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    • 11. 发明授权
    • Standing wave compressor
    • 驻波压缩机
    • US5020977A
    • 1991-06-04
    • US380719
    • 1989-07-12
    • Timothy S. Lucas
    • Timothy S. Lucas
    • F03G7/00F04B35/04F04F7/00F25B1/02F25B49/02
    • F04F7/00F03G7/002F04B35/04F25B1/02F25B49/022
    • A compressor for compression-evaporation cooling systems, which requires no moving parts. A gaseous refrigerant inside a chamber is acoustically compressed and conveyed by means of a standing acoustic wave which is set up in the gaseous refrigerant. This standing acoustic wave can be driven either by a transducer, or by direct exposure of the gas to microwave and infrared sources, including solar energy. Input and output ports arranged along the chamber provide for the intake and discharge of the gaseous refrigerant. These ports can be provided with optional valve arrangements, so as to increase the compressor's pressure differential. The performance of the compressor in either of its transducer or electromagnetically driven configurations, can be optimized by a controlling circuit. This controlling circuit holds the wavelength of the standing acoustical wave constant, by changing the driving frequency in response to varying operating conditions.
    • 用于压缩蒸发冷却系统的压缩机,其不需要移动部件。 腔室内的气态制冷剂通过设置在气态制冷剂中的驻波声学压缩和输送。 这种声波可以由传感器驱动,也可以通过将气体直接暴露于包括太阳能在内的微波和红外源。 沿着室设置的输入和输出端口用于气态制冷剂的进入和排出。 这些端口可以设置有可选的阀装置,以便增加压缩机的压力差。 压缩机在其传感器或电磁驱动配置中的性能可以通过控制电路来优化。 该控制电路通过响应于变化的操作条件改变驱动频率来保持立体声波的波长恒定。
    • 13. 发明授权
    • Fluidic energy transfer devices
    • 流体能量转移装置
    • US08272851B2
    • 2012-09-25
    • US12224783
    • 2007-03-07
    • Timothy S. Lucas
    • Timothy S. Lucas
    • F04B17/00
    • F04B43/046
    • A fluid energy transfer device, including a chamber for receiving a fluid, at least a portion of the chamber comprising a movable portion relative to another portion of the chamber, the movable portion being adapted to change the volume of the chamber from a first volume to a second volume by movement of the movable portion. The device further includes an actuator attached to the movable portion, wherein the displacements of the movable portion can be larger than the displacement of the actuator.
    • 一种流体能量传递装置,包括用于容纳流体的室,所述室的至少一部分相对于所述室的另一部分包括可移动部分,所述可移动部分适于将所述室的体积从第一体积改变为 通过可移动部分的移动而产生的第二体积。 该装置还包括附接到可动部分的致动器,其中可动部分的位移可大于致动器的位移。
    • 17. 发明授权
    • Compression-evaporation cooling system having standing wave compressor
    • 具有驻波压缩机的压缩蒸发冷却系统
    • US5357757A
    • 1994-10-25
    • US141697
    • 1993-10-26
    • Timothy S. Lucas
    • Timothy S. Lucas
    • F03G7/00F04B35/04F04F7/00F25B1/02F25B49/02F25B9/00
    • F04B35/04F03G7/002F04F7/00F25B1/02F25B49/022
    • A compressor for compression-evaporation cooling systems, which requires no moving parts. A gaseous refrigerant inside a chamber is acoustically compressed and conveyed by means of a standing acoustic wave which is set up in the gaseous refrigerant. This standing acoustic wave can be driven either by a transducer, or by direct exposure of the gas to microwave and infrared sources, including solar energy. Input and output ports arranged along the chamber provide for the intake and discharge of the gaseous refrigerant. These ports can be provided with optional valve arrangements, so as to increase the compressor's pressure differential. The performance of the compressor in either of its transducer or electromagnetically driven configurations, can be optimized by a controlling circuit. This controlling circuit holds the wavelength of the standing acoustical wave constant, by changing the driving frequency in response to varying operating conditions.
    • 用于压缩蒸发冷却系统的压缩机,其不需要移动部件。 腔室内的气态制冷剂通过设置在气态制冷剂中的驻波声学压缩和输送。 这种声波可以由传感器驱动,也可以通过将气体直接暴露于包括太阳能在内的微波和红外源。 沿着室设置的输入和输出端口用于气态制冷剂的进入和排出。 这些端口可以设置有可选的阀装置,以便增加压缩机的压力差。 压缩机在其传感器或电磁驱动配置中的性能可以通过控制电路来优化。 该控制电路通过响应于变化的操作条件改变驱动频率来保持立体声波的波长恒定。
    • 19. 发明申请
    • FORCE-EQUALIZATION STATIONARY-COIL ACTUATOR FOR FLUID MOVERS
    • 用于流体动力的力平衡静止线圈致动器
    • US20130230419A1
    • 2013-09-05
    • US13877570
    • 2011-10-07
    • Timothy S. Lucas
    • Timothy S. Lucas
    • F04B35/04
    • F04B43/04F04B17/04F04B35/045F04B43/025F04B45/043F04B45/047
    • A fluid mover includes a first dynamic armature attached to a flexible member and a second dynamic armature attached to a second flexible member. The fluid mover also includes a housing and first and second flexible members being attached to the housing so as to form a fluid chamber volume bounded by the housing and first and second flexible members. A stationary current carrying coil positioned between first and second armatures. The current carried by the coil generates a magnetic force acting on the armatures and wherein coil and armatures are positioned and configured so as to ensure that the instantaneous magnetic force experienced by the two armatures will always be identical regardless of the relative positions of the armatures and regardless of the time varying properties of the current.
    • 流体驱动器包括附接到柔性构件的第一动力电枢和附接到第二柔性构件的第二动力电枢。 流体驱动器还包括壳体,第一和第二柔性构件附接到壳体,以便形成由壳体和第一和第二柔性构件限定的流体室容积。 定位在第一和第二电枢之间的固定载流线圈。 由线圈承载的电流产生作用在电枢上的磁力,并且其中线圈和电枢被定位和构造成确保两个电枢所经历的瞬时磁力总是相同,而不管衔铁的相对位置和 不管当前的时变属性如何。