Abstract: A substrate container includes a casing, a rack, a lid, a lid holder, and a substrate separating mechanism. The casing has on its front face an opening. The substrate separating mechanism has a contact part that directly contacts substrates. The contact part is movable relative to the lid holder. The lid moves forward to the opening, and the contact part moves backward relative to the lid holder, whereby the lid holder holds ends of the substrates. The lid moves backward from the opening, and the contact part moves forward to the lid holder, whereby the substrate separating mechanism separates the substrates from the lid holder.

Abstract: There is provided a vehicle engine control system that includes engine and transmission control functions and enables evacuation driving to be readily performed. A monitoring control circuit unit and an error processing circuit unit monitors controlling operation of a main control circuit unit; when the occurrence frequency of valve-opening control abnormality becomes larger than threshold value, a first storage circuit stores the occurrence frequency, and driving of an intake valve control motor is stopped to set to fixed opening degree; when transmission-control abnormality is occurs, power supply to automatic transmission is stopped to set to the third speed fixation ratio; when an abnormality occurs, evacuation driving is implemented using fixed opening degree and automatic transmission ratio, variable rotation speed and fixed transmission ratio, or fixed opening degree and fixed transmission ratio.

Abstract: A waterproof electronic equipment unit attached and fixed to a mounted surface having a flat mounting portion and depressed portion is reduced in size by effectively utilizing the depressed portion. A circuit substrate on which is mounted a connector housing is hermetically housed in a frame configured of a base and cover, the base includes a multiple of mounting legs fixed by screwing to a flat mounting portion, a base depressed portion disposed in a mounting surface depressed portion, and an inlet of a water-repellent filter opposing the flat mounting portion across a gap D1, and the connector housing and a high component are disposed in the base depressed portion.

Abstract: The nucleic acid detection method includes maintaining a reaction liquid containing the sample, a marker substance, polymerase, a primer set, and salt of a predetermined concentration in the reaction field which include a substrate and a probe, under an amplification condition, detecting a signal from the marker substance and determining existence and/or quantity of the target nucleic acid. The predetermined concentration is higher than the concentration in which the peak rate of the amplification reaction and the concentration with which the hybridization rate becomes higher than 0 au, whichever is higher, but not greater than the highest one of the concentrations with which the quantity of detection of the amplification product becomes a threshold value or more.

Abstract: A substrate container including a casing, a rack, a casing holder, a casing lifting mechanism, a lid, and a lid holder. When holding of substrates with the rack shifts to holding of the substrates with the casing holder and the lid holder, the casing lifting mechanism moves the casing holder upward, whereby the casing holder moves the substrates upward. When the holding of the substrates with the casing holder and the lid holder shifts to the holding of the substrates with the rack, the casing lifting mechanism moves the casing holder downward, whereby the casing holder moves the substrates downward.

Abstract: A ball screw is provided in which an outer circumferential formation is formed at a portion facing a ball circulating passage out of outer circumferential surface of a nut. The ball screw includes: a screw shaft having on its outer circumferential surface a screw groove; a nut having on its inner circumferential surface a screw groove facing the screw groove; a plurality of balls rollably loaded in a spiral ball rolling passage formed by both screw grooves; and a ball circulating passage to return the balls from a start point to an end point of the ball rolling passage for recirculation. The ball circulating passage is a concaved groove formed by concaving a groove on a part of the cylindrical inner circumferential surface of the nut by plastic working. Then, a flange is integrally provided at a portion facing the ball circulating passage and the screw groove.

Abstract: A waterproof electronic equipment unit attached and fixed to a mounted surface having a flat mounting portion and depressed portion is reduced in size by effectively utilizing the depressed portion. A circuit substrate on which is mounted a connector housing is hermetically housed in a frame configured of a base and cover, the base includes a multiple of mounting legs fixed by screwing to a flat mounting portion, a base depressed portion disposed in a mounting surface depressed portion, and an inlet of a water-repellent filter opposing the flat mounting portion across a gap D1, and the connector housing and a high component are disposed in the base depressed portion.

Abstract: A substrate processing apparatus includes a chamber, a substrate holding unit, an elevated/lowered member, and an elevation/lowering driving unit. The chamber includes a base plate having an upper surface that defines a housing space. The substrate holding unit is housed in the housing space, is placed on the upper surface of the base plate, and holds a substrate. The elevated/lowered member is elevated and lowered inside the housing space. The elevation/lowering driving unit drives the elevation and lowering of the elevated/lowered member. The elevation/lowering driving unit includes a driving source, disposed higher than a lower surface of the base plate, and an elevating/lowering head, which is connected to a guard and is moved vertically by the driving source within a movable range in which an entirety of the head is positioned higher than the lower surface of the base plate.

Abstract: Disclosed is a catalyst for methanation reaction producing methane with high conversion by reaction of hydrogen with carbon dioxide, or a gas mixture of carbon dioxide and carbon monoxide, or a gas mixture containing these compounds as the main components. The catalyst is prepared by the steps of mixing (A) aqueous zirconia sol with salts of (B) stabilizing element(s), which is selected from the group consisting of Y, La, Ce, Pr, Nd, Sm, Gd, Dy, Ca and Mg, and (C) iron group element(s), drying and calcining the mixture to obtain a catalyst precursor, and subsequent reduction of the precursor. The catalyst comprises, by atomic %, A: 18-70%, B: 1-20% and C: 25-80% based on the elemental states of the metals. The catalyst is characterized by multiple oxide of tetragonal zirconia structure, in which not only the stabilizing element(s) but also a part of the iron group element(s) is incorporated, and on which the iron group element(s) in the metallic state is supported.

Abstract: Disclosed is a catalyst for methanation reaction producing methane with high conversion by reaction of hydrogen with carbon dioxide, or a gas mixture of carbon dioxide and carbon monoxide, or a gas mixture containing these compounds as the main components. The catalyst is prepared by the steps of mixing (A) aqueous zirconia sol with salts of (B) stabilizing element(s), which is selected from the group consisting of Y, La, Ce, Pr, Nd, Sm, Gd, Dy, Ca and Mg, and (C) iron group element(s), drying and calcining the mixture to obtain a catalyst precursor, and subsequent reduction of the precursor. The catalyst comprises, by atomic %, A: 18-70%, B: 1-20% and C: 25-80% based on the elemental states of the metals. The catalyst is characterized by multiple oxide of tetragonal zirconia structure, in which not only the stabilizing element(s) but also a part of the iron group element(s) is incorporated, and on which the iron group element(s) in the metallic state is supported.

Abstract: A methanation reaction catalyst for methanation by allowing carbon dioxide to react with hydrogen, wherein the methanation reaction catalyst includes a stabilized zirconia support having a tetragonal crystal structure and in which Ca and Ni are incorporated in the crystal structure, and Ni in the metal state supported on the stabilized zirconia support, includes the following in atomic % based on metals in the element state, A) Zr composing the stabilized zirconia support: 6 to 62 atomic %, B) Ca incorporated in the crystal structure: 1 to 20 atomic %, and C) a total of Ni incorporated in the crystal structure and Ni supported on the stabilized zirconia support: 30 to 90 atomic %, and the atomic ratio of Ca/(Zr+Ca) is 0.14 to 0.25.

Abstract: A napped leather-like sheet is used that includes a fiber base material including a non-woven fabric of ultrafine fibers and an elastic polymer, wherein the napped leather-like sheet has a surface including a napped region including the ultrafine fibers that have been napped, and a plurality of unnapped regions including the ultrafine fibers that have been thermally welded and laid down, the unnapped regions being surrounded by the napped region and present discontinuously, a total area of the unnapped regions accounts for 5 to 30% of an area of the surface, and Y/X is 0.7 to 1.5, where X represents an average nap length of the napped ultrafine fibers and Y represents an overall average length of averages of widths, orthogonal to a longitudinal direction, of the unnapped regions.

Abstract: A substrate processing apparatus comprising a substrate holding rotating mechanism, a process liquid supply mechanism having a nozzle for dispensing a process liquid toward a principal face of the substrate, a processing liquid reservoir for holding sufficient process liquid to form a liquid film covering the whole principal face of the substrate, a liquid film forming unit for forming the liquid film by supplying the process liquid onto the principal face of the substrate in a single burst, and a control unit for controlling the liquid film forming unit and the process liquid supply mechanism such that the process liquid is dispensed from the process liquid nozzle toward the principal face of the substrate after formation of the liquid film covering the whole area of the principal face of the substrate by the liquid film forming unit.

Abstract: According to one embodiment, a method for detecting a target nucleic acid includes (A) placing a reaction field formed by a reaction solution under an isothermal amplification reaction condition, the reaction solution including a sample which includes the target nucleic acid, a nucleic acid probe, a covering nucleic acid chain, a labeling substance, and a primer set, (B) monitoring or detecting the signal under the isothermal amplification reaction condition, and (C) obtaining a detection result, and the detection of the detectable signal produced by the labeling substance is inhibited by a presence of the nucleic acid which is bonded to the nucleic acid probe.

Abstract: Second display means front parts, each including an immersion liquid surface level display for a coating liquid for moisture prevention and a lead-free display mark, are formed respectively in upper portions on a left side and a right side that are opposite sides having the one side interposed therebetween. A first display means front part including a board management document number, which defines a material for solder, is formed in a lower portion of the printed circuit board. A lead-free display mark (PBF) is not buried in or mixed with a large number of circuit information displays in the board, and a detailed management number is described in a reduced size to conserve space. Thus, the important lead-free display mark can be displayed with large character marks that also serve to manage a liquid surface.

Abstract: A turbocharger includes a backflow passage that returns apart of gas flowing through a compressor wheel to a suction passage. The turbocharger includes an exhaust opening formed in a wall portion of an exhaust passage inside a compressor housing and that opens the exhaust passage to the outside of the compressor housing, a suction opening formed in a wall portion of the suction passage inside the compressor housing and that opens the suction passage to the outside of the compressor housing, and a backflow pipe of which one end is connected to the exhaust opening and the other end is connected to the suction opening and has the backflow passage inside thereof. In a state where the backflow pipe is removed from the exhaust opening and the suction opening, the suction opening is formed at a position at which the suction opening is visible when seen from a position opposite to the exhaust opening.

Abstract: A control operation of correcting, based on a difference between a target value and a measured value of a controlled response time, a standby time from change in a set value of a flow rate to a value that is not zero until start of output of an opening signal is repeated. As a result, a response time for the flow rate to reach the set value of the flow rate after the set value changes can be a desired value independently of a type, the set flow rate, the temperature, and the pressure of fluid, individual differences among devices, and the like. The difference between the target value and the measured value of the controlled response time may be multiplied by a weight coefficient, and the control operation may be carried out for each of a predetermined plurality of ranges of the flow rate.

Abstract: Disclosed is a catalyst for methanation reaction producing methane with high conversion by reaction of hydrogen with carbon dioxide, or a gas mixture of carbon dioxide and carbon monoxide, or a gas mixture containing these compounds as the main components. The catalyst is prepared by the steps of mixing (A) aqueous zirconia sol with salts of (B) stabilizing element(s), which is selected from the group consisting of Y, La, Ce, Pr, Nd, Sm, Gd, Dy, Ca and Mg, and (C) iron group element(s), drying and calcining the mixture to obtain a catalyst precursor, and subsequent reduction of the precursor. The catalyst comprises, by atomic %, A: 18-70%, B: 1-20% and C: 25-80% based on the elemental states of the metals. The catalyst is characterized by multiple oxide of tetragonal zirconia structure, in which not only the stabilizing element(s) but also a part of the iron group element(s) is incorporated, and on which the iron group element(s) in the metallic state is supported.

Abstract: Disclosed is a catalyst for methanation reaction producing methane with high conversion by reaction of hydrogen with carbon dioxide, or a gas mixture of carbon dioxide and carbon monoxide, or a gas mixture containing these compounds as the main components. The catalyst is prepared by the steps of mixing (A) aqueous zirconia sol with salts of (B) stabilizing element(s), which is selected from the group consisting of Y, La, Ce, Pr, Nd, Sm, Gd, Dy, Ca and Mg, and (C) iron group element(s), drying and calcining the mixture to obtain a catalyst precursor, and subsequent reduction of the precursor. The catalyst comprises, by atomic %, A: 18-70%, B: 1-20% and C: 25-80% based on the elemental states of the metals. The catalyst is characterized by multiple oxide of tetragonal zirconia structure, in which not only the stabilizing element (s) but also a part of the iron group element(s) is incorporated, and on which the iron group element(s) in the metallic state is supported.

Abstract: A substrate processing apparatus includes a chamber that defines an internal space in which a plurality of types of chemicals are supplied to a substrate at different timings, an individual exhaust flow path that removes an atmosphere within the chamber through an exhaust inlet and an exhaust cleaning device that forms a dispersion region where a removal liquid, which removes a chemical contained in an atmosphere, is dispersed in at least one of a position on an upstream side of the exhaust inlet and a position within the individual exhaust flow path by discharging the removal liquid into air.