Publication: Simulation of the Catalytic Gasification of Banana Biomass in the Production of Hydrogen, Using Glucose as a Model Compound
Loading...
Date
2023
Journal Title
Journal ISSN
Volume Title
Publisher
Abstract
Abstract: In the face of the climate change problem caused by fossil fuels, it is essential to seek efficient
alternative energies with a lower environmental impact that are derived from renewable resources.
Biomass gasification technology continues to generate significant interest in sustainable energy
research as an alternative to traditional combustion technology. Gasification involves the thermochemical
conversion of raw materials, resulting in a highly valuable gaseous product known as
synthesis gas, commonly used as a fuel. Its numerous advantages include the availability of raw
materials, the reduction in harmful emission streams, performance, and costs. As this topic gains
momentum in the global energy framework, it is imperative to advance the maturity of this technology
by addressing its weaknesses, primarily in terms of efficiency. The objective of this project
was to investigate the hydrogen production process through the simulation of glucose gasification
as a representative compound for biomass. This was achieved by conducting an integrated simulation
of glucose gasification, encompassing both the heat transfer in the external system and the conversion
of glucose into hydrogen gas, using the results obtained in the external system as initial
conditions. Interrelated aspects of this complex process, including heat transfer and the kinetics of
the gasification process, were modeled. Glucose was selected as the model compound due to its
availability, simplicity, fundamental understanding, reproducibility, comparability, knowledge of
reaction pathways, and simplification of mathematical models. The simulation resulted in a H2:CO
ratio of 2.2, and molar fluxes were obtained for H2, CO, CO2, CH4, and H2O consistent with those
typically observed in the gasification process of organic maer. These models were constructed,
laying the foundation for the adaptability of subsequent optimization studies.
Description
Keywords
Simulation, kinetics, Python, Ansys, Hydrogen
