热流装置运行结构的理论基础

IF 0.3 Q4 PHYSICS, MULTIDISCIPLINARY
P. Kissabekova, D. Karabekova, A. Khassenov, A. S. Kudussov, Sh.S. Kyzdarbekova, V. Kucheruk
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引用次数: 0

摘要

大量研究表明,无损检测方法满足了热网和工艺设施技术诊断的大部分要求。无损检测方法基于过程温度状态的观察和自动登记。开发的装置是为了分析地下管道的保温状态而设计的。用于测量热流的设备的开发和研究需要强制考虑传感元件的温度场,即在给定的边界条件下,特定形状物体的热导率微分方程的解。通常,感测元件是多层的:黑色涂层、量热负荷、热敏元件、交替的漆层和粘合剂层,即感测元件在垂直于照射表面的方向和平行方向上都是不均匀的。第一种情况下的不均匀性是由于传感元件的多层性。本文描述了热导率方程的求解方法,该方程描述了半球和球形区域形式的敏感元件的温度场,这是由于电流照射和校准过程中的热损失不相等。考虑到这种系统误差,可以提高辐射能量参数的测量精度。这些方程的解构成了用于测量热流的装置的设计的基础。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Theoretical foundations of the construction of the operation of heat flow devices
Numerous studies show that non-destructive testing methods satisfy most of the requirements of technical diagnostics of heating networks and technological facilities. Methods of non-destructive testing are based on the observation and automated registration of the temperature state of processes. The developed device is designed to analyze the state of thermal insulation of underground pipelines. The development and research of devices for measuring heat flow requires mandatory consideration of the temperature field of the sensing element, i.e. solutions of the differential equation of thermal conductivity for a body of a certain shape under given boundary conditions. In general, the sensing elements are multi-layered: black coating, calorimetric load, heat-sensitive elements, alternating lacquer and adhesive layers, i.e., the sensing elements are heterogeneous, both in the direction perpendicular to the irradiated surface and in parallel. The heterogeneity in the first case is due to the multi-layering of the sensing element. The article describes solutions to the thermal conductivity equation describing the temperature field of a sensitive element in the form of a hemisphere and a spherical zone, due to the nonequivalence of heat losses during irradiation and calibration by electric current. Taking into account this systematic error makes it possible to increase the accuracy of measuring the energy parameters of radiation. These solutions of the equations formed the basis of the design of the device for measuring heat flow.
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