MICRO-ELECTRO-MECHANICAL-SYSTEM TEMPERATURE SENSOR
    1.
    发明申请
    MICRO-ELECTRO-MECHANICAL-SYSTEM TEMPERATURE SENSOR 失效
    微电子机械系统温度传感器

    公开(公告)号:US20120076172A1

    公开(公告)日:2012-03-29

    申请号:US12892406

    申请日:2010-09-28

    IPC分类号: G01K5/52

    CPC分类号: G01K5/52

    摘要: The present invention provides a micro-electro-mechanical-system (MEMS) temperature sensor that employs a suspended spiral comprising a material with a positive coefficient of thermal expansion. The thermal expansion of the suspended spiral is guided to by a set of guideposts to provide a linear movement of the free end of the suspended spiral, which is converted to an electrical signal by a set of conductive rotor azimuthal fins that are interdigitated with a set of conductive stator azimuthal fins by measuring the amount of capacitive coupling therebetween. Real time temperature may thus be measured through the in-situ measurement of the capacitive coupling. Optionally, the MEMS temperature sensor may have a ratchet and a pawl to enable ex-situ measurement.

    摘要翻译: 本发明提供了一种微电子机械系统(MEMS)温度传感器,其采用悬浮螺旋,其包括具有正的热膨胀系数的材料。 悬挂螺旋的热膨胀由一组导轨引导以提供悬挂螺旋的自由端的线性运动,其被一组导电转子方位角翅片转换成电信号,所述导电转子方位角翅片与组相互指向 通过测量导电定子方位翅片之间的电容耦合量。 因此可以通过电容耦合的原位测量来测量实时温度。 可选地,MEMS温度传感器可以具有棘轮和棘爪以使得能够进行非原位测量。

    Enhancement of performance of a conductive wire in a multilayered substrate
    2.
    发明授权
    Enhancement of performance of a conductive wire in a multilayered substrate 失效
    提高多层基板中的导线的性能

    公开(公告)号:US07511378B2

    公开(公告)日:2009-03-31

    申请号:US11442911

    申请日:2006-05-30

    IPC分类号: H01L23/48

    摘要: An electronic structure having wiring, and an associated method of designing the structure, for limiting a temperature gradient in the wiring. The electronic structure includes a substrate having a layer that includes a first and second wire which do not physically touch each other. The first and second wires are adapted to be at an elevated temperature due to Joule heating in relation to electrical current density in the first and second wires. The first wire is electrically and thermally coupled to the second wire by an electrically and thermally conductive structure that exists outside of the layer. The width of the second wire is tailored so as to limit a temperature gradient in the first wire to be below a threshold value that is predetermined to be sufficiently small so as to substantially mitigate adverse effects of electromigration in the first wire.

    摘要翻译: 具有布线的电子结构以及用于限制布线中的温度梯度的结构设计的相关方法。 该电子结构包括具有包括不物理接触的第一和第二线的层的衬底。 由于焦耳加热相对于第一和第二导线中的电流密度,第一和第二导线适于处于升高的温度。 第一导线通过存在于层之外的导电和导热结构电耦合到第二导线。 第二导线的宽度被调整为将第一导线中的温度梯度限制在低于预定足够小的阈值,以便基本上减轻第一线中的电迁移的不利影响。

    Micro-electro-mechanical-system temperature sensor
    3.
    发明授权
    Micro-electro-mechanical-system temperature sensor 失效
    微机电系统温度传感器

    公开(公告)号:US08480302B2

    公开(公告)日:2013-07-09

    申请号:US12892406

    申请日:2010-09-28

    IPC分类号: G01K5/00 G01K7/00

    CPC分类号: G01K5/52

    摘要: The present invention provides a micro-electro-mechanical-system (MEMS) temperature sensor that employs a suspended spiral comprising a material with a positive coefficient of thermal expansion. The thermal expansion of the suspended spiral is guided to by a set of guideposts to provide a linear movement of the free end of the suspended spiral, which is converted to an electrical signal by a set of conductive rotor azimuthal fins that are interdigitated with a set of conductive stator azimuthal fins by measuring the amount of capacitive coupling therebetween. Real time temperature may thus be measured through the in-situ measurement of the capacitive coupling. Optionally, the MEMS temperature sensor may have a ratchet and a pawl to enable ex-situ measurement.

    摘要翻译: 本发明提供了一种微电子机械系统(MEMS)温度传感器,其采用悬浮螺旋,其包括具有正的热膨胀系数的材料。 悬挂螺旋的热膨胀由一组导轨引导以提供悬挂螺旋的自由端的线性运动,其被一组导电转子方位角翅片转换成电信号,所述导电转子方位角翅片与组相互指向 通过测量导电定子方位翅片之间的电容耦合量。 因此可以通过电容耦合的原位测量来测量实时温度。 可选地,MEMS温度传感器可以具有棘轮和棘爪以使得能够进行非原位测量。

    Non-destructive evaluation of microstructure and interface roughness of electrically conducting lines in semiconductor integrated circuits in deep sub-micron regime
    5.
    发明授权
    Non-destructive evaluation of microstructure and interface roughness of electrically conducting lines in semiconductor integrated circuits in deep sub-micron regime 有权
    在深亚微米体系的半导体集成电路中的导电线的微结构和界面粗糙度的非破坏性评估

    公开(公告)号:US07500208B2

    公开(公告)日:2009-03-03

    申请号:US11673369

    申请日:2007-02-09

    IPC分类号: G06F17/50 G01R31/26

    摘要: Novel structures and methods for evaluating lines in semiconductor integrated circuits. A first plurality of lines are formed on a wafer each of which includes multiple line sections. All the line sections are of the same length. The electrical resistances of the line sections are measured. Then, a first line geometry adjustment is determined based on the electrical resistances of all the sections. The first line geometry adjustment represents an effective reduction of cross-section size of the lines due to grain boundary electrical resistance. A second plurality of lines of same length and thickness can be formed on the same wafer. Then, second and third line geometry adjustments are determined based on the electrical resistances of these lines measured at different temperatures. The second and third line geometry adjustments represent an effective reduction of cross-section size of the lines due to grain boundary electrical resistance and line surface roughness.

    摘要翻译: 用于评估半导体集成电路中的线路的新型结构和方法。 在每个包括多个线段的晶片上形成第一组多条线。 所有线段长度相同。 测量线路段的电阻。 然后,基于所有部分的电阻来确定第一行几何调整。 第一行几何调整表示由于晶界电阻而导致的线的横截面尺寸的有效减小。 相同长度和厚度的第二组多条线可以形成在同一晶片上。 然后,基于在不同温度下测量的这些线的电阻来确定第二和第三线几何调整。 第二和第三线几何调整表示由于晶界电阻和线表面粗糙度导致的线的横截面尺寸的有效减小。

    Determination of grain sizes of electrically conductive lines in semiconductor integrated circuits
    10.
    发明授权
    Determination of grain sizes of electrically conductive lines in semiconductor integrated circuits 有权
    确定半导体集成电路中导电线的晶粒尺寸

    公开(公告)号:US07231617B2

    公开(公告)日:2007-06-12

    申请号:US10711418

    申请日:2004-09-17

    IPC分类号: G06F17/50

    摘要: Novel structures and methods for evaluating lines in semiconductor integrated circuits. A first plurality of lines can be formed on a wafer each of which comprises multiple line sections. All the line sections are of the same length. The electrical resistances of the line sections are measured. Then, a first line geometry adjustment is determined based on the electrical resistances of all the sections of all the lines. The first line geometry adjustment represents an effective reduction of cross-section size of the lines due to grain boundary electrical resistance. A second plurality of lines of same length and thickness can be formed on the same wafer. Then, second and third line geometry adjustments can be determined based on the electrical resistances of these lines measured at different temperatures. The second and third line geometry adjustments represent an effective reduction of cross-section size of the lines due to grain boundary electrical resistance and line surface roughness.

    摘要翻译: 用于评估半导体集成电路中的线路的新型结构和方法。 可以在每个包括多个线段的晶片上形成第一组多条线。 所有线段长度相同。 测量线路段的电阻。 然后,基于所有线的所有部分的电阻来确定第一线几何形状调整。 第一行几何调整表示由于晶界电阻而导致的线的横截面尺寸的有效减小。 相同长度和厚度的第二组多条线可以形成在同一晶片上。 然后,可以基于在不同温度下测量的这些线的电阻来确定第二和第三线几何调整。 第二和第三线几何调整表示由于晶界电阻和线表面粗糙度导致的线的横截面尺寸的有效减小。