The errors of attenuator-type fiber-optic pressure sensors are investigated. The sources of errors of these sensors are analyzed and methods of reducing them by construction-technological solutions at the design stage are proposed.
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References
Y. Toshiko, “Optical fiber sensors for electric industry,” SPIE, Fiber Optic Sensors II, 798, 258–256 (1987).
A. J. Rogers, “Optical fiber current measurement,” Int. J. Optoelectr., 3, No. 5, 120–126 (1998).
H. Takada et al., “Application of fiber-optic magnetic-field sensor to kicker magnet,” Phys. E. Sci. Instrum., 21, 371–374 (1988).
A. Papp and H. Harms, “Magnetooptical current transformer,” Appl. Optics, 19, 3729 (I. Principles), 3735 (II. Components), 3741 (III. Measurements) (1980).
R. Azam and N. Bashara, Ellipsometry and Polarized Light [Russian translation], Mir, Moscow (1981).
C. M. M. van den Tempel, “Model of new temperature-compensated optical current sensor using Bi12SiO20,” Appl. Opt., 32, No. 25, 4869–4874 (1993).
R. L. Patterson et al., “A fiber-optic current sensor for aerospace application to fault location systems for substations,” IEEE AES System Magazine, Dec. (1990).
Y. Yamagata et al., “Development of an optical current transformer and application to fault location systems for substations,” IEEE Trans. Power Del., 8, No. 3 (1993).
N. Mitsui et al., “Development of fiber-optic voltage and magnetic-field sensors,” IEEE Trans. Power Del., PWRD-2, No. 1, 87–93 (1987).
T. V. Potapov, “Experimental investigation of the thermal stability of the sensitive elements of fiber-optic magneticfield sensors based on a Bi12SiO20 crystal,” Preprint No. 5 (620), IRE Ross. Akad. Nauk (1997).
T. V. Potapov, “Temperature stabilization of magnetooptical modulation in bismuth silicate crystals,” Radiotekhnika, No. 4, 29–33 (1998).
A. V. Kukhta, V. T. Potapov, and T. V. Potapov, “A fiber-optic magnetic-field and electric-current sensor with a thermally stable sensitive element based on Bi12SiO20,” in: Ecology, Monitoring and Rational Natural Use [in Russian], MGUL, Moscow (1998), Iss. 294(II), pp. 129–138.
V. N. Listvin and T. V. Potapov, “Temperature stabilization of sensors which use magnetooptical modulation in crystals with a sillenite structure,” Proc. 51st Sci. Session Celebrating Radio Day, Moscow (1996).
V. T. Potapov, M. E. Udalov, and A. N. Kotov, “Analysis of the characteristics of the multiple-transfer sensitive element of a magnetic-field and electric-current fiber-optic sensor,” in: Ecology, Monitoring and Rational Natural Use [in Russian], MGUL, Moscow (2000), Iss. 307(II), pp. 197–204.
A. N. Kotov et al., “The effect of linear double-beam refraction on the characteristics of a magnetic-field fiber-optic sensor,” in: Information Technologies in Science, Education, Telecommunications and Business: Proc. Int. Conf., IT’SE (2001), pp. 289–290.
A. V. Gorish et al., “Analysis of the effect of the residual birefringence of Bi12SiO20 on the characteristics of fiberoptic magnetic-field sensors,” in: Data-Measurement Techniques, Ecology and Monitoring: Sci. Papers, Rosaviakosmos, Moscow (2001), Vol. 1, pp. 589–594.
V. D. Burkov et al., “Mathematical modeling of the sensitive element of a fiber-optic magnetic-field and electriccurrent sensor,” in: Information Technologies in Science, Education, Telecommunications and Business: 29th Int. Conf. and Discus. of the Sci. Club, MGUL, Moscow (2002), pp. 174–176.
A. N. Kotov, “Trends in the present development of fiber-optic sensors,” Proc. 8th St. Petersburg Int. Conf. (2002), Pt. 2, p. 17.
E. A. Badeeva et al., “Fiber-optic magnetic-field and electric-current sensors based on Bi12SiO20 crystals,” in: Data-Measurement Technique, Ecology and Monitoring: Sci. Papers, Rosaviakosmos, Moscow (2003), No. 6, pp. 188–205.
A. N. Kotov, “The requirements imposed on the components of an on-board data-measuring fiber-optic channel,” ibid., pp. 282–285.
E. A. Badeeva et al., “The effect of linear birefringence on the characteristics of fiber-optic magnetic field sensors,” ibid., pp. 282–285.
Ya. V. Malkov et al., Patent No. 2157512 RF, “A microresonator fiber-optic magnetic-field sensor,” Izobr. Polez. Modeli, No. 28 (2000).
Ya. V. Malkov et al., Patent No. 21673354 RF, “A fiber-optic self-excited oscillator,” Izobr. Polez. Modeli, No. 5 (2001).
Ya. V. Malkov et al., Patent No. 2170439 RF, “A microresonator fiber-optic electric-current sensor,” Izobr. Polez. Modeli, No. 19 (2001).
E. A. Badeeva et al., Theoretical Basis for the Design of Amplitude Fiber-Optic Pressure Sensors with an Open Optical Channel: A Monograph [in Russian], MGUL, Moscow (2003).
E. A. Badeeva, T. I. Murashkin, and V. A. Meshcheryakov, “Classification of fiber-optic amplitude transducers,” Datch. Sistemy, No. 2, 20–25 (2003).
E. N. Badeeva et al., Theoretical Basis for the Design of Amplitude Fiber-Optic Pressure Sensors with an Open Optical Channel: A Monograph [in Russian], MGUL, Moscow (2004).
T. I. Murashkina, Theory, Calculation, and Design of Fiber-Optic Measuring Instruments and Systems: A Textbook [in Russian], PGU, Penza (1999).
E. N. Badeeva, V. A. Meshcheryakov, and T. I. Murashkina, Measurement Theory: A Textbook [in Russian], PGU, Penza (2003).
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Translated from Izmeritel’naya Tekhnika, No. 9, pp. 42–47, September, 2010.
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Gorish, A.V., Kryuchkov, D.A. & Pivkin, A.G. Investigation of the errors of attenuator-type fiber-optic pressure sensors. Meas Tech 53, 1029–1036 (2010). https://doi.org/10.1007/s11018-010-9614-7
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DOI: https://doi.org/10.1007/s11018-010-9614-7