Tumanovskii A.G.,All Russia Thermal Engineering Institute |
Altukhov M.Yu.,All Russia Thermal Engineering Institute |
Shvarts A.L.,All Russia Thermal Engineering Institute |
Avrutskii G.D.,All Russia Thermal Engineering Institute |
And 5 more authors.
Power Technology and Engineering | Year: 2010
The development of a modern 660 MW coal-dust generator unit with supercritical steam parameters is described. The major technical solutions that ensure reliability, efficiency, and low emissions of pollutants into the atmosphere are described. © 2010 Springer Science + Business Media, Inc.
Tanchuk V.,D.V. Efremov Scientific Research Institute of Eelectrophysical Apparatus |
Grigoriev S.,D.V. Efremov Scientific Research Institute of Eelectrophysical Apparatus |
Makhankov A.,D.V. Efremov Scientific Research Institute of Eelectrophysical Apparatus |
Senik K.,D.V. Efremov Scientific Research Institute of Eelectrophysical Apparatus |
And 5 more authors.
Fusion Engineering and Design | Year: 2014
The divertor dome (DO), being part of the ITER divertor, is designed to extract the major part of the plasma thermal energy. As a plasma-facing component (PFC), the DO experiences high heat fluxes (up to 5.0 MW/m 2). Such severe operation conditions of the DO imply stringent requirements for the DO design and its cooling system to ensure the required temperature operation regime of the dome. Hence, Final Acceptance Tests (FAT) shall be performed on each DO final assembled component with the aim to demonstrate that none of parallel coolant channels are completely or partially blocked. The paper presents the results of the analytical and experimental testing of the thermography method capability to perform the FAT. The aim is to determine defective hypervapotrons of the divertor dome. The method consists in contactless measurement of the dynamic temperature field of the PFC surface at a step-like increase (from zero to constant value) in the coolant flow rate with a temperature higher than that of the hypervapotron. © 2014 Elsevier B.V.