Thesis Abstract

Abstract
The optimization of hydraulic fracturing design for unconventional reservoirs in petroleum engineering is a critical aspect of maximizing hydrocarbon recovery and enhancing economic viability. This thesis aims to investigate and propose innovative strategies for enhancing the efficiency and effectiveness of hydraulic fracturing operations in unconventional reservoirs. The study focuses on understanding the complex geological and engineering factors that influence the success of hydraulic fracturing in unconventional reservoirs, such as shale formations. The thesis begins with a comprehensive review of the current state of hydraulic fracturing technology and practices in the petroleum industry, highlighting the challenges and limitations associated with unconventional reservoirs. Subsequently, the research methodology section outlines the approach taken to analyze and optimize hydraulic fracturing design, including data collection, simulation modeling, and optimization techniques. Through a detailed examination of literature and case studies, this thesis identifies key parameters that influence the effectiveness of hydraulic fracturing in unconventional reservoirs. These parameters include reservoir properties, wellbore characteristics, fracturing fluid properties, proppant selection, and operational practices. By evaluating the impact of these parameters on fracture propagation, conductivity, and overall production performance, the study aims to develop a comprehensive framework for optimizing hydraulic fracturing design. The findings from this research provide valuable insights into the design and implementation of hydraulic fracturing operations in unconventional reservoirs, offering practical recommendations for improving fracture geometry, conductivity, and overall reservoir performance. By integrating advanced modeling techniques and data analytics, this thesis proposes innovative strategies for enhancing the efficiency and effectiveness of hydraulic fracturing operations in challenging reservoir environments. In conclusion, the optimization of hydraulic fracturing design for unconventional reservoirs represents a critical area of research in petroleum engineering, with significant implications for enhancing hydrocarbon recovery and maximizing economic returns. This thesis contributes to the existing body of knowledge by proposing novel approaches and methodologies for improving the design and implementation of hydraulic fracturing operations in unconventional reservoirs. The research outcomes have the potential to inform industry practices and lead to more sustainable and cost-effective reservoir development strategies.

Thesis Overview