Northside: What Have We Learned About Fracturing Shales After 12 Years of Microseismic Mapping?

Speaker: Shawn Maxwell
Speaker Shawn Maxwell
Shawn Maxwell is Chief Geophysicist and Advisor for Schlumberger’s microseismic services, and is based in Calgary, Alberta. Previously he introduced commercial microseismic hydraulic fracturing imaging services to the oil and gas industry and was a Lecturer at Keele University in England.  Shawn was awarded a Ph.D. in microseismicity from Queen’s ...

Shawn Maxwell is Chief Geophysicist and Advisor for Schlumberger’s microseismic services, and is based in Calgary, Alberta. Previously he introduced commercial microseismic hydraulic fracturing imaging services to the oil and gas industry and was a Lecturer at Keele University in England.  Shawn was awarded a Ph.D. in microseismicity from Queen’s University. He has authored over 80 publications in journals and professional abstracts, acts as the passive seismic associate editor for Geophysics, is the Education Director for the CSEG, has lead numerous microseismic industry technical short courses, and chaired various industry workshops for the SPE, SEG and EAGE. He is also appointed the 2014 SEG Distinguished Instructor Short Course.

Full Description

Effective hydraulic fracture stimulation is critical for shale development, and microseismic is the only technology able to map the growth of these hydraulic fracture networks. Since the advent of commercial mapping in the Barnett Shale in 2000, microseismic has been used to investigate hydraulic fracture treatments around the globe. Microseismic can be used to tune the stimulation to cover just the intended reservoir depth interval without fracturing out of zone, understand the primary fracture orientation to optimize the well orientation, define the optimum spacing between stages and detect unexpected fracture growth such as fault activation. More fundamentally, however, microseismic images of complex fracture networks have fundamentally changed the conceptual view of hydraulic fractures from simple, planar fractures to intersecting fracture networks in various directions. The recent development of complex fracture models, which implicitly simulate both the geomechanics and mass balance of the injected fluid volume, offer promise to estimate the effective propped volume of the fracture network. These geomechanical simulations also provide insight into not only where the rock is fracturing, but also allow interpretation of microseismic source deformation and mechanism attributes which provide further insight into how the fractures deform. 

Organizer Matthew Strom

Email:  matthew_strom@swn.com


Office:  (281) 618-7848

When?

Tue, Apr. 8, 2014
11 a.m. - 1 p.m. America/Chicago

How Much?

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Where?

Greenspoint Club
16925 Northchase Dr.
Houston, Texas 77060
United States

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