Abstract: A control apparatus includes a control unit configured to control a cycle from a first irradiation start timing to a second irradiation start timing to be shorter than a cycle of each of first and second picture periods. The first irradiation start timing is a timing at which a light source device starts radiating pulsed illumination light in the first picture period in which an image pickup device performs reading. The second irradiation start timing is a timing at which the light source device starts radiating the illumination light in the second picture period succeeding the first picture period and having the same cycle as the first picture period.

Abstract: A magnetoresistive element according to an embodiment includes: a magnetoresistance effect film including: a first magnetic film; a second magnetic film; and an intermediate film of a nonmagnetic material disposed between the first magnetic film and the second magnetic film, at least one of the first magnetic film and the second magnetic film being formed of a material expressed as AxB1?x(65 at %?x?85 at %) where A is an alloy containing Co and at least one element selected from Fe and Mn, and B is an alloy containing Si or Ge, a Si concentration in the at least one of the first magnetic film and the second magnetic film decreasing and a Ge concentration increasing as a distance from the intermediate film increases.

Abstract: A magnetic head according to an embodiment includes a first magnetic shield and a second magnetic shield that are opposed to each other, and a magnetoresistive film arranged between the first magnetic shield and the second magnetic shield, and including a first magnetic layer including a first metal layer that contains 90 at. % or more of Fe and a first Heusler alloy layer, a second magnetic layer arranged on a side of the first Heusler alloy layer opposite from the first magnetic layer, and an intermediate layer arranged between the first Heusler alloy layer and the second magnetic layer.

Abstract: Provided is a greeting card which provides a three-dimensional effect and enables the change of the layout of a picture. Also provided is a protective case for a greeting card which enables the greeting card to be viewed in a standing state. Specifically, provided is a three-dimensional greeting card including a picture part formed in at least part of a greeting card body, the picture part being configured by sticking an appropriate number of constituent picture pieces on top of one another. Also specifically, provided is a protective case for a greeting card, including a transparent plastic case body including upper and lower openings, the protective case further including: a protruding piece for forming a foot part, the protruding piece being formed at the lower opening so as to be outwardly bendable; and a protruding piece for forming a greeting card receiving part, the protruding piece being formed at the lower opening so as to be inwardly bendable.

Abstract: A magnetoresistive element according to an embodiment includes: a magnetoresistance effect film including: a first and second magnetic films; and an intermediate film disposed between the first and second magnetic films, at least one of the first and second magnetic films being formed of a Heusler alloy expressed as Co100-x(AyB1.0-y)x (40 at %?x?60 at %, 0.3?y?0.7) where A is an alloy containing at least Fe and Mn, and B is an alloy containing at least Si, Al, and Ge, a composition of the at least one of the first and second magnetic films being changed in a film-thickness direction so that a ratio of Fe/(Fe+Mn) is less than 60% in a first region disposed near an interface with the intermediate film in the film-thickness direction, and is 60% or more in a second region that is disposed at more distance from the interface than the first region in the film-thickness direction.

Abstract: According to one embodiment, a magnetoresistance effect element includes first and second shields, a stacked body and a hard bias unit. The stacked body includes first and second magnetic layers, an intermediate layer and a first Ru layer. A magnetization of the first magnetic layer is changeable. A magnetization of the second magnetic layer is changeable. The intermediate layer is nonmagnetic. The first Ru layer is provided between the first shield and the first magnetic layer. A thickness of the first Ru layer is not less than 1.5 nanometers and not more than 2.5 nanometers. The hard bias unit is provided between the first shield and the second shield. A first direction from the first shield toward the second shield intersects a second direction from the stacked body toward the hard bias unit.

Abstract: A magnetoresistive element according to an embodiment includes: a magnetoresistance effect film including: a first and second magnetic films; and an intermediate film disposed between the first and second magnetic films, at least one of the first and second magnetic films being formed of a Heusler alloy expressed as Co100-x(AyB1.0-y)x (40 at %?x?60 at %, 0.3?y?0.7) where A is an alloy containing at least Fe and Mn, and B is an alloy containing at least Si, Al, and Ge, a composition of the at least one of the first and second magnetic films being changed in a film-thickness direction so that a ratio of Fe/(Fe+Mn) is less than 60% in a first region disposed near an interface with the intermediate film in the film-thickness direction, and is 60% or more in a second region that is disposed at more distance from the interface than the first region in the film-thickness direction.

Abstract: A magnetoresistive element according to an embodiment includes: a magnetoresistance effect film including: a first magnetic film; a second magnetic film; and an intermediate film of a nonmagnetic material disposed between the first magnetic film and the second magnetic film, at least one of the first magnetic film and the second magnetic film being formed of a material expressed as AxB1-x(65 at %?x?85 at %) where A is an alloy containing Co and at least one element selected from Fe and Mn, and B is an alloy containing Si or Ge, a Si concentration in the at least one of the first magnetic film and the second magnetic film decreasing and a Ge concentration increasing as a distance from the intermediate film increases.

Abstract: According to one embodiment, a magnetoresistance effect element includes a first shield, a second shield, a stacked unit, and a hard bias unit. The stacked unit includes a first magnetic layer provided between the first shield and the second shield, a second magnetic layer provided between the first magnetic layer and the second shield, and an intermediate layer provided between the and second magnetic layers. The hard bias unit is provided between the first shield and the second shield to be arranged with the stacked unit. A crystal orientation plane of the first magnetic layer in a film surface perpendicular direction is a cubic (110) plane. The first magnetic layer includes a first stacked body including a first Fe layer and a first Co layer stacked along the first direction, and a first Heusler alloy layer stacked with the first stacked body along the first direction.

Abstract: According to one embodiment, a magnetoresistance effect element includes a first shield, a second shield, a stacked unit, and a hard bias unit. The stacked unit includes a first magnetic layer provided between the first shield and the second shield, a second magnetic layer provided between the first magnetic layer and the second shield, and an intermediate layer provided between the and second magnetic layers. The hard bias unit is provided between the first shield and the second shield to be arranged with the stacked unit. A crystal orientation plane of the first magnetic layer in a film surface perpendicular direction is a cubic (110) plane. The first magnetic layer includes a first stacked body including a first Fe layer and a first Co layer stacked along the first direction, and a first Heusler alloy layer stacked with the first stacked body along the first direction.

Abstract: According to one embodiment, a magnetic head includes a magnetoresistive element between a first magnetic shield layer and a second magnetic shield layer, and a hard bias layer between the first magnetic shield layer and the second magnetic shield layer on a side surface of the magnetoresistive element in a first direction intersecting with a second direction which links the first and second magnetic shield layers. The hard bias layer includes Fe or an alloy containing Fe and Co. An aspect ratio (h/w) of the hard bias layer is not smaller than 2, where h is a height of the hard bias layer in the first direction and w is a thickness of the hard bias layer in the second direction.

Abstract: According to one embodiment, a magnetoresistance effect element includes first and second shields, a stacked body and a hard bias unit. The stacked body includes first and second magnetic layers, an intermediate layer and a first Ru layer. A magnetization of the first magnetic layer is changeable. A magnetization of the second magnetic layer is changeable. The intermediate layer is nonmagnetic. The first Ru layer is provided between the first shield and the first magnetic layer. A thickness of the first Ru layer is not less than 1.5 nanometers and not more than 2.5 nanometers. The hard bias unit is provided between the first shield and the second shield. A first direction from the first shield toward the second shield intersects a second direction from the stacked body toward the hard bias unit.

Abstract: A coaxial connector that can be prevented from being detached from a coaxial cable. A coaxial connector is attached to a coaxial cable including a central conductor, an insulating body having a foam structure or a hollow structure, an outer conductor, and an insulating film. A housing includes a cylindrical part, and a holding part extending from the cylindrical part in the x-axis direction. A bushing is attached to the housing. A socket is located at the center of the cylindrical part in plan view in the z-axis direction, and is connected to the central conductor. The holding part includes a crimp portion that holds the outer conductor, and a crimp portion that holds the insulating film. The crimp portion has a protrusion at a surface which contacts the insulating film.

Abstract: A magnetic head according to an embodiment includes a first magnetic shield and a second magnetic shield that are opposed to each other, and a magnetoresistive film arranged between the first magnetic shield and the second magnetic shield, and including a first magnetic layer including a first metal layer that contains 90 at. % or more of Fe and a first Heusler alloy layer, a second magnetic layer arranged on a side of the first Heusler alloy layer opposite from the first magnetic layer, and an intermediate layer arranged between the first Heusler alloy layer and the second magnetic layer.

Abstract: A control apparatus includes a control unit configured to control a cycle from a first irradiation start timing to a second irradiation start timing to be shorter than a cycle of each of first and second picture periods. The first irradiation start timing is a timing at which a light source device starts radiating pulsed illumination light in the first picture period in which an image pickup device performs reading. The second irradiation start timing is a timing at which the light source device starts radiating the illumination light in the second picture period succeeding the first picture period and having the same cycle as the first picture period.

Abstract: An electronic endoscopic apparatus of the present invention can improve the usage efficiency of a circuit of a control section therein and can improve the reliability of operations of the circuit. The electronic endoscopic apparatus is an electronic endoscopic apparatus having multiple operation modes to be executed exclusively, the apparatus internally including an FPGA 1 that internally includes a CPU 10 and peripheral circuits and controls the execution of the operation modes and a switching request detecting section that detects a request for switching to the operation mode to be executed, wherein the internal configuration of the FPGA 1 is changed based on the detection result by the switching request detecting section.

Abstract: According to one embodiment, a magnetic head includes a magnetoresistive element between a first magnetic shield layer and a second magnetic shield layer, and a hard bias layer between the first magnetic shield layer and the second magnetic shield layer on a side surface of the magnetoresistive element in a first direction intersecting with a second direction which links the first and second magnetic shield layers. The hard bias layer includes Fe or an alloy containing Fe and Co. An aspect ratio (h/w) of the hard bias layer is not smaller than 2, where h is a height of the hard bias layer in the first direction and w is a thickness of the hard bias layer in the second direction.

Abstract: An endoscope apparatus includes image pickup section that outputs a first picked-up image based on illuminating light of a first band, and a second picked-up image based on the illuminating light of a second band within a predetermined time period, brightness calculating section that calculates a first brightness by color conversion matrix processing using a first image pickup signal and a second image pickup signal based on illumination of the second band by first predetermined times, and calculates a second brightness by color conversion matrix processing using the first image pickup signal and a second image pickup signal based on illumination of the second band by times other than the first predetermined times, and synthesizing section that synthesizes the first and the second image pickup signals based on a ratio of a difference value of the first brightness and a target brightness, and the second brightness.

Abstract: According to one embodiment, a magnetic head includes a reproducing section. The reproducing section detects a medium magnetic field recorded in a magnetic recording medium. The reproducing section includes a stacked film and a magnetic field application unit. The stacked film includes a first magnetization layer and a second magnetization layer. The first magnetization layer has a perpendicular magnetic anisotropy. A magnetization of the first magnetization layer being is fixed. The second magnetization layer is stacked with the first magnetization layer and oscillates. The magnetic field application unit is stacked with the stacked film and applies a bias magnetic field having a component along the first axis to the stacked film. A resistance of the stacked film changes in accordance with the medium magnetic field when a current not less than a value at which the second magnetization layer oscillates is passed.

Abstract: An endoscope device in which endoscope images and patient information can be recorded in a removable storage medium and in which the endoscope images and patient information recorded in the storage medium can be reproduced. The endoscope device has a selection means for reproducing the endoscope images in a list form and selecting at least one endoscope image from the reproduced list; a display means for inputting additional information other than the patient information, adding the additional information to the endoscope image selected by the selection means, and displaying the result; and a recording/reproduction means for recording the selected endoscope image and the additional information in the storage medium or reproducing the image and the information.