For my 7th-semester project, I worked on a Virtual Synchronous Generator-Based Frequency Control Strategy for Grid-Connected PV Systems. The main focus was on integrating a virtual synchronous machine (VSM) into a solar PV-based power system to enhance grid stability. This approach allows the inverter to behave like a traditional synchronous generator, helping with frequency and voltage regulation in the grid. The system consisted of a solar PV array, a boost converter with MPPT to extract maximum power, a three-phase inverter with an LCL filter for smooth power injection, and the VSM control strategy to provide inertia and damping support. Since this was a team effort under the guidance of a Ph.D. student, Satyajeet Ray, we divided responsibilities among group members. My primary role was MATLAB Simulink modeling, where I simulated the power system and analyzed how frequency and voltage responded under varying loads. Other members contributed by researching theoretical aspects, designing control strategies, and preparing documentation. We collaborated through weekly progress discussions, where we reviewed our simulations and findings with our professor, R.K.T., and made necessary improvements. The project concluded with a final report and presentation, demonstrating the impact of VSM on frequency stability in grid-connected PV systems. Managing the group work required effective coordination, clear task distribution, and continuous discussions to ensure every aspect was covered. Despite challenges like debugging simulation errors and refining control parameters, teamwork helped us complete the project successfully.