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Precise measuring-computational predictive monitoring-the conditional of self-organization of the life cycle

机译:精确测量计算预测监测 - 自我组织的生命周期的条件

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Formation of aviation which was laid down by the fundamental works of N.E.Zhkovsky and its further development at the forefront of scientific and technological progress occurs in the constant overcoming of the information deficit.The biosphere gives samples of successful provision of reliable functioning,but the perfection of living organisms is achieved through natural selection,which lasts for thousands of years.Improving the objects of the technosphere requires an increase in the level of information and metrological support for the production and operation of facilities.At present,the parameters of the basic structural materials are known with relative error at the level of percent or its fractions.The metrological level of the control and diagnostic equipment is the same.The lack of information is compensated by long and costly experimental and production work-up,as well as by the system of preventive maintenance and inspections,but is not a complete guarantee against accidents and catastrophes.The existing information barrier can be overcome by the transition from amplitude to phase measurement methods.The phase-chronometric version of this approach provides effective monitoring of the cyclic systems-from the clock mechanism to the powerful turbo-aggregate with a relative error of at least 5-10-4 % at the industrial frequency.The combination of a precise phase-chronometric system with a mathematical model of the object that is constantly refined from the received measurement data makes it possible to realize a measurement and computational monitoring of its technical state and emergency protection.Simultaneously,the problem of information and metrological support of the life cycle of objects included into the self-organizing system of the Research Institute-Design ofiice-Plant-operated facility is being solved.
机译:由Nezhkovsky的基本作品组成的航空的形成及其在科技进步的最前沿的进一步发展发生在信息赤字的不断克服中。生物圈为成功提供了可靠运作的样本,但完美通过自然选择实现的生物,持续数千年来实现技术层的目的需要增加的信息水平和设施的生产和运营的信息水平。目前,基本结构的参数材料以百分比或其分数的相对误差已知。控制和诊断设备的计量水平是相同的。通过长期且昂贵的实验和生产工作,以及由此缺乏信息制度预防性维护和检查,但不是对事故的完整保证D灾难。通过从幅度到相位测量方法的转换可以克服现有信息屏障。该方法的相位编程版本提供了对循环系统的有效监控 - 从时钟机制到具有相对误差的强大的涡轮聚合工业频率至少为5-10-4%。精确的相位 - 编程系统与从接收的测量数据恒定地改进的物体的数学模型的组合使得可以实现测量和计算监控它的技术状态和紧急保护。解决了研究所 - 植物操作机构的自组织系统中包含的物体生命周期的信息和计量支持问题。

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