Application of Ground-Penetrating Radar (GPR) in Mapping Subsurface Features

Thesis Abstract

**Abstract
** Ground-penetrating radar (GPR) has emerged as a powerful geophysical tool for mapping subsurface features in various fields such as environmental science, engineering, archaeology, and geology. This thesis investigates the application of GPR technology in mapping subsurface features and its effectiveness in providing valuable insights into the hidden structures beneath the surface. The study aims to explore the capabilities of GPR in accurately detecting and imaging subsurface features, such as buried utilities, geological layers, archaeological artifacts, and soil properties. The research begins with a comprehensive review of the theoretical background of GPR technology, including the principles of electromagnetic wave propagation, signal processing techniques, and data interpretation methods. The literature review delves into previous studies and case examples of GPR applications in different settings to establish a foundation for understanding the potential and limitations of the technology. The methodology chapter outlines the research approach and data collection procedures used in this study. It includes descriptions of the GPR equipment, survey design, data acquisition techniques, data processing algorithms, and interpretation methods employed to map subsurface features accurately. The study also discusses the challenges and limitations faced during data collection and processing, as well as the strategies adopted to overcome these obstacles. The findings chapter presents the results of the GPR surveys conducted to map subsurface features in selected study areas. Detailed interpretations of the GPR data are provided to identify and characterize the detected features accurately. The discussion focuses on the effectiveness of GPR technology in mapping subsurface structures and its potential applications in different fields. The results highlight the strengths and limitations of GPR as a non-invasive geophysical tool for subsurface imaging. In conclusion, this thesis emphasizes the significance of GPR technology in mapping subsurface features and its contribution to enhancing our understanding of the hidden structures beneath the surface. The study demonstrates the potential of GPR as a valuable tool for environmental assessments, infrastructure planning, archaeological investigations, and geological studies. The findings underscore the importance of integrating GPR technology with other geophysical methods to achieve comprehensive subsurface characterization and mapping. Overall, this research contributes to the growing body of knowledge on the application of GPR in mapping subsurface features and provides insights into the capabilities and challenges of using this technology in various research and practical applications. The study underscores the importance of continued research and development efforts to further enhance the effectiveness and efficiency of GPR technology for subsurface imaging and mapping purposes.