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
    • 1. 发明授权
    • Angular velocity sensor and method of fabrication thereof
    • 角速度传感器及其制造方法
    • US07456555B2
    • 2008-11-25
    • US11338345
    • 2006-01-24
    • Hideryo MatsudoMasahiro YoshimatsuTakahiro InoueKenichi Kikuchi
    • Hideryo MatsudoMasahiro YoshimatsuTakahiro InoueKenichi Kikuchi
    • H03H9/21
    • G01C19/5628G01C19/5621
    • The present invention provides an angular velocity sensor and a method of fabrication thereof that facilitates the work of affixing a tuning-fork-type crystal element and adjusting the same, preventing waste caused by scrapping defective products and also encouraging miniaturization of components. The angular velocity sensor comprises: a tuning-fork-type crystal element which is provided with a drive electrode for exciting the vibration of the tuning fork and a sensor electrode for detecting an electrical charge that is generated in response to an angular velocity that is being detected; an independent pedestal to which a main surface of a tuning-fork base portion of the tuning-fork-type crystal element is previously affixed to form an integrated unit; a main package for surface mounting, in which the tuning-fork-type crystal element is hermetically sealed and which has a cavity with an inner base surface to which the pedestal integrated with the tuning-fork-type crystal element is affixed; and an IC having an oscillation circuit for driving the tuning-fork-type crystal element and a signal processing circuit for creating a signal in correspondence to the angular velocity corresponding to the electrical charge, and which is also disposed either inside or outside the package. The pedestal has a weight and/or shape that ensures that the center of gravity of the tuning-fork-type crystal element that is integrated therewith moves towards the tuning-fork base portion side, maintaining the horizontal alignment of the tuning-fork-type crystal element.
    • 本发明提供了一种角速度传感器及其制造方法,其有利于固定音叉型晶体元件并进行调节,从而防止由于废品而产生的废弃物,并且也促进了部件的小型化。 角速度传感器包括:音叉型晶体元件,其设置有用于激发音叉的振动的驱动电极和用于检测响应于正在进行的角速度而产生的电荷的传感器电极 检测到 预先固定音叉型晶体元件的音叉基部的主表面的独立基座,以形成一体的单元; 用于表面安装的主要包装件,其中音叉型晶体元件被气密地密封,并且具有一个具有内基座表面的空腔,与该音叉型晶体元件集成的基座固定到该内表面; 以及IC,其具有用于驱动音叉型晶体元件的振荡电路和用于根据与电荷对应的角速度产生信号的信号处理电路,并且还配置在封装的内部或外部。 基座具有重量和/或形状,其确保与其一体的音叉型晶体元件的重心朝向音叉基座部分侧移动,保持音叉型的水平对准 水晶元素。
    • 2. 发明申请
    • Angular velocity sensor and method of fabrication thereof
    • 角速度传感器及其制造方法
    • US20060162449A1
    • 2006-07-27
    • US11338345
    • 2006-01-24
    • Hideryo MatsudoMasahiro YoshimatsuTakahiro InoueKenichi Kikuchi
    • Hideryo MatsudoMasahiro YoshimatsuTakahiro InoueKenichi Kikuchi
    • G01P15/08
    • G01C19/5628G01C19/5621
    • The present invention provides an angular velocity sensor and a method of fabrication thereof that facilitates the work of affixing a tuning-fork-type crystal element and adjusting the same, preventing waste caused by scrapping defective products and also encouraging miniaturization of components. The angular velocity sensor comprises: a tuning-fork-type crystal element which is provided with a drive electrode for exciting the vibration of the tuning fork and a sensor electrode for detecting an electrical charge that is generated in response to an angular velocity that is being detected; an independent pedestal to which a main surface of a tuning-fork base portion of the tuning-fork-type crystal element is previously affixed to form an integrated unit; a main package for surface mounting, in which the tuning-fork-type crystal element is hermetically sealed and which has a cavity with an inner base surface to which the pedestal integrated with the tuning-fork-type crystal element is affixed; and an IC having an oscillation circuit for driving the tuning-fork-type crystal element and a signal processing circuit for creating a signal in correspondence to the angular velocity corresponding to the electrical charge, and which is also disposed either inside or outside the package. The pedestal has a weight and/or shape that ensures that the center of gravity of the tuning-fork-type crystal element that is integrated therewith moves towards the tuning-fork base portion side, maintaining the horizontal alignment of the tuning-fork-type crystal element.
    • 本发明提供了一种角速度传感器及其制造方法,其有利于固定音叉型晶体元件并进行调节,从而防止由于废品而产生的废弃物,并且也促进了部件的小型化。 角速度传感器包括:音叉型晶体元件,其设置有用于激发音叉的振动的驱动电极和用于检测响应于正在进行的角速度而产生的电荷的传感器电极 检测到 预先固定音叉型晶体元件的音叉基部的主表面的独立基座,以形成一体的单元; 用于表面安装的主要包装件,其中音叉型晶体元件被气密地密封,并且具有一个具有内基座表面的空腔,与该音叉型晶体元件集成的基座固定到该内表面; 以及IC,其具有用于驱动音叉型晶体元件的振荡电路和用于根据与电荷对应的角速度产生信号的信号处理电路,并且还配置在封装的内部或外部。 基座具有重量和/或形状,其确保与其一体的音叉型晶体元件的重心朝向音叉基座部分侧移动,保持音叉型的水平对准 水晶元素。
    • 10. 发明授权
    • Electronic camera and focus control method which minimizes the time required for adjusting a focus
    • 电子照相机和聚焦控制方法,可最大限度地减少调整焦点所需的时间
    • US08514320B2
    • 2013-08-20
    • US12800217
    • 2010-05-11
    • Kenichi KikuchiKazuhiko Sugimoto
    • Kenichi KikuchiKazuhiko Sugimoto
    • G03B13/00H04N5/232
    • H04N5/23212G02B7/365G02B7/38G03B13/36
    • An electronic camera includes a shutter button. When the shutter button is half-depressed, a focal level of an object is determined on the basis of an image signal outputted from an imaging device, and a moving start position of a focus lens is settled on the basis of the determination result. More specifically, a correction amount of the moving start position is settled in accordance with the determination result of the focal level, and a position that subtracts the correction amount from a lens position at a time the shutter button being half-depressed is settled as the moving start position. The higher the focal level, the more reduced the correction amount. The focus lens gradually moves toward the imaging device from the settled moving start position, and a focal position is specified on the basis of the image signal outputted from the imaging device at each step.
    • 电子照相机包括快门按钮。 当快门按钮被半按下时,基于从成像装置输出的图像信号确定对象的焦点级别,并且基于确定结果来确定聚焦透镜的移动开始位置。 更具体地,根据焦点级别的确定结果确定移动开始位置的校正量,并且将半按下的快门按钮的透镜位置的校正量减去的位置作为 移动开始位置。 焦点水平越高,校正量越少。 聚焦透镜从稳定的移动开始位置逐渐朝向成像装置移动,并且基于在每个步骤从成像装置输出的图像信号来指定焦点位置。