Innovative Renewable Energy Project Ideas

Just imagine a world where we can get clean energy from the air, anytime and anywhere. This idea can help us achieve zero emissions. We work towards a sustainable future, and using easily available resources, like renewable energy from the atmosphere, becomes crucial. These Renewable energy projects can provide excellent power solutions by capturing energy from natural sources like water, vibrations, heat, sunlight, and wind.

In this article, we will thoroughly explore the process of energy resource harvesting and present over 50 Renewable Energy Projects.

Must read: Embedded Projects

Key Technologies for Powering with Harvesting of Energy Resources

To power various machines and equipment, we need better energy harvesting solutions. These solutions can be achieved using key technologies, which include:

Harvesting of Thermal resources

Electricity is produced by converting geothermal resources or heat from sources like waste heat from industrial processes or body temperature.

Harvesting of Solar resources

Electricity is produced by converting sunlight through photovoltaic cells, making it perfect for powering lighting and sensor systems.

Harvesting of Radio Frequency (RF) resources

Electricity is generated by harvesting Radio Frequency (RF) resources from various IT devices and establishments such as mobile phones, wireless routers, Wi-Fi hotspots, and mobile network antennas.

Harvesting of Vibration resources

Electricity is generated by harvesting vibration resources from various sources like human activity, machinery, and automobiles.

Also check: Wind renewable energy projects

Plan for Improved Renewable Energy Harvesting

To enhance the harvesting of renewable resources, specific procedures must be followed. Here are some of the procedures listed below.

• Developing hybrid systems that can integrate various energy resource harvesting technologies effectively.

• Utilizing cost-effective manufacturing methods to make energy resource harvesting technologies more affordable.

·         Making energy resource harvesting devices smaller to match specific applications.

·         Using durable energy conversion materials to extend the lifespan of the energy resource harvesting system.

Advantages of Improved Renewable Energy Harvesting

With the development of advanced techniques in renewable energy harvesting, power generation has become more stable and reliable, thanks to the achieved energy autonomy through the Energy Harvesting System. This autonomy brings forth numerous benefits from these enhanced renewable energy harvesting techniques. Some of these advantages include:

 

• Ease of access and innovation.
• Cost effective.
• More sustainable.

Ease of access and innovation:

Improved renewable energy harvesting techniques simplify access to renewable energy sources for both individuals and industries. Additionally, ongoing innovation in this area continually introduces new technologies and methods, enhancing accessibility and efficiency even further.

Cost-effective:

These advanced techniques offer cost-effective solutions for energy production. By effectively controlling renewable resources, businesses and consumers can reduce their reliance on expensive traditional energy sources, resulting in significant long-term savings.

More sustainable:

Amplifying energy power harvesting systems that make use of renewable origins such as vibrations, sunlight, and wind is crucial for fostering ecology. Harvesting systems are necessary for minimizing greenhouse gas emissions, maintaining, environmental impact, and long-term ecological balance.

Know more: Solar renewable energy projects ideas

Top 50+ Final Year Renewable Energy Projects

For powering the future world, an improved renewable energy harvesting system is essential. Enhancing these systems requires experimentation and investigation through research and development-oriented Renewable Energy Projects. We have compiled a list of renewable energy projects for engineering students that have been carefully chosen, the major renewable resources like wind energy and solar energy, are aimed particularly at engineering students. 

• Analysis and Testing of Dual Axis Solar Tracker for a Standalone PV System 

• Battery Supported Solar Water Pumping System with Adaptive Feed-Forward Current Estimation 

• Solar Powered Automated Multi-Tasking Agricultural Robot 

• Enhanced Control of DFIG Based Wind Energy Conversion System under Unbalanced Grid Voltages Using Mixed Generalized Integrator 

• Junction Street Light System Automatic Control Using Renewable Energy Resource 

• Integration of photovoltaic energy into the electrical network using a multi-level(three level SVPWM) inverter with Z source

• Simulation and Modelling of MPPT based PV System Connected with Boost Converter 

• Simulation and Modeling of STATCOM and Wind farm in Transmission Line Using Matlab and Analysis of Bus Voltage 

• An Economical Solar Water Pump with Grid and Battery Backup for Continuous Operation 

• A Novel Single Phase Grid Connected Transformer-Less Solar Micro-Inverter Topology With Power Decoupling Capability

• Reduced Voltage Sensors Based UPQC Tied Solar PV System Enabling Power Quality Improvement 

• A Hybrid Compensator for Unbalanced AC Distribution System with Renewable Power 

• Multiport Power Management Method with Partial Power Processing in a MV Solid-State Transformer for PV, Storage, and Fast-Charging EV Integration 

• Power Quality Assessment of CPUC Based Solar Photovoltaic System With NLMS for Grid-Tied Applications 

• A New Multilevel Inverter Based Grid Connected Reliable Solar Power Transfer Unit With Power Quality Enhancement 

• Three Level T Type Quasi Z Source PV Grid Tied Inverter with Active Power Filter Functionality under Distorted Grid Voltage

• Enhanced Control and Power Management For A Renewable Energy-Based Water Pumping System 

• A Generalized High Gain Multilevel Inverter for Small Scale Solar Photovoltaic Applications 

• Multilevel Converter With Nearest Level Control for Integrating Solar Photovoltaic System 

• Multi-Objective Control Strategy for Power Quality Improvement in Wind-Solar Distributed Generation System under Harmonically Distorted Grid 

• Operation of Grid Connected PV-Battery-Wind Driven DFIG Based System 

• Wind-Driven DFIG–Battery–PV-Based System with Advance DSOSF-FLL Control 

• Performance Analysis of Renewable Energy Based Distributed Generation System Using ANN Tuned UPQC 

• An Uninterruptable PV Array-Battery Based System Operating in Different Power Modes with Enhanced Power Quality 

• Power Quality Improvement in a PV Based EV Charging Station Interfaced with Three Phase Grid 

• Voltage Sag Enhancement of Grid Connected Hybrid PV-Wind Power System Using Battery and SMES Based Dynamic Voltage Restorer

• Sensorless Field Oriented SMCC Based Integral Sliding Mode for Solar PV Based Induction Motor Drive for Water Pumping 

• Construction and Performance Investigation of Three-Phase Solar PV and Battery Energy Storage System Integrated UPQC 

• Mitigation Of Inter Harmonics In Pv Systems With Maximum Power Point Tracking Modification 

• Solar PV Array Fed Water Pumping Using BLDC Motor Drive with Boost-Buck Converter 

• Stability Analysis for DFIG-Based Wind Farm Grid-Connected System Under All Wind Speed Conditions 

• Modeling of a Droop-Controlled Grid-Connected DFIG Wind Turbine

• Detection method of grid voltage sag for offshore wind power converter 

• DC Bus Voltage Control of Wind Power Inverter Based on First-Order LADRC 

• Power Compensation Control for DFIG-Based Wind Turbines to Enhance Synchronization Stability during Severe Grid Faults 

• Power and Current Limiting Control of Wind Turbines Based on PMSG Under Unbalanced Grid Voltage 

• Energy Management and Optimization of Vehicle-to-grid Systems for Wind Power Integration 

• Maximum Power Point Tracking for Wind Turbine Using Integrated Generator–Rectifier Systems 

• A Highly Effective Fault-Ride-Through Strategy for a Wind Energy Conversion System with Doubly Fed Induction Generator

• Testing the Performance of Battery Energy Storage in a Wind Energy Conversion System 

• Transient Stability Enhancement of Grid Integrated DFIG Based Wind Energy Conversion System 

• Nonlinear Model Predictive Control Of Wind Farm For System Frequency Support 

• Hierarchical Distributed Model Predictive Control Of Standalone Wind/solar/battery Power System

• Implementation and validation of backstepping control for PMSG wind turbine using dSPACE controller board

• Mitigation Of Sub Synchronous Resonance In Series-compensated Dfig Wind Farm Using Active Disturbance Rejection Control 

• Super-Capacitor-Based Inverter Control of Wind Energy System Connected to Weak Grid 

• A Novel Approach to Maximize Performance and Reliability of PMSG Based Wind Turbine 

• Control of DFIG Wind Power Generators in Unbalanced Microgrids Based on Instantaneous Power Theory 

• Modelling of a Wind Turbine with Permanent Magnet Synchronous Generator 

• Modeling and Coordinated Control Design for Brushless Doubly Fed Induction Generator-Based Wind Turbine to Withstand Grid Voltage Unbalance

• A Dynamic Coordination Control Architecture for Reactive Power Capability Enhancement of the DFIG-based Wind Power Generation

• Dynamic Behavior of DFIG Wind Turbine Under Grid Fault Conditions 

• Dual Mode Operation of Wind-Solar with Energy Storage Based Microgrid Integrated to Utility Grid 

• Lmmn Based Adaptive Control For Power Quality Improvement Of Grid Intertie Wind-pv System

• Enhancing voltage stability and LVRT capability of a wind-integrated power system using a fuzzy-based SVC 

• A STATCOM-Control Scheme for Grid Connected Wind Energy System for Power Quality Improvement 

Also read: CSE Projects

Conclusion:

The Energy Harvesting System plays a crucial role in powering a sustainable and energy-efficient future. As many efforts in Renewable Energy Projects are in progress, researchers and experts are continuously clarifying and evolving these technologies to address known issues and enhance the harvesting of renewable resources for future power needs.