水热碳化:废物变能源和生物煤生产的可持续途径

IF 5.9 3区 工程技术 Q1 AGRONOMY
Ajit Singh, Abu Danish Aiman Bin Abu Sofian, Yi Jing Chan, Anita Chakrabarty, Anurita Selvarajoo, Yousif Abdalla Abakr, Pau Loke Show
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引用次数: 0

摘要

水热碳化(HTC)技术是将湿生物质(包括食物垃圾和城市固体垃圾)转化为高能量高密度生物煤的一种可持续方法。该工艺在 180 至 260°C 的温度和 10 至 50 巴的压力下进行,可有效地将湿生物质中的有机物质转化为固体、液体和气体。固体产品生物煤具有高碳浓度和与褐煤相当的热值,是传统化石燃料的清洁替代品。尽管全球范围内都有商业规模的 HTC 设施在运行,但在各种原料中进一步采用该技术可以改善废物管理和能源生产。该工艺的能源产量可达 80%,尤其是在有利于生成热值更高的二次炭的温度下。HTC 不仅能通过固体废弃物的碳封存减少温室气体排放,还能为农业提供营养丰富的副产品,从而促进环境的可持续发展。作为一种多功能、高能效的解决方案,HTC 技术是废物转化为能源的一项关键创新,解决了可持续废物管理的当务之急。该技术还带来了其他补充效益,包括提高就业能力,减少国家对进口能源的依赖,以及更好地控制废物,从而考虑到可持续发展的所有支柱。未来的研究应侧重于优化工艺效率和探索 HTC 对各种生物质原料的更广泛适用性,从而加强其在全球追求可持续能源解决方案中的作用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Hydrothermal carbonization: Sustainable pathways for waste-to-energy conversion and biocoal production

Hydrothermal carbonization: Sustainable pathways for waste-to-energy conversion and biocoal production

Hydrothermal carbonization (HTC) technology emerges as a sustainable method to convert wet biomass, including food waste and municipal solid waste into high-energy dense biocoal. This process, conducted at temperatures ranging from 180 to 260°C and pressures of 10–50 bar, effectively transforms the organic material in wet biomass into solid, liquid, and gaseous outputs. The solid product, biocoal, possesses a high carbon concentration and heating values on par with lignite coal, presenting a cleaner alternative to traditional fossil fuels. Despite operational commercial-scale HTC facilities globally, further adoption across various feedstocks can improve waste management and energy production. The process can achieve energy yields up to 80%, particularly at temperatures favoring the generation of secondary char with higher heating values. HTC not only aids in reducing greenhouse gas emissions through carbon sequestration in solid waste but also promotes environmental sustainability by yielding nutrient-rich by-products for agriculture. As a versatile and energy-efficient solution, HTC technology is a pivotal innovation in waste-to-energy conversion, addressing the imperative for sustainable waste management. Other supplementary benefits are presented; they include higher employability, reduction of a nation's reliance on imported energy, and better waste control, therefore considering all pillars of sustainability. Future research should focus on optimizing process efficiency and exploring the broader applicability of HTC to various biomass feedstocks, enhancing its role in the global pursuit of sustainable energy solutions.

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来源期刊
Global Change Biology Bioenergy
Global Change Biology Bioenergy AGRONOMY-ENERGY & FUELS
CiteScore
10.30
自引率
7.10%
发文量
96
审稿时长
1.5 months
期刊介绍: GCB Bioenergy is an international journal publishing original research papers, review articles and commentaries that promote understanding of the interface between biological and environmental sciences and the production of fuels directly from plants, algae and waste. The scope of the journal extends to areas outside of biology to policy forum, socioeconomic analyses, technoeconomic analyses and systems analysis. Papers do not need a global change component for consideration for publication, it is viewed as implicit that most bioenergy will be beneficial in avoiding at least a part of the fossil fuel energy that would otherwise be used. Key areas covered by the journal: Bioenergy feedstock and bio-oil production: energy crops and algae their management,, genomics, genetic improvements, planting, harvesting, storage, transportation, integrated logistics, production modeling, composition and its modification, pests, diseases and weeds of feedstocks. Manuscripts concerning alternative energy based on biological mimicry are also encouraged (e.g. artificial photosynthesis). Biological Residues/Co-products: from agricultural production, forestry and plantations (stover, sugar, bio-plastics, etc.), algae processing industries, and municipal sources (MSW). Bioenergy and the Environment: ecosystem services, carbon mitigation, land use change, life cycle assessment, energy and greenhouse gas balances, water use, water quality, assessment of sustainability, and biodiversity issues. Bioenergy Socioeconomics: examining the economic viability or social acceptability of crops, crops systems and their processing, including genetically modified organisms [GMOs], health impacts of bioenergy systems. Bioenergy Policy: legislative developments affecting biofuels and bioenergy. Bioenergy Systems Analysis: examining biological developments in a whole systems context.
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