Predictive modelling and spatial flow analysis of United States of America crude oil imports

The global energy system significantly dependent on crude oil and it is also a major driver of the transportation industry and petrochemical production. By 2040, oil and gas will likely account for over half of the universal energy mix due to increasing demands in various countries of the world, despite developing interest in renewable energy. The United States is a major importer of crude oil due to the role it plays in the country’s economy and energy requirements. Nevertheless, economic uncertainty and geopolitical tensions, such as the battle between Russia and Ukraine, weaken global oil markets. Hence, the need for countries to be able to understand how their supply would be affected. In order to enhance how countries can predict their future supply from different sources, this study evaluates the predictive performance of two machine learning (ML) models: Random Forest (RF), and Support Vector Regression (SVR) in relation to the commonly used Linear Regression (LR). Data of crude oil import from Iraq, Saudi Arabia, Venezuela, Mexico, Canada and Russia into the USA from 1973 to 2023 was obtained for the study from Energy Information Administration. The data were subjected to clearing. Afterwards, 80% of the data was trained while 20% were used to test the predictive performance of the three models by predicting the import flows from 2024 to 2033. Metrics used for the test were root-mean-squared error (RMSE) and mean absolute error (MAE). Maps were used to visualise the flow of the crude oil imports from each country based on the data and the prediction of the three models. With an RMSE of 259.35 and an MAE of 169.17, Random Forest scored better than the other models, showing balanced geographical flows and high predicted accuracy from important importers like Saudi Arabia and Canada. On the other hand, due to their difficulties with nonlinear dynamics, SVR (RMSE: 568.04, MAE: 365.99) and Linear Regression (RMSE: 538.02, MAE: 384.77) performed poorly. Random Forest's ability to forecast import volumes and optimize trade routes was confirmed by spatial flow maps. The result suggest that energy security and supply chain resilience can be improved by incorporating ML models and geographical analysis into energy planning. Keywords: Crude Oil, Machine learning, Random Forest, Linear Regression, Support Vector Regression.

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Publication Details

Journal
Computer Science & IT Research Journal
Published
2025-06-06
DOI
https://doi.org/10.51594/csitrj.v6i5.1935
Primary Topic
Global Energy and Sustainability Research
Type
article
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article

Predictive modelling and spatial flow analysis of United States of America crude oil imports

Tobi Kabir Yusuf, Maame Korkor Prah, Amina Yakubu, Adeyemi Oluwatoba et al.
Computer Science & IT Research Journal
Global Energy and Sustainability Research
article

Predictive modelling and spatial flow analysis of United States of America crude oil imports

Tobi Kabir Yusuf, Maame Korkor Prah, Amina Yakubu, Adeyemi Oluwatoba, Busayo A Yusuf
article en

Abstract

The global energy system significantly dependent on crude oil and it is also a major driver of the transportation industry and petrochemical production. By 2040, oil and gas will likely account for over half of the universal energy mix due to increasing demands in various countries of the world, despite developing interest in renewable energy. The United States is a major importer of crude oil due to the role it plays in the country’s economy and energy requirements. Nevertheless, economic uncertainty and geopolitical tensions, such as the battle between Russia and Ukraine, weaken global oil markets. Hence, the need for countries to be able to understand how their supply would be affected. In order to enhance how countries can predict their future supply from different sources, this study evaluates the predictive performance of two machine learning (ML) models: Random Forest (RF), and Support Vector Regression (SVR) in relation to the commonly used Linear Regression (LR). Data of crude oil import from Iraq, Saudi Arabia, Venezuela, Mexico, Canada and Russia into the USA from 1973 to 2023 was obtained for the study from Energy Information Administration. The data were subjected to clearing. Afterwards, 80% of the data was trained while 20% were used to test the predictive performance of the three models by predicting the import flows from 2024 to 2033. Metrics used for the test were root-mean-squared error (RMSE) and mean absolute error (MAE). Maps were used to visualise the flow of the crude oil imports from each country based on the data and the prediction of the three models. With an RMSE of 259.35 and an MAE of 169.17, Random Forest scored better than the other models, showing balanced geographical flows and high predicted accuracy from important importers like Saudi Arabia and Canada. On the other hand, due to their difficulties with nonlinear dynamics, SVR (RMSE: 568.04, MAE: 365.99) and Linear Regression (RMSE: 538.02, MAE: 384.77) performed poorly. Random Forest's ability to forecast import volumes and optimize trade routes was confirmed by spatial flow maps. The result suggest that energy security and supply chain resilience can be improved by incorporating ML models and geographical analysis into energy planning. Keywords: Crude Oil, Machine learning, Random Forest, Linear Regression, Support Vector Regression.

Computer Science & IT Research JournalVol. 6(5)
Northwest Missouri State University (US), Austin Peay State University (US), University of Central Missouri (US)
Openalex Percentile: Top 92%
Global Energy and Sustainability Research
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