Overview of biomass conversion and generation technologies

M. Loeser, M. Redfern
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引用次数: 18

Abstract

The total energy stored in terrestrial biomass outnumbers the annual world energy consumption by a factor of more than fifty. Being highly available, renewable and geographically dispersed, biomass can form a substantial part of future energy sources and biomass-derived energy generation can result in both CO2-neutral and stable long-term energy supply for most areas in the world. Having a relatively low energy density, biomass processing in decentralised plants seems best suited to minimise transport cost of both the raw material and the products. To facilitate a wide-spread use of decentralised plants, their design has to be simple and they need to be easy-to-operate and flexible. This paper covers the two sequential steps of biomass power: conversion technologies to transform the raw feedstock into suitable intermediate energy carriers, and generation technologies to gain energy in the form of heat and/or electric power. A broad number of conversion technologies currently exist for both wet and dry biomass, ranging from research-stage up to commercialisation. In this paper the main ways of converting dry as well as wet feedstock will be discussed: combustion, gasification, pyrolysis and liquefaction for the further and fermentation and anaerobic digestion for the latter. Additionally, the common generation technologies will be analysed: internal combustion engines, Stirling engines and internally- and externally fired microturbines. Finally it will be recommended which technologies to use to meet a substantial part of the future energy demand on the basis of biomass in micro- or small-scale applications.
概述生物质转化和发电技术
陆地生物量储存的总能量是世界每年能源消耗的50多倍。生物质可利用性高、可再生、地理分布分散,可构成未来能源的重要组成部分,生物质衍生能源的生产可以为世界上大多数地区带来二氧化碳中和和稳定的长期能源供应。由于能量密度相对较低,分散工厂的生物质加工似乎最适合将原材料和产品的运输成本降至最低。为了促进分散式发电厂的广泛使用,它们的设计必须简单,并且需要易于操作和灵活。本文涵盖了生物质发电的两个连续步骤:将原料转化为合适的中间能量载体的转换技术,以及以热能和/或电能的形式获得能量的发电技术。从研究阶段到商业化,目前存在大量的湿生物质和干生物质转化技术。本文将讨论干法和湿法原料的主要转化方式:前者为燃烧、气化、热解和液化,后者为发酵和厌氧消化。此外,还将分析常见的发电技术:内燃机、斯特林发动机和内燃和外燃微型涡轮机。最后,将建议使用哪些技术来满足未来在微型或小规模应用生物质的基础上的大部分能源需求。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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