Peltier Cell Integration in Packaging Design for Minimizing Energy Consumption and Temperature Variation during Refrigerated Transport

Q2 Engineering
Designs Pub Date : 2023-07-04 DOI:10.3390/designs7040088
Pedro Fernandes, P. Gaspar, P. Silva
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引用次数: 0

Abstract

This study proposes an innovative approach to reduce temperature fluctuations in refrigerated transport during loading and unloading, aiming to minimize food waste and optimize energy consumption in the food supply chain. The solution involves integrating Peltier cells into secondary and tertiary packaging to improve system efficiency and minimize temperature variations. Four distinct tests were conducted: a reference test, continuous Peltier system operation, and two intermittent cooling tests for the hot side of the cells. The results highlight the effectiveness of this approach, particularly in the fourth test where the average final food temperature decreased from 3.2 °C (reference test) to 2.8 °C. Integrating Peltier cells into packaging shows potential benefits in minimizing food waste, reducing energy consumption, and associated emissions during refrigerated transport. This research contributes to the sustainable design and manufacturing of packaging systems, specifically in the context of refrigerated transport. By maintaining a consistent temperature environment during the critical loading and unloading phases, incorporating Peltier cells enhances the overall performance and efficiency of refrigerated transport system. These results point out the significance of exploring innovative solutions for sustainable food preservation and the decrease of waste all along the food supply chain.
Peltier单元在包装设计中的集成以最大限度地减少冷藏运输过程中的能耗和温度变化
这项研究提出了一种创新的方法来减少冷藏运输在装卸过程中的温度波动,旨在最大限度地减少食物浪费并优化食品供应链中的能源消耗。该解决方案包括将珀耳帖电池集成到二次和三次封装中,以提高系统效率并将温度变化降至最低。进行了四项不同的测试:一项参考测试、连续珀耳帖系统操作和两项电池热侧的间歇性冷却测试。结果突出了这种方法的有效性,特别是在第四次测试中,平均最终食物温度从3.2°C(参考测试)降至2.8°C。将Peltier细胞整合到包装中显示出在最大限度地减少食品浪费、减少能源消耗和冷藏运输过程中的相关排放方面的潜在好处。这项研究有助于包装系统的可持续设计和制造,特别是在冷藏运输的背景下。通过在关键的装载和卸载阶段保持一致的温度环境,结合Peltier电池提高了冷藏运输系统的整体性能和效率。这些结果指出了探索可持续食品保存和减少整个食品供应链浪费的创新解决方案的重要性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Designs
Designs Engineering-Engineering (miscellaneous)
CiteScore
3.90
自引率
0.00%
发文量
0
审稿时长
11 weeks
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