1887
ASEG2012 - 22nd Geophysical Conference
  • ISSN: 2202-0586
  • E-ISSN:

Abstract

Summary

There is increasing support for the existence of a relationship between Stoneley wave characteristics and permeability in sandstone formations. We evaluated monopole full waveform sonic data sets acquired in a mudded drill hole at the Mirrabooka Aquifer Storage and Recharge trial site in Perth, Western Australia. To increase the spectral range of the full wave form sonic data the hole was logged three times with transmitter centre frequencies at 1, 3 and 15 KHz. Data were recorded in four receivers spaced at 1ft intervals with the first receiver at 3ft from the transmitter. Stoneley waves were clearly identified in the low frequency range of 1–5 KHz, which is characteristic of Stoneley wave propagation in a slow formation.

A semblance slowness technique was used to determine the slowness of Stoneley wave. Slowness values ranged from 950 μs/m ( = 1050 m/s) for sandstone to 1650 μs/m ( = 600 m/s) for shaley sediments.

Observations of the dependence of phase velocity on frequency were made by using multi filter and phase shift transform techniques. The relationship between Stoneley wave dispersion and fast flow, high permeability pathways, as identified in flow and time lapse induction logging data, was clearly observed in an interval from 330 to 333m below ground level. This high permeability sandstone layer can be identified in dispersion curves by assessing frequency and phase velocity shifts. Our outcomes are significant, as they present the possibility of identifying narrow high permeability layers in wells where full waveform sonic logs have been completed.

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/content/journals/10.1071/ASEG2012ab289
2012-12-01
2026-01-14
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References

  1. Bakulin, A., Alexander, S., Boris K. and Mikko, J., 2008, Acoustic surveillance of production impairment with real-time completion monitoring: SPE 112301, 2008 SPE International Symposium and Exhibition on Formation Damage Control, Lafayette, Louisiana.
  2. Cheng, C, H., Zhang, J. Z. and Burns, D, R. 1987. Effects of in-situ permeability on the propagation of Stoneley (tube) waves in a borehole: Geophysics 52, 1297-1289.
  3. Harris, B., Dupuis, C., Almalki, M., Li, Q., Martin, M. and Prommer, H.2010. Near well seismic methods for aquifer recharge projects: Perth Basin Western Australia. ISMAR7, Abu Dhabi, UAE.
  4. Malajczuk, S., 2010, Time lapse thermal and induction logging in the near well environment, Perth Basin WA: BSc (Geophysics) Honours, Report GPH 15/10, Curtin University, November 2010.
  5. Park, C. B., Miller, R. D., and Xia, J., 1998, Imaging dispersion curves of surface waves on multichannel records: 78th Annual International Meeting, SEG, Expanded Abstracts, 1377–1380.
  6. Prommer, H., Descourvieres C.D., Handyside, M., Johnston, K., Harris, B., Li, Q., Fang, H., Costello, P., Seibert, S. and Martin, M., 2011, Interim Report – Aquifer storage and recovery of potable water in the Leederville Aquifer. CSIRO: Water for a Healthy Country National Research Flagship.
  7. Rockwater Pty Ltd, 2009, Mirrabooka aquifer storage and recovery trial: bore completion and hydrogeological evaluation: Report no 236.20.4/09/01. Water Corporation.
  8. Tang, X.M. and Cheng, A., 2004, Quantitative borehole acoustic method: Elsevier Science Publishing Company, first edition.
  9. Williams, D.M., Zemanek, J., Angona, F.A., Dennis, C.L. and Caldwell, R.L, 1984, The long space acoustic logging tool: Paper T in the 25th Annual Logging Symposium Transaction: Society of Professional Well Log Analysts.
  10. Winkler, K.W., Sinha, B.K. and Ploa, T.J., 1989, Permeability and borehole Stoneley waves: Comparison between experiment and theory: Geophysics 54: 66–75.
  11. Zhao, X., Toksoz, M.N. and Cheng, C.H., 1993, Stoneley wave propagation in heterogeneous permeable porous formation: 63rd Annual. International. Meeting: Society of Ecploration geophysicists.,76-79.
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  • Article Type: Research Article
Keyword(s): Stoneley waves.; Velocity dispersion
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