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    • 2. 发明授权
    • Method for forming a semiconductor sensor FET device
    • 形成半导体传感器FET器件的方法
    • US5693545A
    • 1997-12-02
    • US608160
    • 1996-02-28
    • Young Sir ChungKeenan L. EvansHenry G. HughesRonald J. Gutteridge
    • Young Sir ChungKeenan L. EvansHenry G. HughesRonald J. Gutteridge
    • G01N27/414H01L21/77
    • G01N27/4143
    • A method for forming a semiconductor sensor FET device (2) comprises the steps of forming spaced-apart doped source (6) and drain (8) regions in a semiconductor substrate (4) with electrically conductive paths (16, 18) to each region. The region between the source (6) and drain (8) regions defines a gate region (12). An insulating layer (14, 15) is formed on the substrate (4) and source and drain regions (8), and a cantilever gate structure is formed using a sacrificial layer (60), such that a gate electrode (26) is supported on a cantilever support (28) and a cavity (22) separates the gate electrode (26) from the gate region (12). A conductive layer (34) is formed overlying the gate electrode (26) to provide a heater for the gate electrode (26). The chemical species collect in the cavity (22) and react with the surface (27) of the gate electrode (26).
    • 一种用于形成半导体传感器FET器件(2)的方法包括以下步骤:在半导体衬底(4)中形成间隔开的掺杂源(6)和漏极(8)区域,其中每个区域具有导电路径(16,18) 。 源极(6)和漏极(8)区域之间的区域限定栅极区域(12)。 在衬底(4)和源漏区(8)上形成绝缘层(14,15),并且使用牺牲层(60)形成悬臂栅极结构,使得栅电极(26)被支撑 在悬臂支撑件(28)和空腔(22)上将栅电极(26)与栅极区域(12)分离。 形成覆盖栅电极(26)的导电层(34)以提供用于栅电极(26)的加热器。 化学物质聚集在空腔(22)中并与栅电极(26)的表面(27)反应。
    • 3. 发明申请
    • METHODS AND STRUCTURES FOR AN INTEGRATED TWO-AXIS MAGNETIC FIELD SENSOR
    • 一体化双轴磁场传感器的方法和结构
    • US20090059444A1
    • 2009-03-05
    • US11848053
    • 2007-08-30
    • Phillip Glenn MatherJijun SunYoung Sir Chung
    • Phillip Glenn MatherJijun SunYoung Sir Chung
    • G11B5/33
    • G01R33/093B82Y25/00
    • A two-axis, single-chip external magnetic field sensor incorporates tunneling magneto-resistance (TMR) technology. In one embodiment, an integrated device includes at least two sensor elements having pinned layers with orientation situated at a known angle (e.g., 90 degrees) with respect to each other. In the presence of a magnetic field, the information from the multiple sensor elements can be processed (e.g., using a conventional bridge configuration) to determine the orientation of the integrated sensor with respect to the external field. In order to achieve an integrated sensor with multiple pinned layer orientations, a novel processing method utilizes antiferromagnetic pinning layers different materials with different blocking temperatures (e.g., PtMn and IrMn).
    • 双轴单芯片外部磁场传感器采用隧道磁阻(TMR)技术。 在一个实施例中,集成装置包括至少两个传感器元件,传感器元件具有相对于彼此以已知角度(例如,90度)定位的钉扎层。 在存在磁场的情况下,可以处理来自多个传感器元件的信息(例如,使用传统的桥接配置)来确定集成传感器相对于外部场的取向。 为了实现具有多个钉扎层取向的集成传感器,新颖的处理方法利用具有不同阻挡温度的不同材料(例如PtMn和IrMn)的反铁磁钉扎层。
    • 8. 发明授权
    • Sensor with magnetic tunnel junction and moveable magnetic field source
    • 传感器具有磁性隧道结和可动磁场源
    • US07414396B2
    • 2008-08-19
    • US11192802
    • 2005-07-29
    • Young Sir ChungRobert W. Baird
    • Young Sir ChungRobert W. Baird
    • G01R33/02
    • G01R33/06B82Y25/00G01R33/093G01R33/098
    • Methods and apparatus are provided for sensing physical parameters. The apparatus comprises a magnetic tunnel junction (MTJ) and a magnetic field source whose magnetic field overlaps the MTJ and whose proximity to the MTJ varies in response to an input to the sensor. A magnetic shield is provided at least on a face of the MFS away from the MTJ. The MTJ comprises first and second magnetic electrodes separated by a dielectric configured to permit significant tunneling conduction therebetween. The first magnetic region has its spin axis pinned and the second magnetic electrode has its spin axis free. The magnetic field source is oriented closer to the second magnetic electrode than the first magnetic electrode. The overall sensor dynamic range is extended by providing multiple electrically coupled sensors receiving the same input but with different individual response curves and desirably but not essentially formed on the same substrate.
    • 提供了用于感测物理参数的方法和装置。 该装置包括磁隧道结(MTJ)和磁场源,其磁场与MTJ重叠,并且其与MTJ的接近度响应于对传感器的输入而变化。 至少在远离MTJ的MFS的面上设有磁屏蔽。 MTJ包括由电介质隔开的第一和第二磁极,其被配置为允许它们之间的显着的隧穿传导。 第一磁性区域的自旋轴被固定,第二磁极的自由轴自由。 磁场源比第一磁极更靠近第二磁极。 通过提供多个电耦合传感器来接收相同的输入但是具有不同的单个响应曲线并且期望地但不是基本上形成在相同的基板上来扩展总传感器动态范围。
    • 10. 发明授权
    • Method for tunnel junction sensor with magnetic cladding
    • 具有磁性包层的隧道结传感器的方法
    • US07444738B2
    • 2008-11-04
    • US11192517
    • 2005-07-29
    • Young Sir ChungRobert W. BairdGregory W. Grynkewich
    • Young Sir ChungRobert W. BairdGregory W. Grynkewich
    • G11B5/127G11B5/33
    • G01R33/06H01L43/12Y10T29/49032Y10T29/49034Y10T29/49036Y10T29/49039Y10T29/49041Y10T29/49043Y10T29/49044
    • Methods and apparatus are provided for sensing physical parameters. The apparatus comprises a magnetic tunnel junction (MTJ) and a magnetic field source whose magnetic field overlaps the MTJ and whose proximity to the MTJ varies in response to an input to the sensor. A magnetic shield is provided at least on a face of the MFS away from the MTJ. The MTJ comprises first and second magnetic electrodes separated by a dielectric configured to permit significant tunneling conduction therebetween. The first magnetic region has its spin axis pinned and the second magnetic electrode has its spin axis free. The magnetic field source is oriented closer to the second magnetic electrode than the first magnetic electrode. The overall sensor dynamic range is extended by providing multiple electrically coupled sensors receiving the same input but with different individual response curves and desirably but not essentially formed on the same substrate.
    • 提供了用于感测物理参数的方法和装置。 该装置包括磁隧道结(MTJ)和磁场源,其磁场与MTJ重叠,并且其与MTJ的接近度响应于对传感器的输入而变化。 至少在远离MTJ的MFS的面上设有磁屏蔽。 MTJ包括由电介质隔开的第一和第二磁极,其被配置为允许它们之间的显着的隧穿传导。 第一磁性区域的自旋轴被固定,第二磁极的自由轴自由。 磁场源比第一磁极更靠近第二磁极。 通过提供多个电耦合传感器来接收相同的输入但是具有不同的单个响应曲线并且期望地但不是基本上形成在相同的基板上来扩展总传感器动态范围。