Project Abstract

This project aims to develop advanced geophysical exploration techniques to improve the understanding and characterization of unconventional oil and gas reservoirs. Unconventional hydrocarbon resources, such as shale gas, tight oil, and coal-bed methane, have become increasingly important in meeting the global energy demand in recent years. However, the exploration and extraction of these resources pose unique challenges compared to conventional hydrocarbon deposits, requiring innovative approaches to address the complex geological and petrophysical properties of these reservoirs. The importance of this project lies in the growing need for efficient and accurate exploration methods to identify and evaluate unconventional hydrocarbon resources. Conventional exploration techniques, such as seismic surveys and well logging, often struggle to provide a comprehensive understanding of the complex and heterogeneous nature of unconventional reservoirs. This project aims to address these limitations by developing new geophysical exploration methods that can better characterize the subsurface properties, fracture networks, and fluid distributions within unconventional reservoirs. The project will focus on integrating multiple geophysical techniques, including advanced seismic imaging, electromagnetic surveys, and gravity measurements, to create a more comprehensive understanding of the target reservoirs. The research will explore the integration of these geophysical methods with geological and petrophysical data, as well as the use of machine learning and data analytics to enhance the interpretation and modeling of the subsurface characteristics. One of the key objectives of this project is to develop novel seismic imaging techniques that can better resolve the complex fracture networks and heterogeneities within unconventional reservoirs. This includes the use of high-resolution, wide-azimuth seismic surveys, as well as the application of advanced processing and inversion algorithms to extract more detailed information about the subsurface structure and fluid properties. In addition, the project will investigate the application of electromagnetic methods, such as magnetotellurics and controlled-source electromagnetic surveys, to provide complementary information about the subsurface electrical properties, which can be related to the presence of hydrocarbons, fracture systems, and other geological features. The integration of these geophysical techniques with gravity measurements and other data sources will enable a more comprehensive characterization of the target reservoirs. The successful completion of this project will have significant implications for the exploration and development of unconventional hydrocarbon resources. The improved geophysical exploration methods developed through this research will provide oil and gas companies with more accurate and reliable data to identify and evaluate potential unconventional reservoirs, leading to more efficient and targeted exploration and production activities. Furthermore, the insights gained from this project can contribute to the development of advanced reservoir modeling and simulation tools, which are essential for optimizing the exploitation of unconventional hydrocarbon resources. By enhancing the understanding of the complex geological and petrophysical properties of these reservoirs, the project will support the industry's efforts to unlock the full potential of unconventional hydrocarbon resources and meet the growing global energy demand.

Project Overview