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    • 152. 发明授权
    • Closed cycle gas turbine engine and mechanical system driven thereby
    • 封闭循环燃气涡轮发动机和由此驱动的机械系统
    • US5694773A
    • 1997-12-09
    • US359496
    • 1994-12-20
    • Takefumi Hatanaka
    • Takefumi Hatanaka
    • F03G7/00F01K3/18F01K25/00F01K25/12F02C1/10
    • F01K3/186F02C1/105Y02T50/671
    • A closed cycle gas turbine engine has sealed therein a working medium, within a working chamber, a closed exhaust manifold, a gas recirculating path, and a plasma gas generator, with a turbine rotor rotating within the working chamber. High voltage pulses of very brief duration are periodically applied to the plasma gas generator, causing electrical discharges to form a plasma in said working medium, thereby producing high pressure motive gas. Resultant flows of high-pressure motive gas drive the turbine rotor, providing a high level of output power from the engine with no consumption of a fuel. The pressure of the motive gas is reduced in the closed exhaust manifold and recirculated to the motive gas generator through the gas recirculating path for next electrical discharge. The engine is suitable for driving a mechanism such as a vehicle, machine etc.
    • 封闭循环燃气涡轮发动机在工作室内密封有工作介质,封闭的排气歧管,气体再循环路径和等离子体气体发生器,涡轮转子在工作室内旋转。 周期性地对等离子体气体发生器施加非常短暂的持续时间的高电压脉冲,导致放电在所述工作介质中形成等离子体,从而产生高压运动气体。 高压运动气体的有效流动驱动涡轮转子,提供来自发动机的高水平的输出功率而不消耗燃料。 在封闭的排气歧管中运动气体的压力减小,并通过气体再循环路径再循环到动力气体发生器,用于下一次放电。 发动机适用于驾驶车辆,机器等机构。
    • 155. 发明授权
    • Method of and apparatus for producing work from a source of high
pressure, two phase geothermal fluid
    • 从高压二相地热流体源生产工作的方法和设备
    • US5526646A
    • 1996-06-18
    • US279549
    • 1994-07-25
    • Lucien Y. BronickiNadav AmirMoshe Grassiani
    • Lucien Y. BronickiNadav AmirMoshe Grassiani
    • F01D15/10F01K23/04F01K25/08F03G7/04F03G7/00
    • F01K25/08F01D15/10F01K23/04F03G7/04Y02E10/10
    • Apparatus for producing from a source of geothermal fluid that contains a mixture of high pressure steam, brine and noncondensable gases includes a heat exchanger for receiving geothermal fluid and transferring heat to water thereby vaporizing the same to produce steam. At least one power plant module is involved, the module having a steam turbine responsive to steam produced by the heat exchanger for producing work, a steam condenser containing an organic fluid and responsive to low pressure steam that exits the steam turbine for condensing the steam into a liquid and vaporizing the organic fluid. The module also contains an organic vapor turbine responsive to vaporizer organic fluid for producing work, and an organic vapor condenser responsive to the low pressure organic fluid that exits the organic vapor turbine condensing the organic vapor to a liquid that is returned to the steam condenser. The cooled geothermal fluid leaving the primary heat exchanger is conducted to a rejection well. Furthermore, an additional heat exchanger also can be provided, there being a first connection associated with both heat exchangers for selectively inserting the additional heat exchanger between the heat exchanger that receives the geothermal fluid and the injection well whereby the operation of the connection means may be coordinated with the operation of the power plant module.
    • 用于从含有高压蒸汽,盐水和不可冷凝气体的混合物的地热流体源生产的装置包括用于接收地热流体并将热量传递给水的热交换器,从而将其蒸发以产生蒸汽。 至少包括一个发电厂模块,模块具有响应于由热交换器产生的蒸汽产生作业的汽轮机,包含有机流体的蒸汽冷凝器,并响应于离开蒸汽轮机的低压蒸汽,用于将蒸汽冷凝成 液体并蒸发有机流体。 该模块还包含响应蒸发器有机流体以产生作业的有机蒸气涡轮机,以及响应于将有机蒸汽涡轮机冷凝到返回到蒸汽冷凝器的液体的有机蒸汽涡轮机的低压有机流体的有机蒸气冷凝器。 离开主要热交换器的冷却的地热流体被传送到拒绝井。 此外,还可以提供另外的热交换器,存在与两个热交换器相关联的第一连接器,用于在接收地热流体的热交换器和注入井之间选择性地插入附加热交换器,由此连接装置的操作可以是 配合电厂模块的运行。
    • 157. 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。