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    • 2. 发明授权
    • Thin film device for detection of physical quantities
    • 用于检测物理量的薄膜装置
    • US07615995B2
    • 2009-11-10
    • US11512217
    • 2006-08-30
    • Daniele PulliniGianfranco InnocentiPiermario RepettoAntonio Ruotolo
    • Daniele PulliniGianfranco InnocentiPiermario RepettoAntonio Ruotolo
    • G01R33/02
    • G01R33/09Y10S977/96
    • A thin-film device for detecting the variation of intensity of physical quantities, in particular a magnetic field, in a continuous way, comprises an electrical circuit including one or more sensitive elements, which are designed to vary their own electrical resistance as a function of the intensity of a physical quantity to be detected. One or more of the sensitive elements comprise at least one nanoconstriction, and the nanoconstriction comprises at least two pads made of magnetic material, associated to which are respective magnetizations oriented in directions substantially opposite to one another and connected through a nanochannel. The nanochannel is able to set up a domain wall that determines the electrical resistance of the nanoconstriction as a function of the position, with respect to the nanochannel, of the domain wall formed in the sensor device. At least one cross section of the nanochannel is configured so as to present a variable extension along one or more axes as a function of different values of the physical quantity to be detected.
    • 用于以连续方式检测物理量,特别是磁场的强度的变化的薄膜装置包括电路,该电路包括一个或多个敏感元件,其被设计成根据 要检测的物理量的强度。 敏感元件中的一个或多个包括至少一个纳米收缩,并且纳米收缩包括由磁性材料制成的至少两个焊盘,所述至少两个焊盘是相互磁化的,它们彼此相反并且通过纳米通道连接。 纳米通道能够建立一个畴壁,其根据在传感器装置中形成的畴壁相对于纳米通道的位置确定纳米收缩的电阻。 纳米通道的至少一个横截面被配置为根据要检测的物理量的不同值的一个或多个轴呈现可变的延伸。
    • 4. 发明申请
    • Four-terminal system for reading the state of a phase qubit
    • 用于读取相位量子位状态的四端系统
    • US20020179939A1
    • 2002-12-05
    • US10194704
    • 2002-07-12
    • Zdravko IvanovAlexander TzalentchukJeremy P. HiltonAlexander Maassen van den Brink
    • H01L031/072
    • G06N99/002B82Y10/00H01L39/225Y10S977/70Y10S977/812Y10S977/838Y10S977/933Y10S977/96
    • Quantum computing systems and methods that use opposite magnetic moment states read the state of a qubit by applying current through the qubit and measuring a Hall effect voltage across the width of the current. For reading, the qubit is grounded to freeze the magnetic moment state, and the applied current is limited to pulses incapable of flipping the magnetic moment. Measurement of the Hall effect voltage can be achieved with an electrode system that is capacitively coupled to the qubit. An insulator or tunnel barrier isolates the electrode system from the qubit during quantum computing. The electrode system can include a pair of electrodes for each qubit. A readout control system uses a voltmeter or other measurement device that connects to the electrode system, a current source, and grounding circuits. For a multi-qubit system, selection logic can select which qubit or qubits are read.
    • 使用相反磁矩状态的量子计算系统和方法通过在电流上施加电流并测量电流宽度上的霍尔效应电压来读取量子位的状态。 为了读取,量子位接地,以冻结磁矩状态,施加的电流限于不能翻转磁矩的脉冲。 可以通过电容耦合到量子位的电极系统来实现霍尔效应电压的测量。 绝缘体或隧道势垒在量子计算过程中将电极系统与量子位隔离。 电极系统可以包括用于每个量子位的一对电极。 读出控制系统使用连接到电极系统,电流源和接地电路的电压表或其它测量装置。 对于多量子位系统,选择逻辑可以选择读取哪个量子位或量子位。
    • 9. 发明授权
    • Simultaneous isolation and quantitation of DNA
    • 同时分离和定量DNA
    • US06673631B1
    • 2004-01-06
    • US09377986
    • 1999-08-20
    • Allan M. TerebaRex M. BitnerSusan C. KollerCraig E. SmithDaniel D. KephartSteven J. Ekenberg
    • Allan M. TerebaRex M. BitnerSusan C. KollerCraig E. SmithDaniel D. KephartSteven J. Ekenberg
    • C12Q168
    • C12N15/1013C12Q1/6806Y10S977/838Y10S977/904Y10S977/916Y10S977/92Y10S977/924Y10S977/96
    • The present invention provides methods for isolating a defined quantity of DNA target material from other substances in a medium. The method may be carried out using a known quantity of a silica-containing solid support, such as silica magnetic particles, having a definable capacity for reversibly binding DNA target material, and DNA target material in excess of the binding capacity of the particles. The methods of the present invention involve forming a complex of the silica magnetic particles and the DNA target material in a mixture of the medium and particles, and separating the complex from the mixture using external magnetic force. The DNA target material may then be eluted from the complex. The quantity of DNA target material eluted may be determined based on a calibration model. The methods of the present invention permit isolation of DNA target material which is within a known quantity range. The methods of the invention eliminate the step of quantitating purified biological samples prior to further processing, such as amplification, Short Tandem Repeat (STR) analysis, and DNA sequencing. Samples of the DNA target materials may be obtained from liquid or solid media, such as liquid blood or paper.
    • 本发明提供了将定义量的DNA靶物质与介质中的其它物质分离的方法。 该方法可以使用已知量的具有可定义的可逆结合DNA靶材料的能力的二氧化硅固体载体,例如二氧化硅磁性颗粒和超过颗粒结合能力的DNA靶材料进行。 本发明的方法包括在介质和颗粒的混合物中形成二氧化硅磁性颗粒和DNA靶材料的复合物,并且使用外部磁力将复合物与混合物分离。 然后DNA靶物质可以从络合物中洗脱出来。 可以基于校准模型确定洗脱的DNA靶物质的量。 本发明的方法允许分离已知量范围内的DNA靶材料。 本发明的方法消除了在进一步加工之前定量纯化的生物样品的步骤,例如扩增,短串联重复(STR)分析和DNA测序。 可以从液体或固体培养基(例如液体血液或纸)获得DNA靶材料的样品。