TY - JOUR
T1 - Evaluation of energy sector providers for enhanced efficiency, performance, and sustainability using the digital, lean, agile, resilient, and green (DLARG) framework
T2 - a machine learning model
AU - ZhianVamarzani, Mahla
AU - Hejri, Saeid
AU - YahyapourGanji, Vahid
AU - GhanavatiNejad, Mohssen
AU - KiaeiTonekaboni, Zahra
PY - 2025
Y1 - 2025
N2 - The energy sector plays a pivotal role in the modern industrial landscape, making the evaluation of raw material providers essential for enhancing efficiency, performance, and sustainability. This study introduces a comprehensive evaluation framework that incorporates key features from the digital, lean, agile, resilient, and green paradigms to foster viable business practices within the energy sector. Initially, we identify the primary criteria necessary for assessing raw material providers. Subsequently, we develop a machine learning–based model designed to determine the weights of these criteria and evaluate raw material providers’ performance. To achieve this, we employ the fuzzy best–worst method to compute the weights of the identified criteria. Performance assessment is conducted using a combination of data envelopment analysis and gradient boosting trees methodologies. We demonstrate the application of our machine learning–based model through a real-world case study in the energy sector. The results indicate that the most critical performance indicators include “Responsiveness,” “Robustness,” “Cost,” “Quality,” “Manufacturing Flexibility,” “Technical Capability,” “Restorative Capacity,” “Lead Time Flexibility,” and “Waste Management.” Furthermore, we validate the effectiveness of the fuzzy best–worst method by comparing its results with those from alternative methods, confirming its reliability. Similarly, the performance of the integrated data envelopment analysis and gradient boosting tree approach is benchmarked against traditional methods, demonstrating its validity and effectiveness. Overall, our findings provide valuable insights for supply chain managers, particularly within the energy sector, aiming to enhance their operational strategies and sustainability initiatives.
AB - The energy sector plays a pivotal role in the modern industrial landscape, making the evaluation of raw material providers essential for enhancing efficiency, performance, and sustainability. This study introduces a comprehensive evaluation framework that incorporates key features from the digital, lean, agile, resilient, and green paradigms to foster viable business practices within the energy sector. Initially, we identify the primary criteria necessary for assessing raw material providers. Subsequently, we develop a machine learning–based model designed to determine the weights of these criteria and evaluate raw material providers’ performance. To achieve this, we employ the fuzzy best–worst method to compute the weights of the identified criteria. Performance assessment is conducted using a combination of data envelopment analysis and gradient boosting trees methodologies. We demonstrate the application of our machine learning–based model through a real-world case study in the energy sector. The results indicate that the most critical performance indicators include “Responsiveness,” “Robustness,” “Cost,” “Quality,” “Manufacturing Flexibility,” “Technical Capability,” “Restorative Capacity,” “Lead Time Flexibility,” and “Waste Management.” Furthermore, we validate the effectiveness of the fuzzy best–worst method by comparing its results with those from alternative methods, confirming its reliability. Similarly, the performance of the integrated data envelopment analysis and gradient boosting tree approach is benchmarked against traditional methods, demonstrating its validity and effectiveness. Overall, our findings provide valuable insights for supply chain managers, particularly within the energy sector, aiming to enhance their operational strategies and sustainability initiatives.
KW - Data-driven decision-making
KW - LARG paradigms
KW - Raw material provider selection
KW - Supply chain management
UR - http://www.scopus.com/inward/record.url?scp=105012774732&partnerID=8YFLogxK
UR - https://go.openathens.net/redirector/westernsydney.edu.au?url=https://doi.org/10.1007/s41660-025-00553-4
U2 - 10.1007/s41660-025-00553-4
DO - 10.1007/s41660-025-00553-4
M3 - Article
AN - SCOPUS:105012774732
SN - 2509-4238
JO - Process Integration and Optimization for Sustainability
JF - Process Integration and Optimization for Sustainability
ER -