The search for environmentally friendly energy production solutions requires new ideas to solve problems such as the temporal fluctuations of renewable energy sources and the long distances between generation and consumption. (opens in new tab) To enable the transition to greener energy production, a detailed understanding of the combustion of solids at the laboratory scale is needed. The use of chemical energy carriers, especially solid fuels, plays an important role in this process.
A by new review article , Tao Li , Christopher Geschwindner and Andreas Dreizler in the journal Measurement Science and Technology summarizes the current state of research on this topic. The focus is on advances in the application of particle-resolving optical diagnostics to study solid fuel combustion at the microscopic level. This includes experiments on the combustion of coal and biomass in oxy-fuel atmospheres and on the Benjamin Böhm. use of iron in regenerative oxidation-reduction processes
The article classifies the investigations in the literature according to fuel type, reactor type and investigated parameters and presents examples of individual, pioneering investigations. Important measurement parameters are number density, particle size and shape, surface temperature, ignition and burnout times, structure of gas flames, gas temperature, formation of nanoparticles, gas velocity and particle dynamics.
Difficulties and research gaps in the study of solid fuel combustion are highlighted based on the current state of research, and future experimental needs are outlined. The article provides a comprehensive insight into clean power generation by solid fuel combustion and the importance of particle-resolving optical diagnostics.
Open Access to the article
Particle-resolved optical diagnostics of solid fuel combustion for clean power generation: a review
(opens in new tab) Download of the original article in the Journal Measurement Science and Technology