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
    • 3. 发明申请
    • Novel ultrananocrystalline diamond probes for high-resolution low-wear nanolithographic techniques
    • 用于高分辨率低磨损纳米光刻技术的新型超微晶金刚石探针
    • US20070220959A1
    • 2007-09-27
    • US11542812
    • 2006-10-04
    • Anirudha V. SumantRobert W. CarpickOrlando H. AucielloJohn A. Carlisle
    • Anirudha V. SumantRobert W. CarpickOrlando H. AucielloJohn A. Carlisle
    • G01B5/28
    • G01Q60/38G01Q70/14
    • A monolithically integrated 3-D membrane or diaphragm/tip (called 3-D tip) of substantially all UNCD having a tip with a radius of about less than 50 nm capable of measuring forces in all three dimensions or being used as single tips or in large arrays for imprint of data on memory media, fabrication of nanodots of different materials on different substrates and many other uses such as nanolithography production of nanodots of biomaterials on substrates, etc. A method of molding UNCD is disclosed including providing a substrate with a predetermined pattern and depositing an oxide layer prior to depositing a carbide-forming metallic seed layer, followed by seeding with diamond nano or micropowder in solvent suspension, or mechanically polishing with diamond powder, or any other seeding method, followed by UNCD film growth conforming to the predetermined pattern. Thereafter, one or more steps of masking and/or etching and/or coating and/or selective removal and/or patterning and/or electroforming and/or lapping and/or polishing are used in any combination to form the tip or probe.
    • 基本上所有UNCD具有半径约小于50nm的尖端的能够测量所有三维尺寸的力或用作单个尖端的基本上所有UNCD的单片集成的3-D膜或膜片/尖端(称为3-D尖端) 用于记录介质上的数据压印的大型阵列,不同衬底上的不同材料的纳米点的制造以及许多其他用途,例如在衬底上的生物材料的纳米点的纳米光刻生产。公开了一种模制UNCD的方法,包括提供具有预定 在沉积形成碳化物的金属种子层之前沉积氧化物层,然后在溶剂悬浮液中用金刚石纳米或微粉子接种,或用金刚石粉末机械抛光,或任何其他播种方法,随后是符合 预定模式。 此后,以任何组合使用掩蔽和/或蚀刻和/或涂覆和/或选择性去除和/或图案化和/或电铸和/或研磨和/或抛光的一个或多个步骤以形成尖端或探针。
    • 6. 发明授权
    • Method for making particle/polymer composites and applications
    • 制备颗粒/聚合物复合材料和应用的方法
    • US08834757B2
    • 2014-09-16
    • US13250527
    • 2011-09-30
    • Orlando H. AucielloPablo GurmanAlejandro Berra
    • Orlando H. AucielloPablo GurmanAlejandro Berra
    • B32B3/02C08K3/04C04B35/64B32B27/06
    • B32B3/02B32B27/06C04B35/64C08K3/02C08K3/04C08K3/08C08K2003/023C08K2003/0881Y10T428/23
    • The invention provides a method for producing bioinert biocompatible diamond particles/polymer composites or any other matrix (e.g. glass, metal, plastic, ceramic and more)/diamond particle composites, even if not biocompatible with outstanding mechanical, tribological, and biological properties, the method comprising selecting a polymer having a melting temperature below about 300 C; mixing diamond particles with the polymer to form a liquid mixture, poring the liquid diamond particle/polymer or any other diamond particle/matrix composite in liquid form into a mold and then causing the composite to sinter with the diamond particles densely and uniformly distributed through the bulk and surface of the composite, such that the diamond particles distributed on the surface can form a diamond layer covering the surface.
    • 本发明提供了用于生产生物惰性生物相容性金刚石颗粒/聚合物复合材料或任何其它基质(例如玻璃,金属,塑料,陶瓷和更多)/金刚石颗粒复合材料的方法,即使不是具有出色的机械,摩擦学和生物学特性的生物相容性, 方法包括选择熔点低于约300℃的聚合物; 将金刚石颗粒与聚合物混合以形成液体混合物,将液体金刚石颗粒/聚合物或液体形式的任何其它金刚石颗粒/基质复合物浸入模具中,然后使复合材料与金刚石颗粒一起烧结,密度均匀地分布在 复合物的体积和表面,使得分布在表面上的金刚石颗粒可以形成覆盖表面的金刚石层。
    • 9. 发明授权
    • Thin film ferroelectric flat panel display devices, and methods for
operating and fabricating same
    • 薄膜铁电平板显示装置及其操作和制造方法
    • US5453661A
    • 1995-09-26
    • US228116
    • 1994-04-15
    • Orlando H. AucielloGary E. McGuire
    • Orlando H. AucielloGary E. McGuire
    • H01J1/312H01J63/00H01J23/34
    • B82Y10/00H01J1/312H01J63/00H01J2201/306H01J2329/00
    • A flat panel display includes a ferroelectric thin film between first and second spaced apart electrodes. The ferroelectric thin film emits electrons upon application of a predetermined voltage between the first and second spaced apart electrodes. The electrons are emitted in an electron emission path and impinge upon a luminescent layer such as a phosphor layer, which produces luminescence upon impingement upon the emitter electrodes. The ferroelectric thin film is preferably about 2 .mu.m or less in thickness and is preferably a polycrystalline ferroelectric thin film. More preferably, the thin ferroelectric film is a highly oriented, polycrystalline thin ferroelectric film. Most preferably, highly oriented ferroelectric thin film has a preferred (001) crystal orientation and is about 2 .mu.m or less in thickness. A flat panel display may be formed of arrays of such display elements. Top and bottom electrodes or side electrodes may be used. The display may be formed using conventional microelectronic fabrication steps.
    • 平板显示器包括在第一和第二间隔开的电极之间的铁电薄膜。 铁电薄膜在第一和第二间隔开的电极之间施加预定电压时发射电子。 电子在电子发射路径中发射并撞击在诸如荧光体层的发光层上,其在撞击发射极电极时产生发光。 铁电薄膜的厚度优选为2μm以下,优选为多晶铁电薄膜。 更优选地,薄铁电体膜是高取向多晶薄铁电体膜。 最优选地,高取向铁电薄膜具有优选的(001)晶体取向,并且厚度为约2μm或更小。 平板显示器可以由这种显示元件的阵列形成。 可以使用顶部和底部电极或侧面电极。 显示器可以使用常规的微电子制造步骤形成。