Takeoff Projects are pioneers in providing comprehensive support for Power
Electronics Base Projects from start to finish, allowing students to regulate
and convert electric power as per the operational needs of the intended
application. These power electronics projects offer knowledge to the students that
benefits them both theoretically and practically, serving as a basement for
their final year power electronics projects. With the successful conduct of such
projects, it becomes possible for the students to implement and favorably
utilize different system configurations across a diverse range of applications robotics,
industrial automation, etc.
Project Code: TEPGPE293
Project Title:A Boost-LC Resonance Multimode DC–DC Converter for EV Charger ApplicationView DetailsProject Code: TEPGPE292
Project Title:A New Multilevel Inverter With Reduced Component Count for a Standalone Solar Energy Conversion SystemSolar Power Generation| AC Drives
View DetailsProject Code: TEPGPE291
Project Title:Predictive Control of PMSG-Based Hydro-Electric System With Battery Supported UPQCView DetailsProject Code: TEPGPE290
Project Title:Hybrid Control Method of Full-Bridge LLC Resonant Converter Based on Electric VehicleView DetailsProject Code: TEPGPE289
Project Title:Grid-Forming Voltage-Source Inverter for Hybrid Wind-Solar Systems Interfacing Weak GridsWind Power Generation| Solar Power Generation
View DetailsProject Code: TEPGPE288
Project Title:A Maximum Power Point Tracking Technique for a Wind Power System Based on the Trapezoidal RuleView DetailsProject Code: TEPGPE287
Project Title:Sliding Mode Control of Vienna Rectifier Under Unbalanced Weak Power GridView DetailsProject Code: TEPGPE285
Project Title:Coordinated Control Strategy for Cascaded Current-Source Converter Under Unbalanced Grid VoltageView DetailsProject Code: TEPGPE284
Project Title:Cascaded Interleaved DC–DC Converter for a Bidirectional Electric Vehicle Charging StationSolar Power Generation| Electrical Vehicles
View DetailsProject Code: TEPGPE283
Project Title:New Integrated DC–DC Conversion System for Electric VehiclesView Details S.no | Project Code | Project Name | Action |
---|---|---|---|
1 | TEPGPE293 | A Boost-LC Resonance Multimode DC–DC Converter for EV Charger Applicat... | |
2 | TEPGPE292 | A New Multilevel Inverter With Reduced Component Count for a Standalon... | |
3 | TEPGPE291 | Predictive Control of PMSG-Based Hydro-Electric System With Battery Su... | |
4 | TEPGPE290 | Hybrid Control Method of Full-Bridge LLC Resonant Converter Based on E... | |
5 | TEPGPE289 | Grid-Forming Voltage-Source Inverter for Hybrid Wind-Solar Systems Int... | |
6 | TEPGPE288 | A Maximum Power Point Tracking Technique for a Wind Power System Based... | |
7 | TEPGPE287 | Sliding Mode Control of Vienna Rectifier Under Unbalanced Weak Power G... | |
8 | TEPGPE285 | Coordinated Control Strategy for Cascaded Current-Source Converter Und... | |
9 | TEPGPE284 | Cascaded Interleaved DC–DC Converter for a Bidirectional Electric Vehi... | |
10 | TEPGPE283 | New Integrated DC–DC Conversion System for Electric Vehicles |
Project Code: TEPGPE293
Project Title:A Boost-LC Resonance Multimode DC–DC Converter for EV Charger ApplicationView DetailsProject Code: TEPGPE292
Project Title:A New Multilevel Inverter With Reduced Component Count for a Standalone Solar Energy Conversion SystemSolar Power Generation| AC Drives
View DetailsProject Code: TEPGPE291
Project Title:Predictive Control of PMSG-Based Hydro-Electric System With Battery Supported UPQCView DetailsProject Code: TEPGPE290
Project Title:Hybrid Control Method of Full-Bridge LLC Resonant Converter Based on Electric VehicleView DetailsProject Code: TEPGPE289
Project Title:Grid-Forming Voltage-Source Inverter for Hybrid Wind-Solar Systems Interfacing Weak GridsWind Power Generation| Solar Power Generation
View DetailsProject Code: TEPGPE288
Project Title:A Maximum Power Point Tracking Technique for a Wind Power System Based on the Trapezoidal RuleView DetailsProject Code: TEPGPE287
Project Title:Sliding Mode Control of Vienna Rectifier Under Unbalanced Weak Power GridView DetailsProject Code: TEPGPE285
Project Title:Coordinated Control Strategy for Cascaded Current-Source Converter Under Unbalanced Grid VoltageView DetailsProject Code: TEPGPE284
Project Title:Cascaded Interleaved DC–DC Converter for a Bidirectional Electric Vehicle Charging StationSolar Power Generation| Electrical Vehicles
View DetailsProject Code: TEPGPE283
Project Title:New Integrated DC–DC Conversion System for Electric VehiclesView Details S.no | Project Code | Project Name | Action |
---|---|---|---|
1 | TEPGPE293 | A Boost-LC Resonance Multimode DC–DC Converter for EV Charger Applicat... | |
2 | TEPGPE292 | A New Multilevel Inverter With Reduced Component Count for a Standalon... | |
3 | TEPGPE291 | Predictive Control of PMSG-Based Hydro-Electric System With Battery Su... | |
4 | TEPGPE290 | Hybrid Control Method of Full-Bridge LLC Resonant Converter Based on E... | |
5 | TEPGPE289 | Grid-Forming Voltage-Source Inverter for Hybrid Wind-Solar Systems Int... | |
6 | TEPGPE288 | A Maximum Power Point Tracking Technique for a Wind Power System Based... | |
7 | TEPGPE287 | Sliding Mode Control of Vienna Rectifier Under Unbalanced Weak Power G... | |
8 | TEPGPE285 | Coordinated Control Strategy for Cascaded Current-Source Converter Und... | |
9 | TEPGPE284 | Cascaded Interleaved DC–DC Converter for a Bidirectional Electric Vehi... | |
10 | TEPGPE283 | New Integrated DC–DC Conversion System for Electric Vehicles |
Project Code: TEPGPE293
Project Title:A Boost-LC Resonance Multimode DC–DC Converter for EV Charger ApplicationView DetailsProject Code: TEPGPE292
Project Title:A New Multilevel Inverter With Reduced Component Count for a Standalone Solar Energy Conversion SystemSolar Power Generation| AC Drives
View DetailsProject Code: TEPGPE291
Project Title:Predictive Control of PMSG-Based Hydro-Electric System With Battery Supported UPQCView DetailsProject Code: TEPGPE290
Project Title:Hybrid Control Method of Full-Bridge LLC Resonant Converter Based on Electric VehicleView DetailsProject Code: TEPGPE289
Project Title:Grid-Forming Voltage-Source Inverter for Hybrid Wind-Solar Systems Interfacing Weak GridsWind Power Generation| Solar Power Generation
View DetailsProject Code: TEPGPE288
Project Title:A Maximum Power Point Tracking Technique for a Wind Power System Based on the Trapezoidal RuleView DetailsProject Code: TEPGPE287
Project Title:Sliding Mode Control of Vienna Rectifier Under Unbalanced Weak Power GridView DetailsProject Code: TEPGPE285
Project Title:Coordinated Control Strategy for Cascaded Current-Source Converter Under Unbalanced Grid VoltageView DetailsProject Code: TEPGPE284
Project Title:Cascaded Interleaved DC–DC Converter for a Bidirectional Electric Vehicle Charging StationSolar Power Generation| Electrical Vehicles
View DetailsProject Code: TEPGPE283
Project Title:New Integrated DC–DC Conversion System for Electric VehiclesView Details S.no | Project Code | Project Name | Action |
---|---|---|---|
1 | TEPGPE293 | A Boost-LC Resonance Multimode DC–DC Converter for EV Charger Applicat... | |
2 | TEPGPE292 | A New Multilevel Inverter With Reduced Component Count for a Standalon... | |
3 | TEPGPE291 | Predictive Control of PMSG-Based Hydro-Electric System With Battery Su... | |
4 | TEPGPE290 | Hybrid Control Method of Full-Bridge LLC Resonant Converter Based on E... | |
5 | TEPGPE289 | Grid-Forming Voltage-Source Inverter for Hybrid Wind-Solar Systems Int... | |
6 | TEPGPE288 | A Maximum Power Point Tracking Technique for a Wind Power System Based... | |
7 | TEPGPE287 | Sliding Mode Control of Vienna Rectifier Under Unbalanced Weak Power G... | |
8 | TEPGPE285 | Coordinated Control Strategy for Cascaded Current-Source Converter Und... | |
9 | TEPGPE284 | Cascaded Interleaved DC–DC Converter for a Bidirectional Electric Vehi... | |
10 | TEPGPE283 | New Integrated DC–DC Conversion System for Electric Vehicles |
Takeoff Projects offers a multitude of Power Electronics Base Projects on PG project titles in power electronics, enabling you to achieve goals such as power enhancement, renewable energy-powered electricity production, waste minimization, performance boosting, and appropriate power conversions. Our Takeoff are made to provide you hands-on experience with key components like multipliers, converters, and step-up/step-down circuitry, for use in applications like energy storage systems, smart grid deployment, renewable power production systems, and electric vehicles. No matter how complex your power electronics project needs are, we have you covered. Thereby, the students can seamlessly complete their PG power electronics projects and get their precious degree with ease.