Abstract: Preventing blood flow artifacts from being increased in an imaging plane allows reduction of the blood flow artifacts in the cross section subsequently excited. In the imaging using a spin-echo (SE) pulse sequence, an excitation width of a 90° pulse is extended from an imaging plane to one side. This one side indicates a downstream side of the blood flow with respect to a vessel of interest. In imaging multiple slices, the order of measuring the multiple imaging slices is set along the direction in which the width is extended.

Abstract: A reception-side apparatus includes: M receive antennas; and a processor configured to execute a first process of acquiring a first signal received from a first transmission-side apparatus from among signals simultaneously received from the N transmission-side apparatuses by receive diversity processing, and acquiring first data by demodulating and decoding the first signal. In the case of N>M, the processor acquires, for each of all patterns of a combination of a first signal, second signals from M?1 transmission-side apparatuses which are to be cancelled by receive diversity processing and third signals from N?M transmission-side apparatuses which are not to be cancelled by the receive diversity processing, a power ratio of power of the first signal relative to total power of the second and third signals based on a predetermined weight and a channel estimate of each signal, and selects a combination with the largest power ratio from among all the patterns.

Abstract: A wireless communication control method suppresses interference using an MMSE weight in an environment of wireless communication where the number of transmission stations transmitting a signal to a receiving station is larger than the number of reception antennas of the receiving station. The receiving station calculates power of an interference signal included in a signal received by the receiving station from the transmission stations the number of which is larger than the number of reception antennas, the interference signal corresponding to a part by which the number of transmission stations exceeds the number of reception antennas. The receiving station calculates the MMSE weight depending on the power of the interference signal, recalculates the power of the interference signal using the MMSE weight, and recalculates the MMSE weight depending on the recalculated power of the interference signal.

Abstract: An information processing apparatus provided with a display portion including a plurality of sub-pixels every pixel, connected to an output apparatus for presenting an image displayed on the display portion to a user through a lens, and producing the image to be displayed on the display portion receives source image data becoming an object of display, obtains a corresponding pixel on the source image data by information on a position of the sub-pixel and a predetermined conversion expression every sub-pixel included in a pixel with respect to the respective pixels constituting corrected image data, and determines luminances of the respective sub-pixels based on a pixel value of the pixel on the source image obtained every sub-pixel, thereby producing the corrected image data.

Abstract: To solve a problem that when there is an error in a mounting position in mounting a lens and thus an optical axis of the lens and a center of a display is shifted, centers of images seen by the left and right eyes of a user individually, are shifted and thus an intended sense of distance cannot be presented to the user. An output apparatus includes a display portion including a plurality of sub-pixels every pixel, and a lens arranged on a display surface side of the display portion, and outputs information on an assembly error representing position shift between an optical axis of the lens and a center of the display portion. An information processing apparatus produces corrected image data obtained by correcting image data becoming an object of display based on the information on the assembly error output from the output apparatus.

Abstract: An information processing apparatus generates a reference image including information to be presented to a user in accordance with a first attitude of an HMD identified at a first point in time. Based on the difference between the first attitude and a second attitude of the HMD identified at a second point in time after the first point in time, the information processing apparatus generates from the reference image a display image to be displayed on the HMD. Upon generation of the display image, the later the timing for displaying a specific image in the display image displayed on the HMD, the larger the amount of displacement is made by the information processing apparatus between the position of the specific pixel in the display image and the position of a corresponding image in the reference image serving as the source from which to set the pixel value of the specific pixel.

Abstract: To solve a problem that when there is an error in a mounting position in mounting a lens and thus an optical axis of the lens and a center of a display is shifted, centers of images seen by the left and right eyes of a user individually, are shifted and thus an intended sense of distance cannot be presented to the user. An output apparatus includes a display portion including a plurality of sub-pixels every pixel, and a lens arranged on a display surface side of the display portion, and outputs information on an assembly error representing position shift between an optical axis of the lens and a center of the display portion. An information processing apparatus produces corrected image data obtained by correcting image data becoming an object of display based on the information on the assembly error output from the output apparatus.

Abstract: A position/posture acquiring unit of image generating apparatus acquires information on the position and posture of the head of a user. A view screen control unit sets a view screen according to the point of view of a user. An original image operating unit disposes an original image in a virtual space and moves the position thereof in response to movement of the point of view of the user. In addition, the original image operating unit calculates the amount of displacement of pixels in such a manner that an object looks fixed. Thereby, the original image operating unit sets a reference vector for each pixel of the image plane. The original image operating unit decides the reference vector by interpolation regarding a pixel for which the reference vector is not set. A displayed image generating unit carries out mapping of the original image onto the view screen by using the obtained reference vectors to generate a displayed image. An output unit outputs the displayed image.

Abstract: A marker detection block 20 scans a taken image of a plurality of markers of a fixture worn on the head of a user so as to detect a two-dimensional coordinate on the taken image of the plurality of markers. A viewpoint position correction block 30 corrects a viewpoint position of the user without use of a coordinate in a Z direction of the markers but by use of the detected two-dimensional coordinate of the plurality of markers. A stereoscopic image generation block 40 generates a parallax image obtained when a three-dimensional object is viewed from the corrected viewpoint position.

Abstract: A position/posture acquiring unit of image generating apparatus acquires information on the position and posture of the head of a user. A view screen control unit sets a view screen according to the point of view of a user. An original image operating unit disposes an original image in a virtual space and moves the position thereof in response to movement of the point of view of the user. In addition, the original image operating unit calculates the amount of displacement of pixels in such a manner that an object looks fixed. Thereby, the original image operating unit sets a reference vector for each pixel of the image plane. The original image operating unit decides the reference vector by interpolation regarding a pixel for which the reference vector is not set. A displayed image generating unit carries out mapping of the original image onto the view screen by using the obtained reference vectors to generate a displayed image. An output unit outputs the displayed image.

Abstract: An information processing apparatus 10 generates a reference image including information to be presented to a user in accordance with a first attitude of an HMD 100 identified at a first point in time. Based on the difference between the first attitude and a second attitude of the HMD 100 identified at a second point in time after the first point in time, the information processing apparatus 10 generates from the reference image a display image to be displayed on the HMD 100. Upon generation of the display image, the later the timing for displaying a specific image in the display image displayed on the HMD 100, the larger the amount of displacement is made by the information processing apparatus 10 between the position of the specific pixel in the display image and the position of a corresponding image in the reference image serving as the source from which to set the pixel value of the specific pixel.

Abstract: An information processing apparatus provided with a display portion including a plurality of sub-pixels every pixel, connected to an output apparatus for presenting an image displayed on the display portion to a user through a lens, and producing the image to be displayed on the display portion receives source image data becoming an object of display, obtains a corresponding pixel on the source image data by information on a position of the sub-pixel and a predetermined conversion expression every sub-pixel included in a pixel with respect to the respective pixels constituting corrected image data, and determines luminances of the respective sub-pixels based on a pixel value of the pixel on the source image obtained every sub-pixel, thereby producing the corrected image data.

Abstract: To solve a problem that when there is an error in a mounting position in mounting a lens and thus an optical axis of the lens and a center of a display is shifted, centers of images seen by the left and right eyes of a user individually, are shifted and thus an intended sense of distance cannot be presented to the user. An output apparatus (12) includes a display portion including a plurality of sub-pixels every pixel, and a lens arranged on a display surface side of the display portion, and outputs information on an assembly error representing position shift between an optical axis of the lens and a center of the display portion. An information processing apparatus (11) produces corrected image data obtained by correcting image data becoming an object of display based on the information on the assembly error output from the output apparatus.

Abstract: An image generating system includes a first attitude data obtaining unit obtaining first attitude data indicating an attitude of a head-mounted display in first timing; a reference image generating unit generating a reference image showing a state of looking at a virtual three-dimensional space from a viewpoint, a position and a sight line direction of the viewpoint being identified on a basis of the first attitude data; a second attitude data obtaining unit obtaining second attitude data indicating the attitude of the head-mounted display in second timing; a corresponding position identifying unit identifying a corresponding position for each pixel within a display image to be displayed on the head-mounted display; a pixel value identifying unit identifying a pixel value of the pixel within the display image, the pixel being associated with the corresponding position; and a display image generating unit generating the display image.

Abstract: A marker detection block 20 scans a taken image of a plurality of markers of a fixture worn on the head of a user so as to detect a two-dimensional coordinate on the taken image of the plurality of markers. A viewpoint position correction block 30 corrects a viewpoint position of the user without use of a coordinate in a Z direction of the markers but by use of the detected two-dimensional coordinate of the plurality of markers. A stereoscopic image generation block 40 generates a parallax image obtained when a three-dimensional object is viewed from the corrected viewpoint position.

Abstract: An image generating system includes a first attitude data obtaining unit obtaining first attitude data indicating an attitude of a head-mounted display in first timing; a reference image generating unit generating a reference image showing a state of looking at a virtual three-dimensional space from a viewpoint, a position and a sight line direction of the viewpoint being identified on a basis of the first attitude data; a second attitude data obtaining unit obtaining second, attitude data indicating the attitude of the head-mounted display in second timing; a corresponding position identifying unit identifying a corresponding position for each pixel within a display image to be displayed on the head-mounted display; a pixel value identifying unit identifying a pixel value of the pixel within the display image, the pixel being associated with the corresponding position; and a display image generating unit generating the display image.

Abstract: A calibration plate includes a first pattern in which bars and spaces are repeated, and a second pattern in which bars having an identical width to the spaces of the first pattern and spaces having an identical width to the bars of the first pattern are repeated, wherein the first pattern and the second pattern adjoin each other, and the bars and spaces of the first pattern and the bars and spaces of the second pattern are staggered.

Abstract: A calibration plate includes a first pattern in which bars and spaces are repeated, and a second pattern in which bars having an identical width to the spaces of the first pattern and spaces having an identical width to the bars of the first pattern are repeated, wherein the first pattern and the second pattern adjoin each other, and the bars and spaces of the first pattern and the bars and spaces of the second pattern are staggered.

Abstract: The pattern exposure method formes a pattern by a combination of a reduction projection exposure system 10 and an electron beam exposure system 20. An optical strain in a region of a prescribed size exposed by the reduction projection exposure system 10 is measured by a coordinates detection system 30. A first pattern of a shot size is exposed by the reduction projection exposure system 10, and a second pattern to be superimposed on the first pattern is formed by the electron beam exposure system 20, correcting based on a correction value which is based on the optical strain in the region of the prescribed size measured by the coordinates detection system 30.

Abstract: A reticle has a transfer region and a peripheral region defined in the plane of the reticle, the transfer region being formed with a pattern to be transferred and the peripheral region being disposed surrounding the periphery of the transfer region. Reference marks for defining one virtual reference line is formed in the plane of the reticle. A transfer pattern is formed in the transfer region and includes a long linear line segment oblique to the reference line. A pair of direction designating marks is disposed in the peripheral region along a virtual straight line parallel or perpendicular to the linear line segment of the transfer pattern.