INTEGRATED CIRCUITS BASED BIOSENSORS
    2.
    发明公开
    INTEGRATED CIRCUITS BASED BIOSENSORS 审中-公开
    AUF INTEGRIERTEN SCHALTUNGEN BASIERTE BIOSENSOREN

    公开(公告)号:EP3100024A4

    公开(公告)日:2017-08-23

    申请号:EP15739947

    申请日:2015-01-27

    Applicant: UNIV CORNELL

    Inventor: LAL AMIT GUND VED

    CPC classification number: G01N27/64 G01N27/62 G01N27/622

    Abstract: Methods, systems, and devices are disclosed for implementing molecular sensors. In one aspect, an ion-gas sensor device includes a pre-concentration module to collect and concentrate a gas-phase chemical for analysis; a piezoelectric fan to produce an air-flow through acoustic streaming to drive the gas-phase chemical released by the pre-concentration module to one or more downstream modules; an ionizer downstream from the piezoelectric fan to ionize the gas-phase chemical; and a gas sensor downstream from the piezoelectric fan and the ionizer to detect the ionized gas-phase chemical driven by the piezoelectric fan. The piezoelectric fan can include a stack of thin-film layers that includes a thin-film piezoelectric layer. The ion-gas sensor device is made into an ultra-portable package capable of integration with mobile communication devices, such as PDA devices or smart phones.

    Abstract translation: 公开了用于实现分子传感器的方法,系统和设备。 在一个方面,一种离子气体传感器装置包括:预浓缩模块,用于收集和浓缩用于分析的气相化学物质; 压电风扇,用于通过声流产生气流以将由所述预浓缩模块释放的所述气相化学物质驱动到一个或多个下游模块; 在压电风扇下游的离子发生器使气相化学物离子化; 以及位于压电风扇和离子发生器下游的气体传感器,以检测由压电风扇驱动的离子化气相化学物质。 压电风扇可以包括包括薄膜压电层的一叠薄膜层。 该离子气体传感器装置被制成能够与诸如PDA装置或智能电话的移动通信装置集成的超便携式封装。

    BETAVOLTAIC APPARATUS AND METHOD
    4.
    发明申请
    BETAVOLTAIC APPARATUS AND METHOD 审中-公开
    BETAVOLTAIC装置和方法

    公开(公告)号:WO2011063228A3

    公开(公告)日:2011-10-20

    申请号:PCT/US2010057422

    申请日:2010-11-19

    Inventor: LAL AMIT TIN STEVEN

    CPC classification number: G21H1/06

    Abstract: An exemplary thinned-down betavoltaic device includes an N+ doped silicon carbide (SiC) substrate having a thickness between about 3 to 50 microns, an electrically conductive layer disposed immediately adjacent the bottom surface of the SiC substrate; an N- doped SiC epitaxial layer disposed immediately adjacent the top surface of the SiC substrate, a P+ doped SiC epitaxial layer disposed immediately adjacent the top surface of the N- doped SiC epitaxial layer, an ohmic conductive layer disposed immediately adjacent the top surface of the P+ doped SiC epitaxial layer, and a radioisotope layer disposed immediately adjacent the top surface of the ohmic conductive layer. The radioisotope layer can be 63Ni, 147Pm, or 3H. Devices can be stacked in parallel or series. Methods of making the devices are disclosed.

    Abstract translation: 一种示例性的减薄型紫外线器件包括厚度在约3至50微米之间的N +掺杂碳化硅(SiC)衬底,紧邻SiC衬底的底表面设置的导电层; 紧邻SiC衬底的顶表面设置的N掺杂的SiC外延层,紧邻N掺杂的SiC外延层的顶表面设置的P +掺杂的SiC外延层,紧邻邻近顶部表面的欧姆导电层 P +掺杂的SiC外延层,以及紧邻欧姆导体层的顶表面设置的放射性同位素层。 放射性同位素层可以是63Ni,147Pm或3H。 设备可以并联或串联堆叠。 公开了制造装置的方法。

    PIEZOELECTRIC AND LOGIC INTEGRATED DELAY LINE MEMORY
    5.
    发明申请
    PIEZOELECTRIC AND LOGIC INTEGRATED DELAY LINE MEMORY 审中-公开
    压电和逻辑集成延迟线存储器

    公开(公告)号:WO2015138058A3

    公开(公告)日:2015-12-30

    申请号:PCT/US2015014324

    申请日:2015-02-03

    Applicant: UNIV CORNELL

    Abstract: Delay line memory device, systems and methods are disclosed. In one aspect, a delay line memory device includes a substrate; an electronic unit disposed on the substrate and operable to receive, amplify, and/or synchronize data signals into a bit stream to be transmitted as acoustic pulses carrying data stored in the delay line memory device; a first and a second piezoelectric transducer disposed on the substrate and in communication with the electronic unit, in which the first piezoelectric transducer is operable to transmit the data signals to the acoustic pulses that carry the data through the bulk of the substrate, and the second piezoelectric transducer is operable to transduce the received acoustic pulses to intermediate electrical signals containing the data, which are transferred to the electronic unit via an electrical interconnect to cause refresh of the data in the delay line memory device.

    Abstract translation: 延迟线存储器装置,系统和方法被公开。 在一个方面,延迟线存储器装置包括衬底; 电子单元,其设置在所述基板上,并且可操作以将数据信号接收,放大和/或同步成比特流,以作为传送存储在所述延迟线存储器设备中的数据的声脉冲发送; 第一压电换能器和第二压电换能器,设置在所述基板上并与所述电子单元通信,其中所述第一压电换能器可操作以将所述数据信号传输到承载所述数据通过所述基板本体的所述声学脉冲,并且所述第二 压电换能器可操作地将所接收的声脉冲转换成包含数据的中间电信号,所述数据经由电互连被传送到电子单元以引起延迟线存储器装置中的数据的刷新。

    CALIBRATION APPARATUS, METHODS, AND APPLICATIONS
    6.
    发明申请
    CALIBRATION APPARATUS, METHODS, AND APPLICATIONS 审中-公开
    校准装置,方法和应用

    公开(公告)号:WO2012151360A3

    公开(公告)日:2013-01-10

    申请号:PCT/US2012036251

    申请日:2012-05-03

    CPC classification number: G01P21/00

    Abstract: An inertial sensor calibration method and inertial sensor calibration apparatus. One or more diffraction patterns are generated by one or more fixed and/or moveable gratings (inertial sensors) illuminated by an atomically stabilized source attached to a base and detected by an imager. The grating and/or inertial sensor has a designed parameter value and an actual respective parameter value, such as motion or distance that can be determined upon ultra-precise measurement. Such ultra-precise measurement can be used to calibrate the grating or inertial sensor.

    Abstract translation: 惯性传感器校准方法和惯性传感器校准装置。 一个或多个衍射图案由一个或多个固定和/或可移动的光栅(惯性传感器)产生,该光栅由附接到基座的原子稳定的光源照射并由成像器检测。 光栅和/或惯性传感器具有设计参数值和实际相应的参数值,例如可以在超精密测量时确定的运动或距离。 这种超精密测量可用于校准光栅或惯性传感器。

    SELF-POWERED, PIEZO-SURFACE ACOUSTIC WAVE APPARATUS AND METHOD
    7.
    发明申请
    SELF-POWERED, PIEZO-SURFACE ACOUSTIC WAVE APPARATUS AND METHOD 审中-公开
    自激式PIEZO-SURFACE ACOUSTIC WAVE APPARATUS AND METHOD

    公开(公告)号:WO2010054368A2

    公开(公告)日:2010-05-14

    申请号:PCT/US2009063855

    申请日:2009-11-10

    Inventor: LAL AMIT TIN STEVEN

    CPC classification number: G21H1/02 H03B5/326 H03H9/0542 H03H9/145

    Abstract: An autonomous, self -powered device includes a radioisotope-powered current impulse generator including a spring assembly comprising a cantilever, and a piezoelectric- surface acoustic wave (P-SAW) structure connected in parallel to the current impulse generator. Positive charges are accumulated on an electrically isolated 63Ni thin film due to the continuous emission of ß-particles (electrons), which are collected on the cantilever. The accumulated charge eventually pulls the cantilever into the radioisotope thin-film until electrical discharge occurs. The electrical discharge generates a transient magnetic and electrical field that can excite the RF modes of a cavity in which the electrical discharge occurs. A piezoelectric-SAW resonator is connected to the discharge assembly to control the RF frequency output. A method for generating a tuned RF signal includes inputting an energy pulse to a P-SAWresonator, exciting the resonant frequency thereof, and outputting an RF signal having a frequency tuned to the resonator frequency.

    Abstract translation: 自主的,自给自足的装置包括放射性同位素供电的电流脉冲发生器,其包括包括悬臂的弹簧组件和与电流脉冲发生器并联连接的压电表面声波(P-SAW)结构。 由于在悬臂上收集的β粒子(电子)的连续发射,在电隔离的63Ni薄膜上积累正电荷。 累积的电荷最终将悬臂拉入放射性同位素薄膜直到发生放电。 放电产生瞬态磁场和电场,其可以激发发生放电的空腔的RF模式。 压电SAW谐振器连接到放电组件以控制RF频率输出。 一种用于产生调谐RF信号的方法包括将能量脉冲输入到P型谐振器,激励其谐振频率,并输出具有调谐到谐振器频率的频率的RF信号。

    GENERATION AND ACCELERATION OF CHARGED PARTICLES USING COMPACT DEVICES AND SYSTEMS
    8.
    发明申请
    GENERATION AND ACCELERATION OF CHARGED PARTICLES USING COMPACT DEVICES AND SYSTEMS 审中-公开
    使用紧凑型设备和系统产生和加速充电颗粒

    公开(公告)号:WO2014123591A2

    公开(公告)日:2014-08-14

    申请号:PCT/US2013065549

    申请日:2013-10-17

    Applicant: UNIV CORNELL

    Abstract: A system that generates short charged particle packets or pulses (e.g., electron packets) without requiring a fast-switching-laser source is described. This system may include a charged particle source that produces a stream of continuous charged particles to propagate along a charged particle path. The system also includes a charged particle deflector positioned in the charged particle path to deflect the stream of continuous charged particles to a set of directions different from the charged particle path. The system additionally includes a series of beam blockers located downstream from the charged particle deflector and spaced from one another in a linear configuration as a beam-blocker grating. This beam-blocker grating can interact with the deflected stream of charged particles and divide the stream of the charged particles into a set of short particle packets. In one embodiment, the charged particles are electrons. The beam blockers can be conductors.

    Abstract translation: 描述了不需要快速切换激光源的短带电粒子分组或脉冲(例如,电子分组)的系统。 该系统可以包括产生连续带电粒子流的带电粒子源,以沿带电粒子路径传播。 该系统还包括位于带电粒子路径中的带电粒子偏转器,以将连续带电粒子流偏转到与带电粒子路径不同的一组方向。 该系统还包括位于带电粒子偏转器下游的一系列光束阻挡器,并且以线性配置彼此间隔开,作为光束阻挡光栅。 该束阻挡光栅可以与被偏转的带电粒子流相互作用,并将带电粒子的流分成一组短粒子包。 在一个实施例中,带电粒子是电子。 光束阻挡器可以是导体。

    ULTRASONIC HORN ACTUATED MICROPROBES BASED SELF-CALIBRATING VISCOSITY SENSOR
    9.
    发明申请
    ULTRASONIC HORN ACTUATED MICROPROBES BASED SELF-CALIBRATING VISCOSITY SENSOR 审中-公开
    超声波激光微孔基自校准粘度传感器

    公开(公告)号:WO2012009550A3

    公开(公告)日:2012-05-03

    申请号:PCT/US2011044032

    申请日:2011-07-14

    CPC classification number: G01N11/16 G01N29/036 G01N29/2437 G01N2291/02818

    Abstract: An ultrasonic or acoustic viscosity sensor or viscometer is provided that can be used to accurately measure viscosity for fluid samples of less than 1 µl in volume. Methods for measuring viscosity for fluid samples of less than 1 µl in volume are also provided. The viscosity sensor and methods based thereon enable simultaneous measurement of bulk and dynamic (shear-rate dependent) viscosity of a non-Newtonian fluid. Bulk and dynamic viscosity of the non-Newtonian fluid can be measured simultaneously without separating constituents of the fluid, and thus distinguishing the effect of constituents on the viscosity. Dynamic viscosity of the non-Newtonian fluid can be estimated at varying shear rates, to study the deformability of the constituents of the fluid as a function of shear rate.

    Abstract translation: 提供超声或声学粘度传感器或粘度计,可用于精确测量体积小于1μl的流体样品的粘度。 还提供了用于测量体积小于1μl的流体样品的粘度的方法。 粘度传感器和其上的方法能够同时测量非牛顿流体的体积和动态(剪切速率依赖)粘度。 可以同时测量非牛顿流体的体积和动态粘度,而不会分离流体的成分,从而区分组分对粘度的影响。 可以在不同的剪切速率下估计非牛顿流体的动态粘度,以研究流体成分的变形性作为剪切速率的函数。

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