Decarbonizing the Cold Chain: Long-Haul Refrigerated Deliveries with On-Board Photovoltaic Energy Integration
Decarbonizing the cold chain is a priority for sustainability due to the increasing demand for chilled/frozen food and pharmaceutics. Refrigerated transport requires additional fuel for refrigeration other than for traction. Photovoltaic panels on the vehicle rooftop, a battery bank, and a power con...
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doaj-25dcae768ba44c059a6c04bdf841bf062021-08-06T15:33:12ZengMDPI AGSustainability2071-10502021-07-01138506850610.3390/su13158506Decarbonizing the Cold Chain: Long-Haul Refrigerated Deliveries with On-Board Photovoltaic Energy IntegrationAntonella Meneghetti0Chiara Pagnin1Patrizia Simeoni2DPIA-Polytechnic Department of Engineering and Architecture, University of Udine, Via delle Scienze 206, 33100 Udine, ItalyDPIA-Polytechnic Department of Engineering and Architecture, University of Udine, Via delle Scienze 206, 33100 Udine, ItalyDPIA-Polytechnic Department of Engineering and Architecture, University of Udine, Via delle Scienze 206, 33100 Udine, ItalyDecarbonizing the cold chain is a priority for sustainability due to the increasing demand for chilled/frozen food and pharmaceutics. Refrigerated transport requires additional fuel for refrigeration other than for traction. Photovoltaic panels on the vehicle rooftop, a battery bank, and a power conversion system can replace the diesel engine driving the transport refrigerated unit. In long-haul deliveries, vehicles cross zones with different climate conditions, which affect both refrigeration requirements and photovoltaic energy conversion. Mandatory driver’s breaks and rest also affect delivery timing and energy consumption. A multiperiod, multizone optimization model is developed to size the onboard photovoltaic system, based on features of the delivery tour. The model is applied to a palletized chilled food delivery from North-Eastern Italy, showing a payback time of around four years, which can drop under two years for expected reduction of component costs. Economic and environmental performances can be increased by also allowing refrigerated products on-board during the return journey, leading to more fuel savings. Photovoltaic-integrated long-haul delivery for frozen products is not convenient at current market costs. Different climate conditions are tested, showing the model ability to act as a decision support tool to foster renewable energy penetration into the cold chain.https://www.mdpi.com/2071-1050/13/15/8506cold chainrefrigerated transportchilled foodphotovoltaic energy |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Antonella Meneghetti Chiara Pagnin Patrizia Simeoni |
spellingShingle |
Antonella Meneghetti Chiara Pagnin Patrizia Simeoni Decarbonizing the Cold Chain: Long-Haul Refrigerated Deliveries with On-Board Photovoltaic Energy Integration Sustainability cold chain refrigerated transport chilled food photovoltaic energy |
author_facet |
Antonella Meneghetti Chiara Pagnin Patrizia Simeoni |
author_sort |
Antonella Meneghetti |
title |
Decarbonizing the Cold Chain: Long-Haul Refrigerated Deliveries with On-Board Photovoltaic Energy Integration |
title_short |
Decarbonizing the Cold Chain: Long-Haul Refrigerated Deliveries with On-Board Photovoltaic Energy Integration |
title_full |
Decarbonizing the Cold Chain: Long-Haul Refrigerated Deliveries with On-Board Photovoltaic Energy Integration |
title_fullStr |
Decarbonizing the Cold Chain: Long-Haul Refrigerated Deliveries with On-Board Photovoltaic Energy Integration |
title_full_unstemmed |
Decarbonizing the Cold Chain: Long-Haul Refrigerated Deliveries with On-Board Photovoltaic Energy Integration |
title_sort |
decarbonizing the cold chain: long-haul refrigerated deliveries with on-board photovoltaic energy integration |
publisher |
MDPI AG |
series |
Sustainability |
issn |
2071-1050 |
publishDate |
2021-07-01 |
description |
Decarbonizing the cold chain is a priority for sustainability due to the increasing demand for chilled/frozen food and pharmaceutics. Refrigerated transport requires additional fuel for refrigeration other than for traction. Photovoltaic panels on the vehicle rooftop, a battery bank, and a power conversion system can replace the diesel engine driving the transport refrigerated unit. In long-haul deliveries, vehicles cross zones with different climate conditions, which affect both refrigeration requirements and photovoltaic energy conversion. Mandatory driver’s breaks and rest also affect delivery timing and energy consumption. A multiperiod, multizone optimization model is developed to size the onboard photovoltaic system, based on features of the delivery tour. The model is applied to a palletized chilled food delivery from North-Eastern Italy, showing a payback time of around four years, which can drop under two years for expected reduction of component costs. Economic and environmental performances can be increased by also allowing refrigerated products on-board during the return journey, leading to more fuel savings. Photovoltaic-integrated long-haul delivery for frozen products is not convenient at current market costs. Different climate conditions are tested, showing the model ability to act as a decision support tool to foster renewable energy penetration into the cold chain. |
topic |
cold chain refrigerated transport chilled food photovoltaic energy |
url |
https://www.mdpi.com/2071-1050/13/15/8506 |
work_keys_str_mv |
AT antonellameneghetti decarbonizingthecoldchainlonghaulrefrigerateddeliverieswithonboardphotovoltaicenergyintegration AT chiarapagnin decarbonizingthecoldchainlonghaulrefrigerateddeliverieswithonboardphotovoltaicenergyintegration AT patriziasimeoni decarbonizingthecoldchainlonghaulrefrigerateddeliverieswithonboardphotovoltaicenergyintegration |
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