TY - JOUR
T1 - H2-enriched gaseous fuel production via co-gasification of an algae-plastic waste mixture using Aspen PLUS
AU - Rosha, Pali
AU - Kumar, Sandeep
AU - Vikram, Shruti
AU - Ibrahim, Hussameldin
AU - Al-Muhtaseb, Ala'a H.
N1 - Publisher Copyright:
© 2021 Hydrogen Energy Publications LLC
PY - 2022/7/22
Y1 - 2022/7/22
N2 - Thermo-chemical conversion of biomass is a promising technological alternative for producing renewable fuel and reducing waste disposal. This simulation study includes the first attempt to perform co-gasification of algae-plastic waste for H2-enriched gaseous fuel production. An Aspen Plus-based simulation model was developed to evaluate the influence of gasifier temperature and equivalence ratio on the syngas composition, heating value, and carbon conversion efficiency. Simulation results indicated that the rise in gasifier temperature favoured the H2 and CO formation, and further, plastic loading enhanced H2 production to a greater extent. It was observed that the product (H2 and CO) yield decreased significantly with the rise of the equivalence ratio. At the same time, CO2 formation increased due to more carbon conversion after enhancing O2 content in the gasifier. It was also noticed that the synergy of biomass and plastic waste significantly enhanced H2 content and improved heating value, leading to a produced energy-efficient gaseous product. It is inferred that H2-enriched feedstock acts as an H2 donor to the H2 deficient biomass. Based on the findings, consistency in the simulation results was observed compared with the previous literature. Hence, a mixture of biomass and plastic waste favours obtaining an energy-efficient renewable fuel that could be utilized for different applications.
AB - Thermo-chemical conversion of biomass is a promising technological alternative for producing renewable fuel and reducing waste disposal. This simulation study includes the first attempt to perform co-gasification of algae-plastic waste for H2-enriched gaseous fuel production. An Aspen Plus-based simulation model was developed to evaluate the influence of gasifier temperature and equivalence ratio on the syngas composition, heating value, and carbon conversion efficiency. Simulation results indicated that the rise in gasifier temperature favoured the H2 and CO formation, and further, plastic loading enhanced H2 production to a greater extent. It was observed that the product (H2 and CO) yield decreased significantly with the rise of the equivalence ratio. At the same time, CO2 formation increased due to more carbon conversion after enhancing O2 content in the gasifier. It was also noticed that the synergy of biomass and plastic waste significantly enhanced H2 content and improved heating value, leading to a produced energy-efficient gaseous product. It is inferred that H2-enriched feedstock acts as an H2 donor to the H2 deficient biomass. Based on the findings, consistency in the simulation results was observed compared with the previous literature. Hence, a mixture of biomass and plastic waste favours obtaining an energy-efficient renewable fuel that could be utilized for different applications.
KW - Algae
KW - Aspen plus
KW - Co-gasification
KW - Hydrogen
KW - Plastic waste
KW - Simulation
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U2 - 10.1016/j.ijhydene.2021.11.092
DO - 10.1016/j.ijhydene.2021.11.092
M3 - Article
AN - SCOPUS:85120857595
SN - 0360-3199
VL - 47
SP - 26294
EP - 26302
JO - International Journal of Hydrogen Energy
JF - International Journal of Hydrogen Energy
IS - 62
ER -