{"title":"利用废脂肪生产瓦斯油组分","authors":"P. Baladincz, A. Ludányi, L. Leveles, J. Hancsók","doi":"10.1515/317","DOIUrl":null,"url":null,"abstract":"The modern-minded man has discovered that it is necessary to substitute a part of the fossil-derived energy sources with renewable energy sources to cover the energy demand of mobility, which sustains and accelerates the human society and economy. Nowadays, the transportation sector tries to achieve this through the development and utilisation of bio-derived motor fuels. In terms of Diesel-engines the biodiesel has been utilized in great volumes already, which is made from triglycerides via esterification (fatty-acid-methyl-ester, FAME). The FAME or biodiesel, due to its molecular structure, has some unfavourable properties. Therefore, it was necessary to develop a new generation of bio-derived motor fuel for Diesel-engines. The most promising product of these efforts is the bio gas oil, which is a mixture of n- and i-paraffins and obtained via hydroconversion of triglycerides. These compounds are the best components of conventional gas oils, too. Nowadays, mainly different vegetable oils are used as triglyceride source, but for the hydroconversion any feedstock with high triglyceride content can be used (e.g. brown greases of sewage works, used cooking oils, animal fats, etc.). The waste feedstocks can be especially beneficial. Hence, during the experimental work, our aim was to investigate the possibilities of the production of bio gas oil and bio gas oil containing gas oils on waste fat basis via the hydroconversion of waste rancid lard itself and as a 50% mixture with gas oils. We applied a CoMo/Al2O3 catalyst in sulphide and in nonsulphide state for our experiments. We studied the effects of the process parameters (temperature: 300–380°C, pressure: 40–80 bar, LHSV: 1.0–2.0 h-1, H2/feedstock ratio: 600 Nm3/m3) on the quality and yield of the products. The obtained main product fraction at the process parameters (360–380°C, 60–80 bar, LHSV: 1.0 h-1, H2/feedstock rate: 600 Nm3/m3) found to be favourable by us which were met the valid diesel gas oil standard EN 590:2009 + A1:2010 without additivation, except for its cold flow properties.","PeriodicalId":13010,"journal":{"name":"Hungarian Journal of Industrial Chemistry","volume":"107 1","pages":"45-52"},"PeriodicalIF":0.0000,"publicationDate":"2012-09-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Production of Gas Oil Components from Waste Fats\",\"authors\":\"P. Baladincz, A. Ludányi, L. Leveles, J. 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These compounds are the best components of conventional gas oils, too. Nowadays, mainly different vegetable oils are used as triglyceride source, but for the hydroconversion any feedstock with high triglyceride content can be used (e.g. brown greases of sewage works, used cooking oils, animal fats, etc.). The waste feedstocks can be especially beneficial. Hence, during the experimental work, our aim was to investigate the possibilities of the production of bio gas oil and bio gas oil containing gas oils on waste fat basis via the hydroconversion of waste rancid lard itself and as a 50% mixture with gas oils. We applied a CoMo/Al2O3 catalyst in sulphide and in nonsulphide state for our experiments. We studied the effects of the process parameters (temperature: 300–380°C, pressure: 40–80 bar, LHSV: 1.0–2.0 h-1, H2/feedstock ratio: 600 Nm3/m3) on the quality and yield of the products. 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引用次数: 0
摘要
具有现代思想的人发现,有必要用可再生能源代替一部分化石能源,以满足人类社会和经济赖以生存和发展的机动出行的能源需求。如今,运输部门试图通过开发和利用生物衍生的发动机燃料来实现这一目标。在柴油发动机方面,生物柴油已经被大量使用,它是由甘油三酯通过酯化(脂肪酸-甲酯,FAME)制成的。FAME或生物柴油由于其分子结构而具有一些不利的性质。因此,有必要开发新一代柴油发动机用生物燃料。这些努力最有希望的产品是生物气油,它是n-石蜡和i-石蜡的混合物,通过甘油三酯的加氢转化得到。这些化合物也是传统天然气油的最佳成分。目前,主要使用不同的植物油作为甘油三酯来源,但对于加氢转化,任何甘油三酯含量高的原料都可以使用(例如,污水厂的棕色油脂,废食用油,动物脂肪等)。废原料可能特别有益。因此,在实验工作中,我们的目标是研究在废脂肪的基础上,通过将废腐猪油本身加氢转化,并将其与气油混合50%,生产生物气油和含气油的生物气油的可能性。我们分别在硫化物和非硫化物状态下使用CoMo/Al2O3催化剂进行实验。研究了工艺参数(温度:300-380℃,压力:40-80 bar, LHSV: 1.0-2.0 h-1, H2/进料比:600 Nm3/m3)对产品质量和收率的影响。我们发现在工艺参数(360-380°C, 60-80 bar, LHSV: 1.0 h-1, H2/进料量:600 Nm3/m3)下获得的主要产品馏分是有利的,除了其冷流动性能外,该馏分符合有效的柴油汽油标准EN 590:2009 + A1:2010,不添加任何添加剂。
The modern-minded man has discovered that it is necessary to substitute a part of the fossil-derived energy sources with renewable energy sources to cover the energy demand of mobility, which sustains and accelerates the human society and economy. Nowadays, the transportation sector tries to achieve this through the development and utilisation of bio-derived motor fuels. In terms of Diesel-engines the biodiesel has been utilized in great volumes already, which is made from triglycerides via esterification (fatty-acid-methyl-ester, FAME). The FAME or biodiesel, due to its molecular structure, has some unfavourable properties. Therefore, it was necessary to develop a new generation of bio-derived motor fuel for Diesel-engines. The most promising product of these efforts is the bio gas oil, which is a mixture of n- and i-paraffins and obtained via hydroconversion of triglycerides. These compounds are the best components of conventional gas oils, too. Nowadays, mainly different vegetable oils are used as triglyceride source, but for the hydroconversion any feedstock with high triglyceride content can be used (e.g. brown greases of sewage works, used cooking oils, animal fats, etc.). The waste feedstocks can be especially beneficial. Hence, during the experimental work, our aim was to investigate the possibilities of the production of bio gas oil and bio gas oil containing gas oils on waste fat basis via the hydroconversion of waste rancid lard itself and as a 50% mixture with gas oils. We applied a CoMo/Al2O3 catalyst in sulphide and in nonsulphide state for our experiments. We studied the effects of the process parameters (temperature: 300–380°C, pressure: 40–80 bar, LHSV: 1.0–2.0 h-1, H2/feedstock ratio: 600 Nm3/m3) on the quality and yield of the products. The obtained main product fraction at the process parameters (360–380°C, 60–80 bar, LHSV: 1.0 h-1, H2/feedstock rate: 600 Nm3/m3) found to be favourable by us which were met the valid diesel gas oil standard EN 590:2009 + A1:2010 without additivation, except for its cold flow properties.