Increasing the Metrological Reliability of Sensors. New Problems and Ways of Solution

Abstract:

Modern knowledge-intensive branches of industry require industrial intelligent sensors with enhanced metrological reliability. Such sensors are expected to provide many years of operation without maintenance. The specific scientific problems that emerge while developing such sensors are considered. These problems include: experimental evaluation of quality of sensor design and technology; development of on-line strategies for metrological self-checks of sensors as well as of methods to provide self-correction and fault-tolerance. Possible ways of solution of these problems are outlined.

• Periodical: Key Engineering Materials (Volumes 381-382)
• Pages: 411-414
• DOI: https://doi.org/10.4028/www.scientific.net/KEM.381-382.411
• Online since: June 2008
• Authors: Ksenia Sapozhnikova, Roald E. Taymanov
• Keywords: Fault Tolerance, Intelligent Instrumentation, Intelligent Measurement, Lifetime, Metrological Reliability, Metrological Self-Diagnostics

References

[1] A.E. Fridman: Izmeritelnaya technika, (1991) No. 11, pp.3-10.

[2] H.M. Hashemian, K.M. Petersen: Proc. of Conf. Temperature: Its Measurement and Control in Science and Industry, AIP/New York, USA, Vol. 6 (1992), pp.427-430.

[3] R. Taymanov, N. Moiseeva: Proc. of the 10th IMEKO TC7 Symp., S. -Pb. (2004), pp.433-436.

[4] L. Efremov, K. Sapozhnikova: Proc. of the 10th IMEKO TC7 Symp., S. -Pb. (2004), pp.448-453.

[5] R. Taimanov, K. Sapozhnikova: Proc. of the XVII IMEKO World Congress, Dubrovnik, Croatia, (2003), pp.1094-1097.

[6] K. Sapozhnikova, R. Taymanov: Proc. of Сonf. Nuclear Power Instrumentation, Controls, and Human Machine Interface Technology, Albuquerque, New Mexico, USA, (2006).

[7] K. Sapozhnikova R. Taymanov: Proc. of IAEA Technical Meeting On-line Condition Monitoring of Equipment and Processes in Nuclear Power Plants, Knoxville, USA, (2005).

[8] K. Sapozhnikova, R. Taimanov, A.C. USSR № 922498: Discoveries, Inventions, (1982), No. 15, p.189.

[9] L.F. Gromov, V.V. Andreyev, Physics of Nuclear Reactors, (1979), No. 1, pp.51-56.

[10] Druzhinin, N.R. Nozdrunov et al: Proc. of the 2nd International Symp. on Instrumentation Science and Technology, Jinan, China, Vol. 3 (2002), p. pp.219-224.

[11] K. Sapozhnikova, R. Taimanov et al: Proc. of IAEA Technical Meeting Impact of the Modern Technology on Instrumentation and Control in Nuclear Power Plants, Chatou, France, (2005).

[12] M.P. Henry and D.W. Clarke: Control Eng. Practice, Vol. 1 (1993), No. 4, pp.585-610.

[13] K. Sapozhnikova, M. Henry, and R. Taymanov: Proc. of the Joint IMEKO TC1+ TC7 Symp., Ilmenau, Germany, (2005), pp.71-72.

[14] B.N. Petrov, V.A. Viktorov et al, Principles of Independence in Measurements ( Nauka Publ., Moscow, 1976).

[15] S. Stein, J. Jones, Modern Communication Principles. With Application to Digital Signaling (McGrow-Hill Book Co., New York, 1967).

[16] MI Recommendation 2021-89, Metrological Assurance of Flexible Manufacturing Systems. Fundamentals (Committee on Standardization and Metrology, Moscow, 1991).

[17] MI Recommendation 2233-00. Assurance of Measurement Efficiency in the Control of Technological Processes. Fundamentals (VNIIMS, Moscow, 2000).

[18] BS 7986: 2001. Data Quality Specification for Industrial Measuring and Control Systems, (British Standards Institute, London, 2001).

[19] BS 7986: 2005. Specification for Data Quality Metrics of Industrial Measurement and Control Systems, British Standards Institute, (British Standards Institute, London, 2005).