Well-to-Wheel Environmental Performance of a Long Haul Fuel-Cell Truck under Alternative Hydrogen Production Pathways: Route Resolved Insights from the ESCALATE Project

Executive Summary Decarbonising long haul heavy duty freight transport is essential for achieving European climate-neutrality targets. This study evaluates the well to wheel environmental performance of a 40 ton fuel cell heavy duty truck (FCHDT) developed within the ESCALATE project. A coupled MATLAB/Simulink and SimaPro-based modelling framework integrates route-resolved vehicle energy simulations with life-cycle impact assessment to evaluate the combined effects of operational strategies and hydrogen production pathways. Two operating contexts are considered: the Barcelona Geneva freight corridor and the VECTO long haul reference cycle. Results show that operational optimisation reduces hydrogen consumption and associated climate impacts by approximately 15.6% for the Barcelona Geneva corridor and 21.7% for the VECTO cycle. Hydrogen production pathways remain the dominant driver of environmental performance. Wind-powered electrolysis reduces aggregated environmental impacts to approximately 1 mPt per 100 km, compared with 13–14 mPt per 100 km for grid-based electrolysis and 4–5 mPt per 100 km for SMR-derived hydrogen. Vehicle efficiency improvements and low carbon hydrogen supply play a crucial role in improving the environmental performance of hydrogen powered long haul freight transport.

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Publication Details

Journal
University of Surrey Open Research repository
Published
2026-10-30
DOI
https://doi.org/10.15126/902365
Primary Topic
Vehicle emissions and performance
Type
preprint
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preprint

Well-to-Wheel Environmental Performance of a Long Haul Fuel-Cell Truck under Alternative Hydrogen Production Pathways: Route Resolved Insights from the ESCALATE Project

Burcu Uzun, Emre Özgül, Ahu Ece Hartavi Karcı, Mohammad Ghazali et al.
4 links
University of Surrey Open Research repository
Vehicle emissions and performance
preprint

Well-to-Wheel Environmental Performance of a Long Haul Fuel-Cell Truck under Alternative Hydrogen Production Pathways: Route Resolved Insights from the ESCALATE Project

Burcu Uzun, Emre Özgül, Ahu Ece Hartavi Karcı, Mohammad Ghazali, ΖΗΣΗΣ ΣΑΜΑΡΑΣ, Adrián Valverde, Simone Ehrenberger, Berkay Kaya, Maria Soares, Sokratis Mamarikas, Elcin Aleixo Calado, Emanuel J. Lourenço, Rafaela Gonçalves, Jannatul Ferdouse, Mehmet Zahid Erkesim, Servais Ouenou Gamo, Dimitrios Kontses
preprint en

Abstract

Executive Summary Decarbonising long haul heavy duty freight transport is essential for achieving European climate-neutrality targets. This study evaluates the well to wheel environmental performance of a 40 ton fuel cell heavy duty truck (FCHDT) developed within the ESCALATE project. A coupled MATLAB/Simulink and SimaPro-based modelling framework integrates route-resolved vehicle energy simulations with life-cycle impact assessment to evaluate the combined effects of operational strategies and hydrogen production pathways. Two operating contexts are considered: the Barcelona Geneva freight corridor and the VECTO long haul reference cycle. Results show that operational optimisation reduces hydrogen consumption and associated climate impacts by approximately 15.6% for the Barcelona Geneva corridor and 21.7% for the VECTO cycle. Hydrogen production pathways remain the dominant driver of environmental performance. Wind-powered electrolysis reduces aggregated environmental impacts to approximately 1 mPt per 100 km, compared with 13–14 mPt per 100 km for grid-based electrolysis and 4–5 mPt per 100 km for SMR-derived hydrogen. Vehicle efficiency improvements and low carbon hydrogen supply play a crucial role in improving the environmental performance of hydrogen powered long haul freight transport.

University of Surrey Open Research repository
University of Surrey (GB)
Industry, innovation and infrastructure, Climate action, Affordable and clean energy, Responsible consumption and production
Vehicle emissions and performance
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