Voltage Control projects for M.E., M.Tech, Masters, MS abroad, and PhD students. These Voltage Control projects are designed for final year project submissions, research work, and publishing research papers. These research projects guide students to learn, practice, and complete their academic submissions successfully. Each project includes complete source code, project report, PPT, a tutorial, documentation, and a research paper.
Latest Voltage Control Projects
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Machine Learning Approaches for Power System Parameters Prediction – A Systematic Review
The main objective of this project is to improve prediction accuracy in power system networks. It aims to predict load, voltage, and frequency using machine learning models. The project focuses on using network topology behavior as input instead of isolated bus data. It tests different models like regression, decision tree, and LSTM. The goal is to provide better planning and reliability for dynamic and interconnected power systems. -
Analysis of Grid-Connected VSCs Subject to Voltage Harmonic Disturbances: Prediction and Design Tool of Resonant Controllers
This project studies how unwanted fluctuations in electricity, called harmonics, affect power quality in electrical systems. It proposes a way to adjust special controllers in devices that convert voltage so they reduce these harmonics effectively. The method helps designers choose the best balance between reducing harmonics and keeping the system stable. The approach was tested with simulations and experiments, showing it works well. -
A Model Predictive Control Method for Hybrid Energy Storage Systems
This project focuses on improving how energy storage systems, like batteries and ultra-capacitors, work together in a small power grid. It replaces the old control method with a smarter one that predicts how the system should behave. This helps keep the voltage steady, reduces unwanted fluctuations, and lets the battery and ultra-capacitor share power efficiently. The approach is tested in simulations and works better than traditional controllers. -
Bidirectional Power Flow Control Integrated With Pulse and Sinusoidal-Ripple-Current Charging Strategies for Three-Phase Grid-Tied Converters
This project focuses on a smart charger that can both charge and discharge a battery efficiently. It uses different methods to charge the battery safely and extend its life. The system works with existing circuits and can be controlled digitally. Tests on a small prototype showed that the charger works well. -
Comparative Analysis and Exploration of a High Gain Input Current Shaped AC-DC Step-Up Converter with Feedback Controller
This project designs a new type of circuit that changes AC electricity to DC electricity more efficiently. It reduces unwanted distortions in the current and improves the power usage. The design uses a smart switching method instead of the usual multiple switches. Tests show it works very efficiently and keeps the electricity flow smooth under different conditions. -
Control of switched reluctance generator in wind power system application for variable speeds
This project studies a special type of generator that is simple, reliable, and works well at many speeds. The researchers built a simulation and a real machine to see how well it performs. They used a basic controller to keep the generator voltage steady. The results from the simulation and the real test matched closely, showing the system works correctly. -
Grid-Connected Induction Motor Using a Floating DC-Link Converter under Unbalanced Voltage Sag
This project protects an induction motor when the power supply voltage becomes weak or uneven. It uses an electronic converter to keep the motor voltage steady so the motor can continue running smoothly. The system needs no separate power source and is useful for machines like pumps and fans. Tests show that the motor can keep working even during voltage problems in the grid. -
Modeling and Coordinated Control Design for Brushless Doubly-Fed Induction Generator-Based Wind Turbine to Withstand Grid Voltage Unbalance
This project focuses on making wind turbines work better when the electricity grid is unstable. The researchers designed a new control method that manages both parts of the turbine together. Their approach is simpler, faster, and more stable than older methods. Tests show it keeps the turbine running safely even when grid voltages fluctuate. -
Power and Current Limiting Control of Wind Turbines Based on PMSG Under Unbalanced Grid Voltage
This project deals with making wind power systems safer and more stable when the electricity grid has uneven voltage. The method controls the wind turbine so that sudden spikes in current do not damage the system. It stores extra energy in the turbine rotor and keeps the output steady. The system also helps the grid by supporting voltage and power quality.
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