Conventional geomechanics cannot provide suitable modes of behavior and performance for today’s unconventional reservoirs such as the evolution of porosity-permeability relationships with multiphysics coupled effects, which ultimately help determine production rates. Unconventional Reservoir Geomechanics delivers a reference that discusses a variety of approaches tailored in developing geomechanical models and provides a smarter tool to predict hydrocarbon extraction specifically for unconventional reservoirs. Starting with a full explanation on a more unified theoretical framework discussing permeability characterization, the authors advance to offer a full range of new modelling solutions followed by a series of lab-scale and field-scale applications to match the history-verified models, bridging a gap for engineers to fully understand the interactions of multiple processes in field scales from theory to practice. Going a step further, other applications such as CO2 sequestration in coal seam or shale gas reservoirs are explained to illustrate how unconventional reservoir geomechanics can be extended to solve related and even more complex challenges. Combining both theoretical and practical models backed by data, Unconventional Reservoir Geomechanics gives reservoir engineers a smarter and more sophisticated tool to approach today’s more complex geomechanical modeling challenges.
- Provides a foundation of solutions for the extraction of unconventional resources and other related areas
- Introduces a completely new theoretical framework of coupled multi-spatial and multi-temporal multi-physics in rocks with significant contracts of physical properties among components
- Focuses on understanding and inclusion of four characteristics of unconventional rocks with applications to areas such as shale gas, coal seam, and CO2 sequestration
Petroleum engineers; Reservoir engineers; O&G researchers associated with unconventional gas; Graduate petroleum engineering students
2. Single Poroelasticity for Unconventional Gas Flow
3. Dual Poroelasticity for Unconventional Gas Flow
4. Unconventional Characteristics of Coal Permeability Data
5. Unconventional Characteristics of Shale Permeability Dat
6. Theory of Unconventional Geomechanics
7. Numerical Solutions for Unconventional Geomechanics
8. Applications to Coal Seam Gas Reservoirs
9. Applications to Shale Gas Reservoirs
10. Other Applications
- No. of pages:
- © Gulf Professional Publishing 2019
- 1st November 2018
- Gulf Professional Publishing
- Paperback ISBN:
Jishan Liu is a professor in the School of Mechanical and Chemical Engineering at the University of Western Australia. His primary interest is in the area of unconventional geomechanics with applications to coal seam gas, shale gas, and tight gas extractions, CO2 sequestration in coal seams, caprock sealing capcity, and coal mine safety. His specialties are modelling and experimentation of coupled processes in these areas of applications.
Professor, School of Mechanical and Chemical Engineering at the University of Western Australia, Australia
Derek Elsworth is a professor of Energy and Geo-Environmental Engineering in the Department of Energy and Mineral Engineering at Penn State. His interests are in the areas of computational mechanics, rock mechanics, and in the mechanical and transport characteristics of fractured rocks, with application to geothermal energy, the deep geological sequestration of radioactive wastes and of CO2, unconventional hydrocarbons including coal-gas, tight-gas shales and hydrates, and instability and eruption dynamics of volcanoes.
Professor, Energy and Geo-Environmental Engineering, Department of Energy and Mineral Engineering, Penn State, USA