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    • 2. 发明授权
    • Vibration-sensing element and vibration-sensing gyro using the same
    • 振动传感元件和振动感应陀螺仪使用相同
    • US5533397A
    • 1996-07-09
    • US329385
    • 1994-10-26
    • Nobuyoshi SugitaniMasayuki OkuwaTakeshi MorikawaYutaka Nonomura
    • Nobuyoshi SugitaniMasayuki OkuwaTakeshi MorikawaYutaka Nonomura
    • G01C19/56G01C19/5607H03H9/02H03H9/24G01P9/04
    • G01C19/5607
    • The invention provides a vibration-sensing gyro, where resonance frequencies of tines are adjusted adequately in a simple manner. A vibration-sensing gyro (10) of the invention is made of a light alloy plate like duralumin and includes a first tine (14) and a second tine (16) disposed parallel to each other and projecting from a base (12). When the first tine (14) has a length l1, a width w1 along the X axis, and a thickness t1 and the second tine (16) has a length l2, a width w2 along the X axis, and a thickness t2 (=t1), the first tine (14) and the second tine (16) hold the relationship of l2/.sqroot.t2=l1/.sqroot.w1. In other words, the tines (14,16) and the base (12) are manufactured to satisfy this relationship. Such definition of the dimensions makes a resonance frequency fx1 of the first tine along the X axis coincide with a resonance frequency fy 2 of the second tine 16 along the Y axis.
    • 本发明提供了一种振动感测陀螺仪,其中以简单的方式适当地调节尖齿的共振频率。 本发明的振动感应陀螺仪(10)由轻质合金板如硬铝制成,并包括彼此平行并从底座(12)伸出的第一齿(14)和第二齿(16)。 当第一齿(14)具有长度l1时,沿X轴的宽度w1和厚度t1和第二齿16具有长度l2,沿X轴的宽度w2和厚度t2(= t1),第一齿(14)和第二齿(16)保持l2 / 2ROOT t2 = l1 / 2ROOT w1的关系。 换句话说,制造齿(14,16)和基座(12)以满足这种关系。 尺寸的这种定义使得沿着X轴的第一齿的共振频率fx1与第二齿16沿Y轴的共振频率fy 2一致。
    • 3. 发明授权
    • Vibration-sensing device method of adjusting the same and angular
velocity sensor taking advantage of the same
    • 振动感应装置的调整方法和角速度传感器的优点相同
    • US5635642A
    • 1997-06-03
    • US518840
    • 1995-08-24
    • Yutaka NonomuraTakeshi MorikawaMasayuki OkuwaKouji Tsukada
    • Yutaka NonomuraTakeshi MorikawaMasayuki OkuwaKouji Tsukada
    • G01C19/56G01C19/5628G01P3/44
    • G01C19/5607
    • A vibration-sensing device (10) with high sensitivity includes a torsion bar (16) fixed on both ends thereof to a frame, a tuning fork-shaped vibrating member (12) joined with and supported by the torsion bar (16), and first and second torsion vibrating bodies (14,15) symmetrically projected from the torsion bar (16). The torsion bar (16), the tuning fork-shaped vibrating member (12), and the torsion vibrating bodies (14,15) constitute a torsion vibrating system. The application of an angular velocity to the vibration-sensing device (10) under the condition of plane vibrations of first and second vibrating tines (12a, 12b) of the first tuning fork-shaped vibrating member (12) along an X axis generates Coriolis forces to drive torsion vibration of the first tuning fork-shaped vibrating member (12) round the torsion bar (16), thereby driving torsion vibration corresponding to the angular velocity in the torsion vibrating system. The torsion vibration is amplified by the first and second torsion vibrating bodies (14,15) and detected by torsion vibration-detecting piezoelectric elements (20a,20b) attached to the torsion vibrating bodies (14,15). An angular velocity sensor using the vibration-sensing device, and a method of adjusting the sensitivity of the device are also provided.
    • 具有高灵敏度的振动检测装置(10)包括固定在其框架上的扭杆(16),与扭杆(16)接合并由扭杆(16)支撑的音叉形振动件(12),以及 从扭杆(16)对称地突出的第一和第二扭转振动体(14,15)。 扭杆(16),音叉形振动部件(12)和扭转振动体(14,15)构成扭转振动系统。 在第一音叉形振动件(12)的X轴的第一和第二振动尖(12a,12b)的平面振动的条件下,沿着X轴向角度速度施加角速度产生科里奥利 驱动第一音叉形振动件(12)在扭力杆(16)周围的扭转振动的力,由此驱动与扭转振动系统中的角速度相对应的扭转振动。 扭转振动由第一和第二扭转振动体(14,15)放大,并通过安装在扭转振动体(14,15)上的扭转振动检测压电元件(20a,20b)检测。 还提供了使用振动感测装置的角速度传感器和调节装置的灵敏度的方法。
    • 4. 发明授权
    • Angular velocity detecting apparatus
    • 角速度检测装置
    • US06125701A
    • 2000-10-03
    • US248759
    • 1999-02-12
    • Nobuyoshi SugitaniYutaka Nonomura
    • Nobuyoshi SugitaniYutaka Nonomura
    • G01C19/56G01C19/5628G01P9/00
    • G01C19/5607
    • In a three-dimensional coordinate space of X, Y, and Z, there are provided a vibrator having a vibrator base extending in the X-direction on the XY plane, a first vibrating bar projecting in the positive Y direction from the vibrator base and having a first natural frequency in the X-directions, and a second vibrating bar projecting in the negative Y direction from the vibrator base and having a second natural frequency in the X-directions, different from the first natural frequency; excitation means for exciting either the first or second vibrating bar in the Z-directions or in the X-directions; detection means for detecting the amplitude of vibration orthogonal to the Y-directions and to the directions of excitation of vibration caused in the first or second vibrating bar by the excitation means; and angular velocity calculating means for calculating an angular velocity of rotation about an axis in the Y-direction from the magnitude of the amplitude detected by the detection means, and the geometric dimensions of the first and second vibrating bars are determined so as to prevent the vibrator base from vibrating in the Z-directions when the first or second vibrating bar is excited by the excitation means. As so constructed, the angular velocity can be detected with high accuracy.
    • 在X,Y,Z的三维坐标空间中,设置有具有在XY平面上沿X方向延伸的振动体基体的振动器,从振动器基体沿正Y方向突出的第一振动棒, 在X方向上具有第一固有频率,以及第二振动棒,其在Y方向上从振子基座突出,并且在X方向上具有与第一固有频率不同的第二固有频率; 励磁装置,用于在Z方向或X方向上激励第一或第二振动杆; 检测装置,用于检测与Y方向正交的振动的振幅以及由激励装置在第一或第二振动棒中产生的振动的激励方向; 以及角速度计算装置,用于根据由检测装置检测到的振幅的大小计算Y方向上的轴的旋转角速度,并且确定第一和第二振动条的几何尺寸,以防止 当所述第一或第二振动棒被所述激励装置激励时,所述振动器基座在Z方向上振动。 如此构造,可以高精度地检测角速度。
    • 5. 发明授权
    • Multilayered magnetic sensor having conductive layer within megnetic
layer
    • 多层磁传感器在磁性层内具有导电层
    • US5838154A
    • 1998-11-17
    • US615954
    • 1996-03-14
    • Takeshi MorikawaYuji NishibeHideya YamaderaYutaka NonomuraMasaharu TakeuchiJiro Sakata
    • Takeshi MorikawaYuji NishibeHideya YamaderaYutaka NonomuraMasaharu TakeuchiJiro Sakata
    • G01D5/20G01R33/02H01L43/00
    • G01R33/02
    • A magnetic sensor element 1 includes a substrate 10, a conductive layer 12 of a conductive material, and a magnetic layer 11 of a magnetic material, which encloses the conductive layer 12. AC is applied to the element from a drive power source 50, and a detector 60 detects an impedance change due to an external magnetic field. The magnetic layer 11 is bestowed with magnetic anisotropy in a direction orthogonal to the direction of energization of the element 1. With the provision of the conductive layer 12 of conductive material and also with magnetic anisotropy imparted to the magnetic layer 1, the element 1 may be made a low resistivity element. A reactance change and a resistance change of the element due to an external magnetic field change, thus can be effectively detected in drive frequencies two orders of magnitude lower than in the case of a prior art magnetic sensor element. The magnetic anisotropy of the magnetic layer 11 is controlled to prevent magnetic field detection dynamic range variations with drive frequency.
    • 磁传感器元件1包括衬底10,导电材料的导电层12和磁性材料的磁性层11,其包围导电层12.AC从驱动电源50施加到元件,并且 检测器60检测由外部磁场引起的阻抗变化。 磁性层11在与元件1的通电方向正交的方向上具有磁各向异性。通过提供导电材料的导电层12以及赋予磁性层1的磁各向异性,元件1可以 制成低电阻率元件。 由于外部磁场变化引起的元件的电抗变化和电阻变化,因此可以在比现有技术的磁性传感器元件的情况下低两个数量级的驱动频率中被有效地检测。 控制磁性层11的磁各向异性以防止磁场检测与驱动频率的动态范围变化。
    • 6. 发明授权
    • Force transducer
    • 力传感器
    • US5341688A
    • 1994-08-30
    • US995826
    • 1992-12-23
    • Takeshi MorikawaKouji TsukadaYutaka NonomuraYoshiteru Omura
    • Takeshi MorikawaKouji TsukadaYutaka NonomuraYoshiteru Omura
    • G01L1/18H01L29/84G01L1/16
    • G01L1/18
    • A force transducer comprises: an N-type silicon single crystal having a crystal face of (110) on which a force is applied; a pair of first electrodes and a pair of second electrodes mounted on the crystal face of (110) of the N-type silicon single crystal, the first electrodes facing in a direction angularly spaced by 135 degrees from a direction of of the crystal, and the second electrodes being angularly spaced by 90 degrees from the first electrodes, one of the pairs of first and second electrodes being adapted to serve as input electrodes and the other being adapted to serve as output electrodes; a force transmission block connected to the crystal face of (110) of the N-type silicon single crystal for transmitting the force perpendicularly to the crystal face; and a support bed supporting the N-type silicon single crystal and connected to the N-type silicon single crystal at a face opposite to the crystal face to which the force transmission block is connected, the support bed being in the form of a planar structure having a horizontal cross-sectional shape with a short axis and a long axis.
    • 力传感器包括:具有施加力的晶体面(110)的N型硅单晶; 一对第一电极和一对第二电极,其安装在所述N型硅单晶的(110)的晶面上,所述第一电极面向与所述N型单晶的(001)的方向成角度地间隔135度的方向 并且所述第二电极与所述第一电极成角度地间隔90度,所述一对第一和第二电极中的一个适于用作输入电极,另一个适于用作输出电极; 连接到所述N型硅单晶的(110)的晶面的力传递块,用于垂直于所述晶面传递所述力; 以及支撑N型硅单晶并且在与所述力传递块连接的晶面相对的面上与所述N型硅单晶相连的支撑床,所述支撑床为平面结构 具有短轴和长轴的水平横截面形状。
    • 10. 发明申请
    • Moving Body Posture Angle Detecting Apparatus
    • 移动体姿势检测仪
    • US20100138180A1
    • 2010-06-03
    • US11989767
    • 2006-08-01
    • Hisayoshi SugiharaYutaka NonomuraMotohiro Fujiyoshi
    • Hisayoshi SugiharaYutaka NonomuraMotohiro Fujiyoshi
    • G06F19/00G01P21/00G01P15/00G01P3/00
    • B25J9/163G05B2219/37024G05B2219/37388G05B2219/40536G05B2219/41166G05B2219/42152
    • An angular velocity detected by an angular velocity sensor (10) is integrated by a small angle matrix calculator (12) and a matrix adding calculator (14), and then restored as a posture angle (angular velocity posture angle) by a matrix posture angle calculator (16). A posture matrix is calculated by a tilt angle calculator (22) and an acceleration matrix calculator (24) and an acceleration detected by an acceleration sensor (20) is restored as a posture angle (acceleration posture angle) by a matrix posture angle calculator (26). Low pass filters (18, 28) each extract a low range component, the difference between the two is calculated by a differencer (30), and only the drift amount is extracted. A subtracter (32) removes the drift amount from the angular velocity posture angle and the result is output from an output device (34). In addition, a posture angle matrix calculator (36) converts the result to a posture matrix, which it feeds back to the matrix adding calculator (14).
    • 由角速度传感器(10)检测的角速度由小角度矩阵计算器(12)和矩阵加法运算器(14)积分,然后以姿势角(角速度姿态角)恢复矩阵姿态角 计算器(16)。 由倾斜角计算器(22)和加速度矩阵运算器(24)计算姿势矩阵,并且由矩阵姿态角计算器(20)将加速度传感器(20)检测出的加速度恢复为姿势角(加速姿势角) 26)。 低通滤波器(18,28)各自提取低范围分量,两者之间的差异由差分器(30)计算,并且仅提取漂移量。 减法器(32)从角速度姿态角度去除漂移量,结果从输出装置(34)输出。 此外,姿势角矩阵计算器(36)将结果转换成姿势矩阵,其将其反馈到矩阵添加计算器(14)。