超声辅助合成生物mof基钴谷氨酸吸附CO2/CH4:实验和等温线模拟

IF 5.5 0 ENERGY & FUELS
Fayza Yulia , Muhammad Ridha , Ahmad Singgih , Arya Wirayuda , Euis Djubaedah , Tarno , Nonni Soraya Sambudi , Sri Hastuty , Nasruddin
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引用次数: 0

摘要

天然气和碳捕获行业需要可持续的解决方案,因此生产环保材料非常重要。本研究采用超声法制备的氯化钴-谷氨酸(Co-Glu)生物金属有机骨架(Bio-MOF)可持续捕获和储存CO2和CH4。对于工业应用,Bio-MOF减少了能源使用,改善了材料特性,并扩大了大规模生产的规模。采用不同的反应物摩尔比对合成工艺进行了改进,并利用SEM、XRD、TGA、FTIR和BET对材料的结构和稳定性进行了分析。燃烧后实验评估了环境压力为3.0 MPa时CO2和CH4气体的吸附能力。研究发现,在27℃条件下,Bio-MOF对CO2和CH4具有较高的吸收能力,CO2吸收量为0.51 kg/kg, CH4吸收量为0.12 kg/kg,在中压条件下表现优异。等温线建模也采用langmuir, toth和langmuir-freundlich (Sips)模型模拟吸附等温线,在大多数回归中观察到R2值为0.99,AARE值为0.05。利用Clausius-Clapeyron和Chakraborty-Saha-Koyama (CSK)方程计算了高达700 kJ/kg的吸附焓,突出了生物mofs在储气应用中的节能潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ultrasonic-assisted synthesis of Bio-MOF-based cobalt-glutamic acid for CO2/CH4 adsorption: Experimental and isotherm modeling
The natural gas and carbon capture industries require sustainable solutions, therefore producing eco-friendly materials is important. The Bio-Metal Organic Framework (Bio-MOF) of cobalt chloride and L-glutamic acid (Co-Glu) produced ultrasonically in this research captures and stores CO2 and CH4 sustainably. For industrial applications, the Bio-MOF reduces energy usage, improves material characteristics, and scales for mass manufacturing. The synthesis was improved using several reactant molar ratios, and SEM, XRD, TGA, FTIR, and BET were used to analyze the material's structure and stability. Post-combustion experiments evaluated CO2 and CH4 gas adsorption ability from ambient pressure up to 3.0 MPa. The research found that the Bio-MOF had high uptake capacity for CO2 and CH4 at 27 °C, with CO2 uptakes of 0.51 kg/kg and CH4 uptakes of 0.12 kg/kg, demonstrating excellent performance at moderate pressures. Isotherm modelling were also undertaken with the langmuir, toth, and langmuir-freundlich (Sips) model to simulate adsorption isotherms with R2 values of 0.99 and AARE values of 0.05 observed in most regressions. The Clausius-Clapeyron and Chakraborty-Saha-Koyama (CSK) equation was used to compute the enthalpy of adsorption up to 700 kJ/kg, highlighting the energy-efficient potential of Bio-MOFs in gas storage applications.
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CiteScore
11.20
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