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    • 64. 发明申请
    • METHOD FOR DETERMINING MASK OPERATION ACTIVITIES
    • 确定掩蔽操作活动的方法
    • US20120070064A1
    • 2012-03-22
    • US12887565
    • 2010-09-22
    • Emily E. GallagherJed H. RankinAlan E. Rosenbluth
    • Emily E. GallagherJed H. RankinAlan E. Rosenbluth
    • G06K9/46
    • G03F1/70
    • A method and system arrangement for controlling and determining mask operation activities. Upon obtaining chip physical layout design data and running resolution enhancement technology on the chip physical layout design to generate mask features which may include any sub-resolution assist features, a placement sensitivity metric is determined for each of the generated mask features or edge fragments. In one alternative embodiment an edge placement sensitivity metric is determined for each edge of the generated mask features or edge fragments. The determined sensitivity metrics for each feature are classified and applied to subsequent mask operational activities such as post processing, write exposure and mask repair. The types of decisions based on the sensitivity metric may include minimizing or maximizing OPC processing; e-beam exposure adjustment in mask write; and selection of which mask features to repair as well as what repair criteria to then apply, and adjusting quality requirement criteria for manufacturing assessment.
    • 一种用于控制和确定面罩操作活动的方法和系统布置。 在芯片物理布局设计上获得芯片物理布局设计数据和运行分辨率增强技术以产生可包括任何子分辨率辅助特征的掩模特征时,为每个生成的掩模特征或边缘片段确定放置灵敏度度量。 在一个替代实施例中,为所生成的掩模特征或边缘片段的每个边缘确定边缘放置灵敏度度量。 所确定的每个特征的灵敏度度量被分类并应用于随后的掩模操作活动,例如后处理,写入曝光和掩模修复。 基于灵敏度度量的决策类型可以包括最小化或最大化OPC处理; 掩模写入中的电子束曝光调整; 并选择要修复的掩模特征以及哪些修复标准,然后适用,并调整制造评估的质量要求标准。
    • 65. 发明申请
    • METHOD FOR FORMING AND STRUCTURE OF A RECESSED SOURCE/DRAIN STRAP FOR A MUGFET
    • 用于形成和结构的用于大量生长的源/排水带的方法
    • US20120056264A1
    • 2012-03-08
    • US12876343
    • 2010-09-07
    • Brent A. AndersonAndres BryantEdward J. NowakJed H. Rankin
    • Brent A. AndersonAndres BryantEdward J. NowakJed H. Rankin
    • H01L29/78H01L21/336
    • H01L29/66795H01L29/7848H01L29/785H01L2029/7858
    • A method and semiconductor structure includes an insulator layer on a substrate, a plurality of parallel fins above the insulator layer, relative to a bottom of the structure. Each of the fins comprises a central semiconductor portion and conductive end portions. At least one conductive strap may be positioned within the insulator layer below the fins, relative to the bottom of the structure. The conductive strap can be perpendicular to the fins and contact the fins. The conductive strap further includes recessed portions disposed within the insulator layer, below the plurality of fins, relative to the bottom of the structure, and between each of the plurality of fins, and projected portions disposed above the insulator layer, collinear with each of the plurality of fins, relative to the bottom of the structure. The conductive strap is disposed in at least one of a source and a drain region of the semiconductor structure. A gate insulator contacts and covers the central semiconductor portion of the fins, and a gate conductor covers and contacts the gate insulator.
    • 一种方法和半导体结构包括在衬底上的绝缘体层,相对于该结构的底部在绝缘体层之上的多个平行的鳍。 每个翅片包括中心半导体部分和导电端部。 至少一个导电带可以相对于结构的底部定位在翅片下方的绝缘体层内。 导电带可以垂直于翅片并接触翅片。 导电带还包括设置在绝缘体层内的凹陷部分,相对于结构的底部在多个翅片之下,并且在多个翅片中的每一个之间,以及设置在绝缘体层上方的突出部分, 多个翅片相对于结构的底部。 导电带设置在半导体结构的源极和漏极区域中的至少一个中。 栅极绝缘体接触并覆盖翅片的中心半导体部分,并且栅极导体覆盖并接触栅极绝缘体。
    • 66. 发明授权
    • Random personalization of chips during fabrication
    • 制造期间芯片的随机个性化
    • US08015514B2
    • 2011-09-06
    • US12344725
    • 2008-12-29
    • Mark D. JaffeStephen A. MongeonLeah M. P. PastelJed H. Rankin
    • Mark D. JaffeStephen A. MongeonLeah M. P. PastelJed H. Rankin
    • G06F17/50
    • G06F17/5068G06F2217/66H01L22/20H01L2924/0002H01L2924/00
    • Disclosed are embodiments of a method for randomly personalizing chips during fabrication, a personalized chip structure and a design structure for such a personalized chip structure. The embodiments use electronic device design and manufacturing processes to randomly or pseudo-randomly create a specific variation in one or more instances of a particular electronic device formed on each chip. The device design and manufacturing processes are tuned so that the specific variation occurs with some predetermined probability, resulting in a desired hardware distribution and personalizing each chip. The resulting personalized chips can be used for modal distribution of chips. For example, chips can be personalized to allow sorting when a single chip design can be used to support multiple applications. The resulting personalized chips can also be used for random number generation for creating unique on-chip identifiers, private keys, etc.
    • 公开了用于在制造期间随机个性化芯片的方法的实施例,个性化芯片结构和用于这种个性化芯片结构的设计结构。 实施例使用电子设备设计和制造过程来随机地或伪随机地在每个芯片上形成的特定电子设备的一个或多个实例中创建特定变化。 调整设备设计和制造过程,使得特定变化以某种预定概率发生,从而产生期望的硬件分布和个性化每个芯片。 所得到的个性化芯片可用于芯片的模态分配。 例如,当单芯片设计可用于支持多种应用时,芯片可以被个性化以允许排序。 所产生的个性化芯片也可以用于随机数生成,用于创建唯一的片上标识符,私钥等。
    • 67. 发明申请
    • Variable Focus Point Lens
    • 可变焦点镜头
    • US20110208482A1
    • 2011-08-25
    • US12708561
    • 2010-02-19
    • John J. Ellis-MonaghanJeffrey P. GambinoKirk D. PetersonJed H. Rankin
    • John J. Ellis-MonaghanJeffrey P. GambinoKirk D. PetersonJed H. Rankin
    • G06F17/50G02B3/12
    • G02B3/14
    • A variable focal point lens includes a transparent tank, which comprises a transparent enclosure containing a transparent flexible membrane separating the inner volume of the transparent tank into an upper tank portion and a lower tank portion. The upper tank portion and the lower tank portion contain liquids having different indices of refraction. The transparent flexible membrane is electrostatically displaced to change the thicknesses of the first tank portion and the second tank portion in the path of the light, thereby shifting the focal point of the lens axially and/or laterally. The electrostatic displacement of the membrane may be effected by a fixed charge in the membrane and an array of enclosure-side conductive structures on the transparent enclosure, or an array of membrane-side conductive structures on the transparent membrane and an array of enclosure-side conductive structures.
    • 可变焦点透镜包括透明容器,透明容器包括透明的外壳,该透明外壳包含将透明容器的内部容积分隔成上部容器部分和下部容器部分的透明柔性膜。 上罐部分和下罐部分含有不同折射率的液体。 透明柔性膜被静电移位以改变光路中的第一罐部分和第二罐部分的厚度,从而轴向和/或横向地移动透镜的焦点。 膜的静电位移可以通过膜中的固定电荷和透明外壳上的封闭侧导电结构阵列,或透明膜上的膜侧导电结构阵列和外壳侧阵列 导电结构。
    • 69. 发明授权
    • Method for testing a photomask
    • 光掩模测试方法
    • US07914949B2
    • 2011-03-29
    • US10906564
    • 2005-02-24
    • Jed H. Rankin
    • Jed H. Rankin
    • G03F1/00
    • G03F7/7065G03F1/84G03F7/705
    • A method, a recording medium and an apparatus for testing a photomask are provided. In the disclosed method, a particular region of a photomask is selected, either from a physical instance of the photomask, or from the photomask as represented by a digital representation thereof. The particular region is then characterized by identifying a pattern type present in the particular region. A lithographic process stress condition is determined for the particular region, considering the pattern type, and thereafter, a result of lithographically patterning a feature is determined by simulating a photolithographic exposure, using the particular region of the photomask under the lithographic process stress condition. Then, it is decided whether the particular region of the photomask is acceptable based on the result of the simulated exposure only under the lithographic process stress condition.
    • 提供了一种方法,记录介质和用于测试光掩模的设备。 在所公开的方法中,从光掩模的物理实例或由其数字表示所示的光掩模中选择光掩模的特定区域。 特定区域的特征在于识别存在于特定区域中的图案类型。 考虑到图案类型,确定特定区域的光刻工艺应力条件,此后,通过在光刻工艺应力条件下使用光掩模的特定区域模拟光刻曝光来确定特征的光刻图案的结果。 然后,基于仅在光刻工艺应力条件下的模拟曝光的结果,确定光掩模的特定区域是否可接受。
    • 70. 发明授权
    • Method and structure to process thick and thin fins and variable fin to fin spacing
    • 处理厚薄翅片和可变翅片翅片间距的方法和结构
    • US07763531B2
    • 2010-07-27
    • US11846544
    • 2007-08-29
    • Wagdi W. AbadeerJeffrey S. BrownKiran V. ChattyRobert J. Gauthler, Jr.Jed H. RankinWilliam R. Tonti
    • Wagdi W. AbadeerJeffrey S. BrownKiran V. ChattyRobert J. Gauthler, Jr.Jed H. RankinWilliam R. Tonti
    • H01L21/425
    • B07C5/344G01R31/2831
    • The disclosure describes an integrated circuit with multiple semiconductor fins having different widths and variable spacing on the same substrate. The method of forming the circuit incorporates a sidewall image transfer process using different types of mandrels. Fin thickness and fin-to-fin spacing are controlled by an oxidation process used to form oxide sidewalls on the mandrels, and more particularly, by the processing time and the use of intrinsic, oxidation-enhancing and/or oxidation-inhibiting mandrels. Fin thickness is also controlled by using sidewalls spacers combined with or instead of the oxide sidewalls. Specifically, images of the oxide sidewalls alone, images of sidewall spacers alone, and/or combined images of sidewall spacers and oxide sidewalls are transferred into a semiconductor layer to form the fins. The fins with different thicknesses and variable spacing can be used to form a single multiple-fin FETs.
    • 本公开描述了在同一衬底上具有多个半导体鳍片的集成电路,其具有不同的宽度和可变间隔。 形成电路的方法包括使用不同类型的心轴的侧壁图像转印过程。 翅片厚度和翅片翅片间距由用于在心轴上形成氧化物侧壁的氧化工艺控制,更具体地,通过处理时间和使用固有的,氧化增强的和/或氧化抑制的心轴来控制。 翅片厚度也通过使用与氧化物侧壁结合或代替氧化物侧壁的侧壁间隔来控制。 具体地,单独的氧化物侧壁的图像,侧壁间隔物的图像和/或侧壁间隔物和氧化物侧壁的组合图像被转移到半导体层中以形成散热片。 可以使用具有不同厚度和可变间隔的散热片来形成单个多鳍FET。