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    • 1. 发明申请
    • MULTIPLE EXPOSURE WITH IMAGE REVERSAL IN A SINGLE PHOTORESIST LAYER
    • 多次曝光与单张照相机中的图像反转
    • US20130129991A1
    • 2013-05-23
    • US13814356
    • 2011-08-09
    • Coumba NdoyeMarius Orlowski
    • Coumba NdoyeMarius Orlowski
    • G03F7/20
    • G03F7/2022G03F7/095G03F7/2024G03F7/203G03F7/26H01L21/0272H01L21/0274Y10T428/24802
    • Multiple patterned exposures of a single layer of image reversal resist prior to and following image reversal processing, upon development, respond to the respective exposures as either a positive or a negative resist, allowing a desired shape of a resist structure to be built up from any of a number of combinations of primitive masks. Exploiting the image reversal resist in this manner allows several types of diffraction distortion to be entirely avoided and for many sophisticated lithographic processes to he reduced in complexity by one-half or more while any desired resist structure shape can be formed form a limited number of primitive mask patterns. A regimen, which may be automated as an executable algorithm for a computer may be followed to evaluate different combinations of masks which are valid to produce a desired resist structure shape and select the optimum mask pattern combination to do so.
    • 在图像反转处理之前和之后的单层图像反转抗蚀剂的多个图案曝光在显影时,将各自的曝光作为正或负光刻胶响应,允许抗蚀剂结构的期望形状从任何 的原始面具的多种组合。 以这种方式利用图像反转抗蚀剂允许完全避免几种类型的衍射失真,并且对于许多复杂的光刻工艺,他将复杂度降低了一半以上,同时可以形成有限数量的原始形状的任何期望的抗蚀剂结构形状 面具图案。 可以遵循可以自动化作为计算机的可执行算法的方案,以评估有效产生期望的抗蚀剂结构形状并选择最佳掩模图案组合的掩模的不同组合。
    • 2. 发明授权
    • Multiple exposure with image reversal in a single photoresist layer
    • 在单一光致抗蚀剂层中具有图像反转的多次曝光
    • US09116432B2
    • 2015-08-25
    • US13814356
    • 2011-08-09
    • Coumba NdoyeMarius Orlowski
    • Coumba NdoyeMarius Orlowski
    • G03F7/20H01L21/027G03F7/095G03F7/26
    • G03F7/2022G03F7/095G03F7/2024G03F7/203G03F7/26H01L21/0272H01L21/0274Y10T428/24802
    • Multiple patterned exposures of a single layer of image reversal resist prior to and following image reversal processing, upon development, respond to the respective exposures as either a positive or a negative resist, allowing a desired shape of a resist structure to be built up from any of a number of combinations of primitive masks. Exploiting the image reversal resist in this manner allows several types of diffraction distortion to be entirely avoided and for many sophisticated lithographic processes to he reduced in complexity by one-half or more while any desired resist structure shape can be formed form a limited number of primitive mask patterns. A regimen, which may be automated as an executable algorithm for a computer may be followed to evaluate different combinations of masks which are valid to produce a desired resist structure shape and select the optimum mask pattern combination to do so.
    • 在图像反转处理之前和之后的单层图像反转抗蚀剂的多个图案曝光在显影时,将各自的曝光作为正或负光刻胶响应,允许抗蚀剂结构的期望形状从任何 的原始面具的多种组合。 以这种方式利用图像反转抗蚀剂允许完全避免几种类型的衍射失真,并且对于许多复杂的光刻工艺,他将复杂度降低了一半以上,同时可以形成有限数量的原始形状的任何期望的抗蚀剂结构形状 面具图案。 可以遵循可以自动化作为计算机的可执行算法的方案,以评估有效产生期望的抗蚀剂结构形状并选择最佳掩模图案组合的掩模的不同组合。
    • 6. 发明申请
    • METHOD FOR FORMING A SEMICONDUCTOR DEVICE AND STRUCTURE THEREOF
    • 形成半导体器件及其结构的方法
    • US20100044762A1
    • 2010-02-25
    • US12605556
    • 2009-10-26
    • Marius Orlowski
    • Marius Orlowski
    • H01L29/78H01L29/772
    • H01L29/78684H01L29/66818H01L29/785
    • A non-planar semiconductor device (10) starts with a silicon fin (42). A source of germanium (e.g. 24, 26, 28, 30, 32) is provided to the fin (42). Some embodiments may use deposition to provide germanium; some embodiments may use ion implantation (30) to provide germanium; other methods may also be used to provide germanium. The fin (42) is then oxidized to form a silicon germanium channel region in the fin (36). In some embodiments, the entire fin (42) is transformed from silicon to silicon germanium. One or more fins (36) may be used to form a non-planar semiconductor device, such as, for example, a FINFET, MIGFET, Tri-gate transistor, or multi-gate transistor.
    • 非平面半导体器件(10)从硅片(42)开始。 将锗源(例如24,26,28,30,32)提供给翅片(42)。 一些实施例可以使用沉积来提供锗; 一些实施例可以使用离子注入(30)来提供锗; 也可以使用其它方法来提供锗。 然后将翅片(42)氧化以在翅片(36)中形成硅锗通道区域。 在一些实施例中,整个鳍(42)从硅转变为硅锗。 可以使用一个或多个翅片(36)来形成非平面半导体器件,例如FINFET,MIGFET,三栅极晶体管或多栅极晶体管。
    • 10. 发明申请
    • MOS device with multi-layer gate stack
    • 具有多层栅极堆叠的MOS器件
    • US20070176247A1
    • 2007-08-02
    • US11343623
    • 2006-01-30
    • Chun-Li LiuMarius OrlowskiMatthew Stoker
    • Chun-Li LiuMarius OrlowskiMatthew Stoker
    • H01L29/94
    • H01L29/4975H01L21/28097H01L29/517H01L29/518H01L29/78
    • Methods and apparatus are provided for semiconductor devices. The apparatus comprises a substrate having therein a source region and a drain region separated by a channel region extending to a first surface of the substrate, and a multilayered gate structure located above the channel region. The gate structure comprises, a gate dielectric, preferably of an oxide of Hf, Zr or HfZr substantially in contact with the channel region, a first conductor layer of, for example an oxide of MoSi overlying the gate dielectric, a second conductor layer of, e.g., poly-Si, overlying the first conductor layer and adapted to apply an electrical field to the channel region, and an impurity migration inhibiting layer (e.g., MoSi) located above or below the first conductor layer and adapted to inhibit migration of a mobile impurity, such as oxygen for example, toward the substrate.
    • 为半导体器件提供了方法和装置。 该装置包括其中具有源极区和漏极区的衬底,漏极区被延伸到衬底的第一表面的沟道区分离,以及位于沟道区上方的多层栅极结构。 栅极结构包括:栅极电介质,优选地与沟道区基本上接触的Hf,Zr或HfZr的氧化物,例如覆盖栅极电介质的MoSi的氧化物的第一导体层, 例如多晶硅,覆盖在第一导体层上并且适于向沟道区施加电场,以及位于第一导体层上方或下方的杂质迁移抑制层(例如MoSi),并适于抑制移动 杂质,例如氧气,朝向衬底。