Title | Short- and long-term ground deformation due to cyclic steam stimulation in Alberta, Canada, measured with interferometric radar |
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Author | Samsonov, S |
Source | The Leading Edge vol. 36, issue 1, 2017 p. 36-42, https://doi.org/10.1190/tle36010036.1 |
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Year | 2017 |
Alt Series | Earth Sciences Sector, Contribution Series 20160243 |
Publisher | Society of Exploration Geophysicists |
Document | serial |
Lang. | English |
Media | paper; on-line; digital |
File format | pdf |
Province | Alberta |
NTS | 73L/09 |
Area | Cold Lake |
Lat/Long WENS | -110.6667 -110.1667 54.6667 54.5000 |
Subjects | geophysics; remote sensing; satellite imagery; steam injection; deformation; subsidence; crustal uplift; Cold Lake Oil Sands |
Illustrations | location maps; graphs; geophysical images; time series |
Program | Remote Sensing Science |
Released | 2017 01 01 |
Abstract | Short- and long-term ground deformation at the cyclic steam stimulation (CSS) enhanced oil recovery sites in the Cold Lake region of Alberta, Canada, was measured with RADARSAT-2 differential
interferometric synthetic aperture radar (DInSAR) during 2011-2016. The interferometric processing of 84 high-resolution spotlight images revealed extensive short-term ground uplift and subsidence greater than 15 cm over the 24-day satellite revisit
cycle. Time-series analysis based on the multidimensional small baseline subset (MSBAS) methodology demonstrated that while the predominant deformation signal is cyclical in nature, a long-term subsidence and uplift with maximum deformation rates
greater than 5 cm/year is also present. These measurements suggest that CSS injection and production operations result in the long-term semipermanent deformation in the area of reservoir operations, and that the response to injection and extraction
can differ from the previous cycles. |
Summary | (Plain Language Summary, not published) In this publication we measure short- and long-term ground deformation over the Cyclic Steam Stimulation sites in Alberta, Canada using RADARSAT-2
Synthetic Aperture Radar. We describe data, processing methodology and observed signals and make recommendation on future monitoring. |
GEOSCAN ID | 299398 |
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