Aeroacoustics analysis of propeller blades is a crucial aspect in the field of aerospace engineering, aiming to understand and mitigate the noise generated by rotating propellers. This study delves into the complex interactions between the aerodynamic forces acting on propeller blades and the resultant acoustic emissions. The analysis involves a comprehensive examination of the flow patterns, pressure fluctuations, and vortex shedding that contributes to the noise generation. Key factors influencing propeller noise include blade geometry, rotational speed, and tip Mach number. Understanding these parameters allows for the development of noise reduction strategies, including modifications to blade design, materials, and operating conditions. Additionally, advancements in active noise control systems may be explored to further attenuate propeller noise in real-time. The findings of this aeroacoustics analysis not only contribute to the design and development of quieter propeller systems but also have implications for environmental considerations and regulatory compliance. As the aerospace industry continues to evolve, minimizing the impact of aircraft noise becomes increasingly important, making aeroacoustics analysis an integral component of propeller design and optimization.