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    • 1. 发明授权
    • Real time radiation monitoring using nanotechnology
    • 使用纳米技术实时辐射监测
    • US09297907B1
    • 2016-03-29
    • US14205003
    • 2014-03-11
    • The United States of America as Represented by the Administrator of NASA
    • Jing LiRichard T. WilkinsJames J. HanrattyYijiang Lu
    • G01T1/16G01T1/28G01T1/29G01T1/02B82Y15/00
    • G01T1/16B82Y15/00G01T1/02G01T1/04G01T1/28G01T1/2935
    • System and method for monitoring receipt and estimating flux value, in real time, of incident radiation, using two or more nanostructures (NSs) and associated terminals to provide closed electrical paths and to measure one or more electrical property change values ΔEPV, associated with irradiated NSs, during a sequence of irradiation time intervals. Effects of irradiation, without healing and with healing, of the NSs, are separately modeled for first order and second order healing. Change values ΔEPV are related to flux, to cumulative dose received by NSs, and to radiation and healing effectivity parameters and/or μ, associated with the NS material and to the flux. Flux and/or dose are estimated in real time, based on EPV change values, using measured ΔEPV values. Threshold dose for specified changes of biological origin (usually undesired) can be estimated. Effects of time-dependent radiation flux are analyzed in pre-healing and healing regimes.
    • 用于监测接收和实时估计入射辐射的通量值的系统和方法,使用两个或多个纳米结构(NS)和相关联的端子来提供闭合的电气路径并测量一个或多个电气特性变化值和与之相关的电气特性变化值 在照射时间间隔的序列期间照射的NS。 NSs的照射,无愈合和愈合的效果分别建模为一级和二级愈合。 变化值&Dgr; EPV与通量,NSs接收的累积剂量以及与NS材料和通量相关的辐射和愈合有效性参数和/或μ有关。 使用测量的&Dgr; EPV值,基于EPV变化值实时估计通量和/或剂量。 可以估计生物来源的特定变化(通常是不期望的)的阈值剂量。 在预愈合和愈合过程中分析了时间依赖性辐射通量的影响。
    • 2. 发明授权
    • Fabrication of nanopipette arrays for biosensing
    • 制作用于生物传感的纳米片剂阵列
    • US09182394B1
    • 2015-11-10
    • US13480917
    • 2012-05-25
    • Meyya Meyyappan
    • Meyya Meyyappan
    • G01N33/566G01N33/543
    • G01N27/3278G01N33/54386
    • Method for providing a nanopipette array for biosensing applications. A thin substrate of anodizable metal (“AN-metal,” such as Al, Mg, Zn, Ti, Ta and/or Nb) is anodized at temperature T=20-200° C., chemical bath pH=4-6 and electrical potential 1-300 Volts, to produce an array of anodized nanopipette channels, having diameters 10-50 nm, with oxidized channel surfaces of thickness 5-20 nm. A portion of exposed non-oxidized AN-metal between adjacent nanopipette channels, of length 1-5 μm, is etched away, exposing inner and outer surfaces of a nanopipette channel. A probe molecule, is deposited on one or both surfaces to provide biosensing capability for K(≧1) target molecules. Target molecule presence, in an above-threshold concentration, in a fluid passed through or adjacent to a nanopipette channel, produces characteristic detection signals associated with the probe molecule site.
    • 提供用于生物传感应用的纳米微管阵列的方法。 在T = 20-200℃,化学浴pH = 4-6的条件下对阳极氧化金属(“AN金属”,如Al,Mg,Zn,Ti,Ta和/或Nb)的薄基板进行阳极氧化处理 电位1-300伏,以产生具有10-50nm直径的阳极氧化纳米管通道阵列,具有厚度5-20nm的氧化通道表面。 在距离为1-5μm的相邻纳米管通道之间暴露的未氧化的AN金属的一部分被蚀刻掉,暴露了纳米管通道的内表面和外表面。 探针分子沉积在一个或两个表面上,为K(≧1)靶分子提供生物传感能力。 目标分子以超过阈值的浓度存在于通过或邻近纳米药片通道的流体中,产生与探针分子位点相关的特征检测信号。
    • 6. 发明授权
    • Environmental monitoring of microbe metabolic transformation
    • 微生物代谢转化环境监测
    • US08412469B1
    • 2013-04-02
    • US12698996
    • 2010-02-02
    • Brad BeboutErich FlemingMatthew PicciniChristopher BeasleyLeslie Bebout
    • Brad BeboutErich FlemingMatthew PicciniChristopher BeasleyLeslie Bebout
    • G01B3/00
    • A01G33/00G01N21/6486G01N2201/0212G01N2201/0218Y02A40/88Y02P60/247
    • Mobile system and method for monitoring environmental parameters involved in growth or metabolic transformation of algae in a liquid. Each of one or more mobile apparati, suspended or partly or wholly submerged in the liquid, includes at least first and second environmental sensors that sense and transmit distinct first and second environmental, growth or transformation parameter values, such as liquid temperature, temperature of gas adjacent to and above the exposed surface, liquid pH, liquid salinity, liquid turbidity, O2 dissolved in the liquid, CO2 contained in the liquid, oxidization and reduction potential of the liquid, nutrient concentrations in the liquid, nitrate concentration in the liquid, ammonium concentration in the liquid, bicarbonate concentration in the liquid, phosphate concentration in the liquid, light intensity at the liquid surface, electrical conductivity of the liquid, and a parameter α(alga) associated with growth stage of the alga, using PAM fluorometry or other suitable parameter measurements.
    • 用于监测涉及液体中藻类生长或代谢转化的环境参数的移动系统和方法。 悬浮或部分或完全浸没在液体中的一个或多个移动装置中的每一个包括至少第一和第二环境传感器,其感测和传输不同的第一和第二环境,生长或变换参数值,例如液体温度,气体温度 液体pH,液体盐度,液体浊度,溶于液体中的O2,液体中含有的CO2,液体的氧化还原电位,液体中的营养物浓度,液体中的硝酸盐浓度,铵 液体中的浓度,液体中的碳酸氢盐浓度,液体中的磷酸盐浓度,液体表面的光强度,液体的导电性和与藻类的生长阶段相关的参数α(藻类),使用PAM荧光测定法或其他 适当的参数测量。
    • 7. 发明授权
    • Carbon nanotube tower-based supercapacitor
    • 碳纳米管塔式超级电容器
    • US08333810B1
    • 2012-12-18
    • US12398854
    • 2009-03-05
    • Meyya Meyyappan
    • Meyya Meyyappan
    • H01G9/00
    • H01G11/36H01G11/28H01G11/56Y02E60/13Y02T10/7022Y10T29/417
    • A supercapacitor system, including (i) first and second, spaced apart planar collectors, (ii) first and second arrays of multi-wall carbon nanotube (MWCNT) towers or single wall carbon nanotube (SWCNT) towers, serving as electrodes, that extend between the first and second collectors where the nanotube towers are grown directly on the collector surfaces without deposition of a catalyst and without deposition of a binder material on the collector surfaces, and (iii) a porous separator module having a transverse area that is substantially the same as the transverse area of at least one electrode, where (iv) at least one nanotube tower is functionalized to permit or encourage the tower to behave as a hydrophilic structure, with increased surface wettability.
    • 一种超级电容器系统,包括(i)第一和第二间隔开的平面收集器,(ii)用作电极的多壁碳纳米管(MWCNT)塔或单壁碳纳米管(SWCNT)塔的第一和第二阵列,其延伸 在第一和第二收集器之间,其中纳米管塔直接生长在收集器表面上而不沉积催化剂,并且在收集器表面上没有沉积粘合剂材料,和(iii)多孔分离器模块,其具有基本上为 与至少一个电极的横向面积相同,其中(iv)至少一个纳米管塔被功能化以允许或鼓励塔表现为亲水性结构,具有增加的表面润湿性。
    • 8. 发明授权
    • Model-based prognostics for batteries which estimates useful life and uses a probability density function
    • 基于模型的电池预测,估计使用寿命并使用概率密度函数
    • US08332342B1
    • 2012-12-11
    • US12622407
    • 2009-11-19
    • Bhaskar SahaKai F. Goebel
    • Bhaskar SahaKai F. Goebel
    • G06F17/00
    • G01R31/3679G01R31/3651
    • This invention develops a mathematical model to describe battery behavior during individual discharge cycles as well as over its cycle life. The basis for the form of the model has been linked to the internal processes of the battery and validated using experimental data. Effects of temperature and load current have also been incorporated into the model. Subsequently, the model has been used in a Particle Filtering framework to make predictions of remaining useful life for individual discharge cycles as well as for cycle life. The prediction performance was found to be satisfactory as measured by performance metrics customized for prognostics for a sample case. The work presented here provides initial steps towards a comprehensive health management solution for energy storage devices.
    • 本发明开发了一种数学模型来描述各个放电循环期间以及其循环寿命的电池行为。 模型形式的基础已经与电池的内部过程相关联,并使用实验数据验证。 温度和负载电流的影响也被纳入到模型中。 随后,该模型已经在粒子滤波框架中被使用以预测各个排放周期以及循环寿命的剩余使用寿命。 通过针对样本案例的预后定制的性能指标来衡量,预测性能是令人满意的。 这里提供的工作为实现节能设备综合健康管理解决方案提供了初步步骤。