Abstract: A plasma processing apparatus includes a plasma generating device configured to generate a plasma within a processing vessel by using a high frequency wave generated by a microwave generator 41 including a magnetron 42 configured to generate the high frequency wave; detectors 54a and 54b configured to measure a power of a traveling wave that propagates to a load side and a power of a reflected wave reflected from the load side, respectively; and a voltage control circuit 53a configured to control a voltage supplied to the magnetron 42 by a power supply 43. Further, the voltage control circuit 53a includes a load control device configured to supply, to the magnetron 42, a voltage corresponding to a power calculated by adding a power calculated based on the power of the reflected wave measured by the detector 54b to the power of the traveling wave measured by the detector 54a.

Abstract: An identification device measures a potential difference signal between two contact electrodes contacted by a driver out of a plurality of electrodes installed in a handling unit or a potential difference signal between one contact electrode installed in the handling unit and a contact electrode different from the electrodes installed in the handling unit. The device identifies a contact electrode contacted by driver's hand out of the plurality of electrodes installed in the handling unit. The device determines whether the driver's hand in contact with the identified contact electrode is the right hand or the left hand on the basis of a rotational state of the handling unit and a position of the contact electrode in the handling unit. The device identifies the heart beat from the potential difference signal amplified by an amplification factor determined on the basis of a result of determination.

Abstract: A total of n signal processing circuits respectively constituted by independent circuit blocks process signals at the Data Link and Physical Layers. The signal processing circuits are associated with respective n groups of M/n subcarriers each, to process signals at the Data Link and Physical Layers. For example, the signal processing circuit independently processes signals of the subcarrier group at the Data Link and Physical Layers, the signal processing circuit independently processes signals of the subcarrier group at the Data Link and Physical Layers, and so on. The signal processing circuit independently processes signals of the subcarrier group at the Data Link and Physical Layers.

Abstract: A stop method for a fuel cell system including a fuel cell unit in which hydrogen is supplied to an anode, and air is supplied to a cathode so as to generate electrical power via an electrochemical reaction. The stop method includes the steps of stopping supply of hydrogen to the anode, electrically connecting the anode and the cathode via an electrical load, and supplying air to the anode.

Abstract: An ingot production method which makes it possible to greatly restrict formation of pinholes or substantially prevent them avoids the use of substantial amounts of small-sized polycrystalline silicon chunks of polycrystalline silicon chunks, only middle-sized polycrystalline silicon chunks and large-sized polycrystalline silicon chunks. In the step of filling polycrystalline silicon, the polycrystalline silicon chunks are randomly supplied into the crucible.

Abstract: A method for recharging raw material polycrystalline silicon which enables large chunks of polycrystalline silicon to be recharged to a CZ ingot growth process while preventing the CZ crucible from being damaged and restricting a decline of the dislocation free rate and the quality of the grown ingot. Polycrystalline silicon chunks are recharged by first forming cushioning layer silicon of smaller chunks. The cushioning layer of polycrystalline silicon chunks are deposited on a surface of the residual silicon melt in a crucible. Subsequently, large-sized polycrystalline silicon chunks are introduced onto the cushioning layer, the cushioning layer cushioning the impact due to dropping of the large-sized polycrystalline silicon chunks.

Abstract: Provided are corrosive environment monitoring systems and methods whereby corrosive factors are measured in a steam turbine and a corrosive environment is correctly monitored. More specifically, provided is a corrosive environment monitoring system which measures corrosive factors having a part in damaging and deteriorating structural members in a steam turbine and which is configured in such a way that steam in the steam turbine is permitted to flow into the corrosive environment monitoring system. Furthermore, in the steam turbine, there are provided a condensing mechanism which condenses steam that has flowed in and a corrosive factor measuring device which is equipped with corrosive factor sensors that measure corrosive factors in condensed water generated by the condensing mechanism.

Abstract: An identification device measures a potential difference signal between two contact electrodes contacted by a driver out of a plurality of electrodes installed in a handling unit or a potential difference signal between one contact electrode installed in the handling unit and a contact electrode different from the electrodes installed in the handling unit. The device identifies a contact electrode contacted by driver's hand out of the plurality of electrodes installed in the handling unit. The device determines whether the driver's hand in contact with the identified contact electrode is the right hand or the left hand on the basis of a rotational state of the handling unit and a position of the contact electrode in the handling unit. The device identifies the heart beat from the potential difference signal amplified by an amplification factor determined on the basis of a result of determination.

Abstract: An opening/closing device for openably/closably supports an opening/closing part with regard to an opened/closed part, and the opening/closing device is characterized in that it comprises an attaching part attached to the opened/closed part so as to rotate around a rotation axis together with the opening/closing part, a rotation part rotatably attached to an attaching portion extending from a rotation center of the attaching part and engaged with the opened/closed part, and a friction torque generation means provided between the attaching portion of the attaching part and the rotation part, as well as in that the opening/closing device is so configured that it can bring the opening/closing part to stop using free-stop function, when the opening/closing part is opened and closed with regard to the opened/closed part.

Abstract: A total of n signal processing circuits respectively constituted by independent circuit blocks process signals at the Data Link and Physical Layers. The signal processing circuits are associated with respective n groups of M/n subcarriers each, to process signals at the Data Link and Physical Layers. For example, the signal processing circuit independently processes signals of the subcarrier group at the Data Link and Physical Layers, the signal processing circuit independently processes signals of the subcarrier group at the Data Link and Physical Layers, and so on. The signal processing circuit independently processes signals of the subcarrier group at the Data Link and Physical Layers.

Abstract: A compound represented by the formula (1) or a salt thereof ( represents a single bond, or a double bond; R1 represents hydrogen atom, or an alkyl group; R2 and R3 represent hydrogen atom, or an alkyl group; R4 and R5 represent hydrogen atom, hydroxy group, an alkoxyl group, a halogen atom, or a mono- or di-alkyl-substituted amino group; R6 represents hydrogen atom, cyano group, an alkoxycarbonyl group, or carboxy group; R7 represents one or two of substituents on the benzene ring (the substituents are selected from hydrogen atom, a halogen atom, nitro group, cyano group, hydroxy group, amino group, an alkyl group, and an alkoxyl group); A represents a 5-membered or 6-membered non-aromatic heterocyclic ring containing one or two contiguous sulfur atoms (the sulfur atoms may independently form oxide); W represents oxo group, hydrogen atom, an alkyl group, hydroxy group, an alkoxyl group, or a halogen atom; and X represents oxygen atom, or sulfur atom), or a salt thereof, which has a superior suppressing action

Abstract: the slide device and the portable equipment are equipped with a base member mounted on either one of a first casing and a second casing being components of a portable equipment, a slider member slidably mounted on either other one of the first casing and the second casing, and urging means provided between the slider member and the base member for slidably urging the base member and the slider member in a closing and/or an opening direction, and a slide engagement portion includes a plurality of guide rail portions provided on the slider member, a guide long hole provided outside a plurality of the guide rail portions on the slider member and extending in a slide direction, engagement portions provided on the base member and respectively engaged with each of the guide rail portions, and a slide guide portion engaged with the guide long hole.

Abstract: A driving support apparatus includes an imaging member taking an image corresponding to a vehicle peripheral area; a steering angle detecting member detecting a steering-wheel steering angle; a display member disposed in a vehicle interior to display the image; and a control member predicting a driving course of the vehicle according to the detected steering-wheel angle. The control member synthesizes a predicted driving course image relating to the predicted driving course. The control member superposes the predicted driving course image at a corresponding position of the image. The control member displays on the display member the image where at least one image, on which an index is marked at least at one height position, is superposed at least on the predicted driving course image and onto a side of the predicted driving course image while the control member displays the superposed image on the display member.

Abstract: A graphite crucible for silicon single crystal manufacturing by the Czochralski method, having a long life cycle, contains at least one gas venting hole provided in a corner portion of the crucible. Gas generated by reaction between the graphite crucible and a quartz crucible is released to the outside through the gas venting hole, and formation of SiC on the surface of the graphite crucible and deformation of the quartz crucible caused by the pressure of the generated gas are prevented.

Abstract: A fuel cell is provided for improving the starting performance at low temperatures. The fuel cell includes a cell structure in which an anode and a cathode are provided on either side of a solid polymer electrolyte membrane. The fuel cell may include a first cooling liquid passage and a second cooling liquid passage independent of the first cooling liquid passage. Cooling liquid is heated by an external heating device and supplied to the second cooling liquid passage.

Abstract: A control apparatus for a fuel cell stack includes a fuel cell stack having a stacked body formed by stacking fuel cell units together and a pair of end plates sandwiching the stacked body therebetween; electrical heaters disposed near the ends of the stacked body or the end plates, respectively; a water purging device for purging water which is generated during a power generation operation in the fuel cell stack, and which is held in the fuel cell units; and a control unit which controls the power generation operation in the fuel cell stack, and which is operatively connected to the electrical heaters and the water purging device. The control unit is adapted to operate the electrical heaters and the water purging device when the power generation operation is stopped.

Abstract: A stop method for a fuel cell system that includes a fuel cell unit in which hydrogen is supplied to an anode, and air is supplied to a cathode so as to generate electrical power via an electrochemical reaction. The stop method includes the steps of stopping supply of hydrogen to the anode, and supplying air to the anode so as to discharge water remaining at the anode.

Abstract: A fuel cell stack includes a stack body formed by stacking a plurality of power generation cells in a stacking direction. At one end of the stack body, first and second dummy cells are provided. At the other of the stack body, third and fourth dummy cells are provided. Each of the first to fourth dummy cells includes a first metal separator and a second metal separator. The first metal separator and a first metal separator of the power generation cell have substantially the same shape. The second metal separator and a second metal separator of the power generation cell have substantially the same shape.

Abstract: A fuel cell stack 10 includes a stacked structure 14 composed of a plurality of electricity-generating cells stacked successively, and dummy cells arranged at both ends in a stacking direction of the stacked structure 14. Each dummy cell 16 each includes a conductive plate 52 and first and second metallic separators 54, 56 which sandwich the conductive plate 52. The conductive plate 52 is formed of a metallic plate having substantially the same shape as that of the electrolytic membrane electrode assembly 22. The first and second metallic separators 54, 56 are structured in the same manner as the first and second metallic separators 24, 26 of the electricity-generating cell 12.

Abstract: A stop method for a fuel cell system that includes a fuel cell unit in which hydrogen is supplied to an anode, and air is supplied to a cathode so as to generate electrical power via an electrochemical reaction. The stop method includes the steps of stopping supply of hydrogen to the anode, and supplying air to the anode so as to discharge water remaining at the anode.