SELF-POWERED LITHOGRAPHY METHOD AND APPARATUS USING RADIOACTIVE THIN FILMS
    1.
    发明申请
    SELF-POWERED LITHOGRAPHY METHOD AND APPARATUS USING RADIOACTIVE THIN FILMS 审中-公开
    自动光刻方法和使用放射性薄膜的设备

    公开(公告)号:WO2009085240A3

    公开(公告)日:2009-09-17

    申请号:PCT/US2008013958

    申请日:2008-12-22

    Inventor: LAL AMIT

    CPC classification number: G03F1/20 G03F1/22 G03F7/2039 G03F7/2065

    Abstract: A self-powered 'near field' lithographic system 100 includes three primary components, namely, a thin film or emitter substrate 110 including a radioactive material (e.g., a radioisotope 112), a target substrate 120 which carries an energy-modifiable layer 122 (e.g., photo-resist) and a stencil (e.g., 130) that is either positioned between the emitter and target substrates fabricated upon and defined in the emitter substrate. The stencil is made from a material capable of blocking particles emitted through radioactive decay from the radioisotope of the emitter substrate. The stencil includes openings or vias 132 patterned to permit selective transmission of the particles emitted through radioactive decay from the radioisotope of the emitter substrate 110, and the stencil is preferably placed up against (or very close to) the target substrate 120.

    Abstract translation: 自供电的“近场”光刻系统100包括三个主要部件,即包括放射性材料(例如,放射性同位素112)的薄膜或发射器基底110,携带能量可改性层122的靶基底120 例如光致抗蚀剂)和模板(例如,130),其被定位在制造在发射器衬底上并限定在发射器衬底中的发射极和靶衬底之间。 模板由能够阻挡从发射器基板的放射性同位素放射性衰变发射的颗粒的材料制成。 模板包括被图案化以允许通过放射性衰变发射的颗粒从发射器基底110的放射性同位素的选择性透射的开口或通孔132,并且模板优选地放置在与靶基板120(或非常接近))上。

    SURGICALLY IMPLANTED MICRO-PLATFORMS AND MICROSYSTEMS IN ARTHROPODS AND METHODS BASED THEREON
    2.
    发明申请
    SURGICALLY IMPLANTED MICRO-PLATFORMS AND MICROSYSTEMS IN ARTHROPODS AND METHODS BASED THEREON 审中-公开
    基于该方法的神经植入微量平台和微观结构及方法

    公开(公告)号:WO2008140502A2

    公开(公告)日:2008-11-20

    申请号:PCT/US2007025437

    申请日:2007-12-11

    CPC classification number: A01K67/033 A61N1/3605 A61N1/372

    Abstract: A method is provided for producing an arthropod comprising introducing a microsystem such as a MEMS device into an immature arthropod under conditions that result in producing an adult arthropod with a functional microsystem permanently attached to its body. A method is also provided for producing a robotic apparatus. The method can comprise introducing a microsystem such as a MEMS device into an immature arthropod under conditions that result in producing a robotic apparatus with the microsystem permanently attached to the body of the adult arthropod.

    Abstract translation: 提供了一种用于产生节肢动物的方法,包括在导致产生具有永久附着于其身体的功能微系统的成年节肢动物的条件下将例如MEMS装置的微系统引入未成熟的节肢动物中。 还提供了一种用于生产机器人装置的方法。 该方法可以包括在导致产生具有微系统的机器人装置永久地附接到成年节肢动物的身体的条件下的诸如MEMS装置之类的微系统引入未成熟的节肢动物中。

    SELF POWERED SENSORS WITH RADIOISOTOPE SOURCE
    3.
    发明申请
    SELF POWERED SENSORS WITH RADIOISOTOPE SOURCE 审中-公开
    具有放射源的自感电源

    公开(公告)号:WO2008115202A2

    公开(公告)日:2008-09-25

    申请号:PCT/US2007020158

    申请日:2007-09-18

    CPC classification number: G21H5/00 G01T1/2018 G01T3/06 G01T7/00

    Abstract: A self-powered sensor (e.g., 100, 180, 220, 400) can wake-up systems requiring a trigger signal to wake-up circuits or systems in power-sleep mode, conserving the battery power for emergency computations and communications. In a humidity sensor embodiment 100, radioisotope generated voltage biases are employed to power sensor capacitors to realize self-powered sensors. A first self-powered capacitor biasing architecture 160 is based on changes in the leakage resistance of the polymer capacitor 110, and a second self-powered capacitor biasing architecture 140 uses changes in the capacitance of the polymer capacitor. Another sensor embodiment uses changes in the capacitance or leakage resistance of the sensor capacitor to modulate conductance of a MOSFET 114, realizing an easily readable electronic output signal. A temperature sensor embodiment 180 and a MEMS cantilever structure based fissile material proximity sensor embodiment 400 are also disclosed.

    Abstract translation: 自供电传感器(例如,100,180,220,400)可以唤醒需要触发信号的系统以唤醒电源或电源睡眠模式下的系统,从而节省用于紧急计算和通信的电池电力。 在湿度传感器实施例100中,使用放射性同位素产生的电压偏压来为传感器电容器供电以实现自供电传感器。 第一自供电电容器偏置架构160基于聚合物电容器110的耐漏电流的变化,第二自供电电容器偏置架构140使用聚合物电容器的电容的变化。 另一传感器实施例使用传感器电容器的电容或漏电阻的变化来调制MOSFET 114的电导,实现易于读取的电子输出信号。 还公开了温度传感器实施例180和基于MEMS悬臂结构的裂变材料接近传感器实施例400。

    RADIOACTIVE DECAY BASED STABLE TIME OR FREQUENCY REFERENCE SIGNAL SOURCE
    4.
    发明申请
    RADIOACTIVE DECAY BASED STABLE TIME OR FREQUENCY REFERENCE SIGNAL SOURCE 审中-公开
    基于放射性衰减的稳定时间或频率参考信号源

    公开(公告)号:WO2006124527A3

    公开(公告)日:2007-08-02

    申请号:PCT/US2006018282

    申请日:2006-05-11

    CPC classification number: G04F5/16 G01T1/171

    Abstract: A signal source for use as a frequency source or time keeping signal source includes a radioactive emission source generating a substantially periodic signal corresponding to a radioactive material's disintegration rate. A radioactive emission detector generates a radioactive emission detection signal and, to stabilize the detected periodic signal, a dead time controlling attenuator blanks or shuts off the radioactive emission detection signal for a selected dead time interval in response to each detected radioactive emission (i.e., a detected signal pulse or signal component) generated by the source. The dead time controlling attenuator output provides a long-term and short-term a stable periodic signal.

    Abstract translation: 用作频率源或时间保持信号源的信号源包括产生对应于放射性物质的崩解速率的基本周期性信号的放射性发射源。 放射性发射检测器产生放射性发射检测信号,并且为了稳定检测到的周期信号,控制衰减器的死区时间响应于每个检测到的放射性发射而对所选择的死区间隔进行空白或关闭放射性发射检测信号(即, 检测信号脉冲或信号分量)。 死区时间控制衰减器输出提供长期和短期稳定的周期信号。

    BETAVOLTAIC APPARATUS AND METHOD
    5.
    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。

    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。

    ULTRASONIC HORN ACTUATED MICROPROBES BASED SELF-CALIBRATING VISCOSITY SENSOR
    8.
    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。

Patent Agency Ranking