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Identifying links between monsoon variability and rice production in India through machine learning
Christopher Bowden1, Timothy Foster2, Ben Parkes2
1Department of Mechanical, Aerospace and Civil Engineering, University of Manchester, Manchester, M13 9PL, UK. christopher.bowden@postgrad.manchester.ac.uk.
Machine learning, specifically random forest modeling, effectively predicts rice production variability due to monsoon weather changes. This approach reveals complex climate-agriculture interactions impacting food security.
Area of Science:
- Agricultural Science
- Climate Science
- Data Science
Background:
- Climate change significantly threatens global food security, particularly for agriculture dependent on monsoon rainfall.
- Monsoon variability presents a critical challenge to agricultural systems, necessitating advanced analytical methods for understanding impacts.
- Traditional models often fail to capture the complex, non-linear relationships between weather patterns and crop productivity.
Purpose of the Study:
- To apply machine learning for a deeper understanding of monsoon variability's impact on agricultural productivity.
- To assess the effectiveness of random forest modeling in representing rice production variability.
- To identify key climate and agricultural factors influencing rice yield and harvested area.
Main Methods:
- Utilized random forest modeling to analyze the relationship between monsoon weather variability and rice production.
- Quantified the percentage of variation in detrended anomalies for rice yield and harvested area explained by monsoon weather predictors.
- Identified the most influential weather variables and agricultural management practices (e.g., irrigation) impacting rice production.
Main Results:
- Random forest models explained 33% of rice yield anomalies and 35% of harvested area anomalies.
- Downwelling shortwave radiation flux was the key weather variable for yield anomalies, while irrigation proportion was the most significant overall predictor.
- Weather extremes influence agricultural productivity through changes in both per-area yields and harvested area, highlighting a critical pathway for production losses.
Conclusions:
- Random forest modeling accurately represents crop-climate variability in monsoonal agriculture, offering insights beyond traditional parametric models.
- The study identified complex, non-linear responses of rice yield and area to factors like irrigation, monsoon onset, and season length.
- Machine learning provides a powerful tool for understanding and potentially mitigating the impacts of climate variability on rice production and food security.
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