Microseismic Imaging and Hydrofracture Numerical Simulations

- Organization:
- Canadian Institute of Mining, Metallurgy and Petroleum
- Pages:
- 12
- File Size:
- 1363 KB
- Publication Date:
- Jun 1, 2012
Abstract
Fracture Network Engineering (FNE) is the engineering design of rock mass disturbance through the use of advanced techniques to model fractured rock masses numerically, and then correlate field observations with simulated fractures generated within the models. Microseismic (MS) monitoring is a standard tool for evaluating the geometry and evolution of the fracture network induced during a hydraulic treatment, principally by source locating MS hypocenters and visualizing these with respect to the treatment volume and infrastructure (Figure 1). The integrated use of Synthetic Rock Mass (SRM) modeling of the hydrofracturing with Enhanced Microseismic Analysis (EMA) provides a feedback loop in which the SRM is constrained by the information provided by the MS data and the in-situ behavior of the fracture network is better understood, leading to informed decisions on future field operations. This paper discusses the technologies used in FNE and some of the developmental challenges we face in order to provide a more efficient and robust application of the approach. One particular challenge is the accurate representation of MS source data within the models (locations, magnitudes and mechanisms), and the ability to correlate these data effectively with field results. This challenge is being overcome by the development of more efficient numerical modeling algorithms, providing simulations in three dimensions at reservoir scale, combined with validation of these algorithms using laboratory and field case studies.
Citation
APA:
(2012) Microseismic Imaging and Hydrofracture Numerical SimulationsMLA: Microseismic Imaging and Hydrofracture Numerical Simulations. Canadian Institute of Mining, Metallurgy and Petroleum, 2012.