Fuel from hydrothermal liquefaction of waste in solar parabolic troughs

M. Pearce, X. Tonnellier, N. Sengar, C. Sansom
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引用次数: 10

Abstract

Reducing production costs of thermo-conversion of waste to fuel technologies depends upon an integrated approach to heat utilisation, nutrient recycling and complete by-product valorisation. Hydrothermal liquefaction is a proven laboratory technology with much recent research interest, though yet to be widely deployed as a commercial technology for third generation biofuels. Notwithstanding increased applied research efforts into hydrothermal liquefaction, energy inputs into waste to fuel formulation remain high, and originate from non-renewable heat sources. The technical approach presented is the field testing of an integrated set-up of concentrated solar power and hydrothermal liquefaction system and bio-crude output compositional analysis. Concentrated solar power is integrated with hydrothermal liquefaction technologies into the conversion process to improve the energy efficiency and the economic case for scaling waste to bio-crude production. This paper presents the hydrothermal liquefaction bio-oil formation and product analysis at a pre-pilot field scale. Waste valorisation and commercial strategy is discussed with reference to post-reactant hydrothermal liquefaction outputs on experimental work carried out in India.Reducing production costs of thermo-conversion of waste to fuel technologies depends upon an integrated approach to heat utilisation, nutrient recycling and complete by-product valorisation. Hydrothermal liquefaction is a proven laboratory technology with much recent research interest, though yet to be widely deployed as a commercial technology for third generation biofuels. Notwithstanding increased applied research efforts into hydrothermal liquefaction, energy inputs into waste to fuel formulation remain high, and originate from non-renewable heat sources. The technical approach presented is the field testing of an integrated set-up of concentrated solar power and hydrothermal liquefaction system and bio-crude output compositional analysis. Concentrated solar power is integrated with hydrothermal liquefaction technologies into the conversion process to improve the energy efficiency and the economic case for scaling waste to bio-crude production. This paper presents the hydrothermal liquefaction bio-oil...
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太阳能抛物槽中废物热液液化的燃料
降低将废物热转化为燃料技术的生产成本取决于对热利用、营养物质回收和完全副产品增值的综合方法。热液液化是一项经过验证的实验室技术,最近有很多研究兴趣,尽管尚未作为第三代生物燃料的商业技术广泛应用。尽管在水热液化方面的应用研究努力有所增加,但废物转化为燃料的能源投入仍然很高,而且来自不可再生的热源。介绍了聚光太阳能与水热液化系统集成装置的现场试验和生物原油产出成分分析的技术方法。将聚光太阳能与水热液化技术结合到转化过程中,以提高能源效率,并从经济角度考虑将废物转化为生物原油生产。本文介绍了水热液化生物油的形成和产物分析。参考在印度进行的实验工作的反应后水热液化产出,讨论了废物增值和商业战略。降低将废物热转化为燃料技术的生产成本取决于对热利用、营养物质回收和完全副产品增值的综合方法。热液液化是一项经过验证的实验室技术,最近有很多研究兴趣,尽管尚未作为第三代生物燃料的商业技术广泛应用。尽管在水热液化方面的应用研究努力有所增加,但废物转化为燃料的能源投入仍然很高,而且来自不可再生的热源。介绍了聚光太阳能与水热液化系统集成装置的现场试验和生物原油产出成分分析的技术方法。将聚光太阳能与水热液化技术结合到转化过程中,以提高能源效率,并从经济角度考虑将废物转化为生物原油生产。本文介绍了水热液化生物油…
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