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    • 2. 发明授权
    • Spa tub fluidic nozzles
    • SPA浴缸流体喷嘴
    • US07070129B1
    • 2006-07-04
    • US09602018
    • 2000-06-23
    • Surya RaghuDharapuram N. SrinathSean T. Burns
    • Surya RaghuDharapuram N. SrinathSean T. Burns
    • B05B1/08
    • B05B1/08B05B1/042F15C1/22
    • A therapeutic spa tub having a waterline and one or more fluidic nozzles for issuing therapeutic jets of water into the tub. The one or more water nozzles each comprises a housing having an inlet for receiving a flow of water under pressure, a fluidic oscillator having an oscillation chamber and at least one power nozzle coupled to the inlet and the oscillation chamber for projecting at least one jet of water into the oscillation chamber in one or more outlets from said oscillation chamber for issuing one or more pulsating jets of water into the spa tub below the waterline. An air passage in the outlet entrains ambient air in water passing through the outlet. The fluidic oscillator is a low frequency reversing chamber oscillator wherein the oscillation chamber has a reversing wall. The power nozzle is centrally located for issuing a jet of water toward the reversing wall, and a pair of liquid passages leads from the reversing chamber on each side of the power nozzle, respectively, for alternating carrying periodic pulses of water and wherein the outlet passages are smoothly extended to intersect at a common outlet to ambient and water from the passages merge to form a low-frequency swept jet of water, and the passages are dimensioned and angulated relative to each other to control a fan angle of liquid jet which is periodically swept into said common outlet to ambient water in said tub.
    • 一种具有水线和一个或多个流体喷嘴的治疗性温泉浴缸,用于向桶内发出治疗性射流。 一个或多个水喷嘴各自包括具有用于接收压力下的水流的入口的壳体,具有振荡室的流体振荡器和联接到入口和振荡室的至少一个功率喷嘴,用于将至少一个喷射流 在来自所述振荡室的一个或多个出口中的水进入振荡室,用于将一个或多个脉动喷射的水喷射到水线下面的SPA浴缸中。 出口中的空气通道夹带着通过出口的水中的环境空气。 流体振荡器是低频反转室振荡器,其中振荡室具有反向壁。 动力喷嘴位于中心位置,用于向反向壁发射水流,并且一对液体通道分别从动力喷嘴的每一侧的反转室引出,用于交替地携带周期性的水脉冲,并且其中出口通道 平滑地延伸以在公共出口处与环境相交,并且来自通道的水合并以形成低频扫掠射流的水,并且通道相对于彼此设定尺寸并成角度,以控制周期性的液体射流的风扇角 将所述公共出口扫入所述桶中的环境水。
    • 4. 发明授权
    • Fluidic spray nozzles for use in cooling towers and the like
    • 用于冷却塔等的流体喷嘴
    • US5853624A
    • 1998-12-29
    • US798685
    • 1997-02-12
    • Surya RaghuRonald D. Stouffer
    • Surya RaghuRonald D. Stouffer
    • B05B1/08F28F25/06B01F3/04
    • F28F25/06B05B1/08
    • A cooling tower having a housing for forming droplets of hot water in an air stream which causes a small portion of the hot water issuing from said oscillating spray nozzles to evaporate and remove heat from the remaining water thereby cooling said remaining water. A sump collects the remaining water and returns the remaining water to the heat source. The low pressure fluidic oscillating nozzles: (a) form large sized droplets of hot water uniformly over a large area, (b) reduce the quantity of droplets of hot water that are less than 2 mm diameter, (c) issue a spray pattern that reduces aerodynamic interference with air flow from said air blower, and (d) reduce sediments getting into the spraying of said hot water. In a preferred embodiment, the fluidic oscillator is a cusped island oscillator having an outlet with diverging sidewalls.
    • 一种具有用于在空气流中形成热水小滴的壳体的冷却塔,其使得从所述振荡喷嘴喷出的一小部分热水从所述剩余的水中蒸发并除去热量,从而冷却所述剩余的水。 储水池收集剩余的水并将剩余的水返回到热源。 低压流体振荡喷嘴:(a)在大面积上均匀地形成大尺寸的热水滴,(b)减少直径小于2mm的热水滴,(c)发出喷雾模式, 减少来自所述鼓风机的空气流动的空气动力学干扰,(d)减少进入所述热水喷射的沉积物。 在优选实施例中,流体振荡器是具有发散侧壁的出口的带槽岛振荡器。
    • 5. 发明授权
    • Reversing chamber oscillator
    • 反转室振荡器
    • US06978951B1
    • 2005-12-27
    • US09427985
    • 1999-10-27
    • Surya Raghu
    • Surya Raghu
    • B05B1/08B60S1/52F15C1/22
    • B60S1/522B05B1/08B60S1/52F15C1/22
    • A reversing chamber oscillator has an oscillation chamber with a reversing wall, a centrally located power nozzle for issuing a jet of liquid toward the reversing wall, and a pair of liquid passages from the reversing chamber on each side of the power nozzle, respectively, for alternately issuing periodic pulses of liquid. The outlet passages are smoothly extended to intersect directly at a common outlet and are dimensioned and angulated relative to each other to control the sweep angle of a liquid jet which is periodically swept in the common outlet and issued to ambient. The pair of fluid passages have an upstream end at the reversing chamber and a downstream end at the common outlet and each passage has an outer wall which, with the reversing wall, define an oval.
    • 反转室振荡器具有振荡室,其具有反转壁,位于中心的功率喷嘴,用于向反向壁发射液体射流,以及一对液体通道,分别从动力喷嘴的每一侧上的反转室中,用于 交替地发出液体的周期性脉冲。 出口通道平滑地延伸以在公共出口处直接相交,并相对于彼此尺寸和成角度,以控制在公共出口周期性地扫过并且发出到环境的液体射流的扫掠角。 一对流体通道在反转室处具有上游端,在公共出口处具有下游端,每个通道具有外壁,反向壁与外壁形成椭圆形。
    • 6. 发明授权
    • Method and apparatus for aerodynamic flow control using compact high-frequency fluidic actuator arrays
    • 使用紧凑型高频流体驱动器阵列进行气动流量控制的方法和装置
    • US08382043B1
    • 2013-02-26
    • US12804225
    • 2010-07-16
    • Surya Raghu
    • Surya Raghu
    • B64C21/04
    • B64C21/04B64C2230/04B64C2230/18F15D1/008Y02T50/166
    • The present invention is directed to the manufacture of and the use of an aerodynamic flow control device having a compact array of a plurality of fluidic actuators in planar, curved, circular and annular configurations. The compact array of fluidic actuators of the invention may be designed to produce oscillating or pulsed jets at the exit ports with frequencies in the range of 1-22 kHz. They may be integrally manufactured along with the wing sections, flaps, tail and rudder of airplane, the inlet or exit geometries of a jet engine. When supplied with a source of fluid such as air, these arrays of actuators produce a set of fluid jets of random phase of high velocity and influence the main stream of air over the subject surface. The beneficial effects of modifying flow using the present invention include increased lift, reduced drag, improved performance and noise reduction in jet engines.
    • 本发明涉及一种具有平面,弯曲,圆形和环形构造的多个流体致动器的紧凑阵列的空气动力学流量控制装置的制造和使用。 本发明的流体致动器的紧凑阵列可被设计成在出口处产生振荡或脉冲射流,频率范围为1-22kHz。 它们可以与飞机的翼部,翼片,尾翼和方向舵,喷气发动机的入口或出口几何形状一体制造。 当供应诸如空气的流体源时,这些致动器阵列产生一组高速度的随机相的流体射流并影响主体表面上的主要空气流。 使用本发明改进流动的有益效果包括增加升力,降低阻力,提高喷气发动机的性能和降噪。
    • 8. 发明授权
    • Feedback-free fluidic oscillator and method
    • 无反馈流体振荡器和方法
    • US06253782B1
    • 2001-07-03
    • US09417899
    • 1999-10-14
    • Surya Raghu
    • Surya Raghu
    • F15C106
    • B05B1/08F15C1/22Y10T137/0396Y10T137/2093Y10T137/2098Y10T137/2104Y10T137/2115Y10T137/2185Y10T137/2224Y10T137/2234
    • A fluidic oscillator includes a member having an oscillation inducing chamber, at least one source of fluid under pressure, at least a pair of power nozzles connected to the at least one source of fluid under pressure for projecting at least a pair of fluid jets into the oscillation chamber, and at least one outlet from the oscillation chamber for issuing a pulsating or oscillating jet of fluid to a point of utilization or ambient. A common fluid manifold connected to said at least a pair of power nozzles. The shape of the power nozzle manifold forms one of the walls of the interaction or oscillation chamber. In some of the fluidic circuits, the length can be matched to fit existing housings. The power nozzle can have offsets which produce yaw angles in a liquid spray fan angle to the left or right depending on the direction desired. In some embodiments, the exit throat is off axis (off the central axis of the symmetry) by a small fraction to the left or right to move the leftward or rightward yaw angles in the spray. The outlet throat may be offset along the longitudinal axis by a small amount to produce a yaw angle of predetermined degree to the left or right depending on what is desired. Thus, one can construct circuits for yaw using a combination of the techniques described above which suits most applications.
    • 流体振荡器包括具有振荡诱导室的构件,处于压力下的至少一个流体源,至少一对动力喷嘴,其连接至该压力下的至少一个流体源,用于将至少一对流体射流投射到 振荡室和来自振荡室的至少一个出口,用于将脉动或振荡的流体喷射到利用点或环境温度。 连接到所述至少一对动力喷嘴的公共流体歧管。 动力喷嘴歧管的形状形成相互作用或振荡室的壁之一。 在一些流体回路中,长度可以匹配以适应现有的外壳。 功率喷嘴可以具有根据所需方向产生在左侧或右侧的液体喷雾扇形角度的偏航角的偏移。 在一些实施例中,出口喉部离轴线(离开对称的中心轴线)一小部分向左或向右移动以在喷雾中移动向左或向右的偏航角。 出口喉部可以沿着纵向轴线偏移少量,以根据期望产生左右的预定角度的偏航角。 因此,可以使用适合大多数应用的上述技术的组合来构造用于偏航的电路。
    • 10. 发明授权
    • Method and apparatus for microfluidics education
    • 微流体教育的方法和装置
    • US07210937B1
    • 2007-05-01
    • US10440871
    • 2003-05-19
    • Surya Raghu
    • Surya Raghu
    • G09B23/06
    • G09B23/12
    • The objective of the present invention is to provide a method and apparatus for education and training in microfluidic technology. The microfluidic system training apparatus includes multiple flow configurations of microfluidic elements all configured and fabricated on a single plate, a microscope and a camera system connected to a monitor or computer, and a computer based control and data acquisition system as a means of controlling and measuring the flow properties. The hands-on experiments with the apparatus of the present invention are designed to provide students with training of varying complexity beginning with basic microfluidic flow system studies to the development of an advanced specific microfluidic flow process or protocol utilizing a variety of the conventional microfluidic elements.
    • 本发明的目的是提供一种用于微流控技术教育和培训的方法和装置。 微流体系统训练装置包括多个流动构造的微流体元件,其全部构造和制造在单个板,显微镜和连接到监视器或计算机的相机系统上,以及基于计算机的控制和数据采集系统作为控制和测量的手段 流量特性。 本发明设备的实践实验旨在为学生提供不同复杂性的培训,从基本微流体流动系统研究开始,开发利用各种常规微流体元件的先进的特定微流体流程或方案。