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Leveraging Remote Sensing Data for Yield Prediction with Deep Transfer Learning
Florian Huber1, Alvin Inderka1, Volker Steinhage1
1Department of Computer Science IV, University of Bonn, 53121 Bonn, Germany.
Sensors (Basel, Switzerland)
|February 10, 2024
Summary
Deep transfer learning using remote sensing data improves soybean yield prediction, especially in data-scarce regions. This method enhances accuracy by transferring knowledge from data-rich areas, reducing the need for extensive ground truth data.
Area of Science:
- Agricultural Science
- Data Science
- Remote Sensing
Background:
- Automated yield prediction relies heavily on remote sensing data due to its resolution, availability, and cost-effectiveness.
- Challenges in yield prediction include obtaining reliable ground truth data and the expense of expert-acquired crop information.
- Deep transfer learning offers a solution by leveraging existing data patterns and reducing ground truth requirements.
Purpose of the Study:
- To develop and evaluate a deep transfer learning framework for crop yield prediction using remote sensing data.
- To transfer knowledge from US soybean yield prediction to Argentina, addressing data limitations.
- To enhance prediction accuracy by employing advanced transfer learning techniques and spatio-temporal analysis.
Main Methods:
- Utilized remote sensing data preprocessed into histograms for yield prediction.
- Implemented a deep transfer learning framework, including temporal alignment and techniques like L2-SP, BSS, and layer freezing.
- Applied Gaussian processes to exploit spatio-temporal patterns in the data.
Main Results:
- Achieved a 19% improvement in Root Mean Square Error (RMSE) and a 39% improvement in R-squared (R2) for soybean yield prediction in Argentina compared to baseline methods.
- Successfully transferred predictive knowledge from the US to Argentina, demonstrating the efficacy of the transfer learning approach.
- Validated the framework's ability to overcome challenges like catastrophic forgetting and negative transfer.
Conclusions:
- Deep transfer learning with remote sensing data provides a powerful tool for accurate yield prediction, particularly in regions with limited ground truth data.
- The proposed framework, incorporating advanced transfer learning techniques and Gaussian processes, significantly enhances prediction performance.
- This approach holds promise for improving agricultural monitoring and food security, especially in developing countries.
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