Roshan SharmaPalak Yatin LodhSuresh ChandVikas Chaudhary
Biomass gasification stands as a beacon of hope in the quest for sustainable energy, offering a pathway to utilize organic matter for power generation while mitigating environmental impact. By converting biomass into a versatile syngas, this process holds immense potential in transitioning towards cleaner energy alternatives. Employing Aspen Plus, a robust process simulation tool, this study delves deep into biomass gasification, employing an equilibrium non-stoichiometric model at a precise temperature of 850°C. Through meticulous analysis, the focus lies on optimizing operational parameters to maximize both syngas production and subsequent power generation in a turbine. The findings underscore the efficacy of the approach, revealing key insights through sensitivity analysis and optimization techniques. By fine-tuning operational parameters, an optimal balance is achieved, yielding significant enhancements in syngas output and consequent power generation. These results not only serve as a practical guide for aspiring chemical engineers but also offer invaluable insights for industry professionals seeking to harness biomass resources for sustainable energy production
Zhongbin FuYaning ZhangHui LiuBo ZhangBingxi Li
Mehrdokht B. NikooNader Mahinpey
de Paula Oliveira, Antonio Geraldo
Ramesh TimsinaRajan K. ThapaMarianne S. Eikeland