会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 103. 发明申请
    • Hardened nano-imprinting stamp
    • 硬化纳米印记邮票
    • US20040081798A1
    • 2004-04-29
    • US10279407
    • 2002-10-24
    • Heon LeeGun-Young Jung
    • B32B001/00
    • B82Y10/00B81C99/009B82Y40/00G03F7/0002G03F7/0017Y10T428/24355
    • A hardened nano-imprinting stamp and a method of forming a hardened nano-imprinting stamp are disclosed. The hardened nano-imprinting stamp includes a plurality of silicon-based nano-sized features that have an hardened shell of silicon carbide, silicon nitride, or silicon carbide nitride. The hardened shell is made harder than the underlying silicon by a plasma carburization and/or a plasma nitridation process. During the plasma process atoms of carbon and/or nitrogen bombard and penetrate a plurality of exposed surfaces of the nano-sized features and chemically react with the silicon to form the hardened shell of silicon carbide, silicon nitride, or silicon carbide nitride. The lifetime, durability, economy, and accuracy of the resulting hardened nano-imprinting stamp are improved.
    • 公开了一种硬化的纳米压印印模和形成硬化的纳米压印印模的方法。 硬化的纳米压印印模包括多个硅基纳米尺寸特征,其具有碳化硅,氮化硅或碳化硅氮化物的硬化壳。 通过等离子体渗碳和/或等离子体氮化处理使硬化的壳比下面的硅更硬。 在等离子体工艺期间,碳和/或氮原子轰击并穿透纳米尺寸特征的多个暴露表面并与硅发生化学反应以形成碳化硅,氮化硅或碳化硅氮化物的硬化壳。 提高了所得到的硬化纳米压印印模的寿命,耐久性,经济性和精度。
    • 106. 发明公开
    • Method for producing a cavity by anisotropically removing material from a substrate
    • 一种用于通过各向异性材料去除从衬底制备的腔体过程
    • EP2688091A1
    • 2014-01-22
    • EP12176910.3
    • 2012-07-18
    • IMEC
    • Hantschel, ThomasVandervorst, Wilfried
    • H01L21/302H01L21/306B81C1/00
    • H01L21/302B81C99/009H01L21/306
    • The invention is related to a method for producing cavities in a crystalline substrate, preferably a semiconductor substrate. According to a preferred embodiment, a masking pattern is formed on the substrate, leaving one or more portions of the substrate exposed. Then a metal layer is deposited at least onto the exposed portions and the substrate is heated so as to produce an alloy of the substrate material and the added metal, through the dissolution of the substrate material into the metal. The choice of the substrate material and the metal in the method is such that the dissolution rate of the substrate material into the metal depends on the crystal plane of the crystallographic structure of the substrate. In this way, the alloy forms in a volume that is shaped along predefined crystallographic planes, for example an inverted pyramid or V-shaped trench. The invention is further related to a method for filling said cavity and obtaining a MEMS or NEMS structure therefrom.
    • 本发明涉及一种方法,用于在结晶衬底,优选半导体衬底生产空腔。 。根据一个优选实施例,掩蔽图案被形成在衬底上,留下暴露的衬底中的一个或多个部分。 然后将金属层至少沉积在暴露的部分和基片进行加热,从而产生在基片材料的合金和添加的金属,通过在基板材料的溶解到金属。 的材料的底物和方法中的金属的选择检查做的基板材料的溶解速率进入金属依赖于衬底的晶体结构的晶面。 以这种方式,在一个体积中的合金形式并沿预定的晶面形,为倒金字塔形或V形沟槽的实施例。 本发明还涉及一种用于填充所述腔,并从那里获得的MEMS或NEMS结构的方法。
    • 107. 发明公开
    • PROCESS FOR PRODUCING HIGHLY ORDERED NANOPILLAR OR NANOHOLE STRUCTURES ON LARGE AREAS
    • 方法对高层次HerstellingNANOSÄULEN-或纳米孔结构的大型区域
    • EP2627605A2
    • 2013-08-21
    • EP11769797.9
    • 2011-10-12
    • Max-Planck-Gesellschaft zur Förderung der Wissenschaften e.V.Fachhochschule Jena
    • MORHARD, ChristophPACHOLSKI, ClaudiaSPATZ, Joachim P.BRUNNER, Robert
    • B81C1/00
    • B29C59/002B81C99/009B81C2201/0149B82Y30/00G03F7/0002
    • The present invention relates to an improved process for producing highly ordered nanopillar or nanohole structures, in particular on large areas, which can be used as masters in NIL, hot embossing or injection molding processes. In a preferred embodiment, said process comprises at least the following steps: a) providing a primary substrate that is decorated on at least one surface with an ordered array of metal nanoparticles produced by means of a micellar block-copolymer nanolithography process; b) etching the primary substrate of step a) in a predetermined depth, preferably in the range from 50 to 500 nm, wherein the nanoparticles act as a mask and an ordered array of nanopillars or nanocones corresponding to the positions of the nanoparticles is produced; c) using the nanostructured substrate obtained in step b) as a master or stamp in nanoimprint lithographic (NIL), hot embossing or injection molding processes. In another preferred embodiment, said process comprises the steps a) and b) above and additionally c) coating the nanostructured substrate surface obtained in step b) with a continuous metal layer; d) selective etching of the product of step c) using an etching agent, e.g. HF, which removes the primary substrate but not the metal layer, resulting in a metal substrate comprising an ordered array of nanoholes which is a negative of the original array of nanopillars or nanocones.
    • 本发明涉及到改进的方法用于在大面积上,其可被用作NIL主人,热压印或注塑方法生产高度有序的纳米柱或纳米孔结构,特别是。 该方法涉及在由胶束的嵌段共聚物的纳米光刻工艺来制造的金属纳米颗粒的有序阵列装饰用表面; 蚀刻所述主基板至50至500纳米,其中所述纳米颗粒充当掩模和在纳米柱或纳米锥对应于纳米颗粒如此产生的位置的有序阵列的深度; 使用该纳米结构化主站或在邮票的结构化过程。 所以成品纳米结构化基底表面可以被用作牺牲主所有的涂有连续的金属层,然后将主被刻蚀掉,留下具有纳米孔的所有有序阵列,其是负纳米柱或的原始阵列的金属邮票 纳米锥。
    • 110. 发明授权
    • VERFAHREN ZUM PLASMAÄTZEN ZUR ERZEUGUNG POSITIVER ÄTZPROFILE IN SILIZIUMSUBSTRATEN
    • 用于生产等离子体刻蚀阳性硅衬底
    • EP2084734B1
    • 2011-05-11
    • EP07785710.0
    • 2007-08-15
    • Technische Universität Dresden
    • RICHTER, KarolaZSCHÄTZSCH, Gerd
    • H01L21/3065B81C1/00
    • H01L21/30655B81C1/00626B81C99/009B81C2201/0132
    • The invention relates to a plasma etching method for producing positive etching profiles (4) in silicon substrates (1) whose features (11), etched using a mask (2), have a feature overhang (5) at the edge in the region of the feature entrance opening (8), said feature overhang being oriented toward the centre of the feature entrance opening (8), where a first etching operation is performed using first isotropic etching and using first anisotropic etching in a first time ratio (Z1). The object is to remove the feature overhangs which are produced when etching using masks and which are produced directly beneath the mask in the surface region of the treated patterned silicon substrates. The object is achieved by removing the feature overhang (5) by performing a maskless second etching operation with the following steps: A) second anisotropic etching of the silicon substrate (1) which has the feature overhang, with a polymer layer being produced on the side walls (3), B) removal of the polymer layer from the side walls (3) using an O2 plasma, C) second isotropic etching of the silicon substrate (1), with the second etching operation being performed using a second time ratio (Z2) on the basis of equation (II), linked to a change of etching profile which is free of any feature overhang, until at least one feature entrance angle (α), where α = 0°, is achieved in the region of the feature entrance opening (8), the period of time (tisotrop - 2) for the second isotropic etching and the period of time (tanisotrop - 2 ) for the second anisotropic etching being prescribed.