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Hydrogen rich syngas production through sewage sludge pyrolysis: A comprehensive experimental investigation and performance optimisation using statistical analysis

Process Safety and Environmental Protection 2024 9 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 45 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Kumar Vijayalakshmi Shivaprasad, Kumar Vijayalakshmi Shivaprasad, J. A. Heslop, J. A. Heslop, Dibyendu Roy, Abdullah Malik, Abdullah Malik, Yaodong Wang, Anthony Paul Roskilly, Huashan Bao

Summary

Researchers investigated sewage sludge pyrolysis as a route to hydrogen-rich syngas, optimizing temperature, heating rate, and feedstock conditions through statistical analysis. Results showed pyrolysis could yield syngas with elevated hydrogen content, supporting sewage sludge as a viable feedstock for renewable fuel production.

Study Type Environmental

Bioenergy is anticipated to play a significant role in the United Kingdom’s Net Zero 2050 scenario. This study aims to explore the possibility of producing hydrogen-rich syngas using sewage sludge from the Howden wastewater treatment plant located in Newcastle, United Kingdom. The primary objective of this study is to experimentally produce hydrogen-rich syngas from sewage sludge through pre-treatment, drying, and pyrolysis. Furthermore, statistical methods have been employed to optimise the performance of the pyrolyser. The individual desirability scores for lower heating value (LHV) and cold gas efficiency (CGE) were estimated to be 0.83902 and 0.85307, respectively. Combining these scores, the overall desirability of the model reached 0.8460, indicating favourable predictive performance. The optimal operational conditions are reported to be a feed rate of 3.0488 revolutions per minute (rpm) and an operational temperature of 800°C. Under these conditions, the highest calculated CGE of 66.31% and the peak LHV value of 18.36 MJ/ m^3 were achieved.

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