德国某奶牛场太阳能光伏热(PVT)系统的评价

Sahand Hosouli , João Gomes , Alexander Loris , Ivan-Acosta Pazmiño , Adeel Naidoo , Gunnar Lennermo , Hadi Mohammadi
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引用次数: 6

摘要

畜牧场是二氧化碳排放的主要来源。使用可再生能源是减少农场排放的重要一步。本文为畜牧场开发并评估了一种市场集成、成本效益高、对案例敏感的可再生能源解决方案。为此,德国LVAT-ATB的奶牛场;其中包括三个总面积为3950m2的用于牛奶生产的谷仓。太阳能PVT系统被设计为最有效地利用牛奶冷却器的热回收,并利用来自PVT系统的热能来提高电锅炉(电动锅炉)的入口温度并减少电网电力消耗。使用两种不同的PVT收集器对所设计的PVT系统的性能和月热输出进行评估;Solarus(浓缩)和Dual Sun(平板)。进行了初步分析,以确定最适合此处研究的畜牧场的PVT收集器。DualSun收集器产生的电力输出高于Solarus C-PVT,然而,C-PVT能够达到更高的温度。由于LVAT-ATB农场包括一个现有的热回收系统,因此仔细定义了集成点,并引入了一个半自动化系统,以(1)使用热回收系统的热量作为PVT系统的入口热量,以及(2)使用PVT缓冲罐作为额外的储热器,储存来自热回收系统中的多余热量。使用这种方法,可以存储最大量的热能。PVT系统将进一步提高热回收系统的温度,从而使电动锅炉的电力消耗最小化。此外,还提供了所有组件和室外外壳的布局草图。24台平均温度为45°C的Solarus PVT集热器通过太阳能直接加热满足奶牛场16%的年热水需求,而这一数量的PVT可在夏季提供高达38%的热水需求。该系统投资回收期不到6年,年电能利用率和最高太阳能热利用率分别为9.7%和51.9%。此外,24台PVT每年发电量略高于4200千瓦时,可用于抵消LVAT农场电锅炉的耗电量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Evaluation of a solar photovoltaic thermal (PVT) system in a dairy farm in Germany

Evaluation of a solar photovoltaic thermal (PVT) system in a dairy farm in Germany

Livestock farms are a major contributor to CO2 emissions. The use of renewable energy sources (RES) is an important step to mitigate emissions from farms. This paper develops and evaluates a market-integrated, cost-effective, and case-sensitive RES solution for livestock farms. For this purpose, the dairy farm at LVAT-ATB in Germany; which includes three barns for milk production with a total area of 3950 m2, was considered. A solar PVT system is designed to most effectively use the heat recovery of the milk coolers and to use the thermal heat from the PVT system to lift the inlet temperature of an electric boiler (E-boiler) and reduce grid electricity consumption. The performance and monthly thermal output of the designed PVT system are evaluated using two different PVT collectors; Solarus (concentrated) and Dual Sun (flat plate). A preliminary analysis was performed to determine the PVT collector most suitable for the livestock farm here studied. The DualSun collector generated a higher electricity output than the Solarus C-PVT, however, the C-PVT was able to reach higher temperatures. Since the LVAT-ATB farm site included an existing heat recovery system, the integration point was carefully defined and a semi-automated system was incorporated to (1) use the heat from the heat recovery system as the inlet heat for the PVT system and (2), to use the PVT buffer tank as additional storage to store excess heat from the heat recovery system. Using this approach, a maximum amount of thermal energy can be stored. The PVT system would further raise the temperature from the heat recovery system and thus minimize the electricity consumption of the E-boiler. Furthermore, a draft layout of all the components and outdoor enclosure was presented. 24 Solarus PVT collectors running at mean temperature of 45 °C meet 16% of the annual hot water demand of the dairy farm by direct solar heat and this number of PVTs can supply up to 38% of hot water demand in summer months. The payback period for this system is less than 6 years and annual electrical energy utilization ratio and highest solar thermal fraction are 9.7 and 51.9%, respectively. Furthermore, 24 PVTs on an annual basis, generate slightly more than 4,200 kWh of electricity that can be used to offset electricity consumed by electric boilers in the LVAT farm.

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