Implementation of Composite Materials for Lightweighting of Industrial Vehicle Chassis

This research study investigates the use of composite materials to reduce the weight of heavy industrial vehicle chassis. A new Carbon Fibre Reinforced Polymer (CFRP) crossmember was developed to replicate the mechanical performance of the traditional steel component while achieving substantial weight reduction. A multi-step approach was adopted: analytical and finite-element analyses were performed on single crossmembers to assess bending and torsional stiffness. The CFRP design achieved increases of 6.8% in torsional stiffness and 5.0% in bending stiffness, with a 68.1% weight reduction. After confirming stiffness equivalence, full chassis simulations were carried out to evaluate global performance. The steel model reproduced experimental results with a relative error of 1.13%, while the CFRP configuration enhanced overall torsional stiffness by 7.8%. Extending these results to all crossmembers, the initial cost increase of the CFRP solution could be recovered within about 2 years for the diesel scenario and 3.5 years for the electric one. Environmental benefits were also quantified, with annual CO2 reductions of 708.4 kg and 298.6 kg, and cost savings of up to 463.3 EUR/year and 299.8 EUR/year, respectively.

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Publication Details

Journal
Journal of Composites Science
Published
2025-11-05
DOI
https://doi.org/10.3390/jcs9110611
Primary Topic
Mechanical Engineering and Vibrations Research
Type
article
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article

Implementation of Composite Materials for Lightweighting of Industrial Vehicle Chassis

Luigi Solazzi, Giorgio Donzella, Ivan Tomasi, S. Grandi
Journal of Composites Science
Mechanical Engineering and Vibrations Research
article

Implementation of Composite Materials for Lightweighting of Industrial Vehicle Chassis

Luigi Solazzi, Giorgio Donzella, Ivan Tomasi, S. Grandi
article en

Abstract

This research study investigates the use of composite materials to reduce the weight of heavy industrial vehicle chassis. A new Carbon Fibre Reinforced Polymer (CFRP) crossmember was developed to replicate the mechanical performance of the traditional steel component while achieving substantial weight reduction. A multi-step approach was adopted: analytical and finite-element analyses were performed on single crossmembers to assess bending and torsional stiffness. The CFRP design achieved increases of 6.8% in torsional stiffness and 5.0% in bending stiffness, with a 68.1% weight reduction. After confirming stiffness equivalence, full chassis simulations were carried out to evaluate global performance. The steel model reproduced experimental results with a relative error of 1.13%, while the CFRP configuration enhanced overall torsional stiffness by 7.8%. Extending these results to all crossmembers, the initial cost increase of the CFRP solution could be recovered within about 2 years for the diesel scenario and 3.5 years for the electric one. Environmental benefits were also quantified, with annual CO2 reductions of 708.4 kg and 298.6 kg, and cost savings of up to 463.3 EUR/year and 299.8 EUR/year, respectively.

Journal of Composites ScienceVol. 9(11)
University of Brescia (IT)
Openalex Percentile: Top 66%
Mechanical Engineering and Vibrations Research
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