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    • 1. 发明授权
    • Thin film temperature measurement using optical absorption edge wavelength
    • 使用光吸收边缘波长的薄膜温度测量
    • US08786841B2
    • 2014-07-22
    • US13378788
    • 2010-06-21
    • Darryl BarlettCharles A. Taylor, IIBarry D. Wissman
    • Darryl BarlettCharles A. Taylor, IIBarry D. Wissman
    • G01N21/00G01N21/47
    • H01L21/67248H01L22/12
    • A technique for determining the temperature of a sample including a semiconductor film 20 having a measurable optical absorption edge deposited on a transparent substrate 22 of material having no measurable optical absorption edge, such as a GaN film 20 deposited on an Al2O3 substrate 22 for blue and white LEDs. The temperature is determined in realtime as the film 20 grows and increases in thickness. A spectra based on the diffusely scattered light from the film 20 is produced at each incremental thickness. A reference division is performed on each spectra to correct for equipment artifacts. The thickness of the film 20 and an optical absorption edge wavelength value are determined from the spectra. The temperature of the film 20 is determined as a function of the optical absorption edge wavelength and the thickness of the film 20 using the spectra, a thickness calibration table, and a temperature calibration table.
    • 一种用于确定样品的温度的技术,其包括具有沉积在不具有可测量的光吸收边缘的材料的透明基板22上的可测量的光吸收边缘的半导体膜20,例如沉积在用于蓝色的Al 2 O 3衬底22上的GaN膜20,以及 白色LED。 当膜20生长并且厚度增加时,温度是实时测定的。 在每个增量厚度下产生基于来自膜20的漫散射光的光谱。 在每个光谱上执行参考分区以校正设备伪像。 从光谱确定膜20的厚度和光吸收边缘波长值。 使用光谱,厚度校准表和温度校准表,确定膜20的温度作为光吸收边缘波长和膜20的厚度的函数。
    • 2. 发明申请
    • THIN FILM TEMPERATURE MEASUREMENT USING OPTICAL ABSORPTION EDGE WAVELENGTH
    • 使用光学吸收边缘波长的薄膜温度测量
    • US20120133934A1
    • 2012-05-31
    • US13378788
    • 2010-06-21
    • Darryl BarlettCharles A. Taylor, IIBarry D. Wissman
    • Darryl BarlettCharles A. Taylor, IIBarry D. Wissman
    • G01J3/28G01J5/00
    • H01L21/67248H01L22/12
    • A technique for determining the temperature of a sample including a semiconductor film 20 having a measurable optical absorption edge deposited on a transparent substrate 22 of material having no measurable optical absorption edge, such as a GaN film 20 deposited on an Al2O3 substrate 20 for blue and white LEDs. The temperature is determined in real-time as the film 20 grows and increases in thickness. A spectra based on the diffusely scattered light from the film 20 is produced at each incremental thickness. A reference division is performed on each spectra to correct for equipment artifacts. The thickness of the film 20 and an optical absorption edge wavelength value are determined from the spectra. The temperature of the film 20 is determined as a function of the optical absorption edge wavelength and the thickness of the film 20 using the spectra, a thickness calibration table, and a temperature calibration table.
    • 一种用于确定样品的温度的技术,包括沉积在不具有可测量的光吸收边缘的材料的透明基板22上的可测量的光吸收边缘的半导体膜20,例如沉积在用于蓝色的Al 2 O 3衬底20上的GaN膜20,以及 白色LED。 随着膜20的生长和厚度的增加,实时测定温度。 在每个增量厚度下产生基于来自膜20的漫散射光的光谱。 在每个光谱上执行参考分区以校正设备伪像。 从光谱确定膜20的厚度和光吸收边缘波长值。 使用光谱,厚度校准表和温度校准表,确定膜20的温度作为光吸收边缘波长和膜20的厚度的函数。
    • 6. 发明授权
    • Balanced microactuator suspension
    • 平衡微致动器悬架
    • US06362939B1
    • 2002-03-26
    • US09306581
    • 1999-05-06
    • Peter CraneWayne A. BoninBarry D. WissmanBarbara J. Ihlow-Mahrer
    • Peter CraneWayne A. BoninBarry D. WissmanBarbara J. Ihlow-Mahrer
    • G11B5596
    • G11B5/5552
    • A microactuator suspension supports a slider. The microactuator suspension has at least a first resilient support extending from a slider attachment pad to a suspension arm attachment pad. The slider attachment pad forms a clip which contacts the slider on side faces of the slider, and the microactuator adds little or nothing to the vertical thickness of the head gimbal assembly. The suspension arm attachment pad attaches to the gimbal with an attachment bridge which is longitudinally balanced relative to the gimbal point and relative to the air bearing centroid of the slider. The resilient supports may be beams having ends which are longitudinally spaced relative to the gimbal point, to the air bearing centroid, and to the attachment bridge to minimize moments and localized stresses on the beams. Dual beam and multiple beam arrangements are provided.
    • 微型致动器悬架支撑滑块。 微型致动器悬架至少具有从滑块附接垫延伸到悬挂臂附接垫的第一弹性支撑件。 滑块附件垫形成一个与滑动件的滑动件接触的夹子,微型致动器对头部万向节组件的垂直厚度几乎没有补充。 悬架臂附接垫通过连接桥连接到万向节,该连接桥相对于万向节并相对于滑块的空气轴承重心纵向平衡。 弹性支撑件可以是具有相对于万向节,空气轴承重心纵向间隔开的端部以及连接桥,以最小化梁上的力矩和局部应力的梁。 提供双光束和多光束布置。
    • 8. 发明授权
    • ESD protection for MEMS resonator devices
    • MEMS谐振器器件的ESD保护
    • US08633552B1
    • 2014-01-21
    • US12041552
    • 2008-03-03
    • Barry D. WissmanAndrew R. BrownJohn R. Clark
    • Barry D. WissmanAndrew R. BrownJohn R. Clark
    • H01L29/84
    • B81C1/00341H03H3/0072H03H9/02433
    • Disclosed herein are MEMS resonator device designs and fabrication techniques that provide protection against electrostatic charge imbalances. In one aspect, a MEMS resonator device includes a substrate, an electrode including a first microstructure supported by the substrate, a resonant element including a second microstructure spaced from the first microstructure by a gap for resonant displacement of the second microstructure within the gap during operation, and a disabled shunt coupled to the electrode or the resonant element. The disabled shunt is disabled to enable the resonant displacement but otherwise configured to protect against damage from an electrostatic charge imbalance before the operation of the MEMS resonator device.
    • 这里公开了提供防止静电电荷不平衡的保护的MEMS谐振器装置设计和制造技术。 一方面,MEMS谐振器装置包括基板,包括由基板支撑的第一微结构的电极,包括与第一微结构间隔开的第二微结构的谐振元件,用于在操作期间间隙内的第二微结构在间隙内的共振位移 以及耦合到电极或谐振元件的受阻分流。 禁用的分路被禁止以启用谐振位移,但是另外被配置为在MEMS谐振器装置的操作之前防止静电电荷不平衡的损坏。