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    • 61. 发明申请
    • MAGNETIC DETECTION COIL AND APPARATUS FOR MAGNETIC FIELD MEASUREMENT
    • 磁性检测线圈和磁场测量装置
    • US20090143665A1
    • 2009-06-04
    • US12277692
    • 2008-11-25
    • Yusuke SekiAkihiko Kandori
    • Yusuke SekiAkihiko Kandori
    • G01R33/035A61B5/05
    • G01R33/0354G01R33/04
    • It is an aspect of the present invention to provide a magnetic detection coil 1b made of a single wire of one of superconducting and metallic materials. Four second-order differential coils 21 to 24 are arranged so that a geometric figure obtained by connecting the respective centers of said four differential coils can form a parallelogram. By providing intersections 25 to 27 between said four second-order differential coils 21 to 24, the values of magnetic flux respectively penetrating said differential coils 21 to 24 are differentiated in three different directions.The present invention is able to detect magnetic signals stably, despite a current direction of the signal source.
    • 本发明的一个方面是提供一种由超导和金属材料之一的单线制成的磁检测线圈1b。 四个二阶差分线圈21至24被布置成使得通过连接所述四个差分线圈的各个中心而获得的几何图形可以形成平行四边形。 通过在所述四个二阶差分线圈21至24之间设置交叉点25至27,分别穿过所述差动线圈21至24的磁通量的值在三个不同方向上是不同的。 尽管信号源的电流方向,本发明能够稳定地检测磁信号。
    • 63. 发明申请
    • Living body inspection apparatus
    • 生活检查仪器
    • US20070038067A1
    • 2007-02-15
    • US11480518
    • 2006-07-05
    • Akihiko KandoriTsuyoshi MiyashitaKuniomi OgataAtsushi Maki
    • Akihiko KandoriTsuyoshi MiyashitaKuniomi OgataAtsushi Maki
    • A61B5/05
    • A61B5/04005A61B5/1124A61B5/1126A61B5/6826G01R33/0354
    • Living body inspection apparatus which concurrently carries out proper measurement of movement of a living body and measurement of a magnetic field emanating from the living body. It includes a movement sensor which includes magnetic field generating means for generating a magnetic field and magnetic field receiving means attached to a living body for receiving the magnetic field and measures movement of the living body based on the magnetic field emitted from the magnetic field generating means and received by the magnetic field receiving means. It also includes: a SQUID magnetometer which receives a biomagnetic field emanating from the living body; analyzing means which analyzes measurement data obtained by the movement sensor and the SQUID magnetometer; and display means which outputs a result of analysis made by the analyzing means. The magnetic field generating means is fixed in a prescribed position relative to the SQUID magnetometer.
    • 生物体检查装置同时进行生物体的运动的适当的测量以及从生物体发出的磁场的测量。 其包括运动传感器,其包括用于产生磁场的磁场产生装置和附接到生物体的磁场接收装置,用于接收磁场,并且基于从磁场产生装置发射的磁场来测量活体的运动 并由磁场接收装置接收。 它还包括:SQUID磁力计,其接收从生物体发出的生物磁场; 分析装置,分析由运动传感器和SQUID磁力计获得的测量数据; 以及显示装置,其输出由分析装置进行的分析结果。 磁场产生装置相对于SQUID磁力计固定在规定位置。
    • 64. 发明申请
    • Biomagnetic measurement apparatus
    • 生物磁测量装置
    • US20060079751A1
    • 2006-04-13
    • US11183985
    • 2005-07-19
    • Akihiko KandoriTsuyoshi MiyashitaKuniomi Ogata
    • Akihiko KandoriTsuyoshi MiyashitaKuniomi Ogata
    • A61B5/05
    • A61B5/04007A61B5/742
    • Disclosed herewith is a biomagnetic measurement apparatus capable of displaying electrical excitement as a planispheric map. (First processing 70) A CAM (current arrow map) 71 and another CAM 72 are obtained from magnetocardiogram waveforms measured from both front and back sides of a subject using the data at a point of time of an R-wave peak, then the coordinates of the CAM 72 are inverted in both x and y axis directions to obtain a CAM 73. (Second processing 78) The coordinates of each of the CAMs 71 and 73 are converted to polar coordinates to obtain CAMs 74 and 75 at both front and back sides of the subject. After that, the CAM 74 is adjusted to the CAM 76 in scale to obtain a CAM 76. (Third processing 79) The CAMs 74 and 76 are combined. Then, the CAM data at measuring points on each measuring-points-missing radius vector is inserted through an arithmetic processing by interpolation so that CAM data at every measuring point on a planispheric chart 77 is connected to each another consecutively and smoothly. This is why CAMs at both front and back sides of the subject are displayed on one planispheric chart.
    • 本发明公开了一种能够显示电兴奋作为平面图的生物磁测量装置。 (第一处理70)使用在R波峰值的时间点的数据从从被检体的前侧和后侧测量的磁心形图波形获得CAM(当前箭头图)71和另一CAM 72,然后坐标 CAM 72在x和y轴方向上都被反转,以获得CAM 73。 (第二处理78)每个CAM71和73的坐标被转换为极坐标,以在对象的前后两侧获得CAM 74和75。 之后,将CAM 74按比例调整到CAM76以获得CAM76。 (第三处理79)组合CAM 74和76。 然后,通过插补的运算处理插入每个测量点缺失半径向量上的测量点处的CAM数据,使得平面图77上的每个测量点的CAM数据彼此连续且平滑地连接。 这就是为什么主题的前后两侧的CAM显示在一个平面图上。
    • 65. 发明申请
    • Living body measurement system by light, image display methodology and program
    • 生命体测量系统采用光,图像显示方法和程序
    • US20050261578A1
    • 2005-11-24
    • US11130215
    • 2005-05-17
    • Tsuyoshi YamamotoAkihiko Kandori
    • Tsuyoshi YamamotoAkihiko Kandori
    • G01N21/17A61B5/00A61B5/11A61B5/145A61B5/1455A61B10/00A61B5/02A61B5/05
    • A61B5/0073A61B5/14553
    • A method is provided which permits a reproduction time to verify a measurement image in a living body light measurement to be shortened, an effective performance check to be made, and periods containing noise and periods where tasks are not performed correctly to be eliminated in a short time. A moving image of a subject is photographed in a first trial period (rest period when the subject is at rest and task period when a task is given to the subject) and a second trial period (rest period when the subject is at rest and task period when a task is given to the subject), and a moving image in the first trial period and a moving image in the second trial period are displayed effectively simultaneously. The performance check in each trial period can be performed efficiently, and the moving image reproduction time can be shortened. Further, periods containing noise and periods where tasks are not performed correctly can be eliminated in a shorter time than in the prior art.
    • 提供了一种方法,其允许缩短生物体光测量中的测量图像的再现时间,进行有效的性能检查,以及包含噪声的周期和不正确执行任务的周期在短时间内被消除的方法 时间。 拍摄对象的运动图像在第一试验期间(休息期间,当对象被放置于受试者的任务时的任务期间)和第二试验期间(休息期间 显示有效地同时显示第一试用期间的运动图像和第二试用期间的运动图像。 可以有效地执行每个试用期的性能检查,并且可以缩短运动图像再现时间。 此外,与现有技术相比,可以在更短的时间内消除包含噪声和任务不正确执行的周期的周期。