Performance evaluation of a hybrid photovoltaic-vapor compression system serving a refrigerated van

• Zero on-wheel emissions achieved during winter, 88 % reduction in summer. • Total lifecycle emissions by 33–47 % (1–5 gCO 2,e /km). • Potential cost savings of 0.1–0.3 € per kilometer. • The hybrid PV system is low-complexity and easy to implement. • The hybrid PV system is a viable path for decarbonising refrigerated transport. The refrigerated transportation industry's growth necessitates addressing energy consumption and greenhouse gas emissions. This study estimates a photovoltaic system's energy and environmental benefits to power a vapour compression refrigeration (VCR) system serving a light-duty commercial refrigerated van. A comprehensive energy model encompassing thermal, electrical, and battery sub-models simulating the system's dynamic behaviour is calibrated with real-world data referring to an urban single-delivery mission. The potential benefits are estimated for a long-distance single-delivery mission starting from the University of Salerno (Italy) and ending at the Jaume I University in Castellon de la Plana (Spain). The results have shown that the system can reduce fuel consumption for refrigeration by more than 88 % during summer months and allows neutral refrigeration during winter months, leading to on-wheel emission savings between 4 and 8 gCO 2 ,e/km. When considering total emissions, including electrical energy from the power grid and the increased weight due to the PV system, a 33–47 % reduction is obtained, corresponding to 1–5 gCO 2 ,e/km. In detail, PV panels can cover up to 19 % of the total energy requirements. In economic terms, the system allows a cost-saving between 0.1 and 0.3 c€/km. The low complexity and promising results suggest the hybrid PV solution is a viable path towards decarbonising refrigerated transport.

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Publication Details

Journal
International Journal of Refrigeration
Published
2024-10-16
DOI
https://doi.org/10.1016/j.ijrefrig.2024.10.021
Citations
7
Primary Topic
Advanced Battery Technologies Research
Type
article
Field-Weighted Citation Impact
1.42

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article

Performance evaluation of a hybrid photovoltaic-vapor compression system serving a refrigerated van

Ciro Aprea, Claudio Cilenti, Rodrigo Llopis, Fabio Petruzziello et al.
7 citations
International Journal of Refrigeration
Advanced Battery Technologies Research
1.42
article

Performance evaluation of a hybrid photovoltaic-vapor compression system serving a refrigerated van

Ciro Aprea, Claudio Cilenti, Rodrigo Llopis, Fabio Petruzziello, Angelo Maiorino
article en
7 citations

Abstract

• Zero on-wheel emissions achieved during winter, 88 % reduction in summer. • Total lifecycle emissions by 33–47 % (1–5 gCO 2,e /km). • Potential cost savings of 0.1–0.3 € per kilometer. • The hybrid PV system is low-complexity and easy to implement. • The hybrid PV system is a viable path for decarbonising refrigerated transport. The refrigerated transportation industry's growth necessitates addressing energy consumption and greenhouse gas emissions. This study estimates a photovoltaic system's energy and environmental benefits to power a vapour compression refrigeration (VCR) system serving a light-duty commercial refrigerated van. A comprehensive energy model encompassing thermal, electrical, and battery sub-models simulating the system's dynamic behaviour is calibrated with real-world data referring to an urban single-delivery mission. The potential benefits are estimated for a long-distance single-delivery mission starting from the University of Salerno (Italy) and ending at the Jaume I University in Castellon de la Plana (Spain). The results have shown that the system can reduce fuel consumption for refrigeration by more than 88 % during summer months and allows neutral refrigeration during winter months, leading to on-wheel emission savings between 4 and 8 gCO 2 ,e/km. When considering total emissions, including electrical energy from the power grid and the increased weight due to the PV system, a 33–47 % reduction is obtained, corresponding to 1–5 gCO 2 ,e/km. In detail, PV panels can cover up to 19 % of the total energy requirements. In economic terms, the system allows a cost-saving between 0.1 and 0.3 c€/km. The low complexity and promising results suggest the hybrid PV solution is a viable path towards decarbonising refrigerated transport.

International Journal of RefrigerationVol. 168
Universitat Jaume I (ES), University of Salerno (IT)
Ministero dell'Università e della Ricerca
Affordable and clean energy
Openalex Percentile: Top 19%
Advanced Battery Technologies Research
1.42
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