A study on the thermal performance of solar oven based on phase-change heat storage

Solar oven based on sunlight condensation is a promising energy conservation and sustainable solar thermal utility way. However, the temperature of solar oven is greatly affected by the sunshine conditions. In this research, adding phase-change heat storage layer in the solar vacuum tubular collecto...

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Main Authors: Shukuan Xie, Hua Wang, Qi Wu, Yukang Liu, Yiheng Zhang, Jichang Jin, Chenchen Pei
Format: Article
Language:English
Published: SAGE Publishing 2019-09-01
Series:Energy Exploration & Exploitation
Online Access:https://doi.org/10.1177/0144598718795491
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spelling doaj-35a7d44eea8e44518e3e77f785fe59d92020-11-25T04:09:01ZengSAGE PublishingEnergy Exploration & Exploitation0144-59872048-40542019-09-013710.1177/0144598718795491A study on the thermal performance of solar oven based on phase-change heat storageShukuan XieHua WangQi WuYukang LiuYiheng ZhangJichang JinChenchen PeiSolar oven based on sunlight condensation is a promising energy conservation and sustainable solar thermal utility way. However, the temperature of solar oven is greatly affected by the sunshine conditions. In this research, adding phase-change heat storage layer in the solar vacuum tubular collector has been proposed, and the thermal performance has been numerically studied. The influence of the food initial temperature on the temperature distribution of the heat storage layer has been investigated. The results show that adding phase-change heat storage layer (φ40 mm/80 mm × 770 mm) makes the oven inner wall temperature 30°C–80°C higher than that without phase-change heat storage layer when the oven cavity temperature is at a constant of 100°C; and the oven inner wall temperature fluctuation caused by sunshine is obviously reduced from 100°C to 18°C–35°C. It indicates that the food initial temperature has little effect on the temperature field of the heat storage layer with the food initial temperature being 10°C–50°C. The analysis of the heat storage performance shows that the heat storage layer has a certain heat storage capacity in all seasons, and the daily heat storage is up to 2718 kJ.https://doi.org/10.1177/0144598718795491
collection DOAJ
language English
format Article
sources DOAJ
author Shukuan Xie
Hua Wang
Qi Wu
Yukang Liu
Yiheng Zhang
Jichang Jin
Chenchen Pei
spellingShingle Shukuan Xie
Hua Wang
Qi Wu
Yukang Liu
Yiheng Zhang
Jichang Jin
Chenchen Pei
A study on the thermal performance of solar oven based on phase-change heat storage
Energy Exploration & Exploitation
author_facet Shukuan Xie
Hua Wang
Qi Wu
Yukang Liu
Yiheng Zhang
Jichang Jin
Chenchen Pei
author_sort Shukuan Xie
title A study on the thermal performance of solar oven based on phase-change heat storage
title_short A study on the thermal performance of solar oven based on phase-change heat storage
title_full A study on the thermal performance of solar oven based on phase-change heat storage
title_fullStr A study on the thermal performance of solar oven based on phase-change heat storage
title_full_unstemmed A study on the thermal performance of solar oven based on phase-change heat storage
title_sort study on the thermal performance of solar oven based on phase-change heat storage
publisher SAGE Publishing
series Energy Exploration & Exploitation
issn 0144-5987
2048-4054
publishDate 2019-09-01
description Solar oven based on sunlight condensation is a promising energy conservation and sustainable solar thermal utility way. However, the temperature of solar oven is greatly affected by the sunshine conditions. In this research, adding phase-change heat storage layer in the solar vacuum tubular collector has been proposed, and the thermal performance has been numerically studied. The influence of the food initial temperature on the temperature distribution of the heat storage layer has been investigated. The results show that adding phase-change heat storage layer (φ40 mm/80 mm × 770 mm) makes the oven inner wall temperature 30°C–80°C higher than that without phase-change heat storage layer when the oven cavity temperature is at a constant of 100°C; and the oven inner wall temperature fluctuation caused by sunshine is obviously reduced from 100°C to 18°C–35°C. It indicates that the food initial temperature has little effect on the temperature field of the heat storage layer with the food initial temperature being 10°C–50°C. The analysis of the heat storage performance shows that the heat storage layer has a certain heat storage capacity in all seasons, and the daily heat storage is up to 2718 kJ.
url https://doi.org/10.1177/0144598718795491
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