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    • 1. 发明授权
    • Hydrogen storage and supply system
    • 储氢系统
    • US06748748B2
    • 2004-06-15
    • US10167946
    • 2002-06-10
    • Keith BradleyJeff D. WyattJean-Christophe P. GabrielGeorge Gruner
    • Keith BradleyJeff D. WyattJean-Christophe P. GabrielGeorge Gruner
    • F17C1100
    • H01M8/04216C01B3/0005F17C11/005H01M8/04208H01M2250/20H01M2250/30Y02B90/18Y02E60/321Y02E60/324Y02P90/45Y02T90/32
    • A hydrogen storage and supply apparatus is described. The apparatus has a container that includes a cold enclosure. A porous material capable of occluding hydrogen pervades the cold enclosure. The porous material contains a plurality of light elements including Be, B, C, N, O, F, Mg, P, S, Li, Na, Al, Si and Cl. The cold enclosure can have a temperature in a range between about 30K and 270K and can withstand pressures up to about 50 bara. The container can have a layered wall structure with at least two walls, and there can be a cavity between the walls, which can provide thermal insulation. A hydrogen-consuming system is described in which the hydrogen storage and supply apparatus is used to provide hydrogen to a hydrogen-fueled device. A hydrogen production and distribution system, which used the hydrogen storage and supply apparatuses is described. Methods of storing, supplying and using hydrogen are also described.
    • 描述了氢存储和供应装置。 该装置具有包括冷的外壳的容器。 能够堵塞氢气的多孔材料渗透到冷的外壳。 多孔材料含有多种轻元素,包括Be,B,C,N,O,F,Mg,P,S,Li,Na,Al,Si和Cl。 冷的外壳可以具有在约30K和270K之间的温度范围内,并能承受高达约50巴的压力。 容器可以具有至少两个壁的分层壁结构,并且在壁之间可以有一个空腔,这可以提供绝热。 描述了一种耗氢系统,其中使用氢存储和供应装置向氢燃料装置提供氢。 描述了使用氢存储和供应装置的氢气生产和分配系统。 还描述了储存,供应和使用氢的方法。
    • 2. 发明授权
    • Modification of selectivity for sensing for nanostructure device arrays
    • 纳米结构器件阵列感测选择性的改进
    • US07575933B2
    • 2009-08-18
    • US11139184
    • 2005-05-27
    • Jean-Christophe P. GabrielPhilip G. CollinsKeith BradleyGeorge Gruner
    • Jean-Christophe P. GabrielPhilip G. CollinsKeith BradleyGeorge Gruner
    • G01N21/00
    • G01N27/127B01J2219/00653B01L3/5027B82Y15/00G01N27/126Y10S977/84Y10S977/855Y10S977/882Y10S977/92Y10S977/957Y10S977/958Y10T436/11
    • An electronic system for selectively detecting and identifying a plurality of chemical species, which comprises an array of nanostructure sensing devices, is disclosed. Within the array, there are at least two different selectivities for sensing among the nanostructure sensing devices. Methods for fabricating the electronic system are also disclosed. The methods involve modifying nanostructures within the devices to have different selectivity for sensing chemical species. Modification can involve chemical, electrochemical, and self-limiting point defect reactions. Reactants for these reactions can be supplied using a bath method or a chemical jet method. Methods for using the arrays of nanostructure sensing devices to detect and identify a plurality of chemical species are also provided. The methods involve comparing signals from nanostructure sensing devices that have not been exposed to the chemical species of interest with signals from nanostructure sensing devices that have been exposed to the chemical species of interest. Nanostructure sensing device array structures that can measure and subtract out environmental factors are also disclosed.
    • 公开了一种用于选择性地检测和识别包括纳米结构感测装置阵列的多种化学物质的电子系统。 在阵列内,在纳米结构感测装置中有至少两种用于感测的不同选择性。 还公开了用于制造电子系统的方法。 这些方法包括修改装置内的纳米结构以具有感测化学物质的不同选择性。 修饰可能涉及化学,电化学和自限制点缺陷反应。 这些反应的反应物可以使用浴法或化学喷射法提供。 还提供了使用纳米结构感测装置的阵列来检测和识别多种化学物种的方法。 该方法涉及将未暴露于感兴趣的化学物质的纳米结构感测装置的信号与已经暴露于感兴趣的化学物质的纳米结构感测装置的信号进行比较。 还公开了可以测量和减去环境因素的纳米结构感测装置阵列结构。
    • 3. 发明授权
    • Sensitivity control for nanotube sensors
    • 纳米管传感器的灵敏度控制
    • US06894359B2
    • 2005-05-17
    • US10280265
    • 2002-10-26
    • Keith BradleyPhilip G. CollinsJean-Christophe P. GabrielGeorge GrunerAlexander Star
    • Keith BradleyPhilip G. CollinsJean-Christophe P. GabrielGeorge GrunerAlexander Star
    • G01N27/12G01N27/414H01L27/14H01L29/82H01L29/84
    • B82Y15/00G01N27/129Y10S977/734
    • Nanostructure sensing devices for detecting an analyte are described. The devices include nanostructures connected to conductive elements, all on a substrate. Contact regions adjacent to points of contact between the nanostructures and the conductive elements are given special treatment. The proportion of nanostructure surface area within contact regions can be maximized to effect sensing at very low analyte concentrations. The contact regions can be passivated in an effort to prevent interaction between the environment and the contact regions for sensing at higher analyte concentrations and for reducing cross-sensing. Both contact regions and at least some portion of the nanostructures can be covered with a material that is at least partially permeable to the analyte of interest and impermeable to some other species to tune selectivity and sensitivity of the nanostructure sensing device.
    • 描述了用于检测分析物的纳米结构感测装置。 这些器件包括连接到导电元件的纳米结构,全部在衬底上。 给予与纳米结构和导电元件之间的接触点相邻的接触区域的特殊处理。 可以使接触区域内的纳米结构表面积的比例最大化,以在非常低的分析物浓度下进行感测。 可以钝化接触区域,以防止环境和接触区域之间的相互作用,以便在较高分析物浓度下进行感测并减少交叉感测。 两个接触区域和纳米结构的至少一部分可以被对感兴趣的分析物至少部分可渗透的材料覆盖,并且对于一些其它物质是不可渗透的,以调节纳米结构感测装置的选择性和灵敏度。
    • 6. 发明授权
    • Flexible nanostructure electronic devices
    • 柔性纳米结构电子器件
    • US08456074B2
    • 2013-06-04
    • US13096891
    • 2011-04-28
    • N. Peter ArmitageKeith BradleyJean-Christophe P. GabrielGeorge Gruner
    • N. Peter ArmitageKeith BradleyJean-Christophe P. GabrielGeorge Gruner
    • H01J1/02
    • H01B1/24B82Y10/00B82Y15/00H01L51/0048H01L51/0097H01L51/0595
    • A flexible electronic device is made up of nanostructures. Specifically, the device includes a flexible substrate, a film of nanostructures in contact with the flexible substrate, a first conducting element in contact with the film of nanostructures, and a second conducting element in contact with the film of nanostructures. The nanostructures may comprise nanotubes, such as carbon nanotubes disposed along the flexible substrate, such as an organic or polymer substrate. The first and second conductive elements may serve as electrical terminals, or as a source and drain. In addition, the electronic device may include a gate electrode that is in proximity to the nanotubes and not in electrical contact with the nanotubes. In this configuration, the device can operate as a transistor or a FET. The device may also be operated in a resistive mode as a chemical sensor (e.g., for sensing NH3).
    • 灵活的电子设备由纳米结构组成。 具体地,该装置包括柔性基板,与柔性基板接触的纳米结构薄膜,与纳米结构薄膜接触的第一导电元件和与纳米结构薄膜接触的第二导电元件。 纳米结构可以包括纳米管,例如沿着柔性基底设置的碳纳米管,例如有机或聚合物基底。 第一和第二导电元件可以用作电端子,或用作源极和漏极。 此外,电子器件可以包括位于纳米管附近并且不与纳米管电接触的栅电极。 在这种配置中,器件可以作为晶体管或FET工作。 该装置还可以作为化学传感器(例如,用于感测NH 3)以电阻模式操作。
    • 10. 发明授权
    • Flexible nanostructure electronic devices
    • 柔性纳米结构电子器件
    • US07956525B2
    • 2011-06-07
    • US10846072
    • 2004-05-14
    • N. Peter ArmitageKeith BradleyJean-Christophe P. GabrielGeorge Grüner
    • N. Peter ArmitageKeith BradleyJean-Christophe P. GabrielGeorge Grüner
    • H01J1/02
    • H01B1/24B82Y10/00B82Y15/00H01L51/0048H01L51/0097H01L51/0595
    • A flexible electronic device is made up of nanostructures. Specifically, the device includes a flexible substrate, a film of nanostructures in contact with the flexible substrate, a first conducting element in contact with the film of nanostructures, and a second conducting element in contact with the film of nanostructures. The nanostructures may comprise nanotubes, such as carbon nanotubes disposed along the flexible substrate, such as an organic or polymer substrate. The first and second conductive elements may serve as electrical terminals, or as a source and drain. In addition, the electronic device may include a gate electrode that is in proximity to the nanotubes and not in electrical contact with the nanotubes. In this configuration, the device can operate as a transistor or a FET. The device may also be operated in a resistive mode as a chemical sensor (e.g., for sensing NH3).
    • 灵活的电子设备由纳米结构组成。 具体地,该装置包括柔性基板,与柔性基板接触的纳米结构薄膜,与纳米结构薄膜接触的第一导电元件和与纳米结构薄膜接触的第二导电元件。 纳米结构可以包括纳米管,例如沿着柔性基底设置的碳纳米管,例如有机或聚合物基底。 第一和第二导电元件可以用作电端子,或用作源极和漏极。 此外,电子器件可以包括位于纳米管附近并且不与纳米管电接触的栅电极。 在这种配置中,器件可以作为晶体管或FET工作。 该装置还可以作为化学传感器(例如,用于感测NH 3)以电阻模式操作。