会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 54. 发明授权
    • On-machine measurement method and measurement apparatus
    • 在线测量方法和测量装置
    • US08589103B2
    • 2013-11-19
    • US12778150
    • 2010-05-12
    • Atsushi MatsubaraIwao YamajiDaisuke KonoYusuke Koike
    • Atsushi MatsubaraIwao YamajiDaisuke KonoYusuke Koike
    • G01R13/00
    • G01B11/24B23Q17/20B23Q17/24G01B21/045
    • A reference mirror 21 is disposed on a table 2, a first laser displacement sensor L1 for measuring a machined surface of a workpiece W and a second laser displacement sensor L2 for measuring a reference surface of the reference mirror 21 are disposed to a tool holder 3. A measurement motion applying section 24 causes the table 2 and the tool holder 3 to relatively move in a sinusoidal trajectory, and a sensitivity calculating section 28 calculates sensitivity of the first laser displacement sensor L1 based on machined-surface displacement data and reference-surface displacement data which are measured during the relative movement. Subsequently, an actual shape data calculating section 29 corrects the machined-surface displacement data based on the calculated sensitivity, and calculates actual shape data of the machined surface by taking the difference between the corrected machined-surface displacement data and the reference-surface displacement data.
    • 将参考反射镜21设置在工作台2上,用于测量工件W的加工表面的第一激光位移传感器L1和用于测量参考反射镜21的基准面的第二激光位移传感器L2设置在工具架3上 测量运动施加部分24使得工作台2和工具架3以正弦轨迹相对移动,灵敏度计算部分28基于加工表面位移数据和参考表面来计算第一激光位移传感器L1的灵敏度 在相对运动期间测量的位移数据。 随后,实际形状数据计算部分29根据计算出的灵敏度校正加工面位移数据,并且通过将校正后的加工面位移数据与基准面位移数据之间的差分来计算加工面的实际形状数据 。
    • 55. 发明授权
    • Method and apparatus for biogenic substance concentration measurement
    • 生物来源物质浓度测定方法和装置
    • US07884934B2
    • 2011-02-08
    • US12828775
    • 2010-07-01
    • Masaru MinamiguchiTatsurou KawamuraMasahiko ShioiAtsushi Matsubara
    • Masaru MinamiguchiTatsurou KawamuraMasahiko ShioiAtsushi Matsubara
    • G01J4/00G01N21/00
    • G01N21/554G01N21/553G01N21/648G01N21/658G01N33/54373
    • The present invention provides an apparatus for biogenic substance concentration measurement including: a cell including therein a first region, a second region, and a test solution retention space; a light source; a polarizing plate; and a photoreceiver, in which a plurality of first metallic nanorods each having a first antibody on a surface thereof are immobilized on the first region, a plurality of second metallic nanorods each having a second antibody on a surface thereof are immobilized on the second region, the respective long axes of the plurality of first metallic nanorods are aligned in the same direction, the respective long axes of the plurality of second metallic nanorods are aligned in the same direction, the long-axis direction of the first metallic nanorod is orthogonal to the long-axis direction of the second metallic nanorod, and at least one of the polarizing plate and the cell is capable of rotation with an optical axis as the rotation axis.
    • 本发明提供一种用于生物源物质浓度测量的装置,包括:包含第一区域,第二区域和测试溶液保留空间的单元; 光源; 偏振片; 以及光接收器,其中在其表面上分别具有第一抗体的多个第一金属纳米棒固定在第一区域上,在其表面上分别具有第二抗体的多个第二金属纳米棒被固定在第二区域上, 多个第一金属纳米棒的各自的长轴在同一方向上排列,多个第二金属纳米棒的各个长轴在相同的方向上排列,第一金属纳米棒的长轴方向与 第二金属纳米棒的长轴方向,并且偏振板和单元中的至少一个能够以光轴作为旋转轴旋转。
    • 59. 发明授权
    • Air-fuel ratio control apparatus
    • 空燃比控制装置
    • US06435171B2
    • 2002-08-20
    • US09736400
    • 2000-12-15
    • Shinichi KitajimaAtsushi MatsubaraAsao UkaiHideyuki Takahashi
    • Shinichi KitajimaAtsushi MatsubaraAsao UkaiHideyuki Takahashi
    • F02B7508
    • F02D41/1441F02D41/1456F02D41/222Y02T10/40
    • The present invention increases the frequency of the LAF sensor deterioration determination in the case that air-fuel ratio control is being carried out while the deterioration of the LAF sensor is being monitored. When the monitor conditions are no longer satisfied during the deterioration determination of the LAF sensor (as shown in (a) and (b) of FIG. 6), the LAF prohibition timer is operated (as shown in (c) of FIG. 6), and switching to a lean burn is prohibited for a predetermined time interval (for example, 7 seconds), and in addition, after the LAF sensor deterioration determination has completed, after passage of a time interval shorter than this predetermined time interval (for example, 2 seconds) (as shown in figures (c) and (d) of FIG. 6), a lean burn is permitted. Thereby, in the case that monitor conditions are no longer satisfied during monitoring, because the lean burn is prohibited, unlike conventional technology, there is no immediate switch to a lean burn, and therefore, the frequency of the deterioration determination of the LAF sensor can be increased.
    • 本发明在监视LAF传感器的劣化的同时进行空燃比控制的情况下,提高LAF传感器劣化判定的频率。 当在LAF传感器的劣化判定(如图6的(a)和(b)所示)中不再满足监视条件时,LAF禁止定时器被操作(如图6的(c)所示) ),并且在预定时间间隔(例如7秒)内禁止切换到稀燃,此外,在LAF传感器劣化判定结束后,经过比该预定时间间隔短的时间间隔(对于 例如2秒)(如图6(c)和(d)所示),允许稀燃。 因此,在监视期间不再满足监视条件的情况下,由于禁止稀燃,与传统技术不同,不存在立即切换到稀薄燃烧,因此LAF传感器的劣化判定的频率可以 增加。