Abstract: A display terminal having a display includes a color image camera and a distance image camera for acquiring a color image and a distance image of a predetermined photographing range, respectively, and a display control unit for displaying a virtual object on the display. The display control unit includes a space recognition unit for using the color image and the distance image to generate a three-dimensional map of a structural object, a display data generation unit for generating display data in which a rear region of the virtual object behind the structural object in a line-of-sight direction is specified, based on the three-dimensional map and real space placement position data of the virtual object, and the display correction unit for correcting the display data to display operation points of the rear region, which accept an operation instruction to the virtual object, and displaying it on the display.

Abstract: A sheet transporting device includes: a skew correcting component configured to correct any skew of a sheet by executing speed-gap driving in which first and second transporting components that are arranged at respective positions in a direction intersecting a direction of sheet transport are driven for a predetermined time period with a speed gap between the first and second transporting components; and a changing component configured to change, with reference to a characteristic relevant to sheet transport, a state of the speed-gap driving of the skew correcting component.

Abstract: A medium transport device includes a first transporter configured to transport a medium by nipping the medium along with rotation, a second transporter configured to transport the medium and disposed on an upstream side of the first transporter in a transport direction of the medium, a first adjuster configured to adjust a position of the medium in a width direction by moving the first transporter and the second transporter in the width direction of the medium with the medium nipped by the first transporter and the second transporter, and a second adjuster configured to adjust a contact pressure of the first transporter for the medium and a contact pressure of the second transporter for the medium based on resistance caused when the medium is moved in the width direction.

Abstract: A sheet transporting device includes first and second position correcting components provided at respective positions in a direction of sheet transport and each being configured to correct a position of a sheet in a direction intersecting the direction of sheet transport by being shifted in the direction intersecting the direction of sheet transport while holding the sheet, and a changing component capable of changing an amount of correction of the position of the sheet individually for the first and second position correcting components.

Abstract: A head-mounted display comprises: a wearing body; a display; a communication module configured to perform communication connection with a mobile information terminal; a field of view (FOV) sensor configured to output status data used for determining whether the mobile information terminal is included in a user's FOV through the wearing body; and a controller connected to each of the display, the communication module, and the FOV detection sensor. The controller determines whether the mobile information terminal is included in the user's FOV based on the status data, and performs display control with respect to the display so as to display an application screen of the mobile information terminal on the display when determining that the mobile information terminal is not included in the FOV, and not to display the application screen on the display when determining that the mobile information terminal is included in the FOV.

Abstract: A CoPt-oxide-based in-plane magnetized film having a magnetic coercive force of 2.00 kOe or more and remanent magnetization per unit area Mrt of 2.00 memu/cm2 or more. The in-plane magnetized film for use as a hard bias layer of a magnetoresistive element contains metal Co, metal Pt, and an oxide. The in-plane magnetized film contains the metal Co in an amount of 55 at % or more and less than 95 at % and the metal Pt in an amount of more than 5 at % and 45 at % or less relative to a total of metal components of the in-plane magnetized film, and contains the oxide in an amount of 10 vol % or more and 42 vol % or less relative to a whole amount of the in-plane magnetized film. The in-plane magnetized film has a thickness of 20 nm or more and 80 nm or less.

Abstract: A CoPt-oxide-based in-plane magnetized film having a magnetic coercive force of 2.00 kOe or more and remanent magnetization per unit area Mrt of 2.00 memu/cm2 or more. The in-plane magnetized film for use as a hard bias layer of a magnetoresistive element contains metal Co, metal Pt, and an oxide. The in-plane magnetized film contains the metal Co in an amount of 55 at % or more and less than 95 at % and the metal Pt in an amount of more than 5 at % and 45 at % or less relative to a total of metal components of the in-plane magnetized film, and contains the oxide in an amount of 10 vol % or more and 42 vol % or less relative to a whole amount of the in-plane magnetized film. The in-plane magnetized film has a thickness of 20 nm or more and 80 nm or less.

Abstract: The invention provides a new sputtering target that provides a large leakage of magnetic flux, is free of the risk of a change of composition during deposition, and enables deposition under a stable voltage. A sputtering target is that having (1) a Co—Pt magnetic phase including Co and Pt, wherein Pt is included at a proportion of 4 atomic % to 10 atomic %; (2) a Co—Cr—Pt nonmagnetic phase including Co, Cr and Pt, wherein Co and Cr are included at proportions of 30 atomic % or more of Cr and 70 atomic % or less of Co; and (3) an oxide phase including finely dispersed metal oxides.

Abstract: A target for magnetron sputtering, comprising metal Co, metal Cr, and an oxide with an atomic ratio of the metal Cr to the total of the metal Co and the metal Cr being less than 25 at %, wherein the target comprises: a non-magnetic metal phase containing metal Co and metal Cr with an atomic ratio of the metal Cr to the total of the metal Co and the metal Cr being 25 at % or more and with an atomic ratio of the metal Co to the total of the metal Co and the other metals being more than 0 at % and 45 at % or less; and a magnetic metal phase containing metal Co, wherein a volume ratio of the oxide to the non-magnetic metal phase is more than 0 and 1.2 or less, and wherein the non-magnetic metal phase and the oxide are mutually dispersed.

Abstract: A manufacturing method for a target for magnetron sputtering, the method comprising the steps of: mixing and dispersing non-magnetic metal powder and oxide powder to obtain a non-magnetic powder mixture, the non-magnetic metal powder containing metal Co and metal Cr with an atomic ratio of the metal Cr to the total of the metal Co and the metal Cr being 25 at % or more and with an atomic ratio of the metal Co to the total of the metal Co and the other metals being 45 at % or less, the oxide powder being mixed at a volume ratio of more than 0 and 1.2 or less with respect to the non-magnetic metal powder; mixing and dispersing the obtained non-magnetic powder mixture and magnetic metal powder containing metal Co to obtain a powder mixture for pressure sintering; and pressure sintering the obtained powder mixture for pressure sintering.

Abstract: A target for magnetron sputtering, comprising metal Co, metal Cr, and an oxide with an atomic ratio of the metal Cr to the total of the metal Co and the metal Cr being less than 25 at %, wherein the target comprises: a non-magnetic metal phase containing metal Co and metal Cr with an atomic ratio of the metal Cr to the total of the metal Co and the metal Cr being 25 at % or more and with an atomic ratio of the metal Co to the total of the metal Co and the other metals being more than 0 at % and 45 at % or less; and a magnetic metal phase containing metal Co, wherein a volume ratio of the oxide to the non-magnetic metal phase is more than 0 and 1.2 or less, and wherein the non-magnetic metal phase and the oxide are mutually dispersed.

Abstract: An FSK demodulation circuit which receives as input an FSK modulated reception signal, obtains two quadrature pulse trains, i.e., a first pulse train and a second pulse train, from a phase detection circuit, is provided with at least two sampling means which use the edge of one of the pulse trains and sample the logic of the other pulse train, produces two or more sample outputs at different timings, and determines the logic of the reproduced data from a combination of the logics "1" and "0" of the sample outputs.