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Use Case

Predicting Wind Energy Generation for Efficient Power Management

Optimizing renewable energy production by predicting wind energy generation based on meteorological conditions.

1Overview & Strategic Importance

Predicting Wind Energy Generation for Efficient Power Management
Regression Solution Renewable Energy

Problem Statement

The efficient generation of wind energy depends on various atmospheric conditions such as wind speed, air temperature, and pressure. Traditional forecasting methods often rely on manual analysis, which can be insufficient in dynamic weather. A predictive model capable of forecasting wind power generation based on meteorological parameters can enhance energy planning, reduce operational risks, and improve efficiency in wind energy systems.

Required Solutions

  • Analyzing historical wind energy data to identify key factors affecting generation.
  • Developing a predictive model to estimate power generated by systems based on atmospheric conditions.
  • Supporting decision-making in energy management and resource planning for wind farms.

Solution Objectives

  • Perform exploratory data analysis to understand the relationship between weather and output.
  • Develop a regression-based model to predict energy output based on atmospheric composition.
  • Provide insights that assist grid operators in optimizing wind energy utilization.

Understanding the Problem

Wind power generation is influenced by multiple factors including wind speed, temperature, and direction.
Machine learning models help forecast generation by identifying patterns in meteorological data. While enhancing planning, models should be complemented with real-time monitoring.

2About the Data

Data Collection

This dataset was taken from an active wind turbine's SCADA system in Turkey, recording speed, direction, and power at 10-minute intervals. It represents high-fidelity operational data for energy prediction.

Major Operational Parameters

Download Training Data
DateTime

The timestamp indicating the specific date and time at which the measurement was recorded.

Air temperature | (°C)

The measured temperature of the air in degrees Celsius, which can influence wind energy generation.

Pressure | (atm)

The atmospheric pressure in atmospheres (atm), affecting air density and wind behavior.

Wind speed | (m/s)

The speed of the wind in meters per second, a critical factor in determining wind power generation efficiency.

Wind direction | (deg)

The direction of the wind in degrees, which helps in assessing wind patterns and optimizing turbine positioning.

Power generated by system | (kW)

The amount of power generated by the wind energy system in kilowatts, serving as the target variable for prediction.

3Using iDareAI

Guided Mode Initialization

AUploading Dataset

Click on the **'Upload CSV or Excel Data'** button → Select a source for the dataset → Upload `wind_energy_train.xlsx`. The system automatically identifies the meteorological targets.

Excel Selection
Upload UI

BChoosing Analysis Mode

Choose between autonomous machine learning or manual building. In autonomous mode, ask a question like:
  • How can power generated by wind energy be maximized?
  • Which factors play the most important role in generating power from wind?

Operation Using Autonomous Guided Mode

AQuery Response

The Random Forest model demonstrated exceptional usability with very low test error percentage. Wind speed was identified as the most critical feature for energy maximization.

Auto Analysis

BAI Application

The generated application allows users to test various wind speed and temperature scenarios via sliders to see their immediate impact on generated kW.

Auto Application

Model Fine-Tuning/Manual Model Building

ASelecting Prediction Target

'Power generated by system | (kW)' was selected as the target column.

Target Selection

BSelecting Analysis Type

Target is a numerical value, so 'Regression' is selected.

Analysis Type

CSelecting Model Group/Item

Model Group

DSelecting Features

Select Air temperature, Wind speed, and Wind direction.

Feature Selection

ESelecting Training Level

Training Level

AI Modeling Details

Xtreme Gradient Boosting demonstrated an accuracy of 98.9% with a testing error of 1.12%. It out-performed Linear Regression for this dataset.

Modeling Details

Training Analysis Details

APredicted Target

Predicted Target

BPredicted Trend

Predicted Trend

CError Trend

Error Trend

DFeature Importance

Feature Importance

Finalize Models

Once accuracy reaches target levels, click 'Deploy' to start using your AI wind energy prediction application.

Finalize Models

4AI APPLICATION

Manual Model Building

In Manual Training Mode, adjust sliders for Wind Speed and Air Temperature. Clicking ‘Get Response’ generates a tailored kW prediction based on those values.

Manual App

AI Application Demo

  1. Adjust operational variables like 'Wind speed' and 'Air temperature'.
  2. Observe how different weather conditions influence the expected power output in real-time.

Saving the Project

Save your project by clicking the icon at the bottom left corner of the textbox.

Saving

Sharing the Project

Share the application for single on-demand predictions once the analysis is saved.

Sharing

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