Nov. 13, 2018


Description

As we move past appraisal in the Permian Basin and jump to full-field development, complications are apparent when wells interact with each other. Operators have begun to deploy vast amounts of capital to large development programs that drill, complete, and produce multiple horizons and locations in a short amount of time. Many have told of the benefits to “cube” style development; less frac hits, better overall production, and uplifted NPV. However, heterogeneity in the subsurface leads to variability across a basin when it comes to well interactions. Time and time again, it has been borne through data that no frac hit from a child to a parent is the same. This variability opens the door to thinking about tailored development, where some areas are better suited to a “cube” while others can withstand sequential development dependent upon time.

 

There are many ways to characterize frac hits and parent-child interactions. One developing way is to deploy bottom-hole pressure arrays and analyze the interactions through rate transient analysis (RTA). Detailed work on this front has led to the characterization of well interactions based upon specific signatures derived from the production analysis. I postulate that there is complimentary way to characterize well interaction that involves direct downhole measurement of microseismicity. Dynamic Parameters Analysis (DPA) assesses microseismic events as collective behavior during rock deformation. Certain characteristics measured and collated as indices, such as plasticity, stress, and diffusivity, are used to determine if deformation is directly related to fluid-driven stress response or more diffuse response driven by compressive stress propagation.

 

This study focuses upon a 3-well, Wolfcamp A pad in the Delaware basin that was drilled and completed adjacent to a well that had been online for more than 2 years. Using standard microseismic analysis, or the “dots in a box” approach, it would appear that the southern most well and the parent well are interacting in a substantial way. Conversely, DPA work illustrates there are only two specific locations along the wellbore that show a distinct and significant hydraulic connection. Supported by pressure and tracer data, this project contends that perceived interference has to be assessed carefully for development considerations.

 

 

 

 

Thank you to our sponsors!

 

https://www.microseismic.com/

 

https://www.weatherford.com/en/

 


Featured Speakers

Speaker: Dave Cannon
Speaker Dave Cannon

Dave Cannon is the VP Geoscience of Diamondback Energy Inc.
Dave has 11 years of total industry experience working multiple unconventional plays throughout the US L48. After obtaining his MS in Geoscience from Penn State University, with a focus on structural geology and geomechanics, he moved to Midland, TX and worked …

Dave Cannon is the VP Geoscience of Diamondback Energy Inc.


Dave has 11 years of total industry experience working multiple unconventional plays throughout the US L48. After obtaining his MS in Geoscience from Penn State University, with a focus on structural geology and geomechanics, he moved to Midland, TX and worked Rockies unconventional assets with ConocoPhillips. His breadth of experience included plays in Wyoming, Utah, North Dakota, and Montana. Then Dave moved to Tulsa with Samson Resources and eventually Newfield Exploration working the Rockies and Mid-Continent unconventional plays, such as the Shannon/Sussex, Niobrara, ETX “Eaglebine”, Buda/Georgetown/Glen Rose, Meramec (STACK), and Woodford (SCOOP). In early 2014, Dave moved back to the Basin with Diamondback Energy, where he is dedicated exclusively to Permian Basin unconventional exploration, assessment, and development.

Full Description



Organizer

Romina Myrtaj


Date and Time

Tue, Nov. 13, 2018

11:30 a.m. - 1 p.m.
(GMT-0600) US/Central

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Location

Norris Conference Centers - Houston/Westchase

9990 Richmond Ave., Suite 102
Houston, Texas 77042



Group(s): SPE Newsletter