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    • 2. 发明授权
    • Slow positron beam generator for lifetime studies
    • 慢正电子束发生器,用于终身学习
    • US5015851A
    • 1991-05-14
    • US531372
    • 1990-05-31
    • Jag J. SinghAbe EftekhariTerry L. St. Clair
    • Jag J. SinghAbe EftekhariTerry L. St. Clair
    • G01Q30/02G21K5/02
    • G21K5/02
    • A slow positron beam generator uses a conductive source residing between two test films. Moderator pieces are placed next to the test films on the opposite side of the conductive source. A voltage potential is applied between the moderator pieces and the conductive source. Incident energetic positrons are, first, emitted from the conductive source, second, passed through test film, and then, third, isotropically strike moderator pieces before diffusing out of the moderator pieces as slow positrons. The slow positrons diffusing out of moderator pieces are attracted to the conductive source which is held at an appropriate potential below the moderator pieces. The slow positrons have to pass through the test films before reaching the conductive source. A voltage is adjusted so that the potential difference between the moderator pieces and the conductive source forces the positrons to stop in the test films. Measurable annihilation radiation is emitted from the test film when positrons annihilate (combine) with electrons in the test film.
    • 慢正电子束发生器使用驻留在两个测试膜之间的导电源。 主持人片放置在导电源相对侧的测试薄膜的旁边。 在调节器片和导电源之间施加电压电位。 事件能量正电子首先从导电源发射,第二次通过测试膜,然后第三,各向同性地使调节剂片段以扩散出慢速正电子体之前的调节剂片段。 扩散到调节剂片段的慢正电子被吸引到导电源上,导电源被保持在调节剂片下方的适当电位。 慢正电子必须在到达导电源之前通过测试膜。 调整电压,使得调节剂片和导电源之间的电位差迫使正电子在测试膜中停止。 当正电子在测试膜中湮灭(结合)电子时,可以从测试膜发射可测量的湮灭辐射。
    • 3. 发明授权
    • Device for quickly sensing the amount of O.sub.2 in a combustion product
gas
    • 用于快速检测燃烧产物气体中的O2量的装置
    • US4911890A
    • 1990-03-27
    • US165945
    • 1988-03-09
    • Jag J. SinghWilliam T. DavisRichard L. Puster
    • Jag J. SinghWilliam T. DavisRichard L. Puster
    • G01N27/30G01N27/407
    • G01N27/407Y10T436/12Y10T436/208339Y10T436/218
    • A sensing device 50 comprising an O.sub.2 sensor 22, a pump 37, a compressor 19, and a heater 21 is provided to quickly sense the amount of O.sub.2 in a combustion product gas. A sample of the combustion product gas is compressed to a pressure slightly above one atmosphere by compressor 19. Next, heater 21 heats the sample between 800.degree. C. and 900.degree. C. Next, pump 37 causes the sample to be flushed against electrode 32 located in O.sub.2 sensor 22 6000 to 10,000 times per second. Reference air at approximately one atmosphere is provided to electrode 31 of O.sub.2 sensor 22. Accordingly, O.sub.2 sensor 22 produces a voltage which is proportional to the amount of oxygen in the combustion product gas. This voltage may be used to control the amount of O.sub.2 entering into the combustion chamber 10 which produces the combustion product gas.
    • 提供包括O2传感器22,泵37,压缩机19和加热器21的感测装置50,以快速感测燃烧产物气体中的O 2量。 燃烧产物气体的样品被压缩机19压缩至略高于一个大气压。接下来,加热器21将样品加热到800℃和900℃之间。接下来,泵37使样品冲洗到电极32上 位于O2传感器22 6000至10,000次/秒。 向O2传感器22的电极31提供约一个大气压的参考空气。因此,O 2传感器22产生与燃烧产物气体中的氧气量成比例的电压。 该电压可用于控制进入燃烧室10的O 2的量,其产生燃烧产物气体。
    • 4. 发明授权
    • Low energy electron magnetometer using a monoenergetic electron beam
    • 低能电子磁力计使用单能电子束
    • US4414509A
    • 1983-11-08
    • US210498
    • 1980-11-26
    • Jag J. SinghGeorge M. Wood, Jr.Grayson H. RaybornFrederick A. White
    • Jag J. SinghGeorge M. Wood, Jr.Grayson H. RaybornFrederick A. White
    • G01R33/02
    • G01R33/0213
    • A low energy electron beam magnetometer that utilizes near-monoenergetic electrons thereby reducing errors due to electron energy spread and electron nonuniform angular distribution. In a first embodiment of the invention (FIGS. 3 and 4) atoms in an atomic beam 30 of an inert gas are excited to a Rydberg state (lasers 32, 33 and 34) and then electrons of near zero energy are detached from the Rydberg atoms (gas chamber 35 ). The near zero energy electrons are then accelerated by an electric field V.sub.acc to form the electron beam 21. In a second embodiment of the invention (FIG. 5) a filament 42 emits electrons into an electrostatic analyzer 40 which selects electrons at a predetermined energy level within a very narrow range. These selected electrons make up the electron beam that is subjected to the magnetic field being measured.
    • 一种低能电子束磁力计,利用近乎单能的电子,从而减少由于电子能量扩散和电子不均匀角分布引起的误差。 在本发明的第一实施例(图3和图4)中,将惰性气体的原子束30中的原子激发到里德堡状态(激光器32,33和34),然后将近零能量的电子从里德伯 原子(气室35)。 然后通过电场Vacc加速近零能量的电子以形成电子束21.在本发明的第二实施例(图5)中,灯丝42将电子发射到静电分析器40中,静电分析器40以预定的能级选择电子 在很窄的范围内。 这些选择的电子构成被测量的磁场的电子束。
    • 6. 发明授权
    • Method and device for determining heats of combustion of gaseous
hydrocarbons
    • 用于确定气态碳氢化合物的燃烧热的方法和装置
    • US4761744A
    • 1988-08-02
    • US933962
    • 1986-11-24
    • Jag J. SinghDanny R. SprinkleRichard L. Puster
    • Jag J. SinghDanny R. SprinkleRichard L. Puster
    • G01N31/12G01N33/22G06F15/46G01N25/22
    • G01N33/225
    • A method and device 15 is provided for a quick, accurate and on-line determination of heats of combustion of gaseous hydrocarbons. First, the amount of oxygen in the carrier stream air is sensed by oxygen sensing system 20. Second, three individual volumetric flow rates of oxygen, carrier stream air, and hydrocarbon test gas are introduced into burner 19. The hydrocarbon test gas is fed into burner 19 at a volumetric flow rate n measured by flowmeter 18. Third, the amount of oxygen in the resulting combustion products is sensed by oxygen sensing system 20. Fourth, the volumetric flow rate of oxygen is adjusted until the amount of oxygen in the combustion product equals the amount of oxygen previously sensed in the carrier stream air. This equalizing volumetric flow rate is m and is measured by flowmeter 16. The heat of combustion of the hydrocarbon test gas is then determined from the ratio m/n.
    • 提供了一种用于快速,准确和在线地确定气态烃的燃烧热的方法和装置15。 首先,氧气感测系统20检测载气流中的氧气量。其次,氧气,载气流空气和烃类测试气体的三个单独的体积流量被引入燃烧器19中。将烃试验气体送入 燃烧器19以通过流量计18测量的体积流量n进行。第三,由氧气感测系统20感测所得燃烧产物中的氧气量。其次,调节氧气的体积流量直到燃烧中的氧气量 产物等于先前在载气流中感测到的氧气量。 该均衡体积流量为m,并通过流量计16测量。然后根据比率m / n确定烃测试气体的燃烧热。
    • 9. 发明授权
    • Radionuculide counting technique for measuring wind velocity and
direction
    • 用于测量风速和方向的放射性核素计数技术
    • US4449400A
    • 1984-05-22
    • US444149
    • 1982-11-24
    • Jag J. Singh
    • Jag J. Singh
    • G01P13/04G01F1/28G01W1/00
    • G01P13/045
    • An anemometer utilizing a radionuclide counting technique for measuring both the velocity and the direction of wind. A pendulum 12 consisting of a wire 13 and a ball 14 with a source of radiation 15 on the lower surface of the ball is positioned by the wind. Detectors 16, 17 and 18 are located in a plane perpendicular to pendulum 13 (no wind). The detectors are located on the circumference of a circle and are equidistant from each other as well as the undisturbed (no wind) source ball position. The ratio of the outputs of detectors 16 and 17, and the ratio of the outputs of detectors 17 and 18 are applied to a processor 23 to select from the data stored in the processor the wind velocity V and the wind direction .phi..In a second embodiment of the invention (FIG. 10) the pendulum consists of a wire 27, a heavy ball 24, a string 28 and a lighter ball 25 with radiation sources on the lower surfaces of both balls.
    • 利用放射性核素计数技术测量风速和速度方向的风速计。 在球的下表面上由线13和具有辐射源15的球14构成的摆锤12由风定位。 检测器16,17和18位于垂直于摆13(没有风)的平面中。 探测器位于圆周的圆周上并且彼此等距离以及未受干扰(无风)源球位置。 检测器16和17的输出的比率以及检测器17和18的输出的比率被应用于处理器23,以从存储在处理器中的数据中选择风速V和风向phi。 在本发明的第二个实施例(图10)中,摆锤由两个球的下表面上的辐射源的线27,重球24,弦线28和更轻的球25组成。