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    • 6. 发明申请
    • Scalable high performance antifuse structure and process
    • 可扩展的高性能反熔丝结构和工艺
    • US20050023638A1
    • 2005-02-03
    • US10931601
    • 2004-08-31
    • Arup BhattacharyyaJoseph Geusic
    • Arup BhattacharyyaJoseph Geusic
    • H01L23/525H01L29/00
    • H01L23/5252H01L2924/0002H01L2924/00
    • Systems and methods are provided for a scalable high-performance antifuse structure and process that has a low RC component, a uniform dielectric breakdown, and a very low, effective dielectric constant (keff) such that a programming pulse voltage is scalable with Vdd. One aspect of the present subject matter is an antifuse device that is positioned or coupled between a first metal level and a second metal level. One embodiment of the antifuse device includes a porous antifuse dielectric layer, and at least one injector Silicon-Rich-Insulator (SRI) layer in contact with the porous antifuse dielectric layer. In one embodiment, the porous antifuse dielectric layer includes SiO2 formed with air-filled voids. In one embodiment, the at least one injector SRI layer includes two injector Silicon-Rich-Nitride layers that sandwich the porous antifuse dielectric layer. Other aspects are provided herein.
    • 为可扩展的高性能反熔丝结构和工艺提供了系统和方法,该结构和工艺具有低RC分量,均匀的介质击穿和非常低的有效介电常数(keff),使得编程脉冲电压可以用Vdd进行扩展。 本主题的一个方面是反熔丝装置,其被定位或耦合在第一金属层和第二金属层之间。 反熔丝装置的一个实施例包括多孔反熔丝电介质层和与多孔反熔丝电介质层接触的至少一个注入硅富集绝缘体(SRI)层。 在一个实施例中,多孔反熔丝电介质层包括形成有空气填充空隙的SiO 2。 在一个实施例中,至少一个喷射器SRI层包括夹着多孔反熔丝电介质层的两个注入器富硅氮化物层。 本文提供了其他方面。
    • 7. 发明申请
    • Strained semiconductor by full wafer bonding
    • 应变半导体通过全晶圆键合
    • US20050020094A1
    • 2005-01-27
    • US10623788
    • 2003-07-21
    • Leonard ForbesJoseph GeusicSalman Akram
    • Leonard ForbesJoseph GeusicSalman Akram
    • H01L21/469H01L21/762
    • H01L21/76254
    • One aspect of this disclosure relates to a method for forming a wafer with a strained semiconductor. In various embodiments of the method, a predetermined contour is formed in one of a semiconductor membrane and a substrate wafer. The semiconductor membrane is bonded to the substrate wafer and the predetermined contour is straightened to induce a predetermined strain in the semiconductor membrane. In various embodiments, a substrate wafer is flexed into a flexed position, a portion of the substrate wafer is bonded to a semiconductor layer when the substrate wafer is in the flexed position, and the substrate wafer is relaxed to induce a predetermined strain in the semiconductor layer. Other aspects and embodiments are provided herein.
    • 本公开的一个方面涉及一种用应变半导体形成晶片的方法。 在该方法的各种实施例中,在半导体膜和衬底晶片之一上形成预定轮廓。 将半导体膜结合到基板晶片上,并且将预定轮廓拉直以在半导体膜中引起预定应变。 在各种实施例中,衬底晶片弯曲到弯曲位置,当衬底晶片处于弯曲位置时,衬底晶片的一部分结合到半导体层,并且衬底晶片被松弛以在半导体中引起预定应变 层。 本文提供了其它方面和实施例。
    • 9. 发明申请
    • Microcavity discharge device
    • 微腔放电装置
    • US20050236954A1
    • 2005-10-27
    • US11150350
    • 2005-06-13
    • Joseph Geusic
    • Joseph Geusic
    • G03F7/20H01J1/00H01J9/18H01J61/09H01J61/30H05G2/00
    • H05G2/003B82Y10/00G03F7/70016G03F7/70033H01J9/18H01J61/09H01J61/30
    • A microcavity discharge device generates radiation with wavelengths in the range of from 11 to 14 nanometers. The device has a semiconductor plug, a dielectric layer, and an anode layer. A microcavity extends completely through the anode and dielectric layers and partially into the semiconductor plug. According to one aspect of the invention, a substrate layer has an aperture aligned with the microcavity. The microcavity is filled with a discharge gas under pressure which is excited by a combination of constant DC current and a pulsed current to produce radiation of the desired wavelength. The radiation is emitted through the base of the microcavity. A second embodiment has a metal layer which transmits radiation with wavelengths in the range of from 11 to 12 nanometers, and which excludes longer wavelengths from the emitted beam.
    • 微腔放电装置产生波长在11至14纳米范围内的辐射。 该器件具有半导体插头,电介质层和阳极层。 微腔完全延伸穿过阳极和电介质层,并部分地延伸到半导体插头中。 根据本发明的一个方面,基底层具有与微腔对准的孔。 微腔内填充有压力下的放电气体,该放电气体通过恒定直流电流和脉冲电流的组合激发,以产生所需波长的辐射。 辐射通过微腔的底部发射。 第二实施例具有传输波长在11至12纳米范围内的辐射的金属层,并且其不包括来自发射光束的较长波长。