Effectiveness of Water-Amine Combined Process for CO2 Extraction from Biogas

IF 1.4 Q4 GREEN & SUSTAINABLE SCIENCE & TECHNOLOGY Environmental and Climate Technologies Pub Date : 2024-01-01 DOI:10.2478/rtuect-2024-0012
H. Zhuk, Yuriy Ivanov, L. Onopa, S.P. Krushnevych, Mehrzad Soltanibereshne
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Abstract

The EU countries are implementing biomethane production projects from biogas, supplying it to the natural gas distribution grid, or using it as motor fuel. It is also extremely relevant for Ukraine, supposing the problems with gas import due to Russian aggression. Biogas production from landfills, agriculture waste, and sewage is already implemented in Ukraine, so the next step must be biomethane production on an industrial scale and the selection of biogas separation technology is important. Using 11 years of industrial experience in biogas production from landfills, wide experience of the different methane-containing gases separations, and small companies’ industrial possibilities, the most applicable separation technologies for Ukraine were selected: amine, water, and combined water amine carbon dioxide separation. These technologies had compared using computer simulation with real landfill biogas flow rate debt. Results of a software simulation of the most applicable water-amine absorption technology were verified using a laboratory setup. For carbon dioxide concentration in biogas at 32–42 % vol., the specific energy consumption when using water absorption is on average 2 times less compared to amine absorption, but at the same time, the loss of methane due to its solubility in water during water absorption amounted to 7.1–7.6 %, with practically no losses in amine absorption, and minor losses at 0.17–2.8 % in combined water-amine technology. The energy consumption of combined water-amine absorption is comparable to that of water absorption due to: a) reduction of heat losses for the regeneration process of saturated amine absorbent, as part of carbon dioxide has already been removed with water technology; b) using the methane excess to compensate power consumption of the biogas compressor during the preliminary water absorption of carbon dioxide and/or to compensate heat costs of the saturated amine absorbent regeneration
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水-胺联合工艺从沼气中提取二氧化碳的有效性
欧盟国家正在实施利用沼气生产生物甲烷的项目,将沼气供应给天然气分配网,或用作汽车燃料。如果俄罗斯的侵略导致天然气进口出现问题,这对乌克兰来说也极为重要。乌克兰已经开始利用垃圾填埋场、农业废弃物和污水生产沼气,因此下一步必须在工业规模上生产生物甲烷,而沼气分离技术的选择非常重要。利用 11 年来从垃圾填埋场生产沼气的工业经验、不同含甲烷气体分离的广泛经验以及小公司的工业可能性,选择了最适用于乌克兰的分离技术:胺、水和水胺二氧化碳联合分离。这些技术通过计算机模拟与实际垃圾填埋场沼气流量债务进行了比较。最适用的水胺吸收技术的软件模拟结果已在实验室得到验证。沼气中的二氧化碳浓度为 32-42% Vol.时,采用水吸收技术的具体能耗比采用胺吸收技术的能耗平均低 2 倍,但与此同时,由于甲烷在水中的溶解性,水吸收技术的甲烷损失率为 7.1-7.6%,而采用胺吸收技术的甲烷损失率几乎为零,采用水-胺组合技术的甲烷损失率为 0.17-2.8%。水-胺联合吸收技术的能耗与水吸收技术的能耗相当,这是因为:a) 减少了饱和胺吸收剂再生过程中的热量损失,因为水技术已经除去了部分二氧化碳;b) 利用多余的甲烷来补偿二氧化碳初步水吸收过程中沼气压缩机的能耗和/或补偿饱和胺吸收剂再生过程中的热量成本;c) 水-胺联合吸收技术的能耗与水吸收技术的能耗相当,这是因为:a) 减少了饱和胺吸收剂再生过程中的热量损失,因为水技术已经除去了部分二氧化碳。
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来源期刊
Environmental and Climate Technologies
Environmental and Climate Technologies GREEN & SUSTAINABLE SCIENCE & TECHNOLOGY-
CiteScore
3.10
自引率
28.60%
发文量
0
审稿时长
16 weeks
期刊介绍: Environmental and Climate Technologies provides a forum for information on innovation, research and development in the areas of environmental science, energy resources and processes, innovative technologies and energy efficiency. Authors are encouraged to submit manuscripts which cover the range from bioeconomy, sustainable technology development, life cycle analysis, eco-design, climate change mitigation, innovative solutions for pollution reduction to resilience, the energy efficiency of buildings, secure and sustainable energy supplies. The Journal ensures international publicity for original research and innovative work. A variety of themes are covered through a multi-disciplinary approach, one which integrates all aspects of environmental science: -Sustainability of technology development- Bioeconomy- Cleaner production, end of pipe production- Zero emission technologies- Eco-design- Life cycle analysis- Eco-efficiency- Environmental impact assessment- Environmental management systems- Resilience- Energy and carbon markets- Greenhouse gas emission reduction and climate technologies- Methodologies for the evaluation of sustainability- Renewable energy resources- Solar, wind, geothermal, hydro energy, biomass sources: algae, wood, straw, biogas, energetic plants and organic waste- Waste management- Quality of outdoor and indoor environment- Environmental monitoring and evaluation- Heat and power generation, including district heating and/or cooling- Energy efficiency.
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