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    • 11. 发明授权
    • Analyte detection via electrochemically transported and generated reagent
    • 通过电化学传输和产生的试剂进行分析物检测
    • US08153062B2
    • 2012-04-10
    • US11731138
    • 2007-03-30
    • Martin W. KendigChuan-Hua ChenD. Morgan TenchJeffrey F. DeNataleFrederick M. Discenzo
    • Martin W. KendigChuan-Hua ChenD. Morgan TenchJeffrey F. DeNataleFrederick M. Discenzo
    • G01N15/06
    • G01N33/02G01N21/272G01N33/1826Y02A20/206
    • Electrochemical devices, methods, and systems for detecting and quantifying analytes are disclosed. A chemical detection reagent is locally generated in a test solution by electrochemical reaction of a precursor compound caused to migrate into the test solution from a precursor solution separated from the test solution by a cell separator. This approach provides precise metering of the reagent, via the charge passed, and avoids the need to store a reagent solution that may be chemically unstable. In one embodiment, the starch concentration in a colloidal solution can be measured via spectroscopic detection of a blue complex formed by the interaction of starch with iodine produced, on demand, by electrochemical oxidation of iodide ion. The approach may also be used to characterize certain types of analytes. The invention is amenable to automation and is particularly useful for on-line monitoring of production processes, including the inclusion of feed back loop mechanisms for process control.
    • 公开了用于检测和定量分析物的电化学装置,方法和系统。 化学检测试剂在测试溶液中通过电化学反应局部产生,所述前体化合物通过细胞分离器从与测试溶液分离的前体溶液迁移到测试溶液中。 该方法通过经过的电荷提供了试剂的精确计量,并且避免了存储可能化学不稳定的试剂溶液的需要。 在一个实施方案中,胶体溶液中的淀粉浓度可以通过光谱检测通过淀粉与产生的碘的相互作用形成的蓝色络合物,根据需要通过碘化物离子的电化学氧化来测量。 该方法也可用于表征某些类型的分析物。 本发明适用于自动化,并且特别适用于生产过程的在线监测,包括包括用于过程控制的反馈循环机制。
    • 13. 发明授权
    • Identifying damage to a wire
    • 识别电线损坏
    • US07970559B2
    • 2011-06-28
    • US12210178
    • 2008-09-12
    • Daniel N. RogovinMartin W. Kendig
    • Daniel N. RogovinMartin W. Kendig
    • G01R31/00G01R31/08G01R31/02
    • H04B5/00G01R31/025G01R31/088
    • Methods, systems, and articles of manufacture consistent with the present invention determine the type of damage to a wire, the amount of damage, and the location of the damage based on the wire's broadband impedance measured from a single measurement point. The type of damage is determined by comparing the wire's calculated dielectric function, resistance and inductance to known values that correspond to types of wire damage. The amount of damage is determined by comparing the wire's low-frequency impedance phase to known low-frequency impedance phase information that corresponds to a known amount of wire damage. The location of damage is determined by comparing the wire's high-frequency impedance phase to known high-frequency impedance phase information that corresponds to a known location of wire damage.
    • 根据本发明的方法,系统和制品根据从单个测量点测量的线的宽带阻抗来确定线的损坏类型,损伤量和损坏的位置。 通过将导线的计算介电函数,电阻和电感与对应于导线损坏类型的已知值进行比较来确定损坏类型。 通过将电线的低频阻抗相位与对应于已知的电线损伤量的已知低频阻抗相位信息进行比较来确定损坏量。 损坏的位置是通过将电线的高频阻抗相位与对应于已知位置的电线损伤的已知高频阻抗相位信息进行比较来确定的。
    • 14. 发明申请
    • IDENTIFYING DAMAGE TO A WIRE
    • 识别线损坏
    • US20100066384A1
    • 2010-03-18
    • US12210178
    • 2008-09-12
    • Daniel N. RogovinMartin W. Kendig
    • Daniel N. RogovinMartin W. Kendig
    • G01R31/08
    • H04B5/00G01R31/025G01R31/088
    • Methods, systems, and articles of manufacture consistent with the present invention determine the type of damage to a wire, the amount of damage, and the location of the damage based on the wire's broadband impedance measured from a single measurement point. The type of damage is determined by comparing the wire's calculated dielectric function, resistance and inductance to known values that correspond to types of wire damage. The amount of damage is determined by comparing the wire's low-frequency impedance phase to known low-frequency impedance phase information that corresponds to a known amount of wire damage. The location of damage is determined by comparing the wire's high-frequency impedance phase to known high-frequency impedance phase information that corresponds to a known location of wire damage.
    • 根据本发明的方法,系统和制品根据从单个测量点测量的线的宽带阻抗来确定线的损坏类型,损伤量和损坏的位置。 通过将导线的计算介电函数,电阻和电感与对应于导线损坏类型的已知值进行比较来确定损坏类型。 通过将电线的低频阻抗相位与对应于已知的电线损伤量的已知低频阻抗相位信息进行比较来确定损坏量。 损坏的位置是通过将电线的高频阻抗相位与对应于已知位置的电线损伤的已知高频阻抗相位信息进行比较来确定的。
    • 15. 发明授权
    • Pigment grade corrosion inhibitor host-guest compositions and procedure
    • 颜料级缓蚀剂主体 - 客体组合物和程序
    • US07662312B2
    • 2010-02-16
    • US11982011
    • 2007-11-01
    • John SinkoMartin W. Kendig
    • John SinkoMartin W. Kendig
    • C09K3/00C23F11/00B05D3/02
    • C23C22/74C01P2002/22C01P2002/82C09C1/02C09C1/40C09D5/084C23C22/66C23C22/67C23C26/00
    • A pigment grade corrosion inhibitor and a method of applying the inhibitor is disclosed. The inhibitor is comprised of a host species comprised of an inorganic compound having a layered structure and a guest species comprised an anionic species of a weak acid. The host species is preferably a double hydroxide having a structure of: [M(II)1−x M(III)x (OH−)2] [An−x/n.y H2O], where M(II) is a divalent metal cationic species, M(III) is a trivalent metal cationic species, and An− is an anionic species, preferably with the species present in a range of: 0.2≦M(III)/(M(II)+M(III))≦0.4. The guest species include: various phosphoric acids and derivatives thereof; boric acid; cyanamidic acid; nitrous acid; derivatives of thio- and dithiocarbonic acid; thio-organic compounds functionalized with at least one —SH group of acidic character, including: 2,5-dimercapto-1,3,4-thiadiazole (DMTD), 2,4-dimercapto-s-triazolo-[4,3-b]-1,3-4 thiadiazole, trithiocyanuric acid (TMT), and dithiocyanuric acid.
    • 公开了一种颜料级缓蚀剂及其应用抑制剂的方法。 抑制剂包括由具有层状结构的无机化合物和包含弱酸的阴离子种类的客体物质组成的宿主物质。 主要物质优选是具有以下结构的双氢氧化物:[M(II)1-x M(III)x(OH-)2] [An-x / nYH 2 O],其中M(II)是二价金属 阳离子种类,M(III)是三价金属阳离子物质,An-是阴离子物质,优选物质存在于:0.2≤M(III)/(M(II)+ M(III) )<= 0.4。 客体物种包括:各种磷酸及其衍生物; 硼酸 氰amid酸 亚硝酸; 硫代和二硫代碳酸的衍生物; 具有至少一个酸性特征的-SH基官能化的硫代有机化合物,包括:2,5-二巯基-1,3,4-噻二唑(DMTD),2,4-二巯基-s-三唑并[4,3- b] -1,3,4-噻二唑,三硫代氰尿酸(TMT)和二硫氰尿酸。
    • 20. 发明申请
    • NANO-STRUCTURED INORGANIC ZINC PHOSPHATE CORROSION PROTECTIVE COATING FOR METAL ALLOYS
    • 金属合金纳米结构无机锌磷酸盐防腐涂料
    • US20090192251A1
    • 2009-07-30
    • US10885197
    • 2004-07-06
    • Young J. ChungMelitta M. HonMartin W. Kendig
    • Young J. ChungMelitta M. HonMartin W. Kendig
    • C09D5/08
    • C23C18/1216C09D5/084C23C18/122C23C18/1241C23C18/1254Y02T50/67
    • A method is provided for enhancing corrosion resistance of a metal surface that includes the step of forming a sol-gel coating in which nanostructured zinc phosphate (Zn3(PO4)2) and zinc oxide (ZnO) phases are present in the mixture. The method may include the steps of mixing an organosilane, organometallic, organic acid, water, and alcohol and allowing the components of the mixture to partially hydrolyze, followed by adding at least one component having zinc functionality and at least one component having phosphate functionality to the partially hydrolyzed mixture, wherein the zinc component and phosphate component are added in a molar ratio of from about 1.5:1 to about 5:1 (Zn:PO4). The resulting mixture can be applied as a coating to a metal surface to improve the corrosion resistance of the metal and to enhance the adhesion of resinous materials to the metal surface.
    • 提供一种用于提高金属表面的耐腐蚀性的方法,包括形成溶胶 - 凝胶涂层的步骤,其中纳米结构化磷酸锌(Zn 3(PO 4)2)和氧化锌(ZnO)相存在于混合物中。 该方法可以包括以下步骤:将有机硅烷,有机金属,有机酸,水和醇混合并使混合物的组分部分水解,然后将至少一种具有锌官能团的组分和至少一种具有磷酸酯官能团的组分加入到 部分水解的混合物,其中以约1.5:1至约5:1(Zn:PO4)的摩尔比加入锌组分和磷酸盐组分。 所得到的混合物可以作为涂层施加到金属表面以改善金属的耐腐蚀性并增强树脂材料对金属表面的粘合性。