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    • 2. 发明申请
    • MEMS DEVICE HAVING CONDUCTIVE MICROSTRUCTURES LATERALLY SURROUNDED BY OXIDE MATERIAL
    • 具有导电性微结构的MEMS器件由氧化物材料
    • US20150291414A1
    • 2015-10-15
    • US14688546
    • 2015-04-16
    • Freescale Semiconductor, Inc.
    • LIANJUN LIU
    • B81B3/00
    • B81B3/0021B81B2207/096B81C1/00134B81C1/00611B81C2201/0121B81C2203/00
    • A MEMS device includes a first substrate structure and a second substrate structure. The first substrate structure has a conductive microstructure and an oxide material surrounding lateral side of the conductive microstructure. A thickness of the conductive microstructure and a thickness of the oxide material are approximately equivalent. The second substrate structure has an active region of the MEMS device, and the second substrate structure is coupled in spaced apart relationship with the first substrate structure to produce a cavity between the structures. The active region of the MEMS device is suspended above the cavity and the conductive microstructure underlies the cavity. The conductive microstructure is formed from a polysilicon structure layer and a local oxidation of silicon process is implemented to thermally grow the oxide material using the polysilicon of the structural layer. The second substrate structure may be coupled to the first substrate structure by fusion bonding.
    • MEMS器件包括第一衬底结构和第二衬底结构。 第一衬底结构具有导电微结构和围绕导电微结构的侧面的氧化物材料。 导电微结构的厚度和氧化物材料的厚度大致相等。 第二衬底结构具有MEMS器件的有源区,并且第二衬底结构以与第一衬底结构间隔开的关系耦合以在结构之间产生腔。 MEMS器件的有源区域悬挂在空腔上方,导电微结构位于空腔的下面。 导电微结构由多晶硅结构层形成,并且实施硅工艺的局部氧化以使用结构层的多晶硅热生长氧化物材料。 第二衬底结构可以通过熔融结合耦合到第一衬底结构。
    • 3. 发明申请
    • ELECTRIC FIELD SENSOR, SYSTEM, AND METHOD FOR PROGRAMMING ELECTRONIC DEVICES ON A WAFER
    • 用于在WAFER上编程电子设备的电场传感器,系统和方法
    • US20160306007A1
    • 2016-10-20
    • US14850432
    • 2015-09-10
    • FREESCALE SEMICONDUCTOR, INC.
    • LIANJUN LIUPHILIPPE BERNARD ROLAND LANCEDAVID JOSEPH MONKBABAK A. TAHERI
    • G01R31/28G01R29/12G01R1/073
    • G01R31/2884G01R31/3025G01R31/318511
    • An electric field sensor includes sense and reference cells. The sense cell produces a resistance that varies relative to an intensity of an electric field, and the reference cell produces a resistance that is invariable relative to the intensity of the electric field. An output signal indicative of the intensity of the electric field is determined using the difference between the resistances. A system includes an electric field source that outputs a digital test program as an electric field signal. The system further includes the electric field sensor formed with IC dies on a wafer. The electric field sensor receives the electric field signal. The received electric field signal is converted to the test program, and the test program is stored in memory on the wafer. The electric field source does not physically contact the dies, but can flood an entire surface of the wafer with the electric field signal.
    • 电场传感器包括有源和参考单元。 感测单元产生相对于电场强度变化的电阻,并且参考单元产生相对于电场强度不变的电阻。 使用电阻之间的差来确定表示电场强度的输出信号。 系统包括输出作为电场信号的数字测试程序的电场源。 该系统还包括在晶片上形成有IC管芯的电场传感器。 电场传感器接收电场信号。 接收的电场信号被转换为测试程序,测试程序存储在晶片上的存储器中。 电场源不与裸片物理接触,而是可以用电场信号来淹没晶片的整个表面。
    • 6. 发明申请
    • WAFER-LEVEL MAGNETIC FIELD PROGRAMMING OF MAGNETIC FIELD SENSORS
    • 磁场传感器的水平磁场编程
    • US20160274188A1
    • 2016-09-22
    • US14754075
    • 2015-06-29
    • FREESCALE SEMICONDUCTOR, INC.
    • LIANJUN LIUPHILIPPE LANCEDAVID J. MONK
    • G01R31/317G01R31/28
    • G01R31/318511G01R31/2831G01R31/315G01R31/31917
    • A system for programming magnetic field sensors formed on a wafer includes a magnetic field transmitter that outputs a digital test program as a magnetic signal. At least one digital magnetic sensor (e.g., magnetoresistive sensor) is formed with the magnetic field sensors on the wafer and is distinct from the magnetic field sensors. The digital magnetic sensor detects and receives the magnetic signal. A processor formed on the wafer converts the magnetic signal to the digital test program and the digital test program is stored in memory on the wafer in association with one of the magnetic field sensors. The magnetic field transmitter does not physically contact the wafer, but can flood an entire surface of the wafer with the magnetic signal so that all of the magnetic field sensors are concurrently programmed with the digital test program.
    • 用于对形成在晶片上的磁场传感器进行编程的系统包括输出数字测试程序作为磁信号的磁场发射器。 至少一个数字磁传感器(例如,磁阻传感器)与晶片上的磁场传感器形成并且不同于磁场传感器。 数字磁传感器检测并接收磁信号。 形成在晶片上的处理器将磁信号转换为数字测试程序,数字测试程序与磁场传感器之一相关联地存储在晶片上的存储器中。 磁场发射器不物理地接触晶片,而是可以用磁信号淹没晶片的整个表面,使得所有的磁场传感器都与数字测试程序同时编程。