HOT-WIRE MEASUREMENTS WITH AUTOMATIC COMPENSATION OF AMBIENT TEMPERATURE CHANGES

Abstract

A single sensor hot-wire device with automatic temperature compensation for velocity measurements is developed. Experience in measuring the velocity and temperature in a flow with variable temperature using self-made hot-wire equipment and probes is discussed. Results of the corresponding methodical experiments are presented.

Dates

  • Submission Date2010-03-03
  • Revision Date2010-07-18
  • Acceptance Date2014-06-13
  • Online Date2014-06-21

DOI Reference

10.2298/TSCI100303066M

References

  1. Vukoslavčević V.P., Wallace M.J., Balint J.-L. The Velocity and Vorticity Vector Fields of a Turbulent Boundary Layer. Part 1. Simultaneous Measurement by Hot-Wire Anemometry, J. Fluid Mech., 228 (1991), pp.25-51
  2. Vukoslavčević V.P., Petrović D.V., Multiple Hot-Wire Probes: Measurements of Turbulent Velocity and Vorticity Vector Fields, Montenegrin Academy of Sciences and Arts, Podgorica, 2000
  3. Osorio O.D., Silin N., Converti J., Fabrication of Hot-Wire Probes and Electronics for Constant Temperature Anemometers, Latin American Applied Research, 40 (2010), pp.233-239
  4. Watmuff J.H., A High-Performance Constant-Temperature Hot-Wire Anemometer, NASA Contractor Report 177645, 1994
  5. Itsweire E.C., Helland K.N., A High-Performance Low-Cost Constant-Temperature Hot-Wire Anemometer, J. Phys. E: Sci. Instrum., 16 (1983), pp.549-553Savostenko P.I., Serbin S.P., Hot-Wire Anemometer Invariant to Temperature of the Medium, Meas. Tech., 12 (Dec. 1988), pp.1174-1178
  6. Kovasnay L., Turbulence Measurements, Appl. Mech. Rev., 12 (1959), pp.375-379
  7. Bruun H.H., On the Temperature Dependence of Constant Temperature Hotwire Probes with Small Wire Aspect Ratio, J. Phys. E: Sci. Instrum., 8 (1975), 11, pp.942-951
  8. Bremhorst K., Effect of Fluid Temperature on Hot-Wire Anemometers and an Improved Method of Temperature Compensation and Linearisation without Use of Small Signal Sensitivities, J. Phys. E: Sci. Instrum., 18 (1985), 1, pp.44-49
  9. Benjamin S.F., Roberts C.A., Measuring Flow Velocity at Elevated Temperature with a Hot Wire Anemometer Calibrated in Cold Flow, Int. J. Heat Mass Transfer, 45 (2002), pp.703-706
  10. Lundstrom H., Sandberg M., Mosfegh B., Temperature Dependence of Convective Heat Transfer from Fine Wires in Air: A Comprehensive Experimental Investigation with Application to Temperature Compensation in Hot-Wire Anemometry, Exp. Therm. and Fluid Sci., 32 (2007), pp.649-657
  11. Kostka M., Vasanta Ram V., On the Effects of Fluid Temperature on Hot Wire Characteristics. Part 1: Results of Experiments, Exp. Fluids, 13 (1992), pp.155-162
  12. Savostenko P.I., Serbin S.P., Hot-Wire Anemometer Invariant to Temperature of the Medium, Meas. Tech., 12 (1988), pp.1174-1178
  13. Ardekani M.A., Farhani F., Experimental Study on Response of Hot Wire and Cylindrical Hot Film Anemometers Operating under Varying Fluid Temperatures, Flow Measurement and Instrumentation, 20 (2009), pp.174-179
  14. Kiril'tsev V.T., Motulevich V.P., Sergievskii E.D., Effect of Averaged Flow Temperature on Reading of a Hot-Wire Anemometer, Journal of Engineering Physics, 42 (1982), 4, pp.431-435
  15. Hultmark M., Smits A.J., Temperature Corrections for Constant Temperature and Constant Current Hot-Wire Anemometers, Meas. Sci. Technol., 21 (2010), 4 pp.
  16. Ball S.J., Ashforth-Frost S., Jambunathan K., Whitney C.F., Appraisal of a Hot-Wire Temperature Compensation Technique for Velocity Measurements in Non-Isothermal Flows, Int. J. Heat Mass Transfer, 42 (1999), pp.3097-3102
  17. Cimbala J.M., Park W.J., A Direct Hot-Wire Calibration Technique to Account for Ambient Temperature Drift in Incompressible Flow, Exp. Fluids, 8 (1990), pp.299-300
  18. Khamshah N., Abdalla A.N., Koh S.P., Rashag H.F., Issues and Temperature Compensation Techniques for Hot Wire Thermal Flow Sensor: A Review, International Journal of the Physical Sciences, 6 (2011), 14, pp.3270-3278
  19. Bruun, H.H., Hot-Wire Anemometry: Principles and Signal Analysis, Oxford University Press Inc., New York, USA, 2002
  20. Springer Handbook of Experimental Fluid Mechanics (Eds. C.Tropea, L.Alexander, J.F.Foss), Springer-Verlag, Berlin Heidelberg, 2007
  21. Kanevce G., Oka S., Correcting Hot-Wire Readings for Influence of Fluid Temperature Variations, DISA Info, 15 (1973), pp.21-24
  22. Drubka, R.E., Tanatichat, J., Nagib, H.M., Analysis of temperature compensation circuits for hot wires and hot films, DISA Info, 22 (1977), pp.5-14
  23. Fiedler H., On Data Acquisition in Heated Turbulent Flows, Proceedings of the Dynamic Flow Conference (Dynamic Flow Conference, Marseille, France, September 11-14, 1978 and Baltimore, Md., September 18-21, 1978), Skovlunde, Denmark, 1978, 1979, pp.81-100
  24. Ligęza P., Anemometric Method for Measuring Velocity and Temperature in Non-Isothermal Flows, Arch. Min. Sci., 3 (1994), pp.367-380
  25. Ligęza P., Optimization of Single-Sensor Two-State Hot-Wire Anemometer Transmission Bandwidth, Sensors, 8 (2008), pp.6747-6760
  26. Ferreira R.P.C., et al., Hot-Wire Anemometer with Temperature Compensation Using Only One Sensor, IEEE Transactions on Instrumentation and Measurement, 50 (2001), 4, pp.954-958
  27. King L.V., On the Convection of Heat from Small Cylinders in a Stream of Fluid: Determination of the Convection Constants of Small Platinum Wires with Applications to Hot-Wire Anemometry, Phil. Trans. R. Soc. Lond. A, 214 (1914), pp.373-432
  28. Collis D.C., Williams M.J., Two-Dimensional Convection from Heated Wires at Low Reynolds Numbers, J. Fluid Mech., 6 (1959), pp.357-384
  29. Koppius A.M., Trines G.R.M., The Dependence of Hotwire Calibration on Gas Temperature at low Reynolds Numbers, Int. J. Heat Mass Transf., 19 (1976), 9, pp.967-974
  30. van Dijk A., Nieuwstadt F.T.M., The Calibration of (Multi-) Hot-Wire Probes. 1. Temperature Calibration, Exp. Fluids, 36 (2004), pp.540-549
  31. van Dijk A., Aliasing in One-Point Turbulence Measurements: Theory, DNS and Hotwire Experiments, Ph.D. thesis, Delft University of Technology, Delft, The Netherlands, 1999
  32. Watanabe S., Kuchi-ishi S., Murakami K., Hashimoto A., Kato H., Yamashita T., Yasue K., Imagawa K., Saiki H., Ogino J., Towards EFD/CFD Integration: Development of DAHWIN - Digital/Analog-Hybrid Wind Tunnel, AIAA 52nd Aerospace Sciences Meeting, 13-17 January 2014, National Harbor, MD, 15 pp.
  33. George W.K., Governing Equations, Experiments, and the Experimentalist, Experimental Thermal and Fluid Science, 3 (1990), pp.557-566
  34. IRVIS TA-5.1, www.gorgaz.ru/products/ta5/index.php (in Russian)
  35. Research-and-Production Enterprise "IRVIS", www.gorgaz.ru (in Russian)
  36. Mikheev N.I., Molochnikov V.M., Zanko P.S., Hayrnasov K.R., Kratirov D.V., Hot-Wire Measurements without Calibration, Heat Transfer Research, 42 (2011), 7, pp.645-654
  37. Hinze, J.O., Turbulence, McGraw-Hill Book Company Inc., New York, USA, 1959
  38. Serway R.A., Principles of Physics, Sounders College Pub., Fort Worth, TX, 1998
  39. Kratirov D.V., Mikheev N.I., Molochnikov V.M., Faskhutdinov R.E., Fafurin V.A., Flow Rate Measuring with Flow Structure Smoothing Using Flow Conditioner, Herald of Kazan Technological University, 15 (2012), 21, pp.140-144 (in Russian)