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    • 53. 发明申请
    • DYNAMIC TUNING OF DYNAMIC MATRIX CONTROL OF STEAM TEMPERATURE
    • 蒸汽温度动态矩阵控制的动态调谐
    • US20120036852A1
    • 2012-02-16
    • US13022237
    • 2011-02-07
    • Robert A. BeveridgeRichard J. Whalen, JR.
    • Robert A. BeveridgeRichard J. Whalen, JR.
    • F01K13/02F22B3/00F01K3/14
    • F22G5/12
    • A technique of controlling a steam generating boiler system includes dynamically tuning a rate of change of a disturbance variable (DV) to control operation of a portion of the boiler system, and in particular, to control a temperature of output steam to a turbine. The rate of change of the DV is dynamically tuned based on a magnitude of an error or difference between an actual and a desired level of an output parameter, e.g., output steam temperature. In an embodiment, as the magnitude of the error increases, the rate of change of the DV is increased according to a function f(x). A dynamic matrix control block uses the dynamically-tuned rate of change of the DV, a current output parameter level, and an output parameter setpoint as inputs to generate a control signal to control a field device that, at least in part, affects the output parameter level.
    • 控制蒸汽发生锅炉系统的技术包括动态调整干扰变量(DV)的变化率,以控制锅炉系统的一部分的运行,特别是控制到涡轮机的输出蒸汽的温度。 DV的变化率基于输出参数的实际和期望水平(例如输出蒸汽温度)之间的误差的大小或动态调整。 在一个实施例中,随着误差的大小增加,DV的变化率根据函数f(x)增加。 动态矩阵控制块使用动态调整的DV变化率,当前输出参数电平和输出参数设定值作为输入,以产生控制信号以控制至少部分地影响输出的现场设备 参数级别。
    • 54. 发明申请
    • APPARATUS AND METHOD FOR A STEAMER
    • 蒸汽机的装置和方法
    • US20100086287A1
    • 2010-04-08
    • US12552105
    • 2009-09-01
    • Max RosenzweigOgnjen Vrdoljak
    • Max RosenzweigOgnjen Vrdoljak
    • F22B3/00
    • D06F39/008A47J27/04F22B1/285
    • A steam apparatus including a first steam apparatus to produce a first steam having a humidity level at or above a first predetermined level and having a temperature at or below a first predetermined temperature and a second steam apparatus to produce a second steam having a humidity level at or below a second predetermined level and having a temperature at or above a second predetermined temperature. An output apparatus is configured to receive the first steam and the second steam and output the first steam, the second steam, or a hybrid steam defined by a mixture of the first steam and the second steam. An atomizer may be included to assist the steam generation.
    • 一种蒸汽设备,包括第一蒸汽设备,以产生具有等于或高于第一预定水平的湿度水平并且具有等于或低于第一预定温度的温度的第一蒸汽和第二蒸汽设备,以产生具有湿度水平的第二蒸汽 或低于第二预定水平并且具有等于或高于第二预定温度的温度。 输出装置被配置为接收第一蒸汽和第二蒸汽并输出第一蒸汽,第二蒸汽或由第一蒸汽和第二蒸汽的混合物限定的混合蒸汽。 可以包括雾化器以帮助产生蒸汽。
    • 60. 发明授权
    • Energy conversion method and system
    • 能量转换方法和系统
    • US4420373A
    • 1983-12-13
    • US289843
    • 1981-08-03
    • Dan Egosi
    • Dan Egosi
    • C02F1/06F22B3/00F25B29/00F25B30/00B01D1/28C02F1/04F22D1/00
    • C02F1/06F22B3/00F25B29/00F25B30/00Y02W10/37Y10S203/08Y10S203/16Y10S203/21
    • A mechanical energy conversion method and system for the restoration of dissipated heat energy, contained in natural or artificial water bodies at or near ambient temperatures, to industrial process heat, mainly in the form of steam up to 200.degree.-400.degree. C. The sensible heat contained in a water body is concentrated as latent heat in low pressure water vapor which is thermo-compressed by steam ejection to an intermediate pressure level, wherefrom mechanical compression takes over, generating highly superheated output steam. The ejecting steam is not generated in a boiler, but is continuously regenerated by the compressor and routed back for repeated ejection. The compressor is driven by a heat engine whose reject heat is collected and upgraded as well. The output of heat energy is essentially equal to the sun of the heating value of the fuel consumed and the intake of latent heat and amounts thus to substantially more than the heating value of the fuel alone.
    • 一种机械能量转换方法和系统,用于恢复在环境温度或接近环境温度的天然或人造水体中所含的耗散热能,以工业过程热量为主,主要以高达200°-400℃的蒸汽形式。 包含在水体中的热量在作为潜热的低压水蒸气中被浓缩,其通过蒸汽喷射被热压缩到中间压力水平,由此机械压缩接管,产生高度过热的输出蒸汽。 喷射蒸汽不是在锅炉中产生,而是由压缩机连续地再生并重新排出。 压缩机由热发动机驱动,其排出的热量也被收集和升级。 热能的输出基本上等于所消耗的燃料的热值的太阳和潜热的摄入量,从而基本上大于单独的燃料的发热值。