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    • 2. 发明授权
    • Process of making Langmuir-Blodgett films having photo-electronic
properties
    • 制作具有光电特性的Langmuir-Blodgett薄膜的工艺
    • US5260004A
    • 1993-11-09
    • US802675
    • 1991-12-02
    • Lynne A. SamuelsonDavid L. KaplanKenneth A. MarxSukant K. TripathyJayant Kumar
    • Lynne A. SamuelsonDavid L. KaplanKenneth A. MarxSukant K. TripathyJayant Kumar
    • B05D1/20B29C41/12B29C67/24B29C41/02B29C71/02B29C71/04
    • B82Y30/00B05D1/202B29C41/12B29C67/24B82Y40/00B29K2089/00
    • Langmuir-Blodgett films having photo-electronic properties and methods of making the same. The instant films may be made, for example, by spreading a mixture of one or more types of biotinylated lipids and one or more types of electrically-conductive lipids over a water-miscible liquid subphase. Conjugated molecules comprising a biotin-binding component made up of an avidin or streptavidin molecule or a fragment or derivative thereof having biotin-binding activity and a photodynamic proteinaceous component are then injected into the subphase. Because of the affinity between biotin and the biotin-binding component, the conjugated molecules bind to the biotinylated lipids. The air-subphase interface is then compressed, causing the biotinylated lipids and electrically-conductive lipids to form a monolayer thereat. In one embodiment, the biotin-binding component has biotin-binding sites available on its underside which may be used to bind biotinylated derivatives of one or more different species of photodynamic proteinaceous components and/or to build up a multilayered complex of biotin-binding molecules and functional proteinaceous components using biotinylated rigid or flexible couplers.
    • 具有光电特性的Langmuir-Blodgett薄膜及其制造方法。 可以例如通过将一种或多种类型的生物素化脂质和一种或多种类型的导电脂质的混合物铺在水混溶液体相上来制备即时膜。 然后将包含由具有生物素结合活性的抗生物素蛋白或链霉抗生物素蛋白分子或其片段或衍生物的生物素结合组分的结合分子和光动力学蛋白质组分注入到亚相中。 由于生物素与生物素结合成分之间的亲和力,共轭分子与生物素化的脂质结合。 然后将空气 - 亚相界面压缩,导致生物素化的脂质和导电脂质在其上形成单层。 在一个实施方案中,生物素结合组分在其下侧具有可用的生物素结合位点,其可用于结合一种或多种不同种类的光动力蛋白质组分的生物素化衍生物和/或建立生物素结合分子的多层复合物 和使用生物素化的刚性或柔性耦合剂的功能蛋白质组分。
    • 3. 发明授权
    • Photodynamic protein-based photodetector and photodetector system for
image detection and processing
    • 光动力蛋白质光电探测器和光电探测器系统,用于图像检测和处理
    • US5438192A
    • 1995-08-01
    • US166398
    • 1993-12-09
    • David L. KaplanLynne A. SamuelsonBonnie J. WileyKenneth A. MarxJayant KumarSukant K. TripathySandip K. SenguptaMario J. Cazeca
    • David L. KaplanLynne A. SamuelsonBonnie J. WileyKenneth A. MarxJayant KumarSukant K. TripathySandip K. SenguptaMario J. Cazeca
    • G01J1/42H01L31/08H01L51/30H01J40/14
    • H01L51/42B82Y10/00H01L51/0093H01L27/307Y02E10/549Y10S428/919
    • A photodetection device uses configurations of photodynamic proteins which exhibit a change in electrical conductivity in response to a corresponding change in incident light intensity in the presence of an applied voltage. The photodynamic proteins are coupled to an electrical conductor, a voltage source and a conductivity sensor. The photodynamic protein complex includes at least one layer of a photodynamic protein and preferably includes a multi-layered thin-film structure with each layer comprised of either a photodynamic protein or a conductive polymer or oligomer. Groups of linked photodetectors where the photodetectors have different, but overlapping, spectral response ranges are used to detect specific wavelengths of incident light. An array of these groups of linked photodetectors arranged in a predetermined spatial pattern allows detection of both colon and images. An image processing system is constructed from this array of groups of linked photodetectors by coupling the output of the array to a processing component and the output of the processing component to an output device. A dynamic adaptive camouflage system is derived from the image processing system by mounting the photodetectors and display devices on an apparatus to be camouflaged and displaying a spatially shifted image of the incident ambient light.
    • 光电检测装置使用光动力学蛋白质的配置,其响应于存在施加电压的入射光强度的相应变化而呈现导电性变化。 光动力学蛋白质耦合到电导体,电压源和电导率传感器。 光动力学蛋白质复合物包括至少一层光动力学蛋白质,并且优选地包括具有由光动力学蛋白质或导电聚合物或低聚物组成的每层的多层薄膜结构。 光电探测器具有不同但重叠的光谱响应范围的联接光电检测器组被用于检测入射光的特定波长。 以预定的空间图案布置的这些组的相连的光电探测器的阵列允许检测结肠和图像。 通过将阵列的输出耦合到处理部件和将处理部件的输出耦合到输出装置,从这组连接的光电检测器组构成图像处理系统。 通过将光电检测器和显示装置安装在要伪装的装置上并显示入射环境光的空间位移图像,从图像处理系统得到动态适应伪装系统。
    • 6. 发明申请
    • Chiral Metamaterials
    • 手性超材料
    • US20100141358A1
    • 2010-06-10
    • US11901964
    • 2007-09-19
    • Alkim AkyurtluKenneth A. MarxNantakan Wongkasem
    • Alkim AkyurtluKenneth A. MarxNantakan Wongkasem
    • H01P7/10H01F7/06H05K3/30
    • H01P1/20Y10T29/4902Y10T29/4913
    • A metamaterial includes a dielectric substrate and an array of discrete resonators at the dielectric substrate, wherein each of the discrete resonators has a shape that is independently selected from: an F-type shape; an E-type shape; or a y-type shape. A parameter of a chiral metamaterial is determined and a chiral metamaterial having such a parameter is prepared by the use of a model of the chiral metamaterial. The metamaterial model includes an array of discrete resonators. In one embodiment, each of the discrete resonators has a shape that is independently selected from the group consisting of: an F-type shape; an E-type shape; and a y-type shape. To the metamaterial model, electromagnetic (EM) radiation, preferably plane-polarized EM radiation in a visible, ultraviolet or near-infrared region, having at least one wavelength that is larger than the largest dimension of at least resonator of the metamaterial model, is applied. Varying at least one characteristic of the metamaterial model and/or at least one wavelength of the applied EM radiation modulates EM interaction of the applied EM radiation with the metamaterial model, thereby determining a parameter of the chiral metamaterial. By the use of a model of the chiral metamaterial, a number of discrete resonators of a chiral metamaterial that are arrayed in a direction perpendicular to a propagation axis of EM radiation is also determined.
    • 超材料包括电介质基板和电介质基板上的离散谐振器阵列,其中每个离散谐振器具有独立地选自以下的形状:F型形状; E型形状; 或y型形状。 确定手性超材料的参数,并通过使用手性超材料的模型制备具有这种参数的手性超材料。 超材料模型包括离散谐振器阵列。 在一个实施例中,每个离散谐振器具有独立地选自以下的形状:F型形状; E型形状; 和y型形状。 对于超材料模型,电磁(EM)辐射,优选具有至少一个波长的至少一个波长的可见光,紫外或近红外区域中的平面极化EM辐射,其至少超过至少是超材料模型的谐振器的最大尺寸, 应用。 改变超材料模型的至少一个特征和/或所施加的EM辐射的至少一个波长调制所施加的EM辐射与超材料模型的EM相互作用,从而确定手性超材料的参数。 通过使用手性超材料的模型,还确定了沿与EM辐射的传播轴垂直的方向排列的许多手性超材料的离散谐振器。
    • 8. 发明授权
    • Chiral metamaterials
    • 手性超材料
    • US08271241B2
    • 2012-09-18
    • US11901964
    • 2007-09-19
    • Alkim AkyurtluKenneth A. MarxNantakan Wongkasem
    • Alkim AkyurtluKenneth A. MarxNantakan Wongkasem
    • G06G7/48
    • H01P1/20Y10T29/4902Y10T29/4913
    • A metamaterial includes a dielectric substrate and an array of discrete resonators at the dielectric substrate, wherein each of the discrete resonators has a shape that is independently selected from: an F-type shape; an E-type shape; or a y-type shape. A parameter of a chiral metamaterial is determined and a chiral metamaterial having such a parameter is prepared by the use of a model of the chiral metamaterial. The metamaterial model includes an array of discrete resonators. In one embodiment, each of the discrete resonators has a shape that is independently selected from the group consisting of: an F-type shape; an E-type shape; and a y-type shape. To the metamaterial model, electromagnetic (EM) radiation, preferably plane-polarized EM radiation in a visible, ultraviolet or near-infrared region, having at least one wavelength that is larger than the largest dimension of at least resonator of the metamaterial model, is applied. Varying at least one characteristic of the metamaterial model and/or at least one wavelength of the applied EM radiation modulates EM interaction of the applied EM radiation with the metamaterial model, thereby determining a parameter of the chiral metamaterial. By the use of a model of the chiral metamaterial, a number of discrete resonators of a chiral metamaterial that are arrayed in a direction perpendicular to a propagation axis of EM radiation is also determined.
    • 超材料包括电介质基板和电介质基板上的离散谐振器阵列,其中每个离散谐振器具有独立地选自以下的形状:F型形状; E型形状; 或y型形状。 确定手性超材料的参数,并通过使用手性超材料的模型制备具有这种参数的手性超材料。 超材料模型包括离散谐振器阵列。 在一个实施例中,每个离散谐振器具有独立地选自以下的形状:F型形状; E型形状; 和y型形状。 对于超材料模型,电磁(EM)辐射,优选具有至少一个波长的至少一个波长的可见光,紫外或近红外区域中的平面极化EM辐射,其至少超过至少是超材料模型的谐振器的最大尺寸, 应用。 改变超材料模型的至少一个特征和/或所施加的EM辐射的至少一个波长调制所施加的EM辐射与超材料模型的EM相互作用,从而确定手性超材料的参数。 通过使用手性超材料的模型,还确定了沿与EM辐射的传播轴垂直的方向排列的许多手性超材料的离散谐振器。