STRESS COMPENSATED OSCILLATOR CIRCUITRY AND INTEGRATED CIRCUIT USING THE SAME

    公开(公告)号:US20170331429A1

    公开(公告)日:2017-11-16

    申请号:US15227262

    申请日:2016-08-03

    Inventor: Mario MOTZ

    Abstract: A stress compensated oscillator circuitry comprises a sensor arrangement for providing a sensor output signal SSensor, wherein the sensor output signal SSensor is based on an instantaneous stress or strain component a in the semiconductor substrate, a processing arrangement for processing the sensor output signal SSensor and providing a control signal SControl depending on the instantaneous stress or strain component σ in the semiconductor substrate, and an oscillator arrangement for providing an oscillator output signal Sosc having an oscillator frequency fosc based on the control signal SControl, wherein the control signal SControl controls the oscillator output signal Sosc, and wherein the control signal SControl reduces the influence of the instantaneous stress or strain component σ in the semiconductor substrate onto the oscillator output signal Sosc, so that the oscillator circuitry provides a stress compensated oscillator output signal.

    METHOD FOR ESTIMATING STRESS OF ELECTRONIC COMPONENT
    68.
    发明申请
    METHOD FOR ESTIMATING STRESS OF ELECTRONIC COMPONENT 审中-公开
    估计电子元件应力的方法

    公开(公告)号:US20160379905A1

    公开(公告)日:2016-12-29

    申请号:US14988747

    申请日:2016-01-06

    Abstract: A method for estimating stress of an electronic component. An electronic component including first and second elements and conductive bumps is provided. Each conductive bump has two surfaces connected to the first and second elements respectively. Two adjacent conductive bumps have a pitch therebetween. The conductive bumps includes a first conductive bump and second conductive bumps. A stress value of the first conductive bump related to a testing parameter is calculated. A stress value of each second conductive bump related to the testing parameter is calculated according to a first calculating formula. The first calculating formula is σ 2 = L D - 2  r  σ 1 , σ2 is the stress of each second conductive bump, L is a beeline distance between each second conductive bump and the first conductive bump, D is an average value of the pitches of the conductive bumps, r is a radius of each surface, and σ1 is the stress value of the first conductive bump.

    Abstract translation: σ2是每个第二导电凸块的应力,L是每个第二导电凸块和第一导电凸块之间的直线距离,D是导电凸块的间距的平均值,r是每个表面的半径,σ1是 第一导电凸块的应力值。

    Method and measuring system for determining deformations of a geometric body with the aid of force measuring sensors or deformation measuring sensors
    69.
    发明授权
    Method and measuring system for determining deformations of a geometric body with the aid of force measuring sensors or deformation measuring sensors 有权
    借助于力测量传感器或变形测量传感器来确定几何体变形的方法和测量系统

    公开(公告)号:US09518876B2

    公开(公告)日:2016-12-13

    申请号:US14341192

    申请日:2014-07-25

    Inventor: Kolja Wulff

    Abstract: A method for ascertaining deformations of a geometric body or for measuring forces or torques acting thereon using force measuring sensors or deformation measuring sensors. A plurality of such sensors are arranged on the geometric body in at least two groups. A first group of sensors registers forces acting on the geometric body or deformations of the geometric body in a first spatial direction with reference to a coordinate system fixed relative to the geometric body. A second group of sensors registers forces acting on the geometric body or deformations thereof in a second spatial direction with reference to the coordinate system fixed relative to the geometric body, which is independent of the first spatial direction. Signal outputs of the sensors are compared to one another for the purpose of registering and evaluating signals and for determining or assessing force components or deformation components acting in different spatial directions.

    Abstract translation: 用于确定几何体的变形或使用力测量传感器或变形测量传感器测量作用于其上的力或力的方法。 多个这样的传感器至少在两组中布置在几何体上。 参考相对于几何体固定的坐标系,第一组传感器记录在第一空间方向上作用于几何体或几何体的变形的力。 参考相对于独立于第一空间方向的几何体固定的坐标系,第二组传感器记录作用在几何体上的力或者在第二空间方向上的变形。 将传感器的信号输出彼此进行比较,以便注册和评估信号,并用于确定或评估在不同空间方向上作用的力分量或变形分量。

    TENSILE STRESS MEASUREMENT DEVICE WITH ATTACHMENT PLATES AND RELATED METHODS
    70.
    发明申请
    TENSILE STRESS MEASUREMENT DEVICE WITH ATTACHMENT PLATES AND RELATED METHODS 有权
    具有附件板的拉伸应变测量装置及相关方法

    公开(公告)号:US20160223444A1

    公开(公告)日:2016-08-04

    申请号:US14610068

    申请日:2015-01-30

    CPC classification number: G01N3/08 G01L1/005 G01N3/066 H01L23/3107

    Abstract: A tensile stress measurement device is to be attached to an object to be measured. The tensile stress measurement device may include an IC having a semiconductor substrate and tensile stress detection circuitry, the semiconductor substrate having opposing first and second attachment areas. The tensile stress measurement device may include a first attachment plate coupled to the first attachment area and extending outwardly to be attached to the object to be measured, and a second attachment plate coupled to the second attachment area and extending outwardly to be attached to the object to be measured. The tensile stress detection circuitry may be configured to detect a tensile stress imparted on the first and second attachment plates when attached to the object to be measured.

    Abstract translation: 将拉伸应力测量装置连接到被测量物体上。 拉伸应力测量装置可以包括具有半导体衬底和拉伸应力检测电路的IC,该半导体衬底具有相对的第一和第二附接区域。 拉伸应力测量装置可以包括联接到第一附接区域并向外延伸以连接到待测量物体的第一附接板,以及联接到第二附接区域并向外延伸以附接到物体的第二附接板 待测。 拉伸应力检测电路可以被配置为检测当附接到待测量物体时施加在第一和第二附接板上的拉伸应力。

Patent Agency Ranking