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Bio-oil from Jackfruit Peel Waste

机译:来自菠萝蜜剥离的生物油

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Fossil fuels such as petroleum, charcoal, and natural gas sources are the main energy sources at present, but considering their natural limitation in availability and the fact that they are not renewable, there exists a growing need of developing bio-fuel production. Biomass has received considerable attention as a sustainable feedstock that can replace diminishing fossil fuels for the production of energy, especially for the transportation sector. Jackfruitwasteisabundantinlndonesiamake itpotentiallyas one of thegreenrefineryfeedstockforthe manufacture ofbio-fuel.As intermediate of bio-fueljackfruitpeelsisprocessed intobio-oil. Pyrolysis, a thermochemical conversion process under oxygen-absent condition is an attractive way to convert biomass into bio-oil.In this study, the pyrolysis experiments were carried out ina fixed-bedreactor at a range of temperature of400-600°C, heating rate range between 10-50°C/min, and a range of nitrogen flow between 2-41itre/min. The aims of this work were to explore the effects of pyrolysis conditions and to identify the optimum condition for obtaining the highest bio-oil yield.The effect of nitrogen flow rate and heating rate on the yield of bio-oil were insignificant. The most important parameter in the bio-oil production was the temperature of the pyrolysis process.The yield of bio-oil initially increased with temperature (up to 550°C) then further increase of temperature resulting in the decreased of bio-oil yield. Results showed that the highest bio-oil yield (52.6%)wasobtainedat 550°C with nitrogen flow rate of 4L/min and heating rate of 50°C/min. The thermal degradation of jackfruit peel was also studied using thermogravimetric analysis (TGA). Gas chromatography (GC-MS) was used to identify the organic fraction of bio-oil. The water content in the bio-oil product was determined by volumetric Karl-Fischer titration. The physicochemical properties of bio-oil produced from pyrolysis of jackfruit peels such as gross calorific value, pH, kinematic viscosity, density, sulfur content, ash content, pour point and flash point were determined and compared to ASTM standard of bio-oil (ASTM 7544).
机译:石油,木炭和天然气来源等化石燃料是目前的主要能源,但考虑到它们在可用性方面的自然限制以及它们不可再生的事实,越来越需要开发生物燃料生产。生物量已成为可持续原料的广泛关注,可取代化石燃料减少,以生产能源,特别是为运输部门。 Jackfruitwasteisabulityinlndonesiamake Itpotentiallyas TheGreefineryFeedStockforthforthforthforthforthforthforthforthe ofbio-fuel.as Bio-Fueljackfruitpeelsisprocessed Intobio-油中间体。热解,在缺氧条件下的热化学转化过程是将生物质转化为生物的有吸引力的方法。本研究中,在温度范围为400-600℃,加热速率的温度范围内进行热解实验。在10-50°C / min之间的范围和2-4.4亿/ min之间的氮气系列。这项工作的目的是探讨热解病症的影响,并确定获得最高生物油产量的最佳条件。氮流速和加热率对生物油产量的影响是微不足道的。生物油生产中最重要的参数是热解过程的温度。生物油的产率最初随温度(高达550℃)而增加的温度,导致生物油产率降低。结果表明,最高的生物油产率(52.6%)以4L / min的氮流速和50℃/ min的加热速率为550℃。还使用热重分析(TGA)研究了菠萝酸果皮的热降解。气相色谱(GC-MS)用于鉴定生物油的有机级分。通过体积kar-fischer滴定法测定生物油产品中的含水量。测定由热解剥离的热解产生的生物油的物理化学性质,如粗量的热值,pH,运动粘度,密度,硫含量,灰分,倾点和闪点,与生物油的ASTM标准(ASTM 7544)。

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