压力和阶段的压缩将沼气净化成生物甲烷与使用高压水吸收二氧化碳

Anggit Raksajati, Tri Partono Adhi, D. Ariono
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引用次数: 3

摘要

棕榈油厂废水(POME)从冷凝水炖,水力旋流器水和污泥分离器含有有机碳,COD大于40 g/L,氮含量约为0.2和0.5 g/L的氨氮和总氮。目前,POME通过厌氧池转化为沼气。生产的沼气含有60%的甲烷(CH4)和40%的二氧化碳(CO2),可以通过水吸收二氧化碳净化成生物甲烷。对沼气转化为生物甲烷的最佳压力和进料压缩阶段进行了评价。结果表明,由于CO2在水中的溶解度增加,随着吸收器压力的增加,从沼气饲料中分离CO2所需的水循环速率降低。水循环泵和沼气压缩机的工作量因所需压差的增加而增加。沼气沼气净化装置的最佳压力在7- 10bar范围内。在相同的吸收器压力下,一级进料压缩装置比二级进料压缩装置便宜。然而,考虑到更高的甲烷损失,1级压缩的整个过程可能并不比2级压缩更经济。
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Pengaruh Tekanan Dan Tahap Kompresi Dalam Pemurnian Biogas Menjadi Biometana Dengan Absorpsi CO2 Menggunakan Air Bertekanan
Palm oil mill effluent (POME) from condensate stew, hydrocyclone water, and sludge separator contains organic carbon with a COD more than 40 g/L and a nitrogen content of about 0.2 and 0.5 g/L as ammonia nitrogen and total nitrogen. At present, the POME is converted into biogas using anaerobic ponds. Biogas produced contains 60% methane (CH4) and 40% carbon dioxide (CO2) and can be purified into biomethane through CO2 absorption using water. This study evaluates the optimum pressure and feed compression stage in biogas upgrading into biomethane. The results show the rate of circulation of water needed to separate CO2 from biogas feed decreases with increasing absorber pressure due to increased solubility of CO2 in water. Water circulation pumps and biogas compressor works increase due to the increase in pressure difference needed. The optimum pressure of the biogas biogas purification unit is within the range of 7-10 bar. At the same absorber pressure, the 1 stage feed compression unit is cheaper than that of 2 stages. However, the overall process with 1 compression stage might not be more economical than the 2-stage if consider the higher methane loss.
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