transparent conductive thin film and a molybdenum metal thin film, the transparent conductive thin film having a thickness of 35 nm or less.

Abstract: Provided are a semi-transmitting and semi-reflecting electrode substrate provided with a transparent conductive layer which is almost free from the generation of residues caused by etching and is resistant to an etchant for a metal reflecting layer (metal layer), a method of producing the semi-transmitting and semi-reflecting electrode substrate and a liquid crystal display device using the semi-transmitting and semi-reflecting electrode substrate.

Abstract: A reproduction-element test method for a reproduction element that utilizes a tunneling magnetoresistive effect includes a measurement step for measuring first and second resistance values for different currents, a comparison step for comparing a resistance value differential curve that is calculated from a theoretical equation between tunneling magnetoresistiance and a voltage of the reproduction element of a non-defective article having the same design, with a resistance changing rate calculated from the first and second resistance values measured by the measurement step; and a determination step for determining whether the reproduction element is defective or non-defective based on a comparison between the resistance value differential curve and the resistance changing rate.

Abstract: The magnetoresistance effect type read-head is capable of stably applying bias magnetic fields of hard films to a read-element, stabilizing characteristics of the read-head and improving quality thereof. The magnetoresistance effect type read-head comprises: the read-element; a couple of the hard films sandwiching the read-element, the hard films applying bias magnetic fields to the read-element; and a soft magnetic film being provided on the height direction side, the soft magnetic film connecting an end section of one of the hard films, which is located on the far side with respect to the read-element, to an end section of the other hard film, which is located on the opposite far side with respect to the read-element, so as to circulate magnetic fluxes of the hard films via the soft magnetic film.

Abstract: A method of evaluating can evaluate the bias magnetic field strength of hard films that construct a magnetoresistance effect read head, the magnetic coercivity of the hard films, and variations in the magnetic domain of shield films from measurement results for the resistance-parallel magnetic field strength characteristics. A magnetizing magnetic field is applied in a direction parallel to the air bearing surface of a magnetoresistance effect read head equipped with hard films to magnetize the hard films in a direction of a horizontal bias magnetic field applied to a free layer of the read element. After this, the resistance of the read element is detected and the resistance-parallel magnetic field strength characteristics of the read head are measured while applying a test magnetic field with increasing and decreasing intensity in a direction parallel to the horizontal bias magnetic field.

Abstract: A pressure of a laser gas in an enclosure (7) is detected by a gas pressure sensor (12), and a pressure comparison circuit (13) determines whether the thus-detected pressure is normal or anomalous. An electric current output from an inverter (10) that drives a blower (5) to cause a laser gas to flow back, is detected by a current detection circuit (9). A current comparison circuit (11) determines whether or not the output current is normal or anomalous. A result of a pressure comparison circuit (13) and a result of the current comparison circuit (11) are sent to an AND circuit (15) and performed AND processing. A result of the AND circuit (15), a result of the current detection circuit (9), and a result of the gas pressure sensor (12) are sent to a comparison operation section (17) in a controller (14). A determination is made as to whether or not the blower is anomalous.

Abstract: The present invention provides inspection of a transmission with higher precision and in a shorter period of time. Before a finished A/T is inspected, a V/B ASSY and an ECU are inspected together by a V/B tester in a subsidiary line. A solenoid current command value (a characteristic value inherent in the A/T) for a linear solenoid of the V/B ASSY is corrected and written into the ECU through CAN communication. Spring load of a return spring SP and stroke of the piston of a hydraulic servo for a frictional engagement element are measured. Actually measured values or corrected values of the spring load and the stroke are stored. In the final inspection of the A/T a finished-product tester reads the stored characteristic values and transmits them to the ECU integrated with the A/T through CAN communication. The characteristic values are then written into the ECU. The finished-product tester inspects the finished A/T product, using the characteristic values thus written into the ECU.

Abstract: The present invention provides a power device including a converter part (2) for converting an AC voltage to a DC voltage; an inverter part (3) for converting the DC voltage outputted from the converter part (2) to the AC voltage; and a transformer (4) having an inductance forming a series resonance circuit together with an electrostatic capacity of a load (20) to boost the AC voltage outputted from the inverter part (3). In the power device, an inductance (7) is connected to the output part of the inverter part (3) in parallel with the transformer (4). Thus, in a discharge part 6 provided in the load (20), since when a discharge is not generated, a recovery current is not supplied to a circulating current diode in the inverter part (3), or the quantity of the recovery current is reduced, the heat generation of the circulating current diode can be suppressed without increasing the number of elements of the circulating current diode.

Abstract: The magnetic sensor is capable of improving variations of output power and asymmetric diversity of output signals of a magnetoresistance effect element. The magnetic sensor comprises hard films sandwiching the magnetoresistance effect element, and the hard films apply bias magnetic fields to the magnetoresistance effect element. Each of the hard films includes: a wide section, whose thickness in a height-direction is higher than that of the magnetoresistance effect film; and a link section, whose thickness in the height-direction is gradually reduced toward the magnetoresistance effect element, being extended from the wide section to a side face of the magnetoresistance effect element.

Abstract: A transparent conductive film for constructing a transparent electrode that is free from the generation of residue, etc. by etching with a weak acid (for example, organic acid). Further, there is provided a sputtering target for producing the transparent conductive film. In particular, there is provided a sputtering target composed of indium oxide and cerium oxide, characterized in that in the observation of crystal peaks by X-ray diffractometry, the presence of peaks ascribed to indium oxide and cerium oxide is observed, and that in the EPMA measurement, the diameter of cerium oxide particles dispersed in indium oxide is measured as being ?5 ?m. A transparent conductive film is formed by a sputtering technique with the use of this sputtering target. This transparent conductive film is substantially free from the generation of residue, etc. by etching with a weak acid (for example, organic acid).

Abstract: Provided are a thin film transistor substrate having a transparent electroconductive film in which residues and so on resulting etching are hardly generated; a process for producing the same; and a liquid crystal display using this thin film transistor substrate. A thin film transistor substrate, comprising a transparent substrate, a source electrode formed over the transparent substrate, a drain electrode formed over the transparent substrate, and a transparent pixel electrode formed over the transparent substrate, wherein the transparent pixel electrode is a transparent electroconductive film which is made mainly of indium oxide, and further comprises one or two or more oxides selected from tungsten oxide, molybdenum oxide, nickel oxide and niobium oxide, and the transparent pixel electrode is electrically connected to the source electrode or the drain electrode; a process for producing the same; and a liquid crystal display using this thin film transistor substrate.

Abstract: An organic electroluminescent device including a cathode 50, an anode 20, and an emitting layer interposed between the cathode 50 and the anode 20, at least a part of the anode 20 in contact with the emitting layer 40 containing at least one element selected from lanthanum, cerium, neodymium, samarium, and europium, and at least one element selected from chromium, tungsten, tantalum, niobium, silver, palladium, copper, nickel, cobalt, molybdenum, platinum, and silicon. Since holes are efficiently injected into the emitting layer from the anode, the drive voltage of the organic EL device can be decreased, whereby the lifetime of the organic EL device can be increased.

Abstract: When a working condition is set, if an operator sets the working condition, a control device (1) obtains an expected load factor of a laser oscillator (2) based on the set working condition, and displays the load factor as a working condition check bar (8) on a display device (3). The operator adjusts the working condition so that a load factor of the laser oscillator (2) stays within a predetermined range while watching the working condition check bar (8) and determines an appropriate working condition. Therefore, it is possible to prevent excessive load from being applied to the laser oscillator (2) at the time of actual working.

Abstract: When a working condition is set, if an operator sets the working condition, a control device (1) obtains an expected load factor of a laser oscillator (2) based on the set working condition, and displays the load factor as a working condition check bar (8) on a display device (3). The operator adjusts the working condition so that a load factor of the laser oscillator (2) stays within a predetermined range while watching the working condition check bar (8) and determines an appropriate working condition. Therefore, it is possible to prevent excessive load from being applied to the laser oscillator (2) at the time of actual working.