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    • 5. 发明授权
    • Chemical derivatization of single-wall carbon nanotubes to facilitate solvation thereof, and use of derivatized nanotubes
    • 单壁碳纳米管的化学衍生化以促进其溶剂化,以及衍生的纳米管的使用
    • US06835366B1
    • 2004-12-28
    • US09787473
    • 2001-03-16
    • John L. MargraveEdward T. MickelsonRobert HaugePeter BoulChad HuffmanJie LiuRichard E. SmalleyKen SmithDaniel T. Colbert
    • John L. MargraveEdward T. MickelsonRobert HaugePeter BoulChad HuffmanJie LiuRichard E. SmalleyKen SmithDaniel T. Colbert
    • D01F912
    • B01J21/18B01J23/74B01J23/755B01J35/006B01J35/06B82Y30/00B82Y40/00C01B32/174C01B2202/02C01B2202/06D01F11/121Y10S977/74Y10S977/748Y10S977/75Y10S977/843Y10S977/848
    • This invention is directed to making chemical derivatives of carbon nanotubes and to uses for the derivatized nanotubes, including making arrays as a basis for synthesis of carbon fibers. In one embodiment, this invention also provides a method for preparing single wall carbon nanotubes having substituents attached to the side wall of the nanotube by reacting single wall carbon nanotubes with fluorine gas and recovering fluorine derivatized carbon nanotubes, then reacting fluorine derivatized carbon nanotubes with a nucleophile. Some of the fluorine substituents are replaced by nucleophilic substitution. If desired, the remaining fluorine can be completely or partially eliminated to produce single wall carbon nanotubes having substituents attached to the side wall of the nanotube. The substituents will, of course, be dependent on the nucleophile, and preferred nucleophiles include alkyl lithium species such as methyl lithium. Alternatively, fluorine may be fully or partially removed from fluorine derivatized carbon nanotubes by reacting the fluorine derivatized carbon nanotubes with various amounts of hydrazine, substituted hydrazine or alkyl amine. The present invention also provides seed materials for growth of single wall carbon nanotubes comprising a plurality of single wall carbon nanotubes or short tubular molecules having a catalyst precursor moiety covalently bound or physisorbed on the outer surface of the sidewall to provide the optimum metal cluster size under conditions that result in migration of the metal moiety to the tube end.
    • 本发明涉及制备碳纳米管的化学衍生物和衍生纳米管的用途,包括制备阵列作为碳纤维合成的基础。 在一个实施方案中,本发明还提供了通过使单壁碳纳米管与氟气反应并回收氟衍生的碳纳米管,制备具有连接到纳米管侧壁上的取代基的单壁碳纳米管的方法,然后使氟衍生的碳纳米管与 亲核试剂 一些氟取代基被亲核取代取代。 如果需要,可以完全或部分地除去剩余的氟以产生具有连接到纳米管的侧壁上的取代基的单壁碳纳米管。 取代基当然取决于亲核试剂,优选的亲核试剂包括烷基锂物质如甲基锂。 或者,可以通过使氟衍生的碳纳米管与各种量的肼,取代的肼或烷基胺反应,从氟衍生的碳纳米管中完全或部分地除去氟。 本发明还提供用于生长单壁碳纳米管的种子材料,其包含多个单壁碳纳米管或具有在侧壁的外表面上共价结合或物理吸附的催化剂前体部分的短管状分子,以提供最佳金属簇尺寸 导致金属部分迁移到管端的条件。
    • 7. 发明申请
    • Macroscopic ordered assembly of carbon nanotubes
    • 宏观有序的碳纳米管组装
    • US20050169830A1
    • 2005-08-04
    • US10759356
    • 2004-01-16
    • Smalley RichardDaniel ColbertKenneth SmithDeron WaltersMichael CasavantChad HuffmanBoris YakobsonRobert HaugeRajesh SainiWan-Ting ChiangXiao Qin
    • Smalley RichardDaniel ColbertKenneth SmithDeron WaltersMichael CasavantChad HuffmanBoris YakobsonRobert HaugeRajesh SainiWan-Ting ChiangXiao Qin
    • C01B31/02H01J1/304H01J9/02D01F9/12H05F3/00
    • B82Y40/00B82Y10/00B82Y30/00C01B32/168C01B2202/02C01B2202/08H01J2201/30469Y10S977/75Y10S977/845Y10S977/847Y10T156/10
    • The present invention is directed to the creation of macroscopic materials and objects comprising aligned nanotube segments. The invention entails aligning single-wall carbon nanotube (SWNT) segments that are suspended in a fluid medium and then removing the aligned segments from suspension in a way that macroscopic, ordered assemblies of SWNT are formed. The invention is further directed to controlling the natural proclivity of nanotube segments to self assemble into ordered structures by modifying the environment of the nanotubes and the history of that environment prior to and during the process. The materials and objects are “macroscopic” in that they are large enough to be seen without the aid of a microscope or of the dimensions of such objects. These macroscopic, ordered SWNT materials and objects have the remarkable physical, electrical, and chemical properties that SWNT exhibit on the microscopic scale because they are comprised of nanotubes, each of which is aligned in the same direction and in contact with its nearest neighbors. An ordered assembly of closest SWNT also serves as a template for growth of more and larger ordered assemblies. An ordered assembly further serves as a foundation for post processing treatments that modify the assembly internally to specifically enhance selected material properties such as shear strength, tensile strength, compressive strength, toughness, electrical conductivity, and thermal conductivity.
    • 本发明涉及包括对准的纳米管段的宏观材料和物体的产生。 本发明需要将悬浮在流体介质中的单壁碳纳米管(SWNT)段对准,然后以形成SWNT的宏观有序组件的方式从悬浮液中除去对准的段。 本发明进一步涉及通过在过程之前和过程中修改纳米管的环境和该环境的历史来控制纳米管段的自然倾向自我组装成有序结构。 材料和物体是“宏观的”,因为它们足够大以便在没有显微镜或这些物体的尺寸的情况下被看到。 这些宏观有序的SWNT材料和物体具有显着的物理,电学和化学性质,SWNT在微观尺度上显示,因为它们由纳米管组成,其中每个纳米管沿相同方向排列并与其最近的邻近物接触。 最近的SWNT的有序组件也可以作为增加更多和更大订单组件的模板。 订购的组件还用作后处理处理的基础,其在内部改变组件以特异性地增强选定的材料性能,例如剪切强度,抗拉强度,抗压强度,韧性,导电性和导热性。
    • 9. 发明授权
    • Strongly bound carbon nanotube arrays directly grown on substrates and methods for production thereof
    • 直接生长在基材上的强烈结合的碳纳米管阵列及其生产方法
    • US08709373B2
    • 2014-04-29
    • US13139418
    • 2009-12-11
    • Robert HaugeCary PintNoe AlvarezW. Carter Kittrell
    • Robert HaugeCary PintNoe AlvarezW. Carter Kittrell
    • D01F9/12
    • B82Y30/00B82Y40/00C01B32/15C01B32/162C01B2202/08H01J9/025H01J2201/30469
    • The present disclosure describes carbon nanotube arrays having carbon nanotubes grown directly on a substrate and methods for making such carbon nanotube arrays. In various embodiments, the carbon nanotubes may be covalently bonded to the substrate by nanotube carbon-substrate covalent bonds. The present carbon nanotube arrays may be grown on substrates that are not typically conducive to carbon nanotube growth by conventional carbon nanotube growth methods. For example, the carbon nanotube arrays of the present disclosure may be grown on carbon substrates including carbon foil, carbon fibers and diamond. Methods for growing carbon nanotubes include a) providing a substrate, b) depositing a catalyst layer on the substrate, c) depositing an insulating layer on the catalyst layer, and d) growing carbon nanotubes on the substrate. Various uses for the carbon nanotube arrays are contemplated herein including, for example, electronic device and polymer composite applications.
    • 本公开描述了具有直接在基底上生长的碳纳米管的碳纳米管阵列和制备这种碳纳米管阵列的方法。 在各种实施方案中,碳纳米管可以通过纳米管碳 - 基质共价键共价结合到基底上。 可以通过常规的碳纳米管生长方法将本发明的碳纳米管阵列生长在通常不利于碳纳米管生长的基底上。 例如,本公开的碳纳米管阵列可以在包括碳箔,碳纤维和金刚石的碳基板上生长。 用于生长碳纳米管的方法包括a)提供基底,b)在基底上沉积催化剂层,c)在催化剂层上沉积绝缘层,以及d)在基底上生长碳纳米管。 本文考虑了碳纳米管阵列的各种用途,包括例如电子器件和聚合物复合材料应用。