Optical Fiber Fluorescence-Based Sensor Techniques for High Temperature Measurement
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Abstract
In this work, a number of techniques for high temperature sensing and measurement, especially those using a low-cost fluorescence-based approach, are reviewed, results are presented and compared and contrasted. Applications in a number of engineering sectors are considered and examples are given of trials of such sensors for industrial monitoring.
Keywords: optimal fiber sensor, temperature sensor
Corresponding author: E-mail: cast@kmitl.ac.th
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References
[2] K.T.V.Grattan and B.T.Meggitt (Eds), Fiber Optic Sensor Technology Vol.5: Advanced Applications, Kluwer Academic Publishers, Holland, 2000.
[3] Z.Y.Zhang and K.T.V.Grattan in Optical Fiber Sensor Technology Vol.3: Applications and Systems (Eds K.T.V.Grattan and B.T.Meggitt), Commercial activity in optical fiber sensors, 1999.
[4] A. Hartog, Optical Fiber Sensor Technology Vol.5: Advanced Applications (Eds K.T.V.Grattan and B.T.Meggitt), Distributed fiber optic sensors: principles & applications, Kluwer Academic Publishers, Holland, 2000.
[5] Various authors, Proceedings of International Optical Fiber Sensor conferences 1-13, CD-ROM (Ed. B.Culshaw) SPIE, Washington, USA, 1998.
[6] E. Maurice, G. Monnom, G.W. Baxter, S.A. Wade and S.F. Collins, “A self-referenced point temperature sensor based on a fluorescence intensity ratio in Yb3+ doped silica fibers”. Appl. Opt. 36, 8264 (1997).
[7] S F Collins, G W Baxter, S A Wade, T Sun, K T V Grattan, Z Y Zhang and A W Palmer, “Comparison of fluorescence-based temperature sensor schemes: theoretical analysis and experimental validation”, Journal of Applied Physics, 1998, Vol.84, No.9, pp. 4649-4654.
[8] Z.Y.Zhang, K.T.V.Grattan, A.W.Palmer, T. Sun and B.T.Meggitt, “Rare earth doped intrinsic fiber optic sensors for high temperature measurement up to 1100°C”, OFS’12 – 12th International Conference on Optical Fiber Sensors, OThC38, 1997.
[9] Y.Shen, L.Tong, Y.Wang, L.Ye, “Sapphire fiber thermometer ranging from 20 to 1800°C”, Applied Optics, 38 (7), 1139(1999).
[10] Z.Y.Zhang, K.T.V.Grattan and A.W.Plamer, “A novel signal processing scheme for a ruby-fluorescence-based fiber optic temperature sensor”, SPIE Proceedings 1511, pp. 264-274 (1991).
[11] J H Sharp, H C Seat, Z Y Zhang and K T V Grattan, “Single-Crystal Ruby Fibers for Fluorescence-Based Temperature Sensing”, Sensors and Their Applications X, Proceedings of the tenth conference on sensors and their applications, Cardiff, Wales, 5-8September 1999, pp.219-223 (Pub: Institute of Physics, Bristol and Philadelphia).
[12] T.Liu, G.F.Fernando, Z.Y.Zhang, K.T.V. Grattan, “Simultaneous strain and temperature measurements in composites using extrinsic Fabry-Perot interferometric and intrinsic rare-earth doped fiber sensors”, Sensors and Actuator A – Physical, 80(3), pp. 208-215 (2000).
[13] T.Sun, Z.Y.Zhang, K.T.V.Grattan and A.W.Palmer, “Intrinsic doped fluorescence decay-time based measurements – strain and temperature characteristics for sensor purposes”, Review of Scientific Instruments, 69(12), pp. 4186-4190 (1998).
[14] T.Sun, W.M.Sun and K.T.V.Grattan, “Fluorescence based optical fiber fire alarm system”, will be sent to Review of Scientific instruments, 2001.
[15] T.Sun, Z.Y.Zhang, K.T.V.Grattan and A.W.Palmer, “Analysis of double exponential fluorescence decay behavior for optical temperature sensing”, Review of Scientific Instruments, 68(1), pp. 58-63, (1997).
