Some vital problems of metrological servicing of commercial radiation pyrometers

A. V. Marusenkov, V. M. Zasimenko, O. M. Seniv, et al., “Main trends and means of enhancing the accuracy of measuring temperature with radiation pyrometers” Abstract IMEKO TK-12, Lvov (1989), p. 3.Google Scholar

V. M. Zasimenko and G. P. Samchenko, The State and Trends in Development of Portable Radiation Pyrometers [in Russian], No. 2. TsNIITEIpriborostroyeniya, Moscow (1987), p. 36.Google Scholar

All-Union State Standard (GOST) 8.080-80, GSI, State Primary Standard and All-Union Testing Equipment for Means of Measuring Temperature between 273.15 and 6300 K.Google Scholar

All-Union State Standard 8.185-76, GSI, State Special Standard and All-Union Testing Equipment for Means of Measuring in the Ultraviolet Region Temperature between 1800 and 3000 K.Google Scholar

All-Union State Standard 8.186-83, GSI, State Special Standard and All-Union Testing Equipment for Measuring in the Infrared Spectral Range 0.8–8.0 μ Temperature between 500 and 2300 K.Google Scholar

All-Union State Standard 28243-89, Pyrometers. General Technical Specifications.Google Scholar

All-Union State Standard 8.335-81, Visual Disappearing Filament Pyrometers. General Specifications.Google Scholar

All-Union State Standard 26701-85, Pyrometers. General Technical specifications.Google Scholar

V. M. Zasimenko and B. N. Oleinik, Modern Methods and Instruments for Automatic Monitoring and Control of Industrial Processes [in Russian], MDNTP, Moscow (1984), p. 93.Google Scholar

V. M. Zasimenko, Abstract of Reports at the All-Union Conference “Electrical methods for measurement of temperature,” Part 1, Lutsk (1988), p. 181.Google Scholar

T. Elbel and J. E. Müller, Feingerätetechnik31, No. 8, 369 (1988).Google Scholar