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    • 2. 发明申请
    • ELECTROSPRAY/ELECTROSPINNING APPARATUS AND METHOD
    • 电泳/电泳装置和方法
    • US20110031638A1
    • 2011-02-10
    • US12825656
    • 2010-06-29
    • Anthony L. ANDRADYDavid S. Ensor
    • Anthony L. ANDRADYDavid S. Ensor
    • B29B11/10B29C47/00
    • D01D5/0069D01D5/0092
    • Apparatus and method for producing fibrous materials in which the apparatus includes an enclosure having an inlet configured to receive a substance from which the fibrous materials are to be composed, a common electrode disposed in the enclosure, and plural extrusion elements provided in a wall of the enclosure opposite the common electrode so as to define between the plural extrusion elements and the common electrode a space in communication with the inlet to receive the substance in the space. In the method, a substance from which the fibrous materials are to be composed is fed to the enclosure having the plural extrusion elements, a common electric field is applied to the extrusion elements in a direction in which the substance is to be extruded, the substance is extruded through the extrusion elements to tips of the extrusion elements, and the substance is electrosprayed from the tips to form the fibrous materials.
    • 用于生产纤维材料的装置和方法,其中所述装置包括具有入口的外壳,所述外壳具有构造成容纳构成所述纤维材料的物质,设置在所述外壳中的公共电极,以及设置在所述外壁中的多个挤出元件 与所述公共电极相对的外壳,以便在所述多个挤出元件和所述公共电极之间限定与所述入口连通以在所述空间中接收所述物质的空间。 在该方法中,将要组成纤维材料的物质供给到具有多个挤出元件的外壳中,在挤出元件上沿物料的挤出方向施加共同的电场,该物质 通过挤出元件挤出到挤出元件的尖端,并且该物质从尖端电喷雾以形成纤维材料。
    • 3. 发明授权
    • Polymer nanofiber-based electronic nose
    • 聚合物基于纳米纤维的电子鼻
    • US08052932B2
    • 2011-11-08
    • US11615285
    • 2006-12-22
    • Li HanAnthony L. AndradyDavid S. Ensor
    • Li HanAnthony L. AndradyDavid S. Ensor
    • G01N27/04G01N27/06G01R27/22
    • B82Y15/00G01N27/127Y10S977/957
    • A chemical sensor and a system and method for sensing a chemical species. The chemical sensor includes a plurality of nanofibers whose electrical impedance varies upon exposure to the chemical species, a substrate supporting and electrically isolating the fibers, and a set of electrodes connected to the plurality of fibers at spatially separated points to permit the electrical impedance of the plurality of fibers to be measured. The system includes the chemical sensor, an impedance measuring device coupled to the electrodes and configured to determine an electrical impedance of the plurality of fibers, and an analyzer configured to identify the chemical species based on a change in the electrical impedance. The method measures at least one change in an electrical impedance between spatially separated electrodes connected to a plurality of fibers upon exposure of the fibers to the chemical species, and identifies the chemical species based on the measured change in the electrical impedance.
    • 化学传感器和用于感测化学物质的系统和方法。 化学传感器包括多个纳米纤维,其电阻抗暴露于化学物质时变化,支撑和电绝缘纤维的基底以及在空间上分离的点连接到多个纤维的一组电极,以允许电阻抗 多个要测量的纤维。 该系统包括化学传感器,耦合到电极并被配置为确定多个光纤的电阻抗的阻抗测量装置,以及配置成基于电阻抗的变化来识别化学物种的分析器。 该方法测量当纤维暴露于化学物质时连接到多个纤维的空间分离的电极之间的电阻抗的至少一个变化,并且基于所测量的电阻抗的变化来识别化学物质。
    • 4. 发明申请
    • LUMINESCENT DEVICE
    • 发光装置
    • US20100209602A1
    • 2010-08-19
    • US12770421
    • 2010-04-29
    • James Lynn DavisAnthony L. AdradyDavid S. EnsorLi HanHoward J. Walls
    • James Lynn DavisAnthony L. AdradyDavid S. EnsorLi HanHoward J. Walls
    • C09K11/02
    • G02B6/0008C09K11/565C09K11/883D01D5/0007D01F11/00D04H1/413D04H1/42D04H1/4382D06M11/52H01L33/501H01L2924/0002H01L2924/00
    • A device for stimulable light emission that includes a fiber mat of nanofibers having an average fiber diameter in a range between 100 and 2000 nm, and includes plural stimulable particles disposed in association with the nanofibers. The stimulable particles produce secondary light emission upon receiving primary light at a wavelength λ. The average fiber diameter is comparable in size to the wavelength λ in order to provide scattering sites within the fiber mat for the primary light. Various methods for making suitable luminescent nanofiber mats include: electrospinning a polymer solution including or not including the stimulable particles and forming from the electrospun solution nanofibers having an average fiber diameter between 100 and 2000 nm. Methods, which electrospin without the stimulable particles, introduce the stimulable particles during electrospinning or after electrospinning to the fibers and therefore to the resultant fiber mat.
    • 一种可刺激发光的装置,其包括平均纤维直径在100和2000nm之间的纳米纤维的纤维垫,并且包括与纳米纤维相关联地设置的多个可刺激的颗粒。 可接受的颗粒在接收波长为λ的原始光时产生二次发光。 平均纤维直径在尺寸上与波长λ相当,以便为初级光提供纤维垫内的散射部位。 用于制备合适的发光纳米纤维毡的各种方法包括:将包含或不包含可刺激颗粒的聚合物溶液静电纺丝并由平均纤维直径在100和2000nm之间的电纺丝溶液纳米纤维形成。 没有刺激性颗粒的静电纺丝的方法是在静电纺丝过程中或静电纺丝后引入可刺激的颗粒到纤维上,从而导致所得的纤维垫。
    • 7. 发明申请
    • POLYMER NANOFIBER-BASED ELECTRONIC NOSE
    • 聚合物基于NANOFIBER的电子编号
    • US20080150556A1
    • 2008-06-26
    • US11615285
    • 2006-12-22
    • Li HanAnthony L. AndradyDavid S. Ensor
    • Li HanAnthony L. AndradyDavid S. Ensor
    • G01R27/08
    • B82Y15/00G01N27/127Y10S977/957
    • A chemical sensor and a system and method for sensing a chemical species. The chemical sensor includes a plurality of nanofibers whose electrical impedance varies upon exposure to the chemical species, a substrate supporting and electrically isolating the fibers, and a set of electrodes connected to the plurality of fibers at spatially separated points to permit the electrical impedance of the plurality of fibers to be measured. The system includes the chemical sensor, an impedance measuring device coupled to the electrodes and configured to determine an electrical impedance of the plurality of fibers, and an analyzer configured to identify the chemical species based on a change in the electrical impedance. The method measures at least one change in an electrical impedance between spatially separated electrodes connected to a plurality of fibers upon exposure of the fibers to the chemical species, and identifies the chemical species based on the measured change in the electrical impedance.
    • 化学传感器和用于感测化学物质的系统和方法。 化学传感器包括多个纳米纤维,其电阻抗暴露于化学物质时变化,支撑和电绝缘纤维的基底以及在空间上分离的点连接到多个纤维的一组电极,以允许电阻 多个要测量的纤维。 该系统包括化学传感器,耦合到电极并被配置为确定多个光纤的电阻抗的阻抗测量装置,以及配置成基于电阻抗的变化来识别化学物种的分析器。 该方法测量当纤维暴露于化学物质时连接到多个纤维的空间分离的电极之间的电阻抗的至少一个变化,并且基于所测量的电阻抗的变化来识别化学物质。
    • 8. 发明授权
    • Measurement of ultrafine particle size distributions
    • 超细粒度分布的测量
    • US5072626A
    • 1991-12-17
    • US379826
    • 1989-07-14
    • David S. EnsorGilmore J. Sem
    • David S. EnsorGilmore J. Sem
    • G01N1/22G01N15/06
    • G01N1/2202G01N15/065G01N2001/2223
    • A measurement system for microelectronic clean rooms to measure ultrafine particle size distribution in the range of 0.002 to 0.2 micrometers is provided which includes four screen diffusion stages each connected in series with a condensation nucleus detector. The input to each screen diffusion stage is connected to a localized area to be measured, and the output of each condensation nucleus detector is connected to a vacuum system which simultaneously draws particle bearing air through the four channels. The output signals of the condensation nucleus detectors present particle size distributiion. In one embodiment of the present invention, one or more optical particle detectors are connected in parallel with the diffusion stage-condensation nucleus detectors to expand the distribution measurements to larger sizes. Other embodiments inclulde a manifold probe to probe a localized area, an alarm system actuated when particle levels exceed a predetermined level, and a manifold assembly to minimize vacuum lines passing through the walls of the microelectronic clean room.
    • 提供了用于测量0.002至0.2微米范围内的超微粒度分布的微电子洁净室的测量系统,其包括四个屏幕扩散阶段,每个屏幕扩散阶段与冷凝核心检测器串联连接。 每个屏幕扩散阶段的输入连接到要测量的局部区域,并且每个冷凝核检测器的输出连接到真空系统,其同时通过四个通道吸取颗粒轴承空气。 冷凝核检测器的输出信号具有粒度分布。 在本发明的一个实施例中,一个或多个光学粒子检测器与扩散级 - 凝结核检测器并联连接,以将分布测量扩大到更大的尺寸。 其他实施例包括歧管探针以探测局部区域,当颗粒水平超过预定水平时致动的报警系统以及歧管组件,以最小化通过微电子洁净室的壁的真空管线。
    • 9. 发明授权
    • Particle filter system incorporating nanofibers
    • 纳米纤维的粒子滤波系统
    • US08652229B2
    • 2014-02-18
    • US12575892
    • 2009-10-08
    • David S. EnsorHoward J. WallsAnthony L. AndradyTeri A. Walker
    • David S. EnsorHoward J. WallsAnthony L. AndradyTeri A. Walker
    • B01D46/00
    • D01D5/0092B01D39/1623B01D2239/025D01D5/0076Y10S55/05Y10T442/622
    • A filtration device including a filtration medium having a plurality of nanofibers of diameters less than 1 micron formed into a fiber mat in the presence of an abruptly varying electric field. The filtration device includes a support attached to the filtration medium and having openings for fluid flow therethrough. A device for making a filter material. The device includes an electrospinning element configured to electrospin a plurality of fibers from a tip of the electrospinning element, a collector opposed to the electrospinning element configured to collect electrospun fibers on a surface of the collector, and an electric field modulation device configured to abruptly vary an electric field at the collector at least once during electrospinning of the fibers. A method for making a filter material. The method provides a support having openings for fluid flow therethrough, electrospins nanofibers across an entirety of the openings, and abruptly varies an electric field at the collector at least once during electrospinning of the fibers.
    • 一种过滤装置,其包括具有多个直径小于1微米的纳米纤维的过滤介质,所述纳米纤维在突变电场的存在下形成纤维垫。 过滤装置包括附接到过滤介质并具有用于流体流过其中的开口的支撑件。 用于制造过滤材料的装置。 该装置包括静电纺丝元件,其被配置为从静电纺丝元件的尖端静电纺丝多个纤维;与静电纺丝元件相对的收集器,该静电纺丝元件构造成在收集器的表面上收集电纺纤维;以及电场调制装置,其被配置为突然变化 在电纺丝期间,集电器处的电场至少一次。 一种制造过滤材料的方法。 该方法提供具有用于流体流过其中的开口的支撑件,跨过整个开口电纺丝纳米纤维,并且在电纺丝期间至少一次地在收集器处改变电场。