海藻在干燥柜中干燥过程分析

Mohiodin Nazemi, R. Unnþórsson, Christiaan Richter
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引用次数: 1

摘要

海藻是一种很有前途的有机燃料来源,因为它的生长速度快,作为碳汇的效率高,耐pH。它是一种潜在的可再生燃料来源,因为它可以通过气化或厌氧消化等热化学过程转化为高价值燃料。然而,干燥海藻是必要的,以燃烧,热解,或气化海藻。在本研究中,我们主要研究干燥过程。为了解决这一问题,设计、建造、测试和实验评估了生物质干燥柜。在干燥过程中,测量了机柜内的温度和海藻的水分含量。该设计的目标是将海藻的水分含量降低到气化的最佳范围-在15%到20%之间。我们演示了新鲜海藻的干燥,初始水分含量约为80%,低至12%,经过22小时。狸藻是这项研究中使用的一种海藻。根据试验结果,需要大约19小时的干燥时间才能将海藻的水分含量降低到目标范围(15%-20%)。综上所述,分析了海藻的减湿性,并对海藻干燥柜的设计进行了评价。根据我们的研究结果,提出了改进方案,以使整个机柜的干燥更加均匀。
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Analyzing the Process of Seaweed Drying in a Drying Cabinet
Seaweed is a promising organic fuel source due to its rapid growth rates, efficiency as a carbon sink, and pH resistance. It is a potential renewable fuel source since it can be transformed into high-value fuel by using either thermochemical processes such as gasification, or anaerobic digestion. However, drying the seaweed is necessary to combust, pyrolyze, or gasify seaweed. In this study, we focus on the drying process. To address this, a biomass drying cabinet was designed, constructed, tested, and experimentally evaluated. During drying runs, the temperature inside the cabinet and the moisture content of seaweed were measured. The goal of this design was to reduce the moisture content of seaweed to the optimal range for gasification-between 15% to 20%. We demonstrate the drying of fresh seaweed with an initial moisture content of around 80% to as low as 12% after 22 hours. Bladderwrack is the type of seaweed that is used in this study. Based on the results of the tests, around 19 hours of drying is needed to reduce the moisture content of seaweed to the target range (15%–20%). In conclusion, moisture reduction in Bladderwrack seaweed was analyzed and the design of the seaweed drying cabinet was evaluated. Based on our results modifications to achieve more homogeneous drying throughout the cabinet are proposed.
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