精酿和微型啤酒厂提高能源效率的机会

Laryssa Sueza Raffa, Nick S. Bennett, L. Clemon
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引用次数: 0

摘要

不断上涨的能源价格和酿造行业日益增强的竞争力促使啤酒生产商降低成本。为了解决这个问题——以及对气候变化的环境担忧——需要更节能的酿造工艺。酿酒厂消耗了啤酒厂总能源需求的四分之一左右,尤其是麦汁煮沸,其中以蒸汽形式存在的热能经常被浪费,并呈现出巨大的能量回收潜力。虽然大型啤酒厂在麦汁煮沸过程中的热回收技术已经商品化,但精酿和微型啤酒厂的设备技术发展仍然滞后。基于对澳大利亚本地工艺和微型啤酒厂的调查和纳米啤酒厂的案例研究,我们比较了不同操作参数下麦汁沸腾过程中的蒸发速率,并使用结果验证了水壶蒸发的数学模型。我们还提出并分析了回收能源的再利用方案,例如预热水用于后续工艺或为以后的酿造储存。我们的研究表明,在生产一升啤酒过程中释放的蒸汽有可能将0.6至1.6升水从环境温度加热到65°C。至于潜在的节能和环境影响,案例研究纳米啤酒厂可以节省大约5%的啤酒厂的能源消耗或整个酿造过程所需能源的2%,而每个被调查的啤酒厂每年可以减少16到133吨的二氧化碳排放到大气中。这些结果加强了从麦芽汁煮沸蒸汽中回收废弃能源的潜力,有助于啤酒厂变得更加节能、更具竞争力和对环境负责。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Opportunities for Energy Efficiency Improvements in Craft and Micro-Breweries
Rising energy prices and increasing competitiveness in the brewing industry challenge beer producers to reduce costs. To address this issue — and the environmental concerns over climate change — more energy-efficient brewing processes are required. The brewhouse consumes around one-quarter of the total energy demand in a brewery, especially wort boiling, where heat energy in the form of vapour is often wasted and presents a large potential for recovering energy. Although the technology for heat recovery during wort boiling is commercially available for large breweries, the development of equipment technology for craft and micro-breweries still lags behind. Based on a survey of Australian local craft and micro-breweries and a nano-brewery case study, we compare the evaporation rates during wort boiling for different operational parameters and use the results to verify a proposed mathematical model of evaporation from a kettle. We also propose and analyse options for re-utilising the recovered energy, such as pre-heating water for use in a subsequent process or storage for a later brew. Our study shows that the vapour released during the production of one litre of beer has the potential to heat 0.6 to 1.6 litres of water from ambient to 65°C. As for the potential energy savings and environmental impact, the case study nano-brewery can save approximately 5% of the brewhouse’s energy consumption or 2% of the energy required by the entire brewing process, while each surveyed brewery can spare 16 to 133 tonnes of CO2-e from being released into the atmosphere each year. These results reinforce the potential of recovering waste energy from wort boiling vapours in assisting breweries to become more energy-efficient, competitive and environmentally responsible.
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