Evolutionary Game Theory (EGT) provides a fundamental framework for understanding population dynamics and strategic interactions in biological systems. However, traditional mathematical models often struggle to capture the complexities inherent in real-world evolutionary processes. In this research, we propose a novel agent-based simulation tool aimed at addressing these limitations. By incorporating diverse initial trait distributions, dynamic environmental pressures, spatial interactions, and population size changes, our simulation offers a comprehensive and realistic framework for studying evolutionary dynamics. Through simulations, we observe significant impacts on evolutionary outcomes, such as the emergence and persistence of adaptive strategies, the influence of environmental factors like temperature fluctuations, and the role of spatial interactions in shaping population dynamics. Our model represents a valuable contribution to the field of evolutionary dynamics, providing researchers with a powerful platform for exploring complex ecological interactions and evolutionary processes in biological populations.