Abstract: The present invention includes: a label opening unit, which preliminarily opens a tubular label folded in a sheet; a label expansion unit, which expands the preliminarily opened label; a bottle lifting unit having a mounting, on which the bottle is mounted and which can rise and fall; and a bottle pull-up unit, which lifts the bottle while holding with the bottle an upper end portion of the label attached to the bottle. After the bottle lifting unit has lifted the mounting on which the bottle is mounted, thereby inserting the bottle into the label expanded by the label expansion unit, the bottle pull-up unit pulls up the bottle, thereby removing expansion claws from the label and moving the bottle to above clamp members of the label opening unit.

Abstract: A film-fitting device includes a cutting mechanism that cuts a label-forming medium into a predetermined length, a film transfer mechanism that transfers downstream a tubular film arranged around a mandrel, and a shot roller that receives the tubular film transferred by the film transfer mechanism and delivers the tubular film downstream while rotating the tubular film in the circumferential direction. The distance from the cutting mechanism to the shot roller and the distance from the film transfer mechanism to the shot roller are both greater than the length of the tubular film formed by the cutting. Further, rotational drive of the shot roller is carried out by an independent servo motor or stepping motor.

Abstract: It is an object of the present invention to provide a method for manufacturing a silicon carbide semiconductor device capable of preventing an increase in a cost of manufacturing one chip while favorably maintaining forward characteristics of the semiconductor device. The present invention includes the steps of: (a) inspecting the characteristics of the forward conduction of body diodes as element structures; (b) classifying the body diode and the body diode as a first group suitable for the forward conduction or a second group unsuitable for the forward conduction on the basis of an inspection result of the step (a); and (c) manufacturing a silicon carbide semiconductor MOSFET that needs the forward conduction using the body diode of the first group or manufacturing a silicon carbide semiconductor MOSFET that does not need the forward conduction using the body diode of the second group.

Abstract: An organic EL device (1) includes: a substrate (11); a plurality of lower electrodes (14) formed on the substrate (11) and corresponding to luminescence regions, respectively; a dividing wall (17) formed so as to surround the luminescence regions; light-emitting layers (19) formed on the lower electrodes (14) in the luminescence regions, respectively; and an upper electrode (20) formed on the dividing wall (17) and the light-emitting layers (19). The dividing wall (17) is conductive and electrically connected to the upper electrode (20).

Abstract: An organic EL display device (10) includes: an insulating substrate (20); a first planarizing film (21) formed on the insulating substrate (20) and made of a resin; a first electrode (13) formed on the first planarizing film (21); an organic EL layer (17) formed on the first electrode (13); a second electrode (14) formed on the organic EL layer (17); and a second planarizing film (22) formed between the first electrode (13) and the first planarizing film (21), and covering the first planarizing film (21). The second planarizing film (22) is made of a resin having a lower hygroscopic property than the resin forming the first planarizing film (21).

Abstract: In an organic EL display device (100), an insulating layer (113) includes a first insulating film (113a) and a second insulating film (113b) provided thereabove, a plurality of upper electrodes (115c) are each provided to cover a corresponding one of a plurality of organic EL layers (115b), and a reflection film (114) is provided between the first insulating film (113a) and the second insulating film (113b), corresponding to a region N other than the a light emission region. The reflection film (114) reflects toward a sealing substrate (120) a portion of light generated in each organic EL layer (115b) which is diffused into the region N other than the light emission region so that the portion of the light is transmitted through a separation wall portion (116) and the sealing substrate (120) to be viewed as an image on the sealing substrate.

Abstract: Biocompatible intraocular implants include a steroid and an auxiliary agent, where the auxiliary agent is present in an amount sufficient to lessen the severity of at least one side effect compared to the use of an otherwise identical implant lacking said auxiliary agent. The steroid and the auxiliary agent may be present on the same intraocular implant or on different implants. The steroid and auxiliary agent may be associated with a biodegradable polymer matrix, such as a matrix of a two biodegradable polymers. Or, the steroid may be associated with a polymeric coating having one or more openings effective to permit the steroid to be released into an external environment. The implants containing the steroid and an auxiliary agent may be placed in an eye to treat one or more ocular conditions while reducing the side effects otherwise accompanying steroid use.

Abstract: An organic EL device (10) includes: a substrate (11); a planarizing film (12) comprised of an organic resin and provided over the substrate (11) so as to cover a light-emitting region (P) and a non-light-emitting region (N); a first electrode (13) provided on the planarizing film (12) so as to cover at least the light-emitting region (P); an organic layer (14) provided on the first electrode (13) so as to cover at least the light-emitting region (P); and a second electrode (15) provided on the organic layer (14) so as to cover the light-emitting region (P) and the non-light-emitting region (N). A hole (17) is formed in the non-light-emitting region (N) so as to extend from the second electrode (15) to the planarizing film (12), and at least the planarizing film (12) is exposed by an inner wall surface of the hole (17).

Abstract: The present invention includes clamp members, which preliminarily open a tubular label folded in a sheet; openable and closable expansion claws, which expand the preliminarily opened label; and a mounting, on which a bottle is mounted and which can rise and fall. The mounting on which the bottle is mounted rises, thereby inserting the bottle into the expanded label, and the expansion claws are removed from the label, thereby attaching the label to the bottle. A cam included in a rise and fall mechanism, which causes the expansion claw to rise and fall, includes: a fixed portion, of which a height position cannot be changed; a rise and fall portion, of which a height position can be changed; and a connection portion, which connects the fixed portion and the rise and fall portion so as to swing by following a rising and falling motion of the rise and fall portion.

Abstract: The present invention includes: a label opening unit, which preliminarily opens a tubular label folded in a sheet; a label expansion unit, which expands the preliminarily opened label; a bottle lifting unit having a mounting, on which the bottle is mounted and which can rise and fall; and a bottle pull-up unit, which lifts the bottle while holding with the bottle an upper end portion of the label attached to the bottle. After the bottle lifting unit has lifted the mounting on which the bottle is mounted, thereby inserting the bottle into the label expanded by the label expansion unit, the bottle pull-up unit pulls up the bottle, thereby removing expansion claws from the label and moving the bottle to above clamp members of the label opening unit.

Abstract: Biocompatible intraocular implants include a steroid and an auxiliary agent, where the auxiliary agent is present in an amount sufficient to lessen the severity of at least one side effect compared to the use of an otherwise identical implant lacking said auxiliary agent. The steroid and the auxiliary agent may be present on the same intraocular implant or on different implants. The steroid and auxiliary agent may be associated with a biodegradable polymer matrix, such as a matrix of a two biodegradable polymers. Or, the steroid may be associated with a polymeric coating having one or more openings effective to permit the steroid to be released into an external environment. The implants containing the steroid and an auxiliary agent may be placed in an eye to treat one or more ocular conditions while reducing the side effects otherwise accompanying steroid use.

Abstract: A magnetic resonance diagnostic apparatus is configured in such a manner that: a high-frequency transmission coil transmits a high-frequency electromagnetic wave at a magnetic resonance frequency to an examined subject; a heating coil performs a heating process by radiating a high-frequency electromagnetic wave onto the examined subject at a frequency different from the magnetic resonance frequency; based on a magnetic resonance signal, a measuring unit measures the temperature of the examined subject changing due to the high-frequency electromagnetic wave radiated by the heating coil; and a control unit exercises control so that the measuring unit measures the temperature while the heating coil is performing the heating process, by ensuring that the transmission of the high-frequency electromagnetic wave by the high-frequency transmission coil and the radiation of the high-frequency electromagnetic wave by the heating coil are performed in parallel.

Abstract: In an organic EL display device (100), an insulating layer (113) includes a first insulating film (113a) and a second insulating film (113b) provided thereabove, a plurality of upper electrodes (115c) are each provided to cover a corresponding one of a plurality of organic EL layers (115b), and a reflection film (114) is provided between the first insulating film (113a) and the second insulating film (113b), corresponding to a region N other than the a light emission region. The reflection film (114) reflects toward a sealing substrate (120) a portion of light generated in each organic EL layer (115b) which is diffused into the region N other than the light emission region so that the portion of the light is transmitted through a separation wall portion (116) and the sealing substrate (120) to be viewed as an image on the sealing substrate.

Abstract: The present invention is to provide a tack labeler capable of automatically adhering tack labels without using release papers to articles to be adhered.

Abstract: An organic EL device (1) includes: a substrate (11); a plurality of lower electrodes (14) formed on the substrate (11) and corresponding to luminescence regions, respectively; a dividing wall (17) formed so as to surround the luminescence regions; light-emitting layers (19) formed on the lower electrodes (14) in the luminescence regions, respectively; and an upper electrode (20) formed on the dividing wall (17) and the light-emitting layers (19). The dividing wall (17) is conductive and electrically connected to the upper electrode (20).

Abstract: An electronic camera includes an imaging device. The imaging device has an imaging surface irradiated with an optical image of an object scene. A CPU executes an AF process based on output of an AF evaluating circuit to adjust a position of a focus lens to a position to be optically converged on a specific object present in an object scene. Upon completion of the AF process, the CPU detects a distance from a lens distal end to the specific object by referencing a current position of the focus lens, and further detects brightness information of the object scene based on output of an AE/AWB evaluating circuit. Moreover, the CPU adjusts an imaging parameter by determining whether or not an object scene attribute including the detected distance and brightness information satisfies a predetermined condition.

Abstract: The working vehicle includes an axle unit that has a differential gear device, an axle case, an axle input shaft and first and second main output shafts, and an HST unit that has a hydraulic pump main body, a hydraulic motor main body, a capacity adjustment mechanism, an HST case, a pump shaft and a motor shaft, an HST input shaft, and an HST output shaft, wherein the axle unit is directly or indirectly supported by the vehicle frame so as to be positioned close to a first main driving wheel in a state where the axle input shaft extends in a vehicle widthwise direction, wherein the HST unit is directly or indirectly supported by the vehicle frame at a position away from the axle unit in a state where the HST output shaft extends in the vehicle widthwise direction, and wherein the HST output shaft and the axle input shaft are operatively connected to each other through an endless type transmission member.

Abstract: Biocompatible intraocular implants include a steroid and a polymer associated with each other to facilitate release of the steroid into an eye for a period of time greater than about two months. The steroid may be associated with a biodegradable polymer matrix, such as a matrix of a two biodegradable polymers. Or, the steroid may be associated with a polymeric coating having one or more openings effective to permit the steroid to be released into an external environment. The implants may be placed in an eye to treat one or more ocular conditions. The steroid is released from the implant for more than about two months, and may be release for more than several years.

Abstract: An organic EL device (10) includes: a substrate (11); a planarizing film (12) comprised of an organic resin and provided over the substrate (11) so as to cover a light-emitting region (P) and a non-light-emitting region (N); a first electrode (13) provided on the planarizing film (12) so as to cover at least the light-emitting region (P); an organic layer (14) provided on the first electrode (13) so as to cover at least the light-emitting region (P); and a second electrode (15) provided on the organic layer (14) so as to cover the light-emitting region (P) and the non-light-emitting region (N). A hole (17) is formed in the non-light-emitting region (N) so as to extend from the second electrode (15) to the planarizing film (12), and at least the planarizing film (12) is exposed by an inner wall surface of the hole (17).

Abstract: Biocompatible intraocular implants include a steroid and an auxiliary agent, where the auxiliary agent is present in an amount sufficient to lessen the severity of at least one side effect compared to the use of an otherwise identical implant lacking said auxiliary agent. The steroid and the auxiliary agent may be present on the same intraocular implant or on different implants. The steroid and auxiliary agent may be associated with a biodegradable polymer matrix, such as a matrix of a two biodegradable polymers. Or, the steroid may be associated with a polymeric coating having one or more openings effective to permit the steroid to be released into an external environment. The implants containing the steroid and an auxiliary agent may be placed in an eye to treat one or more ocular conditions while reducing the side effects otherwise accompanying steroid use.