WEDTA Wind Energy Drive Train Analysis Unit

WIND ENERGY DRIVE TRAIN ANALYSIS UNIT - WEDTA

INNOVATIVE SYSTEMS

The Wind Energy Drive Train Analysis Unit, "WEDTA", designed by EDIBON, allows students and professors to explore the operational characteristics of a wind turbine rotor under various wind conditions, thus optimizing the design and operation of the turbines.

See general description

General Description

The Wind Energy Drive Train Analysis Unit, "WEDTA", designed by EDIBON, allows students and professors to explore the operational characteristics of a wind turbine rotor under various wind conditions, thus optimizing the design and operation of the turbines. It also enables a detailed study of how rotational energy is converted into electrical energy. This unit facilitates the study of the fundamental process of converting the kinetic energy of the wind into electrical energy, essential for the functioning of wind turbines. Additionally, it enables the evaluation of the overall performance of a wind turbine's drive train, providing key insights to improve system efficiency and sustainability.

Complementing this advanced unit, our test unit is meticulously designed for measurements in a wind energy drivetrain. It provides a hands-on experience, allowing students to conduct precise measurements in a drivetrain, simulating real-world conditions found in wind turbine operations. Alongside, we offer a comprehensive online course on wind energy fundamentals, ensuring that students have access to both theoretical and practical knowledge.

Our system includes a drivetrain with a spur gear and a DC generator, allowing students to understand the mechanics of power transmission and electricity generation. The motor with adjustable revolutions simulates a wind turbine rotor, providing insights into the relationship between wind speed and energy generation. By simulating typical torque characteristics, the system helps in understanding how torque impacts the efficiency and performance of the generator.

The DC generator features connections for the loads, enable practical experiments on energy distribution and generation. With an adjustable load displaying current or voltage, students can explore the effects of different loads on the unit. Sensors for measuring the generator's revolutions and torque on both the drive and generator sides provide real-time data for detailed analysis.

An integrated measurement amplifier with digital displays ensures precise and easy-to-read measurements, while analog outputs allow for the transmission of torque and revolution data to external recording systems. This setup provides a thorough understanding of the drivetrain's performance, helping students and professors to optimize design and operational strategies.

Through these combined efforts, students gain a holistic understanding of wind energy systems, from theoretical foundations to practical applications, ensuring they are well-prepared to contribute to the development of efficient and sustainable wind energy technologies.

Exercises and guided practices

GUIDED PRACTICAL EXERCISES INCLUDED IN THE MANUAL

  1. Study of wind turbine operation based on wind speed variation: analyze how changes in wind speed affect the operation of the wind turbine.
  2. Measurement of energy conversion efficiency: study how rotational energy is converted into electrical energy and measure the efficiency of this process under different load and speed conditions.
  3. Analysis of the impact of torque on the gear: investigate how the torque and the speed affect the performance of the gear in terms of power transmission and efficiency.
  4. Study of the influence of revolutions on the gear: evaluate how rotational speed (rpm) affects the performance and efficiency of the gear.
  5. Evaluation of generator performance under different torques: measure how different torques applied to the generator affect its performance and capacity to generate electricity.
  6. Influence of rotational speed on generator efficiency: analyze how variations in rotational speed impact the efficiency of the generator in converting mechanical energy to electrical energy.
  7. Simulation of typical torque characteristics of a wind turbine rotor: simulate the real operating conditions of a wind turbine rotor and study how these characteristics affect the overall performance of the drivetrain.
  8. Optimization of load to maximize energy generation: adjust the load connected to the generator and observe how different loads affect the efficiency and amount of generated energy.
  9. Real-time data monitoring and analysis: use sensors and measurement amplifiers to collect real-time data on the number of revolutions and torque, and analyze this data to improve system understanding.
  10. Development of design and operational strategies: use the data obtained from the previous practices to develop and test different design and operational strategies that optimize the performance and sustainability of the wind energy system.

Quality

AFTER-SALES SERVICE

Ask for information