Implementation of XGBoost Models for Predicting CO2 Emission and Specific Tractor Fuel Consumption

Tillage is one of the most energy-intensive operations in crop production, leading to high fuel consumption and the emission of harmful gases such as CO2 and NOx. This study was conducted under real field conditions to explore how soil parameters influence variations in fuel use and exhaust emissions. A machine learning approach based on the XGBoost algorithm was applied to develop predictive models for CO2 concentrations in exhaust gases and specific fuel consumption. The CO2 prediction model achieved an accuracy exceeding 80%, while the model for fuel consumption reached over 65%. Although not optimized for high precision, these models offer a valuable basis for preliminary assessments and highlight the potential of data-driven approaches for improving energy efficiency and environmental sustainability in agricultural mechanization.

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Publication Details

Journal
Agriculture
Published
2025-05-31
DOI
https://doi.org/10.3390/agriculture15111209
Citations
6
Primary Topic
Forest Biomass Utilization and Management
Type
article
Field-Weighted Citation Impact
5.18
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article

Implementation of XGBoost Models for Predicting CO2 Emission and Specific Tractor Fuel Consumption

Rajko Miodragović, Zoran Mileusnić, Olivera Ećim-Đurić, Mihailo Milanović et al.
6 citations
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Forest Biomass Utilization and Management
5.18
article

Implementation of XGBoost Models for Predicting CO2 Emission and Specific Tractor Fuel Consumption

Rajko Miodragović, Zoran Mileusnić, Olivera Ećim-Đurić, Mihailo Milanović, Nebojša Balać, Aleksandra Dragičević, Andrija Rajković
article en
6 citations

Abstract

Tillage is one of the most energy-intensive operations in crop production, leading to high fuel consumption and the emission of harmful gases such as CO2 and NOx. This study was conducted under real field conditions to explore how soil parameters influence variations in fuel use and exhaust emissions. A machine learning approach based on the XGBoost algorithm was applied to develop predictive models for CO2 concentrations in exhaust gases and specific fuel consumption. The CO2 prediction model achieved an accuracy exceeding 80%, while the model for fuel consumption reached over 65%. Although not optimized for high precision, these models offer a valuable basis for preliminary assessments and highlight the potential of data-driven approaches for improving energy efficiency and environmental sustainability in agricultural mechanization.

AgricultureVol. 15(11)
University of Belgrade (RS)
Openalex Percentile: Top 4%
Forest Biomass Utilization and Management
5.18
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