Machine Learning Approach for Prediction of Area Under Cultivation and Production for Vegetatively Propagated Crops

Vegetatively propagated crops (VPCs) such as cassava, sweet potatoes, and bananas, are a key component in ensuring food security for the low- and middle-income countries (LMICs). In agricultural planning and seed system management, it is essential to accurately predict the area under cultivation, pr...

Descripción completa

Detalles Bibliográficos
Autores principales: Ahishakiye, E., Ogero, K., Namada, S., Rajendran, S.
Formato: Artículo preliminar
Lenguaje:Inglés
Publicado: 2024
Materias:
Acceso en línea:https://hdl.handle.net/10568/172714
_version_ 1855524535575511040
author Ahishakiye, E.
Ogero, K.
Namada, S.
Rajendran, S.
author_browse Ahishakiye, E.
Namada, S.
Ogero, K.
Rajendran, S.
author_facet Ahishakiye, E.
Ogero, K.
Namada, S.
Rajendran, S.
author_sort Ahishakiye, E.
collection Repository of Agricultural Research Outputs (CGSpace)
description Vegetatively propagated crops (VPCs) such as cassava, sweet potatoes, and bananas, are a key component in ensuring food security for the low- and middle-income countries (LMICs). In agricultural planning and seed system management, it is essential to accurately predict the area under cultivation, production volumes, and yield rates of these crops. Traditional forecasting methods have fallen short in capturing the complexity of VPC production, as there are nonlinear relationships and dynamic environmental factors at play. This paper overcomes these shortcomings by using machine learning models to enhance the forecasting accuracy using data from the Seed Requirement Estimation (SRE) tool. We applied Random Forest, AdaBoost, and a Stacked Ensemble Model to forecast the area under cultivation and production volume in tons. After hyperparameter tuning, the Stacked Model performed better, yielding R² values of 0.8260 for area prediction and 0.7883 for production forecasting, outperforming the individual models. The results reflect the potential of the ensemble learning model to improve the accuracy of agricultural forecasts. The study emphasizes the role that advanced predictive models can play in enhancing agricultural policy decisions based on data, optimizing seed distribution, and ensuring food security in VPC-dependent regions.
format Artículo preliminar
id CGSpace172714
institution CGIAR Consortium
language Inglés
publishDate 2024
publishDateRange 2024
publishDateSort 2024
record_format dspace
spelling CGSpace1727142025-11-06T13:44:55Z Machine Learning Approach for Prediction of Area Under Cultivation and Production for Vegetatively Propagated Crops Ahishakiye, E. Ogero, K. Namada, S. Rajendran, S. machine learning crop yield seed systems food security Vegetatively propagated crops (VPCs) such as cassava, sweet potatoes, and bananas, are a key component in ensuring food security for the low- and middle-income countries (LMICs). In agricultural planning and seed system management, it is essential to accurately predict the area under cultivation, production volumes, and yield rates of these crops. Traditional forecasting methods have fallen short in capturing the complexity of VPC production, as there are nonlinear relationships and dynamic environmental factors at play. This paper overcomes these shortcomings by using machine learning models to enhance the forecasting accuracy using data from the Seed Requirement Estimation (SRE) tool. We applied Random Forest, AdaBoost, and a Stacked Ensemble Model to forecast the area under cultivation and production volume in tons. After hyperparameter tuning, the Stacked Model performed better, yielding R² values of 0.8260 for area prediction and 0.7883 for production forecasting, outperforming the individual models. The results reflect the potential of the ensemble learning model to improve the accuracy of agricultural forecasts. The study emphasizes the role that advanced predictive models can play in enhancing agricultural policy decisions based on data, optimizing seed distribution, and ensuring food security in VPC-dependent regions. 2024-12 2025-02-01T02:34:44Z 2025-02-01T02:34:44Z Working Paper https://hdl.handle.net/10568/172714 en Open Access application/pdf Ahishakiye, E.; Ogero, K.; Namada, S.; Rajendran, S. 2024. Machine Learning Approach for Prediction of Area Under Cultivation and Production for Vegetatively Propagated Crops. International Potato Center. 25 p. DOI: 10.4160/cip.2025.01.020
spellingShingle machine learning
crop yield
seed systems
food security
Ahishakiye, E.
Ogero, K.
Namada, S.
Rajendran, S.
Machine Learning Approach for Prediction of Area Under Cultivation and Production for Vegetatively Propagated Crops
title Machine Learning Approach for Prediction of Area Under Cultivation and Production for Vegetatively Propagated Crops
title_full Machine Learning Approach for Prediction of Area Under Cultivation and Production for Vegetatively Propagated Crops
title_fullStr Machine Learning Approach for Prediction of Area Under Cultivation and Production for Vegetatively Propagated Crops
title_full_unstemmed Machine Learning Approach for Prediction of Area Under Cultivation and Production for Vegetatively Propagated Crops
title_short Machine Learning Approach for Prediction of Area Under Cultivation and Production for Vegetatively Propagated Crops
title_sort machine learning approach for prediction of area under cultivation and production for vegetatively propagated crops
topic machine learning
crop yield
seed systems
food security
url https://hdl.handle.net/10568/172714
work_keys_str_mv AT ahishakiyee machinelearningapproachforpredictionofareaundercultivationandproductionforvegetativelypropagatedcrops
AT ogerok machinelearningapproachforpredictionofareaundercultivationandproductionforvegetativelypropagatedcrops
AT namadas machinelearningapproachforpredictionofareaundercultivationandproductionforvegetativelypropagatedcrops
AT rajendrans machinelearningapproachforpredictionofareaundercultivationandproductionforvegetativelypropagatedcrops